Developmental biology and Embryology

Embark on an in-depth exploration of **embryonic development and cellular differentiation** with this specialized course. Designed for **medical students, researchers, and biology enthusiasts**, this program delves into **neurulation, organogenesis, reproductive biology, and cellular senescence**, providing both foundational knowledge and advanced insights relevant to **USMLE and developmental biology studies**.

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### **Course Modules:**

#### **1. Early Embryonic Development & Neural Tube Formation**
– **Neural Tube Formation | Neurulation**
– Study the critical process of neural tube closure and its role in central nervous system development.
– **Spina Bifida | Causes & 3 Clinical Types**
– Analyze the etiology, classifications (occulta, meningocele, myelomeningocele), and implications of this neural tube defect.
– **Week 3 of Development | Gastrulation & Neural Induction**
– Revisit gastrulation’s role in germ layer formation and the initiation of neural tissue specification.

#### **2. Organ-Specific Developmental Mechanisms**
– **Vulva Induction in *C. elegans***
– Investigate this model organism’s vulval development and its implications for signaling pathways in higher animals.
– **Tetrapod Limb Development | Molecular Regulation**
– Explore the **SHH, FGF, and Wnt pathways** governing limb patterning and outgrowth.

#### **3. Reproductive & Hormonal Biology**
– **Ovarian Cycle | Follicle Maturation & Hormonal Control**
– Track follicular stages (primordial to Graafian) and the roles of **FSH, LH, and estrogen**.
– **Ovulation | Hormonal Regulation**
– Examine the LH surge, oocyte release, and corpus luteum formation.
– **In Vitro Fertilization (IVF) | Process & Techniques**
– From ovarian stimulation to embryo transfer, learn the steps and challenges of assisted reproduction.

#### **4. Cellular & Structural Embryology**
– **Bilaminar Embryonic Disc | Epiblast & Hypoblast**
– Understand the formation of this early structure and its contribution to the embryo vs. extraembryonic tissues.
– **Senescence | Hallmarks & Inducers**
– Delve into cellular aging, its biomarkers (e.g., SA-β-galactosidase), and links to cancer or degeneration (USMLE-relevant).

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### **Why Enroll?**
– **Clinical Relevance:** Connects embryology to medical conditions (e.g., **spina bifida, infertility**).
– **Molecular Focus:** Covers key pathways (**SHH, FGF, hormonal axes**) in development.
– **USMLE Prep:** Targets high-yield topics like **senescence, neurulation, and IVF**.
– **Model Systems:** Uses *C. elegans* and tetrapods to illustrate conserved developmental principles.

*Perfect for future physicians, developmental biologists, and IVF researchers!*

**Enroll now to master the blueprints of life!**

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**Note:** The course integrates **clinical, molecular, and anatomical perspectives** for a holistic understanding. Let me know if you’d like to emphasize specific areas (e.g., more USMLE focus)!