POLYCARBONATE
polycarbonate
MANUFACTURING PROCESSES OFFERED
CNC CUTTING
WATERJET CUTTING
COUNTERSINKING
THREAD TAPPING
Countersink Specs | Values3 |
---|---|
Min countersink part size | 1" x 4" |
Max countersink part size | 14" x 46" |
Countersink Min Minor | 0.130" |
Countersink Max Major | 0.472" |
Countersink Min Hole Center to Material Edge | 0.361" |
Properties | Value |
---|---|
Advertised Thickness | 0.125" |
Gauge | N/A |
Thickness tolerance positive | 0.007" |
Thickness tolerance negative | 0.006" |
Top/Bottom Finish | Textured top side, smooth bottom |
Sourced from | Canada |
General Details
Properties 2 | Value2 |
---|---|
Cutting process | CNC Router |
Cut tolerance +/- | 0.005" |
Flatness tolerance before cutting | +/- 0.030" per foot |
Min part size | 1" x 2" |
Max part size | 44" x 30" |
Min hole size | 0.125" |
Min bridge size | 0.125" |
Min hole to edge distance | 0.38" |
Tab and slot Tolerance | 0.015" |


Countersink Specs | Values3 |
---|---|
Min countersink part size | 1" x 4" |
Max countersink part size | 14" x 46" |
Countersink Min Minor | 0.130" |
Countersink Max Major | 0.472" |
Countersink Min Hole Center to Material Edge | 0.361" |
Countersink Specifications
Tapping Specs | Value4 |
---|---|
Largest Tap | M10 x 1.5 |
Smallest Tap | M4 x 0.7 |
Min Flat Part Size Tapping | 0.949" x 1.5" |
Max Flat Part Size Tapping | 36" x 46" |
Tapping Min Hole to Edge | 0.063" |
Tapping Min Hole Center to Material Edge | Tap hole size/2 +0.063" |
ABS Properties | Value5 |
---|---|
Material Composition | Acrylonitrile Butadiene Styrene
|
Density | 65.664 lb/ft^3 |
Heat treatment process | N/A |
ASTM | D4673 |
Tensile Strength (Ultimate) | 4.5 ksi |
Tensile Strength (Yield) | 3.5 ksi |
Shear Strength | 2 ksi |
Shear Modulus | 75 ksi |
Fatigue Strength | 2 ksi |
Izod Impact Strength | 6.3 ft-lbs/in |
Coefficient of Friction | 0.19 – 0.21 |
Rockwell | R 90 - R100 |
Elongation at Break | 25% |
Elastic Modulus | 340 ksi |
Poisson’s Ratio | .35 |
Thermal Conductivity | 0.22 BTU/h-ft °F |
Vicat Softening Temp | 150 °F |
Melting Point | 390 °F |
Magnetic | No |
Does it Rust | No |
ABS Properties
Tapping Specifications
CNC Router Cutting Specifications
CHARACTERISTICS
Thermoplastic polymers containing carbonate groups in their chemical structures. Polycarbonates used in engineering are strong, tough materials, and some grades are optically transparent. They are easily worked, molded, and thermoformed.
Polycarbonates find many applications.
Highly impact resistant.
DISADVANTAGES
Flammability
Non recyclable will never biodegrade
PRODUCT AND INDUSTRY APPLICATIONS
safety equipment, automotive
Custom CNC Router Polycarbonate Parts Canada
Polycarbonate is a durable, high-performance thermoplastic polymer known for its strength, optical clarity, and impact resistance. It is typically produced through a process called polymerization, where bisphenol A (BPA) reacts with phosgene or other suitable compounds to form polycarbonate resin. The resin is then melted and extruded into various forms, such as sheets, films, and molded parts. Polycarbonate is widely used in industries where toughness, optical transparency, and heat resistance are required. Its applications include eyewear lenses, optical discs (like CDs and DVDs), automotive parts, roofing materials, and medical devices. It is also used in the production of safety equipment, such as helmets and protective covers, and in architectural glazing due to its ability to withstand impacts and extreme weather conditions.
The advantages of polycarbonate include its exceptional impact strength, optical clarity, and ability to withstand extreme temperatures without cracking or breaking. It is lightweight compared to glass, making it ideal for applications where both strength and weight are important. Polycarbonate is also highly transparent, offering up to 90% light transmission, making it suitable for optical applications. However, polycarbonate does have some disadvantages: it can be prone to scratching and abrasion unless it is coated with a protective layer. It is also more expensive than other plastics like acrylic or polyethylene, which can limit its use in cost-sensitive applications. Polycarbonate can be sensitive to UV degradation over time, leading to yellowing or brittleness unless treated with UV stabilizers or coatings. Despite these challenges, polycarbonate remains a preferred material in many demanding applications due to its combination of strength, clarity, and versatility.