Infertility
"infertility" AND "diagnosis" AND "management"
infertility causes diagram male female

This pathophysiology diagram illustrates the proposed mechanisms of male infertility induced by Radio Frequency Electromagnetic Field (RFR-EMF) exposure. The process begins with RFR-EMF radiation affecting the testis, which triggers two primary pathological pathways: Genotoxicity (represented by cellular nuclear damage) and Reactive Oxygen Species (ROS)/Oxidative Stress (represented by a star-shaped icon). These two intermediate states converge to cause a spectrum of genetic and cellular alterations, specifically: DNA damage (helix fragmentation), Strand Breaks, Chromosomal Aberrations, Sister Chromatid Exchange (SCE) Translocation, the formation of Micronuclei, and cellular Apoptosis. The flow concludes with a final box indicating that the cumulative effect of these genotoxic and oxidative stressors leads to 'Male Infertility.' This diagram serves as an educational summary of how non-ionizing radiation potentially disrupts male reproductive health through genomic instability and oxidative damage.

Summary : This figure presents the recommended initial clinical assessment steps for infertility in females and males, listing specific diagnostic procedures for each sex. flowchart: # Female Assessment : • Medical history • Physical examination • Pelvic 2D ultrasound for detection of structural abnormalities, with additional imaging if needed • Assessment of ovulatory function via menstrual calendar and laboratory testing • AMH (Anti-Müllerian Hormone) or other ovarian reserve testing # Male Assessment : • Medical history • Physical examination • Semen analysis # Symbols : • Female symbol (♀) for female assessment section • Male symbol (♂) for male assessment section Analysis : • The figure clearly separates the infertility assessment protocols for females and males, with more detailed and varied diagnostic steps for females, including imaging and hormonal testing, while the male assessment focuses on semen analysis after history and examination. This highlights the complexity and multi-factorial nature of female infertility evaluation compared to male.

This medical flow diagram illustrates the clinical workflow of In Vitro Fertilization and Embryo Transfer (IVF-ET) in a case of male mosaicism. The process begins with a genetic evaluation of the male patient, showing a 45,X/46,XY karyotype in peripheral blood and a more complex 45,X/47,XYY/46,XY mosaicism in testicular tissue. The procedural steps follow: percutaneous testicular puncture for sperm retrieval, separation of motile sperm, and egg collection from the female reproductive system. These are combined to obtain six embryos, from which one '8C/II' embryo is selected for transfer. The final stages show the progression to pregnancy, including prenatal screening via amniocentesis in the second trimester, revealing a 46,XN karyotype in the amniotic fluid. This infographic serves as an educational tool for reproductive endocrinology and infertility (REI), demonstrating the management of gonadal dysgenesis and chromosomal mosaicism through assisted reproductive technology (ART) to achieve a successful pregnancy outcome.

A pathophysiology diagram illustrating the direct and indirect mechanisms by which bacteria cause sperm functional defects and male infertility. The diagram outlines two primary pathways: 1) Direct Interaction: Adherence of bacteria to the sperm surface. 2) Indirect Inflammatory Response: Bacterial presence triggers immune cell activation, specifically involving neutrophils, macrophages, lymphocytes, and monocytes. These leukocytes release reactive oxygen species (ROS) and pro-inflammatory cytokines, including TNF-α, IL-6, and IL-8. Both pathways converge to induce cellular oxidative stress. The final section of the flowchart lists the resulting sperm functional defects, which include lipid peroxidation, DNA fragmentation, mitochondrial dysfunction, loss of motility, and the induction of apoptosis. This educational visual provides a comprehensive overview of how bacterial infections and the subsequent leukocytospermic response impair reproductive health at the cellular level.
| Female Age | Reduction in Fecundability |
|---|---|
| 34-35 years | -14% vs. age 30-31 |
| 36-37 years | -19% |
| 40-41 years | -53% |
| 42-44 years | -59% |
| Situation | When to Evaluate |
|---|---|
| Female age <35 | After 12 months of unprotected intercourse |
| Female age 35-40 | After 6 months |
| Female age >40 | Immediately |
| Known risk factors present | Before 12-month threshold |

| Parameter | Lower Reference Limit |
|---|---|
| Volume | ≥1.5 mL |
| Total sperm count | ≥39 million |
| Concentration | ≥16 million/mL |
| Progressive motility | ≥30% |
| Total motility | ≥42% |
| Morphology (Kruger strict) | ≥4% normal forms |
| Agent | Mechanism | Notes |
|---|---|---|
| Letrozole (aromatase inhibitor) | Blocks estrogen synthesis → stimulates FSH | First-line for PCOS (per current evidence) |
| Clomiphene citrate (SERM) | Anti-estrogen effect → increases FSH/LH | 50 mg days 3-7; max 200-250 mg; first-line if prolactin normal |
| Metformin | Insulin sensitizer | Add-on in obese PCOS patients |
| Injectable gonadotropins (FSH, LH) | Direct follicular stimulation | Second/third-line; risk of ovarian hyperstimulation (OHSS) |
| Procedure | Description |
|---|---|
| IUI (Intrauterine insemination) | Washed sperm deposited into uterus via catheter; office-based |
| IVF (In vitro fertilization) | Oocytes retrieved transvaginally under sedation; fertilized in lab; embryos transferred at Day 3 (cleavage) or Day 5 (blastocyst) |
| ICSI | Single sperm injected into oocyte; for severe male factor |
| Donor oocytes | Used in premature ovarian insufficiency or diminished ovarian reserve |
| Embryo cryopreservation | Freeze excess embryos for future transfer |
Prolapse of uterus
"uterine prolapse" AND "pelvic organ prolapse"
uterine prolapse degrees grading diagram anatomy

A side-by-side clinical photograph documenting uterine prolapse and its subsequent management with a pessary in a pregnant patient. The left panel shows a clinical examination of the vulva with a gloved hand retracting the labia. The cervix is visibly descended and protruding through the vaginal introitus, characteristic of grade 2 pelvic organ prolapse. The cervical tissue appears hyperemic and edematous. The right panel displays the external female genitalia following the placement of an Arabin cerclage pessary. In this view, the prolapse is reduced, and a portion of the blue silicone pessary is visible within the vaginal canal, positioned to support the cervix and maintain its placement. The image illustrates a non-surgical management strategy for symptomatic uterine prolapse and acute urinary retention during pregnancy. Educational concepts include pelvic floor anatomy, grading of organ prolapse, and mechanical support devices in obstetrics and gynecology.

Anatomical Diagram: A black-and-white schematic illustration demonstrating the surgical fixation of the round ligaments to the anterior rectus fascia, likely for the management of pelvic organ prolapse. The diagram provides an anterior view of the uterus and its supporting structures. The uterine fundus is shown in the center, with the round ligaments extending bilaterally. These ligaments are depicted being pulled cranially and looped through small fenestrations in the rectus abdominis muscle layer. The apical 'ans' or loop of each round ligament is secured to the overlying fascia using three distinct sutures, represented by 'x' markers. Additional adnexal structures, including the fallopian tubes and utero-ovarian ligaments, are visible extending from the uterine cornua. The illustration emphasizes the anatomical relationship between the pelvic viscera and the abdominal wall fascia during a suspension procedure, highlighting the point of mechanical support and the method of non-absorbable suture fixation used to stabilize the uterine position.

This composite image illustrates the reduction of prolapsed fetal membranes during an emergency cervical cerclage procedure, featuring a side-by-side clinical photograph and schematic diagram. The right panel is a clinical photograph showing the vaginal surgical field draped in blue sterile sheets. A surgeon's gloved hands are seen utilizing a metallic vaginal retractor and surgical forceps to expose the cervix. A yellow Foley catheter is inserted through the cervical canal, utilized here to manually reduce the bulging amniotic sac (membranes) back into the uterine cavity. The left panel provides a corresponding schematic illustration of the female pelvic anatomy, specifically detailing the cervix, uterus, and the placement of surgical instruments. The diagram highlights the mechanical process of using a catheter balloon and purse-string sutures to stabilize the prolapse and secure the cervical os. This educational material is designed for obstetrics and gynecology training, specifically focused on surgical management of cervical insufficiency and fetal membrane prolapse.

A clinical photograph showing a stage IV total uterine prolapse in a patient positioned for gynecological examination. The visual demonstrates a significant protrusion of the uterus and everted vaginal walls through the vaginal introitus, presenting as a large, rounded, fleshy mass. The prolapsed tissue exhibits a pale pink to reddish color with a glistening, moist surface and visible horizontal rugae or mucosal folds. At the most distal end of the mass, the external os of the cervix is clearly visible as a dark, oval orifice. The surrounding anatomy includes the labia minora and the vulvar region. The skin of the inner thighs and perineum is visible, showing some minor scattered erythematous macules or blemishes, but notably lacks extensive ulceration or necrosis of the vaginal mucosa. This image illustrates a severe case of pelvic organ prolapse (POP) which, as noted in the clinical context, can lead to secondary complications such as bilateral hydronephrosis due to ureteral compression.
| Level | Structures | Support Provided |
|---|---|---|
| Level I (Apical) | Uterosacral & cardinal ligaments | Suspend the uterus/vaginal apex from the sacrum and pelvic sidewall |
| Level II (Mid-vaginal) | Pubocervical fascia (anterior), Rectovaginal fascia (posterior) | Support the mid-vagina (prevents cystocele/rectocele) |
| Level III (Distal) | Perineal body, external anal sphincter, perineal membrane | Support the distal vagina and urogenital hiatus |
| Risk Factor | Notes |
|---|---|
| Vaginal delivery | Most important modifiable risk; number and difficulty of deliveries matters |
| Increased parity | Cumulative trauma |
| Ageing / menopause | Oestrogen loss, tissue atrophy |
| Obesity | Chronic raised intra-abdominal pressure |
| Chronic straining | Constipation, chronic cough |
| Prior pelvic surgery | Hysterectomy significantly increases vault prolapse risk |
| Connective tissue disorders | Marfan, Ehlers-Danlos |
| Race | White and Hispanic women at higher risk than Black women for anterior wall prolapse |
| Family history | Genetic predisposition |
| Type | Structure Descending | Alternative Name |
|---|---|---|
| Uterine prolapse | Uterus + cervix | Descensus uteri |
| Cystocele | Bladder through anterior vaginal wall | Anterior wall prolapse |
| Rectocele | Rectum through posterior vaginal wall | Posterior wall prolapse |
| Enterocele | Small bowel/peritoneal sac through pelvic floor | Usually post-hysterectomy |
| Vaginal vault prolapse | Vaginal apex post-hysterectomy | Apical prolapse |
| Urethrocele | Urethra | Anterior wall variant |

| Grade | Description |
|---|---|
| 0 | Normal, no prolapse |
| 1 | Descent halfway to the hymen |
| 2 | Descent to the hymen |
| 3 | Descent halfway past the hymen |
| 4 | Maximum possible descent |
| POP-Q Stage | Definition |
|---|---|
| 0 | No prolapse - all points ≤-3 cm |
| I | Leading edge >1 cm above hymen (< -1 cm) |
| II | Leading edge within 1 cm of hymen (-1 to +1 cm) |
| III | Leading edge >1 cm below hymen but not completely everted |
| IV | Complete eversion / procidentia |
Important: Low backache and pelvic pain attributed to prolapse warrant investigation of other sources. A pessary trial can help distinguish prolapse-related symptoms from other pathology - improvement with pessary suggests POP is the causative factor.
| Procedure | Approach | Notes |
|---|---|---|
| Manchester (Fothergill) operation | Vaginal | Amputation of cervix + shortening of cardinal ligaments + anterior repair; good results for cervical elongation with prolapse |
| Sacrospinous hysteropexy | Vaginal | Suspension of cervix/uterus to sacrospinous ligament |
| Abdominal/laparoscopic hysteropexy | Abdominal/laparoscopic | Suspension using mesh or native tissue to sacral promontory |
| Procedure | Route | Notes |
|---|---|---|
| Sacrospinous ligament fixation (SSLF) | Vaginal | Native tissue; risk: pudendal nerve injury, right-sided vaginal deviation |
| Uterosacral ligament suspension (USLF) | Vaginal / abdominal | Native tissue; risk: ureteral kinking |
| Sacrocolpopexy | Abdominal / laparoscopic | Gold standard for vault prolapse; mesh attached from vaginal apex to sacral promontory; lowest recurrence rate |
| Robotic sacrocolpopexy | Robotic-assisted laparoscopic | Equivalent to laparoscopic; longer operating time |
Sacrocolpopexy (abdominal) has the lowest recurrence rate of all prolapse procedures. Vaginal approaches have approximately twice the failure rate of abdominal approaches.
Symptomatic POP
|
├── Conservative measures first (PFMT, lifestyle, local oestrogen)
|
├── Pessary (if surgery declined, unfit, or temporary relief needed)
|
└── Surgery (failed conservative, significant symptoms)
|
├── Wants uterus retained → Hysteropexy (Manchester / SSLF / sacrocolpopexy)
|
├── Childbearing complete → Vaginal hysterectomy + vault suspension
|
├── Apical prolapse dominant → Sacrocolpopexy (lowest recurrence)
|
├── Anterior wall → Anterior colporrhaphy
|
├── Posterior wall → Posterior colporrhaphy (without levator plication)
|
└── Elderly, no coital function desired → Colpocleisis (LeFort)