Kaneka S-2001 is a silicone-acrylic composite solvent-resistant toughener suitable for modification of PC and other engineering plastics. It has excellent room and low temperature impact resistance, outstanding performance at -30℃/-40℃, good thermal and chemical resistance, and excellent retention of substrate tensile and flexural properties.
Silicone-acrylic composite system with balanced impact resistance, thermal stability and chemical resistance
Excellent low-temperature impact performance, maintaining high impact strength at -30℃/-40℃
Good retention of PC substrate's tensile, flexural strength and modulus, no effect on basic physical properties
Excellent chemical resistance, resistant to corrosion from glacial acetic acid, sunscreen and other media
Good compatibility with PC substrate, stable modification effect at 5phr addition, strong processing adaptability
Impact modification of PC, PBT, PC/ABS, PC/PBT and other engineering plastics as well as their alloys
Production of chemical equipment accessories requiring high and low temperature impact resistance and hydrolysis resistance
Toughening modification of flame-retardant PC/ABS alloy products
Preparation of engineering plastic structural parts and precision accessories under high-temperature processing conditions
Production of electronic and electrical parts, automotive engineering plastic parts used in outdoor and humid environments
| Product Information | |
| Product Name | Kaneka Silicone-Acrylic Solvent-Resistant Toughener S-2001 |
| Product Series | S Series |
| Product Type | Silicone-Acrylic Composite Toughener |
| Appearance | Free-flowing white powder |
| Application & Formulation | |
| Application System | PC, PC/ABS, PC/PBT engineering plastics and alloys |
| Recommended Addition Ratio | 5phr (PC/MOD=100/5phr) |
| Mechanical Properties (PC/MOD=100/5phr) | |
| Izod Notched Impact Strength (23℃) | 58.5 kJ/m² |
| Izod Notched Impact Strength (-30℃) | 47.1 kJ/m² |
| Izod Notched Impact Strength (-40℃) | 29.3 kJ/m² |
| Tensile Yield Strength | 53.6 MPa |
| Elongation at Break | 145.4 % |
| Flexural Strength | 86.8 MPa |
| Flexural Modulus | 2075 MPa |
| Chemical Resistance | |
| Chemical Resistance - Glacial Acetic Acid | Excellent (●) |
| Chemical Resistance - Sunscreen | Good (○) |
| Chemical Resistance - Carbon Tetrachloride | Poor (×) |
| Performance Characteristics | |
| Core Performance | Balanced thermal stability, impact resistance and chemical resistance |
| Compatibility | Excellent compatibility with PC and its alloy substrates |
| Processing Performance | Good processability, adaptable to various injection molding processes |
| Packaging | |
| Packaging Specification | 20 kg/bag |
Q1: What is the primary function of Kaneka S-2001 in polymer formulations?
A: Kaneka S-2001 is a reactive impact modifier designed to enhance toughness and ductility—particularly low-temperature impact resistance—in rigid thermoplastic matrices such as PVC, polycarbonate, and certain engineering thermoplastics, without significantly compromising stiffness or processability.
Q2: How does S-2001 differ from conventional acrylic impact modifiers?
A: Unlike non-reactive acrylic modifiers, S-2001 contains functional groups that enable covalent bonding with the host polymer matrix during processing—especially under thermal or shear conditions—leading to improved dispersion stability, reduced phase separation, and more durable property retention over time and under stress.
Q3: Is S-2001 suitable for use in food-contact or medical-grade applications?
A: Kaneka S-2001 is not pre-qualified for direct food-contact or medical device applications. Its suitability depends on full regulatory evaluation by the formulator—including extraction studies, toxicological assessment, and compliance with applicable regional requirements—due to its reactive nature and potential degradation products.
Q4: What processing methods are compatible with S-2001?
A: S-2001 is compatible with standard thermoplastic processing techniques including extrusion, injection molding, and compounding. It exhibits good thermal stability up to typical processing temperatures for PVC and engineering thermoplastics, and requires no special drying prior to use.
Q5: How should dosage be determined for optimal performance?
A: Dosage is formulation-dependent and typically ranges from 0.1% to 2% by weight relative to the base polymer. Optimal loading is best established through systematic testing—evaluating impact strength, tensile properties, and morphology—to balance toughness enhancement against any trade-offs in clarity, surface finish, or melt viscosity.
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