Jindal Medi Surge

The Orthopedic Proximal Tibia Plate DCP 3.5mm Right SS316L is designed for the fixation and stabilization of fractures in the proximal tibia. Here are the key details:
Specifications:Material: SS316L (Stainless Steel 316L)
Properties: High tensile strength, excellent corrosion resistance, and good biocompatibility, making it suitable for long-term use in the body.Plate Thickness: 3.5mm, providing strength while maintaining a low profile to minimize soft tissue irritation.
Design and Features:Dynamic Compression Plate (DCP) Design:
Compression Mechanism: Features oblong holes to facilitate dynamic compression. This allows for the compression of the fracture site as screws are tightened, promoting bone healing.Pre-Contoured Shape: Specifically shaped to fit the anatomical curvature of the right proximal tibia, which ensures proper alignment and stability.Right-Sided Plate:
Orientation: Designed specifically for use on the right proximal tibia. Ensures correct anatomical fit and alignment.Hole Configuration:Screw Compatibility:Screw Size: Accommodates 3.5mm screws, which can be cortical or locking screws depending on the surgical requirements.Hole Types: Features a mix of compression holes and possibly fixed or locking holes to secure the plate to the bone.Indications:Fracture Fixation:
Used for fractures in the proximal tibia, including both diaphyseal (shaft) and metaphyseal (bone end) fractures.Complex Fractures:
Suitable for managing complex fracture patterns or fractures with significant displacement or comminution.Benefits:Enhanced Stability:
Provides stable fixation by aligning and compressing the fracture fragments, supporting better healing.Reduced Soft Tissue Irritation:
The low-profile design reduces irritation to surrounding soft tissues, improving patient comfort.Durability:
The SS316L material ensures long-term durability and resistance to body fluids.Applications:Open Reduction and Internal Fixation (ORIF):
Used in ORIF procedures to stabilize proximal tibia fractures, ensuring proper alignment and stabilization.Fracture Management:
Effective for both acute and complex fractures of the proximal tibia.The Orthopedic Proximal Tibia Plate DCP 3.5mm Right SS316L is a critical implant for managing proximal tibia fractures, offering enhanced stability, reduced irritation, and durability for effective fracture healing.

SMALL CLOSE CLAMP

Jindal Medi Surge ("JMS" Trade Mark) is a CE, ISO13485, ISO9001 and Indian FDA Certified leading Manufacturer and Exporter of Surgical and Orthopedic / Orthopaedic Instruments in Business and Industrial Healthcare range, used for Human (Adult and Pediatric) and Veterinary Surgical Procedures. 

A compression-distraction device used in large orthopedic external fixators is designed to provide precise control over the compression and distraction of bones, aiding in the alignment, stabilization, and gradual correction of fractures and deformities. These devices are critical in procedures such as limb lengthening, fracture management, and correcting bone deformities.
Components of a Compression-Distraction Device:Frame: The main structure that supports the other components.Rods: Connecting elements that can be adjusted for length.Adjustable Clamps: Secure the rods and allow for fine adjustments.Compression-Distraction Mechanism: Allows controlled movement to apply either compression or distraction forces.Fixation Pins or Wires: Inserted into the bone to hold it in place.Steps for Using a Compression-Distraction Device in an Orthopedic External Fixator:Preoperative Planning:
Conduct thorough imaging studies (X-rays, CT scans) to assess the bone condition.Plan the placement of the device to ensure optimal results.Surgical Preparation:
Sterilize and drape the patient.Mark the insertion points for the fixation pins or wires.Insertion of Fixation Pins/Wires:
Make small incisions at the marked sites.Insert fixation pins or wires through the bone, ensuring they are securely anchored.Assembly of the External Fixator:
Attach the frame to the fixation pins or wires.Secure the adjustable clamps and rods to the frame, ensuring they are correctly aligned.Attachment of the Compression-Distraction Device:
Connect the compression-distraction mechanism to the rods.Ensure that the device is properly calibrated for controlled movement.Adjusting the Device:
Use the adjustment knobs or screws to apply the desired amount of compression or distraction.Monitor the bone alignment and stability throughout the process.Intraoperative Imaging:
Use imaging techniques to confirm the correct placement and alignment of the device.Make any necessary adjustments to the device.Postoperative Care:
Schedule regular follow-up appointments to monitor healing and make necessary adjustments.Educate the patient on how to care for the pin sites and recognize signs of infection.Adjust the device gradually for limb lengthening or correction of deformities as per the treatment plan.Safety Considerations:Avoid placing pins near joints or major blood vessels.Monitor pin sites regularly for signs of infection.Ensure all components of the external fixator are securely fastened to prevent loosening.Provide clear instructions to the patient on device care and follow-up.Example Setup Using a Compression-Distraction Device:Preoperative Planning:
Detailed assessment of the bone condition and planning of the device placement.Surgical Preparation:
Sterilization, draping, and marking of insertion points.Insertion of Fixation Pins/Wires:
Proper insertion and securing of fixation pins or wires.Assembly of the External Fixator:
Attachment of the frame, adjustable clamps, and rods.Attachment of the Compression-Distraction Device:
Connecting and calibrating the compression-distraction mechanism.Adjusting the Device:
Controlled application of compression or distraction forces.Intraoperative Imaging:
Confirmation of correct placement and alignment.Postoperative Care:
Regular follow-ups, patient education, and gradual adjustments as needed.Illustrative Steps:Prepare the Limb:
Ensure the limb is properly positioned and prepared for surgery.Position the Frame and Rods:
Place the frame and rods around the limb at the appropriate locations.Attach the Compression-Distraction Device:
Secure the compression-distraction mechanism to the rods.Insert the Pins/Wires:
Guide the pins or wires through the clamp’s holders and into the bone.Adjust and Tighten:
Use the adjustment screws to position the rods correctly and then tighten to secure.

Colles Fixator Orthopedic Surgical


Jindal Medi Surge is a CE and ISO Certified leading Manufacturer and Exporter of Surgical and Orthopedic / Orthopaedic Instruments used for Human (Adult and Pediatric) and Veterinary Surgical Procedures. All Products are made from Surgical Grade Stainless Steel, Aluminum, Titanium & Carbon Fiber Only. Our Products are used by Government Institutes, Private Hospitals, Small Clinics, Individual Doctors Worldwide.

For Bulk Order & Customized Listing, kindly message us.
We sell exclusively on our JMS Brand & also Manufacture on OEM basis for various international brands.

A titanium tube-to-tube clamp for 8mm rods in an orthopedic external fixator system is used to connect and stabilize two rods. Titanium is an excellent choice for these clamps due to its high strength, lightweight nature, biocompatibility, and resistance to corrosion. These features are particularly beneficial in orthopedic applications, where durable and safe materials are essential.
Components of a Titanium Tube-to-Tube Clamp (8mm):Clamp Body: The main structure that holds the rods, made of titanium.Adjustment Screws: Screws used to tighten and adjust the position of the rods within the clamp.Tube Holders: Openings designed to securely hold the 8mm diameter rods.Steps for Using a Titanium Tube-to-Tube Clamp in an External Fixator:Preoperative Planning:
Assess the fracture or deformity using imaging techniques.Plan the placement of the rings and rods to ensure optimal stability and alignment.Ring and Rod Placement:
Sterilize and drape the patient properly.Position the rings around the limb at appropriate locations, ensuring strategic placement above and below the fracture or deformity.Wire or Pin Insertion:
Make small incisions at planned insertion sites.Insert wires or pins through the bone and secure them to the rings using tensioners for wires or other securing mechanisms.Attachment of Titanium Tube-to-Tube Clamps:
Place the titanium tube-to-tube clamps on the rods at the desired locations.Align the clamps properly to allow for optimal adjustment and stabilization.Inserting and Securing Tubes:
Guide the 8mm rods through the holders in the clamps.Partially tighten the adjustment screws to hold the rods in place while allowing for further adjustments.Adjusting the Clamp Position:
Fine-tune the alignment and position of the rods using the adjustment screws.Ensure the rods are correctly positioned to provide the desired stabilization and alignment of the fracture or deformity.Final Tightening:
Once the desired position and alignment are achieved, fully tighten the adjustment screws to secure the rods in place.Check the stability of the entire construct to ensure that all components are tightly fastened.Postoperative Care:
Schedule regular follow-ups to monitor healing and make necessary adjustments.Clean pin sites regularly to prevent infection.Adjust the fixator as needed for progressive correction in cases of deformity.Safety Considerations:Avoid placing wires or pins near joints or major blood vessels.Monitor pin sites regularly for signs of infection.Ensure all components, including the titanium tube-to-tube clamps, are securely fastened to prevent loosening.Example Setup Using Titanium Tube-to-Tube Clamps:Select Appropriate Clamps:
Choose titanium tube-to-tube clamps compatible with the 8mm diameter rods used in your external fixator system.Attach Clamps to Tubes:
Position the titanium tube-to-tube clamps on the rods and partially tighten the screws to allow for adjustments.Insert and Secure Tubes:
Guide the rods through the holders in the clamps.Adjust the position to ensure proper alignment and stabilization.Final Adjustments and Tightening:
Fine-tune the alignment using the adjustment screws on the clamps.Once satisfied with the positioning, fully tighten the screws to secure the rods in place.Illustrative Steps:Prepare the Limb:
Ensure the limb is properly positioned and prepared for surgery.Position the Ring and Rods:
Place the rings and rods around the limb at the appropriate locations.Attach the Titanium Tube-to-Tube Clamp:
Secure the titanium tube-to-tube clamp to the rods.Insert the Tubes:
Guide the rods through the clamp’s holders.Adjust and Tighten:
Use the adjustment screws to position the rods correctly and then tighten to secure.

Olive Wire For Bayonet Point

Jindal Medi Surge ("JMS" Trade Mark) is a CE, ISO13485, ISO9001 and Indian FDA Certified leading Manufacturer and Exporter of Surgical and Orthopedic / Orthopaedic Instruments in Business and Industrial Healthcare range, used for Human (Adult and Pediatric) and Veterinary Surgical Procedures. 

An insert drill sleeve with a diameter of 3.2mm is a fundamental orthopedic surgical instrument used to guide drills and ensure precise drilling into bone. Here are the key details about this instrument:
Purpose and UsagePurpose: To provide a guide for drill bits, ensuring accurate drilling angles and depths during orthopedic surgeries. It helps in preventing the drill bit from slipping and ensures the hole is drilled precisely where intended.Usage: Commonly used in procedures that require the insertion of screws or other implants, such as fracture fixation, joint reconstruction, and bone stabilization.FeaturesDiameter: The sleeve is designed to accommodate a 3.2mm drill bit, ensuring a snug fit and precise guidance.Material: Typically made from high-grade surgical stainless steel or other durable materials that can withstand the forces applied during drilling and repeated sterilization.Design: The insert drill sleeve usually features a cylindrical shape with a smooth inner surface to facilitate easy passage of the drill bit. It may also have a flange or lip to prevent it from being inserted too deeply into the bone or soft tissue.Compatibility: Designed to be used with other surgical instruments, such as drill guides or drill handles, ensuring a comprehensive and efficient surgical setup.BenefitsPrecision: Ensures that drilling is performed accurately, which is crucial for the proper placement of screws or implants.Stability: Prevents the drill bit from slipping, reducing the risk of damaging surrounding tissues or misaligning the screw or implant.Versatility: Can be used in a wide range of orthopedic procedures, making it a versatile tool in the surgical toolkit.Ease of Use: Simplifies the drilling process, making it easier for surgeons to achieve the desired outcome with minimal effort.ConsiderationsSterilization: Must be properly sterilized before each use to maintain surgical asepsis and prevent infections.Compatibility: Ensure that the sleeve is compatible with the specific drill bits and other instruments used in the procedure.Training: Surgeons and surgical staff should be familiar with the proper use of the drill sleeve to maximize its benefits and avoid complications.SummaryAn insert drill sleeve with a 3.2mm diameter is a basic yet essential orthopedic instrument that facilitates accurate and stable drilling in bone. Its precise design and compatibility with various surgical tools make it indispensable in orthopedic surgeries that involve the insertion of screws or implants.

An Orthopedic Implant 120 Degree Angled Blade Plate (with Holes) DCP SS316L is a specialized orthopedic device used to stabilize and support fractured bones during the healing process. Below is a more focused explanation of its key components and functions:
Key Components:120 Degree Angled Blade Plate:
120 Degree: This refers to the angle at which the plate is designed to fit the anatomy of the bone. A 120-degree angle ensures that the plate aligns with the natural curvature of certain bones, providing a better fit for fractures, particularly for oblique fractures (fractures occurring at an angle).Blade Plate: The "blade" part of the name refers to the implant’s shape, which is typically thin and flat with a sharp, blade-like end that can be inserted into the bone. This blade helps in anchoring the plate securely, offering increased strength and stability to the fractured bone.Holes:
The plate features several holes (typically 3 to 5, depending on the design) into which screws are inserted. These screws hold the plate firmly against the bone to stabilize the fracture. The number of holes in the plate depends on the fracture location and the number of screws needed for sufficient fixation.The holes are specifically designed to accommodate screws that can either be locking (providing greater stability by engaging with the plate) or non-locking, allowing flexibility in screw placement.DCP (Dynamic Compression Plate):
DCP stands for Dynamic Compression Plate, a design feature that enables controlled compression across the fracture site. The purpose of dynamic compression is to bring the bone fragments closer together, promoting healing by allowing better bone-to-bone contact.The plate has a specific shape that, when screws are tightened, applies a small amount of compression to the fracture site. This encourages bone healing by stimulating the natural repair process and helping ensure that the bone remains in proper alignment.Material - SS316L (Stainless Steel 316L):
SS316L is a high-quality medical-grade stainless steel. It is corrosion-resistant, ensuring that it does not rust or degrade inside the human body.The "L" in SS316L indicates that it is a low-carbon version of stainless steel, which makes it less likely to suffer from stress corrosion cracking. This makes it ideal for use in the human body, as it reduces the risk of the implant failing over time.The material is highly durable and provides the necessary strength for supporting bone fractures and enabling proper healing. 

The Orthopedic Y Reconstruction Plate made from SS316L is a specialized surgical implant designed for the fixation and stabilization of fractures, particularly in anatomically complex regions where a Y-shaped plate is required. This implant is typically used in surgeries involving fractures of the distal femur, acetabulum, or other areas where multiple fracture lines converge, requiring a plate that can provide robust support across different planes.
Specifications:Material: Stainless Steel 316L (SS316L)Design:Shape: Y-shaped design to provide multi-directional support.Plate Thickness: Typically compatible with 3.5mm screws.Number of Holes: Varies depending on the size and specific configuration of the plate; usually includes multiple holes in both the arms and stem of the "Y."Hole Type: Typically designed for 3.5mm cortical screws, with options for locking or non-locking screws depending on the design.Features:Corrosion Resistance: Made from SS316L, the plate offers excellent resistance to corrosion, making it suitable for long-term implantation.Biocompatibility: SS316L is highly biocompatible, minimizing the risk of adverse tissue reactions and ensuring the implant integrates well with the surrounding bone.High Strength: The stainless steel construction provides robust support and stability, particularly in areas with complex fractures.Y-Shaped Design: Specifically engineered to manage fractures in regions where the bone structure requires support across multiple planes, such as the distal femur or pelvis.Application:Indications:Used for the fixation of complex fractures, particularly in the distal femur, acetabulum, or other areas where fractures involve multiple planes.Suitable for reconstructive surgeries where precise alignment and stabilization of bone fragments are critical.Surgical Use:Often employed in trauma surgery to stabilize fractures that involve the convergence of multiple fracture lines.Can be used in both open and minimally invasive procedures depending on the surgical approach.Benefits:Multi-Directional Support: The Y-shaped design provides stabilization in multiple directions, making it ideal for complex fractures.Long-Term Durability: The SS316L material ensures that the implant is durable, resisting corrosion and maintaining structural integrity over time.Precision Fit: The design allows for precise placement and alignment of bone fragments, which is crucial for proper healing and restoration of function.Versatile Application: Can be used in various anatomical locations, providing flexibility in surgical treatment plans.Surgical Advantages:Robust Fixation: The Y Reconstruction Plate offers strong and reliable fixation, crucial for the healing of complex fractures.Tailored Design: The Y-shape is specifically designed to match the anatomical requirements of fractures in specific regions, ensuring a better fit and more effective healing.Ease of Use: Designed for straightforward application during surgery, reducing operative time and complexity.Enhanced Patient Outcomes: By providing stable and precise fixation, this plate helps promote better healing outcomes and reduces the risk of postoperative complications.The Orthopedic Y Reconstruction Plate made from SS316L is an essential tool in the treatment of complex fractures. Its design and material properties make it well-suited for achieving optimal surgical outcomes in challenging cases where precise, multi-directional support is required.

Specifications:Material: Titanium, known for its high strength-to-weight ratio, excellent biocompatibility, and resistance to corrosion. It promotes osseointegration (bone integration), making it ideal for surgical implants.
Screw Compatibility: Designed to work with 4.5mm cortical screws, ensuring a strong and secure fixation.
Plate Type:
L-Plate: The L-shaped design is tailored for fractures where bones have angular structures, such as the distal humerus, distal tibia, or proximal femur. The L-shape provides stability in two planes, allowing for better fixation in complex fractures.Available in Left and Right versions, ensuring proper anatomical alignment based on the fracture location.Design Features:
Dynamic Compression: The plate has oval holes that allow for dynamic compression, pulling the bone fragments together when screws are tightened, which promotes faster and more effective healing.Angled Design: The "L" shape offers more screw placement options on both the vertical and horizontal limbs of the plate, providing greater control over fracture stabilization.Hole Configuration: Typically, the plate comes with 3 to 4 holes on the horizontal section (the short part of the "L") and multiple holes (usually 3 to 12) on the vertical section (the longer part), depending on the plate’s length.Thickness: Approximately 4.5mm thick, ensuring durability and strength in load-bearing bones while maintaining a low profile to minimize irritation to surrounding soft tissues.
Weight: Titanium is significantly lighter than stainless steel, reducing the implant's weight and increasing patient comfort post-surgery.
Corrosion Resistance: Titanium is highly resistant to corrosion, making it suitable for long-term implantation, especially in complex fracture cases.
Applications:Distal Humerus and Distal Tibia Fractures: Used for fractures in angular regions like the elbow or ankle, where the L-shape provides additional stability.Angular and Complex Fractures: Ideal for fractures with irregular patterns, where stabilization in multiple planes is required.Epiphyseal and Metaphyseal Regions: Commonly used in fractures near joint surfaces or bone ends, providing strong fixation and preventing displacement.Benefits of Titanium:Biocompatibility: Titanium integrates well with bone, reducing the risk of allergic reactions and promoting faster healing.Lightweight: Titanium's lightness makes the implant less burdensome for patients during recovery.Long-Term Durability: Excellent for patients who need implants for an extended period due to its resistance to body fluids and tissue.

The Orthopedic 4.5mm Dynamic Compression Plate (DCP) Broad made from SS316L is a commonly used surgical implant for internal fixation of fractures in large bones. The design enables effective fracture compression, enhancing bone healing and stabilization.
Specifications:Material: Stainless Steel SS316L, a surgical-grade material known for its strength, biocompatibility, and resistance to corrosion.
Screw Compatibility: Designed to be used with 4.5mm cortical screws, ensuring secure fixation to the bone.
Plate Type:
Broad DCP: Suitable for larger bones, such as the femur, humerus, or tibia. The broad design provides extra surface area for stronger fixation in larger bones.Design Features:
Dynamic Compression: The oval-shaped screw holes allow for the application of compression across the fracture when screws are tightened, which promotes healing by bringing the bone fragments closer together.Hole Shape: Oval holes enable axial compression during screw placement.Number of Holes: Available in various lengths with different hole configurations, typically ranging from 4 to 16 holes, depending on the fracture and bone size.Thickness: The plate is typically around 4.5mm thick, making it suitable for load-bearing bones.
Surface Finish: Smooth polished finish to minimize tissue irritation and facilitate easy insertion.
Applications:Used for internal fixation of fractures in long bones such as the femur, tibia, or humerus.Ideal for fractures where compression is beneficial for promoting proper bone alignment and healing.This broad 4.5mm DCP plate is widely used in orthopedic surgeries due to its robust design, providing reliable fixation for complex fractures.

The Orthopedic T Plate 4.5mm made from SS316L is a versatile surgical implant used for internal fixation of fractures, particularly in areas requiring angled fixation such as the distal tibia or humerus. The "T" shape provides additional stability for fractures at joint surfaces or ends of long bones.
Specifications:Material: Stainless Steel SS316L, a high-quality medical-grade material that is corrosion-resistant, durable, and biocompatible.
Screw Compatibility: Designed to be used with 4.5mm cortical screws, which ensure a secure fixation to the bone.
Plate Type:
T-Plate: The T-shaped design is ideal for fractures in areas like the distal tibia, humerus, and other bones where the fracture line is near or at the end of the bone, providing additional fixation at both the shaft and the end (epiphyseal region) of the bone.Design Features:
Dynamic Compression: Oval holes along the shaft of the plate enable compression across the fracture during screw tightening, promoting bone healing by reducing the fracture gap.Angled Design: The wider head of the "T" section offers multiple screw insertion points, allowing for enhanced stability in the region where fractures often occur near joints.Available Lengths: Comes in various lengths with different hole configurations to accommodate different types of fractures and bone sizes.Thickness: Typically around 4.5mm, ensuring sufficient strength for load-bearing applications while keeping the implant profile minimal.
Finish: Smooth polished surface to minimize soft tissue irritation and ease of insertion.
Applications:Distal Tibia and Distal Humerus Fractures: Commonly used for fractures near the joint surface, where angular stability is critical.Epiphyseal and Metaphyseal Fractures: Provides support in regions near the bone ends.Articular Fractures: Useful in joint-related fractures where extra fixation is needed at the bone ends to prevent displacement.This 4.5mm T-Plate made from SS316L is widely used in orthopedic surgery due to its ability to provide secure fixation in complex fractures, especially in areas where standard straight plates might not offer adequate stabilization.

Curved Reconstruction Plate 4.5mm SS316L41491.1044 Holes41491.1055 Holes41491.1066 Holes41491.1077 Holes41491.1088 Holes41491.1099 Holes41491.11010 Holes41491.11212 Holes41491.11414 Holes41491.11616 Holes41491.11818 Holes41491.12020 Holes41491.12222 HolesThe Orthopedic Curved Reconstruction Plate 4.5mm SS316L Surgical Implant is designed for the fixation of fractures in bones that require curved anatomical contours, such as the pelvis, clavicle, or mandible. Below are the detailed specifications:Key Specifications:Material:Made from SS316L (Stainless Steel 316L), a medical-grade stainless steel that is corrosion-resistant, biocompatible, and commonly used in orthopedic implants.Plate Thickness:The plate has a thickness designed for 4.5mm diameter screws, which provides the necessary stability for fracture fixation in larger or load-bearing bones.Curvature:The plate is pre-contoured with a curved shape to match the natural anatomical curves of certain bones, such as the pelvis or clavicle.It can also be further contoured intraoperatively by the surgeon to fit the patient’s anatomy precisely.Hole Configuration:Combination holes (Combi holes) are used to allow for both locking and cortical screws. This dual capability provides versatility in fixation techniques.Typically available in multiple hole configurations to accommodate fractures of varying lengths, with common options including 4, 6, 8, 10, or more holes.Applications:The plate is designed for the fixation of fractures, osteotomies, and reconstructions, particularly in curved bones where precise alignment is needed.Commonly used in surgeries for fractures of the pelvis, clavicle, scapula, or other bones that require contouring for proper fixation.Contourability:Though pre-contoured, the plate can be manually shaped or bent to adjust to the patient’s specific anatomical needs without losing structural integrity.Screw Compatibility:Compatible with 4.5mm cortical screws or locking screws, depending on the surgical requirement and the stability needed.Length and Hole Variants:The plates come in varying lengths with different numbers of holes to fit fractures of different sizes, typically ranging from 4 to 12 holes or more.Benefits of SS316L Material:Durability: SS316L provides strength and corrosion resistance, ensuring the longevity of the implant.Cost-Effective: Stainless steel implants are often more economical compared to titanium options, making them a popular choice for many surgeons.Common Applications:Pelvic and acetabular fractures.Clavicle and scapula fractures.Mandibular and facial reconstructive surgeries.Would you like more details on specific lengths or compatible screws?

The Orthopedic Cloverleaf Plate 3.5mm made from SS316L is a specialized surgical implant used primarily in fracture fixation, particularly for anatomically challenging regions such as the proximal humerus or other small bone areas. Below are its key specifications:
General Specifications:Material: SS316L (Stainless Steel 316L), known for its high corrosion resistance, durability, and biocompatibility, making it ideal for long-term implantation.Plate Thickness: 3.5mm, suitable for small bones such as the humerus, clavicle, or forearm.Design:Cloverleaf Shape: This unique shape provides enhanced stability by allowing the plate to cover a larger surface area while maintaining low profile characteristics.It typically features multiple arms radiating from a central portion, resembling a cloverleaf, providing multidirectional support to fractured bones.Low Profile: Designed to minimize irritation to surrounding soft tissues and reduce the likelihood of postoperative discomfort.Hole Configuration: Usually has multiple holes to accommodate 3.5mm screws, with different screw options like locking, non-locking, or cortical screws depending on the need for stability.Indications:Commonly used in the fixation of fractures in bones like the proximal humerus, clavicle, or distal femur, where complex fracture patterns require multidirectional support.The plate can help in comminuted fractures, where multiple bone fragments need stabilization across different planes.Features:Multidirectional Fixation: The design allows screws to be inserted at different angles, providing enhanced fixation in complex fractures.Stability: The broader surface area of the cloverleaf design distributes force more evenly, offering strong and stable support during the healing process.Compatibility: Works with 3.5mm cortical screws, locking screws, and other fixation screws suitable for small bone structures.The Cloverleaf Plate 3.5mm SS316L is typically used in ORIF procedures to stabilize fractures that occur in small but critical areas of the skeleton, providing secure fixation while promoting natural healing.

The triple drill guide and the 130° angled blade plate are specialized orthopedic surgical instruments used for the precise fixation of fractures, particularly in long bones such as the femur. Here’s a detailed look at each component and their combined use in orthopedic procedures.
Triple Drill GuidePurpose:The triple drill guide is used to facilitate accurate drilling for screw placement during the fixation of an angled blade plate. It ensures that screws are inserted at the correct angles and depths to secure the plate to the bone effectively.
Features:Triple Guide Configuration:
Three drill sleeves aligned to match the screw holes of the angled blade plate.Ensures simultaneous drilling for multiple screws.Adjustable Angles:
The guide is designed to match the angle of the blade plate, typically 130°.Can be adjusted for different angles if necessary.Material:
Made from high-quality, durable materials like stainless steel or titanium.Ensures longevity and sterility.Precision Markings:
Markings for depth and angle help ensure accuracy during drilling.Procedure:Attachment:The triple drill guide is attached to the angled blade plate.Aligns with the screw holes on the plate.Drilling:Drill bits are guided through the sleeves to create precise holes for screws.Ensures the correct trajectory and depth.Screw Insertion:Screws are inserted through the drilled holes to secure the plate.Provides stable fixation to the bone.130° Angled Blade PlatePurpose:The 130° angled blade plate is designed for fractures requiring angular stability, such as those involving the distal femur. The angle provides optimal support and resistance to shear forces.
Features:Blade Angle:
The blade is set at a 130° angle, allowing for insertion into the metaphyseal region.Provides angular stability crucial for certain fractures.Fixation Holes:
Multiple holes for locking screws and standard screws.Allows for secure attachment to the bone.Anatomical Contouring:
The plate is contoured to match the anatomy of the bone.Minimizes the need for intraoperative bending and adjustments.Material:
Typically constructed from high-strength stainless steel or titanium.Ensures durability and biocompatibility.Procedure:Fracture Assessment:The type and location of the fracture are evaluated.Plate Positioning:The 130° angled blade plate is positioned over the fracture site.The blade is inserted into the metaphyseal region.Guide Attachment:The triple drill guide is attached to the plate, aligning with the screw holes.Drilling and Fixation:Holes are drilled using the guide, ensuring precise screw placement.Screws are inserted to secure the plate.Final Adjustments:The stability of the fixation is checked, and any necessary adjustments are made.Combined Use in Orthopedic SurgerySteps:Preoperative Planning:Detailed imaging and planning to determine the size and positioning of the plate.Fracture Reduction:Align bone fragments accurately before placing the plate.Plate and Guide Setup:Position the 130° angled blade plate over the fracture site.Attach the triple drill guide to the plate.Drilling and Screw Placement:Use the triple drill guide to drill holes for the screws.Insert screws through the plate and into the bone.Verification:Check the alignment and stability of the fixation.Make any necessary adjustments to ensure proper healing.ConclusionThe combination of the triple drill guide and the 130° angled blade plate provides orthopedic surgeons with the tools necessary for precise and stable fixation of complex fractures. The drill guide ensures accurate screw placement, while the angled blade plate offers the required angular stability, leading to improved surgical outcomes and patient recovery.

The Orthopedic Proximal Tibia Plate DCP 3.5mm Right Titanium Surgical Implant is specifically designed for the fixation of fractures in the right proximal tibia. Here’s a detailed overview of its specifications and features:
Specifications:Material: Titanium (Grade 5 or Grade 23)
Properties: High strength, lightweight, excellent corrosion resistance, and superior biocompatibility, making it suitable for long-term use in the body.Plate Thickness: 3.5mm
Design: Provides a balance of strength and a low-profile design to minimize soft tissue irritation.Design Features:Dynamic Compression Plate (DCP) Design:
Compression Mechanism: Features oblong holes that allow for dynamic compression. This design allows the plate to compress the fracture fragments together as screws are tightened, promoting better alignment and healing.Contoured Shape: Specifically contoured to match the anatomical curvature of the right proximal tibia, ensuring an optimal fit and alignment.Right-Sided Plate:
Orientation: Designed for the right proximal tibia to ensure correct anatomical fit and alignment.Hole Configuration:Screw Compatibility:Screw Size: Accommodates 3.5mm screws, including cortical screws and potentially locking screws, depending on the surgical requirements.Hole Types: Includes compression holes for dynamic compression and may also feature locking holes for added stability.Indications:Fracture Fixation:
Designed for stabilizing fractures in the proximal tibia, including diaphyseal (shaft) and metaphyseal (end) fractures.Complex Fractures:
Effective for complex or comminuted fractures where additional stability and support are needed.Benefits:Enhanced Stability:
The dynamic compression provided by the DCP design helps stabilize the fracture by reducing the gap between the fragments, aiding in optimal bone healing.Reduced Soft Tissue Irritation:
The low-profile design reduces irritation to surrounding soft tissues, leading to greater patient comfort.Durability and Performance:
Titanium’s durability and resistance to corrosion ensure that the implant remains effective throughout the healing process.Applications:Open Reduction and Internal Fixation (ORIF):
Used in ORIF procedures to stabilize proximal tibia fractures, ensuring proper alignment and fixation.Fracture Management:
Suitable for both acute and complex fractures in the proximal tibia.Advantages of Titanium:Biocompatibility: Titanium is well-accepted by the body, reducing the risk of allergic reactions or implant rejection.Non-Magnetic: Suitable for patients who may undergo MRI scans.Lightweight: Titanium’s light weight reduces the overall burden on the limb, enhancing patient comfort and mobility.The Orthopedic Proximal Tibia Plate DCP 3.5mm Right Titanium Surgical Implant is a high-quality implant designed to provide effective fixation and stability for fractures of the right proximal tibia, leveraging titanium’s advantageous properties to support optimal healing and patient recovery.

Stainless Steel Small Double Clamp

Jindal Medi Surge is a CE and ISO Certified leading Manufacturer and Exporter of Surgical and Orthopedic / Orthopaedic Instruments used for Human (Adult and Pediatric) and Veterinary Surgical Procedures. All Products are made from Surgical Grade Stainless Steel, Aluminum, Titanium & Carbon Fiber Only. Our Products are used by Government Institutes, Private Hospitals, Small Clinics, Individual Doctors Worldwide.

For Bulk Order & Customized Listing, kindly message us.
We sell exclusively on our JMS Brand & also Manufacture on OEM basis for various international brands.

Orthopedic Half Ring For Pediatric External Fixator

Orthopedic half rings for pediatric external fixators are specialized components used in orthopedic surgery to stabilize and support fractured or deformed bones in children. These half rings are typically made from lightweight materials such as aluminum or titanium and are designed to be attached to the child's limb using pins or wires.
Here are some key features and considerations:
Size and Design: Pediatric half rings are specifically designed to accommodate the smaller anatomical structures of children. They come in various sizes to fit different age groups and limb sizes.
Biocompatibility: Materials used in pediatric half rings are chosen for their biocompatibility to minimize the risk of adverse reactions or complications in pediatric patients.
Adjustability: Many pediatric half rings are designed to be adjustable to accommodate growth and changes in the child's anatomy during the healing process. This adjustability allows for proper alignment and stability throughout the treatment period.
Fixation: The half rings are typically attached to the child's limb using pins or wires that are inserted into the bone above and below the fracture site. These fixation methods provide secure stabilization while allowing for necessary adjustments and monitoring.
Comfort: Special attention is given to the design of pediatric half rings to ensure they are comfortable for the child to wear. Rounded edges, lightweight materials, and padded surfaces are often incorporated to minimize discomfort and pressure points.
Radiolucency: Like other external fixation components, pediatric half rings are designed to be radiolucent, allowing for unobstructed visualization of the fracture site during imaging procedures.
Overall, pediatric half rings play a crucial role in the treatment of pediatric orthopedic conditions by providing stable fixation and support for fractured or deformed bones, allowing for proper healing and recovery in young patients.

Wire buckles are used in orthopedic external fixators to secure wires and provide stability. Here are the specifications and features for wire buckles, along with the accompanying nuts, bolts, and washers:
Wire Buckle:Material: Typically stainless steel or titanium for durability and biocompatibilityDesign:Buckle Shape: Designed to securely hold and tighten wiresSlot or Hole: For wire insertion and securementUsage: Used to tension and secure wires in external fixator systemsNuts:Type: Standard or locking nutsMaterial: Stainless steel or titaniumDesign: Matched to the bolts used in the external fixator systemDimensions: Compatible with the bolt dimensions usedBolts:Material: Stainless steel or titaniumDimensions: Various lengths and diameters to match the specific requirements of the fixation systemHead Type: Hex, Allen, or other designs for easy manipulationWashers:Type: Flat or locking washersMaterial: Stainless steel or titaniumDesign:Flat Washers: Distribute the load and protect the frame or ring surfaceLocking Washers: Prevent loosening of the nuts and bolts during useDimensions: Sized to match the bolts and nuts usedUsage:Wire Insertion: The wire is threaded through the slot or hole in the wire buckle.Buckle Placement: The buckle is positioned on the external fixator frame or ring.Bolt Insertion: Bolts are used to secure the wire buckle to the frame or ring.Nut Attachment: Nuts are threaded onto the bolts to secure the wire buckle in place.Washer Use: Washers are placed as needed to distribute load and prevent loosening.Wire Tensioning: The wire is tensioned using the buckle mechanism to ensure proper alignment and stability.Tightening: The assembly is tightened using appropriate tools to ensure stability.These components work together to provide secure and stable fixation in orthopedic external fixator systems, ensuring proper alignment and stabilization of bone fragments during the healing process.

The Double Pin Clamp (8mm) for external fixator systems is a specialized orthopedic surgical instrument used to stabilize bone fragments in complex fractures, deformities, and bone lengthening procedures. This clamp is designed to hold two pins securely, providing enhanced stability and fixation. Here’s an in-depth overview of this surgical clamp:
Components and FeaturesDouble Pin Clamp:
Pin Diameter: Designed to securely hold 8mm diameter pins.Material: Typically made from high-strength stainless steel or titanium, ensuring durability and biocompatibility.Adjustability: Allows for precise positioning and alignment of the pins, which is crucial for accurate bone stabilization.External Fixator System:
Rods/Struts: Connect various clamps and allow for adjustments to the position and tension, facilitating gradual correction of deformities or lengthening of the bone.Pins/Wires: Inserted percutaneously into the bone and secured by the clamps.ApplicationsComplex Fractures: Ideal for stabilizing fractures that are too severe for internal fixation.Limb Lengthening: Used in gradual distraction osteogenesis to achieve desired bone length.Deformity Correction: Correcting angular or rotational deformities in bones.Non-Union Fractures: Treating fractures that have not healed properly with other methods.Bone Transport: Moving bone segments to fill in defects caused by injury, infection, or congenital issues.AdvantagesStability: The double pin design offers superior stability compared to single pin clamps, which is essential for complex reconstructions.Precision: Allows for fine adjustments, critical in gradual correction procedures and ensuring proper alignment.Versatility: Can be used in various locations on the external fixator system, allowing for flexible configuration based on specific surgical needs.ConsiderationsTraining: Proper training for surgeons and surgical staff is essential for the effective use of this external fixator component.Sterilization: All components must be sterilized before use to prevent infections.Patient Monitoring: Regular monitoring and adjustments may be necessary to ensure the fixator remains effective and comfortable for the patient throughout the healing process.SummaryThe Double Pin Clamp (8mm) for external fixator systems is a crucial tool in orthopedic surgery for stabilizing complex fractures, performing bone lengthening, and correcting deformities. Its design provides enhanced stability and precision, making it a versatile and essential component in external fixation procedures.
Typical Instrument Set ContentsDouble Pin Clamps: Multiple clamps designed to hold 8mm diameter pins.Connecting Rods/Struts: Various lengths to connect the clamps and facilitate adjustments.8mm Pins/Wires: Stainless steel or titanium pins for insertion into the bone.Screwdrivers and Wrenches: Tools for tightening and adjusting the clamps and rods.Drill Guides and Drill Bits: For precise placement of pins.Sterilization Trays and Containers: For organizing, sterilizing, and storing the instruments.Procedure OverviewPreparation: Ensure all instruments and pins are sterilized.Pin Insertion: Insert the 8mm pins into the bone under fluoroscopic guidance.Clamp Attachment: Secure the double pin clamps to the pins, ensuring stability.Rod/Strut Connection: Connect the clamps using the rods or struts to form the external frame.Adjustment: Adjust the clamps and rods to achieve optimal alignment and stabilization of the bone fragments.Post-Operative Care: Regularly monitor and adjust the fixator as needed during the healing process, ensuring proper bone healing and alignment.This detailed approach ensures that the Double Pin Clamp (8mm) provides the necessary stability, precision, and flexibility required for effective external fixation in orthopedic procedures.

Full rings made of stainless steel (SS) are crucial components in orthopedic external fixator ring systems, including the Ilizarov fixator. These rings provide robust structural support and allow for complex adjustments in the treatment of limb deformities, fractures, and bone lengthening procedures. Here are the specifications and details for SS orthopedic external fixator full rings:
MaterialStainless Steel (SS): Known for its high strength, durability, corrosion resistance, and biocompatibility, making it ideal for orthopedic applications.DimensionsSize Options: Full rings are available in various diameters to suit different patient anatomies and surgical requirements. Common diameters include:120mm160mm180mm200mm220mm240mmFeaturesPre-Drilled Holes: Uniformly spaced holes around the ring to allow for the attachment of rods, wires, and other components.Smooth Edges: Minimizes soft tissue irritation and reduces the risk of complications.Radiolucent Markings: Some rings may have markings to aid in alignment and positioning under imaging.UsageComplex Limb Procedures: Used in the Ilizarov system and other ring fixator systems for deformity corrections, bone lengthening, and fracture stabilization.Modular System: Can be combined with half rings, 5/8th rings, rods, and other components to create a customized external fixator construct.CompatibilityRods and Wires: Designed to be compatible with various diameters of rods (e.g., 4.0mm, 5.0mm, 6.0mm, 8.0mm) and tensioned wires.Clamps and Hinges: Can be used with different types of clamps and hinges to facilitate precise adjustments and corrections.Additional ConsiderationsSterilization: Must be sterilized before use in surgical procedures.Regulatory Compliance: Should meet relevant medical device regulations and standards for safety and efficacy.AdvantagesHigh Strength: Provides strong and durable support essential for effective orthopedic fixation.Durability: Stainless steel offers superior longevity, critical for long-term orthopedic applications.Versatility: Allows for a wide range of configurations to address different clinical needs.Biocompatibility: Stainless steel is well-tolerated by the body, reducing the risk of adverse reactions.DisadvantagesWeight: Stainless steel rings are heavier than those made from lighter materials like aluminum or titanium, which may impact patient comfort.Complexity: Requires careful planning and expertise to assemble and adjust correctly.Full rings made of stainless steel are integral to the modular and adjustable nature of external fixator systems like the Ilizarov device. They provide the necessary strength and stability for various orthopedic procedures, ensuring precise and customizable treatment plans for individual patient needs.

Features of a Hybrid Right-Angle Clamp:Right-Angle Design: Allows for connection of rods or rods to rings at a 90-degree angle.Hybrid Functionality: Can connect various components such as rods, rings, or both.Adjustable Screws: For securing and fine-tuning the position of the connected components.Material: Typically made from durable and biocompatible materials like stainless steel or titanium.Steps for Using a Hybrid Right-Angle Clamp in an Orthopedic External Fixator:Preoperative Planning:
Conduct thorough imaging studies (X-rays, CT scans) to assess the bone condition.Plan the placement of the rings, rods, and clamps to ensure optimal results.Surgical Preparation:
Sterilize and drape the patient.Mark the insertion points for the fixation pins or wires.Insertion of Fixation Pins/Wires:
Make small incisions at the marked sites.Insert fixation pins or wires through the bone, ensuring they are securely anchored.Assembly of the External Fixator:
Attach the rings and rods around the limb at the appropriate locations.Secure the hybrid right-angle clamps to the rings and rods.Attachment of the Hybrid Right-Angle Clamps:
Position the clamps at the desired right-angle connections between rods and/or rings.Partially tighten the adjustment screws to hold the clamps in place while allowing for further adjustments.Inserting and Securing Rods/Wires:
Guide the rods or wires through the holders in the clamps.Partially tighten the screws to hold the rods or wires in place.Adjusting the Clamp Position:
Fine-tune the alignment and position of the rods or wires using the adjustment screws.Ensure the rods or wires are correctly positioned to provide the desired stabilization and alignment of the fracture or deformity.Final Tightening:
Once the desired position and alignment are achieved, fully tighten the adjustment screws to secure the rods or wires in place.Check the stability of the entire construct to ensure that all components are tightly fastened.Postoperative Care:
Schedule regular follow-up appointments to monitor healing and make necessary adjustments.Educate the patient on how to care for the pin sites and recognize signs of infection.Adjust the fixator gradually for progressive correction if needed.Safety Considerations:Avoid placing pins near joints or major blood vessels.Monitor pin sites regularly for signs of infection.Ensure all components, including the hybrid right-angle clamps, are securely fastened to prevent loosening.Provide clear instructions to the patient on device care and follow-up.Example Setup Using Hybrid Right-Angle Clamps:Preoperative Planning:
Detailed assessment of the bone condition and planning of the device placement.Surgical Preparation:
Sterilization, draping, and marking of insertion points.Insertion of Fixation Pins/Wires:
Proper insertion and securing of fixation pins or wires.Assembly of the External Fixator:
Attachment of the rings, rods, and hybrid right-angle clamps.Attachment of the Hybrid Right-Angle Clamps:
Positioning and partially tightening the hybrid right-angle clamps at the desired connections.Inserting and Securing Rods/Wires:
Guiding the rods or wires through the clamp’s holders and partially tightening the screws.Adjusting the Clamp Position:
Fine-tuning the alignment using the adjustment screws.Final Tightening:
Fully tightening the screws to secure the rods or wires in place.Postoperative Care:
Regular follow-ups, patient education, and necessary adjustments.Illustrative Steps:Prepare the Limb:
Ensure the limb is properly positioned and prepared for surgery.Position the Rings and Rods:
Place the rings and rods around the limb at the appropriate locations.Attach the Hybrid Right-Angle Clamps:
Secure the hybrid right-angle clamps to the rods and rings at the desired right-angle connections.Insert the Rods/Wires:

Orthopedic Carbon Fiber Sheet External Fixator


Carbon Fiber Sheets

• CFS.001 Carbon Fiber Sheet Size:500mm x 320mm, Thickness: 25.40mm (Tolerance on Thickness - ±0.5mm)
• CFS.002 Carbon Fiber Sheet Size:560mm x 500mm, Thickness: 18.25mm (Tolerance on Thickness - ±0.5mm)

Orthopedic carbon fiber sheets are utilized in external fixation systems as structural components to stabilize and support fractured or deformed bone segments. These sheets are typically thin and flat, resembling plates or panels, and are made of carbon fiber material for its strength, lightweight properties, and biocompatibility.
Here's how orthopedic carbon fiber sheets are used in external fixation:
Stabilization: Carbon fiber sheets are positioned over the fractured or deformed bone segments and secured in place using screws or other fixation devices. This creates a stable framework that helps maintain proper alignment and prevents movement of the bone fragments during the healing process.
Load Distribution: The carbon fiber material distributes forces applied to the bone more evenly, reducing the risk of stress concentration at specific points and promoting uniform healing. This is particularly important in weight-bearing bones or areas with complex fractures.
Biocompatibility: Carbon fiber is generally well tolerated by the body, minimizing the risk of adverse reactions or complications. This biocompatibility is essential for promoting a favorable environment for bone healing and reducing the likelihood of implant-related issues.
Radiolucency: Carbon fiber's radiolucent properties allow X-rays and other imaging modalities to pass through without significant obstruction. This enables healthcare providers to monitor the progress of bone healing without the need to remove or adjust the external fixation device, facilitating timely interventions as needed.
Overall, orthopedic carbon fiber sheets in external fixation systems offer a combination of strength, stability, lightweight design, biocompatibility, and radiolucency, contributing to effective treatment outcomes for bone fractures and deformities. They are particularly beneficial in situations where a rigid yet lightweight support structure is needed to facilitate optimal bone healing.

The Orthopedic 2.7mm Dynamic Compression Plate (DCP) SS316L Surgical Implant is a type of plate used in orthopedic surgery for the fixation of bone fractures, particularly in smaller bones or in cases requiring precise stabilization.Material:SS316L Stainless Steel: This material is known for its high strength, excellent corrosion resistance, and biocompatibility. SS316L is widely used in orthopedic implants due to its durability and resistance to degradation.Dimensions:Plate Thickness: 2.7mm.Plate Width: Generally around 10mm to 12mm, although the exact width can vary based on the plate\'s length and design.Length: Available in various lengths to accommodate different surgical needs and anatomical requirements.Design Features:Dynamic Compression Design: The DCP design allows for the application of dynamic compression across the fracture site. This is achieved by using oblong holes in the plate, which enable the screws to be positioned in such a way that compressive forces can be applied to the fracture, promoting better alignment and healing.Hole Diameter: Designed to accommodate 2.7mm screws, which are used to secure the plate to the bone.Number of Holes: The plate typically features multiple holes, with their number varying based on the plate length. This allows for flexible screw placement and optimal fixation.Uniform Hole Spacing: Ensures even distribution of mechanical forces, reducing stress concentrations and enhancing the stability of the fracture fixation.Low-Profile Design: The plate is designed to be low-profile to minimize irritation to surrounding soft tissues and reduce the risk of postoperative complications.Application:Indications: Ideal for the fixation of small bone fractures or osteotomies in areas where precise alignment and stabilization are required. Commonly used in the extremities, including hands, feet, and small long bones.Surgical Use: Employed in procedures where dynamic compression is beneficial for fracture healing. The DCP design allows for effective stabilization of the fracture by applying compressive forces that aid in alignment and bone union.Advantages:Strength and Durability: SS316L provides the necessary mechanical strength to maintain bone stability throughout the healing process, ensuring the implant\'s effectiveness.Corrosion Resistance: The stainless steel material offers excellent resistance to corrosion, contributing to the long-term durability of the implant.Dynamic Compression: The design allows for the application of compressive forces across the fracture site, which promotes better alignment and healing.Anatomical Fit: The plate conforms to the bone structure, providing effective support and reducing the risk of implant migration or loosening.Low-Profile Design: Reduces soft tissue irritation and postoperative discomfort, leading to better patient outcomes.Surgical Benefits:Enhanced Stability: The dynamic compression feature of the plate provides robust support for fractures, improving alignment and stability.Reduced Complications: The biocompatibility and corrosion resistance of SS316L minimize the risk of allergic reactions and implant failure, ensuring safer surgical outcomes.Customizable Fit: Various lengths and hole configurations allow surgeons to select the most appropriate plate for each specific case, optimizing fixation and promoting effective healing.The Orthopedic 2.7mm DCP Plate SS316L Surgical Implant is a valuable tool for fracture fixation in orthopedic surgery. Its design and material provide the necessary support and stability for successful bone healing, making it an effective choice for managing small bone fractures and other related surgical needs.

Orthopedic Veterinary Full Ring External Fixator

Orthopedic veterinary full ring external fixators are specialized devices used in veterinary orthopedic surgery to stabilize fractures, correct deformities, or assist in bone healing in animals. Unlike half-ring fixators, which have an open design, full-ring fixators consist of complete rings encircling the limb.
Here are some key features and considerations of orthopedic veterinary full ring external fixators:
Stability: Full-ring fixators provide excellent stability and support to the affected limb due to their complete encirclement. This stability is crucial for promoting proper alignment and bone healing in veterinary patients.
Versatility: Full-ring external fixators can be used in a wide range of orthopedic conditions and in various animal species, from small animals like cats and dogs to larger animals like horses and livestock.
Customization: The size of the rings can be customized to fit the specific anatomy of the animal patient. This ensures proper fit and optimal stabilization during the surgical procedure and throughout the healing process.
Fixation: The rings of the external fixator are typically attached to the bone using pins or wires inserted above and below the fracture site. These fixation methods provide secure stabilization while allowing for necessary adjustments and monitoring.
Biocompatibility: Materials used in veterinary full-ring external fixators are chosen for their biocompatibility to minimize the risk of adverse reactions or complications in animal patients.
Radiolucency: Full-ring external fixators are designed to be radiolucent, allowing for clear imaging of the affected area during follow-up appointments and assessments without obstruction from the fixator.
Overall, orthopedic veterinary full-ring external fixators play a crucial role in the treatment of orthopedic conditions in animals, providing stable fixation and support for fractured or deformed bones, ultimately aiding in the animal's recovery and return to normal function.

The Orthopedic One Third Tubular Plate 3.5mm made from SS316L is a surgical implant used primarily for fracture fixation in various bones. Here are the general specifications:
Specifications:Material: Stainless Steel 316L (SS316L)Plate Thickness: Approximately 3.5mmNumber of Holes: Varies (commonly available with 4, 6, 8, or 10 holes, but can be customized)Length: Varies depending on the number of holes, typically between 50mm to 150mmHole Diameter: Designed to accommodate 3.5mm cortical screwsDesign:One third tubular plate, providing partial coverage around the bonePre-contoured for anatomical fit, reducing the need for bending during surgeryRounded edges to minimize soft tissue irritationApplication:Used in the fixation of fractures in small bones, particularly in the forearm, fibula, or other small long bones.Can be used in conjunction with other fixation devices or alone.Features:Corrosion Resistance: High resistance to corrosion due to SS316L material, suitable for long-term implantation.Biocompatibility: SS316L is biocompatible, reducing the risk of adverse reactions.This implant is typically used in orthopedic surgeries to stabilize and support bone fractures, allowing proper alignment and healing.

Orthopedic external fixators consist of various components, including thick washers, nuts, and bolts, which are crucial for securing and stabilizing the fixator assembly. Here are the typical specifications and details for each component:
Thick WashersMaterial: Stainless steel or titanium, chosen for their strength and biocompatibility.Thickness: Typically around 2mm, but can vary depending on the application.Inner Diameter (ID): Should match the diameter of the bolts being used. Common sizes include 2.5mm, 3mm, 4mm, etc.Outer Diameter (OD): Designed to effectively distribute the load and prevent damage to the bone and fixator structure.NutsMaterial: Stainless steel or titanium, for durability and biocompatibility.Thread Size: Corresponds to the bolt size, commonly M2.5, M3, M4, etc.Type: Lock nuts are often preferred in orthopedic applications to ensure they do not loosen under load. Types can include hex nuts, flange nuts, and self-locking nuts.BoltsMaterial: Stainless steel or titanium.Diameter: Typically available in sizes such as 2.5mm, 3mm, 4mm, etc.Length: Varies based on the specific application, ensuring appropriate penetration and stabilization.Thread Type: Coarse threads are often used for better grip in the bone or frame; some may have a self-tapping design.General SpecificationsBiocompatibility: All materials must be biocompatible to avoid adverse reactions in the body.Sterilization: Components must withstand sterilization processes, usually through autoclaving.Strength and Durability: Must endure mechanical stresses during bone stabilization and healing.

In orthopedic external fixators, side-slotted washers, along with nuts and bolts, are critical for ensuring stability and proper alignment of the fixation device. Here's a detailed look at these components:
Side-Slotted WashersMaterial: Typically made from stainless steel or titanium for strength and biocompatibility.Design: Features a slot on one side to allow easy installation and removal without completely disassembling the construct. This slot also helps in adjusting the position of the fixator without removing the bolt entirely.Thickness: Usually around 2mm, but this can vary depending on the specific requirements.Inner Diameter (ID): Should match the diameter of the bolts being used (e.g., 2.5mm, 3mm, 4mm).Outer Diameter (OD): Large enough to distribute the load effectively and provide stability.NutsMaterial: Stainless steel or titanium.Thread Size: Should match the bolt size; common sizes include M2.5, M3, M4, etc.Type: Lock nuts are preferred to prevent loosening. Options include hex nuts, flange nuts, and self-locking nuts.BoltsMaterial: Stainless steel or titanium.Diameter: Common diameters are 2.5mm, 3mm, 4mm, etc.Length: Varies based on the specific application; needs to be long enough to penetrate the fixation structure and bone.Thread Type: Coarse threads for better grip, with some designs featuring self-tapping threads for bone penetration.WashersMaterial: Stainless steel or titanium.Thickness: Typically around 2mm.Inner Diameter (ID): Matches the bolt size.Outer Diameter (OD): Sufficient to distribute the load and prevent damage to the bone and fixator structure.General SpecificationsBiocompatibility: All materials must be biocompatible to avoid adverse reactions.Sterilization: Components must be able to withstand sterilization processes, such as autoclaving.Strength and Durability: Must be capable of withstanding mechanical stresses during bone healing and stabilization.These components are integral to the performance and reliability of orthopedic external fixators, ensuring they provide the necessary support and stability during the healing process. If you need more specific information or detailed specifications for a particular application, please let me know!

An orthopedic washer for 3.5mm locking head screws is an implant component used in orthopedic surgeries, typically in conjunction with locking plates and screws. This washer serves to enhance the stability and fixation of the screw by distributing the load more evenly, preventing bone damage, and improving the overall performance of the screw-plate construct.
Key Features of the Orthopedic Washer for 3.5mm Locking Head Screw:Material:
SS316L Stainless Steel or Titanium:These materials are biocompatible and corrosion-resistant, making them ideal for use in the human body.SS316L is a medical-grade stainless steel known for its excellent resistance to corrosion and mechanical strength.Titanium is lightweight, durable, and highly biocompatible, making it suitable for orthopedic applications where long-term stability is important.Design:
Washer Shape: The washer is typically circular or ring-shaped with a central hole to accommodate the 3.5mm locking head screw.Load Distribution: The washer helps distribute the forces exerted on the screw, preventing the screw head from digging into the bone or plate, which can lead to complications such as screw loosening or bone irritation.Flat or Conical Shape: The washer can either be flat or slightly conical, depending on the surgical application and the desired fit between the screw and the bone.Size: The washer is specifically designed for 3.5mm locking head screws, ensuring a precise fit and optimal function in the fixation construct.Applications:
Fracture Fixation: Washers are often used in conjunction with locking screws to improve the stability of the fixation, particularly in areas where the bone may be weak or the screw placement requires additional support.Spinal Surgery: Used in spinal fixation surgeries to improve screw stability and prevent bone damage around the screw insertion site.Joint Reconstruction: In procedures such as hip or knee reconstruction, washers help distribute the forces evenly and ensure the screws maintain their position for proper healing.Osteotomy: Used in osteotomy procedures, where bones are cut and realigned, washers help secure the fixation and ensure that the screws remain in the correct position during healing.Features Specific to the 3.5mm Locking Head Screw Washer:
3.5mm Compatibility: The washer is specifically designed to be used with 3.5mm locking head screws, ensuring compatibility with locking plates and screws in the same size range.Locking Head Compatibility: The washer may be specially shaped to fit around the locking head screw, ensuring a secure connection between the screw, washer, and plate.Enhancing Screw Stability: The washer helps to maintain the stability of the locking screw by providing additional support, which is particularly beneficial when using screws in cancellous bone or other weak bone structures.Advantages of Using a Washer for 3.5mm Locking Head Screw:Prevents Bone Damage:
The washer prevents the locking screw from damaging or compressing the bone around the screw head. By evenly distributing the pressure, the washer helps protect the bone from stress concentration, which could lead to bone resorption or necrosis.Improved Stability:
Washers enhance the stability of the fixation by distributing the load across a larger surface area, which helps prevent screw loosening over time, especially in osteoporotic or weakened bone.Prevents Screw Head Pull-Through:
The washer ensures that the screw head does not pull through the plate, which is particularly important in cancellous bone or when the screw is inserted into areas with less cortical support.Reduced Risk of Complications: