2results about How to "Stable heat transfer" patented technology

The utility model belongs to vacuum pump cooling technical field, concretely relates to a cooling circulation system for mechanical pump, including vaporizer, the vaporizer includes the interlayer of outside setting, the vaporizer bottom is provided with airflow delivery pipeline, the vaporizer top is connected with buffer tank, the buffer tank top is connected with vacuum mechanical pump, vacuum mechanical pump is connected with water storage jar, the water storage jar bottom is linked with the vaporizer bottom, the vacuum mechanical pump outside is provided with heat exchange coil pipe, the interlayer bottom is connected with circulating water pump, and the circulating water pump is linked with heat exchange coil pipe, and heat exchange coil pipe is linked with the interlayer upper portion. The utility model discloses a vacuum mechanical pump and vaporizer realize independent refrigeration through the cooperation, and do not rely on external energy, and the heat exchange coil pipe is integrated on the vacuum mechanical pump, realizes the independent cooling of mechanical pump, need not external cooling water source, also does not cause additional energy consumption.

The application discloses a battery electrolyte dosage boundary determination method and related equipment, through scientific calculation and model construction, the electrolyte dosage boundary of the warranty period is accurately determined, and electrolyte injection amount design is optimized. Based on the porosity, volume parameters and electrolyte density of the pole piece and the diaphragm, the pore electrolyte filling amount is accurately calculated to ensure that the electrolyte is fully filled in the internal pores; in combination with the bottom structure parameters of the battery shell and the electrolyte density, the bottom filling electrolyte amount is accurately calculated to maintain the stability of the bottom heat transfer. The internal standard extraction method is used to determine the consumption of formation electrolyte, which is in line with the actual production; with the help of multi-temperature experimental data and the Arrhenius formula, a model is constructed to scientifically predict the electrolyte consumption under the working condition; according to the regression analysis of the volatilization experimental data, the electrolyte transmission amount generated due to poor sealing is reasonably calculated. Finally, the dosage boundary is determined by comprehensively considering the above-mentioned quantities, the performance reduction or cost waste caused by improper electrolyte dosage is effectively avoided, and the balance optimization of performance and cost is achieved.