摘要:
An anti-torsion system and kit for spring-powered rodent traps. The system and kit make use of one or more torsion-blockers. Each torsion-blocker includes a substrate having a first surface and a second surface opposite the first surface, a first fastening mechanism on the first surface of the substrate attaching the torsion-blocker to the base of the rodent trap, and a second fastening mechanism on the second surface of the substrate attaching the torsion-blocker to a surface upon which the rodent trap base rests. When a rodent trap is mounted using the system, the one or more torsion-blockers oppose the torsion force and prevents the twisting movement of the rodent trap base caused by the acceleration and snapping down of the hammer motivated by the spring from occurring.
摘要:
The present invention relates to micron-gap thermal photovoltaic (MTPV) technology for the solid-state conversion of heat to electricity. The problem is forming and then maintaining the close spacing between two bodies at a sub-micron gap in order to maintain enhanced performance. While it is possible to obtain the sub-micron gap spacing, the thermal effects on the hot and cold surfaces induce cupping, warping, or deformation of the elements resulting in variations in gap spacing thereby resulting in uncontrollable variances in the power output. A major aspect of the design is to allow for intimate contact of the emitter chips to the shell inside surface, so that there is good heat transfer. The photovoltaic cells are pushed outward against the emitter chips in order to press them against the inner wall. A high temperature thermal interface material improves the heat transfer between the shell inner surface and the emitter chip.
摘要:
The present invention relates to micron-gap thermal photovoltaic (MTPV) technology for the solid-state conversion of heat to electricity. The problem is forming and then maintaining the close spacing between two bodies at a sub-micron gap in order to maintain enhanced performance. While it is possible to obtain the sub-micron gap spacing, the thermal effects on the hot and cold surfaces induce cupping, warping, or deformation of the elements resulting in variations in gap spacing thereby resulting in uncontrollable variances in the power output. A major aspect of the design is to allow for intimate contact of the emitter chips to the shell inside surface, so that there is good heat transfer. The photovoltaic cells are pushed outward against the emitter chips in order to press them against the inner wall. A high temperature thermal interface material improves the heat transfer between the shell inner surface and the emitter chip.