This medical illustration presents a graphical simulation of referred pain patterns associated with the gluteus medius muscle in a female subject. The image consists of two primary components: anatomical body maps (anterior and posterior views) and a detailed perineal diagram. On the body maps, referred pain is indicated by red shaded regions and 'x' markers. Posteriorly, the pain is concentrated over the gluteal region, extending superiorly to the iliac crest and inferiorly along the posterior and lateral thigh. Anteriorly, pain zones are mapped to the inguinal area, the lateral hip (greater trochanter region), and the anterior-medial knee. A detailed anatomical diagram of the vulva on the right includes an 'x' mark superior to the vaginal orifice, specifically localized near the clitoris and labia minora, highlighting the clinical relevance of myofascial trigger points in the pelvic and gluteal muscles to referred urogenital and lower extremity pain. This resource is intended for physical therapy and musculoskeletal educational indexing.

This medical illustration is a graphical simulation of myofascial referred pain patterns associated with the adductor magnus muscle, presented on a female body schematic in anterior and posterior views. The diagram uses red color mapping to indicate pain distribution and frequency. In the anterior view, primary referred pain is depicted as intense, vertical red bands along the bilateral medial thighs, extending from the groin to the superior aspect of the knees. Faint red patches and 'X' markers on the lateral and superior thighs indicate areas of less frequent or secondary referred pain. In the posterior view, the simulation identifies a significant referred pain area on the superior-medial aspect of the right calf. The color intensity serves as a semi-quantitative scale, where more vibrant red highlights common clinical trigger point referral zones. This educational visual is designed for physical therapy, anatomy education, and clinical diagnostic training related to musculoskeletal pain syndromes and pelvic floor dysfunction.

This medical illustration presents a graphical simulation of referred pain patterns associated with the coccygeus muscle in a female anatomical model. The visual includes three components: a full-body anterior view, a full-body posterior view, and a localized perineal diagram. Referred pain zones are indicated by red shading and 'X' markers, with color intensity reflecting the frequency of pain reported in clinical studies. On the anterior view, pain is primarily localized to the pubic and lower hypogastric regions. The posterior view demonstrates significant referred pain across the sacral region, gluteal area (buttocks), and extending toward the upper posterior thighs. The detailed perineal diagram shows pain distribution along the midline from the vulva to the anus, with additional lateral involvement near the ischial tuberosities. This educational material is designed for pelvic health education, illustrating how coccygeus muscle dysfunction can manifest as somatic pain in the urogenital and pelvic floor regions.

This intraoperative clinical photograph captures a surgical procedure during an exploratory laparotomy, demonstrating a perforated peptic ulcer. The image focuses on the stomach's lesser curvature, specifically the posterior pre-pyloric region. Gloved hands of the surgical team are seen retracting the surrounding tissues to expose a well-defined, circular perforation approximately 5-8 mm in diameter within an area of erythematous and inflamed gastric mucosa. The surrounding serosa and adjacent lesser omentum appear hyperemic with visible vasculature. The surgical field includes small amounts of blood and serosanguinous fluid, consistent with acute peritonitis. This visual provides clinical evidence of synchronous perforated ulcers, a rare but critical finding in emergency gastrointestinal surgery. It serves as a pedagogical resource for identifying visceral perforation and understanding the surgical anatomy of the lesser sac and gastric curvature.

This composite figure presents a double-contrast upper gastrointestinal series compared to normal gastric anatomy, demonstrating significant structural distortion. Panel A shows a contrast-enhanced stomach with a shortened long axis and an enlarged distal antrum (dashed arrow), creating a distinctive 'hammer' shape. The pylorus is malpositioned, opening abnormally toward the side of the lesser curvature (solid arrow). Fluid accumulation is evident within the gastric lumen. Panel B highlights the gastric mucosa using double-contrast technique, revealing a 'bilateral sign' along the lesser curvature characterized by a fixed, irregular contour and mucosal absence in the gastric antrum, suggestive of localized pathology such as a large ulcer. Panel C provides a labeled anatomical diagram of a normal stomach (fundus, body, greater curvature, pyloric antrum, and pyloric canal) for morphological comparison. These findings illustrate complex gastric dysmotility or congenital malformation (such as organoaxial volvulus or malrotation) and secondary mucosal lesions. The content is suitable for educational use in gastroenterology and radiology focusing on contrast imaging interpretation.

This endoscopic clinical photograph displays a large, cratered gastric ulcer located on the lesser curvature of the stomach. The lesion measures approximately 10 mm at its widest dimension and is characterized by a depressed, slough-covered base with whitish fibrinopurulent exudate. The ulcer edges are well-demarcated but notably irregular, with surrounding gastric mucosa appearing erythematous and nodular, suggesting significant localized inflammation and edema. No active spurting, oozing, or visible vessels (stigmata of recent hemorrhage) are observed within the ulcer bed, though minor punctate hemorrhage is visible on the peripheral margin. The surrounding vascular pattern of the gastric wall shows hyperemic changes consistent with underlying pathology, which in this clinical context was confirmed as adenocarcinoma with hepatoid features. This image serves as a teaching example for evaluating ulcer morphology and identifying the absence of high-risk bleeding stigmata during diagnostic upper gastrointestinal endoscopy.

Clinical photograph of an intraoperative maxillofacial reconstruction procedure using a fibula free flap. Figure A shows the surgical exposure of a two-segment fibula flap via a cervical approach. The bone appears pale white with visible surface punctate bleeding, indicating healthy vascularization, and is surrounded by dissected cervical soft tissue and muscle. Figure B demonstrates the placement of a secondary cortico-cancellous iliac crest graft on top of the fibula segments to increase mandibular vertical height. The graft is secured using a custom CAD/CAM titanium mesh, which features a perforated design with 1.5 mm pores to facilitate tissue ingrowth and vascularization. The mesh is fixed to the underlying bone segments with several small diameter (1.5 mm) osteosynthesis screws. This image illustrates complex reconstructive surgery for mandibular defects, specifically addressing vertical discrepancy after primary fibula flap reconstruction.

This medical anatomical diagram illustrates a fibula free flap graft integrated into a maxillary or mandibular arch for jaw reconstruction. The diagram shows a green-shaded segment representing the transplanted fibula bone flap positioned between existing segments of the jawbone, which include representations of the teeth and ramus. Three circular Regions of Interest (ROIs), each with a diameter of approximately 5 mm, are indicated along the longitudinal axis of the fibula graft. These ROIs are positioned at three distinct points: 25%, 50%, and 75% of the graft's total length. The illustration demonstrates the standardized methodology for measuring clinical parameters such as Hounsfield Unit (HU) values and Bone Mineral Density (BMD) to assess bone quality, graft integration, and potential resorption during post-operative follow-up. This visualization is intended for maxillofacial surgery and radiology education, highlighting the objective monitoring of reconstructive surgery outcomes.

This panoramic radiograph (orthopantomogram) illustrates a postoperative view of a right mandibular reconstruction following resection. The primary reconstruction method utilizes a Fibular Free Flap (FFF), visible as a linear radiopaque bone graft extending from the right mandibular premolar region to the ascending ramus. The graft is secured by a long, contoured radiopaque reconstruction metal plate positioned along the inferior border of the mandible. The plate is fixed with multiple radiopaque cortical screws, bridging the junction between the native mandibular symphysis and the fibular graft. The fibula has been osteotomized and angled to mimic the natural mandibular contour and gonial angle. Superiorly, the reconstruction extends toward the glenoid fossa to replace the mandibular condyle. The contralateral (left) side shows intact mandibular anatomy and dentition. Key educational features include the visualization of microvascular bone flap integration, hardware placement for maxillofacial reconstruction, and the radiographic appearance of donor fibular bone used in mandibular oncology or trauma cases.

This composite clinical photograph illustrates key stages of a coronary artery bypass graft (CABG) surgery using a 'no-touch' saphenous vein (SV) harvesting technique. Panel A presents an intraoperative view of the surgical field during an off-pump coronary artery bypass (OPCAB). It shows a saphenous vein graft anastomosed to the posterior descending coronary artery, with a proximal connection to the right internal thoracic artery (RITA) stump, indicated by a white arrow. The vessels are secured with sutures, and the surrounding cardiac tissue and epicardial fat are visible. Panel B displays the donor site and the harvested conduit. The left side of the panel shows the lower extremity with three small, longitudinal incisions, characteristic of a minimally invasive, skin-bridging harvesting approach. The right side shows the harvested saphenous vein lying on a surgical gauze. The conduit is notable for its 'no-touch' appearance, characterized by an intact pedicle of perivascular adipose and connective tissue, which preserves the vessel's endothelial integrity and natural architecture by avoiding manual dilation or stripping.

This clinical photograph captures a 'no-touch' saphenous vein graft (SVG) harvest during a surgical procedure, likely for coronary artery bypass grafting (CABG). The central focus is the saphenous vein, a long, bluish-white tubular structure characterized by a smooth surface with subtle longitudinal striations. Surrounding the vein is a generous margin of perivascular tissue (PVT), which appears pinkish, moist, and contains visible connective tissue strands and small vasa vasorum. This 'no-touch' technique preserves the PVT to improve long-term graft patency. The surgical field is exposed using stainless steel retractors; a self-retaining retractor with metal tines laterally displaces the skin and subcutaneous fat (covered by orange surgical drapes), while a blunt hand-held retractor provides further exposure on the left. The image illustrates careful surgical dissection designed to minimize direct trauma to the vessel wall by maintaining the native adventitia and surrounding fat.

This clinical photograph consists of two panels (A and B) demonstrating intraoperative views of Coronary Artery Bypass Grafting (CABG) surgery using the VEST (Venous External Support Technology) system. In Panel A, a saphenous vein graft (SVG) is shown anastomosed to the posterior descending artery (PDA). The graft is encased in a cobalt-chrome mesh external stent, which provides structural support to the vein and is visible as a fine metallic sheath over the vessel. Several red surgical cannulas are visible in the left periphery. In Panel B, the surgeon's gloved hand is shown manipulating the epicardium to expose the ramus intermediate artery, where another stented SVG segment has been anastomosed. The heart's epicardial surface appears yellow due to subepicardial adipose tissue. These images illustrate the surgical application of external stents to saphenous vein grafts, intended to improve graft patency by reducing intimal hyperplasia and wall tension through mechanical stabilization of the conduit's diameter.

**Modality:** Contrast-enhanced Computed Tomography (CECT). **View:** Coronal reconstruction. **Anatomical Region:** Abdomen, specifically the retroperitoneum showing the renal and gonadal vasculature. **Key Findings:** - **Vascular Anatomy:** The image demonstrates a congenital vascular variation involving the right testicular (gonadal) vein. - **Anomalous Drainage:** The right testicular vein (indicated by the arrow) is seen ascending laterally to the inferior vena cava (IVC) and crossing medially to drain directly into the left renal vein (indicated by the arrowhead) instead of its typical insertion point into the anterolateral IVC. - **Landmarks:** Visible structures include the inferior pole of the liver, the right kidney, and the elongated left renal vein crossing the midline. **Diagnostic Significance:** This represents a rare anatomical variant of the gonadal venous system. Identification of such anomalies is clinically significant for preoperative planning in retroperitoneal surgeries, renal transplantation, and interventional radiological procedures such as varicocele embolization. **Search Terms:** CECT abdomen, coronal CT, anomalous right testicular vein, right gonadal vein variation, left renal vein drainage, retroperitoneal vascular anatomy.

This composite of four clinical photographs illustrates the surgical induction and subsequent morphological effects of an experimental varicocele model in a rat, serving as a surrogate for human urological pathology. Panels (a) and (b) show the intra-abdominal surgical site: (a) demonstrates normal vascular anatomy including the left renal vein (red arrow), the left spermatic vein (yellow arrow), and the inferior vena cava (green arrow); (b) depicts the partial ligation of the left renal vein using a suture and metal probe to induce venous hypertension. Panel (c) presents a side-by-side comparison of dissected testes, showing significant testicular atrophy on the right (varicocele group) compared to the healthy control on the left. Panel (d) displays the resulting clinical manifestation in situ, specifically a distended and tortuous left internal spermatic vein (yellow arrow). The collection illustrates the pathophysiology of varicocele, highlighting the relationship between proximal venous obstruction, distal venous dilation (varicosity), and consequent testicular hypotrophy.

A multi-panel series of clinical photographs and gross specimens from an animal model study on varicocele. Panels (a) through (c) depict the surgical induction of varicocele via partial ligation of the left renal vein. Key anatomical landmarks labeled include the kidney, renal vein (RV), spermatic vein (SV), and inferior vena cava (IVC). Panel (b) illustrates the placement of a suture around the renal vein and a metal probe to ensure calibrated narrowing, while panel (c) shows the final surgical site after probe removal. Panel (d) displays a high-magnification clinical view of induced varicocele, characterized by a pale, dilated, and tortuous spermatic vein. Panels (e) through (h) compare excised testes measured against a ruler. Panels (e) and (f) show healthy control testes with normal morphology and size (~2 cm). Panels (g) and (h) demonstrate significant testicular atrophy in the varicocele group, with specimens appearing markedly smaller, shrunken, and discolored compared to the control group. The educational focus is on the anatomical pathways of venous drainage and the pathological progression of varicocele to testicular atrophy.