Knowde Enhanced TDS
Identification & Functionality
- Product Type
- Technology
- Cyanoacrylate / UV / Visible
- Chemistry
- Alkoxyethyl Cyanoacrylate with photoinitiator
- Components
- One part requires no mixing
- Viscosity
- Medium
- Cure
- Ultraviolet (UV) light
- Secondary Cure
- Humidity
- Technologies
- Product Families
Features & Benefits
Applications & Uses
- Applications
- Cure Method
- General Information
This product is not recommended for use in pure oxygen and/or oxygen rich systems and should not be selected as a sealant for chlorine or other strong oxidizing materials. For safe handling information on this product, consult the Safety Data Sheet (SDS):
Directions for use:
1) This product is light sensitive; exposure to daylight, UV light and artificial light should be kept to a minimum during storage and handling.
2) For best performance bond surfaces should be clean and free from grease.
3) This product performs best in thin bond gaps (0.05 mm)
4) Excess adhesive can be dissolved with nitromethane or acetone.
Properties
- Color
- Physical Form
- Appearance
- Transparent, yellow liquid
- Typical Properties
Value | Units | Test Method / Conditions | |
Specific Gravity (25°C) | 1.13 | g/cm³ | — |
Viscosity (25°C) | 600 - 1200 | mPa. s | — |
Technical Details & Test Data
- Typical Curing Performance
TACK FREE TIME
Tack Free Time is the time in seconds required to achieve a tack free surface.
UV/Visible Light Sources:
Electrodeless, V bulb:
70 mW/cm2, measured @ 365 nm: < 10 s.
Electrodeless, H bulb:
30 mW/cm2, measured @ 365 nm: < 10 s.
100 mW/cm2, measured @ 365 nm: < 10 s.
Visible Light Sources:
Blue light laser:
70 mW/cm2, measured @ 445 nm: < 10 s.
CURE SPEED vs. SUBSTRATE (non-UV/Vis cure)
The rate of cure will depend on the substrate used. The table below shows the fixture time achieved on different materials at room temperature. This is defined as the time at which an adhesive bond (250 mm 2 ) is capable of su pporting a 3 kg load for 10 seconds. Fixture time measurements relate to non UV/Visible cure.Fixture Time (seconds) ABS 15 Acrylic 80 Polycarbonate 40 PVC 140 - Conversions
(ºC x 1.8) + 32 = ºF
kV/mm x 25.4 = V/mil
mm / 25.4 = in
μm / 25.4 = mil
N x 0.225 = lb
N/mm x 5.71 = lb/in
N/mm2 x 145 = psi
MPa x 145 = psi
N·m x 8.851 = lb·in
N·mm x 0.142 = oz·in
mPa·s = cP- Typical Performance Of Cured Material
TENSILE SHEAR STRENGTH
The shear strength will depend on the substrate. The Table below shows the shear strength for different substrates using lap shears according to ISO 4587.
Data for 24-h curing in dark room and 10-second curing with UV/Vis light source.Strength (N/mm 2) After 24 h RT Non UV/Vis cure Strength (N/mm 2)After 10 s curing with UV/Vis lightABS 11.7* 7.3* Acrylic 7.6* 8.3* Polycarbonate 11.9* 7.2* PVC 6.5* 5.9* - Chemical/Solvent Resistance
Aged under conditions indicated and tested @25℃
% of initial strengthEnvironment Temp. ℃ 100 hrs 500 hrs 1000 hrs Water 25 87 75 60 Ethanol 25 93 88 88 Isopropanol 25 100 101 101 Water/Glycol 25 88 77 64 Unleaded Gasoline 25 97 94 97 Motor Oil 25 100 94 101 98% Relative Humidity 40 84 73 62 Aged under conditions indicated and tested @25℃
Lap Shear Strength, ISO 4587/ASTM D1002/JIS K6850
PC (Polycarbonate)% of initial strength Environment Temp. ℃ 100 hrs 500 hrs 1000 hrs Air 25 101* 98* 102* 98% Relative Humidity 40 91* 86* 64 - Typical Environmental Resistance
Heat Aging
Cured @ 30 mW/cm2, measured @365nm, for 10 seconds plus 24 hours post cure @22℃. Aged at temperature indicated and tested @22℃.