Varicose Vein stocking Price Rs 5800 per piece with ZIP and 2 Hook adjustment -Varicose veins are caused by increased blood pressure in the veins. Varicose veins happen in the veins near the surface of the skin (superficial). The blood moves towards the heart by one-way valves in the veins. When the valves become weakened or damaged, blood can collect in the veins. • Varicose veins may be more common in some families (inherited). Increased pressure in the veins may cause varicose veins. Factors that may increase pressure include: 1. Overweight or obesity 2. Older age 3.Being female 4.Being inactive 5.Leg injury 6.Pregnancy 7.Smoking 8.Taking oral contraceptive pills or hormone replacement

Genu varum (bowlegs) and genu valgum (knock-knees) are common knee deformities in children that often resolve naturally as they grow. Genu Varum (Bowlegs): In this condition, the knees are apart while the feet and ankles are together, creating an outward curve. It’s typical in infants and toddlers (1-3 years old) and usually improves by age 3 or 4. If severe or persistent, orthotics or braces may be used to support proper alignment and guide bone growth. Genu Valgum (Knock-Knees): Here, the knees touch but the feet are apart. It is common in children aged 3-5 and typically corrects itself over time. If it persists, orthotics or braces may be used to improve alignment. Orthotics and Braces: Orthotics are shoe inserts that correct foot misalignment, potentially improving knee positioning. Braces or splints may be used in severe cases to guide proper bone growth. Braces: In more severe cases of genu varum or genu valgum, braces or splints might be used to help guide the bones to grow in the correct position. These devices are typically used when there's a concern about the condition not self-correcting over time. Braces may be worn during activities to promote proper alignment during movement.

A static ankle-foot orthosis (AFO) is an orthopedic device designed to support, align, and improve the function of the ankle and foot. Unlike dynamic AFOs, which allow for movement, static AFOs are rigid or semi-rigid and provide fixed support to maintain the position of the foot and ankle. Key Features Design and Materials: Static AFOs are typically made from materials such as plastic or carbon fiber. These materials create a sturdy framework that is custom-molded to the individual's foot and leg, ensuring a proper fit and maximum support. Purpose: The primary goals of a static AFO are to correct or prevent deformities, provide stability, and relieve pain. They are commonly used to manage conditions such as: Drop Foot: A condition where the foot cannot be lifted properly, making walking difficult. Cerebral Palsy: A disorder characterized by muscle stiffness and control issues that affect gait and foot positioning. Stroke: To assist with walking by supporting the affected leg and foot. Post-Surgical Recovery: To immobilize the ankle and foot after surgery, promoting proper healing. Components: Footplate: Covers the sole of the foot and provides essential support. Calf Strap: Secures the AFO to the leg, usually adjustable for comfort. Padding: Often lined with foam or other cushioning materials to enhance comfort and prevent skin irritation. Benefits Improved Function: Helps individuals maintain or enhance their walking ability by keeping the foot in a functional position. Injury Prevention: Reduces the risk of falls and injuries by stabilizing the foot and ankle. Deformity Management: Prevents or corrects deformities by maintaining proper alignment of the foot and ankle. Fitting and Customization For optimal effectiveness, static AFOs are custom-fitted to each individual. This usually involves taking precise measurements or molds of the foot and leg to ensure the device supports the unique anatomical structure and needs of the user. In summary, a static AFO is managing various foot and ankle conditions by providing fixed support and alignment. Its success depends on a proper fit and regular use, making it an essential component of many orthopedic and rehabilitation strategies.  Address：  House NO -27, Gita Nagar, Society, Opposite Sanghvi Tower, Adajan Rd, Adajan, Surat, Gujarat 395009  Flat no. 1, Laxmi Mahal Apartment, 2163, near Neelayam Theatre, Sadashiv Peth, Pune, Maharashtra 411030  Plot No 17, 40, Rajdanga Sarat Pk Rd, near MEGHALAYA HOUSE, next to Pearl dental clinic, Shantipally, Block-BA, P.S:, Kasba, Kolkata, West Bengal 700107  46, Mona Shopping Center,, Andheri West,, near Navrang Theater, Mumbai, Maharashtra 400053 9377466476,8128996476 evolution healthcarepvt ltd

A prosthetic knee joint is an artificial knee replacement that is used to replace a damaged or diseased knee joint. It is designed to mimic the natural movement and function of a real knee joint, allowing individuals to walk and perform other activities with greater ease and comfort. Prosthetic knee joints come in various types, including total knee replacement (TKR) and partial knee replacement (PKR). In a TKR, the entire knee joint is replaced with an artificial implant, while in a PKR, only the damaged or diseased portion of the knee is replaced. The materials used in prosthetic knee joints are typically made of metal, plastic, or ceramic components, and are designed to be durable and long-lasting. The success of the surgery and the longevity of the implant depends on several factors, such as the patient's age, weight, and overall health, as well as the skill of the surgeon performing the procedure. Physical therapy and rehabilitation are often necessary after a prosthetic knee joint surgery to help the patient regain strength and mobility in the affected leg.

Charcot foot, which is a condition that affects the bones in the foot and ankle and often leads to joint deformities and instability, specialized insoles can be crucial in providing support and preventing further damage. Here are a few types of insoles that might be used: Custom Orthotics: These are specially designed to match the unique contours of your feet. They help distribute pressure evenly, stabilize the foot, and prevent further deformities. A podiatrist or orthotist can create these based on a detailed assessment of your foot structure and needs. Offloading Insoles: These are designed to reduce pressure on specific areas of the foot. For Charcot foot, offloading insoles can help redistribute pressure away from the affected areas to help prevent ulcers and further complications. Rocker Sole Insoles: Rocker soles have a rounded heel-to-toe transition which can help reduce stress on the foot while walking. This can be particularly helpful for individuals with Charcot foot to improve gait and reduce discomfort. Cushioned Insoles: Providing additional cushioning can help absorb shock and reduce the impact on the foot. This can be beneficial if you experience pain or discomfort due to Charcot foot. Rigid Insoles: Sometimes, a more rigid insole is needed to offer strong support and prevent excessive movement of the foot, which can be helpful in managing the condition and preventing further deformity.

A heel ulcer is an open sore that develops on the skin of the heel, typically as a result of prolonged pressure or friction on the area. Heel ulcers can be painful and may take a long time to heal, especially in individuals with poor circulation or diabetes. There are several factors that can contribute to the development of a heel ulcer, including: Prolonged pressure on the heel due to immobility or sitting or lying down for extended periods of time Friction from ill-fitting shoes or socks Poor circulation, which can lead to slow healing and an increased risk of infection Diabetes, which can cause nerve damage and reduce sensation in the feet, making it more difficult to detect and treat ulcers Treatment for a heel ulcer typically involves relieving pressure on the affected area and keeping the wound clean and protected. This may involve the use of specialized dressings, pressure-relieving devices, and wound care techniques. In severe cases, surgery may be necessary to remove damaged tissue or correct underlying structural problems in the foot or ankle. Prevention is key in avoiding heel ulcers. This can involve regular foot inspections, wearing well-fitting shoes, and maintaining good blood sugar control in individuals with diabetes.

A forefoot ulcer is a wound or sore that develops on the ball of the foot, typically as a result of prolonged pressure or friction on the area. Forefoot ulcers can be painful and may take a long time to heal, especially in individuals with poor circulation or diabetes. There are several factors that can contribute to the development of a forefoot ulcer, including: Prolonged pressure on the ball of the foot due to standing or walking for extended periods of time Friction from ill-fitting shoes or socks Poor circulation, which can lead to slow healing and an increased risk of infection Diabetes, which can cause nerve damage and reduce sensation in the feet, making it more difficult to detect and treat ulcers Treatment for a forefoot ulcer typically involves relieving pressure on the affected area and keeping the wound clean and protected. This may involve the use of specialized dressings, pressure-relieving devices, and wound care techniques. In severe cases, surgery may be necessary to remove damaged tissue or correct underlying structural problems in the foot or ankle. Prevention is key in avoiding forefoot ulcers. This can involve regular foot inspections, wearing well-fitting shoes, and maintaining good blood sugar control in individuals with diabetes.

Rehabilitation aids are devices or equipment designed to assist individuals in their recovery process following an injury, surgery, or illness. These aids help improve mobility, strength, flexibility, and overall functionality. Here are some common types of rehabilitation aids: Exercise Equipment: Various exercise tools and machines can aid in rehabilitation. These include resistance bands, therapy balls, balance boards, and pedal exercisers. They help strengthen muscles, improve range of motion, and enhance balance and coordination. Walking Aids: As mentioned earlier, walking aids like canes, crutches, walkers, and knee walkers/scooters can assist individuals in regaining mobility during their rehabilitation journey. Orthotic Devices: Orthotic devices are supportive braces or splints used to immobilize or support specific body parts during the healing process. They can provide stability and protect joints, muscles, or ligaments. Examples include knee braces, ankle-foot orthoses (AFOs), wrist splints, and back braces. Range of Motion (ROM) Devices: ROM devices help individuals regain or maintain joint mobility. They can be passive or active. Passive devices, such as continuous passive motion (CPM) machines, move the joints through a controlled range of motion without the individual's effort. Active devices, like pulley systems or therapy bands, require the individual to actively move the joint. Assistive Devices for Activities of Daily Living (ADL): These aids help individuals perform everyday tasks independently during their rehabilitation. Examples include reachers/grabbers, dressing aids, adaptive utensils, shower chairs, and raised toilet seats. Electrical Stimulation Devices: Electrical stimulation devices use low-level electrical currents to stimulate nerves and muscles. They can be used to manage pain, prevent muscle atrophy, improve muscle strength, or promote tissue healing. Balance and Coordination Tools: Balance boards, stability discs, and wobble cushions are aids that help improve balance, coordination, and proprioception. It's important to note that the specific rehabilitation aids needed may vary depending on the individual's condition, the stage of rehabilitation, and the guidance of healthcare professionals. Consulting with a physiotherapist, occupational therapist, or healthcare provider is crucial to determine the most appropriate rehabilitation aids for an individual's specific needs and goals.

Safety Stride KAFO  The SafetyStride is a mechanical stance control orthotic knee joint that utilizes a low-profile cabling system to automatically unlock itself at the end of stance phase. The key feature of the SafetyStride is its ability to resist knee flexion at any angle. The SafetyStride does not require full 180° knee extension to resist knee flexion in stance phase. Designed to unlock at terminal stance, an internal lever re-engages during swing phase to ensure knee joint stability prior to heel contact. Individuals who intermittently fail to reach full extension will now have the added security and stability they require while ambulating. The SafetyStride works in conjunction with the FullStride and can be easily installed on a FullStride equipped KAFO.  It give more natural Gait  If we add a Pneumatic cylinder it will assit the quadriceps muscle and patient feel more comfortable.