OT IN SURGICAL CONDITIONS 1. Brief review of methods of evaluation and Therapeutic principles. Recommended book(s) for Reference: 1. Pedretti’s Practice skills for physical dysfunction edited by Heidi McHugh Pendleton ,Winifred Schultz Krohn 2. Occupational Therapy for Physical Dysfunction by Mary Vining Radomski, Catherine A Trombly 3. Occupational Therapy and Physical Dysfunction, Principles, Skills and Practice by Ann Turner, Margaret Foster, Sybil E Johnson 4. Introduction to Occupational Therapy by Hussey Subonis ,Chafea O Brien 5. Occupational Therapy and Mental Health edited by Jennifer Creek, Lesley Lougher 6. Mental Health Concepts and Techniques for the Occupational Therapy Assistant by Mary Beth Early 7. Frames of Reference in Psychosocial Occupational Therapy by Mary Ann Bruce, Barbara Borg 8. Willard & Spackman’s Occupational Therapy 9. Occupational Therapy for children by Jane Case Smith 10. Frames of Reference for Pediatric Occupational Therapy by Paula Kramer , Jim Hinojosa
occupational therapy surgical conditions evaluation therapeutic principles Pedretti
| Frame of Reference | Application in Surgical OT |
|---|---|
| Biomechanical | Restoring ROM, strength, endurance in musculoskeletal surgical cases |
| Rehabilitative/Compensatory | Teaching adaptive techniques and equipment use when full recovery is not possible |
| Neurodevelopmental (NDT) | Applied in neurological surgical cases (e.g., post-craniotomy, spinal decompression) |
| Cognitive-Behavioral | Managing post-surgical pain behaviors, fear-avoidance, catastrophizing |
| Model of Human Occupation (MOHO) | Addressing volition, habituation, and performance capacity across the full person |
| Person-Environment-Occupation (PEO) | Modifying environment and tasks to maximize occupational performance |
| Condition | Key OT Therapeutic Focus |
|---|---|
| Flexor tendon repair | Kleinert or Duran protocol - early controlled mobilization to prevent adhesions |
| Extensor tendon repair | Zone-specific protocols; dynamic extension splinting |
| Fractures (hand/wrist) | Protective orthosis → progressive ROM → strengthening |
| Nerve repair (peripheral) | Sensory re-education, desensitization, motor re-education |
| Replantation/amputation | Residual limb shaping, prosthetic training, phantom pain management |
| Dupuytren's contracture release | Splinting at full extension, aggressive ROM program |
| Carpal tunnel release | Scar management, progressive grip strengthening, ergonomic re-education |
| Shoulder arthroplasty | Codman pendulum exercises → active ROM → functional strengthening |
| Phase | Evaluation Focus | Therapeutic Focus |
|---|---|---|
| Pre-operative | Baseline ROM, strength, function, ADL status, home environment | Education, prehabilitation, equipment prep, psychosocial readiness |
| Acute post-op | Edema, pain, wound, early ROM, cognitive status | Edema/pain management, protected ROM, positioning, basic ADL |
| Sub-acute | Strength, coordination, endurance, ADL performance | Progressive exercise, splinting, ADL retraining, adaptive equipment |
| Rehabilitation | Functional task performance, work capacity, community roles | Work hardening, home management, community re-integration |
2.Objectives and role of Occupational Therapy in. A. Hand Injury a. Review of hand evaluation. b. Nerve injuries - classification, repair process, management of Ulnar, Median and Radial nerve injuries c. Tendon injuries-repair process & post operative management of flexor and extensor tendon injuries. d. Soft tissue injuries e. Fractures f. Management of crush injury with emphasis on hand rehabilitation Recommended book(s) for Reference: 1. Pedretti’s Practice skills for physical dysfunction edited by Heidi McHugh Pendleton ,Winifred Schultz Krohn 2. Occupational Therapy for Physical Dysfunction by Mary Vining Radomski, Catherine A Trombly 3. Occupational Therapy and Physical Dysfunction, Principles, Skills and Practice by Ann Turner, Margaret Foster, Sybil E Johnson 4. Introduction to Occupational Therapy by Hussey Subonis ,Chafea O Brien 5. Occupational Therapy and Mental Health edited by Jennifer Creek, Lesley Lougher 6. Mental Health Concepts and Techniques for the Occupational Therapy Assistant by Mary Beth Early 7. Frames of Reference in Psychosocial Occupational Therapy by Mary Ann Bruce, Barbara Borg 8. Willard & Spackman’s Occupational Therapy 9. Occupational Therapy for children by Jane Case Smith 10. Frames of Reference for Pediatric Occupational Therapy by Paula Kramer , Jim Hinojosa
nerve injury classification Seddon Sunderland diagram

This composite educational graphic illustrates various degrees of axonal nerve damage using high-frequency musculoskeletal ultrasound (MSKUS) and intraoperative photography. The content is divided into four clinical cases, categorized by Sunderland's classification of nerve injury. Case 1 (A) shows a longitudinal US image of a median nerve demonstrating focal swelling and hypoechogenicity with intact fascicles (Sunderland Grade II). Case 2 (B) presents a transverse US image of a sciatic nerve (peroneal/fibular part) showing a heterogeneous, enlarged lesion. Case 3 (C) includes a longitudinal US and an intraoperative photograph showing severe sciatic nerve damage (Sunderland Grade III), where the intraoperative view confirms structural alterations corresponding to sonographic irregularities. Case 4 (D) displays a longitudinal US image of a median nerve featuring a complete loss of continuity and a visible rupture (Sunderland Grade V), typical of neurotmesis. Each case is accompanied by an anatomical schematic overlay identifying the subcutis and the specific nerve pathology. This resource is designed for intermediate to advanced medical learners focusing on neurology, radiology, and trauma surgery.

This composite educational resource comprises three Magnetic Resonance Neurography (MRN) coronal views (a, b, c) and a correlating schematic anatomical diagram (d) illustrating a severe traumatic brachial plexus injury. The right side of the images displays normal brachial plexus anatomy, with continuous nerve structures including the upper trunk (1), middle trunk (2), C8 root (3), and Th1 root (4). In contrast, the left side demonstrates a total rupture of the brachial plexus (dashed arrows). This injury is characterized by the complete discontinuity of the neural trunks and cords, accompanied by a large axillary cavity hematoma (curved dashed arrows). The schematic (d) highlights the side-to-side difference, showing the organized right-sided roots (C5-Th1) and trunks versus the disorganized, hemorrhagic area on the left. This material is designed for advanced medical education in radiology and neurosurgery, focusing on diagnostic imaging features of high-grade nerve trauma, specifically Seddon grade 3-5 injuries (neurotmesis) and the identification of postganglionic plexopathy.

Diagnostic Magnetic Resonance Neurography (MRN) of the trigeminal nerve branches using coronal 3D CRANI sequences. The image is divided into panels demonstrating quantitative assessment methods for nerve injury. The upper panels show normal anatomy and calibration techniques: the left upper panel highlights the lingual nerve (LN) and inferior alveolar nerve (IAN) with regions of interest (ROI) at anatomical landmarks; the right upper panel shows ROI placement in the masseter muscle and maxillary sinus air to establish baseline signal intensity and noise for apparent signal-to-noise ratio (aSNR) calculations. The lower, enlarged panel demonstrates a Grade V lingual nerve injury (Sunderland classification). A definitive signal gap of 1.100 cm is measured between the proximal and distal nerve stumps, indicating complete transection. Numerical data overlays provide mean signal intensity and standard deviation within the ROIs, used to calculate the nerve-muscle contrast-to-noise ratio (aNMCNR). This imaging modality is used for surgical planning and objective stratification of post-traumatic nerve injuries in maxillofacial surgery.
hand anatomy zones flexor tendon

This clinical photograph displays the volar (palmar) surface of a human hand, annotated to illustrate the Verdan classification system for flexor tendon injury zones. The image serves as an educational anatomical diagram for hand surgery and trauma management. The hand is divided into five primary zones and three specific thumb zones (T1–T3) using black demarcation lines. Zone 1 covers the distal segments of the fingers; Zone 2 (often called 'No Man's Land') extends from the distal palmar crease to the mid-portion of the middle phalanges; Zone 3 encompasses the central palm (lumbrical origin); Zone 4 corresponds to the carpal tunnel region; and Zone 5 includes the area proximal to the wrist crease (forearm). The thumb is separately classified into T1 (distal to the IP joint), T2 (between the MCP and IP joints), and T3 (thenar eminence). This visual guide is essential for medical students and surgical residents to understand the prognosis and surgical approach for flexor tendon repairs based on the anatomical site of injury.

This medical visual consists of two parts illustrating the anatomy of the flexor tendons and the five surgical flexor zones of the hand. Image (a) is a cadaveric dissection of a left hand and distal forearm, showcasing the longitudinal orientation of the flexor digitorum tendons. The tendons are visible as robust, whitish fibrous cords emerging from the carpal tunnel and splaying out across the palm toward each digit. Image (b) is a color-coded surface anatomy diagram representing the five surgical flexor zones used in orthopedic surgery to classify injuries. Zone I (red) is the most distal, extending from the flexor digitorum profundus (FDP) insertion to the flexor digitorum superficialis (FDS) insertion. Zone II (orange), often termed 'no man's land,' spans the fingers from the FDS insertion to the distal palmar crease. Zone III (yellow) covers the central palm. Zone IV (green) corresponds to the carpal tunnel region, and Zone V (blue) extends proximally from the carpal tunnel into the forearm's musculotendinous junction.
ulnar nerve claw hand deformity median nerve ape hand

Two-panel clinical photograph demonstrating the late sequelae of a peripheral nerve injury in the hand, specifically illustrating features of ulnar nerve palsy. Image A (lateral view) shows a classic 'claw hand' deformity, characterized by hyperextension at the metacarpophalangeal (MCP) joints and flexion at the interphalangeal (IP) joints, most prominent in the ring and little fingers. The thumb appears adducted and flexed. Image B (anterior/palmar view) displays generalized muscle atrophy of the hand, with significant hollowing of the hypothenar eminence and interosseous spaces (indicated by white arrows). Notably, the thenar eminence remains relatively spared, suggesting the median nerve's innervation to the thenar muscles is intact. This combination of clawing and selective intrinsic muscle wasting is an important educational marker for localizing nerve lesions to the distal ulnar nerve (e.g., Guyon's canal or post-surgical complication). The images illustrate the clinical presentation of chronic motor deficit and the characteristic postural changes resulting from unbalanced muscle pull in the hand.

This clinical photograph captures bilateral hands showing claw hand deformity due to early peripheral nerve involvement from tuberculoid leprosy. The flexion contractures of the fingers result from intrinsic muscle wasting (interosseous muscles, thenar, and hypothenar groups) secondary to chronic neuritis with thickened nerves. The palmar aspect highlights impaired intrinsic function with partial lumbrical loss creating a characteristic posture: hyperextension at the metacarpophalangeal joints with flexion of the interphalangeal joints, and evident weakness in grip and dexterity. Nerves involved are classically thickened and tender in Hansen's disease, often involving the ulnar nerve predominantly with contribution from the median nerve. Clinically, this finding signals early sensory-motor neuropathy and potential progression to disability if untreated. The image is a color clinical photograph from Global Skin Atlas, credited to Dr. Ian McColl, illustrating public health relevance of leprosy neuropathy in endemic regions. Notably, the thumbs and other digits may appear relatively spared initially while intrinsic hand muscles disproportionately atrophy. This deformity is important for differential diagnosis against traumatic ulnar neuropathy, diabetic neuropathy, and other causes of clawing. It informs functional prognosis, guides nerve function assessment, and supports educational depiction of Hansen's disease nerve involvement for medical trainees and researchers.

Two-panel clinical photograph demonstrating the physical manifestations of a severe, chronic ulnar nerve injury. Panel (a) shows the dorsal aspect of the hand, highlighting significant muscle wasting (atrophy) of the ulnar-innervated intrinsic muscles. This is visible as sunken, hollowed interosseous spaces between the metacarpals. Panel (b) illustrates a classic 'ulnar claw hand' deformity (main en griffe) from a palmar view. The fourth (ring) and fifth (small) digits exhibit characteristic positioning: hyperextension at the metacarpophalangeal (MCP) joints combined with flexion at the proximal and distal interphalangeal (PIP and DIP) joints. The first (thumb), second (index), and third (middle) fingers remain relatively unaffected due to their median nerve innervation. These signs are indicative of the loss of lumbrical and interossei function, leading to muscular imbalance in the hand. The clinical context suggests these findings resulted from ulnar nerve damage following an attempted Nexplanon® implant removal in the upper arm.
radial nerve wrist drop splint dynamic

A composite clinical photograph showcasing various orthotic devices utilized in the management of radial nerve palsy. (a) A static resting hand splint composed of a white perforated thermoplastic base with a pink padded liner and blue hook-and-loop straps, designed to maintain the hand and wrist in a functional neutral position. (b) A volar wrist-extension splint applied to a patient, featuring a dorsal hand strap to prevent wrist drop. (c) and (d) demonstrate a dynamic extension orthosis in use. This complex device utilizes a dorsal thermoplastic forearm shell and a series of elastic outriggers or tension wires attached to finger slings. The mechanism provides passive assisted extension of the metacarpophalangeal (MCP) joints and thumb, compensating for the loss of extensor muscle function characteristic of radial nerve injury, while allowing for active finger flexion. These orthoses are critical in hand therapy to prevent contractures, maintain joint mobility, and improve functional grasp during nerve recovery.

This clinical photograph shows the forearm and hand of a 25-year-old patient who sustained a radial neck fracture resulting in 'wrist drop' due to radial nerve palsy. The forearm is immobilized in a bulky white plaster-of-Paris cast and compression bandaging. A volar cock-up splint, constructed from metallic or rigid synthetic material with visible circular perforations for ventilation, extends from the palm to support the fingers and stabilize the wrist in a functional neutral or slightly extended position. This orthotic intervention is critical to prevent contractures and manage the motor deficit associated with radial nerve injury. The skin of the visible fingers appears dry with evidence of minor ecchymosis or post-traumatic discoloration on the dorsal aspect of the hand. The image serves as an educational example of traumatology management, specifically the conservative or post-surgical immobilization of peripheral nerve injuries following proximal radius fractures.
hand evaluation grip strength goniometry assessment

Two-panel clinical photograph demonstrating standardized testing positions for upper limb clinical assessment, likely related to grip strength or kinesiologic evaluation. (a) Side profile showing the patient in a seated position with the right upper arm adducted (neutral beside the trunk) and the elbow flexed at 90 degrees; the hand is clenched in a neutral grip. (b) Frontal view showing the patient in a seated position with the right arm abducted 90 degrees at the shoulder and externally rotated 90 degrees, positioning the forearm perpendicular to the torso. These images illustrate the 'lower' and 'upper' grip testing positions used in physical therapy and occupational medicine to assess musculoskeletal function, range of motion, and grip endurance under different mechanical loads on the shoulder and elbow complexes.

Clinical photograph of a patient's hand being used to assess hand grip strength using a modified mercury sphygmomanometer. The setup includes a dark blue blood pressure cuff that has been rolled into a cylindrical shape to fit the patient's palm, connected via blue flexible tubing to a hand-held inflation bulb and a vertical mercury-filled column scale. The scale is mounted on a metallic base and shows numerical gradations for pressure measurement in mmHg. This clinical assessment technique is often utilized in postoperative hand rehabilitation, such as after ulnar claw hand deformity correction, to provide a reproducible and reliable measurement of functional grip strength. The photograph captures the educational application of standard diagnostic equipment for monitoring recovery in orthopedic and plastic surgery contexts.

| Seddon | Sunderland | Structural Injury | Prognosis |
|---|---|---|---|
| Neurapraxia | Grade I | Focal demyelination; axon intact | Full recovery in days to 3 months; no Wallerian degeneration |
| Axonotmesis | Grade II | Axon disrupted; endoneurium intact | Good recovery; Wallerian degeneration; regenerates ~1 mm/day |
| Axonotmesis | Grade III | Axon + endoneurium disrupted; perineurium intact | Incomplete recovery; scarring |
| Axonotmesis | Grade IV | Axon + endoneurium + perineurium disrupted; epineurium intact | Poor spontaneous recovery; neuroma-in-continuity |
| Neurotmesis | Grade V | Complete nerve transection | No spontaneous recovery; surgical repair essential |
| - | Grade VI | Mixed injury | Variable |



| Zone | Location | Clinical Significance |
|---|---|---|
| Zone I | Distal to FDS insertion (DIP level) | FDP only; isolated DIP flexion loss (jersey finger) |
| Zone II | From A1 pulley to FDS insertion ("No Man's Land") | Most difficult - both FDS and FDP in tight fibro-osseous tunnel |
| Zone III | Palm (lumbrical origin to A1 pulley) | Better healing environment |
| Zone IV | Within carpal tunnel | FPL and finger flexors + median nerve close together |
| Zone V | Forearm proximal to carpal tunnel | Good prognosis; multiple structures but more space |

| Phase | Weeks Post-Op | Key Interventions |
|---|---|---|
| Phase I (Protection) | 0-3 | Dorsal blocking splint; edema control; passive flexion (Duran)/elastic traction (Kleinert); wound care |
| Phase II (Controlled Mobilization) | 3-6 | Increase active flexion; discontinue rubber bands at ~4 wks; begin composite fist; scar massage |
| Phase III (Progressive Loading) | 6-8 | Begin light resistance; putty exercises; progressive strengthening |
| Phase IV (Resistive) | 8-12 | Full resistive exercises; work simulation; sport-specific activities |
| Phase V (Return to Full Function) | 12+ | Work hardening; ADL retraining; occupation-specific tasks |
| Zone | Location | Injury/Condition |
|---|---|---|
| I | DIP joint | Mallet finger (disrupted terminal tendon) |
| II | Middle phalanx | |
| III | PIP joint | Boutonniere deformity (central slip rupture) |
| IV | Proximal phalanx | |
| V | MCP joint | Fight bite / sagittal band injury |
| VI | Dorsum of hand | |
| VII | Wrist (retinaculum) | |
| VIII | Distal forearm |
| Fracture Type | Common Site | OT Considerations |
|---|---|---|
| Distal phalanx fractures | Fingertip crush, "tuft fractures" | Protective splint (finger or mallet); nail bed injury management |
| Middle/proximal phalanx fractures | Direct blow | Buddy strapping or gutter splint; monitor ROM closely for PIP stiffness |
| Metacarpal fractures | Boxer's fracture (MC5), punch injuries | Ulnar gutter splint; after healing, aggressive PIP mobilization |
| Bennett's fracture | Base of 1st MC (thumb) | Thumb spica post-fixation; opposition restoration program |
| Scaphoid fracture | Fall on outstretched hand | Thumb spica splint (6-12 weeks); wrist ROM restoration |
| Colles fracture | Distal radius | Wrist dorsal blocking or neutral splint; DISI deformity prevention |
| Injury Type | Primary OT Focus | Key Splint | Key Exercise |
|---|---|---|---|
| Ulnar nerve | Anti-claw splinting, sensory re-ed, grip | Lumbrical bar / anti-claw splint | Intrinsic strengthening, opposition |
| Median nerve | Opponens splinting, sensory re-ed | Opponens/C-bar splint | Opposition retraining, sensory discrimination |
| Radial nerve | Functional wrist support, passive ROM | Dynamic wrist extension outrigger | Wrist extension re-education, active flexion |
| Flexor tendon | Controlled early motion, adhesion prevention | Dorsal blocking splint | Kleinert/Duran protocol, tendon gliding |
| Extensor tendon | Zone-specific splinting, early mobilization | Stack/PIP extension/SAM protocol splint | Short arc motion, place-and-hold |
| Fractures | Protective orthosis, early distal joint ROM | Custom thermoplastic gutter or spica splint | Tendon gliding, progressive strengthening |
| Soft tissue | Scar management, desensitization | Anti-contracture splint | Scar massage, compression, active ROM |
| Crush injury | All of the above; CRPS prevention; psychosocial | Anti-deformity "safe position" splint | Edema reduction, progressive ROM, graded exposure |
B. Bums: Types of burns, Recovery Process, Classification of burns, Post bum Complication-Contractures, heterotrophic ossification, hypertrophic scarring. cosmic disfigurement. Pre and post operative management. Recommended book(s) for Reference: 1. Pedretti’s Practice skills for physical dysfunction edited by Heidi McHugh Pendleton ,Winifred Schultz Krohn 2. Occupational Therapy for Physical Dysfunction by Mary Vining Radomski, Catherine A Trombly 3. Occupational Therapy and Physical Dysfunction, Principles, Skills and Practice by Ann Turner, Margaret Foster, Sybil E Johnson 4. Introduction to Occupational Therapy by Hussey Subonis ,Chafea O Brien 5. Occupational Therapy and Mental Health edited by Jennifer Creek, Lesley Lougher 6. Mental Health Concepts and Techniques for the Occupational Therapy Assistant by Mary Beth Early 7. Frames of Reference in Psychosocial Occupational Therapy by Mary Ann Bruce, Barbara Borg 8. Willard & Spackman’s Occupational Therapy 9. Occupational Therapy for children by Jane Case Smith 10. Frames of Reference for Pediatric Occupational Therapy by Paula Kramer , Jim Hinojosa
burn classification depth superficial partial full thickness diagram

This clinical image comparison displays a series of six burn injury samples (labeled 1-6) analyzed via a deep learning segmentation network for burn depth classification. Each sample is presented in five columns: the original clinical photograph, ground truth mask, predicted mask, ground truth visualization (overlay), and predicted visualization (overlay). The images depict various anatomical regions, including limbs and torso. The segmentation uses a specific color-coding scheme: Blue represents superficial partial-thickness burns; Green indicates deep partial-thickness burns; Red denotes full-thickness burns; and Yellow signifies undebrided burn areas. Visually, superficial partial-thickness areas show mild erythema, whereas deep partial-thickness and full-thickness burns exhibit more extensive tissue damage, altered texture, and significant color variations from pale white to deep red. The figure serves as an educational tool for diagnostic radiology and dermatology, demonstrating the ability of AI to differentiate between complex burn severities and the challenges of accurately delineating transition zones between different burn depths.

This clinical series demonstrates the progression of burn severity categorized by depth and tissue involvement. (a) First-degree burn (superficial): Presents as erythema of the epidermis without blistering, consistent with a sunburn. (b) Second-degree superficial partial-thickness burn (SPTB): Displays clear blistering (bullae) and moist, red tissue, indicating damage to the papillary dermis. (c) Second-degree deep partial-thickness burn (DPTB): Shows a mottled appearance with ruptured blisters and more significant exudate, extending into the reticular dermis. (d) Third-degree burn (full-thickness): Characterized by a central area of leathery, dark eschar formation surrounded by a zone of stasis, indicating total destruction of the epidermis and dermis into the subcutaneous fat. (e) Fourth-degree burn: Illustrates the most severe injury, extending through all skin layers to involve underlying fascia, skeletal muscle (rectus abdominis), and potentially bone, appearing charred and necrotic. This visual comparison serves as an educational tool for clinical triage and the classification of thermal injuries.

This composite of six clinical photographs illustrates the progression and varied morphology of facial burn injuries, categorized by depth and severity from Grade IIA to Grade III. Image IIA shows superficial partial-thickness burns with erythematous skin, moist texture, and minor blistering. Images IIA-IIB transition to deep partial-thickness burns, presenting with mottled red-and-white areas, significant facial edema, and periorbital swelling. Image IIB demonstrates more extensive dermal damage with less blanching. Images marked IIB-III and III showcase full-thickness burns, characterized by a leathery, charred appearance, necrotic eschar, and dark brown-to-black discoloration indicating complete destruction of the dermis and underlying appendages. The clinical context is reinforced by visible medical interventions, including oxygen masks, nasogastric tubes, and endotracheal tubes, highlighting the critical nature of airway management and supportive care in severe thermal trauma. This series serves as an educational tool for distinguishing burn depth based on color, exudate presence, and tissue texture in a clinical setting.
hypertrophic burn scar compression garment pressure therapy

Clinical and procedural photographs illustrating a portable pressure-monitoring system used in burn scar management. Image (A) displays a detailed view of several flexible piezoresistive sensors. Each sensor consists of a square, translucent, ultra-thin pad connected by white leads to dark brown oblong hubs, which interface with a main data cable. Image (B) demonstrates the clinical application on a patient's forearm. The patient is wearing a tan-colored, tubular compression garment designed for hypertrophic scar therapy. A white, portable monitoring device is secured to the upper arm using a black adjustable strap. The sensors are placed at the interface between the compression garment and the skin to monitor the therapeutic pressure range, typically 15–25 mmHg. This setup is used in rehabilitative medicine to ensure consistent pressure application, which is critical for reducing scar thickness and improving skin elasticity during the proliferative phase of healing after burn injuries.

A clinical photograph displaying the components of a modified pressure garment system used in rehabilitative medicine for burn scar management and hand therapy. On a neutral background, three items are arranged horizontally: a rectangular strip of white, perforated thermoplastic material used for rigid splinting; a rectangular piece of soft, white cloth used for creating external pockets on the garment; and a cream-colored, synthetic elastane pressure glove. The glove features a distal open-finger design (open fingertips) to allow for digital circulation monitoring and sensory feedback. The garment construction includes visible seams for anatomical contouring and a lateral wrist opening secured with a hook-and-loop strap. This modified system is designed to integrate thermoplastic splints with compression therapy to prevent hypertrophic scar contractures and maintain finger extension while improving patient compliance.

This clinical photograph displays a customized compression garment for the hand, specifically a modified pressure glove designed for burn scar management and rehabilitation. The glove is made of a light-colored, high-stretch elastic fabric with reinforced seams along the fingers and wrist. Two significant modifications are shown: first, 'open window' distal cutouts at the fingertips of all digits to allow for clinical monitoring of distal perfusion and sensation; second, an integrated dorsal pocket on the middle finger containing a shaped thermoplastic splint. This hybrid design combines the therapeutic benefits of continuous compression for scar maturation with the structural support of splinting to prevent joint contractures and maintain finger extension. The clinical focus of this visual is on hand therapy, scar management, and the integration of orthotic devices with compression therapy for improved patient compliance and functional recovery.
burn anti-deformity positioning splint occupational therapy

This clinical photograph displays a web spacer splint applied to a pediatric hand, an orthotic device commonly used in physical and occupational therapy for conditions like hemiplegic cerebral palsy (HCP). The splint is designed to manage thumb-in-palm deformity and spasticity by maintaining the thumb in a functional abducted position. The device consists of two primary materials: a rigid or semi-rigid light-colored thermoplastic component situated directly within the first dorsal web space to provide structural support, and a black neoprene fabric sleeve that wraps around the wrist and hand for stabilization and comfort. An inset image provides a close-up view of the thermoplastic spacer's positioning between the thumb and index finger. A white arrow points toward the base of the thumb, indicating the vector of support or the anatomical focus of the intervention. This visual illustrates a conservative management strategy for improving hand function and maintaining range of motion in patients with hypertonicity of the adductor pollicis.

A clinical photograph of a patient's forearm and hand demonstrating a cock-up splint for the rehabilitation of a burn injury. The visual depicts a rigid dorsal support structure extending from the mid-forearm to the metacarpophalangeal joints, maintaining the wrist in a neutral or slightly extended position to prevent contracture. The limb is wrapped in a light peach-colored elastic crepe bandage that covers the forearm and hand, providing compression for edema management. The thumb is partially wrapped but remains in a functional position. The entire assembly is secured by four wide, gray hook-and-loop (Velcro) straps positioned at the proximal forearm, wrist, mid-palm, and distal phalanges. The fingertips are visible at the distal end of the splint to allow for neurovascular monitoring. This clinical application is typical for physical therapy management of second-degree (deep partial-thickness) burns to prevent deformity and maintain range of motion.
rule of nines burn total body surface area estimation

This composite of clinical photographs illustrates various burn injuries and skin lesions across multiple anatomical regions, paired with corresponding segmentation masks (B1-B5) used for Total Body Surface Area (TBSA) estimation. A1 displays a supinated left hand and palm used as an anatomical reference for sizing. A2 focuses on the abdomen, showing a large, irregularly shaped partial-thickness burn characterized by a pink-to-red erythematous base with areas of central pallor, suggesting varying burn depths. A3, A4, and A5 depict injuries on the left thigh, right leg/knee, and left lower leg, respectively. These areas exhibit extensive post-inflammatory hyperpigmentation, mottled tan-to-brown discoloration, and varying textures ranging from smooth to glossy or dry, characteristic of healing burn wounds or hypertrophic scarring. The series demonstrates the application of machine learning (Mask R-CNN) in dermatology and burn surgery to accurately delineate wound boundaries (red dashed lines in row B) for objective clinical assessment and treatment planning.

Clinical photograph of a pediatric patient (1.5 years old) showing a localized chemical burn on the medial aspect of the right thigh, superior to the knee. The lesion represents a 0.25% Total Body Surface Area (TBSA) full-thickness burn. Visually, the burn is characterized by an irregularly shaped, somewhat quadrilateral area of pale, blanched skin, indicating deep tissue damage and potential insensitivity. The borders of the wound are clearly demarcated with a slightly raised edge, but notably lack significant surrounding erythema or gross inflammation in this specific stage of presentation. The skin within the central wound exhibits textural changes consistent with full-thickness destruction of the epidermis and dermis. This image illustrates the focal, high-intensity tissue damage that can occur from accidental contact with substances such as nail adhesive, requiring careful clinical assessment of burn depth despite a small TBSA percentage.
burn contracture neck axilla anti-deformity position

Clinical photograph of a patient in a supine position, demonstrating severe post-burn sequelae affecting the lower face, neck, and upper chest. Key clinical findings include extensive hypertrophic scarring and contracture bands extending from the submental region to the infraclavicular area. The neck contracture has resulted in a fixed flexion deformity at the atlanto-occipital joint, severely restricting cervical extension. Facial involvement is marked by microstomia (restricted mouth opening) and eversion of the lower lip (ectropion) with exposed mucosa. The skin exhibits multi-chromatic dyspigmentation, including areas of hypopigmentation, erythema, and hyperpigmented scarring, along with possible crusting or eschar near the base of the neck. The patient is shown in a perioperative or critical care setting, indicated by the surgical cap, head support, and gloved medical personnel, likely preparing for airway management or reconstructive surgery. This image serves as a significant clinical example of complex burn contractures and the associated challenges in managing difficult airways and physical rehabilitation.

This clinical photograph displays severe, chronic post-burn complications in a pediatric or adolescent patient. The image shows extensive hypertrophic scarring and tissue contracture affecting the face, neck, and upper torso. Notable features include a severe neck contracture that has pulled the chin downward toward the chest, resulting in a marked mandibular deformity and persistent open-mouth posture (ectropion of the lower lip). The oral cavity exhibits significant distortion with dental malocclusion and a protruding tongue, likely exacerbated by soft tissue traction. The skin across the anterior chest and neck is characterized by irregular texture, areas of both hyperpigmentation and hypopigmentation (depigmentation), and dense fibrous bands. A web-like contracture is also visible in the left axillary and antecubital region, significantly restricting the range of motion. This image illustrates the long-term sequelae of inadequately managed severe burns, highlighting the critical need for early anti-contracture positioning, splinting, and surgical reconstruction in burn rehabilitation.
| Degree | Old Term | Depth Involved | Clinical Features | Healing |
|---|---|---|---|---|
| Superficial (1st degree) | First-degree | Epidermis only | Erythema, pain, dry, no blisters | 3-7 days; no scarring |
| Superficial Partial-Thickness (2nd degree) | Superficial second | Epidermis + superficial dermis (papillary) | Blisters, moist, weeping, intensely painful, blanches | 10-14 days; minimal scarring |
| Deep Partial-Thickness (2nd degree) | Deep second | Into reticular dermis | Mottled pink/white, less painful (nerve ends damaged), does not blanch readily | 21-35 days; high scar risk; may need grafting |
| Full-Thickness (3rd degree) | Third-degree | All layers of dermis | Leathery, waxy/charred, painless, dry, no blanching | Does NOT heal spontaneously; requires excision and grafting |
| 4th degree | - | Extends to fat, muscle, bone | Charred, deeply necrotic | Requires amputation or flap coverage |

| Severity | Criteria |
|---|---|
| Minor | <10% TBSA partial-thickness (adult); <5% (elderly/child); <2% full-thickness; no face/hands/feet/genitalia/joints |
| Moderate | 10-20% TBSA partial-thickness (adult); 5-10% (child/elderly); 2-5% full-thickness |
| Major/Severe | >20% TBSA (adult); >10% (child/elderly); >5% full-thickness; involves face, hands, feet, genitalia; circumferential burns; inhalation injury; electrical; chemical |

30% TBSA burn

| Body Region | Deformity Tendency | Anti-Deformity Position |
|---|---|---|
| Neck | Flexion | Neck extension; foam collar or thermoplastic cervical collar |
| Shoulder | Adduction, internal rotation | 90-100° abduction; slight horizontal abduction; neutral rotation |
| Axilla | Adduction | Shoulder abduction 90° minimum; foam wedge/airplane splint |
| Elbow | Flexion | Extension; elbow extension splint |
| Wrist | Flexion | 20-30° extension; cock-up splint |
| Hand/Fingers (dorsal burn) | MCP extension; IP flexion | Anti-deformity/safe position: MCP 70-90° flexion; IPs 0°; thumb abducted (intrinsic-plus position) |
| Hand/Fingers (volar burn) | MCP flexion; IP extension | Opposite: MCPs in mild flexion; IPs extended |
| Hip | Flexion, adduction | Extension, abduction |
| Knee | Flexion | Extension |
| Ankle/Foot | Plantar flexion | Dorsiflexion 0° (neutral); foot-drop splint |

| Phase | Timing | Primary OT Goals | Key Interventions |
|---|---|---|---|
| Acute/Pre-Op | Day 0 - Surgery | Prevent deformity; edema control; maintain ROM | Anti-deformity splinting, positioning, active ROM, elevation, patient education |
| Post-Op Immobilization | Day 1-5 | Graft protection; prevent deconditioning | Protective splint; ROM of uninvolved joints; edema management |
| Mobilization | Day 5 - Week 3 | Restore ROM; begin scar management | Active ROM exercises, scar massage initiation, ADL retraining, pressure garment fitting |
| Rehabilitation | Weeks 3-12 | Restore function; manage scars | Full scar program, progressive strengthening, ADL, work simulation |
| Community Reintegration | 3 months+ | Return to roles; manage late complications | Pressure garments, cosmetic rehab, psychosocial support, work/school re-entry |
C. Cardiothoracic Surgery. Review of Cardiothoracic surgical, procedures, Pre operative and post operative O.T. Management Recommended book(s) for Reference: 1. Pedretti’s Practice skills for physical dysfunction edited by Heidi McHugh Pendleton ,Winifred Schultz Krohn 2. Occupational Therapy for Physical Dysfunction by Mary Vining Radomski, Catherine A Trombly 3. Occupational Therapy and Physical Dysfunction, Principles, Skills and Practice by Ann Turner, Margaret Foster, Sybil E Johnson 4. Introduction to Occupational Therapy by Hussey Subonis ,Chafea O Brien 5. Occupational Therapy and Mental Health edited by Jennifer Creek, Lesley Lougher 6. Mental Health Concepts and Techniques for the Occupational Therapy Assistant by Mary Beth Early 7. Frames of Reference in Psychosocial Occupational Therapy by Mary Ann Bruce, Barbara Borg 8. Willard & Spackman’s Occupational Therapy 9. Occupational Therapy for children by Jane Case Smith 10. Frames of Reference for Pediatric Occupational Therapy by Paula Kramer , Jim Hinojosa
coronary artery bypass graft CABG cardiac surgery sternotomy

A high-detail intraoperative clinical photograph documenting a coronary artery bypass graft (CABG) procedure. The surgical field displays a median sternotomy with the heart exposed and positioned for distal anastomosis. The central focus is the exposure and manipulation of the diagonal artery using fine surgical forceps. Multiple gloved hands are visible, coordinating the retraction of the epicardium and the stabilization of the target vessel. Cardiopulmonary bypass (CPB) is active, indicated by the presence of large-bore arterial and venous cannulae (red and orange tubing) and a sternal retractor labeled with medical instrumentation branding. Visible anatomical structures include the epicardial surface of the heart, coronary vasculature, and surrounding mediastinal tissues. The use of gauze sponges and fine sutures is evident, facilitating a clear operative field for precise vascular microsurgery. This image serves as an educational resource for cardiac surgery, demonstrating vessel exposure techniques and the configuration of the surgical field during complex bypass maneuvers.

A close-up clinical photograph of an intraoperative field during a coronary artery bypass graft (CABG) surgery. The image shows a median sternotomy with the heart exposed and stabilized by a sternal retractor. The epicardial surface of the heart is visible, notably characterized by significant yellowish epicardial adipose tissue. Surgeons in sterile gloves use fine surgical forceps to isolate and stabilize the left anterior descending (LAD) artery for anastomosis. A harvested conduit, identified as the right internal mammary artery (RIMA), is being positioned toward the patient's head to facilitate the distal anastomosis. Surrounding the cardiac structures are blood-stained surgical drapes, gauze sponges, and specialized cardiothoracic retractors (Medtronic). The image illustrates the complex surgical positioning required for revascularization in a patient with dextrocardia and situs inversus, emphasizing the technical precision needed for arterial tunneling and suturing in a reversed anatomical orientation.

An intraoperative clinical photograph showing a median sternotomy field during Coronary Artery Bypass Graft (CABG) surgery. The thoracic cavity is held open by a metallic Medtronic sternal retractor. Centrally, the human heart is visible, covered partially by epicardial adipose tissue (yellowish in appearance). The primary focus is the ascending aorta, where two saphenous vein grafts have been successfully anastomosed. These proximal anastomoses are secured with fine black sutures visible at the connection points between the tubular vein conduits and the aortic wall. The surgical field includes green and blue sterile drapes, surgical sponges, and several black stay sutures used for tissue retraction. The red, well-perfused myocardium and surrounding tissues indicate active circulation, consistent with the post-cross-clamp phase of the procedure. This image serves as an educational reference for cardiac surgical anatomy, proximal anastomosis techniques in revascularization, and the use of sternal retraction in open-heart surgery.
cardiac rehabilitation phases activity progression heart surgery

This diagnostic image is a 12-lead electrocardiogram (EKG) comparison chart from a stress echocardiogram procedure. The visual layout presents a side-by-side comparison of cardiac electrical activity at two distinct phases: 'Baseline' (left) recorded at 95 bpm, and 'Max ST' during Exercise Stage 1 (right) recorded at 142 bpm. The EKG focuses on precordial leads (V1-V6) and limb leads (I, II, III, aVR, aVL, aVF). Key visual findings at baseline include a blunted R-wave progression from V1 to V3, characterized by small R-wave amplitudes followed by deeper S-waves. Under exercise stress (MAX ST), the image demonstrates morphology changes in the ST segments and T-waves, specifically upright T-waves and shifts in the ST-segment slope measured at 60ms post-J point. The chart includes quantitative annotations for ST-segment deviation (mm) and slope (mV/s) beneath each lead label. This visual serves as an educational tool for assessing exercise-induced ischemic changes, evaluating R-wave progression, and monitoring heart rate response during cardiac stress testing.

A clinical photograph depicting a postoperative patient engaged in a walker-assisted gait training session as part of a phase I cardiac rehabilitation program. The patient, shown from a rear perspective, is utilizing a standard height-adjustable silver metal walker with non-slip rubber tips. The patient is wearing protective medical attire, including a pink surgical cap, a patterned hospital gown, and a blue protective isolation gown, indicating adherence to infection control protocols following a heart transplant and midline sternotomy. The lower extremities are visible, demonstrating weight-bearing ambulation on postoperative day 28. A physical therapist or healthcare provider is seen in the background in a crouched position, providing supervision and ensuring patient safety during the mobility assessment. The clinical setting is a hospital general ward or rehabilitation area, containing medical equipment such as a tilt table and monitoring stands. This visual documents a milestone in the functional recovery and physical therapy progression after complex thoracic surgery.
heart valve replacement surgery types mitral aortic

This composite figure illustrates the procedural results of combined transcatheter aortic valve replacement (TAVI) and transcatheter edge-to-edge repair (TEER) of the mitral valve. Panels A and B display 3D transesophageal echocardiography (TEE) reconstructions showing the mitral valve in a surgical 'en face' view, revealing the dual-orifice morphology created by the placement of a central clip (MVC-IIIf) between the A2 and P2 leaflets. Panel C provides a quantitative planimetric analysis of the mitral valve area, showing two distinct orifices measuring 2.04 cm² and 1.31 cm² post-repair. Panel D features a color Doppler TEE image assessing hemodynamic status; it demonstrates the resolution of mitral regurgitation and shows mild residual paravalvular regurgitation at the aortic position. Panels E and F provide reference illustrations of the specific medical devices used: a J-Valve transcatheter heart valve and the MVC-IIIf mitral valve clip. This content serves to demonstrate advanced structural heart interventions and post-procedural imaging assessment for cardiology and cardiothoracic surgery education.

This composite of two intraoperative clinical photographs illustrates the surgical implantation of Edwards Sapien 3 transcatheter valves in both mitral and aortic positions. The left image provides a subvalvular view from the left ventricle, demonstrating a 29 mm Sapien 3 valve deployed in the native mitral annulus (SITRAL technique). The valve's characteristic cobalt-chromium hexagonal frame is visible through cardiac tissue, with a yellow surgical probe positioned nearby. The right image shows an intraoperative view through an aortotomy, revealing a second Sapien 3 valve secured in the aortic position. The aortic walls are retracted, showing the valve leaflets and the surrounding tissue of the aortic root. These images demonstrate a complex double-valve replacement strategy utilized in a patient with severe mitral annular calcification (MAC) and aortic stenosis. The educational focus is on the direct surgical placement of balloon-expandable transcatheter heart valves (THVs) during open-heart surgery as an alternative to conventional valve replacement in high-risk anatomical scenarios.
lung surgery thoracotomy incision types VATS minimally invasive

This clinical photograph displays the surgical field of a Video-Assisted Thoracoscopic Surgery (VATS) for spinal vertebral body tethering. The thoracic region of a patient in a lateral decubitus position is shown, prepped with an adhesive incise drape. A central mini-thoracotomy incision (approximately 5 cm) is held open by a self-retaining muscle-sparing retractor. Surrounding the primary incision are multiple surgical ports: three 5-mm trocars are placed along the anterior axillary line to facilitate instrumentation, and one larger 10-mm port is positioned medially for a 30-degree thoracoscopic camera. The strategic arrangement of these ports between the fourth and eighth intercostal spaces allows for multi-level access to the thoracic spine. A surgeon's gloved hand is visible in the upper right quadrant, and a single surgical instrument is seen entering a port site. This setup illustrates the hybrid approach combining direct visualization through a small incision with thoracoscopic assistance for minimally invasive orthopedic spinal correction.

This clinical photograph captures an intraoperative view of a minimally invasive thoracic procedure, specifically a uniportal video-assisted thoracoscopic surgery (VATS). The image shows multiple long, slender surgical instruments, including a thoracoscope, grasping forceps, and a curved suction-irrigation device, simultaneously inserted through a single small utility incision in the lateral chest wall, typically at the 5th intercostal space. Gloved surgeons are seen manipulating these instruments to access the hilar structures of the lung. A sterile field is maintained with green surgical drapes and a clear plastic sleeve covering the thoracoscope cable. The educational focus of the image is the technical challenge of instrument triangulation and coordination required when performing major lung resections through a single-port approach, emphasizing the use of specialized long and curved instrumentation to maintain adequate visualization and exposure of the pulmonary parenchyma and hilar anatomy.


| Restriction | Standard Precaution | Duration |
|---|---|---|
| No pushing with arms | No pushing up from chair with hands | 6-8 weeks |
| No pulling | No pulling open heavy doors, pulling laundry | 6-8 weeks |
| No lifting | Nothing >2-5 kg (varies by surgeon) | 6-8 weeks |
| No reaching behind back | No reaching to back of car | 6-8 weeks |
| No bilateral shoulder elevation above 90° | No overhead reaching with both arms | 6-8 weeks |
| No log-rolling or twisting | Turn whole body as one unit | 6-8 weeks |
| METs | Activity Examples | When Introduced (approx.) |
|---|---|---|
| 1-2 METs | Lying, sitting, self-care seated, slow walking on flat | Days 1-3 |
| 2-3 METs | Showering seated, slow walking, light housework seated, dressing | Days 3-7 |
| 3-4 METs | Walking at moderate pace, light cooking, grooming standing, climbing one flight of stairs | Week 2 |
| 4-5 METs | Brisk walking, gardening (light), vacuuming, driving (if cleared) | Week 3-4 |
| 5-7 METs | Cycling, social sports, moderate housework | Week 6+ |
| >7 METs | Vigorous sport, heavy manual work | Week 8-12+ (surgical clearance required) |
| Phase | Setting | Primary OT Goals | Key Interventions |
|---|---|---|---|
| Pre-operative | Outpatient/Pre-admit clinic | Baseline assessment; education; prehabilitation | MET assessment, sternal precaution education, breathing technique practice, home/equipment preparation, anxiety management |
| Phase I - ICU/Acute ward | ICU, cardiac ward | Early mobilization; prevent complications; basic ADL | Positioning, bed mobility, sitting to standing, basic ADL (seated), incentive spirometry, sternal precaution teaching |
| Phase II - Inpatient rehab | Cardiac ward | Restore ADL; activity grading; discharge planning | MET-guided activity, sternal precautions in all ADL, energy conservation, progressive ambulation, adaptive equipment, home visit/assessment |
| Phase III - Outpatient rehab | Outpatient clinic/community | Functional independence; work return; psychosocial | ADL reassessment, work/driving return, psychosocial support, risk factor modification, leisure reintegration |
D. Plastic Surgery: Brief review of surgical procedures. (Various grafts, transplants, cosmetic surgery), Pre operative and post operative 0.T.Management. Recommended book(s) for Reference: 1. Pedretti’s Practice skills for physical dysfunction edited by Heidi McHugh Pendleton ,Winifred Schultz Krohn 2. Occupational Therapy for Physical Dysfunction by Mary Vining Radomski, Catherine A Trombly 3. Occupational Therapy and Physical Dysfunction, Principles, Skills and Practice by Ann Turner, Margaret Foster, Sybil E Johnson 4. Introduction to Occupational Therapy by Hussey Subonis ,Chafea O Brien 5. Occupational Therapy and Mental Health edited by Jennifer Creek, Lesley Lougher 6. Mental Health Concepts and Techniques for the Occupational Therapy Assistant by Mary Beth Early 7. Frames of Reference in Psychosocial Occupational Therapy by Mary Ann Bruce, Barbara Borg 8. Willard & Spackman’s Occupational Therapy 9. Occupational Therapy for children by Jane Case Smith 10. Frames of Reference for Pediatric Occupational Therapy by Paula Kramer , Jim Hinojosa
skin graft types split thickness full thickness donor site

Clinical photograph of a 73-year-old male's right thigh demonstrating a well-healed split-thickness skin graft donor site. The donor site is a clearly demarcated, rectangular area characterized by a reddish-pink hue that contrasts with the surrounding tan-colored, sun-damaged skin. The texture of the graft site is slightly raised and smooth with a subtle reticular pattern, indicating a resolved state following previous bullous eruptions. The surrounding skin shows signs of chronological aging and actinic damage, including solar lentigines, fine rhytides, and scattered areas of hyperpigmentation and ecchymosis. This image illustrates the clinical appearance of a donor site following successful treatment of bullous pemphigoid (BP) lesions that had emerged as an isomorphic response (Koebner phenomenon) to surgical trauma. The visual focus is on the complete resolution of tense bullae and the preservation of the rectangular donor site borders without active inflammation or blistering.

Clinical photograph series demonstrating the progression and outcomes of a conventional split-thickness skin graft (STSG) for a hand injury. The four-panel figure illustrates both the recipient and donor sites at different stages. Panel A shows a preoperative view of a full-thickness skin defect on the volar aspect of a finger, characterized by an open wound with visible deep red granulation tissue. Panel B displays the same recipient site at 6 months postoperatively, showing a well-healed graft with minimal scarring and good tissue integration. Panel C depicts the donor site on the hypothenar eminence of the palm at postoperative day 5, presenting as a raw, erythematous area following graft harvest. Panel D shows the donor site at 6 months postoperatively, demonstrating complete epithelialization with slight hyperpigmentation and texture changes consistent with a mature scar. This image set serves as an educational reference for plastic and reconstructive surgery, highlighting surgical wound healing, graft take, and long-term aesthetic outcomes in hand surgery.

A two-part clinical photograph illustrating split-thickness skin graft (STSG) harvesting. Image (a) displays three harvested skin grafts of approximately 350 μm thickness resting on a blue surgical drape. The grafts exhibit a translucent, pale appearance with visible dermal patterning and irregular edges. Image (b) shows the donor site on a shaved human scalp immediately following the procedure. The harvested areas appear as raw, erythematous, rectangular patches with punctate bleeding, characteristic of a split-thickness donor site where the dermal papillae are exposed. The use of the hair-bearing scalp as a donor site is demonstrated, an approach utilized to facilitate rapid re-epithelialization via resident hair follicles and to conceal subsequent scarring. This visual material is intended for surgical education regarding dermatologic reconstruction, specifically focusing on graft harvesting techniques and donor site management in plastic and reconstructive surgery.
pedicle flap free flap reconstruction plastic surgery

This clinical photograph displays a harvested anterolateral thigh (ALT) free flap, a versatile tool in reconstructive plastic surgery. The flap is shown ex vivo on a sterile blue surgical drape, accompanied by a measurement ruler for scale. The skin paddle is elongated and elliptical, featuring a pale, uniform cutaneous surface. The deep margin reveals harvested subcutaneous adipose tissue and fascia with characteristic reddish, irregular, and raw textures. A prominent feature is the long vascular pedicle, a slender tubular structure extending from the inferior aspect of the flap, which provides the necessary blood supply (artery and venae comitantes) for microsurgical anastomosis at the recipient site. This visual demonstrates the significant tissue volume and generous pedicle length typical of the ALT flap, making it ideal for large soft tissue defects, such as those resulting from head and neck cancer resections. Educational focus is on surgical flap anatomy, vascular pedicle identification, and tissue composition for microsurgical reconstruction.

This clinical photograph shows a harvested anterolateral thigh (ALT) free flap, a versatile fasciocutaneous flap used in reconstructive surgery. The specimen is displayed against a green surgical drape immediately following harvest. The flap is composed of a large cutaneous portion and a complex vascular pedicle. Notably, the tissue has been divided into separate skin islands based on multiple perforators branching from the main descending branch of the lateral circumflex femoral artery. The vascular pedicle is visible as a long, branching structure with patent vessels and associated cuff of connective tissue. The deep surface of the flap shows the fascia and subcutaneous adipose tissue, which appears highly vascularized with a reddish-pink hue. This image illustrates the anatomical basis for creating chimera or multi-paddle flaps, allowing a single donor site to reconstruct non-contiguous defects, such as combined intraoral and extraoral maxillofacial defects. This is a key concept in advanced plastic and reconstructive surgery, highlighting the flap's adaptability in complex head and neck reconstruction.

Clinical photograph of a harvested free radial forearm fasciocutaneous (RFFF) flap, commonly used in reconstructive plastic surgery for soft tissue coverage. The image displays a roughly rectangular skin paddle with pale pink to flesh-toned pigmentation and natural skin creases. The flap is oriented vertically on a green sterile surgical drape. Attached to the inferior aspect is a long vascular pedicle, which includes the radial artery and accompanying vena comitans, appearing as a tubular, bright red structure indicative of fresh harvest. A surgical ruler is positioned to the left of the flap to provide a scale for dimension assessment, confirming a size of approximately 9x6 cm. Visible surgical markings and minor bruising are present on the epidermal surface. This image serves as a high-fidelity representation of a microvascular free flap donor site preparation, illustrating the relationship between the cutaneous tissue island and its supplying blood vessels prior to anastomosis at the recipient site, such as for orbital or facial reconstruction.
replantation finger microsurgery postoperative hand rehabilitation

A clinical photograph of a patient's hand following distal digit replantation surgery. The image focuses on the middle finger, which has undergone a replantation procedure at the distal interphalangeal (DIP) joint or zone I level. A circumferential surgical incision is visible, secured with sutures, and showing signs of raw, disrupted tissue and minor blood staining at the site of anastomosis. The distal tip of the finger exhibits significant signs of vascular compromise, characterized by a dusky, cyanotic, and bluish discoloration visible beneath the nail plate and across the fingertip skin. This visual presentation is indicative of arterial insufficiency or venous congestion, suggesting impaired peripheral perfusion to the replanted segment. The surrounding digits and the dorsal aspect of the hand appear otherwise normal in color and morphology. This image serves as a clinical example of postoperative monitoring for vascular patency in microsurgery and digit salvage procedures.

This set of clinical photographs illustrates the preoperative trauma and postoperative long-term results of a multiple fingertip replantation. Image A shows a preoperative view of the right hand featuring traumatic complete amputations of the index, middle, and ring fingertips at the level of the nail bed (Tamai Zone 1). Visible findings include irregular wound margins, severe tissue contusion, and contamination of the distal phalanx regions. Images B (dorsal view) and C (palmar view) demonstrate the patient’s right hand several months after emergency supermicrosurgery, including end-to-end anastomosis of the arcuate arteries and fracture fixation. The postoperative images reveal successful tissue survival with well-healed surgical sites, preserved finger length, and nearly normal cosmetic appearance. The skin texture and color on both the dorsal and palmar aspects of the replanted digits appear healthy and consistent with the surrounding anatomy, indicating successful revascularization and functional recovery of the digital pulp and nail units.
tissue expander breast reconstruction post mastectomy plastic surgery

This clinical photograph shows a frontal view of a patient’s chest, illustrating post-mastectomy breast reconstruction with a tissue expander on the right side. The right breast mound appears significantly enlarged, firm, and rounded, lacking the natural ptosis seen in the contralateral left breast. A prominent, transverse surgical scar is visible across the upper quadrant of the right breast, extending medially towards the sternum. The right nipple-areolar complex is absent, likely as a result of a nipple-sparing or total mastectomy followed by primary expansion. In contrast, the left breast displays a natural teardrop shape with a normal nipple-areolar complex and typical skin pigmentation. This image serves as an educational example of the second stage of breast reconstruction (expansion phase), demonstrating the volumetric difference between a prosthetic expander and native breast tissue. It is relevant for plastic and reconstructive surgery training, specifically focusing on oncology-related breast restoration and the management of tissue expanders.

This composite of clinical photographs and 3D renderings illustrates a multi-stage approach to autologous breast reconstruction following mastectomy. Panel A shows a patient post-initial surgery with a tissue expander (TE) in the right breast and preoperative markings for a mastopexy on the contralateral left breast to address ptosis and symmetry. Panel B, captured 4-6 months later, displays the expanded right breast and a stabilized left mastopexy; it includes a 3D digital reconstruction and a physical 3D-printed breast mold created by mirroring the contralateral breast's shape. Markings on the lower abdomen indicate the donor site for a Deep Inferior Epigastric Perforator (DIEP) flap. Panel C documents the intraoperative phase where the 3D-printed mold is used to shape the DIEP flap tissue, followed by the final postoperative clinical result showing restored bilateral breast symmetry, volume, and contour. The workflow highlights the integration of 3D printing technology in precision plastic and reconstructive surgery to achieve optimal aesthetic outcomes in breast cancer patients.
| Feature | Split-Thickness Skin Graft (STSG) | Full-Thickness Skin Graft (FTSG) |
|---|---|---|
| Layers | Epidermis + partial dermis | Epidermis + all dermis |
| Harvest tool | Dermatome (electric/air-powered) | Scalpel |
| Common donor sites | Thigh, buttock, scalp | Pre-/post-auricular, groin, inner arm, supraclavicular |
| Donor site healing | Heals by re-epithelialization (10-14 days); can be re-harvested | Must be closed primarily; limited size |
| Graft contraction | More secondary contraction | Less contraction; better cosmetic result |
| Take rate | Higher (thinner → easier revascularization) | Slightly lower (dermis thickness limits imbibition) |
| Best used for | Large wounds, burns, raw areas after tumor excision | Face, hands, joint surfaces, areas requiring cosmesis |
| Appearance | Shiny, depressed, colour mismatch common | Better colour match, especially when harvested locally |




| Category | Procedure | Description |
|---|---|---|
| Face | Rhinoplasty | Reshaping nasal structure |
| Rhytidectomy (facelift) | Excises skin, tightens SMAS; reduces facial ageing | |
| Blepharoplasty | Upper/lower eyelid skin and fat excision | |
| Brow lift (forehead lift) | Elevates ptotic brow; reduces forehead lines | |
| Otoplasty | Ear reshaping (prominent ears) | |
| Mentoplasty | Chin augmentation/reduction | |
| Breast | Augmentation mammoplasty | Implants (saline/silicone); incisions: inframammary, periareolar, transaxillary |
| Mastopexy (breast lift) | Repositions ptotic breast; may combine with augmentation | |
| Reduction mammoplasty | Removes glandular tissue, fat, skin; relieves musculoskeletal symptoms | |
| Gynecomastia correction | Male breast tissue reduction | |
| Body | Liposuction/Liposculpture | Suction-assisted fat removal |
| Abdominoplasty (tummy tuck) | Excises excess abdominal skin and fat; repairs rectus diastasis | |
| Body contouring post-weight loss | Large skin panel excisions (pannus, arm, thigh lifts) |
| Procedure | Indication | OT Involvement |
|---|---|---|
| Post-mastectomy breast reconstruction | Breast cancer; improves body image and quality of life | Shoulder ROM, lymphoedema management, ADL post-op |
| Hand reconstruction | Trauma, burns, congenital | Splinting, sensorimotor re-education, ADL retraining |
| Craniofacial surgery | Cleft lip/palate, craniosynostosis, facial trauma | Feeding, oral motor, developmental support (pediatric OT) |
| Pressure injury/ulcer reconstruction | Flap coverage of stage IV ulcers | Pressure relief seating, positioning, skin inspection |
| Lower extremity reconstruction | Limb salvage after trauma/tumour | Progressive weight-bearing, adaptive ambulation aids |
| Facial reanimation | Facial palsy (Bell's, trauma, tumour) | Facial muscle re-education, eye protection, eating aids |

| Procedure | Splint Type | Purpose |
|---|---|---|
| Skin graft over finger/hand | Protective splint → scar management splint | Immobilize graft → prevent scar contracture |
| Nerve graft | Protective splint initially; then functional | Protect repair; maintain joint position during re-innervation |
| Tendon graft | Zone-specific protocol (see Tendon section) | Prevent adhesion; protect repair |
| Replantation | Protective dorsal blocking splint; then mobilization splint | Protect repair; prevent adhesion |
| Post-flap (joint coverage) | Serial static or dynamic splint | Prevent contracture across reconstructed joint |
| Web space reconstruction | Web space splint/C-bar | Maintain web space opening |
| Procedure | Pre-Op OT Focus | Post-Op (Acute) OT Focus | Post-Op (Rehab) OT Focus |
|---|---|---|---|
| Skin graft | Baseline assessment; education; equipment; donor site preparation | Graft protection; elevation; positioning; ADL one-handed | Scar management; ROM; progressive ADL; sensory re-ed |
| Pedicle/free flap | Function baseline; education re: restrictions; psychosocial prep | Flap monitoring; positioning; avoid compression; basic ADL | ROM; scar management; ADL; work return |
| Replantation | Pre-op ADL baseline; one-handed training | Elevation; vascular monitoring; protection | Tendon/nerve protocol; sensory re-ed; fine motor; work return |
| Breast reconstruction | Shoulder baseline; prehabilitation; psychological prep | Drain management; shoulder protection; positioning | Shoulder ROM; lymphoedema; body image; work return |
| Cosmetic surgery | Psychological screening (BDD); realistic expectations; ADL prep | Activity restrictions; wound/scar care; positioning | Scar management; gradual ADL; psychosocial support |
| Paediatric hand | Family education; developmental baseline | Protective splint; parental involvement; play | Growth-adjusted splints; developmental activities; school support |
| Head/neck oncological | Functional baseline; nutritional planning | Positioning; ADL; oral motor; communication | Facial scar management; oral motor; social re-entry; work return |
E. Oncological rehabilitation with emphasis on post operative Management. F. Brachial plexus injury G. Erb's Palsy H. Klumpke's Paralys Recommended book(s) for Reference: 1. Pedretti’s Practice skills for physical dysfunction edited by Heidi McHugh Pendleton ,Winifred Schultz Krohn 2. Occupational Therapy for Physical Dysfunction by Mary Vining Radomski, Catherine A Trombly 3. Occupational Therapy and Physical Dysfunction, Principles, Skills and Practice by Ann Turner, Margaret Foster, Sybil E Johnson 4. Introduction to Occupational Therapy by Hussey Subonis ,Chafea O Brien 5. Occupational Therapy and Mental Health edited by Jennifer Creek, Lesley Lougher 6. Mental Health Concepts and Techniques for the Occupational Therapy Assistant by Mary Beth Early 7. Frames of Reference in Psychosocial Occupational Therapy by Mary Ann Bruce, Barbara Borg 8. Willard & Spackman’s Occupational Therapy 9. Occupational Therapy for children by Jane Case Smith 10. Frames of Reference for Pediatric Occupational Therapy by Paula Kramer , Jim Hinojosa
brachial plexus anatomy diagram roots trunks cords

This composite educational graphic illustrates the normal anatomy of the brachial plexus through anatomical diagrams and Magnetic Resonance Imaging (MRI). Panel A is an anatomical diagram depicting the plexus architecture from roots (C5-T1) to terminal branches, labeled with musculoskeletal landmarks like the scalene muscles and coracoid process. Panel B (axial) and Panel C (sagittal) are T1-weighted MRI scans demonstrating the interscalene triangle, defined by the anterior scalene (sa) and middle scalene (sm) muscles. These muscles serve as primary radiological landmarks for identifying the neural roots and trunks (indicated by arrows). Panel D provides an oblique coronal T1-weighted MRI view, tracing the sequential segments of the right brachial plexus: roots (R), trunks (T), divisions (D), and cords (C). This resource is designed for medical education in radiology and neurology to assist in the localization of neural structures and the diagnostic evaluation of conditions like brachial plexopathy, neurogenic tumors, or Pancoast tumors.

This composite educational resource comprises three Magnetic Resonance Neurography (MRN) coronal views (a, b, c) and a correlating schematic anatomical diagram (d) illustrating a severe traumatic brachial plexus injury. The right side of the images displays normal brachial plexus anatomy, with continuous nerve structures including the upper trunk (1), middle trunk (2), C8 root (3), and Th1 root (4). In contrast, the left side demonstrates a total rupture of the brachial plexus (dashed arrows). This injury is characterized by the complete discontinuity of the neural trunks and cords, accompanied by a large axillary cavity hematoma (curved dashed arrows). The schematic (d) highlights the side-to-side difference, showing the organized right-sided roots (C5-Th1) and trunks versus the disorganized, hemorrhagic area on the left. This material is designed for advanced medical education in radiology and neurosurgery, focusing on diagnostic imaging features of high-grade nerve trauma, specifically Seddon grade 3-5 injuries (neurotmesis) and the identification of postganglionic plexopathy.
Erb palsy waiter tip position infant neonatal brachial plexus

This clinical photograph shows a pediatric patient presenting with characteristic physical signs of obstetric brachial plexus palsy (specifically Waiter's Tip deformity). The left upper limb demonstrates significant pathological positioning: the shoulder is adducted and internally rotated, the elbow is extended, and the wrist and fingers are fixed in a flexed position. There are visible red, erosive skin lesions or abrasions on the dorsal aspect of the left hand, particularly over the knuckles, which can occur due to lack of sensation or inability to protect the limb (sensory deficit-related injury). The right upper limb appears relatively unaffected, positioned with slight elbow flexion and extended fingers. This image illustrates the long-term musculoskeletal consequences and secondary dermatological complications of total brachial plexus paralysis following unsuccessful neurotisation. It is an educational example of neonatal brachial plexus injury (NBPI) in a young child, highlighting limitations in shoulder abduction and external rotation.

Clinical photograph of a young male patient demonstrating the characteristic physical presentation of a right-sided upper brachial plexus palsy (C5, C6, C7), likely following microneuroreconstruction. The image shows significant upper limb asymmetry: the right shoulder is depressed (slumped) compared to the left. The right arm exhibits postural abnormalities including internal rotation at the shoulder, adduction, and extension at the elbow, often referred to as a 'waiter's tip' position or Erb's palsy-like presentation. Muscle atrophy is visible in the right deltoid and pectoral regions. A small, well-healed, linear surgical scar (approximately 2 cm) is located in the midline suprasternal/cervical region, consistent with prior nerve reconstruction surgery or access to the brachial plexus. In contrast, the left upper limb shows normal muscle bulk and posture, with the hand resting on the hip. This visual aid is primarily used for teaching clinical signs of peripheral nerve injury and the outcomes of surgical nerve repair in neurology and orthopedics.

A clinical photograph of a male patient demonstrating the physical presentation of a left-sided upper brachial plexus palsy (Erb-Duchenne palsy), involving the C5 and C6 nerve roots. The image shows significant postural asymmetry between the upper limbs. The affected left arm exhibits classic clinical signs, including adduction at the shoulder and internal rotation of the humerus. There is visible muscle atrophy and a loss of rounded contour in the left deltoid and shoulder girdle compared to the healthy right side. Additionally, the left shoulder is positioned lower than the right. The patient's right arm displays a normal neutral position and muscle bulk. This visual serves as a primary clinical example of peripheral nerve injury manifestations, specifically highlighting the 'waiter's tip' position resulting from paralysis of the abductors and external rotators of the shoulder.