Thin-type PCR instrument for heat storage and heat radiation by utilization of overall structure
An integral, heat-dissipating structure technology, applied in specific-purpose bioreactors/fermenters, biochemical instruments, biochemical equipment and methods, etc. Larger, larger temperature difference between two ends of TE sheet, etc., to avoid low heat dissipation efficiency, increase heat storage capacity, and increase conduction speed
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Embodiment 1
[0020] Such as image 3 In the PCR instrument shown, the upper end of the TE sheet is an aluminum sample holder with a very thin well wall and a very light weight, which can be formed into a 0.2mL PCR test tube with 16 individual wells. The lower end of the TE sheet is a copper block with heat storage effect. The thermal capacity and thermal conductivity of copper are greater than that of aluminum, which is more suitable for the core component of the energy storage device. Below the copper block, there is a relatively large mass of aluminum block as an energy storage, and structurally as the bottom plate and surrounding shell of the overall casing. The thermal conductivity of aluminum blocks is very high in solids, only lower than gold, silver and copper, which can better meet one of the requirements of energy storage; the characteristic heat capacity of aluminum is also better than many other solid materials; the price of aluminum is relatively low, It is easy to process and...
Embodiment 2
[0022] Such as Figure 4 In the PCR instrument shown, the upper end of the TE sheet is an aluminum sample holder with a very thin well wall and a very light weight, which can be formed into a 0.2mL PCR test tube with 16 individual wells. The lower end of the TE sheet is a copper block with heat storage effect. The thermal capacity and thermal conductivity of copper are greater than that of aluminum, which is more suitable for the core component of the energy storage device. Below the copper block, there is a relatively large mass of aluminum block as an energy storage, and structurally as the bottom plate and surrounding shell of the overall casing. The thermal conductivity of aluminum blocks is very high in solids, only lower than gold, silver and copper, which can better meet one of the requirements of energy storage; the characteristic heat capacity of aluminum is also better than many other solid materials; the price of aluminum is relatively low, It is easy to process an...
Embodiment 3
[0024] Such as Figure 5 In the PCR instrument shown, the upper end of the TE sheet is an aluminum sample holder with a very thin well wall and a very light weight, which can be formed into a 0.2mL PCR test tube with 16 individual wells. The lower end of the TE sheet is a copper block with heat storage effect. The thermal capacity and thermal conductivity of copper are greater than that of aluminum, which is more suitable for the core component of the energy storage device. Below the copper block, there is a relatively large mass of aluminum block as an energy storage, and structurally as the bottom plate and surrounding shell of the overall casing. The thickness of copper block and aluminum bottom plate is not less than 6mm to achieve good heat conduction and energy storage effect. The aluminum block accumulator on the bottom plate is a composite structure of aluminum and water. There is a cavity in the aluminum block, and water (or other liquid with large heat capacity) is...
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Abstract
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