Heat driven Stirling refrigerator
A refrigerator and heat-driven technology, applied in refrigerators, hot gas variable displacement engine devices, refrigeration and liquefaction, etc., can solve the problems of difficult design and processing, system vibration, unfavorable practical application, etc., to reduce design and processing Difficulty, vibration reduction effect
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Embodiment 1
[0030] Such as figure 2 As shown, a thermally driven Stirling refrigerator provided by the present invention includes an engine, a refrigerator, an ejector, and a resonator. The engine includes a hot end heat exchanger 3, a first back The heat exchanger 2 and the first room temperature heat exchanger 1. The refrigerator includes a second room temperature heat exchanger 1', a second heat regenerator 2'and a cold end heat exchanger 3'which are connected from top to bottom in sequence, so The engine is provided with a first thermal buffer chamber 8, the refrigerator is provided with a second thermal buffer chamber 8', and the upper end of the first thermal buffer chamber 8 is connected to the hot end heat exchanger 3 , Its lower end is connected to the first room temperature heat exchanger 1 for transitioning the high temperature state of the hot end heat exchanger 3 to room temperature; the lower end of the second thermal buffer chamber 8'is connected to the cold end heat exchang...
Embodiment 2
[0035] Such as Figure 4 As shown, the difference between the second embodiment and the first embodiment is that the resonator 6 can be replaced by a linear motor, and the cavity 5 is provided with a linear motor outside the two first piston bodies 9 respectively. The linear motor includes a stator 12, a mover 13, and a piston 14. The stator 12 is fixedly connected to the inner wall of the cavity 5. The piston 14 is provided at an end of the mover 13 opposite to the first piston body 9. 13 is used to drive the piston 14 to reciprocate along the stator 12. The mover 13 and the piston 14 can be used as the resonator 6; the resonator 6 simultaneously acts on the magnetic field to output electric energy when moving, so In this embodiment, the system can simultaneously output electric energy and cold energy, which is of great practical value for occasions where electric power is lacking.
Embodiment 3
[0037] Such as image 3 As shown, the difference between the third embodiment and the first and second embodiments is that the opposite end of the first piston body 9 and the second piston body 10 or the piston 14 can be horizontally connected with a connecting rod 11, and the second piston body 10 or the piston 14 is provided with a central through hole passing through the connecting rod 11, and the connecting rod 11 passes through the central through hole. In this way, the areas of the first piston body 9 and the second piston body 10 or the two ends of the piston 14 are different. It helps to reduce the stiffness of the spring required to support the reciprocating movement of the second piston body 10 or the piston 14.
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