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Pure Nylon Low Melting Yarn at 110°C is a thermo-fusible yarn developed for textile and industrial applications that require reliable bonding, high tenacity, soft handling, and controlled thermal activation. Made from 100% copolyamide-based nylon, this functional yarn acts as a bonding component when exposed to suitable heat or steam. After melting and cooling, it forms stable bonding points between surrounding fibers, yarns, fabrics, or composite materials.
Unlike conventional adhesive systems, the yarn distributes bonding material directly through the textile structure. This approach can reduce the need for liquid glues, solvent-based systems, hot-melt powders, or additional coating operations. It can also help manufacturers produce cleaner, softer, and more flexible finished products.
The product is available in multiple counts, including 20D, 30D, 40D, 50D, 70D, 100D, 150D, 200D, and 300D, subject to order confirmation and production requirements. It can be used in 3D knitted fabrics, chenille yarn, lingerie ribbons, lace, bonded sewing thread, seamless underwear, ropes, cable wire coverings, interlinings, nonwovens, and other specialty textile structures.
With a controlled melting point of approximately 110°C, this yarn is positioned between low-temperature bonding materials and higher-temperature engineering fibers. It offers a practical balance between processing efficiency, bonding performance, flexibility, and material compatibility.
Pure Nylon Low Melting Yarn is a functional yarn designed to soften and melt at a controlled temperature near 110°C. Before activation, it can be processed as a regular yarn through winding, knitting, weaving, sewing, wrapping, or blending operations. During thermal processing, the low-melting component becomes fluid enough to penetrate nearby fiber spaces. When the temperature decreases, the material solidifies and creates bonding points throughout the structure.
The product combines the characteristics of nylon with the functionality of a hot-melt bonding agent. Nylon contributes strength, abrasion resistance, flexibility, and a soft hand feel. The controlled low-melting formulation allows activation at a moderate temperature compared with standard high-melting nylon fibers.
In practical use, the yarn may be applied independently or combined with other yarns and fibers. The appropriate blend ratio depends on the required bonding strength, fabric construction, thickness, process temperature, and end-use performance. Because every production line has different heating efficiency and line speed, laboratory or pilot trials are recommended before full-scale production.
The yarn is especially useful where manufacturers need bonding without making the final textile excessively stiff. This is important for apparel, lingerie, footwear uppers, sportswear, flexible composite materials, and other products that must retain drape, elasticity, comfort, or recovery.
The defining feature of this yarn is its approximate 110°C melting point. This temperature is suitable for many steam-setting systems, hot presses, calenders, ovens, and other thermal bonding equipment. The exact process setting may vary according to the machine, heating method, material thickness, dwell time, pressure, and surrounding fiber composition.
A controlled melting point helps manufacturers establish repeatable processing conditions. It can also prevent premature activation during earlier operations performed at lower temperatures. When the process is properly designed, the yarn remains functional during handling and becomes active during the intended bonding stage.
Pure nylon provides a soft and comfortable touch compared with many rigid adhesive or reinforcing materials. After thermal activation, the bonding points can preserve a flexible structure rather than producing the hard or brittle feel sometimes associated with conventional chemical adhesives.
This characteristic is valuable in garments, lace, ribbons, underwear, sportswear, and other products that come into direct contact with the skin. It is also useful in flexible technical materials where the final composite must bend, fold, or stretch during use.
The yarn is engineered for high tenacity and stable processing. High tenacity helps reduce breakage during winding, knitting, sewing, weaving, needle punching, and lamination. It also supports the mechanical stability of the textile before and after thermal bonding.
For production managers, high tenacity can contribute to fewer machine stops, better line efficiency, improved package quality, and more consistent production output. For product designers, it provides greater freedom to use the yarn in structures that experience tension, abrasion, compression, or repeated movement.
Easy rewinding is an important performance factor for functional yarn. A yarn may have suitable chemical properties but still create difficulties if it unwinds unevenly, forms loops, or breaks during high-speed operation. This product is designed for smooth package formation and stable unwinding on suitable equipment.
Stable rewinding is particularly important for computerized knitting machines, automatic sewing systems, narrow fabric equipment, and industrial winding lines. Consistent tension helps maintain uniform stitch formation, precise yarn placement, and reliable bonding-agent distribution.
Once heated to the correct processing range, the yarn softens and bonds adjacent textile components. It functions as a solid-state adhesive that is integrated into the textile structure instead of being applied as a separate liquid or powder.
This integrated approach can simplify production and improve cleanliness. It may reduce adhesive overspray, eliminate solvent handling, and minimize the risk of uneven glue application. It also enables designers to place the bonding function exactly where it is needed within a yarn, fabric, cord, or composite.
After the material cools, the bonding points become stable while retaining a degree of flexibility. This makes the yarn suitable for products that must maintain softness, drape, elasticity, or bending performance.
Performance after bonding depends on the base material, blend ratio, process temperature, pressure, cooling conditions, and end-use environment. Customers should evaluate the finished composite rather than relying only on the yarn specification when determining suitability for a particular application.
Pure Nylon Low Melting Yarn 110 Degree
Low-melting yarns can be produced from different polymer families, including polyethylene, copolyester, polyamide, and blended systems. Each material has its own advantages. Pure Nylon Low Melting Yarn is designed for applications that require a combination of moderate activation temperature, high tenacity, soft touch, and reliable mechanical bonding.
Polyethylene-based bonding materials can offer low-temperature activation and cost advantages in selected applications. However, they may not provide the same balance of tenacity, abrasion resistance, and textile handling required in demanding yarn-processing operations.
The nylon base of this product is advantageous when the yarn must pass through high-speed winding, knitting, sewing, or wrapping equipment before activation. It is also suitable where the finished structure must withstand repeated handling, tension, or mechanical movement.
The choice between nylon and polyethylene should be based on the required melting point, chemical environment, strength, flexibility, cost, and end-use conditions. The main advantage of the nylon option is its ability to combine bonding functionality with a high-performance textile fiber profile.
Co-polyester low-melting yarns are widely used in interlinings, nonwovens, apparel composites, and general thermal bonding applications. They can be effective where polyester compatibility and specific heat resistance are priorities.
Pure Nylon Low Melting Yarn is differentiated by its nylon-based softness and high tenacity. In products requiring a comfortable hand feel, good flexibility, and resistance to repeated mechanical stress, a nylon bonding yarn may provide a more suitable solution.
Material compatibility remains important. If the primary fabric is polyester, a co-polyester product may be preferred in some constructions. If the structure is based on nylon, elastane-compatible systems, or flexible technical fibers, a nylon low-melting yarn can offer better integration. Production trials should confirm adhesion, shrinkage, color, wash performance, and dimensional stability.
Liquid or solvent-based adhesives require application equipment, storage, viscosity control, drying, and workplace management. Uneven application can produce hard spots, odor, discoloration, bleeding, or inconsistent bonding.
A low-melting yarn places the bonding agent in a controlled fibrous form. It can be knitted, woven, sewn, wrapped, or blended before activation. This may provide more uniform distribution and can reduce the number of separate coating steps.
The yarn-based method also supports cleaner production. It does not require the routine use of solvent-based adhesive systems, and it can help reduce volatile organic compound emissions when it replaces a solvent-containing adhesive. Actual environmental benefits depend on the complete production process, including energy consumption and finishing conditions.
Hot-melt powders can provide strong adhesion, but powder handling may create challenges related to dispersion, dust, storage, metering, and penetration control. A yarn-based bonding component can be positioned more precisely within a textile structure.
For three-dimensional knitted materials, cords, ribbons, narrow fabrics, and sewing threads, a yarn is often easier to integrate than a powder. It can travel with the textile during production and activate at the selected bonding stage.
Standard nylon offers excellent strength and durability but normally requires higher temperatures for melting or thermal bonding. Such temperatures may damage sensitive fibers, elastane, dyes, finishes, or textile substrates.
The approximately 110°C activation range of this product offers a lower-temperature route to nylon-based bonding. It can help manufacturers protect temperature-sensitive materials and reduce the thermal load on the finished product.
The product range is designed to support both fine textile applications and heavier industrial structures. The available counts include fine deniers for lightweight fabrics and thicker options for cords, ropes, technical meshes, and composite materials.
| Item | Reference Information |
|---|---|
| Product type | Pure nylon low-melting bonding yarn |
| Polymer family | 100% copolyamide-based nylon |
| Approximate melting point | 110°C |
| Available counts | 20D, 30D, 40D, 50D, 70D, 100D, 150D, 200D, and 300D |
| Hand feel | Soft and flexible |
| Primary function | Thermal bonding agent |
| Processing characteristics | High tenacity and easy rewinding |
| Typical color | Natural white; other processing options may be discussed |
| Package options | Paper tube or wax tube, subject to production requirements |
| Customization | Special production by order |
| Shipping point | Shanghai seaport |
The listed denier options should be considered a product-range reference. Final availability, package size, filament configuration, and production tolerance should be confirmed according to the order specification. In some technical documents, a standard range may be stated differently from the broader commercial count list, so customers should request a confirmed specification sheet for the required denier.
Denier selection affects coverage, tensile performance, bonding density, fabric appearance, and process behavior. Fine counts are generally more suitable for delicate lace, lingerie, lightweight ribbons, and fine apparel structures. Medium counts can be used in knitted fabrics, interlinings, sewing systems, and composite textiles. Coarser counts may be considered for ropes, cords, heavy-duty bonding, technical meshes, and cable-related applications.
The bonding mechanism is based on controlled softening, flow, penetration, and resolidification. The yarn is first incorporated into a textile or composite structure. When the structure reaches the appropriate thermal range, the low-melting nylon softens and begins to flow into the spaces between neighboring fibers or materials.
Pressure, contact, and dwell time influence the final bond. As the material cools, the polymer solidifies and forms bonding points. These points hold the surrounding structure together while the remaining textile components provide flexibility, strength, and dimensional support.
The low-melting yarn is blended, knitted, woven, wrapped, sewn, or otherwise positioned with the base material.
The assembled structure is transferred to a hot-air oven, heat press, calender, steam system, thermal chamber, or other suitable equipment.
The temperature is raised into the appropriate process window around the 110°C design point.
The yarn softens and penetrates nearby fiber gaps or contact surfaces.
Pressure or tension may be applied to improve contact and shape control.
The structure is cooled under suitable conditions so that the bonding points stabilize.
The finished material is tested for adhesion, flexibility, dimensional stability, washing performance, and appearance.
The nominal melting point should not be treated as an automatic machine-setting value. A process temperature may need to be higher than the stated melting point to compensate for equipment losses, material thickness, line speed, or incomplete heat transfer. Conversely, excessive temperature may cause unwanted shrinkage, surface changes, discoloration, or damage to adjacent materials.
Three-dimensional knitted fabrics require controlled structural stability while retaining air permeability and flexibility. The low-melting yarn can be integrated into selected areas of the knit and then thermally activated to reinforce connections or set the desired shape.
Potential uses include shoe uppers, sports gloves, protective padding, structured apparel, and technical knitted panels. The yarn can support localized reinforcement without requiring a heavy coating across the entire surface.
In footwear, bonding yarn can be used in three-dimensional knitted uppers, fly-knit structures, heel reinforcement, tongue components, and flexible support zones. The moderate activation temperature can be beneficial when the product contains temperature-sensitive fibers, adhesives, printed elements, or elastic components.
For sports gloves and activewear, the balance between soft feel and structural support is important. A properly designed bonded structure can help maintain shape while preserving flexibility during repeated movement.
Fine denier options are suitable for lingerie ribbons, lace, decorative narrow fabrics, elastic structures, and anti-fray edges. These products require clean appearance, softness, and a low risk of visible adhesive marks.
Thermal bonding can help stabilize delicate edges and prevent fraying. When the yarn is selected and processed correctly, the finished material can retain a lightweight appearance and comfortable hand feel.
Bonded sewing thread requires stable handling, good abrasion resistance, and reliable adhesion between the thread components. A low-melting nylon yarn can be used as a bonding element in thread construction or in post-processing to improve thread integrity.
The appropriate construction depends on sewing speed, needle size, thread tension, fabric type, and required seam performance. Trials should evaluate loop formation, needle heating, seam flexibility, washing durability, and resistance to repeated abrasion.
Chenille yarn typically contains a core, pile, and wrapping structure. Low-melting yarn can support the bonding or stabilization of selected components, helping maintain the intended appearance and reduce slippage in the construction.
Because chenille products vary significantly in count, pile length, and core design, the correct yarn count and heating process must be selected carefully. Overheating may affect surface softness, while insufficient activation may result in weak structural retention.
Seamless underwear requires softness, elasticity, smooth surfaces, and comfort against the skin. Low-melting nylon yarn can be considered for localized bonding, shape setting, reinforcement, and the stabilization of knitted zones.
Its use may help reduce the need for bulky stitched seams or rigid adhesive films. The final design must be evaluated for stretch recovery, wash resistance, skin comfort, and long-term bonding stability.
In ropes and cords, bonding yarn can help stabilize the relationship between core and wrapping components. It may improve structural integrity and reduce component movement during handling or use.
For narrow webbings and technical tapes, the yarn can provide localized thermal bonding while maintaining flexibility. Coarser counts may be appropriate when greater bonding material and mechanical support are needed.
The yarn can be considered for textile-based cable protection, wrapping, and composite coverings. Its bonding function may help hold textile layers in position around a cable or wire assembly.
Electrical, thermal, flame, chemical, and mechanical requirements must be assessed separately for each cable application. The yarn should not be selected as an electrical insulation material without confirming the complete construction and applicable standards.
Low-melting yarn can serve as a bonding component in nonwoven structures. It may be blended with staple fibers or incorporated into a web before thermal bonding. The process can reduce dependence on sprayed adhesives and produce a relatively clean bonded web.
Possible uses include filtration support layers, protective materials, cushioning, sound absorption, garment interlinings, and household textile components. Final performance depends on fiber selection, web density, bonding temperature, pressure, and cooling.
In apparel manufacturing, the yarn can function as a bonding element in interlinings and fusible structures. It can provide support, shape retention, and controlled attachment between a base fabric and an interlining layer.
The moderate thermal activation range may be useful for fabrics that cannot tolerate the higher temperatures associated with conventional bonding systems. Testing should include peel strength, bubbling resistance, dry-cleaning behavior, laundering, and appearance after repeated use.
Automotive interior insulation, acoustic materials, and composite panels often require controlled bonding, low odor, dimensional stability, and resistance to repeated temperature changes. A low-melting nylon yarn may be used as one component of a bonded structure.
Automotive applications require comprehensive validation. Tests may include heat aging, humidity exposure, vibration, odor, fogging, flammability, compression recovery, and chemical resistance. The yarn should be evaluated as part of the complete composite rather than as an isolated material.
Thermal bonding can be used in pillow filling, quilt structures, mattress components, sofa cores, and other home textile composites. The yarn may help stabilize a fiber filling or shape a composite core without relying entirely on sprayed chemical adhesives.
The result can be a more integrated structure with controlled loft and improved shape retention. Product developers should assess softness, compression recovery, odor, laundering, aging, and the desired level of firmness.
The performance of a low-melting yarn depends not only on polymer selection but also on spinning, drawing, heat treatment, winding, packaging, storage, and inspection. A specialized functional-yarn manufacturer must control the entire production chain to achieve stable performance.
Production begins with controlled polymer raw materials. The composition and moisture condition of nylon-based materials can influence spinning behavior, molecular stability, tenacity, elongation, and thermal response.
Incoming materials should be inspected and managed according to internal specifications. Proper storage helps protect the polymer from excessive humidity, contamination, and temperature fluctuations. Consistent raw-material preparation is essential for maintaining batch-to-batch stability.
The polymer is prepared for melt processing under controlled thermal conditions. Temperature, residence time, filtration, and pressure must be managed to promote uniform melt quality and minimize contamination or degradation.
For a low-melting product, temperature control is especially important. The material must be sufficiently fluid for stable spinning while avoiding unnecessary thermal history that could affect molecular properties or final performance.
During spinning, the polymer melt is extruded through precision spinnerets to form filaments. The spinneret design, extrusion conditions, cooling profile, and take-up speed influence filament uniformity, fineness, surface quality, and mechanical properties.
A stable spinning process helps produce yarn with consistent denier and fewer defects. It also supports predictable melting behavior across the yarn length.
Drawing modifies the molecular orientation and mechanical performance of the filament. The draw ratio, heating conditions, tension, and line speed must be balanced to achieve the target tenacity, elongation, and processability.
For this product, the drawing stage must preserve the desired low-melting behavior while delivering sufficient strength for high-speed processing. Excessive orientation or unsuitable heat treatment could shift the thermal response or reduce bonding performance.
Controlled heat treatment can stabilize the yarn and manage shrinkage. Relaxation conditions influence dimensional behavior during subsequent processing and thermal activation.
Appropriate heat-setting control is important for applications where the yarn is incorporated into knitted fabrics, ribbons, cords, or composite structures. The objective is to provide stable processing without preventing the yarn from performing its bonding function.
Winding converts the filament into usable packages for downstream customers. Package hardness, edge formation, tension, traversing, and winding speed all influence unwinding performance.
A well-formed package should unwind smoothly with minimal snarling, tension fluctuation, or filament damage. This is particularly important for automatic knitting, sewing, weaving, and rewinding equipment.
In-process controls may include denier measurement, tension monitoring, appearance inspection, package evaluation, and thermal testing. Monitoring during production enables early identification of variation rather than relying solely on final inspection.
For functional yarn, the inspection program should address both conventional yarn properties and application-specific performance. A yarn can meet a denier target but still require further evaluation for melting behavior, bonding strength, and high-speed process stability.
Typical final tests may include linear density, tensile strength, elongation, melting point or thermal transition behavior, package weight, appearance, and rewinding performance. Additional tests can be arranged according to the intended application.
Customers may request batch documentation, test reports, samples, and application guidance before placing a production order. Specific values should be confirmed according to the actual product specification and batch requirements.
GC FIBER, operated by NanTong Global Chemical Fiber Co., Ltd., has focused on special and functional textile products since 2006. Its product portfolio includes biodegradable yarn, low-melting yarn, ECDP yarn, anti-static yarn, HDPE yarn, bio-component yarn, and polyester filament yarn.
This specialization provides an important advantage over manufacturers that focus only on standard commodity yarns. Functional yarn requires more than routine spinning. It requires understanding of polymer behavior, process windows, end-use conditions, and customer-specific performance targets.
Long-term experience in functional textile materials supports the development of products that combine ordinary yarn-processing requirements with special functions. The company’s low-melting yarn program is connected to broader work in eco-friendly and performance-oriented fibers.
This product knowledge can help customers select the appropriate count, processing method, and material combination. It can also support troubleshooting when customers encounter issues related to bonding, rewinding, heat activation, or finished-product softness.
The company maintains a research and development focus on special and functional textile products. This is valuable for customers whose requirements do not fit a standard catalog specification.
R&D cooperation may include adjustments to denier, filament count, cross-section, package format, thermal behavior, and other functional properties. New material development should be managed through sample evaluation, technical discussion, pilot production, and confirmation of final specifications.
Multiple production lines and machines provide flexibility for different product categories and order requirements. This can support both standard product orders and special production by request.
Production flexibility is important because low-melting yarn customers may have very different requirements. A lingerie manufacturer may need a fine count and soft hand feel, while a rope or cable-covering producer may need a coarser count and higher structural support.
Control over raw-material supply and production planning helps reduce variation and improve delivery coordination. Functional yarn performance can be affected by changes in polymer source, moisture, additives, processing conditions, and packaging.
A manufacturer with established supply and quality-management procedures can provide greater consistency between trial samples and commercial batches. Customers should still confirm quality requirements and acceptance criteria in the purchase specification.
The company welcomes cooperation with customers to develop new materials. Co-development is especially useful when a customer needs a special combination of thermal activation, tenacity, softness, elasticity, package size, or compatibility with another fiber.
A typical development process may begin with an application description and sample material. The manufacturer can then recommend a preliminary count and construction, produce trial material, review test results, and adjust the specification before larger-scale production.
A professional team covering sales, research and development, design, and production can coordinate technical communication throughout the order cycle. This helps reduce misunderstandings regarding count, package, quantity, delivery schedule, labeling, testing, and intended use.
Responsive tracking during custom production is particularly important for overseas buyers. Clear communication allows customers to monitor sampling, production, inspection, packing, and shipment arrangements.
Denier selection should be based on the desired bonding density, fabric weight, yarn construction, equipment, and finished-product performance. A lower denier generally offers finer coverage and less visual impact, while a higher denier can provide more bonding material and greater structural contribution.
| Application Type | Possible Count Direction | Main Selection Considerations |
|---|---|---|
| Fine lace and lingerie | 20D to 50D | Softness, appearance, low fabric weight, delicate processing |
| Ribbons and narrow fabrics | 30D to 100D | Edge stability, flexibility, visual cleanliness, bonding distribution |
| Knitted apparel and seamless garments | 40D to 100D | Stretch, comfort, stitch formation, dimensional stability |
| Three-dimensional knitted structures | 70D to 150D | Shape retention, reinforcement, compression, thermal setting |
| Bonded sewing thread | 70D to 200D | Thread construction, abrasion, sewing speed, seam flexibility |
| Cords and ropes | 150D to 300D | Bonding quantity, mechanical support, package handling, thickness |
| Technical composites | 100D to 300D | Composite density, thermal cycle, adhesion, structural stability |
The table provides general guidance rather than a fixed specification. A fine count can be selected for a heavy application if a high blend ratio is used, while a coarser count may be unsuitable for a delicate fabric even if it provides strong bonding. Product trials remain essential.
Start with a temperature range around the nominal 110°C melting point and adjust according to the heating method. Record temperature, pressure, dwell time, line speed, and cooling conditions. The best setting is the lowest temperature and shortest dwell time that achieve the required bond without damaging the substrate.
Uneven heating can create weak areas, surface changes, or inconsistent bonding. Equipment should be checked for temperature uniformity across the working width. Thick composites may require additional dwell time because the internal yarn temperature can lag behind the machine display.
Pressure can improve contact between the low-melting yarn and surrounding fibers. However, excessive pressure may flatten a three-dimensional structure or reduce the desired loft. The pressure level should match the construction and end-use requirements.
Cooling under controlled tension or pressure can help stabilize shape and bonding. Removing the material too quickly from the heating zone may allow distortion, while excessive tension during cooling may affect elasticity or dimensional recovery.
Testing should include peel strength, tensile strength, flexibility, elongation, wash resistance, dimensional stability, appearance, and hand feel. For industrial products, additional tests may include abrasion, aging, humidity, chemical exposure, vibration, or thermal cycling.
Thermal bonding with low-melting yarn can support more efficient and potentially cleaner manufacturing. Because the bonding component is supplied in yarn form, it can reduce the need for separate adhesive application and drying steps.
Replacing or reducing solvent-based adhesives may help lower workplace exposure to volatile organic compounds. It may also reduce odor and simplify production-area management. The actual environmental profile depends on the polymer, process energy, waste management, packaging, and service life of the finished product.
The product is positioned as an eco-friendly functional textile solution because it can support glue-free or reduced-glue manufacturing in suitable applications. However, “eco-friendly” should be evaluated across the full product life cycle. Nylon is not automatically biodegradable, and customers requiring biodegradability should consider a dedicated biodegradable yarn product instead.
Waste reduction is another possible benefit. Precise yarn placement can reduce adhesive overspray, excess coating, and rejected components caused by uneven application. Better process control may improve yield and reduce rework.
The yarn can be supplied on paper tubes or wax tubes, depending on the customer’s requirements and production arrangement. Package design should match the customer’s unwinding equipment, delivery conditions, and downstream process.
Packages should be stored in a clean, dry area away from direct sunlight, excessive heat, moisture, dust, and chemical contamination. The yarn should remain in its original packaging until it is ready for use. If the material has been stored for an extended period or exposed to high humidity, a production trial may be appropriate before mass processing.
Careful handling helps prevent edge damage, package collapse, tangling, and surface contamination. Packages should be transported and placed on equipment according to the recommended orientation and support method.
Before commercial production, customers should define the critical quality attributes for the application. These may include melting behavior, bonding strength, count tolerance, tenacity, elongation, appearance, color, package weight, and unwinding performance.
A recommended validation program may include the following stages:
Review the product application, base materials, machine type, and target production conditions.
Select one or more yarn counts for laboratory or pilot testing.
Run the yarn through the actual or representative production equipment.
Optimize temperature, pressure, dwell time, and cooling conditions.
Test the bonded material under expected use and care conditions.
Confirm the final count, package, quantity, inspection standard, and delivery requirements.
Approve a commercial production sample before placing a repeat order.
This approach helps prevent problems caused by selecting a yarn based only on its nominal melting point. The final performance depends on the interaction between the yarn and the complete textile system.
It is a 100% copolyamide-based nylon yarn designed to soften and melt at approximately 110°C. After heating and cooling, it forms bonding points between surrounding fibers, yarns, fabrics, or composite materials.
The product is designed around a 110°C melting point, but actual processing normally uses a temperature window rather than one exact machine setting. Equipment type, heat transfer, pressure, line speed, material thickness, and dwell time all affect the required process conditions.
In some applications, it can replace chemical adhesive systems completely. In other applications, it may reduce the amount of adhesive required or work together with another bonding method. The extent of replacement depends on required peel strength, flexibility, wash resistance, cost, and the structure of the finished product.
It may be suitable for selected polyester structures, but compatibility must be tested. Nylon, polyester, elastane, coatings, dyes, finishes, and other components may respond differently to heat. A co-polyester low-melting yarn may be more appropriate for some polyester-dominant applications.
The listed product range includes 20D, 30D, 40D, 50D, 70D, 100D, 150D, 200D, and 300D. Final availability and specifications should be confirmed for each order, especially when a special filament configuration or package is required.
Fine counts such as 20D to 50D may be considered for delicate lace, ribbons, and lingerie structures. The final choice depends on the fabric construction, desired bonding level, visual effect, and softness requirement.
Medium or coarse counts, often from 100D to 300D, may be considered for ropes, cords, and technical composite structures. The correct selection depends on the cord diameter, construction, required bonding quantity, and mechanical performance.
It is designed for high tenacity and easy rewinding, making it suitable for appropriate high-speed winding, knitting, sewing, and other textile equipment. Machine compatibility should still be confirmed through a trial because tension, guides, needles, package size, and line speed vary between facilities.
After proper thermal activation, the bonded structure can be designed for repeated laundering or other care conditions. Washability depends on the base fabric, bond design, processing conditions, and care method. Testing should be performed on the finished product.
This product is a pure nylon low-melting yarn and should not be classified as biodegradable solely because it is used in an eco-conscious bonding process. Customers requiring biodegradability should review dedicated biodegradable yarn options and confirm the relevant testing and certification requirements.
Special production can be discussed according to technical requirements. Possible areas of customization may include denier, filament count, cross-section, functional properties, package format, and order quantity, subject to production feasibility and confirmation.
The stated shipping point is Shanghai seaport. Final logistics arrangements depend on order quantity, packaging, delivery terms, destination, and shipment schedule.
Customers should provide the intended application, base material, required count, estimated quantity, preferred package, bonding method, target processing temperature, required tests, delivery destination, and any special performance requirements.
Yes. The company supports cooperation with customers on new material development. A development project normally begins with an application description, technical targets, sample evaluation, trial production, testing, and specification confirmation.
Pure Nylon Low Melting Yarn offers a balanced solution for manufacturers that need thermal bonding without sacrificing softness or textile processability. Its approximate 110°C activation point supports moderate-temperature bonding, while the nylon base contributes high tenacity, flexibility, and a comfortable hand feel.
The product range supports applications from fine lace and lingerie to three-dimensional knitted footwear, bonded thread, technical cords, nonwovens, interlinings, and composite materials. Multiple count options allow designers to adjust bonding density, coverage, and structural contribution.
Compared with liquid adhesives, the yarn format can simplify handling and improve bonding placement. Compared with some PE-based or co-polyester alternatives, the nylon construction can provide a useful combination of softness and mechanical strength. Compared with standard high-melting nylon, the controlled low-temperature activation can reduce thermal stress on sensitive materials.
GC FIBER’s experience in functional yarns, R&D capability, production flexibility, raw-material management, and customer co-development provides additional support for customers seeking both standard and customized solutions. The company can assist with product selection, sampling, process trials, technical specifications, packaging, and commercial production planning.
Pure Nylon Low Melting Yarn at 110°C is a specialized bonding yarn for textile and industrial manufacturers that require reliable thermal adhesion, high tenacity, easy rewinding, and a soft finished feel. Its 100% copolyamide-based construction allows it to function as a bonding agent while remaining compatible with a wide range of flexible textile structures.
Successful use depends on selecting the correct denier, integrating the yarn properly, establishing a suitable thermal process window, and validating the finished composite. When these factors are controlled, the yarn can support cleaner production, flexible bonding, reduced reliance on conventional adhesives, and improved design freedom.
With counts ranging from fine options such as 20D to heavier options such as 300D, and with special production available by order, the product can be adapted to different applications and equipment requirements. It is a practical choice for manufacturers developing next-generation knitted fabrics, apparel components, narrow fabrics, cords, technical textiles, and bonded composite materials.
1. Product specification information for Pure Nylon Low Melting Yarn, 110°C, supplied in the source materials.
2. General technical principles of thermoplastic polymer processing and melt bonding in textile structures.
3. General textile testing practices for yarn tenacity, elongation, linear density, package quality, and thermal performance.
4. General principles of hot-melt bonding, fusible interlining, thermal-bonded nonwoven production, and composite textile manufacturing.
5. Manufacturer information concerning functional yarn development, special textile production, customization, and quality management.
Made of PBS (Polybutylene Succinate), fully biodegradable.Features:1.Home compostable2.Raw material: PBS Polybutylene Su...
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