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Views: 0 Author: Site Editor Publish Time: 2026-07-13 Origin: Site
Introduction
The Doubled-Suture Nice Knot, commonly known as the Nice Knot, has become one of the most influential suture fixation techniques in modern orthopedic surgery. Originally developed to improve fixation during shoulder reconstruction, it has evolved into a versatile solution for fracture fixation, tendon repair, ligament reconstruction, and minimally invasive orthopedic procedures.
Unlike conventional surgical knots, the Nice Knot combines a double-stranded high-strength suture, a sliding mechanism, and a self-locking configuration. This unique design enables surgeons to gradually adjust compression during surgery while maintaining secure fixation after locking. The technique provides excellent biomechanical stability with minimal implant prominence, making it particularly attractive in both open and arthroscopic procedures.
Over the past two decades, the Nice Knot has expanded far beyond shoulder surgery. It is now widely reported in the treatment of:
Proximal humerus fractures
Greater tuberosity fractures
Clavicle fractures
Inferior pole patella fractures
Femoral neck fractures
Butterfly fragment fixation
Revision arthroplasty
Arthroscopic tendon and ligament repair
As high-strength sutures continue to replace traditional metallic fixation in selected orthopedic procedures, the Nice Knot has gained increasing recognition for its simplicity, reliability, and versatility.
This evidence-based review summarizes the history, biomechanical principles, step-by-step surgical technique, clinical applications, advantages, limitations, and future perspectives of the Doubled-Suture Nice Knot, providing orthopedic surgeons with a comprehensive understanding of this increasingly important fixation method.
The Nice Knot, formally known as the Doubled-Suture Nice Knot, is a specialized sliding and self-locking surgical knot designed for orthopedic fixation using doubled high-strength sutures.
Unlike conventional sliding knots that rely on a single strand of suture, the Nice Knot employs two parallel strands that distribute tensile forces more evenly across the repair construct. This double-strand configuration significantly improves fixation strength while reducing the risk of suture breakage during tensioning.
One of its defining characteristics is its ability to provide controlled progressive compression. Surgeons can gradually tighten the construct after reduction has been achieved, allowing precise adjustment before final locking. Once secured, the knot resists loosening while maintaining stable compression across fractures, osteotomies, or soft tissue repairs.
Today, the Nice Knot is commonly used in both open orthopedic surgery and arthroscopic procedures, particularly when stable fixation, adjustable compression, and minimal hardware irritation are desired.
The development of the Nice Knot represents an important milestone in the evolution of suture-based orthopedic fixation. Its introduction addressed several limitations associated with traditional metallic wires and conventional sliding knots, particularly in fracture fixation around the shoulder.
The Nice Knot was developed by Professor Pascal Boileau, an internationally recognized French shoulder surgeon and pioneer in shoulder reconstruction.
The technique was named after Nice, the city on the French Riviera where Professor Boileau has spent much of his academic and clinical career. Contrary to what many surgeons initially assume, the name "Nice Knot" refers to the geographical location rather than the English adjective "nice."
Professor Boileau introduced the technique to improve fixation of greater tuberosity fragments during hemiarthroplasty for proximal humerus fractures. The original concept emphasized combining a doubled high-strength suture with a sliding, self-locking knot capable of delivering controlled compression without the disadvantages of metallic cerclage wires.
Since its publication, the technique has been rapidly adopted by orthopedic surgeons worldwide and has become one of the most frequently cited suture fixation methods in orthopedic trauma and sports medicine.
Before the introduction of the Nice Knot, many fracture fixation techniques relied on stainless steel wires or traditional cerclage constructs. Although effective in providing compression, these methods presented several disadvantages:
Metal irritation to surrounding soft tissues
Difficult intraoperative tension adjustment
Risk of wire fatigue and breakage
Prominent implants requiring secondary removal
Limited compatibility with arthroscopic procedures
Professor Boileau sought to develop a fixation method that combined the strength of metallic fixation with the flexibility and soft tissue friendliness of modern high-strength sutures.
The resulting Nice Knot offered several innovative features:
Progressive tightening during surgery
Adjustable compression before final locking
Excellent knot security
Low-profile construct
Compatibility with minimally invasive techniques
Reusable doubled-suture configuration
These characteristics quickly made the technique attractive not only for shoulder surgery but also for trauma surgery throughout the musculoskeletal system.
Since its introduction in the early 2000s, the clinical indications for the Nice Knot have expanded considerably.
Initially, the technique was primarily used in shoulder surgery for:
Greater tuberosity fixation
Proximal humerus fractures
Shoulder hemiarthroplasty
Rotator cuff repair
These procedures benefited from the knot's ability to maintain stable fixation while minimizing soft tissue irritation.
As surgeons gained experience, the Nice Knot was increasingly applied to trauma surgery involving:
Clavicle fractures
Butterfly fragment fixation
Patellar fractures
Femoral neck fractures
Osteotomy fixation
Cerclage-assisted fracture reduction
The introduction of stronger suture materials, including FiberWire®, Orthocord®, and similar ultra-high-molecular-weight polyethylene sutures, further enhanced the biomechanical performance of the construct.
Today, the Nice Knot has become a versatile fixation technique used across multiple orthopedic subspecialties, including:
Orthopedic trauma
Sports medicine
Shoulder surgery
Arthroscopic surgery
Revision arthroplasty
Pediatric orthopedic surgery
Periprosthetic fracture fixation
Its ability to combine reliable fixation with minimally invasive surgical principles has made it an increasingly valuable alternative to traditional metallic cerclage techniques.
The widespread adoption of the Nice Knot is largely driven by its favorable biomechanical characteristics. Unlike conventional sliding knots that depend on a single strand of suture, the Doubled-Suture Nice Knot combines a double-strand construct, controlled sliding compression, and a self-locking mechanism. These features allow the knot to provide stable fixation while maintaining precise intraoperative tension control.
Experimental and clinical studies have demonstrated that the Nice Knot can achieve fixation strength comparable to traditional metallic cerclage constructs in selected applications, while offering improved soft tissue compatibility and easier tension adjustment.
The hallmark of the Nice Knot is the use of two parallel suture strands rather than a single strand.
Biomechanical advantages include:
Increased load-sharing between strands
Reduced peak stress on each individual strand
Lower risk of suture breakage during tightening
Improved resistance to cyclic loading
Greater overall construct strength
Because both strands participate in load transmission, the effective strength of the fixation construct is substantially higher than that of a comparable single-strand sliding knot.
The Nice Knot functions as a sliding knot during initial tightening.
This allows the surgeon to:
Reduce fracture fragments gradually
Adjust tissue approximation precisely
Apply progressive compression
Correct reduction before final locking
In open surgery, compression is achieved by separating the free limbs of the suture. In arthroscopic procedures, the free limbs are pulled toward the surgeon to generate controlled tension.
This adjustability is one of the major advantages over traditional metallic wire fixation, where compression is often difficult to modify once the wire has been twisted.
After the desired compression is obtained, the knot transitions from a sliding configuration into a self-locking construct.
The locking mechanism:
Prevents reverse slippage
Maintains compression under cyclic motion
Improves knot security
Enhances fixation stability during rehabilitation
Additional alternating tension applied to the free limbs further increases locking security and minimizes the possibility of postoperative loosening.
A key feature of the Nice Knot is its ability to provide incremental compression.
Surgeons can repeatedly tighten the construct until optimal reduction is achieved. This is particularly useful in:
Comminuted fractures
Patellar inferior pole fractures
Greater tuberosity fractures
Clavicle butterfly fragments
Osteotomy fixation
Because compression can be adjusted gradually, the risk of over-tightening and fragment displacement is reduced.
Several factors contribute to its superior performance:
Feature | Biomechanical Effect |
|---|---|
Double-strand suture | Increases tensile strength |
Higher internal friction | Improves knot security |
Sliding configuration | Allows precise reduction |
Self-locking mechanism | Prevents postoperative slippage |
Progressive tightening | Provides controlled compression |
Professor Boileau's original investigations demonstrated that the doubled-suture construct offers excellent loop security while maintaining a low-profile knot that is less irritating to surrounding soft tissues.
The following sequence describes the standard technique for creating a Doubled-Suture Nice Knot.
Fold a high-strength suture in half.
This creates:
One looped end
Two free limbs
The doubled configuration forms the foundation of the Nice Knot's enhanced strength.
Using a suture passer, shuttle device, or attached needle, pass the doubled suture through the target tissue, tendon, ligament, or bone tunnel.
Common examples include:
Rotator cuff tissue
Patellar tendon
Greater tuberosity fragment
Clavicle fracture fragment
Patella bone tunnels
Hold the looped end with one hand and pass both free limbs through the loop.
This forms the initial square knot component of the construct.
Open the loop and pass the two free limbs through it a second time.
This additional passage increases friction within the construct and contributes to the knot's self-locking behavior.
Pull the two free limbs simultaneously to slide the knot toward the tissue or fracture fragment.
During this step:
Reduction can be adjusted
Compression can be increased gradually
Fragment position can be fine-tuned
Soft tissue tension can be balanced
After optimal compression is achieved, alternately tension each free limb to lock the knot securely.
Additional half-hitches or square knots may be added according to surgeon preference and the specific clinical application.
Use high-strength braided sutures whenever possible.
Maintain equal tension on both strands during sliding.
Avoid twisting the doubled strands before tightening.
Reduce fracture fragments before final locking.
Add supplementary locking throws in high-load situations.
In comminuted fractures, combine the Nice Knot with bone tunnels or tension band constructs when additional stability is required.
Use high-strength braided sutures whenever possible.
Maintain equal tension on both strands during sliding.
Avoid twisting the doubled strands before tightening.
Reduce fracture fragments before final locking.
Add supplementary locking throws in high-load situations.
In comminuted fractures, combine the Nice Knot with bone tunnels or tension band constructs when additional stability is required.
Originally introduced for shoulder surgery, the Doubled-Suture Nice Knot has evolved into a versatile fixation technique used across multiple orthopedic subspecialties. Its combination of high fixation strength, adjustable compression, minimal implant prominence, and excellent soft tissue compatibility has made it an attractive alternative to traditional metallic cerclage wiring in carefully selected cases.
Today, the Nice Knot is routinely incorporated into fracture fixation, tendon repair, osteotomy stabilization, and arthroscopic reconstruction procedures. As high-strength suture technology continues to advance, its indications are expected to expand even further.
The Nice Knot was originally developed to improve fixation during the treatment of proximal humerus fractures, particularly when tuberosity reconstruction is required during hemiarthroplasty.
Restoring the anatomical position of the greater and lesser tuberosities is essential for preserving rotator cuff function and maximizing postoperative shoulder mobility. Conventional metallic wires may provide adequate fixation but can cause soft tissue irritation, wire fatigue, or migration.
Using doubled high-strength sutures secured with the Nice Knot offers several advantages:
Stable tuberosity fixation
Progressive intraoperative compression
Lower risk of implant irritation
Improved biological fixation
Reduced dependence on metallic cerclage wires
These characteristics have made the Nice Knot a widely accepted adjunct in modern proximal humerus reconstruction.
Isolated greater tuberosity fractures represent one of the most common indications for the Nice Knot.
Whether performed through an open approach or arthroscopically, the technique enables surgeons to securely compress the avulsed fragment against the humeral head while preserving the attached rotator cuff.
Compared with traditional fixation techniques, the Nice Knot offers:
Controlled reduction
Excellent fragment compression
Reliable fixation of small bone fragments
Reduced soft tissue disruption
Improved compatibility with minimally invasive surgery
Because compression can be adjusted progressively, surgeons can fine-tune fragment positioning before final locking.
The Nice Knot has become increasingly popular in arthroscopic rotator cuff repair, particularly in transosseous and knot-based fixation techniques.
Its sliding configuration allows gradual approximation of the torn tendon to the greater tuberosity footprint while maintaining excellent knot security after final locking.
Potential advantages include:
Precise tension adjustment
Secure tendon compression
Reduced knot slippage
Excellent loop security
Compatibility with arthroscopic instrumentation
Although knotless anchor systems have gained popularity, the Nice Knot remains an effective option when robust suture fixation is preferred.
The Nice Knot has also demonstrated significant value in the management of clavicle fractures, particularly in fractures containing small butterfly fragments or comminuted segments.
Traditional metallic cerclage wires may compromise periosteal blood supply and increase hardware irritation. By contrast, doubled high-strength sutures provide stable fragment reduction while minimizing additional soft tissue trauma.
Clinical applications include:
Temporary reduction during plate fixation
Cerclage-assisted fragment stabilization
Bridge fixation of butterfly fragments
Minimally invasive fracture reduction
When combined with locking plate fixation, the Nice Knot can facilitate anatomical reduction while preserving biological healing potential.
One of the fastest-growing applications of the Nice Knot is the treatment of inferior pole patella fractures.
These fractures are frequently comminuted and often involve disruption of the patellar tendon insertion, making stable fixation particularly challenging.
Recent surgical techniques combine:
Krackow suture
Nice Knot fixation
Modified tension band wiring
This hybrid construct allows the Nice Knot to neutralize quadriceps tension before definitive tension band fixation is applied.
Potential advantages include:
Improved fixation of small distal fragments
Preservation of patellar height
Earlier knee mobilization
Reduced fixation failure
Enhanced biomechanical stability
Compared with partial patellectomy, this strategy preserves native patellar anatomy and helps maintain extensor mechanism function.
Although less commonly reported, the Nice Knot has been incorporated into selected femoral neck fracture fixation techniques.
Its primary role is to provide supplementary cerclage fixation during reduction of complex fracture patterns or to assist in maintaining reduction before definitive screw fixation.
Potential benefits include:
Temporary reduction assistance
Controlled fragment compression
Preservation of soft tissue integrity
Minimal implant prominence
Further biomechanical and clinical studies are still needed to define its long-term role in femoral neck fracture management.
Revision shoulder arthroplasty often requires secure fixation of osteotomies and tuberosity fragments in compromised bone.
The Nice Knot provides an effective alternative to metallic cerclage because it allows:
Multiple suture passes
Adjustable tension
Stable fixation
Reduced hardware-related complications
Its flexibility is particularly valuable when bone quality is poor or when multiple fixation constructs must coexist.
Small butterfly fragments frequently present a challenge during fracture fixation because conventional screws cannot adequately capture the fragment.
The Nice Knot can be used as a cerclage construct to stabilize these fragments while preserving their blood supply.
Common indications include:
Clavicle fractures
Distal fibula fractures
Tibial shaft fractures
Periprosthetic fractures
Because the construct distributes compression over a broader area, it reduces the risk of fragment fragmentation during tightening.
Several orthopedic centers have reported encouraging results using the Nice Knot in pediatric supracondylar humerus fractures and other pediatric trauma procedures.
Advantages in children include:
Reduced implant irritation
Preservation of growing bone
Lower risk of secondary surgery
Smaller surgical exposure
Less soft tissue disruption
Although pediatric indications remain relatively limited, early clinical outcomes have been promising.
As stronger suture materials and minimally invasive techniques continue to evolve, the indications for the Nice Knot are expanding rapidly.
Emerging applications include:
Periprosthetic fracture fixation
Osteotomy stabilization
Pelvic fracture reconstruction
Elbow fracture fixation
Foot and ankle surgery
Tendon augmentation procedures
Ligament reconstruction
Future biomechanical research will likely further define the optimal role of the Nice Knot in complex orthopedic reconstruction.
Several factors explain the rapid global adoption of the Doubled-Suture Nice Knot:
Advances in ultra-high-strength suture materials
Increased emphasis on biological fixation
Growth of minimally invasive orthopedic surgery
Reduced reliance on metallic cerclage wires
Improved understanding of soft tissue preservation
Expanding indications in sports medicine and trauma surgery
Rather than replacing conventional fixation techniques entirely, the Nice Knot has become an important adjunct that enhances fracture reduction, soft tissue repair, and biological healing across a wide range of orthopedic procedures.
The rapid adoption of the Doubled-Suture Nice Knot is largely attributed to its combination of biomechanical strength, surgical versatility, and biological compatibility. Compared with many traditional fixation methods, the technique offers several important clinical advantages that benefit both surgeons and patients.
The doubled-suture configuration distributes tensile forces across two parallel strands, significantly increasing the overall strength of the construct.
Compared with conventional single-strand sliding knots, the Nice Knot provides:
Higher tensile strength
Improved resistance to cyclic loading
Better load distribution
Reduced risk of suture breakage
When combined with modern ultra-high-molecular-weight polyethylene (UHMWPE) sutures, the construct can achieve excellent fixation stability suitable for many fracture fixation and tendon repair procedures.
One of the greatest advantages of the Nice Knot is its ability to deliver controlled, progressive compression.
Unlike stainless steel wire, which becomes difficult to adjust once twisted, the Nice Knot allows surgeons to:
Fine-tune fracture reduction
Gradually increase compression
Correct fragment alignment before final locking
Optimize soft tissue tension
This flexibility is particularly valuable when treating comminuted fractures or repairing delicate soft tissues.
After the sliding phase, the Nice Knot converts into a secure self-locking construct.
This provides several benefits:
Reduced postoperative loosening
Reliable maintenance of compression
Excellent loop security
Stable fixation during early rehabilitation
Properly tied Nice Knots demonstrate excellent resistance to slippage under physiological loading conditions.
Because the Nice Knot relies on high-strength sutures instead of metallic wires, it minimizes implant prominence around superficial anatomical regions.
Potential benefits include:
Less irritation of surrounding tendons
Reduced soft tissue inflammation
Improved patient comfort
Lower incidence of symptomatic hardware
This advantage is particularly important in areas with limited soft tissue coverage, such as the clavicle and patella.
The Nice Knot is suitable for both open and arthroscopic procedures.
Its low-profile design and sliding mechanism make it compatible with:
Shoulder arthroscopy
Sports medicine procedures
Minimally invasive fracture fixation
Percutaneous reduction techniques
This versatility has contributed significantly to its growing popularity.
Unlike metallic cerclage wires, which may require removal because of irritation or breakage, high-strength sutures are generally well tolerated.
As a result, many patients can avoid an additional implant removal procedure, reducing:
Surgical costs
Recovery time
Risk of complications
Patient discomfort
Although the Nice Knot offers numerous advantages, it is not a universal replacement for traditional fixation methods. Understanding its limitations is essential for selecting the appropriate surgical indication.
Successful application depends on proper surgical technique.
Inadequate knot formation may result in:
Knot slippage
Uneven compression
Loss of reduction
Construct failure
Surgeons should become familiar with the technique before applying it in complex clinical cases.
The biomechanical performance of the Nice Knot is closely related to the characteristics of the suture material.
High-performance braided sutures are generally recommended because inferior materials may:
Stretch excessively
Lose tension over time
Exhibit reduced abrasion resistance
Although versatile, the Nice Knot cannot replace rigid internal fixation in every fracture pattern.
Highly unstable injuries with significant axial loading may still require:
Locking plates
Intramedullary nails
Cannulated screws
Conventional tension band constructs
In many situations, the Nice Knot functions best as an adjunct rather than a standalone fixation method.
While numerous clinical reports have demonstrated favorable outcomes, high-quality randomized controlled trials remain relatively limited for certain indications.
Further research is needed to establish:
Long-term durability
Comparative effectiveness
Cost-effectiveness
Optimal indications across orthopedic subspecialties
Choosing between the Nice Knot and conventional stainless steel wire depends on fracture morphology, surgical objectives, and surgeon preference.
The following comparison summarizes the key differences.
Feature | Nice Knot | Stainless Steel Wire |
|---|---|---|
Fixation Strength | Excellent | Excellent |
Compression Adjustment | Progressive and adjustable | Limited after twisting |
Soft Tissue Irritation | Low | Moderate to high |
Implant Prominence | Minimal | Relatively prominent |
Arthroscopic Compatibility | Excellent | Poor |
Learning Curve | Moderate | Familiar to most surgeons |
Secondary Implant Removal | Rarely required | Frequently required |
Biological Fixation | Excellent | Moderate |
Suitable for Minimally Invasive Surgery | Yes | Limited |
Clinical Insight: Rather than replacing stainless steel wire entirely, the Nice Knot complements modern fixation strategies by providing a biologically friendly alternative in selected fracture and soft tissue repair scenarios.
Based on published clinical experience, several technical considerations can improve surgical outcomes.
Use high-strength braided orthopedic sutures specifically designed for fracture fixation or tendon repair. The mechanical performance of the construct depends heavily on suture quality.
The sliding mechanism allows gradual adjustment, but definitive locking should only be performed after satisfactory reduction has been confirmed.
Apply equal traction to both free limbs during tightening to ensure symmetrical compression and prevent uneven loading.
Avoid excessive compression of surrounding tendons, ligaments, or neurovascular structures when tightening the construct.
In highly comminuted fractures, combine the Nice Knot with plates, screws, K-wires, or tension band constructs to enhance overall stability.
Even experienced surgeons may encounter technical challenges when first adopting the Nice Knot.
Common pitfalls include:
Twisting the doubled suture strands before tightening
Locking the knot before achieving complete reduction
Using low-strength suture materials
Unequal tension during sliding
Inadequate supplementary fixation in highly unstable fractures
Excessive tension leading to tissue strangulation
Recognizing and avoiding these errors can significantly improve fixation quality and reduce postoperative complications.
The Doubled-Suture Nice Knot is primarily used for fracture fixation, tendon repair, ligament reconstruction, osteotomy stabilization, and arthroscopic procedures. Originally developed for shoulder surgery, it is now widely applied in orthopedic trauma, sports medicine, and reconstructive surgery.
The Nice Knot was developed by Professor Pascal Boileau, a renowned French shoulder surgeon. The technique was named after Nice, the city in southern France where Professor Boileau practices, rather than the English word "nice."
The term Doubled-Suture refers to the use of two parallel strands of high-strength suture, which increase fixation strength and improve load distribution. The name Nice Knot comes from the French city of Nice, where the technique was developed.
Biomechanical studies suggest that the doubled-suture configuration improves knot security, increases resistance to cyclic loading, and reduces the risk of suture breakage compared with many traditional single-strand sliding knots.
Not entirely. While the Nice Knot offers excellent soft tissue compatibility and adjustable compression, stainless steel wire remains appropriate for certain fracture patterns requiring rigid fixation. In many clinical situations, the Nice Knot serves as a complementary fixation technique rather than a complete replacement.
Yes. One of the major advantages of the Nice Knot is its excellent compatibility with arthroscopic procedures. Its sliding mechanism allows surgeons to adjust tension precisely while working through minimally invasive portals.
Current clinical applications include:
Proximal humerus fractures
Greater tuberosity fixation
Rotator cuff repair
Clavicle fractures
Inferior pole patella fractures
Femoral neck fractures
Butterfly fragment fixation
Revision shoulder arthroplasty
Pediatric fracture fixation
Arthroscopic soft tissue reconstruction
As orthopedic surgery continues to evolve toward biological fixation and minimally invasive techniques, the role of the Nice Knot is expected to expand further.
Several emerging trends may influence its future applications:
The development of next-generation braided sutures with improved tensile strength and abrasion resistance will likely enhance the biomechanical performance of the Nice Knot, particularly in high-load fracture fixation.
Although knotless anchor systems have become increasingly popular in sports medicine, the Nice Knot continues to provide advantages in situations requiring adjustable compression and secure fixation. Future hybrid techniques may combine the strengths of both concepts.
As percutaneous fracture fixation techniques become more common, the Nice Knot may play a larger role in assisting reduction while minimizing additional soft tissue disruption.
Advances in robotic-assisted surgery, computer navigation, and patient-specific instrumentation may improve the precision of fracture reduction and optimize the use of suture-based fixation techniques, including the Nice Knot.
Future multicenter studies with larger patient populations will help clarify:
Long-term clinical outcomes
Comparative biomechanical performance
Cost-effectiveness
Procedure-specific indications
Standardized surgical protocols
These investigations will further define the role of the Nice Knot within modern orthopedic practice.
The Doubled-Suture Nice Knot represents one of the most important advances in modern suture-based orthopedic fixation. Its unique combination of a double-strand construct, progressive sliding compression, and self-locking mechanism provides surgeons with a reliable and versatile fixation option across a wide range of orthopedic procedures.
Originally designed for shoulder reconstruction, the technique has evolved into an effective solution for fracture fixation, tendon repair, ligament reconstruction, and minimally invasive surgery. Clinical experience has demonstrated its value in treating proximal humerus fractures, greater tuberosity fractures, clavicle fractures, inferior pole patella fractures, revision shoulder arthroplasty, and many other orthopedic conditions.
Compared with traditional metallic cerclage techniques, the Nice Knot offers several important advantages, including improved soft tissue preservation, adjustable compression, lower implant prominence, and excellent compatibility with modern minimally invasive surgical techniques. While it is not intended to replace rigid fixation methods in every situation, it has become an invaluable adjunct that supports biological fixation principles and promotes stable healing.
As high-strength suture technology continues to advance and clinical evidence grows, the Nice Knot is expected to remain an essential technique in orthopedic trauma and sports medicine, offering surgeons a flexible, reproducible, and biologically friendly approach to fracture and soft tissue fixation.
Successful application of the Nice Knot relies not only on surgical technique but also on the quality and compatibility of the supporting orthopedic instruments.
At TOOLMED, we provide a comprehensive range of orthopedic trauma and sports medicine solutions designed to support modern fracture fixation techniques, including procedures assisted by the Nice Knot.
Our product portfolio includes:
Orthopedic instrument sets
High-precision K-wire systems
Cannulated drills
Bone reduction instruments
Locking plate systems
Trauma fixation implants
Sports medicine instruments
Customized OEM and ODM orthopedic solutions
Designed for hospitals, distributors, and orthopedic device partners worldwide, TOOLMED products are manufactured under strict quality management systems to ensure reliable performance in demanding surgical environments.
If you are looking for orthopedic implants or surgical instrument solutions compatible with advanced fixation techniques, our team is ready to support your clinical and business needs.
Boileau P, et al. The Doubled-Suture Nice Knot. Journal of Bone and Joint Surgery.
Boileau P, et al. Techniques for tuberosity fixation in proximal humeral fractures.
Yang X, et al. Clinical outcomes of separate vertical wiring for inferior pole patellar fractures.
Gao ZX, Long NJ, Yao K, et al. A Novel Technique for the Treatment of Inferior Pole Fractures of the Patella: A Preliminary Report. Orthopaedic Surgery. 2022.
Additional contemporary studies on high-strength suture fixation, arthroscopic reconstruction, and orthopedic trauma techniques.
