We are committed to solving the problems of equipment dispersion, uncontrollable temperature rise, structural defects and human interference in traditional testing, and realizing controllable rapid detection and visual quantitative evaluation of thermal stability of isolation membranes
Application Areas
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· Development of diaphragm base membrane
Design evaluation of diaphragm base membrane formula, processing technology, etc.
· Development of coated diaphragms
Process design evaluation of slurry formula, coating amount, etc.
· Production stability monitoring
Stability evaluation of diaphragm incoming materials, diaphragm processing, etc.
Multifunctional integrated design |
High-speed dynamic pressure holding control |
Fully automatic measurement |
High-precision parallelism control |
Multiple measurement modes available |
High temperature stability components |
Model | AF-S200 |
Test Principle | Thermal Radiation Vision |
Test Beat | 15 seconds a set of data |
Test temperature | 200~480℃ |
Test conditions | ·Mould diameter: 10*10cm |
Measurable parameters | Isolation membrane pore volume, pore rate, thermal stability coefficient, etc. |
Applicable samples | Diaphragm |
Motion Motor | Servo Motor |
Features | ·Precise temperature control, micron-level motion-controlled hole generation ·Visual intelligent analysis, instant capture of hole size ·Multiple security protections, automated and efficient testing ·Multiple account login permission settings. Fully automatic measurement software |
Equipment size (L*W*H, mm) | 300*310*340 |
Equipment weight (kg) | 20 |
Power(W) | 400 |
The separator is one of the core components to ensure battery safety, and its thermal stability directly affects the safety performance of the battery under extreme temperature conditions. The thermal nail penetration test simulates high-temperature puncture scenarios to evaluate the separator's anti-perforation ability and thermally induced pore characteristics under thermal shock.
·The thermal spike tester for isolating membrane is based on a high-precision servo control system and integrates a high-precision temperature control module. It conducts visual dimensional evaluation of the thermal radiation impact area at different distances from the isolating membrane to evaluate the thermal stability characteristics of the isolating membrane.
![]() | Pore formation rate = φpore diameter/(tpore formation time*Theating stability)
Changes in pore size before and after testing |
Dedicated for diaphragm faucet Independent intellectual property rights Industry leading companies promote products | All-in-one One-stop linear acquisition and recording of key parameters such as voltage, current, temperature, humidity, etc. to ensure the reliability and traceability of test results | Fully automatic measurement Fully automatic measurement of various parameters under different measurement conditions Real-time online display of measurement data Data can be connected to MES/LIMS for communication | Professional data processing Single point mode and linear mode are optional Multiple parameters are directly converted and displayed (customizable) |
1. Evaluation of thermal stability of different isolation films ·PE-based film has poor thermal stability: it is easy to melt and shrink under high-temperature nail puncture,the hole expands significantly, and there is a risk of thermal runaway; ·PI modified film has good thermal stability: the hole structure can still be maintained intact at high temperatures,which means it has higher heat resistance and safety.
| 2. Thermal stability evaluation of isolation films of different thicknesses Diaphragm A is thinner than Diaphragm B. At the same temperature, the thicker the diaphragm, the less likely it is to melt and shrink, and the less significant expansion of the holes, indicating that it has higher heat resistance and safety.
Diaphragm A
Diaphragm B |