Jet compression type deep condensation dead steam heat pump circulation system

A deep condensing and circulating system technology, applied in refrigerators, refrigeration and liquefaction, lighting and heating equipment, etc., can solve the problems of high energy consumption and operating costs, low heat pump performance coefficient and efficiency, and low heat pump evaporation temperature. The effect of reducing temperature, improving energy quality, and small loss of heat transfer temperature difference

Active Publication Date: 2021-08-20
HARBIN INST OF TECH
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

[0006] In order to solve the problems of low heat pump evaporation temperature, low heat pump performance coefficient and efficiency, poor energy saving performance of the system, and high energy consumption and operating costs in the existing heat pump cycle system

Method used

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  • Jet compression type deep condensation dead steam heat pump circulation system
  • Jet compression type deep condensation dead steam heat pump circulation system
  • Jet compression type deep condensation dead steam heat pump circulation system

Examples

Experimental program
Comparison scheme
Effect test

specific Embodiment approach 1

[0038] Detail embodiment 1: Combination figure 1 As shown, the present invention provides a heat pump circulating system of injection compression depth, including a first compressor, a heat pump condenser, a first throttle expansion valve, a heat pump first evaporator, a second throttle expansion valve. , Heat pump second evaporator, injector, first heat medium tube, second heat medium tube, first refrigerant line, second refrigerant line, third refrigerant line, fourth cooling Division pipeline, fifth refrigerant line, sixth refrigerant line, seventh refrigerant line, eighth refrigerant line, ninth refrigerant line, first lack of steam, second Pipeline, third lack of steam line,

[0039] The exit end of the first heat medium line is connected to the heat medium inlet end of the heat pump condenser, and the heat medium outlet end of the heat pump condenser is connected to the inlet end of the second heat medium line;

[0040] The inlet end of the first refrigerant pipe is connecte...

specific Embodiment approach 2

[0053] Detail Embodiment 2: Combination figure 2 As shown, a heat pump circulation system of injection compression depth, including a first compressor, a heat pump condenser, a first throttle expansion valve, a heat pump first evaporator, a second throttle expansion valve, and a heat pump second Evaporator, injector, first heat medium pipe, second heat medium pipe, first refrigerant line, second refrigerant line, third refrigerant line, fourth refrigerant line, Fifth refrigerant line, sixth refrigerant pipe, seventh refrigerant line, eighth refrigerant line, ninth refrigerant pipe, first lack of steam line, second lack of steam line, Three fasteners,

[0054] The exit end of the first heat medium line is connected to the heat medium inlet end of the heat pump condenser, and the heat medium outlet end of the heat pump condenser is connected to the inlet end of the second heat medium line;

[0055] The inlet end of the first refrigerant line is connected to the refrigerant outlet en...

specific Embodiment approach 3

[0058] Specific implementation plan three: combined image 3 As shown, a heat pump circulation system of injection compression depth, including a first compressor, a heat pump condenser, a first throttle expansion valve, a heat pump first evaporator, a second throttle expansion valve, and a heat pump second Evaporator, injector, first heat medium pipe, second heat medium pipe, first refrigerant line, second refrigerant line, third refrigerant line, fourth refrigerant line, Fifth refrigerant line, sixth refrigerant pipe, seventh refrigerant line, eighth refrigerant line, ninth refrigerant pipe, first lack of steam line, second lack of steam line, Sanchai, third-stage flow expansion valve, economy, tenth refrigerant line, end, 11th refrigerant line, twelfth refrigerant pipeline,

[0059] The exit end of the first heat medium line is connected to the heat medium inlet end of the heat pump condenser, and the heat medium outlet end of the heat pump condenser is connected to the inlet en...

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Abstract

The invention discloses a jet compression type deep condensation dead steam heat pump circulation system, relates to the technical field of heat pump systems, aims to solve the problems that an existing heat pump circulation system is low in heat pump evaporation temperature, low in heat pump performance coefficient and efficiency, poor in system energy saving performance and large in energy consumption and operation cost. The system comprises a first compressor, a heat pump condenser, a first throttling expansion valve, a heat pump first evaporator, a second throttling expansion valve, a heat pump second evaporator, an ejector, a first heat-carrying medium pipeline, a second heat-carrying medium pipeline, a first refrigerant pipeline, a second refrigerant pipeline, a third refrigerant pipeline, a fourth refrigerant pipeline, a fifth refrigerant pipeline, a sixth refrigerant pipeline, a seventh refrigerant pipeline, an eighth refrigerant pipeline, a ninth refrigerant pipeline, a first dead steam pipeline, a second dead steam pipeline and a third dead steam pipeline. According to the system, performance coefficient of the heat pump is improved by 15-20% through cascade evaporation and cascade compression, the ejector is used for replacing a compressor, and energy consumption and operation cost are effectively saved.

Description

Technical field [0001] The present invention relates to the technical field of heat pump circulation system, and in particular, there is a heat pump circulating system for injection compression depth condensate. Background technique [0002] Due to the continuous rise in energy prices, domestic coal prices have also risen sharply, saving energy, and reducing business costs have become an urgent task of enterprises. A large number of industrial states in the enterprise, the power station boiler is equipped with a boiler-free displacement container equipped with an oxygenator and a softening system to produce a large number of low-pressure steam, flash vapor (elastic) outward. In addition, during the use of steam, a large amount of low-pressure steam is generated due to the process of the process, causing great energy loss and waste, and the recycling economic value is huge. If such a recycled value is reasonably recycled, the economy Value is significant. [0003] In evaporation p...

Claims

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Application Information

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Patent Type & Authority Applications(China)
IPC IPC(8): F25B25/00F25B41/31
CPCF25B25/00
Inventor 张承虎赵一波薛贵钰黄海成
Owner HARBIN INST OF TECH
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