Fractures of the larger bone of the forearm.
The inner and longer bone of the FOREARM.
Breaks in bones.
The physiological restoration of bone tissue and function after a fracture. It includes BONY CALLUS formation and normal replacement of bone tissue.
Fractures of the FEMUR HEAD; the FEMUR NECK; (FEMORAL NECK FRACTURES); the trochanters; or the inter- or subtrochanteric region. Excludes fractures of the acetabulum and fractures of the femoral shaft below the subtrochanteric region (FEMORAL FRACTURES).
Fractures of the femur.
Broken bones in the vertebral column.
The use of internal devices (metal plates, nails, rods, etc.) to hold the position of a fracture in proper alignment.
A radius fracture is a break in the bone that runs from the wrist to the elbow, located on the thumb-side of the forearm, which can occur at various sites such as near the wrist, middle of the bone or closer to the elbow.
A fracture in which the bone is splintered or crushed. (Dorland, 27th ed)
The use of metallic devices inserted into or through bone to hold a fracture in a set position and alignment while it heals.
Breaks in bones resulting from low bone mass and microarchitectural deterioration characteristic of OSTEOPOROSIS.
Fractures due to the strain caused by repetitive exercise. They are thought to arise from a combination of MUSCLE FATIGUE and bone failure, and occur in situations where BONE REMODELING predominates over repair. The most common sites of stress fractures are the METATARSUS; FIBULA; TIBIA; and FEMORAL NECK.
Fractures occurring as a result of disease of a bone or from some undiscoverable cause, and not due to trauma. (Dorland, 27th ed)
Fractures of the short, constricted portion of the thigh bone between the femur head and the trochanters. It excludes intertrochanteric fractures which are HIP FRACTURES.
The outer shorter of the two bones of the FOREARM, lying parallel to the ULNA and partially revolving around it.

The effect of using a tourniquet on the intensity of postoperative pain in forearm fractures. A randomized study in 32 surgically treated patients. (1/125)

We have analysed the relationship between the intensity of postoperative pain and the use of a pneumatic tourniquet in procedures for operative fixation of fractures of the forearm. Thirty-two patients were divided randomly into two groups as a control (NT) and tourniquet (T). The pain scores in the NT group were significantly lower. Patients over the age of 30 had notably more pain than those younger after the use of a tourniquet. Avoidance of the tourniquet gave better postoperative analgesia in male patients and in those with comminuted fractures. When a tourniquet was used the best results were obtained if it was kept inflated for less than one hour.  (+info)

Systemic hormonal, electrolyte, and substrate changes after non-thermal limb injury in children. (2/125)

Relatively little is known regarding the hormonal changes after injury in children. Adult protocols are often applied to children, although the latter often have different physiological responses to trauma. Twenty children with an angulated displaced fracture of the radius and/or ulna (injury severity score 9) were studied prospectively for changes in adrenaline, noradrenaline, cortisol, angiotensin II, arginine vasopressin, urea, electrolytes, and glucose. Two blood samples were taken: one an arrival at the accident and emergency department and one preoperatively several hours later. There were marked increases in adrenaline, noradrenaline, cortisol, and arginine vasopressin above the normal range. Five (25%) cases demonstrated greater early increases in adrenaline than those reported for adult injuries of similar severity. Early hypokalaemia in four cases had corrected towards normal within a few hours, without potassium supplementation.  (+info)

Transcranial doppler detection of fat emboli. (3/125)

BACKGROUND AND PURPOSE: The fat embolism syndrome (FES) is characterized by the simultaneous occurrence of pulmonary and neurological symptoms as well as skin and mucosal petechiae in the setting of long-bone fractures or their surgical repair. Its pathophysiology is poorly understood, and effective treatments are lacking. We present 5 patients with long-bone fractures in whom in vivo microembolism was detected by transcranial Doppler. METHODS: Five patients with long-bone fractures were monitored with transcranial Doppler for microembolic signals (MESs) after trauma. Two patients also had intraoperative monitoring. A TC-2020 instrument equipped with MES detection software was used. Detected signals were saved for subsequent review. Selected signals satisfied criteria defined previously and were categorized as large or small. RESULTS: Cerebral microembolism was detected in all 5 patients and was transient, resolving within 4 days of injury. Intraoperative monitoring revealed an increase in MESs during intramedullary nail insertion. The characteristics of MESs after injury varied among patients, with large signals being more frequent in the only patient with a patent foramen ovale. CONCLUSIONS: Cerebral microembolism after long-bone fractures can be detected in vivo and monitored over time. These findings may have potential diagnostic and therapeutic implications.  (+info)

Use of a delayed cortical bone graft to treat diaphyseal defects in the forearm. (4/125)

The technique of delayed autogenous cortical bone grafting was used in 17 patients (6 women, 11 men, with an average age of 22 years) to treat diaphyseal defects resulting mainly from closed or compound fractures complicated by infection and bone tissue loss. Bones affected were the humerus in 1 case, the radius in 7 cases, the ulna in 4 cases, the radius and ulna in 2 cases, the first metacarpal in 1 case, and the femur in 2 cases. The average length of the defect was 5.7 cm and the graft, prepared from the anteromedial aspec of the tibia, was at least 1.5 cm longer than the defect. The graft application was combined with rigid internal fixation using an AO 3.5 mm DCP plate in most cases and this permitted early active movement. Union occurred without the need for any additional grafting procedure in 14 patients and within an average of 23 weeks. In most cases there was an increase in the thickness of the graft probably as a result of osteo-induction, with consequent restoration of the original diameter of the recipient bone diaphysis. The most frequent complication was infection (4 cases), and this was controlled by means of debridement, cleaning and antibiotics. A delayed graft provides mechanical support, incorporates quickly and is therefore a reasonable alternative method for treating diaphyseal defects of long bones, particularly in the upper limb.  (+info)

A new fracture of the forearm adjacent to a healing fracture. (5/125)

A 10-year-old girl sustained closed fractures of the distal radius and ulna. This was manipulated and she was treated in an above-elbow plaster for 4 weeks. Two weeks later she was discharged, only to have a second injury to the same forearm. X-ray showed a new fracture distal to undisrupted callus.  (+info)

New observations on carrying angle. (6/125)

Based on experiments on fresh cadaveric and accidentally amputated 8 upper limbs of children, study of ulnae for presence and absence of non articular strip on the trochlear notch, measurements of carrying angle, length of forearm bones, pronation-supination, height and weight in 2250 infants, children and adults of various age groups and clinical observations on 800 cases of injuries around elbow many new facts have been observed about the development of the carrying angle and its significance in the etiopathogenesis of various types of fractures seen around the elbow. The carrying angle develops in response to pronation of the forearm and is dependent on length of the forearm bones. Lesser the length of forearm bones greater is the carrying angle. So the carrying angle is more in shorter persons as compared to taller persons. It is abduction at the shoulder and not the carrying angle which keeps the swinging upper limbs away from the side of the pelvis during walking. Carrying angle is not a secondary sex character. The type of fracture a child sustains after fall on outstretched hand is also determined by the value of the carrying angle. A new type of fracture hitherto undescribed in the literature, T-Y fracture of the distal humeral epiphysis is also reported.  (+info)

Entrapment of the index flexor digitorum profundus tendon after fracture of both forearm bones in a child. (7/125)

Entrapment of the index FDP tendon in a radius fracture callus occurred after fracture of both forearm bones in a 4-year-old boy. Surgical release of the FDP tendon, three months after fracture, resulted in normal index finger motion. This clinical problem can be avoided by a detailed physical examination of children with forearm fractures, verifying full passive range-of-motion of the hand after cast immobilization. Prompt supervised active range-of-motion should be done to prevent adhesions at the fracture site.  (+info)

Effect of early mobilisation on grip strength, pinch strength and work of hand muscles in cases of closed diaphyseal fracture radius-ulna treated with dynamic compression plating. (8/125)

AIMS: The purpose of the study was to objectively determine the effects of early mobilisation in terms of grip strength and work of hand muscles in cases of closed diaphyseal fracture radius - ulna treated with dynamic compression plating. SUBJECTS AND METHODS: Fifty normal subjects and Twenty-one patients, (Eleven patients treated with early active and resistive goal directed mobilisation and Ten control group) were assessed for pinch strength and grip strength on Pinch Dynamometer and Jamar Dynamometer and work of hand muscles on Ergograph. Standardised positions of the equipments and patients were maintained throughout the study. RESULTS: Results showed highly significant reduction in performance in patients treated with early mobilisation as compared to normal subjects in their first assessment (Fourth week post operatively). These patients showed significant improvement in successive assessments (sixth & eighth post operative week) on exercising in between these assessments. CONCLUSIONS: There are significant effects on grip strength and work of hand muscles in patients treated with that early active and resistive goal directed mobilisation.  (+info)

An ulna fracture is a break in the ulna bone, which is one of the two long bones in the forearm. The ulna is located on the pinky finger side of the forearm and functions to support the elbow joint and assist in rotation and movement of the forearm. Ulna fractures can occur at various points along the bone, including the shaft, near the wrist, or at the elbow end of the bone. Symptoms may include pain, swelling, bruising, tenderness, deformity, limited mobility, and in some cases, numbness or tingling in the fingers. Treatment typically involves immobilization with a cast or splint, followed by rehabilitation exercises to restore strength and range of motion. In severe cases, surgery may be required to realign and stabilize the fractured bone.

The ulna is one of the two long bones in the forearm, the other being the radius. It runs from the elbow to the wrist and is located on the medial side of the forearm, next to the bone called the humerus in the upper arm. The ulna plays a crucial role in the movement of the forearm and also serves as an attachment site for various muscles.

A bone fracture is a medical condition in which there is a partial or complete break in the continuity of a bone due to external or internal forces. Fractures can occur in any bone in the body and can vary in severity from a small crack to a shattered bone. The symptoms of a bone fracture typically include pain, swelling, bruising, deformity, and difficulty moving the affected limb. Treatment for a bone fracture may involve immobilization with a cast or splint, surgery to realign and stabilize the bone, or medication to manage pain and prevent infection. The specific treatment approach will depend on the location, type, and severity of the fracture.

Fracture healing is the natural process by which a broken bone repairs itself. When a fracture occurs, the body responds by initiating a series of biological and cellular events aimed at restoring the structural integrity of the bone. This process involves the formation of a hematoma (a collection of blood) around the fracture site, followed by the activation of inflammatory cells that help to clean up debris and prepare the area for repair.

Over time, specialized cells called osteoblasts begin to lay down new bone matrix, or osteoid, along the edges of the broken bone ends. This osteoid eventually hardens into new bone tissue, forming a bridge between the fracture fragments. As this process continues, the callus (a mass of newly formed bone and connective tissue) gradually becomes stronger and more compact, eventually remodeling itself into a solid, unbroken bone.

The entire process of fracture healing can take several weeks to several months, depending on factors such as the severity of the injury, the patient's age and overall health, and the location of the fracture. In some cases, medical intervention may be necessary to help promote healing or ensure proper alignment of the bone fragments. This may include the use of casts, braces, or surgical implants such as plates, screws, or rods.

A hip fracture is a medical condition referring to a break in the upper part of the femur (thigh) bone, which forms the hip joint. The majority of hip fractures occur due to falls or direct trauma to the area. They are more common in older adults, particularly those with osteoporosis, a condition that weakens bones and makes them more prone to breaking. Hip fractures can significantly impact mobility and quality of life, often requiring surgical intervention and rehabilitation.

A femoral fracture is a medical term that refers to a break in the thigh bone, which is the longest and strongest bone in the human body. The femur extends from the hip joint to the knee joint and is responsible for supporting the weight of the upper body and allowing movement of the lower extremity. Femoral fractures can occur due to various reasons such as high-energy trauma, low-energy trauma in individuals with weak bones (osteoporosis), or as a result of a direct blow to the thigh.

Femoral fractures can be classified into different types based on their location, pattern, and severity. Some common types of femoral fractures include:

1. Transverse fracture: A break that occurs straight across the bone.
2. Oblique fracture: A break that occurs at an angle across the bone.
3. Spiral fracture: A break that occurs in a helical pattern around the bone.
4. Comminuted fracture: A break that results in multiple fragments of the bone.
5. Open or compound fracture: A break in which the bone pierces through the skin.
6. Closed or simple fracture: A break in which the bone does not pierce through the skin.

Femoral fractures can cause severe pain, swelling, bruising, and difficulty walking or bearing weight on the affected leg. Diagnosis typically involves a physical examination, medical history, and imaging tests such as X-rays or CT scans. Treatment may involve surgical intervention, including the use of metal rods, plates, or screws to stabilize the bone, followed by rehabilitation and physical therapy to restore mobility and strength.

A spinal fracture, also known as a vertebral compression fracture, is a break in one or more bones (vertebrae) of the spine. This type of fracture often occurs due to weakened bones caused by osteoporosis, but it can also result from trauma such as a car accident or a fall.

In a spinal fracture, the front part of the vertebra collapses, causing the height of the vertebra to decrease, while the back part of the vertebra remains intact. This results in a wedge-shaped deformity of the vertebra. Multiple fractures can lead to a hunched forward posture known as kyphosis or dowager's hump.

Spinal fractures can cause pain, numbness, tingling, or weakness in the back, legs, or arms, depending on the location and severity of the fracture. In some cases, spinal cord compression may occur, leading to more severe symptoms such as paralysis or loss of bladder and bowel control.

Fracture fixation, internal, is a surgical procedure where a fractured bone is fixed using metal devices such as plates, screws, or rods that are implanted inside the body. This technique helps to maintain the alignment and stability of the broken bone while it heals. The implants may be temporarily or permanently left inside the body, depending on the nature and severity of the fracture. Internal fixation allows for early mobilization and rehabilitation, which can result in a faster recovery and improved functional outcome.

A radius fracture is a break in the bone that runs from the wrist to the elbow, located on the thumb side of the forearm. Radius fractures can occur as a result of a fall, direct blow to the forearm, or a high-energy collision such as a car accident. There are various types of radius fractures, including:

1. Distal radius fracture: A break at the end of the radius bone, near the wrist joint, which is the most common type of radius fracture.
2. Radial shaft fracture: A break in the middle portion of the radius bone.
3. Radial head and neck fractures: Breaks in the upper part of the radius bone, near the elbow joint.
4. Comminuted fracture: A complex radius fracture where the bone is broken into multiple pieces.
5. Open (compound) fracture: A radius fracture with a wound or laceration in the skin, allowing for communication between the outside environment and the fractured bone.
6. Intra-articular fracture: A radius fracture that extends into the wrist joint or elbow joint.
7. Torus (buckle) fracture: A stable fracture where one side of the bone is compressed, causing it to buckle or bend, but not break completely through.

Symptoms of a radius fracture may include pain, swelling, tenderness, bruising, deformity, limited mobility, and in some cases, numbness or tingling in the fingers. Treatment options depend on the type and severity of the fracture but can range from casting to surgical intervention with implant fixation.

A comminuted fracture is a type of bone break where the bone is shattered into three or more pieces. This type of fracture typically occurs after high-energy trauma, such as a car accident or a fall from a great height. Commminuted fractures can also occur in bones that are weakened by conditions like osteoporosis or cancer. Because of the severity and complexity of comminuted fractures, they often require extensive treatment, which may include surgery to realign and stabilize the bone fragments using metal screws, plates, or rods.

Fracture fixation is a surgical procedure in orthopedic trauma surgery where a fractured bone is stabilized using various devices and techniques to promote proper healing and alignment. The goal of fracture fixation is to maintain the broken bone ends in correct anatomical position and length, allowing for adequate stability during the healing process.

There are two main types of fracture fixation:

1. Internal fixation: In this method, metal implants like plates, screws, or intramedullary rods are inserted directly into the bone to hold the fragments in place. These implants can be either removed or left in the body once healing is complete, depending on the type and location of the fracture.

2. External fixation: This technique involves placing pins or screws through the skin and into the bone above and below the fracture site. These pins are then connected to an external frame that maintains alignment and stability. External fixators are typically used when there is significant soft tissue damage, infection, or when internal fixation is not possible due to the complexity of the fracture.

The choice between internal and external fixation depends on various factors such as the type and location of the fracture, patient's age and overall health, surgeon's preference, and potential complications. Both methods aim to provide a stable environment for bone healing while minimizing the risk of malunion, nonunion, or deformity.

Osteoporotic fractures are breaks or cracks in bones that occur as a result of osteoporosis, a condition characterized by weak and brittle bones. Osteoporosis causes bones to lose density and strength, making them more susceptible to fractures, even from minor injuries or falls.

The most common types of osteoporotic fractures are:

1. Hip fractures: These occur when the upper part of the thigh bone (femur) breaks, often due to a fall. Hip fractures can be serious and may require surgery and hospitalization.
2. Vertebral compression fractures: These occur when the bones in the spine (vertebrae) collapse, causing height loss, back pain, and deformity. They are often caused by everyday activities, such as bending or lifting.
3. Wrist fractures: These occur when the bones in the wrist break, often due to a fall. Wrist fractures are common in older adults with osteoporosis.
4. Other fractures: Osteoporotic fractures can also occur in other bones, such as the pelvis, ribs, and humerus (upper arm bone).

Prevention is key in managing osteoporosis and reducing the risk of osteoporotic fractures. This includes getting enough calcium and vitamin D, engaging in regular weight-bearing exercise, avoiding smoking and excessive alcohol consumption, and taking medications as prescribed by a healthcare provider.

Stress fractures are defined as small cracks or severe bruising in bones that occur from repetitive stress or overuse. They most commonly occur in weight-bearing bones, such as the legs and feet, but can also occur in the arms, hips, and back. Stress fractures differ from regular fractures because they typically do not result from a single, traumatic event. Instead, they are caused by repeated stress on the bone that results in microscopic damage over time. Athletes, military personnel, and individuals who engage in high-impact activities or have weak bones (osteoporosis) are at increased risk of developing stress fractures. Symptoms may include pain, swelling, tenderness, and difficulty walking or bearing weight on the affected bone.

Spontaneous fractures are bone breaks that occur without any identifiable trauma or injury. They are typically caused by underlying medical conditions that weaken the bones, making them more susceptible to breaking under normal stress or weight. The most common cause of spontaneous fractures is osteoporosis, a condition characterized by weak and brittle bones. Other potential causes include various bone diseases, certain cancers, long-term use of corticosteroids, and genetic disorders affecting bone strength.

It's important to note that while the term "spontaneous" implies that the fracture occurred without any apparent cause, it is usually the result of an underlying medical condition. Therefore, if you experience a spontaneous fracture, seeking medical attention is crucial to diagnose and manage the underlying cause to prevent future fractures and related complications.

A femoral neck fracture is a type of hip fracture that occurs in the narrow, vertical section of bone just below the ball of the femur (thigh bone) that connects to the hip socket. This area is called the femoral neck. Femoral neck fractures can be categorized into different types based on their location and the direction of the fractured bone.

These fractures are typically caused by high-energy trauma, such as car accidents or falls from significant heights, in younger individuals. However, in older adults, particularly those with osteoporosis, femoral neck fractures can also result from low-energy trauma, like a simple fall from standing height.

Femoral neck fractures are often serious and require prompt medical attention. Treatment usually involves surgery to realign and stabilize the broken bone fragments, followed by rehabilitation to help regain mobility and strength. Potential complications of femoral neck fractures include avascular necrosis (loss of blood flow to the femoral head), nonunion or malunion (improper healing), and osteoarthritis in the hip joint.

The radius is one of the two bones in the forearm in humans and other vertebrates. In humans, it runs from the lateral side of the elbow to the thumb side of the wrist. It is responsible for rotation of the forearm and articulates with the humerus at the elbow and the carpals at the wrist. Any medical condition or injury that affects the radius can impact the movement and function of the forearm and hand.

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