FitSugar

Irritated About Bumps on Your Arms?

FitSugar — Wed, 11 Jul 2007 04:00:00 -0700

As long as I've known my best friend, she's been complaining about these tiny red bumps on the backs of her arms. She thought they were some kind of acne, like what you get on your back when you workout, so she went to her dermatologist to find out.

It turns out that it was a common condition called keratosis pilaris - a complicated name meaning bumpy skin. Actually 50% of people have it, so if you don't have it yourself, you probably know someone who does. It can be on the backs of your arms, your tush, and your thighs. The dead skin cells that are supposed to just flake off, get plugged up in the hair follicles. They look like tiny red or white pimples that have a dry, sandpaper feel. They don't hurt or itch, but they can make you feel self-conscious about baring your skin.

What can you do about these bumps? Use a good moisturizer twice a day - one containing salicylic acid, urea, or alphahydroxy might be your best bet. You can also take hot showers, let the skin soak a little, and then gently exfoliate using loofah gloves. A dermatologist can also prescribe a topical retinoid cream (made from vitamin A), which may help promote cell turnover and prevent the hair follicles from getting plugged in the first place. Whatever you do, I'm sorry to say that it takes constant maintenance - if you stop, the bumps will come back. Since they're harmless, I wouldn't worry about them too much.

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Hair follicle

admin — Thu, 04 Sep 2008 19:30:59 -0700

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HEALTH GUIDE REFERENCE FROM A.D.A.M

Each hair sits in a cavity in the skin called a follicle. Over time the follicle can shrink causing the hair to become shorter and finer. Ordinarily, the hair should grow back but in men who are balding the very small follicle ceases to grow any hair. The cause of baldness is not well understood, but is thought to be related to the genes and male sex hormones of the individual.

Review Date: 7/18/2007

Reviewed By: Kevin Berman, MD, PhD, Associate, Atlanta Center for Dermatologic Disease, Atlanta, GA. Review provided by VeriMed Healthcare Network.

A.D.A.M., Inc. is accredited by URAC, also known as the American Accreditation HealthCare Commission (www.urac.org). URAC's accreditation program is an independent audit to verify that A.D.A.M. follows rigorous standards of quality and accountability. A.D.A.M. is among the first to achieve this important distinction for online health information and services. Learn more about A.D.A.M.'s editorial policy, editorial process and privacy policy. A.D.A.M. is also a founding member of Hi-Ethics and subscribes to the principles of the Health on the Net Foundation (www.hon.ch).

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The information provided herein should not be used during any medical emergency or for the diagnosis or treatment of any medical condition. A licensed medical professional should be consulted for diagnosis and treatment of any and all medical conditions. Call 911 for all medical emergencies. Links to other sites are provided for information only -- they do not constitute endorsements of those other sites. © 1997-2009 A.D.A.M., Inc. Any duplication or distribution of the information contained herein is strictly prohibited.

adam.com

Source Doc: 2_19647

Hair follicle anatomy

admin — Thu, 04 Sep 2008 19:40:59 -0700

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HEALTH GUIDE REFERENCE FROM A.D.A.M

At the base of the hair follicle are sensory nerve fibers that wrap around each hair bulb. Bending the hair stimulates the nerve endings allowing a person to feel that the hair has been moved. One of the main functions of hair is to act as a sensitive touch receptor. Sebaceous glands are also associated with each hair follicle that produce an oily secretion to help condition the hair and surrounding skin.

Review Date: 11/13/2006

Reviewed By: Kevin Berman, MD, PhD, Associate, Atlanta Center for Dermatologic Disease, Atlanta, GA. Review provided by VeriMed Healthcare Network.

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adam.com

Source Doc: 2_9703

Hair follicle of young person

admin — Thu, 04 Sep 2008 19:35:44 -0700

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HEALTH GUIDE REFERENCE FROM A.D.A.M

Hair color is caused by a pigment (melanin) that is produced by the hair follicle. With aging, the follicle produces less melanin.

Review Date: 11/7/2006

Reviewed By: Sandra W. Cohen, M.D. Private Practice specializing in geriatrics, Brooklyn, NY. Review provided by VeriMed Healthcare Network.

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adam.com

Source Doc: 2_8669

Hair follicle sebaceous gland

admin — Thu, 04 Sep 2008 19:31:09 -0700

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HEALTH GUIDE REFERENCE FROM A.D.A.M

Each pore on the surface of the skin is an opening to a canal called a follicle. The follicle also contains a hair and an oil gland (sebaceous gland). The oil gland helps remove old skin cells, keeps the skin lubricated, and prevents drying of tissues.

Review Date: 10/17/2007

Reviewed By: Michael Lehrer, M.D., Department of Dermatology, University of Pennsylvania Medical Center, Philadelphia, PA. Review provided by VeriMed Healthcare Network.

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adam.com

Source Doc: 2_19666

Aged hair follicle

admin — Thu, 04 Sep 2008 19:35:44 -0700

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HEALTH GUIDE REFERENCE FROM A.D.A.M

Aged hair follicles are no longer as prepared for new hair growth.

Review Date: 11/7/2006

Reviewed By: Sandra W. Cohen, M.D. Private Practice specializing in geriatrics, Brooklyn, NY. Review provided by VeriMed Healthcare Network.

A.D.A.M. Copyright

adam.com

Source Doc: 2_8670

Infertility in women

FitSugar — Wed, 08 Oct 2008 17:35:02 -0700

HEALTH GUIDE REFERENCE FROM A.D.A.M

Highlights

New At-Home Fertility Test for Couples

Fertell is a new at-home fertility test kit for couples. It screens for sperm motility concentrations and follicle-stimulating hormone (FSH) levels. Fertell may be helpful as an initial test for infertility, but for a definitive diagnosis it is important to consult a doctor. Infertility can be due to many different factors.

Intracytoplasmic Sperm Injection Overused for Female Infertility

The assisted reproductive technology intracytoplasmic sperm injection (ICSI) is being increasingly used in combination with in vitro fertilization (IVF), even for couples who do not have problems with male infertility, suggests a 2007 study in the New England Journal of Medicine. Researchers found that use of ICSI has increased 5-fold in the past decade. Some doctors are now recommending ICSI for women who have failed prior IVF cycles or who have few or poor-quality eggs. Doctors caution that ICSI should be used only to improve pregnancy chances for couples with male-factor infertility.

Clomiphene Best for PCOS-Associated Infertility

The infertility drug clomiphene (Clomid) works better than the diabetes drug metformin (Glucophage) for treating infertility resulting from polycystic ovarian syndrome (PCOS), indicates a 2007 study in the New England Journal of Medicine.

Fertility Drugs and Breast Cancer

Fertility drugs such as clomiphene and gonadotropins do not increase the risk for breast cancer, indicate several studies. In fact, according to a 2006 study in the Archives of Internal Medicine, clomiphene may decrease breast cancer risk.

Iron Deficiency and Female Infertility

Iron deficiency may increase the risk for ovulatory infertility, suggests a 2006 study in Obstetrics and Gynecology. Researchers found that women who took daily iron supplements were 40% less likely to be infertile than women who did not take supplements. Some experts recommend screening for iron deficiency as part of the clinical evaluation for infertility.

Introduction

Infertility is the failure of a couple to become pregnant after one year of regular, unprotected intercourse. In both men and women the fertility process is complex.

About 10% of couples who wish to have a baby are still unable to after a year of unprotected sex. About half of these couples can achieve pregnancy within 2 years after appropriate treatment of the woman, the man, or both. Even under ideal circumstances, the probability that a woman will get pregnant during a single menstrual cycle is only about 30%. And, when conception does occur, only 50 - 60% of pregnancies advance beyond the 20th week. (The inability of a woman to produce a live birth because of abnormalities that cause miscarriages is called infecundity and is not discussed in detail in this report.)

Males and females each account for 40% of infertility. In the remaining 20%, either both partners are responsible or the cause is unclear. Although this report specifically addresses infertility in women, it is equally important for the male partner to be tested at the same time. [See In-Depth Report #67: Infertility in men.]

The Reproductive System

The Primary Organs and Structures in the Reproductive System. The primary structures in the reproductive system are:

The uterus is a pear-shaped organ located between the bladder and lower intestine. It consists of two parts, the body and the cervix.
When a woman is not pregnant the body of the uterus is about the size of a fist, with its walls collapsed and flattened against each other. During pregnancy the walls of the uterus are pushed apart as the fetus grows.
The cervix is the lower portion of the uterus. It has a canal opening into the vagina with an opening called the os, which allows menstrual blood to flow out of the uterus into the vagina.
Leading off each side of the body of the uterus are two tubes known as the fallopian tubes. Near the end of each tube is an ovary.
Ovaries are egg-producing organs that hold 200,000 - 400,000 follicles (from folliculus, meaning "sack" in Latin). These cellular sacks contain the materials needed to produce ripened eggs, or ova.
The inner lining of the uterus is called the endometrium. During pregnancy, it thickens and becomes enriched with blood vessels to house and support the growing fetus. If pregnancy does not occur, the endometrium is shed as part of the menstrual flow. Menstrual flow also consists of blood and mucus from the cervix and vagina.

The uterus is a hollow muscular organ located in the female pelvis between the bladder and rectum. The ovaries produce the eggs that travel through the fallopian tubes. Once the egg has left the ovary it can be fertilized and implant itself in the lining of the uterus. The main function of the uterus is to nourish the developing fetus prior to birth.

Reproductive Hormones. The hypothalamus (an area in the brain) and the pituitary gland regulate the reproductive hormones.

Click the icon to see an image of the hypothalamus and pituitary gland.

The pituitary gland is often referred to as the master gland because of its important role in many vital functions, many of which require hormones. In women, six key hormones serve as chemical messengers that regulate the reproductive system:

The hypothalamus first releases the gonadotropin-releasing hormone (GnRH).
This chemical, in turn, stimulates the pituitary gland to produce follicle-stimulating hormone (FSH) and luteinizing hormone (LH).

Click the icon to see an image of the pituitary gland.

Estrogen, progesterone, and the male hormone testosterone are secreted by the ovaries at the command of FSH and LH and complete the hormonal group necessary for reproductive health.

Ovulation. The process leading to fertility is very intricate. It depends on the healthy interaction of two sets of organs and hormone systems in both the male and female. In addition, reproduction is limited by the phases of female fertility. Nevertheless, this astonishing process results in conception within a year for about 80% of couples. Only 15% conceive within a month of their first attempts, however, and about 60% succeed after 6 months.

A woman's ability to produce children occurs after she enters puberty and begins to menstruate. The process of conception is complex:

With the start of each menstrual cycle, follicle-stimulating hormone (FSH) stimulates several follicles to mature over a 2-week period until their eggs nearly triple in size. Only one follicle becomes dominant, however, during a cycle.
FSH signals this dominant follicle to produce estrogen, which enters the bloodstream and reaches the uterus. There, estrogen stimulates the cells in the uterine lining to reproduce, therefore thickening the walls.
Estrogen levels reach their peak around the 14th day of the cycle (counting days beginning with the first day of a period). At that time, they trigger a surge of luteinizing hormone (LH).

LH serves two important roles:

First, the LH surge around the 14th cycle day stimulates ovulation. It does this by causing the dominant follicle to burst and release its egg into one of the two fallopian tubes. Once in the fallopian tube, the egg is in place for fertilization.
Next, LH causes the ruptured follicle to develop into the corpus luteum. The corpus luteum provides a source of estrogen and progesterone during pregnancy.

Click the icon to see an image of the corpus luteum.

Fertilization. The so-called "fertile window" is 6 days long and starts 5 days before ovulation and ends the day of ovulation. Fertilization occurs as follows:

The sperm can survive for up to 3 days once it enters the fallopian tube. The egg survives 12 - 24 hours unless it is fertilized by a sperm.
If the egg is fertilized, about 2 - 4 days later it moves from the fallopian tube into the uterus where it is implanted in the uterine lining and begins its 9-month incubation.
The placenta forms at the site of the implantation. The placenta is a thick blanket of blood vessels that nourishes the fertilized egg as it develops.

Click the icon to see an image of the placenta.

The corpus luteum (the yellow tissue formed from the ruptured follicle) continues to produce estrogen and progesterone during pregnancy.

If the egg is not fertilized, the corpus luteum degenerates into a form called the corpus albicans, and estrogen and progesterone levels drop. Finally, the endometrial lining sloughs off and is shed during menstruation.


Menstrual Phases	Typical No. of Days	Hormonal Actions
Follicular (Proliferative) Phase	Cycle Days 1 - 6: Beginning of menstruation to end of blood flow.	Estrogen and progesterone start out at their lowest levels. FSH levels rise to stimulate maturity of follicles. Ovaries start producing estrogen and levels rise, while progesterone remains low.
	Cycle Days 7 - 13: The endometrium (the inner lining of the uterus) thickens to prepare for the egg implantation.
Ovulation	Cycle Day 14:	Surge in LH. Largest follicle bursts and releases egg into fallopian tube.
Luteal (Secretory) Phase, also known as the Premenstrual Phase	Cycle Days 15 - 28:	Ruptured follicle develops into corpus luteum, which produces progesterone. Progesterone and estrogen stimulate blanket of blood vessels to prepare for egg implantation.
	If fertilization occurs:	Fertilized egg attaches to blanket of blood vessels that supplies nutrients for the developing placenta. Corpus luteum continues to produce estrogen and progesterone.
	If fertilization does not occur:	Corpus luteum deteriorates. Estrogen and progesterone levels drop. The blood vessel lining sloughs off and menstruation begins.

Onset of Menstruation (Menarche). Previous evidence had set the onset of menstruation, called the menarche, at an average age of 12 or 13. Recent studies, however, set the time of onset earlier by about 1 year in Caucasian girls and 2 years in African-American girls. Currently, the youngest possible age for normal puberty is 7 years old for Caucasians and 6 years old for African-Americans, down from a previous low of 8 years for both.

Evidence is pointing to the increasing incidence of childhood obesity as a major cause of the trend in earlier menarche onset. (Obesity is also highly associated with hormonal disorders in girls entering puberty at young ages.) Environmental estrogens found in chemicals and pesticides are also suspects.

Length of Monthly Cycle. The menstrual cycle can be very irregular for the first 1 - 2 years, usually being longer than the average of 28 days. The length then generally stabilizes to an average of 28 days, although the cycle length may range from 20 - 45 days and still be considered normal. A variation of 10 days or more -- either more or fewer days -- may have an impact on fertility, however. When a woman reaches her 40s the cycle lengthens, reaching an average of 31 days by age 49. Several factors can affect cycle length at any age.


Risk Factors for Shorter Cycles	Risk Factors for Longer Cycles
Regular alcohol use	Being under 21 and over 44
Stressful jobs	Being very thin (also at risk for short bleeding periods)
	Competitive athletics (also at risk for short bleeding periods)

Length of Periods. Periods average 6.6 days in young girls. By the age of 21, menstrual bleeding averages 6 days until women approach menopause. However, about 5% of healthy women menstruate less than 4 days, and 5% menstruate more than 8 days.

Normal Absence of Menstruation. Normal absence of periods can occur in any woman under the following circumstances:

Menstruation stops during the duration of pregnancy. Some women continue to have irregular bleeding during the first trimester. This bleeding may indicate a threatened miscarriage and requires immediate attention by the doctor.
When women breastfeed they are unlikely to ovulate. After that time, menstruation usually resumes, and they are fertile again.
Perimenopause starts when the intervals between periods begin to lengthen, and it ends with menopause itself (the complete cessation of menstruation). Menopause usually occurs at about age 51, although smokers often go through menopause earlier.

Risk Factors

In the U.S., an estimated 10.2% of women ages 15 - 44, or about 6.1 million women, have impaired fertility, and the incidence is increasing. About 25% of women experience some period of infertility during their reproductive years.

As a woman ages, her chances for fertility decline. Infertility in older women appears to be mostly due to a higher risk for chromosomal abnormalities that occur in her eggs as they age. Older women are also more likely to have health problems that may interfere with fertility. If fertilization occurs, older, healthy women can usually successfully bear a fetus to term, although they have a higher risk for miscarriage. Using population studies, experts have come up with estimated odds for pregnancy at different ages, given no fertility intervention. One analysis of pregnancy rates based on conception on the day of ovulation suggested that women ages 19 - 26 have twice the pregnancy rates as those ages 35 - 39.


Age	Fertility %
Up until age 34	90%
By age 40	Declining to 67%
By age 45	Declining to 15%

Although most of a woman's estrogen is manufactured in her ovaries, 30% is produced in fat cells by a process that transforms circulating adrenal male hormones into estrogen. Because a normal hormonal balance is essential for the process of conception, it is not surprising that extreme weight levels, either high or low, can contribute to infertility.

Being Overweight. Being overweight or obese (fat levels that are 10 - 15% above normal) can contribute to infertility in various ways. Obesity is highly associated with polycystic ovarian syndrome (PCOS), which is the cause of infertility in some cases. In one study, overweight women without PCOS were classified in one of five grades, depending on the severity of the obesity. The risk for irregular or absent periods increased two-fold by each increase in grade. In this group, amenorrhea (absent periods) was also highly associated with type 2 diabetes and blood sugar abnormalities.

Being Underweight. Body fat levels 10 - 15% below normal can completely shut down the reproductive process. Women at risk include:

Women with eating disorders, such as anorexia or bulimia.
Women on very low-calorie or restrictive diets are at risk, especially if their periods are irregular.
Strict vegetarians might have difficulties if they lack important nutrients, such as vitamin B12, zinc, iron, and folic acid.
Marathon runners, dancers, and others who exercise very intensely. (Lower body fat contributes to menstrual irregularities in competitive athletes, but other mechanisms are also involved.)

Exposure to environmental hazards (herbicides, pesticides, industrial solvents) may affect fertility. Estrogen-like hormone-disrupting chemicals are of particular concern for infertility in men and for effects on offspring of women.

Phthalates, chemicals used to soften plastics, are under particular scrutiny for their ability to disrupt hormones. Specific phthalates of special concern include dibutyl phthalate (DBP) and others found in many products, including cosmetics and clay products sold to children (Fimo, Sculpey). Animals exposed to phthalates have significantly impaired sperm count and abnormalities in reproductive structures, such as the testes. In addition, there is some concern that exposure in pregnant women may affect the offspring.

Neurotransmitters (chemical messengers) act in the hypothalamus gland, which controls both reproductive and stress hormones. Severely elevated levels of stress hormone can, in fact, shut down menstruation. Whether stress has any significant effect on fertility or fertility treatments is unclear. One 2005 study found that psychological stress does not affect the success or failure of in vitro fertilization.

Click the icon to see an image of the hypothalamus.

Causes

Causes of infertility can be found in about 90% of infertility cases but, despite extensive tests, about 10% of couples will never know why they cannot conceive. Between 10 - 30% of cases of infertility have more than one cause. Male or female infertility each account for about 30 - 40% of cases. In men, sperm defects (their quality and quantity) are usually responsible. Female infertility is more complex.

Pelvic inflammatory disease (PID) is the major cause of female infertility worldwide. PID comprises a variety of infections caused by different bacteria that affect the reproductive organs, appendix, and parts of the intestine that lie in the pelvic area. The sites of infection most often implicated in infertility are in the fallopian tubes, a specific condition referred to as salpingitis.

Causes of PID. PID may result from many different conditions that cause infections. Among them are:

Sexually transmitted diseases (cause of most PIDs). Chlamydia trachomatis is an infectious organism that causes 75% of infertility in the fallopian tubes. Gonorrhea is responsible for most of the remaining cases.
Pelvic tuberculosis (a growing global problem as tuberculosis cases increase)
Nonsterile abortions
Ruptured appendix
Herpes virus (suggested for some cases, but not confirmed as a cause).

Symptoms of PID. The infection may be subclinical (occurring without any symptoms), or there may be fever, chills, or pelvic pain indicating inflammation of the entire pelvic area.

Effects of PID. Severe or frequent attacks of PID can eventually cause scarring, abscess formation, and tubal damage that result in infertility. About 20% of women who develop symptomatic PID become infertile. PID also significantly increases the risk of ectopic pregnancy (fertilization in the fallopian tubes). The severity of the infection, not the number of the infections, appears to pose the greater risk for infertility.

Endometriosis may account for as many as 30% of infertility cases. Some evidence suggests that between 30 - 50% of women with endometriosis are infertile. Often, however, it is difficult to determine if endometriosis is the primary cause of infertility, particularly in women who have mild endometriosis. Endometriosis rarely causes an absolute inability to conceive, but, nevertheless, it can contribute to it both directly and indirectly.

Endometriosis is the condition in which the tissue that normally lines the uterus (endometrium) grows on other areas of the body causing pain and irregular bleeding.

Direct Effect of Endometrial Cysts. Endometrial cysts may directly cause infertility in several ways:

If implants occur in the fallopian tubes, they may block the egg's passage.
Implants that occur in the ovaries prevent the release of the egg.
Severe endometriosis can eventually form rigid webs of scar tissue (adhesions) between the uterus, ovaries, and fallopian tubes, thereby preventing the transfer of the egg to the tube.

Immune Factors and the Inflammatory Response. Researchers are focusing on defects in the immune system that not only may be responsible for endometriosis in the first place but may also cause the infertility associated with endometriosis. Even in early stage endometriosis, investigators have observed increased immune system activity.

Other Conditions Linking Endometriosis and Infertility. Researchers have sometimes noted unusually low levels of specific substances that enable a fertilized egg to adhere to the uterine lining. (Such abnormalities are more often a factor in infertility in women with mild-to-moderate endometriosis than in those with severe cases.)

One study found that the eggs in women with endometriosis appeared to have more genetic abnormalities than those in women without the disorder.

Polycystic ovarian syndrome (PCOS) is a condition in which the ovaries produce high amounts of androgens (male hormones), particularly testosterone. PCOS occurs in about 6% of women, and amenorrhea or oligomenorrhea (infrequent menses) is quite common. According to one study, nearly 30% of obese women with PCOS had amenorrhea. (The rate was lower -- 4.7% -- in women with normal weight.)

Click the icon to see an image of polycystic ovarian syndrome.

In PCOS, increased androgen production produces high luteinizing hormone (LH) levels and low follicle-stimulating hormone (FSH) levels, so that follicles are prevented from producing a mature egg. Without egg production, the follicles swell with fluid and form into cysts. Every time an egg is trapped within the follicle, another cyst forms, so the ovary swells, sometimes reaching the size of a grapefruit. Without ovulation, progesterone is no longer produced, whereas estrogen levels remain normal.

The elevated levels of androgens (hyperandrogenism) can cause obesity, facial hair, and acne, although not all women with PCOS have such symptoms. Other male characteristics, such as deepening voice and clitoral enlargement, are rare.

PCOS also poses a high risk for insulin resistance, particularly in women who are also obese. Insulin resistance is associated with diabetes type 2, in which insulin levels are normal or high but the body cannot use this hormone efficiently. About half of PCOS patients, in fact, also have diabetes.

Premature ovarian failure is the early depletion of follicles before age 40, which, in most cases, leads to premature menopause. It affects about 1% of women and is typically preceded by irregular periods, which might continue for years. In this condition, follicle-stimulating hormone (FSH) levels are elevated, as they are during perimenopause. Premature ovarian failure is a significant cause of infertility, and women who have this condition have only a 5 - 10% chance to conceive without fertility treatments.

Causes of Premature Ovarian Failure. There are numerous causes of premature ovarian failure. Often the cause of this disorder or other causes of premature ovarian failure is unknown. In some cases, premature ovarian failure may represent an acceleration of the aging process.

The following conditions may produce premature ovarian failure:

Adrenal, pituitary, or thyroid gland deficiencies.
Genetic factors related to the X chromosome. A woman needs two functioning X chromosomes for normal reproduction. When one is abnormal, ovarian function fails. The most severe example is Turner syndrome, a genetic condition, in which one of the two X-chromosomes is missing or malfunctioning. Milder cases of ovarian failure can occur in fragile X syndrome and other rare inherited conditions that cause partial X-chromosome abnormalities.
Cancer treatments (radiation, chemotherapy, or both). Women who are undergoing cancer treatments and who want to become pregnant should see a reproductive specialist to discuss their options. According to the American Society of Clinical Oncology's 2006 guidelines, the fertility preservation method with the best chance of success is embryo cryopreservation. This procedure involves harvesting a woman's eggs (oocytes), followed by in vitro fertilization and freezing of embryos for later use. Other treatments under investigation include egg preservation, collecting and freezing unfertilized eggs, removing and freezing a part of the ovary for later reimplantation, and using hormone therapy to protect the ovaries during chemotherapy. Women may be able to access these investigational approaches through enrolling in clinical trials.
Autoimmunity. Autoimmune diseases -- including type 1 diabetes, systemic lupus erythematosus, autoimmune hypothyroidism, and autoimmune Addison's disease -- are associated with a higher risk for early menopause. Autoimmunity, however, may also play a role in some cases of premature ovarian failure without the presence of specific autoimmune diseases. In such cases, antibodies specifically attack the cells that secrete reproductive hormones thus causing ovarian failure.
Other causes of premature ovarian failure include sarcoidosis, mumps, some sexually transmitted diseases, and tuberculosis. Women with epilepsy are at higher risk for premature ovarian failure.

Idiopathic hypogonadotropic hypogonadism is a rare condition in which follicle-stimulating hormone (FSH) and luteinizing hormone (LH) are underproduced, preventing the development of functional ovaries. There are no other abnormalities in the hypothalamus-pituitary axis (such as tumors or abnormal stress hormones or prolactin). In most cases, the causes of hypergonadotropic hypogonadism are unknown. Genetic factors, including Kallman syndrome, have been identified in about 20% of these cases.

Functional hypothalamic amenorrhea (FHA) is the absence of menstruation due to disturbances in the thyroid gland and hypothalamus-pituitary-adrenal (HPA) system, which regulates reproduction and other important functions. The eating disorders anorexia and bulimia are most often associated with FHA. FHA may be due to other different factors, most unknown.

Luteal phase defect is a general term referring to problems in the corpus luteum that result in inadequate production of progesterone. Because progesterone is necessary for thickening and preparing the uterine lining, the ovum fails to successfully implant in the endometrium. Between 25 - 60% of women who have recurrent miscarriages may have a luteal phase defect. A luteal phase defect, however, can also occur in fertile women, so other factors may be responsible for implantation failure.

Benign fibroid tumors in the uterus are extremely common in women in their 30s. The effect of fibroids on fertility is controversial. One analysis suggested that they may account for infertility in only 1 - 2.4% of women who are having trouble conceiving.

Large fibroids may cause infertility impairing the uterine lining, by blocking the fallopian tube, or by distorting the shape of the uterine cavity or altering the position of the cervix.

Some evidence suggests that even small fibroids may reduce the chances of pregnancy in women who are undergoing assisted reproductive techniques. Treatments to reduce fibroids may be helpful in such women, although there has been little research on this subject.

Click the icon to see an image of uterine fibroids.

Prolactin is a hormone produced in the pituitary gland that stimulates breast development and milk production in association with pregnancy. High levels of prolactin (hyperprolactinemia) reduce gonadotropin hormones and inhibit ovulation. Hyperprolactinemia in women who are not pregnant or nursing can be caused by hypothyroidism or pituitary adenomas. (These are benign tumors that secrete prolactin. They can cause headache and visual problems as well as breast secretions.) Some drugs, including oral contraceptives and some antipsychotic drugs, can also elevate levels of prolactin.

Secretions from the breast not related to pregnancy or nursing (called galactorrhea) are a telltale symptom of high prolactin levels and should be investigated.

Inborn Abnormalities. Inborn genital tract abnormalities may cause infertility. Mullerian agenesis is a specific malformation in which no vagina or uterus develops. Even in these cases, some women can become mothers by undergoing in vitro fertilization and having the fertilized egg implanted in another woman who is willing and able to carry the pregnancy (a surrogate mother).

Uterine or Abdominal Scarring. Bands of scar tissue that bind together after abdominal or pelvic surgery or infection (called adhesions) can restrict the movement of ovaries and fallopian tubes and may cause infertility. Asherman syndrome, for example, is scarring in the uterus that can cause obstructions and secondary amenorrhea. It may be caused by surgery, repeated injury, or unknown factors. Laparoscopic surgery is less likely to cause adhesions than standard open surgery.

In some of these cases, surgery may be helpful. One technique, called pressure lavage under ultrasound guidance (PLUG), may prove to be useful for treating some cases of mild scarring in the uterus (intrauterine adhesions). This technique is based on transvaginal sonohysterography, which uses ultrasound along with saline infused into the uterus to enhance visualization. Continuous accumulation of saline in the procedure is used to break up the scars.

Ectopic Pregnancies. Ectopic pregnancies increase the risk for infertility, although subsequent pregnancy rates are quite variable. Ectopic pregnancies that terminate without treatment appear to pose a lower risk for future infertility. Even a ruptured tube does not appear to reduce the chance for a future pregnancy in most women. Such an event however can be dangerous and even life threatening for the woman. Laparoscopic surgery to remove a fallopian tube affected by an ectopic pregnancy may preserve fertility better than traditional abdominal surgery.

Click the icon to see an image of an ectopic pregnancy.

Medications. Among the medications that can cause temporary infertility are those used to treat chronic disorders, as well as antidepressants, hormones, painkillers, and antipsychotic drugs.

Inflammatory Bowel Disease. Inflammatory bowel disease (particularly Crohn's disease or surgery for ulcerative colitis) can affect fertility.

Click the icon to see an image of Crohn's disease.

Celiac Sprue. Celiac sprue is a disease in which the patient cannot tolerate gluten, a common food chemical. The disorder is also highly associated with infertility in men and women, possibly through multiple effects on nutrition, immune factors, and hormones. The mechanisms are not altogether clear, but infertility is usually reversible with strict dietary control.

Click the icon to see an image of celiac sprue.

Iron Intake. Nutritional iron deficiency may contribute to female infertility. According to a 2006 study, women who take iron supplements are 40% less likely to experience ovulatory infertility than women who do not take iron supplements. Some researchers suggest that screening for iron deficiency should be part of the standard work-up of infertility tests.

Epilepsy. In one study of women with epilepsy, fertility rates were 33% lower than among women in the general population, perhaps due to certain antiepileptic drugs that increase the risk for birth defects. The social effects of epilepsy may also lead to marriage at an older age, which can be associated with delayed attempts to get pregnant and thereby affect fertility.

Thyroid Problems. Thyroid problems, either too much thyroid hormone (hyperthyroidism) or too little (hypothyroidism), can interrupt cycles.

Click the icon to see an image of hyperthyroidism.

Click the icon to see an image of hypothyroidism.

Metabolic Syndrome (also Called Syndrome X). Doctors diagnose this condition when at least three of the following abnormalities are present:

Abdominal obesity
Low HDL (good) cholesterol levels
High triglyceride levels
High blood pressure
Insulin resistance

Metabolic syndrome is a pre-diabetic condition that is significantly associated with heart disease. One study reported that, as with polycystic ovarian syndrome, women with metabolic syndrome have higher levels of male hormones and are therefore at risk for infertility. Another study estimated that 24% of the population now has this condition.

Other Medical Conditions. Medical conditions associated with delayed puberty and amenorrhea (absence of periods) include Cushing's disease, sickle cell disease, HIV, kidney disease, and diabetes. Genetic mutations that affect luteinizing hormone may also be responsible for some cases of light or absent menstruation. Other rare genetic disorders, such as Kallman syndrome, cause abnormalities in the hypothalamus of the brain.

Diagnosis

In any fertility work-up, both male and female partners are tested if pregnancy fails to occur after a year of regular unprotected sexual intercourse. Fertility testing should be done earlier if a woman is over 35 years old or if either partner has known risk factors for infertility. An analysis of the man's semen should be performed before the female partner undergoes any invasive testing.

The first step in any infertility work up is a complete medical history and physical examination. Sexual technique and timing, menstrual history, lifestyle issues (such as smoking and drug, alcohol, and caffeine consumption), any medications being taken, and a profile of the patient's general medical and emotional health can help the doctor decide on appropriate tests.

Before embarking on an expensive fertility work-up, the following steps are free or low-cost and can be helpful:

Monitor basal body temperature. This is accurate in determining if ovulation is actually taking place.
Test the consistency of your cervical mucus. Collect some mucus between your two fingers and stretch it apart. If you are near the time of ovulation, the mucus will stretch more than 1 inch before it breaks. As an alternative, at-home kits can test saliva as substitute for checking cervical mucus.
Take an over-the-counter urine test for detecting luteinizing hormone (LH) surges. This helps determine the day of ovulation.
Fertell is the first at-home test kit for couples that is approved by the Food and Drug Administration. Women can test their urine for levels of follicle-stimulating hormone (FSH), while men can test their semen for sperm motility (ability of sperm to move). Fertell became available online and in some pharmacies in June 2007.

Several laboratory tests may be used to detect the cause of infertility and monitor treatments:

Hormonal Levels. Blood and urine tests are taken to evaluate hormone levels. Hormonal tests for ovarian reserve (the number of follicles and quality of the eggs) are especially important for older women.

Examples of possible results include:

High follicle-stimulating hormone (FSH) and luteinizing hormone (LH) levels and low estrogen levels suggest premature ovarian failure or hypogonadotropic hypogonadism.
High LH and low FSH may suggest polycystic ovary syndrome or luteal phase defect.
High FSH and high estrogen levels on the third day of the cycle predicts poor success rates in older women trying fertility treatments.
LH surges indicate ovulation.
Blood tests for prolactin levels and thyroid function are also measured. These are hormones that may indirectly affect fertility.

Clomiphene Challenge Test. Clomiphene citrate (Clomid, Serophene), a standard fertility drug, may be used to test for ovarian reserve. With this test, the doctor measures FSH on day 3 of the cycle. The woman takes clomiphene orally on days 5 and 9 of the cycle. The doctor measures FSH on the tenth day. High levels of FSH either on day 3 or day 10 indicate a poor chance for a successful outcome.

Tissue Samples. To rule out luteal phase defect, premature ovarian failure, and absence of ovulation, the doctor may take tissue samples of the uterus 1 - 2 days before a period to determine if the corpus luteum is adequately producing progesterone. Tissue samples taken from the cervix may be cultured to rule out infection.

Tests for Autoimmune Disease. Tests for autoimmune disease, such as hypothyroidism and diabetes, should be considered in women with recent ovarian failure that is not caused by genetic abnormalities.

If an initial fertility work-up does not reveal abnormalities, as happens in about 40% of cases, more extensive tests will reveal abnormal tubal or uterine findings. The three major approaches for examining the uterus are ultrasound (particularly a variation called saline-infusion sonohysterography), hysterosalpingography, and hysteroscopy. Although combinations of these diagnostic approaches are often used to confirm diagnoses, one study indicated that with the introduction of saline-infusion sonohysterography, all are equally accurate and combinations do not increase accuracy. Furthermore, the ultrasound procedure is significantly less painful than the other two, suggesting that this should be the procedure of choice, if available.

Ultrasound and Sonohysterography. Ultrasound is the standard imaging technique for evaluating the uterus and ovaries, detecting fibroids, ovarian cysts and tumors, and also obstructions in the urinary tract. It uses sound waves to produce an image of the organs and entails no risk and very little discomfort.

Transvaginal sonohysterography uses ultrasound along with saline infused into the uterus, which enhances the visualization of the uterus. This technique is proving to be more accurate than standard ultrasound in identifying potential problems. It is currently the gold standard for diagnosing polycystic ovaries.

Magnetic Resonance Imaging. Magnetic resonance imaging (MRI) gives a better image of any fibroids that might be causing bleeding, but it is expensive and not usually necessary.

Hysteroscopy. Hysteroscopy is a procedure that may be used to detect the presence of endometriosis, fibroids, polyps, pelvic scar tissue, and blockage at the ends of the fallopian tubes. Some of these conditions can be corrected during the procedure by cutting away any scar tissue that may be binding organs together or by destroying endometrial implants. (It may miss cases of uterine cancer, however, and is not a substitute for more invasive procedures, such as dilation and curettage ( D&C) or endometrial biopsy, if cancer is suspected.)

It is done in the office setting and requires no incisions. The procedure uses a long flexible or rigid tube called a hysteroscope, which is inserted into the vagina and through the cervix to reach the uterus. A fiber optic light source and a tiny camera in the tube allow the doctor to view the cavity. The uterus is filled with saline or carbon dioxide to inflate the cavity and provide better viewing. This frequently causes cramping.

There are small risks of bleeding, infection, and reactions to anesthesia. Many patients experience temporary discomfort in the shoulders after the operation due to residual carbon dioxide that puts pressure on the diaphragm. The wound itself is minimally painful.

Hysterosalpingography. Hysterosalpingography is performed to discover possible blockage in the fallopian tubes and abnormalities in the uterus:

The doctor inserts a tube into the cervix through which a special dye is injected. (The patient may experience some cramping and discomfort.)
The dye passes into the uterus and up through the fallopian tubes.
An x-ray is taken of the dye-filled uterus and tubes.
If the dye is seen emerging from the end of the tube, no blockage is present. (In some cases, hysterosalpingography may even restore fertility by clearing away tiny tubal blockages.)
If results show blockage or abnormalities, the test may need to be repeated. In case of blockage, hysterosalpingography may reveal a number of conditions, including endometrial polyps, fibroid tumors, or structural abnormalities of the uterus and tubes.

The test has significant rates of false diagnoses, both positive and negative. There is a small risk of pelvic infection, and antibiotics may be prescribed prior to the procedure. One study suggested that flushing the tubes with an oil-based fluid (lipiodol) during this procedure may improve fertility rates in women with infertility of unknown causes.

As women age, the number of follicles (and therefore their egg supply) declines. Researchers are developing tests that may help determine how many are left. Such tests include the following:

Calculating the volume of the ovaries. In general, the smaller the ovaries, the fewer the remaining eggs.
Counting antral follicles. Antral follicles are those that develop but do not become dominant follicles. Instead, they form a fluid-filled space called an antrum. Women who have fewer than three to five antral follicles appear to have a poor chance of fertility.
Measuring inhibin B. Inhibin B is a growth factor produced in the ovaries. Low levels suggest fewer eggs.

Eventually these markers may be useful for determining which women need more aggressive treatments.

Genetic testing may be warranted in cases of male infertility or when genetic factors may be causing pregnancy failure in the woman. If genetic abnormalities are suspected in either partner, counseling is recommended.

A technique called preimplantation genetic diagnosis (PGD) is now available in some centers that can examine all the chromosomes in a human embryo. It helps identify abnormalities that increase the risk for infertility, treatment failures, or genetic defects in the offspring.

Treatment

Some doctors recommend that if a couple fails to conceive after 1 - 2 years of frequent unprotected sex, they should consult a fertility expert. Women who are 35 or older, however, may want to begin exploring their options if they do not become pregnant within 6 months to a year.

Several approaches can treat infertility, depending on the cause:

Lifestyle measures (healthy lifestyle, planning sexual activity with ovulation cycle, managing stress and emotions)
Treatments for endometriosis, fibroids, or menstrual disorders
Use of anti-estrogen drugs, such as clomiphene, to induce ovulation in women with ovarian dysfunction
Surgery (standard or laparoscopic) to unblock fallopian tubes
Use of hormone treatments (clomiphene or progestins) for luteal phase defect
Assisted reproductive technologies (ART) such as in vitro fertilization (IVF) or intracytoplasmic sperm injection (ICSI)

Choosing a good fertility clinic is important. Those offering assisted reproductive techniques are not always regulated by the government, and abuses have been reported, including lack of informed consent, unauthorized use of embryos, and failure to routinely screen donors for disease.

The clinic should always provide the following information:

The live-birth rate (not just pregnancy success rate) for other couples with similar infertility problems. (Multiple births, such as twins or triplets, are counted as one live birth.)
Such statistics should include high-risk women, such as those who are older or fail to produce eggs. (Some disreputable clinics give success percentages that exclude high-risk women from their total, thereby making the percentage of success much higher.)

Advanced fertility procedures and medications are extremely expensive and often not covered by insurance. Couples should be cautious about offers of rebates in the event of failure; the clinics offering them are often significantly more expensive than those that don't offer such gimmicks.


Causes of Infertility	Treatments
Endometriosis	Conservative surgery (typically laparoscopy) is the appropriate approach for restoring fertility. GnRH agonists or progestins, used to treat endometriosis itself, have no effect on fertility. Possible exceptions are GnRH agonists used after surgery. In one study, this treatment helped improve conception rates in women who subsequently underwent assisted reproductive techniques. Assisted reproductive technologies (ART). (Fertility drugs alone have no effect.) It is not clear, in any case, whether either laparoscopy for removing endometrial implants or ART has additional advantages in many of these women compared to simply trying to become pregnant through non-aggressive means.
Hyperprolactinemia	Dopamine agonists, including bromocriptine (Parlodel) or cabergoline (Dostinex). Surgery in some cases.
Luteal phase defect	Clomiphene or superovulation drugs (FSH drugs or hMG).
Hyperprolactinemia (elevated prolactin)	Bromocriptine, cabergoline to shrink tumors that result in over secretion of prolactin. Cabergoline is more effective, but bromocriptine has been used longer. Once ovulation starts, women who want to become pregnant should stop cabergoline one month before attempting conception. Surgery may be needed for women who do not respond to medications or who have large tumors.
Hypogonadotropic Hypogonadism	Fertility drugs (hMG preferable to FSH alone) with or without assisted reproductive technologies.
Pelvic Inflammatory Disease	Screening high-risk women for the presence of Chlamydia trachomatis and treating the organism before it causes symptoms could reduce the risk of PID by almost 60%. If any sexually transmitted infection is detected, both partners should receive antibiotics, even if there are no symptoms. If PID symptoms develop, particularly lower abdominal pain, fertility can be preserved if women receive antibiotics within 2 days. A delay significantly increases the risk for scarring.
Polycystic Ovarian Syndrome	Lifestyle changes (weight loss and exercise in women who are overweight.) Clomiphene is the standard first-line treatment for polycystic ovarian syndrome (PCOS)-related infertility. Although some research has indicated that the diabetes drug metformin (Glucophage) might help treat infertility in women with PCOS, a 2007 study in the New England Journal of Medicine indicated that clomiphene is much more effective.
Premature Ovarian Failure	Assisted reproductive technologies with donor eggs.
Preserving fertility after cancer treatments	Removal and freezing (called cryopreservation) of ovarian tissue containing embryos or freezing immature and unfertilized eggs to use for later reimplantation. (Freezing before cancer treatment appears to offer the best chance.) Under investigation: Ovarian transplantation procedures and gonadotropin-releasing hormone analogues, which put women in a temporary pre-pubescent state during chemotherapy and may preserve fertility.
Fallopian tubal blockage	Surgical procedures (laparoscopy or salpingostomy) to clear the tubes. (Average pregnancy rate after salpingostomy is about 30%, but they can vary widely.) Flushing the tubes with an oil-based fluid (lipiodol) during hysterosalpingography (investigative). In a 2002 study, this procedure improved pregnancy rates in women with infertility of unknown causes. Assisted reproductive technologies.
Unexplained infertility	Lifestyle measures. Fertility drugs. Assisted reproductive technologies.

Lifestyle Changes

Although there are no dietary or nutritional cures for infertility, a healthy lifestyle is important. Ovulatory problems are reversible by changing behavioral patterns. Such conditions include:

Maintain a healthy weight. Women who are either over- or underweight are at risk for fertility failure, including a lower chance for achieving success with fertility procedures. Everyone should have a diet rich in fresh fruits and vegetables and whole grains and low in saturated fats.
Stop smoking. Smoking increases the risk for infertility in both men and women, and poses a future health risk for the mother and infant. Everyone should quit.
Avoid caffeine and alcohol.
Avoid excessive exercise if it causes menstrual irregularity. However, moderate and regular exercise is essential for good health. Few women exercise to the extent that their periods are affected. For those who do, one study found that simply adding calories can restore menstruation in many cases.
Don't use electric blankets. In one study, a 74% higher incidence of spontaneous abortion was associated with using an electric blanket during the month of conception. There was no association with heated waterbeds or electromagnetic waves.
Avoid any unnecessary medications.

There is no evidence of harm to a developing fetus from low exposure to microwaves or electromagnetic waves. Women who remain anxious may derive comfort by avoiding some of these devices (such as cellular phones or electric blankets) and remaining a foot or so away from others (such as computers or microwave ovens).

Both male and female hormone levels fluctuate according to the time of day, and they vary from day to day and month to month. Some timing tips might be helpful.

Male Hormone Levels and Sexual Activity. Male hormone levels are highest in the morning. (Sexual interest also tends to be higher in the morning.) In one study of men, their sexual activity was highest in October, when conception rates were also high.

Fertility and Seasonal Changes. Different studies have reported higher sperm counts in the winter than in the summer. For women, fertility rates as measured by treatment success are highest in months when days are longest.

Monitoring Basal Body Temperature. To determine the most likely time of ovulation and therefore the time of fertility, a woman is instructed to take her body temperature, called her basal body temperature. This is the body's temperature as it rises and falls in accord with hormonal fluctuations.

Each morning before rising, the woman takes her temperature with a specialized basal body thermometer and marks the result on a graph-paper chart.
The woman also notes the days of menstruation and sexual activity.
The so-called "fertile window" is 6 days long, starts 5 days before ovulation, and ends the day of ovulation.
The chances for fertility are considered to be highest between days 10 and 17 in the menstrual cycle (with day 1 being the first day of the period, and ovulation occurring about 2 weeks later). However, cycles vary from woman to woman. Researchers suggest that women track the length of their cycles, which can run anywhere from between 19 and 60 days. A long cycle, for example, suggests a delayed ovulation date.
Immediately after ovulation the body temperature increases sharply in about 80% of cases. (Some women can be ovulating normally yet not show this temperature pattern.)

By studying the temperature patterns after a few months, couples can begin to anticipate ovulation and plan their sexual activity accordingly. Couples must try to avoid becoming fixated on the chart, however, in scheduling their sexual activity. Spontaneity can be lost, and the stress on the relationship can be quite severe.

Hormone Monitoring Systems. A device called a saliva fertility monitor (Fertility Tracker) uses a microscope to view slides containing saliva and monitors estrogen levels. Home test kits that monitor reproductive hormone levels in the urine (ClearBlue) are also available. They are less costly than the saliva test but are messier. Monitoring hormones levels helps to determine when a woman is ovulating.

Frequency of Intercourse. The question of how often a couple should have intercourse is in debate. Some doctors say that having sex more than 2 days a week adds no benefits. Moreover, frequent sexual activity lowers sperm count per ejaculation. Other studies have indicated, however, that having intercourse every day, or even several times a day, before and during ovulation, improves pregnancy rates. Although sperm count per ejaculation is low, a constantly replenished semen supply is more likely to result in a fertilized egg.

The fertility process is a roller coaster of emotions that are present throughout and in both failure and success. There are almost no sure ways to predict which couples will eventually conceive. Some couples with multiple problems will overcome great odds, while other, seemingly fertile, couples fail to conceive. Many of the new treatments are remarkable, but a live birth is never guaranteed. The emotional burden on the couple is considerable, and some planning is helpful.

Planning for Emotional Turmoil.

Decide in advance how many and what kind of procedures will be emotionally and financially acceptable and attempt to determine a final limit. Fertility treatments are expensive. A successful pregnancy often depends on repeated attempts.
Determine alternatives (adoption, donor sperm or egg, or having no children) as early as possible in the fertility process. This can reduce anxiety during treatments and feelings of hopelessness in case conception does not occur.

Managing Emotional Stress During the Process. Managing negative emotions can be viewed as important as medical treatment. The following are some ways women reduce stress while trying to conceive:

Talking to one's spouse, family, and friends is very beneficial. The best support comes from the spouse. Studies suggest that a positive attitude on the husband's part is essential for enabling his wife to deal effectively with either the success or failure of fertility treatments. Men and women may cope differently with the stress, and each should understand the other's special needs. Women tend to want greater personal space and also to want to share the burden with their husbands. Men tend to cope by seeking to improve themselves (for example being strong, or being the "best").
Almost half of women seeking fertility treatments practice good-luck rituals, including praying and wearing charms or special jewelry. No evidence exists that these practices increase fertility, but they may help reduce anxiety and enhance a sense of control.
Cognitive-behavioral therapy, which uses methods that include relaxation training and stress-management, have been associated with higher pregnancy rates. (In one study, 42% became pregnant without medical intervention.)
Attending support groups or counseling services before and after treatment helps many women endure the process and ease the grief should treatment fail. One study indicated that pregnancy rates were twice as high in women who coped with their depression by reaching out to others rather than repressing guilt or rage. (These results held only in cases in which women, not their mates, were infertile.)
Acupuncture may help some women. Some evidence suggests that this alternative treatment has beneficial effects on chemicals in the brain involved with stress and reproduction. Acupuncture is safe, but studies have been mixed on whether it can help improve pregnancy rates. One study indicated that women who received acupuncture achieved significantly higher success rates during fertility treatments (42.5%) than those who did not receive it (26.3%). Several 2006 studies suggested that acupuncture may improve pregnancy success for women who undergo in vitro fertilization (IVF) and intracytoplasmic sperm injection (ICSI) procedures. One of these studies found that acupuncture had a positive effect if it was given during the luteal phase (post-ovulatory period of menstrual cycle.) Another study suggested that acupuncture should be given on the day of embryo transfer.

Managing the Emotional Effects of the Outcome. After enduring the process, the couple must face the outcome, and even a positive outcome has emotional repercussions.

Effects of Failure. The emotional stress of failure can be devastating even on the most loving and affectionate relationships and even in those who have prepared for the possibility of failure. Neither the male nor female partner should hesitate to seek professional help if the emotional burdens are too heavy.
Effects of Genetic Testing. As advanced technologies allow testing and greater genetic information at the earliest stage, potential parents will have to learn to deal with the uncertainties of possible chromosomal abnormalities, which may or may not be significant.
Effects of Successful Treatments. Some studies have indicated that even if successful, some women experience higher stress and fear of failure during pregnancy. According to one study, however, women who achieved pregnancy using fertility treatments felt increasingly better and had higher self esteem and less anxiety as the pregnancy progressed than women whose pregnancies were not due to medical intervention.
Effects of Multiple Births. A successful pregnancy that results in a multiple birth introduces new complexities and emotional problems. One study reported a very high rate of depression in women with triplets, particularly if they had little help from others, and especially if their husbands weren't involved.
Effects on Parenting. Once the fertility treatment-assisted child arrives, parents (both men and women) are more likely to be anxious and to have less confidence than those who conceive naturally.

Medications

Fertility drugs are often used alone as initial treatment to induce ovulation. If they fail as sole therapy, they may be used with assisted reproductive procedures or artificial insemination to produce multiple eggs, a process called superovulation.

Clomiphene citrate (Clomid, Serophene) is usually the first fertility drug of choice for women with infrequent periods and long cycles. Unlike more potent drugs used in superovulation, clomiphene is gentler and works by blocking estrogen, which tricks the pituitary into producing

follicle-stimulating hormone (FSH) and luteinizing hormone (LH). This boosts follicle growth and the release of the egg. Clomiphene can be taken orally, is relatively inexpensive, and the risk for multiple births (about 5%, mostly twins) is lower than with other drugs.

Women with the best chances for success with this drug are those who have the following conditions:

Polycystic ovarian syndrome (PCOS)
Ability to menstruate but irregular menstrual cycle

Women with poorer chances of success with this drug have the following conditions:

Infertility but with normal ovulation
Low estrogen levels
Premature ovarian failure (early menopause)

One or two tablets are taken each day for 5 days, usually starting 2 - 5 days after the period starts. If successful, ovulation occurs about a week after the last pill has been taken. If ovulation does not occur, then a higher dose may be given for the next cycle. If this resgimen is not successful, treatment may be prolonged or additional drugs may be added. Doctors usually do not recommend more than 6 cycles.

Clomiphene often reduces the amount and quality of cervical mucus and may cause thinning of the uterine lining. In such cases, other hormonal drugs may be given to restore thickness. Other side effects of clomiphene include ovarian cysts, hot flashes, nausea, headaches, weight gain, and fatigue. There is a 5% chance of having twins with this drug, and a slightly increased risk for miscarriage.

If clomiphene does not work or is not an appropriate choice, gonadotropin drugs are a second option. Gonadotropins include several different types of drugs that contain either a combination of follicle-stimulating hormone (FSH) and luteinizing hormone (LH), or only FSH. Clomiphene works indirectly by stimulating the pituitary gland to secrete FSH, which prompts follicle production. In contrast, the gonadtropin hormones directly stimulate the ovaries to produce multiple follicles.

Gonadotropins are given in a shot. (Your doctor may show you how to self-administer the injection.) Gonadotropins include:

Human Menopausal Gonadtropins (hMG), also called menotropins
Human Chorionic Gonadotropins (hCG)
Urofollitropin and Follitropin, natural and synthetic forms of FSH
Gonadotropin-releasing hormone (GnRH) analogs, which include GnRH agonists and GnRH antagonists

Gonadotropin drugs are either natural compounds extracted from urine or synthetic compounds that are genetically engineered in a laboratory using recombinant DNA.

Human Menopausal Gonadotropin (hMG). HMG drugs, also called menotropins, contain a mixture of both FSH and LH. These drugs (Pergonal, Repronex, Metrodin, Humegon) are all derived from the urine of postmenopausal women. HMG is administered as a series of injections 2 - 3 days after the period starts. Injections are usually given for 7 - 12 days, but the time may be extended if ovulation does not occur. In such cases, a shot of human chorionic gonadotropin (hCG) may trigger ovulation.

Human Chorionic Gonadotropin (hCG). Human chorionic gonadotropin (hCG) is similar to LH. It mimics the LH surge, which stimulates the follicle to release the egg. Natural hCG drugs, derived from the urine of pregnant women, include Pregnyl, Profasi, Novarel, APL, Chorex, and Follutein. Ovidrel is the only available genetically modified hCG drug. Ovidrel has fewer side effects at the injection site, and its quality can be better controlled than the natural drugs. It is generally used after hMG or FSH to stimulate the final maturation stages of the follicles. Ovulation, if it occurs, does so about 36 - 72 hours after administration.

Urofollitropin and Follitropin. Urofollitropin (Bravelle, Fertinex) is a purified form of FSH, derived from the urine of postmenopausal women. Follitropin drugs (Gonal-F, Follistim) are synthetic versions of FSH. These FSH drugs are sometimes given in combination with an hCG drug.

GnRH Analogs (Agonists or Antagonists). Gonadotropin-releasing hormone (GnRH) is a hormone produced in the hypothalamus part of the brain. GnRH stimulates the pituitary gland to produce LH and FSH. GnRH analogs are synthetic drugs that are classified as either agonists or antagonists. They are similar to natural GnRH but have very different actions. While natural GnRH stimulates LH and FSH, these drugs actually prevent the LH and FSH surge that occurs right before ovulation. This action helps prevent the premature release of the eggs before they can be harvested for assisted reproductive technologies.

GnRH agonists include leuprolide (Lupron), nafarelin (Synarel), and goserelin (Zoladex).
GnRH antagonists include ganirelix (Antagon) and cetrorelix (Cetrotide). GnRH antagonists suppress FSH and LH more than GnRH agonists, and they may require fewer injections.

Women with endometriosis often have an especially hard time getting pregnant. A 2006 review suggested that GnRH agonists may help women with endometriosis quadruple their chances of becoming pregnant when the drug is used 3 - 6 months prior to in vitro fertilization (IVF) or intracytoplasmic sperm injection (ICSI). [See In-Depth Report #74: Endometriosis.]

Multiple Births. Overproduction of follicles can lead to ovarian enlargement. This event increases the risk for multiple births. There is a 25% chance of multiple births (about 17% for twins and 8% for triplets and or more).

Ovarian Hyperstimulation Syndrome. The most serious complication with superovulation is ovarian hyperstimulation syndrome (OHS), which is associated with the enlarged ovary (although the precise cause is unknown). This can result in dangerous fluid and electrolyte imbalances and endanger the liver and kidney. OHS is also associated with a higher risk for blood clots. In rare cases, it can be fatal. Symptoms include abdominal bloating, nausea, vomiting, and shortness of breath.

Bleeding and Rupture of Ovarian Cysts. Overproduction of follicles, if unchecked, may result in bleeding and rupture of ovarian cysts.

Cancer Concerns. There has been concern that clomiphene and gonadotropins may increase the risks for ovarian and breast cancer. Most evidence to date does not indicate that ovulation-stimulating drugs increase the risks for these types of cancers. However, more research needs to be done. Some studies suggest that clomiphene, which is chemically related to the breast cancer drug tamoxifen, may actually decrease the risk for breast cancer.

Progesterone. Progesterone is a hormone that is produced by the body during the menstrual cycle. Progesterone drugs are sometimes given to women who have experienced frequent miscarriages (a possible sign of progesterone deficiency). A progesterone drug may also be given after egg retrieval during an in vitro fertilization (IVF) cycle to help thicken the uterine lining (endometrium) so it can better hold the egg following implantation.

Aromatase Inhibitors. Aromatase inhibitors block aromatase, an enzyme that is a major source of estrogen in many major body tissues. These drugs include anastrozole (Arimidex) and letrozole (Femara). These drugs are used for treating breast cancer and are being investigated for stimulating ovulation in infertile women. Although letrozole is not approved for treatment of infertility, it has become widely used for this purpose in recent years. Some doctors were concerned that letrozole could increase the risk of birth defects. However, a major 2006 study indicated that letrozole does not increase risk to the fetus. The study compared the rate of birth defects among babies whose mothers conceived with letrozole and those who used clomiphene (the standard first-line fertility drug). Researchers found no differences in birth outcomes between the two groups.

Tamoxifen. Tamoxifen (Nolvadex) is a drug known as a selective estrogen-receptor modulator (SERM). It is used to prevent breast cancer in high-risk women. Studies suggest that it may equal clomiphene in its ability to induce ovulation. It may be especially useful when used along with IVF for preserving fertility in breast cancer patients. This drug is less expensive than clomiphene, but it poses some health hazards, including a risk for blood clots and uterine cancer.

Glucocorticoids. Glucocorticoids are steroid hormones that are sometimes used in combination with IVF and intracytoplasmic sperm injection (ICSI). It is thought that anti-inflammatory effect of these drugs can help make the lining of the uterus more responsive to egg implantation. However, a 2007 review indicated that glucocorticoids do not help improve pregnancy success rates and should not be used routinely with assisted reproductive technologies.

Regimens to induce ovulation vary widely according to individual need. A typical procedure, involving superovulation and in vitro fertilization (IVF) may be as follows:

Doctors make sure that the patient is not pregnant or in the luteal phase of her menstrual cycle (the premenstrual period).
Injections of either human menopausal gonadtropins, which contains luteinizing hormone (LH) and follicle-stimulating hormone (FSH) or pure FSH are administered daily 2 - 4 days after day 1 of the next cycle. Either drug may be used.
After 4 - 8 days of treatment, estrogen levels are monitored. Increasing levels on the fourth day of treatment may be strong indicators of success. If estrogen levels indicate that ovaries are responding, ultrasound is then performed to detect possible overproduction of follicles. Such evaluation should then be conducted every 1 - 2 days and dosages adjusted accordingly.
Gonadotropin-releasing hormone analogs are used to prevent a premature release of LH hormone (and therefore ovulation). GnRH agonists are typically administered either early on or a few days after ovulation in the cycle previous to the one planned for IVF. This approach is referred to as the long protocol, and it serves to suppress the pituitary gland and allows time for the eggs to mature before harvesting. Other protocols using GnRH antagonists are under investigation, but to date the long protocol has the best pregnancy rates.
When at least three follicles have reached a diameter of 18 mm, human chorionic gonadotropins (hCG) is typically administered to release the egg. It is not given if there are signs of overproduction of follicles, which suggests a risk for ovarian hyperstimulation syndrome (OHS), a dangerous complication. (One study reported that giving high doses of progesterone to high-risk women the day of hCG administration may prevent OHS.)
Egg retrieval may be performed about 36 hours following hCG administration, with the transfer of the embryo (the fertilized egg) back into the woman 2 - 3 days after retrieval.
Embryos are transferred to the uterus through a small tube. This process does not require an anesthetic, although the procedure can cause cramping.

Natural (Unstimulated) In Vitro Fertilization Cycles. An alternative to superovulation for some couples is natural in vitro fertilization (IVF) cycles. It allows multiple, consecutive cycles of treatment. Natural IVF is far less expensive than standard hyperstimulation methods and avoids their risks, including multiple births and ovarian hyperstimulation syndrome (OHS).

The process involves ultrasound and hormonal monitoring starting 5 days before the estimated ovulation day.
No superovulation drugs are used, such as follicle-stimulating hormone (FSH) and human menopausal gonadtropins (hMG). The doctor, however, may administer an injection of human chorionic gonadotropins (hCG) to stimulate the luteinizing hormone (LH) surge.
The egg retrieval timing is based on detecting LH surge.
A single egg is retrieved. The procedure that follows is similar to other IVF cycles.

The basic disadvantage to this approach is that the eggs may be released before there is a chance for them to be harvested. Women report far lower stress levels with this approach, however, even though it requires more treatment cycles. In one study, the live-birth rate was 32%. Not all women are appropriate candidates, however. Women should have regular menstrual cycles and infertility of unknown cause or associated with problems in the fallopian tubes. Pregnancy rates are still very low in older women.

Clomiphene. Another gentler alternative to superovulation is the use of clomiphene before IVF, which works slightly better than unstimulated IVF.

Assisted Reproductive Technologies

Assisted reproductive technologies (ART) are medical techniques that help couples conceive. These procedures involve either:

A couple’s own eggs or sperm
Donor eggs, sperm, or embryos

Fertilization may occur either in the laboratory or in the uterus. In the U.S., the number of live birth deliveries from ART increased by 128% between 1996 and 2002. More than 45,000 babies are now born in the U.S. each year using assisted reproductive technologies.

ART includes fertility drug treatments, artificial insemination (AI), in vitro fertilization (IVF), intracytoplasmic sperm injection (ICSI), and other procedures.

Artificial insemination (AI) is the least complex of the assisted reproductive technologies and is often tried first in uncomplicated cases of infertility. AI either involves placing the sperm directly in the cervix (called intracervical insemination) or into the uterus (called intrauterine insemination, or IUI). IUI is the standard AI procedure.

It is useful under the following circumstances:

When the woman's cervical mucus is unreceptive
When donor sperm are required
If the man's sperm count is very low
When unexplained infertility exists in both partners

Those in whom AI fails, couples with specific fertility defects, or older women may be candidates for more advanced reproductive technologies.

Pregnancy Rates. A review of 45 studies reported that in unexplained infertility cases, the per-cycle pregnancy rates were 4% for intrauterine insemination (IUI) alone and 8 - 17% per cycle for IUI combined with superovulation, a procedure that uses fertility drugs to bolster egg recovery.

Researchers in one study suggested IUI as a reasonable first option for many women under age 43. It is less expensive and poses less risk for multiple births than the more advanced assisted reproductive technologies (ART), such as in vitro fertilization. Although IVF procedures are more effective per cycle, couples tend to be able to afford more IUI cycles, so the pregnancy rates over time are very similar.

The Artificial Insemination Procedure. The AI procedure is as follows:

A woman usually (but not always) takes fertility drugs in advance.
The man must produce sperm at the time the woman is ovulating.
The sperm are subjected to certain so-called "washing" procedures. They are then inserted into the uterine cavity through a long, thin catheter.

The administration of fertility drugs and sperm retrieval is timed so that the process can coincide with ovulation.

About 71% of assisted reproductive technologies (ART) procedures now use in vitro fertilization (IVF) with the woman's own eggs. An in vitro procedure is one that is performed in the laboratory. Advances in these procedures have dramatically increased the rate of live births.

The best candidates for IVF are women with damaged fallopian tubes, and some experts believe it is a better option than attempting surgical repair. IVF is also used when infertility is unexplained or when the male partner has the infertility problem. A typical IVF procedure is as follows:

The doctor first induces superovulation using fertility drugs so that several eggs can be harvested from the ovary before they have been released from the follicles. Higher doses of fertility drugs for subsequent cycles do not appear to add any advantage in women who have a poor response the first time.
To harvest eggs, the doctor generally inserts a probe into the vagina and is guided by ultrasound. A needle is then used to drain the liquid from the follicles, and several eggs are retrieved.
The eggs and sperm are combined in a Petri dish. Between 48 - 72 hours later the eggs are usually fertilized.
The resulting embryos (the first stage toward the development of the fetus) are reimplanted into the woman's uterus.
It takes about 2 weeks to determine if the process is successful.

IVF success rates for the first three cycles of treatment are about equal. They then decline modestly for the fourth cycle and drop significantly after the fifth cycle.

Gamete/Zygote Intrafallopian Transfer. Gamete intrafallopian transfer (GIFT) and zygote intrafallopian transfer (ZIFT) are adaptations of IVF. GIFT and ZIFT are used in unexplained female infertility and in mild male infertility. The success rates are similar to those of IVF, but a woman must have at least one functioning fallopian tube.

GIFT: The procedure is as follows:

The eggs are harvested as in IVF.
They are mixed with the sperm but not actively fertilized.
They are immediately injected back into the woman. Laparoscopy, a technique that employs a miniature viewing device, is used with this procedure to guide the placement of the embryos or egg through a long, thin catheter into the fallopian tubes.
The sperm and egg are placed exactly where they would be in natural fertilization.

ZIFT: The procedure is as follows.

The eggs are harvested as in IVF.
They are then mixed with the sperm and, in this case, are fertilized in the laboratory.
They are then implanted in the fallopian tubes as in GIFT. (The advantage of this procedure over GIFT is that the doctor and couple are assured that fertilization has taken place, and the eggs can be examined for defects before implantation.)

In 2002, more than 45,000 American babies were born using in vitro fertilization (IVF). Success rates have increased in all age groups (although they are still considerably lower in older than in younger women). Chances for assisted reproductive technologies (ART) success are also greater among women who do not have uterine abnormalities and have had previous successful pregnancies.

Success rates are also higher or lower depending on whether the woman uses her own eggs or whether they are donated and also whether the eggs are fresh or frozen. The highest live birth rates are with donated fresh eggs (an average of 50% per transfer). The lowest rates are when a woman uses her own frozen eggs (an average of 29% per transfer). However, using frozen eggs is less expensive than fresh eggs, so a couple may be able to afford more cycles with frozen eggs.

Use of Donor Eggs. Older women are more likely to use donor eggs. In a 2002 study, success rates were the same for women who used donors with an age range of 20 - 40. There were also no differences in delivery rates for recipients up to age 45. Women over 45, however, increasingly had problems with implantation, pregnancy, and delivery.

Use of Frozen Eggs. Frozen eggs tend to have lower success rates because of toxins released by cells damaged in the freezing and thawing tissues.

Intracytoplasmic sperm injection (ICSI) is an assisted reproductive technology used for couples when male infertility is the main problem. It involves injecting a single sperm into an egg obtained from in vitro fertilization (IVF). The procedure is very simple:

A tiny glass tube (called a holding pipet) stabilizes the egg.
A second glass tube (called the injection pipet) is used to penetrate the egg's membrane and deposit a single sperm into the egg.
The egg is released into a drop of cultured medium.
If fertilized, the egg is allowed to develop for 1 - 2 days, then it is either frozen or implanted.

The greatest concern with this procedure has been whether it increases the risk for birth defects. However, several studies have reported no higher risks of birth defects in children born using ICSI procedures. While some studies have shown a higher number of birth defects in children conceived with ICSI, experts think that this may have more to do with the genetic background of the parents than ICSI itself. Recent research suggests that ICSI children develop normally. A 2006 study of 8-year-old children conceived with ICSI found no important differences between these children and children who were conceived naturally.

A 2007 study in the New England Journal of Medicine indicated that ICSI use has increased 5-fold over the past decade, even though the proportion of men receiving treatment for male infertility has remained the same. In 1995, 11% of IVF cycles used ICSI. By 2004, 57.5% of IVF cycles used ICSI. Doctors caution that while ICSI is an important assisted reproductive technology for male infertility, it may be overused. Some doctors recommend ICSI for women who have failed prior IVF attempts or who have few or poor-quality eggs, even if their male partners have normal semen measurements. There is little evidence that ICSI helps improve pregnancy success for couples who do not have a problem with male factor infertility, according to the Society for Assisted Reproductive Technology.

In Vitro Maturation. A technique called in vitro maturation allows fertilization without the use of fertility drugs. In this process, follicles are harvested a few days before ovulation. In such cases, up to 50 have already begun to mature. At this time, about 15 of these maturing follicles can be removed, out of which 2 or 3 can produce healthy embryos.

Blastocyst Transfer. Blastocyst transfer is very promising. Instead of implanting the standard 2- or 3-day-old embryos in the uterus, the procedure implants blastocysts, which are more complex, 5-day-old embryos. Fewer blastocysts than embryos need to be implanted, reducing the risk for multiple births. (There is, however, a higher risk for identical twins compared to other procedures.) Offspring may be more likely to be males than females. Pregnancy rates are about 36% with a first attempt but then drop significantly. The procedure is more likely to be successful in younger than older women.

Ooplasmic Transfer. Ooplasmic transfer is a controversial experimental procedure that uses the woman's own egg and a female donor's egg and the male sperm for fertilization. Genetic material from the donor's egg plus the sperm are added to the woman's own egg. This has been successful in a few cases, but studies are very early and long-term effects are unknown. Research on this and similar procedures is currently conducted outside the U.S.

Complications of Assisted Reproductive Technologies

Since assisted reproductive technology (ART) procedures have become more widespread since 1980, multiple births have significantly increased. About 35% of all ART births are multiple ones, with 4.3% being triplets or more. Multiple births increase the risk of complications, for both the mother and the child.

Assisted reproductive technology (ART), and multiple births, increase the risks for pregnancy complications. According to a 2005 study, the type of complications may depend on the infertility treatment:

Fertility drugs. Increase risks of the placenta becoming detached from the uterus (“placental abruption”), third trimester miscarriage, and gestational diabetes.
In vitro fertilization. Increase risks of placental abruption, the placenta developing in the lower section of the uterus (“placenta previa”), dangerously high blood pressure during pregnancy (“pre-eclampsia”), and Caesarean sections.

Multiple births can also increase the risk of pregnancy death. A 2006 study indicated that women who carry multiple fetuses have a 3.6 times greater risk of dying from pregnancy complications than women with singleton pregnancies. The leading causes of death were blood clot (embolism), high blood pressure complications, excessive bleeding (hemorrhage), and infections.

The main risks for children conceived with assisted reproductive technology (ART) are complications associated with pregnancy problems and multiple births. Children conceived with ART are more likely to be born premature and to have extremely low birth weight. These conditions increase the risk for heart and lung problems, as well as learning and developmental disabilities. Premature delivery is also associated with cerebral palsy, a brain injury condition that affects muscle coordination. A 2006 study indicated that children born after in vitro fertilization have an increased risk for cerebral palsy.

However, studies suggest that ART does not increase the risk for chromosomal damage or other major birth defects. Couples undergoing ART may have other factors, such as older age or genetic predispositions, which make complications more likely. Infertility itself, even without ART, can pose a risk factor for birth defects. Children conceived naturally by couples with infertility problems tended to have more disorders of the nervous system, digestive system, and musculoskeletal system than children born to fertile couples, according to a 2006 study in the British Medical Journal. Children born to couples treated for infertility with ART may also have a slightly increased risk for these problems, as well as genital organ malformations, but the overall risk for birth defects appears to be very small.

ART remains a good option for many infertile couples. The likelihood of having a healthy single child of normal birth weight using ART is about 94%. The likelihood of having a child free of major birth defects is about 91%. Frozen eggs do not appear to pose any higher risk for developmental problems.

Preimplantation genetic diagnosis (PGD) is now available in some fertility centers. It can help identify genetic defects in the offspring and may help parents determine future problems. Such testing, however, also raises significant emotional issues that should be addressed beforehand.

Given the hazards of multiple births, parents must make some hard decisions if the treatment produces multiple embryos. The choices are limited:

Carry all of them to term, which increases health risks for both the mother and the developing fetuses
Complete abortion
Embryo reduction, in which the doctor removes one or more embryos (possibly endangering the remaining embryos)

At this time, the best approach is to limit the number of implanted embryos in the first place. Researchers are attempting to develop methods to reduce the risk for multiple births:

Most centers now implant two to three embryos at a time, and the remainder can be frozen for future use. (Frozen eggs do not appear to pose a risk for developmental problems in children conceived using them.) This limits the chance for success, but implanting more than three embryos only increases success rates very slightly, whereas the risk for multiple births increases significantly.
Reducing the dosage of fertility drugs also reduces the risk for multiple births, but not significantly, and it also reduces the chance for successful outcome.
Blastocyst transfer may help reduce the chances for multiple births.

Resources

www.resolve.org -- National Infertility Association
www.asrm.org -- American Society for Reproductive Medicine
www.theafa.org -- American Fertility Association
www.endometriosisassn.org -- The Endometriosis Association
www.acog.org -- American College of Obstetricians and Gynecologists
www.endo-society.org -- The Endocrine Society
www.aace.com -- American Association of Clinical Endocrinologists
www.cdc.gov/reproductivehealth/index.htm -- Centers for Disease Control: Assisted Reproductive Technology Reports

References

Boomsma CM, Keay SD, Macklon NS. Peri-implantation glucocorticoid administration for assisted reproductive technology cycles. Cochrane Database Syst Rev. 2007 Jan 24;(1):CD005996.

Chavarro JE, Rich-Edwards JW, Rosner BA, Willett WC. Iron intake and risk of ovulatory infertility. Obstet Gynecol. 2006 Nov;108(5):1145-52.

Dieterle S, Ying G, Hatzmann W, Neuer A. Effect of acupuncture on the outcome of in vitro fertilization and intracytoplasmic sperm injection: a randomized, prospective, controlled clinical study. Fertil Steril. 2006 May;85(5):1347-51.

Hvidtjorn D, Grove J, Schendel DE, Vaeth M, Ernst E, Nielsen LF, et al. Cerebral palsy among children born after in vitro fertilization: the role of preterm delivery--a population-based, cohort study. Pediatrics. 2006 Aug;118(2):475-82.

Jain T, Gupta RS. Trends in the use of intracytoplasmic sperm injection in the United States. N Engl J Med. 2007 Jul 19;357(3):251-7.

Jensen A, Sharif H, Svare EI, Frederiksen K, Kjaer SK. Risk of breast cancer after exposure to fertility drugs: results from a large Danish cohort study. Cancer Epidemiol Biomarkers Prev. 2007 Jul;16(7):1400-7. Epub 2007 Jun 21.

Lee SJ, Schover LR, Partridge AH, Patrizio P, Wallace WH, Hagerty K, et al. American Society of Clinical Oncology recommendations on fertility preservation in cancer patients. J Clin Oncol. 2006 Jun 20;24(18):2917-31.

Legro RS, Barnhart HX, Schlaff WD, Carr BR, Diamond MP, Carson SA, et al. Clomiphene, metformin, or both for infertility in the polycystic ovary syndrome. N Engl J Med. 2007 Feb 8;356(6):551-66.

Mackay AP, Berg CJ, King JC, Duran C, Chang J. Pregnancy-Related Mortality Among Women With Multifetal Pregnancies. Obstet Gynecol. 2006 Mar;107(3):563-568.

Ombelet W, Martens G, De Sutter P, Gerris J, Bosmans E, Ruyssinck G, et al. Perinatal outcome of 12,021 singleton and 3108 twin births after non-IVF-assisted reproduction: a cohort study. Hum Reprod. 2006 Apr;21(4):1025-32.

Sallam HN, Garcia-Velasco JA, Dias S, Arici A. Long-term pituitary down-regulation before in vitro fertilization (IVF) for women with endometriosis. Cochrane Database Syst Rev. 2006 Jan 25;(1):CD004635.

Shevell T, Malone FD, Vidaver J, Porter TF, Luthy DA, Comstock CH, et al. Assisted reproductive technology and pregnancy outcome. Obstet Gynecol. 2005 Nov;106(5 Pt 1):1039-45.

Smith C, Coyle M, Norman RJ. Influence of acupuncture stimulation on pregnancy rates for women undergoing embryo transfer. Fertil Steril. 2006 May;85(5):1352-8.

Terry KL, Willett WC, Rich-Edwards JW, Michels KB. A prospective study of infertility due to ovulatory disorders, ovulation induction, and incidence of breast cancer. Arch Intern Med. 2006 Dec 11-25;166(22):2484-9.

Tulandi T, Martin J, Al-Fadhli R, Kabli N, Forman R, Hitkari J, et al. Congenital malformations among 911 newborns conceived after infertility treatment with letrozole or clomiphene citrate. Fertil Steril. 2006 Jun;85(6):1761-5.

Westergaard LG, Mao Q, Krogslund M, Sandrini S, Lenz S, Grinsted J. Acupuncture on the day of embryo transfer significantly improves the reproductive outcome in infertile women: a prospective, randomized trial. Fertil Steril. 2006 May;85(5):1341-6.

Zhu JL, Basso O, Obel C, Bille C, Olsen J. Infertility, infertility treatment, and congenital malformations: Danish national birth cohort. BMJ. 2006 Sep 30;333(7570):679. Epub 2006 Aug 7.

Review Date:
10/29/2007
Reviewed By:
Harvey Simon, MD, Associate Professor of Medicine, Harvard Medical School; Physician, Massachusetts General Hospital.

A.D.A.M. Copyright

adam.com

Menstrual disorders

FitSugar — Wed, 08 Oct 2008 17:34:59 -0700

In This Report

Highlights
Introduction
Menstrual Disorders
Causes
Risk Factors
Complications
Diagnosis
Treatment
Medications
Surgery
Resources
References

HEALTH GUIDE REFERENCE FROM A.D.A.M

Highlights

“No-Period” Pill Approved

In May 2007, the FDA approved Lybrel, the first birth control pill that completely eliminates monthly menstrual periods. Lybrel contains low doses of the estrogen estradiol and the progesterone levonorgestrol. The active pills are taken 365 days a year -- with no inactive pill breaks. In clinical trials, 59% of women who took Lybrel completely stopped menstrual periods by the end of the first year. Some women, however, continued to have occasional unscheduled bleeding or spotting during the first 3 - 6 months.

Other Options for Eliminating Menstrual Periods

In addition to Lybrel, women with menstrual problems have several other options for stopping periods:

Levonorgestrol-Releasing Intrauterine System (LNG-IUS). The LNG-IUS is an intrauterine device (IUD) that is placed in the uterus. The LNG-IUS releases levonorgestrol for up to 5 years. Over the course of the first year, it reduces menstrual bleeding. Many women find that their periods completely stop. Doctors often recommend this contraceptive device as a treatment for menorrhagia (heavy bleeding) and an alternative to hysterectomy. In the U.S., the LNG-IUS is marketed as Mirena.
Depo-Provera. Depo-Provera is an injectable progestin contraceptive. Most women who use Depo-Provera stop menstruating after a year. However, Depo-Provera is associated with serious side effects, including loss of bone density. Because of this risk, the FDA recommends that Depo-Provera should not be used for more than 2 years. Weight gain is also a common side effect.
Hysterectomy. Hysterectomy, the surgical removal of the uterus, is a permanent cure for menorrhagia, but it is an invasive procedure that also ends fertility.

Menstruation in Girls and Adolescents

According to a 2006 report from the American Academy of Pediatrics and the American College of Obstetricians and Gynecologists:

Most girls begin to menstruate when they are between 12 - 13 years old.
Menstruation usually starts 2 - 3 years after initial breast development.
Girls who have not begun menstruation by the age of 15 should see a doctor for an evaluation.

Introduction

The Primary Organs and Structures in the Reproductive System.

The uterus is a pear-shaped organ located between the bladder and lower intestine. It consists of two parts, the body and the cervix.
When a woman is not pregnant the body of the uterus is about the size of a fist, with its walls collapsed and flattened against each other. During pregnancy, the walls of the uterus are pushed apart as the fetus grows.
The cervix is the lower portion of the uterus. It has a canal opening into the vagina with an opening called the os, which allows menstrual blood to flow out of the uterus into the vagina.
Leading off each side of the body of the uterus are two tubes known as the fallopian tubes. Near the end of each tube is an ovary.
Ovaries are egg-producing organs that hold 200,000 - 400,000 follicles (from folliculus, meaning "sack" in Latin). These cellular sacks contain the materials needed to produce ripened eggs, or ova.
The inner lining of the uterus is called the endometrium, and during pregnancy it thickens and becomes enriched with blood vessels to house and support the growing fetus. If pregnancy does not occur, the endometrium is shed and a woman starts her menstrual flow (or "period"). Menstrual flow also consists of blood and mucus from the cervix and vagina.

Reproductive Hormones. The hypothalamus (an area in the brain) and the pituitary gland control the reproductive hormones. In women, six hormones help regulate the reproductive system:

Click the icon to see an image of the hypothalamus and pituitary gland.

Gonadotropin-releasing hormone (GnRH) is released by the hypothalamus.
GnRH stimulates the pituitary gland to produce follicle-stimulating hormone (FSH) and luteinizing hormone (LH).
Estrogen, progesterone, and the male hormone testosterone are secreted by the ovaries at the command of FSH and LH.

Click the icon to see an image of the pituitary gland.

A woman's ability to produce children occurs after she enters puberty and begins to menstruate. The process to conception is complex:

With the start of each menstrual cycle, FSH stimulates several follicles to mature over a two-week period until their eggs nearly triple in size. Only one follicle becomes dominant, however, during a cycle.
FSH signals this dominant follicle to produce estrogen, which enters the bloodstream and reaches the uterus. There, estrogen stimulates the cells in the uterine lining to reproduce, therefore thickening the walls.
Estrogen levels reach their peak around the 14th day of the cycle (counting days beginning with the first day of a period). At that time, they trigger a surge of LH.

LH serves two important roles:

First, the LH surge around the 14th cycle day stimulates ovulation. It does this by causing the dominant follicle to burst and release its egg into one of the two fallopian tubes. Once in the fallopian tube, the egg is in place for fertilization.
Next, LH causes the ruptured follicle to develop into the corpus luteum. The corpus luteum provides a source of estrogen and progesterone during pregnancy.

Fertilization. The so-called "fertile window" is 6 days long and starts 5 days before ovulation and ends the day of ovulation. Fertilization occurs as follows:

The sperm can survive for up to 3 days once it enters the fallopian tube. The egg survives 12 - 24 hours unless it is fertilized by a sperm.
If the egg is fertilized, it moves about 2 - 4 days later from the fallopian tube into the uterus where it is implanted in the uterine lining and begins its nine-month incubation.
The placenta forms at the site of the implantation. The placenta is a thick blanket of blood vessels that nourishes the fertilized egg as it develops.
The corpus luteum (the yellow tissue formed from the ruptured follicle) continues to produce estrogen and progesterone during pregnancy.

Click the icon to see an image of the placenta.

Click the icon to see an image of the corpus luteum.


Menstrual Phases	Typical No. of Days	Hormonal Actions
Follicular (Proliferative) Phase	Cycle Days 1 through 6: Beginning of menstruation to end of blood flow.	Estrogen and progesterone start out at their lowest levels. FSH levels rise to stimulate maturity of follicles. Ovaries start producing estrogen and levels rise, while progesterone remains low.
	Cycle Days 7 - 13: The endometrium thickens to prepare for the egg implantation.
Ovulation	Cycle Day 14:	Surge in LH. Largest follicle bursts and releases egg into fallopian tube.
Luteal (Secretory) Phase, also known as the Premenstrual Phase	Cycle Days 15 - 28:	Ruptured follicle develops into corpus luteum, which produces progesterone. Progesterone and estrogen stimulate blanket of blood vessels to prepare for egg implantation.
	If fertilization occurs:	Fertilized egg attaches to blanket of blood vessels that supplies nutrients for the developing placenta. Corpus luteum continues to produce estrogen and progesterone.
	If fertilization does not occur:	Corpus luteum deteriorates. Estrogen and progesterone levels drop. The blood vessel lining sloughs off and menstruation begins.

Click the icon to see an animation about the menstrual cycle.

What is Menstruation? Menstruation, also called a "period," is the cyclical flow of blood from the uterus in women between the ages of puberty and menopause.

Onset of Menstruation (Menarche). The onset of menstruation, called the menarche, typically begins between the ages of 12 - 13 years. Menarche generally occurs 2 - 3 years after initial breast development (breast budding). African-American and Hispanic girls tend to mature slightly earlier than Caucasian girls. A higher body mass index (BMI) during childhood is associated with an earlier onset of puberty. Environmental factors and nutrition may also affect menarche timing.

Length of Monthly Cycle. The menstrual cycle can be very irregular during the first 1 - 2 years, ranging from 21 - 45 days. The length then generally stabilizes to an average of 28 days, although the cycle length may range from 21 - 34 days and still be considered normal. A variation of 10 days or more -- either more or fewer days -- may have an impact on fertility, however. The cycle lengthens when a woman is in her 40s, reaching an average of 31 days by age 49. A number of factors can affect cycle length at any age.


Shorter Cycles	Longer Cycles
Regular alcohol use.	Being under 21 and over 44.
Stressful jobs.	Being very thin (also at risk for short bleeding periods).
	Competitive athletics (also at risk for short bleeding periods).

Length of Periods. Periods average 6.6 days in adolescent girls. By the age of 21, menstrual bleeding averages 6 days until women approach menopause. However, about 5% of healthy women menstruate fewer than 4 days and 5% menstruate more than 8 days.

Normal Absence of Menstruation. Normal absence of periods can occur in any woman under the following circumstances:

Menstruation stops during the duration of pregnancy. Some women continue to have irregular bleeding during the first trimester. This bleeding may indicate a threatened miscarriage and requires immediate attention by the doctor.
When women breastfeed they are unlikely to ovulate. After that time, menstruation usually resumes and they are fertile again.
Perimenopause starts when the intervals between periods begin to lengthen, and it ends with menopause itself (the complete cessation of menstruation). Menopause usually occurs at about age 51, although smokers often go through menopause earlier.

Menstrual Disorders

There are a number of different menstrual disorders. Problems can range from heavy, painful periods to no period at all.

Dysmenorrhea is severe, frequent cramping during menstruation. Pain occurs in the lower abdomen but can spread to the lower back and thighs. Dysmenorrhea is usually referred to as primary or secondary.

Primary dysmenorrhea. Cramps occur from contractions in the uterus. These contractions are a normal part of the menstrual process. With primary dysmenorrhea, cramping pain is directly related to and caused by menstruation. About half of menstruating women experience primary dysmenorrhea. It usually begins 2 - 3 years after a women begins to menstruate. The pain typically develops when the bleeding starts and continues for 32 - 48 hours. Cramps are generally most severe during heavy bleeding.

Secondary dysmenorrhea. Secondary dysmenorrhea is menstrually related pain that accompanies another medical or physical condition, such as endometriosis or uterine fibroids.

During a normal menstrual cycle, the average woman loses about 1 ounce (30 mL) of blood. Most women change their tampons or pads around 3 - 6 times per day. Menorrhagia is the medical term for significantly heavier bleeding. Menorrhagia occurs in 9 - 14% of all women and can be caused by a number of factors. Women often overestimate the amount of blood lost during their periods. Clot formation is fairly common during heavy bleeding and is not a cause for concern. However, women should consult their doctor if any of the following occurs:

Soaking through at least one pad or tampon every 1 - 2 hours for several hours
Heavy periods that regularly last 10 or more days
Bleeding between periods or during pregnancy. Spotting or light bleeding between periods is common in girls just starting menstruation and sometimes during ovulation in young adult women, but it is still a good idea to speak with a doctor.

Amenorrhea is the absence of menstruation. There are two categories: primary amenorrhea and secondary amenorrhea. These terms refer to the time when menstruation stops:

Primary amenorrhea occurs when a girl does not begin to menstruate. Girls who show no signs of sexual development (breast development and pubic hair) by age 13 should be evaluated by a doctor. Any girl who does not have her period by age 15 should be evaluated for primary amenorrhea.
Secondary amenorrhea occurs when periods that were previously regular become absent for at least three cycles.

Oligomenorrhea is a condition in which menstrual cycles are infrequent. It is very common in early puberty and does not usually indicate a medical problem. When girls first menstruate they often do not have regular cycles for a couple of years. Even healthy cycles in adult women can vary by a few days from month to month. In some women, periods may occur every 3 weeks and in others, every 5 weeks. Flow also varies and can be heavy or light. Skipping a period and then having a heavy flow may occur; this is most likely due to missed ovulation rather than a miscarriage. Women should be concerned when periods come less than 21 days or more than 3 months apart, or if they last more than 10 days. Such events may indicate ovulation problems.

Premenstrual syndrome (PMS) is a set of physical, emotional, and behavioral symptoms that occur during the last week of the luteal phase (a week before menstruation) in most cycles. The symptoms typically do not start until at least day 13 in the cycle, and resolve within 4 days after bleeding begins. Women may begin to experience premenstrual syndrome symptoms at any time during their reproductive years. Once established, the symptoms tend to remain fairly constant until menopause, although they can vary from cycle to cycle. About 100 symptoms have been identified with the premenstrual phase. [See In-Depth Report #79: Premenstrual syndrome.]

Causes

Menstrual disorders can be triggered by a number of different factors, such as hormone imbalances, genetic factors, clotting disorders, and pelvic diseases.

Contraction-Causing Chemicals. Powerful chemicals known as prostaglandins and arachidonic acid can induce uterine muscle contractions. Prostaglandins also play a large role in the heavy bleeding that causes dysmenorrhea.
Abnormal Nervous System Response. Some women with primary dysmenorrhea may have autonomic nervous systems that are overly sensitive to menstrual cycle changes. The autonomic nervous system regulates heart rate and blood pressure, and it contains the pain receptors in nerve fibers in the uterus and pelvic area. As a result, women with autonomic nervous system abnormalities may have a more intense response to pain.
Abnormalities in the Arteries in the Uterus.Impaired blood flow through the arteries in the uterus may cause severe dysmenorrhea for some women.
Genetic Factors. Genetic factors may play an important role in over half of primary dysmenorrhea cases.
Endometriosis. Endometriosis is a chronic and often progressive disease that develops when the tissue that lines the uterus (endometrium) grows onto other areas, such as the ovaries, bowels, or bladder. [See In-Depth Report #74: Endometriosis.]

Endometriosis is the condition in which the tissue that normally lines the uterus (endometrium) grows on other areas of the body causing pain and irregular bleeding.

Uterine Fibroids. Fibroids are noncancerous growths that grow on the walls of the uterus. They can cause heavy bleeding during menstruation and cramping pain. [See In-Depth Report #73: Uterine fibroids.]
Other Causes. Pelvic inflammatory disease, ovarian cysts, and ectopic pregnancy. The intrauterine device (IUD) contraceptive can also cause dysmenorrhea.

Hormonal imbalances and uterine fibroids are the most common causes of menorrhagia. Other causes of menorrhagia include:

Dysfunctional Uterine Bleeding (DUB). DUB is a general term for abnormal bleeding. It is usually caused by hormonal problems and is one of the primary causes of menorrhagia. DUB usually occurs either when girls begin to menstruate or when women approach menopause, but it can occur at any time in during a woman's reproductive life. About 90% of DUB events occur when ovulation is not occurring (anovulatory DUB). In such cases, women do not properly develop and release a mature egg. When this happens, the corpus luteum does not form. As a result, estrogen is produced continuously, causing an overgrowth of the uterus lining. The period is delayed in such cases, and when it occurs menstruation can be very heavy and prolonged. The other 10% of DUB cases occur in women who are ovulating (ovulatory DUB), but progesterone secretion is prolonged because estrogen levels are low. This causes irregular shedding of the uterine lining and break-through bleeding.
Von Willebrand Disease and Other Bleeding Disorders. Bleeding disorders that stop blood from clotting can cause heavy menstrual bleeding. Most of these disorders have a genetic basis. Von Willebrand disease is the most common of these bleeding disorders and may be underdiagnosed in many women with unexplained menorrhagia.
Abnormal Blood Vessel Growth. Every month, blood vessels regrow in the uterus to replace the blood-rich uterine lining lost during menstruation. Abnormalities in this growth process (called arteriogenesis or angiogenesis) may occur in some women with menorrhagia.
Abnormalities in the Uterus. Structural problems or other abnormalities in the uterus may cause bleeding. They include uterine polyps (small benign growths in the uterus), uterine fibroids, endometriosis, adenomyosis, and miscarriage. Infections or inflammation in the vagina or pelvic area can also cause heavy bleeding.
Medications. Certain drugs, including anticoagulants and anti-inflammatory medications, can cause heavy bleeding.
Cancer. Uterine, ovarian, and cervical cancer can cause excessive bleeding but these are rare causes.
Other Medical Conditions. Systemic lupus erythematosus, diabetes, pelvic inflammatory disorder, and thyroid disorders can cause heavy bleeding. Women who have migraine headaches may be more likely to experience menorrhagia and endometriosis.

Fibroid tumors may not need to be removed if they are not causing pain, bleeding excessively, or growing rapidly.

Normal causes of skipped or irregular periods include pregnancy, breastfeeding, hormonal contraception, and perimenopause. Skipped periods are also common during adolescence, when it may take a while before ovulation occurs regularly. Consistently absent periods may be due to the following factors:

Delayed Puberty. The most common cause of primary amenorrhea is delayed puberty due to some genetic factor that delays physical development.
Weight Loss and Eating Disorders. Extreme weight loss and reduced fat stores lead to hormonal changes that include low thyroid levels (hypothyroidism) and elevated stress hormone levels (hypercortisolism). These changes produce a reduction in reproductive hormones. A syndrome known as the female athlete triad is associated with hormonal changes that occur with eating disorders in young women who excessively exercise. It comprises anorexia (severe weight loss), amenorrhea, and osteoporosis (decrease in bone density).
Polycystic Ovarian Syndrome (PCOS). PCOS is a condition in which the ovaries produce high amounts of androgens (male hormones), particularly testosterone. PCOS occurs in about 6% of women, and amenorrhea or oligomenorrhea (infrequent menses) is quite common. According to some studies, nearly 30% of obese women with PCOS have amenorrhea.
Elevated Prolactin Levels (Hyperprolactinemia). Prolactin is a hormone produced in the pituitary gland that stimulates breast development and milk production in association with pregnancy. High levels of prolactin (hyperprolactinemia) in women who are not pregnant or nursing can reduce gonadotropin hormones and inhibit ovulation, thus causing amenorrhea. It is the cause of between 10 - 40% of cases of secondary amenorrhea.
Premature Ovarian Failure (POF). POF is the early depletion of follicles before age 40. In most cases it leads to premature menopause. POF is a significant cause of infertility.
Structural Problems. In some cases, structure problems or scarring in the uterus may prevent menstrual flow. Inborn genital tract abnormalities may also cause primary amenorrhea. A specific malformation called Mullerian agenesis, in which no vagina or uterus develops, is rare but still causes about 16% of primary amenorrhea cases.
Stress. Physical and emotional stress may block the release of luteinizing hormone, causing temporary amenorrhea
Other Medical Conditions. Epilepsy, thyroid problems, celiac sprue, metabolic syndrome, and Cushing's disease are associated with amenorrhea.

If the ovaries produce too much androgen (hormones such as testosterone) a woman may develop male characteristics. This ovarian imbalance can be caused by tumors in the ovaries or adrenal glands, or polycystic ovarian disease. Virilization may include growth of excess body and facial hair, amenorrhea (loss of menstrual period) and changes in body contour.

Risk Factors

Age plays a key role in menstrual disorders. Girls who start menstruating at age 11 or younger are at higher risk for severe pain, longer periods, and longer menstrual cycles. Between 20 - 90% of teenage girls report menstrual pain and about 15% report that it is severe. Adolescents may experience amenorrhea before their ovulating cycles become regular.

Women who are approaching menopause (perimenopause) may also skip periods. Occasional episodes of heavy bleeding are also common as women approach menopause.

Other risk factors include:

Weight. Being either excessively overweight or underweight can increase the risk for dysmenorrhea and amenorrhea.
Smoking and Alcohol Use. Smokers have a 50% higher risk than nonsmokers for menstrual pain. Alcohol does not cause menstrual pain, but in women with existing dysmenorrhea, alcohol consumption may prolong the pain.
Stress. Physical and emotional stress may block the release of luteinizing hormone, causing temporary amenorrhea. Emotional problems, including history of sexual abuse, may predispose to dysmenorrhea.
Menstrual Cycles and Flow. Longer and heavier menstrual cycles can cause dysmenorrhea.
Pregnancy History. Women who have had a higher number of pregnancies are at increased risk for menorrhagia. Women who have never given birth are at increased risk of dysmenorrhea, while women who first gave birth at a young age are at lower risk.
Chronic Pelvic Pain. Many women experience chronic pain in the pelvic area. This pain can be due to gynecologic reasons (fibroids, endometriosis, pelvic inflammatory disease) or non-gynecologic causes (irritable bowel syndrome, interstitial cystitis, diverticulitis).

Exercise and oral contraceptive use may help protect against dysmenorrhea.

Complications

An estimated 10 - 15% of all women in their reproductive years have chronic gynecologic problems. Nearly 30% of women reporting such problems spend one or more days in bed per year because of them. In fact, menstrual pain is the primary cause of short-term absences in school age girls. In adult women, who have not received treatment, it is an important cause of reduced work productivity.

Menorrhagia is the most common cause of anemia in premenopausal women. A blood loss of more than 80mL per menstrual cycle can trigger anemia. According to one report, 10% of women in their reproductive years have iron deficiencies, and between 2 - 5% have iron levels low enough to cause anemia. Although poor diets play a role in many cases, the problem is compounded in women who have heavy periods.

Most cases of anemia are mild. Nevertheless, even mild anemia can reduce oxygen transport in the blood, causing fatigue and a diminished physical capacity. (Some studies indicate that even iron deficiency without anemia can produce a subtle but still lower capacity for exercise.) Moderate-to-severe iron-deficiency anemia is known to reduce endurance.

Moderate-to-severe anemia can also cause shortness of breath, rapid heart rate, lightheadedness, headaches, ringing in the ears (tinnitus), irritability, pale skin, restless legs syndrome, and mental confusion. Heart problems can occur in prolonged and severe anemia that is not treated. Pregnant women who are anemic, particularly in the first trimester, have an increased risk for a poor pregnancy outcome. [See In-Depth Report #57: Anemia.]

Amenorrhea caused by reduced estrogen levels increases the risk for osteoporosis (loss of bone density). Conditions that are associated with low estrogen levels include eating disorders, the female-athlete triad (excessive exercise and weight loss), pituitary tumors, and premature ovarian failure. Because bone growth is at its peak in adolescence and young adulthood, losing bone density at that time is very dangerous, and early diagnosis and treatment is essential for long-term health. [See In-Depth Report #18: Osteoporosis.]

Osteoporosis is a condition characterized by progressive loss of bone density, thinning of bone tissue, and increased vulnerability to fractures. Osteoporosis may result from disease, dietary or hormonal deficiency, or advanced age. Regular exercise and vitamin and mineral supplements can reduce and even reverse loss of bone density.

Some conditions associated with heavy bleeding, such as ovulation abnormalities, fibroids, or endometriosis, are important contributors to infertility. Many conditions that cause amenorrhea, such as ovulation abnormalities and polycystic ovary syndrome, can also cause infertility. Irregular periods from any cause may make it more difficult to conceive. In some cases treating the underlying condition can restore fertility. In other cases, specific fertility treatments that use assisted reproductive technologies may be beneficial. [See In-Depth Report #22: Infertility in women.]

Diagnosis

A doctor needs to have a complete history of any medical or personal conditions that might be causing menstrual disorders. This information can help determine whether a menstrual problem is caused by another medical condition. For example, non-menstrual conditions that may cause abdominal pain include appendicitis, urinary tract infections, ectopic pregnancy, and irritable bowel syndrome. Endometriosis and fibroids may cause heavy bleeding and pain. Doctors may ask questions concerning:

Menstrual cycle patterns -- length of time between periods, number of days that periods last, number of days of heavy or light bleeding
The presence or history of any medical conditions that might be causing menstrual problems
Any family history of menstrual problems
History of pelvic pain
Regular use of any medications (including vitamins and over-the-counter drugs)
Diet history, including caffeine and alcohol intake
Past or present contraceptive use
Any recent stressful events
Sexual history (it is very important that patients trust their doctor enough to describe any sexual activity that might be risky)

Menstrual Diary. A menstrual diary is a helpful way to keep track of changes in menstrual cycles. Patients can record when their period starts, how long it lasts, and the amount of bleeding and pain that occurs during the course of menstruation.

Pelvic Examination. A pelvic exam is a standard part of diagnosis. A Pap test may be done during this exam.

Blood tests can help rule out other conditions that cause menstrual disorders. For example, a doctor may test thyroid function to make sure that low thyroid (hypothyroidism) is not present. Blood tests can also check follicle-stimulating hormone, estrogen, and prolactin levels. Patients who have menorrhagia may get tests for bleeding disorders. If patients are losing a lot of blood, they should also get tested for anemia.

Patients who have amenorrhea may need to receive special hormonal tests. The progestational challenge test uses oral or injected progesterone to test for a functional uterine lining (endometrium):

Bleeding that occurs up to 3 weeks after the progesterone dose suggests that the woman has normal estrogen levels but is not ovulating, particularly if thyroid and prolactin levels are normal. In such cases, the doctor will check for stress, recent weight loss, and any medications. Such results could also suggest polycystic ovaries or stress.
A failure to bleed could indicate an abnormal uterus that prevents outflow or insufficient estrogen. In such cases, the next step may be to administer estrogen followed by progestin. If bleeding occurs after that, then the cause of amenorrhea is related to low estrogen levels. The doctor will then check for ovarian failure, anorexia, or other causes of low estrogen. If bleeding does not occur, then the doctor would check for obstructions that are preventing outflow of menstruation.

Imaging techniques are often used to detect certain conditions that may be causing menstrual disorders. Imaging can help diagnose fibroids, endometriosis, or structural abnormalities of the reproductive organs.

Ultrasound and Sonohysterography. Ultrasound is the standard imaging technique for evaluating the uterus and ovaries, detecting fibroids, ovarian cysts and tumors, and finding obstructions in the urinary tract. It uses sound waves to produce an image of the organs. Ultrasound carries no risk and causes very little discomfort.

Transvaginal sonohysterography uses ultrasound along with saline injected into the uterus to enhance the visualization of the uterus.

Hysteroscopy. Hysteroscopy is a procedure that may be used to detect the presence of fibroids, polyps, or other causes of bleeding. It may miss cases of uterine cancer, however, and is not a substitute for more invasive procedures, such as D&C or endometrial biopsy, if cancer is suspected.

It is done in the office setting and requires no incisions. The procedure uses a long flexible or rigid tube called a hysteroscope, which is inserted into the vagina and through the cervix to reach the uterus. A fiber optic light source and a tiny camera in the tube allow the doctor to view the cavity. The uterus is filled with saline or carbon dioxide to inflate the cavity and provide better viewing. This can cause cramping.

Hysteroscopy is non-invasive, but 30% of women report severe pain with the procedure. The use of an anesthetic spray such as lidocaine may be highly effective in preventing pain from this procedure. Other complications include excessive fluid absorption, infection, and uterine perforation. Hysteroscopy is also performed as part of surgical procedures.

Laparoscopy. Diagnostic laparoscopy, an invasive surgical procedure, is currently the only definitive method for diagnosing endometriosis. Laparoscopy normally requires a general anesthetic, although the patient can go home the same day. The procedure is as follows:

Click the icon to see an image of laparoscopy.

The surgeon makes tiny abdominal incisions through which a fiber optic tube, equipped with small camera lenses, is inserted. The doctor uses these devices to view the uterus, ovaries, tubes, and peritoneum (lining of the pelvis) on a video monitor.
Carbon dioxide gas is injected into the abdomen, distending it and pushing the bowel away so that the doctor has a wider view.
A blue dye may be flushed through the fallopian tubes to determine blockage; if there is an obstruction, the dye will not flow through the tube.
If the surgeon needs to remove small endometrial cysts or other lesions during the procedure (operative laparoscopy), tiny surgical instruments are passed through a tube.

The procedure is used for detecting and staging endometriosis to determine its severity. In some cases, the procedure itself will restore fertility in women with endometriosis.

Transvaginal Hydrolaparoscopy. Transvaginal hydrolaparoscopy is a new and less invasive approach than laparoscopy, since the instruments are inserted through the vagina, not through incisions in the abdomen. It requires only sedation, does not use CO2 to distend the abdomen, and has a much shorter and easier recovery than with standard laparoscopy. When used by a skilled professional, it is as accurate as laparoscopy, but is not yet widely available.

Endometrial Biopsy With or Without Dilation and Curettage (D&C). When heavy or abnormal bleeding occurs, an endometrial (uterine) biopsy can be performed in the office along with an ultrasound. It is usually used with a procedure called dilation and curettage (D&C), which is particularly important to rule out uterine (endometrial) cancer. A D&C is a somewhat invasive procedure:

A D&C is usually done in an outpatient setting so that the patient can return home the same day, but it sometimes requires a general anesthetic. It may need to be performed in the operating room to rule out serious conditions or treat some minor ones that may be causing the bleeding.
The cervix (the neck of the uterus) is dilated (opened).
The surgeon scrapes the inside lining of the uterus and cervix.

The procedure is used to take samples of the tissue and to relieve heavy bleeding in some instances. D&C can also be effective in scraping off small endometrial polyps, but it is not very useful for most fibroids, which tend to be larger and more firmly attached.

Click the icon to see an image of a D&C.

Treatment

Making dietary adjustments starting about 14 days before a period may help some women with certain mild menstrual disorders, such as cramping. The general guidelines for a healthy diet apply to everyone; they include eating plenty of whole grains, fresh fruits and vegetables, and avoiding saturated fats and commercial junk foods.

Dietary Fats. A 2000 study reported that women who followed a low-fat vegetarian diet for two menstrual cycles experienced less pain and bloating and a shorter duration of premenstrual symptoms than those who ate meat. Women who are losing too much blood, however, may need meat to help maintain iron levels. Choosing more fish and eggs may be a helpful alternative.

More than one study has reported less menstrual pain with a higher intake of omega 3 fatty acids (fat compounds found in oily fish, such as salmon and tuna). In one study, supplements of fish oil also appeared to reduce heavy bleeding in adolescent girls.

Salt Restriction. Limiting salt may help bloating.

Reducing Caffeine, Sugar, and Alcohol. Reducing caffeine, sugar, and alcohol intake may be beneficial. The effects of alcohol are mixed. One study found that women who drank less wine had less menstrual pain than those who drank more wine. Another reported that regular consumption of alcohol lowered the risk for developing cramps, but it actually increased the length of cramping time in certain women. In any case, alcohol is certainly not recommended for relieving menstrual disorders.

Forms of Iron. Women who have heavy menstrual bleeding can sometimes become anemic. Eating iron-rich foods can help prevent anemia. Iron found in foods is either in the form of heme or non-heme iron. Heme iron is better absorbed than non-heme iron.

Foods containing heme iron are the best for increasing or maintaining healthy iron levels. Such foods include (in order of iron-richness) clams, oysters, organ meats, beef, pork, poultry, and fish.
Non-heme iron is less well absorbed. About 60% of iron in meat in non-heme (although meat itself helps absorb non-heme iron). Eggs, dairy products, and iron-containing vegetables only have the non-heme form. Such vegetable products include dried beans and peas, iron-fortified cereals, bread, and pasta products, dark green leafy vegetables (chard, spinach, mustard greens, kale), dried fruits, nuts, and seeds.

The absorption of non-heme iron often depends on the food balances in meals. The following are foods that enhance absorption of non-heme iron:

Meat and fish not only contain heme iron, the best form for maintaining stores, but they also help absorb non-heme iron.
Increasing intake of vitamin C rich foods can enhance absorption of non-heme iron during a single meal. In any case, vitamin C rich foods are healthful and include broccoli, cabbage, citrus fruits, melon, tomatoes, and strawberries. One orange or six ounces of orange juice can double the amount of iron the body absorbs from plant foods. (Taking vitamin C supplements does not appear to have any significant effect on iron stores.)

Exercise may help reduce menstrual pain. It is not clear, however, how intense the exercise should be to reduce dysmenorrhea. For example young female athletes in a 2001 study were only half as likely to suffer from dysmenorrhea as their non-active peers. However, they were also three times more likely to experience an absence of periods. Exercise may be very helpful for women with menstrual pain due to endometriosis. It relieves stress and tension and may reduce hormonal levels that could contribute to endometrial growth.

Sexual Activity. There have been reports that orgasm reduces the severity of menstrual cramps.

Applying Heat. One study found that continuously applying a heated abdominal pad for 12 hours 2 days in a row was as effective in reducing menstrual cramps as ibuprofen (Advil). A warm bath may also be helpful.

Menstrual Hygiene. Tampons should be changed every 4 - 6 hours. Scented pads and tampons should be avoided; feminine deodorants can irritate the genital area. Women should not douche during or between periods. Women who douche on a weekly basis are more likely to contract cervical cancer than those who do not. Douching may destroy the natural bacteria normally present in the vagina. Bathing regularly is sufficient.

Acupuncture and Acupressure. Some studies, including a small well-conducted trial, have reported relief from pelvic pain after acupuncture or acupressure, a technique that applies small pins or pressure to specific points on the body. Some women report relief with reflexology, an acupuncture technique that uses manual pressure on acupuncture points on the ears, hands, and feet.

Yoga and Meditative Techniques. Yoga and meditative techniques that promote relaxation may help relieve menstrual cramps.

Chiropractic. Some women with primary dysmenorrhea have sought help from chiropractors trained in spinal manipulation. One study compared a high-force spinal manipulation technique with a low-force maneuver used as a placebo technique. Both showed lower scores on tests that measure pain, perhaps indicating that a simple back rub by a sympathetic partner or friend may be helpful.

Herbs and Supplements. Studies have not generally found herbal or natural remedies to be any more effective than placebos for reducing menstrual disorders. Natural remedies for menstrual symptoms include:

Evening primrose oil. Evening primrose oil contains a polyunsaturated fatty acid known as gamma linolenic acid. This compound seems to block the release of cytokines and prostaglandins, immune system factors that are manufactured by the endometrium. These factors are involved in uterine muscle contraction and cramping. Foods that contain gamma linolenic acid include black currant oil and cold-water fish.
Omega-3 fatty acids. There is some evidence that the fatty acids found in fish oil have anti-inflammatory properties that may help relieve menstrual cramps. Omega-3 fatty acids are available in supplement pill form, but diets that include cold-water fish (tuna, salmon, mackerel) provide the best source for these nutrients.
Ginger. Ginger tea or capsules may help to relieve nausea and bloating.
Aromatherapy. Aromatherapy with topically-applied lavender, sage, and rose oils may help ease menstrual cramps, according to a small 2006 study.
Pycnogenol. Pycnogenol, an extract from the bark of the French maritime pine tree, may help reduce menstrual pain and discomfort, according to some small studies.

Generally, manufacturers of herbal remedies and dietary supplements do not need FDA approval to sell their products. Just like with drugs, herbs and supplements can affect the body's chemistry, and therefore have the potential to produce side effects that may be harmful. There have been a number of reported cases of serious and even lethal side effects from herbal products. Patients should check with their doctor before using any herbal remedies or dietary supplements.

The following are special concerns for people taking natural remedies for menstrual disorders:

Valerian has been used by some women for menstrual cramps. This herb is listed on the FDA's list of generally safe products. However, its calming effects can be dangerously increased if it is used with sedative drugs. Other interactions and long-term side effects are unknown.
Black cohosh (also known as Cimicifuga racemosa or squawroot) contains a plant estrogen and is the most studied herbal remedy for treating menopausal symptoms, although a 2006 study indicated it is ineffective. Some women also use it for dysmenorrhea. Black cohosh has been used for decades in Germany and appears to be safe, but because its actions resemble estrogen more clinical studies are needed to confirm both long-term safety and effectiveness. Headaches and gastrointestinal problems are common side effects. At this time, experts do not recommend taking it for more than 6 months.

Medications

There are a number of different medicines prescribed for menstrual disorders.

Nonsteroidal Anti-inflammatory Drugs (NSAIDs). Nonsteroidal anti-inflammatory drugs (NSAIDs) block prostaglandins, the substances that increase uterine contractions. They are effective painkillers that also help control the inflammatory factors that may be responsible for heavy menstrual bleeding. Aspirin is the most common NSAID, but there are dozens of others available over the counter or by prescription.

Among the most effective NSAIDs for menstrual disorders are ibuprofen (Advil, Motrin, Midol PMS), naproxen (Aleve, Naprosyn, Naprelan, Anaprox), and mefenamic acid (Ponstel). In a comparison study of ibuprofen and naproxen, both were effective, but the effects of naproxen lasted longer. Naproxen, however, may carry a higher risk for gastrointestinal (GI) effects than ibuprofen. Long-term use of any NSAID can increase the risk for GI bleeding and ulcers. Long-term NSAID use can also increase the risk for heart attack and stroke.

An ulcer is a crater-like lesion on the skin or mucous membrane caused by an inflammatory, infectious, or malignant condition. To avoid irritating an ulcer a person can try eliminating certain substances from their diet such as caffeine, alcohol, aspirin, and avoid smoking. Patients can take certain medicines to suppress the acid in the stomach causing the erosion of the stomach lining. Endoscopic therapy can be used to stop bleeding from the ulcer.

Acetaminophen. Some evidence suggests that acetaminophen (Tylenol) reduces levels of female hormones (gonadotropins and estradiol, an estrogen), which may have some beneficial effect on menstrual disorders. A combination of acetaminophen and pamabrom (Women's Tylenol Menstrual Relief) is specifically aimed at treating menstrual pain and bloating. (Pamabrom is a diuretic, a drug used to reduce fluid build-up and bloating.) One study indicated that acetaminophen is less effective than NSAIDs for dysmenorrhea, but does not have the same potentially harmful effects on the gastrointestinal tract.

Oral contraceptives (OCs), commonly called "the Pill" collectively, contain combinations of an estrogen and a progestin (either a natural progesterone or the synthetic form called progestogen). The estrogen compound used in most combination OCs is estradiol. There are many different progestins, but commonly used types include levonorgestrol, drospirenone, norgestrol, norethindrone, and desogestrel. (Combination contraceptives are also available in other forms, including patches and vaginal rings, but they may increase the risk for menstrual cramping and bleeding.)

Click the icon to see an image of hormone-based contraceptives.

OCs are often used to regulate periods in women with menstrual disorders, including menorrhagia (heavy bleeding), dysmenorrhea (severe pain), and amenorrhea (absence of periods). Oral contraceptives are as effective for treating pain from endometriosis as the more potent gonadotropin releasing hormone agonists. They also protect against ovarian and endometrial cancers.

High-dose OCs have been specifically helpful for adolescents with severe dysmenorrhea. Studies with low-dose OCs have also shown they can reduce menstrual pain for adolescents and adults.

OCs may be taken in cycles that include pills of the same or different strengths. These are categorized as monophasic (one-phase), biphasic (two-phase), or triphasic (three-phase). Monophasic pills contain the same amount of hormones in each dose. Biphasic and triphasic pills contain different dosages of hormones with the pill packs. The monophasic regimen is the most studied regimen and is usually recommended for dysmenorrhea as well as premenstrual symptoms.

Continuous-Dosing OCs. Standard OCs usually come in a 28-pill pack with 21 days of “active” (hormone) pills and 7 days of “inactive” (placebo) pills. Newer “continuous-dosing” (also called “continuous-use”) oral contraceptives aim to reduce -- or even eliminate -- monthly menstrual periods. These OCs contain a combination of estradiol and the progesterone levonorgestrel, but use extending dosing of active pills.

Seasonale, the first continuous-dosing contraceptive, was approved in 2003. It contains 81 days of active pills followed by 7 days of inactive pills. Women who take Seasonale have on average a period every 3 months. Seasonique, a follow-up to Seasonale, was approved in 2006. As with Seasonale, it produces about 4 periods a year. With Seasonique, a woman takes 84 days of levonorgestrol-estradiol pills followed by 7 days of pills that contain only low-dose estradiol.

In 2007, the FDA approved Lybrel, which supplies a daily low dose of levonorgestrol and estradiol with no inactive pills. Because Lybrel contains only active pills, which are taken 365 days a year, it completely eliminates monthly menstrual periods. In clinical trials, 59% of women who took Lybrel completely stopped menstrual periods by the end of the first year. Some women, however, experienced occasional unscheduled bleeding or spotting during the first 3 - 6 months.

Side effects. Common side effects of combination OCs include headache, nausea, bloating, breast tenderness, and bleeding between periods. The estrogen component in combination OCs is usually responsible for these side effects. In general, today’s OCs are much safer than OCs of the past because they contain much lower dosages of estrogen.

However, all OCs can increase the risk for migraine, stroke, heart attack, and blood clots. The risk is highest for women who smoke or who have a history of heart disease risk factors (such as high blood pressure or diabetes) or past cardiac events. Women who have certain metabolic disorders, such as polycystic ovary syndrome (PCOS), are also at higher risk for the heart-related complications associated with these pills.

Progestins (either natural progesterone or synthetic progestogen) are used by women with irregular or skipped periods to restore regular cycles. Because of this, they may also help menstrual pain. They also reduce heavy bleeding and may protect against uterine and ovarian cancers. Progestin-only contraceptives may be a good option for women who are not candidates for estrogen-containing OCs, such as women smokers over the age of 35.

Progestins can be delivered in various forms:

Levonorgestrel-Releasing Intrauterine System (LNG-IUS). An intrauterine device (IUD) that releases progestin can be very beneficial for menstrual disorders, regardless of its contraceptive effects. In the United States, a levonorgestrel-releasing intrauterine system, also called an LNG-IUS, is sold under the brand name Mirena. The LNG-IUS has been proven to reduce heavy bleeding and pain in many women who suffer from menorrhagia and dysmenorrhea. In a 3-year study, the proportion of women with dysmenorrhea using the LNG-IUS dropped from 60% to about 30%. Some studies suggest that the LNG-IUS is more effective than oral contraceptives for controlling heavy menstrual bleeding.

Many experts now recommend the LNG-IUS as a first-line treatment for menorrhagia, particularly for women who may face hysterectomy (removal of uterus), conservative surgery such as endometrial resection (removal of endometrial lining), or endometrial ablation (destruction of endometrial lining). Studies report that about 60% of women with menorrhagia who use the LNG-IUS are able to avoid hysterectomy. Some clinical trials suggest that endometrial resection or ablation may be better at reducing menstrual bleeding than the LNG-IUS. Other studies report that the device is as effective as conservative surgery. Research also indicates that women who choose the LNG-IUS are as satisfied with their quality of life as those who choose surgery.

The LNG-IUS remains in place in the uterus and releases the progestin levonorgestrel for up to 5 years. Progestin released by an IUD mainly affects the uterus and cervix, and so it causes fewer widespread side effects than progestin pills do. (However, the other major IUD -- the Copper T -- may increase bleeding.)

After the LNG-IUS is inserted, heaver periods may occur during the first 3 - 6 months as the lining of the uterus is shed. This shedding may also cause irregular periods and light bleeding (“spotting”) between menstrual cycles. Eventually, the LNG-IUS results in a shorter period, with little or no blood flow. For many women, the LNG-IUS completely stops menstrual periods.

Common side effects include cramping, acne, back pain, breast tenderness, headache, mood changes, and nausea. The LNG-IUS may increase the risk for ovarian cysts, but such cysts usually cause no symptoms and resolve on their own. Women who have a history of pelvic inflammatory disease or who have had a serious pelvic infection should not use the LNG-IUS.

Injections (Depo-Provera). Depo-Provera uses a progestin called medroxyprogesterone. Most women who use Depo-Provera stop menstruating altogether after a year. Depo-Provera may be beneficial for women with heavy bleeding, severe cramps, or both. Women who eventually want to have children should be aware that Depo-Provera can cause persistent infertility for up to 22 months after the last injection, although the average is 10 months.

Weight gain can be a problem, particularly in women who are already overweight. Women should not use Depo-Provera if they have a history of liver disease, blood clots, stroke, or cancer of the reproductive organs.

Long-term (more than 2 years) use of Depo-Provera can cause loss of bone density. In 2004, the FDA added a “black box” warning to the Depo-Provera label advising of this risk. The warning notes that the decline in bone density increases with duration of use and may not be completely reversible even after the drug is discontinued. Based on this information, the FDA recommends that Depo-Provera should not be used for longer than 2 years unless other birth control methods are inadequate. [See In-Depth Report #91: Birth control options for women.]

Gonadotropin releasing hormone (GnRH) agonists are sometimes used to treat menorrhagia. GnRH agonists block the release of the reproductive hormones LH (luteinizing hormone) and FSH (follicular-stimulating hormone). As a result, the ovaries stop ovulating and no longer produce estrogen. GnRH agonists include goserelin (Zoladex), buserelin, a monthly injection of leuprolide (depot Lupron), and a nasal spray, Nafarelin (Synarel). Such drugs may be used alone or in preparation for procedures used to destroy the uterine lining. They are not generally suitable for long-term use.

Commonly reported side effects, which can be severe in some women, include menopausal-like symptoms. These symptoms include hot flashes, night sweats, changes in the vagina, weight change, and depression. The side effects vary in intensity depending on the GnRH agonist. They may be more intense with leuprolide and persist after the drug has been stopped.

The most important concern is possible osteoporosis from estrogen loss. Women ordinarily should not take these drugs for more than 6 months. Certain approaches may preserve enough estrogen to protect bones and still effectively relieve endometriosis symptoms:

Add-back therapy, which provides doses of estrogen and progestin that are high enough to maintain bone density, but are too low to offset the beneficial effects of the GnRH agonist.
Intermittent leuprolide, which uses repeated 6-month courses of GnRH agonists followed by an average of 9 months of symptom control only.
Taking GnRH agonists in very low doses is an alternate approach, but is still largely untested.
Adding a bone-protective drug called a bisphosphonate (alendronate or etidronate) may be helpful.
Other drugs are being tested in combination with a GnRH agonist to preserve bone. They include parathyroid hormone or selective estrogen-receptor modulators (SERMs).

GnRH treatments used alone do not prevent pregnancy. Furthermore, if a woman becomes pregnant during their use, there is some risk for birth defects. Women who are taking GnRH agonists should use non-hormonal birth control methods, such as the diaphragm, cervical cap, or condoms while on the treatments.

Danazol (Danocrine) is a synthetic substance that resembles a male hormone. It suppresses estrogen, and therefore menstruation, and is used (sometimes in combination with an oral contraceptive), to help prevent heavy bleeding. It may also improve surgical success rates in women with menorrhagia when used before ablation or resection to destroy the uterine lining. It is not suitable for long-term use.

Adverse side effects include facial hair, deepening of the voice, weight gain, acne, and dandruff. It may also increase the risk for unhealthy cholesterol levels. Pregnant women or those trying to become pregnant should not take this drug because it may cause birth defects. [See In-Depth Report #74: Endometriosis or In-Depth Report #63: Uterine fibroids.]

Surgery

Women with heavy menstrual bleeding, dysmenorrhea, or both have medical and surgical options available to them. Most procedures eliminate the possibility for childbearing, however. Hysterectomy removes the entire uterus while ablation and resection destroy most or all of uterine lining.

For some women, an intrauterine device (IUD) that releases hormones is proving to be a good medical alternative to surgery. The levonorgestrel-releasing intrauterine system, or LNG-IUS (Mirena), is increasingly being used to treat menorrhagia. Many experts recommend it as a first-line treatment for heavy bleeding. Studies have found the LNG-IUS to work just as well as ablation and resection. Women should be sure to ask their doctors about all medical options before undergoing surgical procedures.

In either standard endometrial resection or ablation, the entire lining of the uterus (the endometrium) is removed or destroyed. The standard endometrial ablation and resection techniques are equally effective in reducing bleeding. In general, either one reduces bleeding by about half. About 15% of women require a hysterectomy later on. Some recent studies report that microwave endometrial ablation may work better than resection, and considerably reduce the need for future hysterectomy. Women should discuss with their surgeon which procedure may be best for them.

Hormonal Pretreatment. Hormonal drugs, such as GnRH analogs or danazol, are sometimes used before the procedures to help prepare the uterus by thinning the endometrial lining. However, a 2005 study suggested that drug preparation may not be required before microwave endometrial ablation.

Postoperative Effects of Endometrial Ablation or Resection Procedures. Postoperative effects of either procedure include the following:

Anesthesia may cause nausea and even vomiting for a few hours following the operation.
Cramping and pain occurs but can usually be relieved using over-the-counter painkillers.
Patients may experience frequent urination for the first day after the procedure and blood-tinged, watery vaginal discharge for more than a month.

Complications of Endometrial Ablation or Resection Procedures. Complications from either procedure may include perforation of the uterus, injury to the intestine, hemorrhage, or infection.

In standard resection and ablation, the uterine cavity is expanded by filling it with fluid. In rare instances, excess glycine from the fluid instilled in the uterus builds up in the bloodstream and causes an abnormal drop in sodium levels. This can be a serious event resulting in mental confusion, convulsions, and, very rarely, death. General anesthesia may pose a lower risk for this complication than local. Some of the newer ablation procedures do not require fluid instillation.

In a 2002 study, 10% of patients who were given standard ablation using the roller ball technique experienced blockage or blood build-up in the fallopian tubes that require a follow-up procedure or a hysterectomy later on.

Resection procedures benefit those women who have very heavy menstrual bleeding but do not have any other underlying uterine problems, such as polyps, hyperplasia of the endometrium, or cancer. Resection also seems to have a higher success rate in reducing bleeding and relieving pain in older women than younger women.

Resection procedures typically involve the following:

The patients are given a local or general anesthesia.
The surgeon dilates (widens) the cervix and fills the uterine cavity with fluid to improve visualization.
The surgeon then removes the uterine lining.

Endometrial ablation involves the destruction of the uterine lining using a number of approaches that include heat, electricity, laser energy, and other methods. The standard ablation approach uses hysteroscopy to allow the doctor to view the uterus.

A typical procedure uses the following approach:

The doctor uses hysteroscopy to view the uterine cavity. This is a fiber optic light source inside a long flexible or rigid tube, which is inserted into the uterus in order to view the cavity. The image of the uterine cavity is transmitted by camera lenses to a video screen.
The uterine cavity is filled with fluid for better visualization. A special substance such as glycine, sorbitol, or mannitol may be added to the fluid so that it does not conduct electricity. This process prevents accidental burns.
With ablation, uterine tissue is usually vaporized using a thin powerful laser beam or high electric voltage. One ablation technique, known as electrocautery with roller ball diathermy, uses a device that looks like a tiny steamroller. This device applies heat and destroys endometrial tissue as it rolls across the uterine lining.
The procedure typically takes 15 - 45 minutes. Although a general anesthetic is usually required, the patient can go home the same day.

It takes about 3 months to determine whether the procedure has been effective. There should be a follow-up appointment about 2 weeks after the procedure. One study revealed 80% of the women were satisfied with ablation. However, this was lower than the 89% satisfaction rate reported by women who had hysterectomy. About 30% of women who have this procedure still require additional surgeries, including hysterectomies, within 5 years. The risk is higher in younger women. The risk for complications increases with repeat ablations.

Newer endometrial ablation techniques (described below) do not use the hysteroscopy. These “second-generation” procedures are technically easier to perform than standard ablation and may be less dependent on the skill of the surgeon. A 2005 review found that second-generation procedures reduce surgery time. Women who had the newer procedures were less likely to experience fluid buildup, perforation of the uterus, cervical cuts and tears, or accumulation of blood in the uterus. However, women did experience more nausea, vomiting, and cramping.

Balloon Endometrial Ablation. Balloon ablation (ThermaChoice in the U.S., Cavaterm in Europe) is proving to be very effective:

A balloon at the tip of a catheter tube is filled with fluid and inflated until it conforms to the walls of the uterus.
A probe in the balloon heats the fluid to destroy the endometrial lining.
After 8 minutes the fluid is drained out and the balloon is removed.

Studies show that bleeding is controlled in 70 - 90% of patients for at least 5 years. It is fast, simple to perform, and comparison studies suggest that it is as effective as resection and standard ablation.

Treatment is less likely to succeed in younger women, those with a tipped uterus, when the uterine lining is 4 mm or thicker, and when menstrual bleeding is prolonged. Pregnancy is possible if some of the lining is maintained, but generally women should not depend on it to preserve fertility.

Electric Wand Ablation. This approach involves inserting a slender wand up through the cervix (the NovaSure System). A triangular mesh-like device is then passed through the wand and expands to fit the uterus. Electrical energy is passed through it for about 90 seconds and the mesh and wand are then withdrawn. As with many other second-generation ablation techniques, it is quick, effective, and does not require pretreatment to expand the uterus. In a 2003 study, it achieved significantly lower bleeding rates than balloon ablation.

Freezing (Cryoablation). With cryoablation (Her Option Uterine Cryoablation Therapy System), the uterine tissue is frozen, which destroys the lining. The procedure takes about 10 minutes to destroy the lining, and it requires no fluid to expand the uterus and little anesthetic. Ultrasound is used to guide the procedure so that the surgeon can view the depth of the ablation. In a 2003 study, cryoablation was slightly less successful than a standard ablation procedure. However, bleeding still declined by 92% with the freezing technique, and quality of life significantly improved.

Hot Saline. Another recently approved technique [Hydro-Therm-Ablator (HTA) system] uses hot saline (salt water) to destroy the lining. It takes about 10 minutes to do this. This is not a "blind" procedure but uses hysteroscopy so that the surgeon can view the uterus.

Laser Ablation. Endometrial laser intrauterine thermotherapy (ELITT) is an ablation technique that does not require either fluid or devices for expanding the uterus or direct contact with the endometrium. This appears to be a very effective approach.

Microwave Endometrial Ablation. Microwave endometrial ablation applies very low-power microwaves to the uterus, which limits tissue destruction only to the lining without causing any unnecessary harm to other tissues. It takes about 3 minutes. Studies report success rates equal to standard ablation and resection procedures.

Until recently, hysterectomy was the only surgical option for uterine fibroids. Other procedures, however, are now available:

Myomectomy. Myomectomy is the surgical removal of only one or more fibroids. Myomectomy usually involves a laparotomy (a procedure that uses a wide abdominal incision) or less invasive surgical techniques, such as laparoscopy and hysteroscopy. In such cases, unlike with hysterectomy, this technique may preserve fertility.
Uterine Artery Embolization (UAE). UAE, also called uterine fibroid embolization (UFE), is a non-surgical radiology procedure. An interventional radiologist injects small plastic particles through a catheter placed in the uterine artery. The particles block the blood supply to the fibroids and cause them to shrink.
Other Procedures. Endometrial ablation (destruction of the lining of the uterus) may be useful in women with small fibroids and heavy bleeding. Myolysis is another procedure best suited for women with specific types of small fibroids. Magnetic resonance-guided focused ultrasound (MRgFUS) is the newest type of fibroid procedure. Myolysis and MRgFUS use heat to cut off the blood supply to fibroids.

Women should discuss each option with their doctor. Deciding on the surgical procedure depends on the location, size, and number of fibroids. Certain procedures affect a women’s fertility and are recommended only for women who are past childbearing age or who do not want to become pregnant. The risk for bleeding increases with the surgeon's inexperience, so patients are urged to investigate the surgeon's track record. [See In-Depth Report #73: Uterine fibroids.]

Hysterectomy is the surgical removal of the uterus and is the second most frequently performed surgery in premenopausal women (Cesarean sections are first). About 600,000 hysterectomies are performed each year in the U.S., which is among the highest rate of all countries. By age 60, about a third of American women have had this procedure. The highest hysterectomy rates are in women age 40 - 44. Women in the southern and midwestern areas of the United States are more likely to have the operation than those in the northeast and west.

Click the icon to see an illustrated series detailing a hysterectomy.

A 2007 study suggested that a combination of factors predicts whether a woman will decide to have a hysterectomy. A woman who meets all three of these factors has a 95% chance of having a hysterectomy:

Presence of symptoms (pelvic pain, bleeding, symptomatic fibroids)
Lack of symptom improvement or resolution despite treatment
Previous use of GnRH agonist drugs

Heavy bleeding, often from fibroids, is the reason for about two-thirds of all hysterectomies. However, in about half of these hysterectomies, no abnormalities are detected to explain the bleeding. In one European study, women with menorrhagia were more likely to choose hysterectomy over conservative treatment if they also had pelvic pain and were inconvenienced by the heavy bleeding. The number of procedures has continued to increase, but the rise has slowed substantially in recent years.

In its support, hysterectomy, unlike medical treatments and less invasive procedures, cures menorrhagia completely, and most women are satisfied with the procedure. Less invasive hysterectomy procedures are also improving recovery rates and increasing satisfaction afterward.

Still, in one study in 70% of cases when doctors recommended hysterectomies, they did not give their patients alternative choices or adequate diagnostic evaluations. Some studies suggest that the levonorgestrel-releasing intrauterine system (Mirena) might help avoid hysterectomy in 80% of cases. Any woman, even one who has reached menopause, uncertain about a recommendation for a hysterectomy for fibroids or heavy bleeding should certainly seek a second opinion.

[See In-Depth Report #73: Uterine fibroids or In-Depth Report #74: Endometriosis.]

Some evidence suggests that surgically cutting the pain-conducting nerve fibers leading from the uterus diminishes the pain from dysmenorrhea. Two procedures, uterine nerve ablation and laparoscopic presacral neurectomy, can block such nerves. Small studies have shown benefits from these procedures, but stronger evidence is needed before they can be recommended for women with severe primary dysmenorrhea.

Laparoscopic Uterosacral Nerve Ablation (LUNA). LUNA is a recent approach that uses either laser or cauterization to destroy nerves in a small segment of the ligaments that connect the cervix with the lower back. The ligaments do not appear to provide any structural support. There are few side effects from the procedure. The patient does not lose any sensations associated with sexual activity.

Laparoscopic Presacral Neurectomy (LPSN). LPSN uses laser techniques to sever a web of nerves between the lower spine and tail bone that transmit pain from the uterus. The procedure does not affect fertility. Studies suggest that it may work better than LUNA in the long term, but it also poses a higher risk of complications. These complications include constipation, diarrhea, and urinary problems. However, many women find that these symptoms eventually improve.

Resources

www.acog.org -- American College of Obstetricians and Gynecologists
www.resolve.org -- National Infertility Association
www.asrm.com -- American Society for Reproductive Medicine
www.endometriosisassn.org -- Endometriosis Association
www.pelvicpain.org -- International Pelvic Pain Society

References

American Academy of Pediatrics Committee on Adolescence; American College of Obstetricians and Gynecologists Committee on Adolescent Health Care; Diaz A, Laufer MR, Breech LL. Menstruation in girls and adolescents: using the menstrual cycle as a vital sign. Pediatrics. 2006 Nov;118(5):2245-50.

Archer DF, Jensen JT, Johnson JV, Borisute H, Grubb GS, Constantine GD. Evaluation of a continuous regimen of levonorgestrel/ethinyl estradiol: phase 3 study results. Contraception. 2006 Dec;74(6):439-45. Epub 2006 Sep 18.

Han SH, Hur MH, Buckle J, Choi J, Lee MS. Effect of aromatherapy on symptoms of dysmenorrhea in college students: A randomized placebo-controlled clinical trial. J Altern Complement Med. 2006 Jul-Aug;12(6):535-41.

Learman LA, Kuppermann M, Gates E, Gregorich SE, Lewis J, Washington AE. Predictors of hysterectomy in women with common pelvic problems: a uterine survival analysis. J Am Coll Surg. 2007 Apr;204(4):633-41. Epub 2007 Feb 23.

Review Date:
6/16/2007
Reviewed By:
Harvey Simon, MD, Associate Professor of Medicine, Harvard Medical School; Physician, Massachusetts General Hospital.

A.D.A.M. Copyright

adam.com

Male pattern baldness

admin — Wed, 03 Sep 2008 17:54:59 -0700

Overview

Definition
Alternative Names
Causes, incidence, and risk factors
Symptoms
Signs and tests
Treatment
Expectations (prognosis)
Complications
Calling your health care provider
Prevention
References

Illustrations

Male pattern baldness

Hair follicle

HEALTH GUIDE REFERENCE FROM A.D.A.M

Definition

Male pattern baldness is the most common type of hair loss in men. It usually follows a typical pattern of receding hairline and hair thinning on the crown, and is caused by hormones and genetic predisposition.

Alternative Names

Alopecia in men; Baldness - male; Hair loss in men; Androgenetic alopecia

Causes, incidence, and risk factors

Hair grows about an inch every couple of months. Each hair grows for 2 to 6 years, remains at that length for a short period, then falls out. A new hair soon begins growing in its place. At any one time, about 85% of the hair on your head is in the growing phase and 15% is not.

Each hair sits in a cavity in the skin called a follicle. Baldness in men occurs when the follicle shrinks over time, resulting in shorter and finer hair. The end result is a very small follicle with no hair inside. Ordinarily, hair should grow back. However, in men who are balding, the follicle fails to grow a new hair. Why this occurs is not well understood, but it is related to your genes and male sex hormones. Even though the follicles are small, they remain alive, suggesting the possibility of new growth.

Symptoms

The typical pattern of male baldness begins at the hairline. The hairline gradually recedes to form an "M" shape. The existing hair may become finer and shorter. The hair at the crown also begins to thin. Eventually the top of the hairline meets the thinned crown, leaving a horseshoe pattern of hair around the sides of the head.

Hair loss in patches, diffuse shedding of hair, breaking of hair shafts, or hair loss associated with redness, scaling, pain, or rapid progression could be caused by other conditions.

Signs and tests

Classic male pattern baldness is usually diagnosed based on the appearance and pattern of the hair loss. Any atypical hair loss may be caused by other medical disorders. A skin biopsy or other procedures may be needed to diagnose other disorders that cause loss of hair.

Hair analysis is not accurate for diagnosing nutritional or similar causes of hair loss. However, it may reveal substances such as arsenic or lead.

Treatment

Treatment is not necessary if you are comfortable with your appearance. Hair weaving, hairpieces, or change of hairstyle may disguise the hair loss. This is usually the least expensive and safest approach for male baldness.

There are two main drugs used to treat male pattern baldness:

Minoxidil (Rogaine) -- a solution that you apply directly to the scalp to stimulate the hair follicles. It slows hair loss for many men, and some men grow new hair. The previous degree of hair loss returns when you stop applying the solution.
Finasteride (Propecia, Proscar) -- a prescription pill that inhibits the production of the male hormone dihydrotestosterone. Like minoxidil, you are more likely to have slower hair loss than actual new hair growth. In general, it is somewhat more effective than minoxidil. The previous degree of hair loss returns when you stop taking the drug.

Hair transplants consist of removing tiny plugs of hair from areas where the hair is continuing to grow and placing them in areas that are balding. This can cause minor scarring in the donor areas and carries a modest risk for skin infection. The procedure usually requires multiple transplantation sessions and may be expensive. Results, however, are often excellent and permanent.

Suturing hair pieces to the scalp is not recommended. It can result in scars, infections, and abscess of the scalp. The use of hair implants made of artificial fibers was banned by the FDA because of the high rate of infection.

Expectations (prognosis)

Male pattern baldness does not indicate a medical disorder, but it may affect self-esteem or cause anxiety. The hair loss is usually permanent.

Complications

Psychological stress
Loss of self-esteem due to change in appearance

Calling your health care provider

Call your doctor if:

Your hair loss occurs in an atypical pattern -- rapid hair loss, diffuse shedding, hair loss in patches, or breaking of hair shafts.
Your hair loss is accompanied by itching, skin irritation, redness, scaling, pain, or other symptoms.
Your hair loss begins after starting a medication.
You want to attempt to treat your hair loss.

Prevention

There is no known prevention for male pattern baldness.

References

Cummings CW, Flint PW, Haughey BH, et al. Otolaryngology: Head & Neck Surgery. 4th ed. St Louis, Mo; Mosby; 2005.

Habif TP. Clinical Dermatology. 4th ed. St. Louis, Mo: Mosby; 2004.

Review Date: 4/12/2007

Reviewed By: Kevin Berman, MD, PhD, Associate, Atlanta Center for Dermatologic Disease, Atlanta, GA. Review provided by VeriMed Healthcare Network.

A.D.A.M. Copyright

adam.com

Source Doc: 1_001177

Aging changes in hair and nails

admin — Thu, 04 Sep 2008 19:18:29 -0700

Overview

Information

Illustrations

Hair follicle of young person

Aged hair follicle

Aging changes in nails

HEALTH GUIDE REFERENCE FROM A.D.A.M

Information

Hair color change is probably one of the most obvious signs of aging. Hair color is caused by a pigment (melanin) produced by hair follicles. With aging, the follicle produces less melanin.

Graying often begins in the 30s, although this varies widely. Graying usually begins at the temples and extends to the top of the scalp. Hair becomes progressively lighter, eventually turning white.

Many people have some gray scalp hair by the time they are in their 40s. Body and facial hair also turn gray, but usually later than scalp hair. The hair in the armpit, chest, and pubic area may gray less or not at all.

Graying is genetically determined. Gray hair tends to occur earlier in Caucasians and later in Asian races. Nutritional supplements, vitamins, and other products will not stop or decrease the rate of graying.

HAIR THICKNESS CHANGES

Hair is a protein strand that grows through an opening (follicle) in the skin. A single hair has a normal life of about 4 or 5 years. That hair then falls out and is replaced with a new hair.

How much hair you have on your body and head is determined by your genes. However, almost everyone experiences some hair loss with aging. The rate of hair growth slows.

The hair strands become smaller and have less pigment, so the thick, coarse hair of a young adult eventually becomes thin, fine, light-colored hair. Many hair follicles stop producing new hairs altogether.

About a quarter of men begin to show signs of baldness by the time they are 30 years old, and about two-thirds of men have significant baldness by age 60. Men develop a typical pattern of baldness associated with the male hormone testosterone (male-pattern baldness). Hair may be lost at the temples or at the top of the head.

Women may also develop a typical pattern of hair loss as they age (female-pattern baldness). The hair becomes less dense all over and the scalp may become visible.

Body and facial hair are also lost, but the hairs that remain may become coarser. Some women may notice a loss of body hair, but may find that they have coarse facial hair, especially on the chin and around the lips.

Men may find the hair of their eyebrows, ears, and nose becoming longer and coarser.

NAIL CHANGES

The nails also change with aging. They grow slower and may become dull and brittle. They may become yellowed and opaque.

Nails, especially toenails, may become hard and thick. Ingrown toenails may be more common. The tips of the fingernails may fragment.

Sometimes, lengthwise ridges will develop in the fingernails and toenails. This can be a normal aging change. However, some nail changes can be caused by infections, nutritional deficiencies, trauma, and other problems.

Check with your health care provider if your nails develop pits, ridges, lines, changed shape, or other changes. These can be related to iron deficiency, kidney disease, and nutritional deficiencies.