CN205403256U - Duplex condition evaporimeter - Google Patents

Duplex condition evaporimeter Download PDF

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Publication number
CN205403256U
CN205403256U CN201620133895.0U CN201620133895U CN205403256U CN 205403256 U CN205403256 U CN 205403256U CN 201620133895 U CN201620133895 U CN 201620133895U CN 205403256 U CN205403256 U CN 205403256U
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CN
China
Prior art keywords
cold fluid
vaporizer
cold
fluid inlet
pipe
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Expired - Fee Related
Application number
CN201620133895.0U
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Chinese (zh)
Inventor
钟克志
张盛杰
葛丽君
李娟�
姜术红
孙晓飞
申家明
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Qingdao Future Energy Environment Technology Co ltd
Original Assignee
Shandong Fute Energy Management Co Ltd
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Priority to CN201620133895.0U priority Critical patent/CN205403256U/en
Application granted granted Critical
Publication of CN205403256U publication Critical patent/CN205403256U/en
Expired - Fee Related legal-status Critical Current
Anticipated expiration legal-status Critical

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Abstract

The utility model relates to a duplex condition evaporimeter, used evaporimeter include the cold fluid inlet of first cold fluid inlet, second, cold fluid issuing, refrigerant import, refrigerant outlet, head, baffle, tube sheet, baffle, shell and pipe, first cold fluid inlet, the cold fluid inlet of second, cold fluid issuing, refrigerant import and refrigerant outlet all set up on the shell lateral wall, the pipe sets up inside evaporator sheel, be provided with the tube sheet between the pipe both sides, the pipe intermediate position is provided with the baffle each other, the shell tip is provided with the head, be provided with the baffle between head and the tube sheet. The utility model provides a duplex condition evaporimeter can satisfy the cold fluid flow's that the change brought of cold flow body operating mode change, and after the flow doubled, the resistance of evaporimeter did not have too big change, and the pump consumes can not increased, makes the heat transfer volume of evaporimeter satisfy the designing requirement all the time, adjusts convenient and reliablely.

Description

A kind of Double-working-condition vaporizer
Technical field
This utility model relates to a kind of Double-working-condition vaporizer, belongs to vaporizer technology field.
Background technology
Traditional vaporizer, cold flow body walks tube side, a cold fluid inlet, a cold fluid outlet;Coolant walks shell side, a coolant import, a refrigerant exit.When the cold fluid inlet and outlet temperature difference is in evaporator designs temperature range, cold fluid flow amount meets design conditions, and what cold flow body was walked is two-tube-pass.When cold fluid inlet and outlet Temperature Difference Ratio evaporator designs has a narrow range of temperature, when the heat exchange amount of vaporizer is constant, the flow of the cold flow body requiring over vaporizer just increases, after flow doubles, if continuing to walk two-tube-pass, the resistance of vaporizer can be very big, and pump consumption will increase, cold fluid flow amount also is difficult to reach heat transfer requirements, and heat transfer effect can not reach requirement.Traditional vaporizer, the flow of cold flow body, the temperature difference can only be run within the scope of evaporator designs, change along with cold fluid condition, after flow doubles increase, the resistance of vaporizer can be very big, and pump consumption increases, and the heat exchange amount of vaporizer also can be followed and change accordingly, it is likely to not reach designing requirement, regulates inconvenience.
Utility model content
The purpose of this utility model is in that to provide a kind of Double-working-condition vaporizer, in order to improves vaporizer better and controls result of use, conveniently better controls over adjustment vaporizer result of use.
To achieve these goals, the technical solution of the utility model is as follows.
A kind of Double-working-condition vaporizer, vaporizer used includes the first cold fluid inlet, the second cold fluid inlet, cold fluid outlet, coolant import, refrigerant exit, end socket, dividing plate, tube sheet, baffle plate, shell and pipe, and described first cold fluid inlet, the second cold fluid inlet, cold fluid outlet, coolant import and refrigerant exit are arranged on side wall of outer shell;Pipe is arranged on inside evaporator shell;Being provided with tube sheet between pipe both sides, pipe centre position is provided with baffle plate each other;Outer casing end is provided with end socket;Dividing plate it is provided with between end socket and tube sheet.
In this system, cold flow body walks tube side, and coolant walks shell side;The tube side that cold flow body is walked is divided into upper and lower two runners by dividing plate, tube sheet and end socket;When the cold fluid inlet and outlet temperature difference is in evaporator designs temperature range, cold fluid outlet is closed, first cold fluid inlet and the second cold fluid inlet are opened, cold flow body is entered vaporizer by the first cold fluid inlet, flowing in half partial tube on an evaporator under the guide functions of dividing plate, end socket and tube sheet, flow from one end of vaporizer and flow along vaporizer the latter half pipe under the water conservancy diversion of tube sheet plate and end socket again after the other end, cold flow body import flow out vaporizer.Such cold flow body enters vaporizer from an import, vaporizer is flowed out from an outlet, cold flow body is from the left end of the first half of vaporizer along tube side stream to right-hand member, then again from the right-hand member of the latter half of vaporizer along tube side stream to left end, cold flow body has flowed one back and forth in vaporizer, namely cold flow body walks in vaporizer is two-tube-pass.Coolant is entered vaporizer by coolant import, circulates, refrigerant exit flow out under the water conservancy diversion of baffle plate, shell and tube sheet in shell side.Cold flow body and coolant by the mutual heat exchange of tube wall, thus achieve a process of cold flow body and coolant heat exchange in vaporizer in vaporizer.
When cold fluid inlet and outlet Temperature Difference Ratio evaporator designs has a narrow range of temperature, namely after the increase of cold fluid flow amount doubles, now cold fluid outlet is opened, cold flow body is simultaneously entered vaporizer by the first cold fluid inlet and the second cold fluid inlet, under the guide functions of dividing plate, end socket and tube sheet simultaneously on an evaporator in half part and the latter half pipe by vaporizer left end stream to the right-hand member of vaporizer, cold fluid outlet flow out vaporizer.Cold flow body is simultaneously from the upper and lower two-part left end stream of vaporizer to right-hand member under the water conservancy diversion of dividing plate and end socket, namely cold flow body walks in vaporizer is single tube journey.Accordingly even when be when cold fluid flow amount increases, cold flow body resistance in tube side is without increase, and pump consumes without increase.Coolant is entered vaporizer by coolant import, circulates, refrigerant exit flow out under the water conservancy diversion of baffle plate, shell and tube sheet in shell side.Cold flow body and coolant by the mutual heat exchange of tube wall, thus achieve a process of cold flow body and coolant heat exchange in vaporizer in vaporizer.
The mutual switchover operation of said system, it is simply that the operation logic of Double-working-condition vaporizer.The change of the cold fluid flow amount that the change of cold fluid condition brings can be met, even if after flow doubles, the resistance of vaporizer is without increase, and pump consumption is constant, makes the heat exchange amount of vaporizer meet design requirement all the time, easy to adjust reliably.
Above-mentioned Double-working-condition vaporizer, cold flow body walks tube side, two cold fluid inlets, a cold fluid outlet;Coolant walks shell side, a coolant import, a refrigerant exit.When the cold fluid inlet and outlet temperature difference is in evaporator designs temperature range, one import of cold flow body, an outlet, what cold flow body was walked is two-tube-pass.When cold fluid inlet and outlet Temperature Difference Ratio evaporator designs has a narrow range of temperature, when the heat exchange amount of vaporizer is constant, the flow of the cold flow body requiring over vaporizer just increases, two imports of cold flow body, an outlet, what cold flow body was walked is single tube journey, even if flow doubles, now the resistance of vaporizer will not become big, and pump consumption will not increase, and cold fluid flow amount will meet the heat exchange demand of vaporizer.
Having the beneficial effects that of this utility model: the Double-working-condition vaporizer in this utility model, the change of the cold fluid flow amount that the change of cold fluid condition brings can be met, after flow doubles, the resistance of vaporizer does not have too big change, pump consumption will not increase, the heat exchange amount making vaporizer meets design requirement all the time, easy to adjust reliably.
Accompanying drawing explanation
Fig. 1 is that in this utility model embodiment, vaporizer two-tube-pass flows to schematic diagram.
Fig. 2 is that in this utility model embodiment, vaporizer single tube journey flows to schematic diagram.
Description of symbols in figure: 1, the first cold fluid inlet;2, the second cold fluid inlet;3, cold fluid outlet;4, coolant import;5, refrigerant exit;6, end socket;7, dividing plate;8, tube sheet;9, baffle plate;10, shell;11, pipe.
Detailed description of the invention
Below in conjunction with accompanying drawing, detailed description of the invention of the present utility model is described, in order to be better understood from this utility model.
Embodiment
Double-working-condition vaporizer in the present embodiment, including first cold fluid inlet the 1, second cold fluid inlet 2, cold fluid outlet 3, coolant import 4, refrigerant exit 5, end socket 6, dividing plate 7, tube sheet 8, baffle plate 9, shell 10 and pipe 11, described first cold fluid inlet the 1, second cold fluid inlet 2, cold fluid outlet 3, coolant import 4 and refrigerant exit 5 are arranged on shell 10 sidewall;It is internal that pipe 11 is arranged on evaporator shell 10;Being provided with tube sheet 11 between pipe 11 both sides, pipe 11 centre position is provided with baffle plate 9 each other;Shell 10 end is provided with end socket 6;Dividing plate 7 it is provided with between end socket 6 and tube sheet 8.
Being illustrated in figure 1 vaporizer two-tube-pass and flow to schematic diagram, in this system, cold flow body walks tube side, and coolant walks shell side;The tube side that cold flow body is walked is divided into upper and lower two runners by dividing plate 7, tube sheet 8 and end socket 6;When the cold fluid inlet and outlet temperature difference is in evaporator designs temperature range, cold fluid outlet 3 is closed, first cold fluid inlet 1 and the second cold fluid inlet 2 are opened, cold flow body is entered vaporizer by the first cold fluid inlet 1, flowing in half partial tube 11 on an evaporator under the guide functions of dividing plate 7, end socket 6 and tube sheet 8, flow from one end of vaporizer and flow along vaporizer the latter half pipe 11 under the water conservancy diversion of tube sheet plate 8 and end socket 6 again after the other end, cold fluid inlet 2 flow out vaporizer.Such cold flow body enters vaporizer from an import, vaporizer is flowed out from an outlet, cold flow body is from the left end of the first half of vaporizer along tube side stream to right-hand member, then again from the right-hand member of the latter half of vaporizer along tube side stream to left end, cold flow body has flowed one back and forth in vaporizer, namely cold flow body walks in vaporizer is two-tube-pass.Coolant is entered vaporizer by coolant import 4, circulates, refrigerant exit 5 flow out under the water conservancy diversion of baffle plate 9, shell 10 and tube sheet 8 in shell side.Cold flow body and coolant by the mutual heat exchange of tube wall, thus achieve a process of cold flow body and coolant heat exchange in vaporizer in vaporizer.
When cold fluid inlet and outlet Temperature Difference Ratio evaporator designs has a narrow range of temperature, namely after the increase of cold fluid flow amount doubles, if continuing the flow process according to Fig. 1 system, the resistance of vaporizer will be very big, pump consumption increases, now need to be switched to Fig. 2 system operational process, cold fluid outlet 3 is opened, cold flow body is simultaneously entered vaporizer by the first cold fluid inlet 1 and the second cold fluid inlet 2, at dividing plate 7, end socket 6, half part and the latter half pipe 11 are interior by the right-hand member of vaporizer left end stream to vaporizer on an evaporator simultaneously with under the guide functions of tube sheet 8, vaporizer is flowed out by cold fluid outlet 3.Cold flow body is simultaneously from the upper and lower two-part left end stream of vaporizer to right-hand member under the water conservancy diversion of dividing plate 7 and end socket 6, namely cold flow body walks in vaporizer is single tube journey.Accordingly even when be when cold fluid flow amount increases, cold flow body resistance in tube side is without increase, and pump consumes without increase.Coolant is entered vaporizer by coolant import 4, circulates, refrigerant exit 5 flow out under the water conservancy diversion of baffle plate 9, shell 10 and tube sheet 8 in shell side.Cold flow body and coolant by the mutual heat exchange of tube wall, thus achieve a process of cold flow body and coolant heat exchange in vaporizer in vaporizer.
Fig. 1 system and the mutual switchover operation of Fig. 2 system, it is simply that the operation logic of Double-working-condition vaporizer.The change of the cold fluid flow amount that the change of cold fluid condition brings can be met, even if after flow doubles, the resistance of vaporizer is without increase, and pump consumption is constant, makes the heat exchange amount of vaporizer meet design requirement all the time, easy to adjust reliably.
The above is preferred implementation of the present utility model; it should be pointed out that, for those skilled in the art, under the premise without departing from this utility model principle; can also making some improvements and modifications, these improvements and modifications are also considered as protection domain of the present utility model.

Claims (1)

1. a Double-working-condition vaporizer, it is characterized in that: vaporizer used includes the first cold fluid inlet, the second cold fluid inlet, cold fluid outlet, coolant import, refrigerant exit, end socket, dividing plate, tube sheet, baffle plate, shell and pipe, and described first cold fluid inlet, the second cold fluid inlet, cold fluid outlet, coolant import and refrigerant exit are arranged on side wall of outer shell;Pipe is arranged on inside evaporator shell;Being provided with tube sheet between pipe both sides, pipe centre position is provided with baffle plate each other;Outer casing end is provided with end socket;Dividing plate it is provided with between end socket and tube sheet.
CN201620133895.0U 2016-02-23 2016-02-23 Duplex condition evaporimeter Expired - Fee Related CN205403256U (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN201620133895.0U CN205403256U (en) 2016-02-23 2016-02-23 Duplex condition evaporimeter

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN201620133895.0U CN205403256U (en) 2016-02-23 2016-02-23 Duplex condition evaporimeter

Publications (1)

Publication Number Publication Date
CN205403256U true CN205403256U (en) 2016-07-27

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Family Applications (1)

Application Number Title Priority Date Filing Date
CN201620133895.0U Expired - Fee Related CN205403256U (en) 2016-02-23 2016-02-23 Duplex condition evaporimeter

Country Status (1)

Country Link
CN (1) CN205403256U (en)

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN109506500A (en) * 2018-11-21 2019-03-22 浙江英科新能源有限公司 A kind of shell-and-tube heat-exchange device
CN113811728A (en) * 2019-02-20 2021-12-17 新加坡能源创新发展有限公司 Improved chiller and method of use

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN109506500A (en) * 2018-11-21 2019-03-22 浙江英科新能源有限公司 A kind of shell-and-tube heat-exchange device
CN113811728A (en) * 2019-02-20 2021-12-17 新加坡能源创新发展有限公司 Improved chiller and method of use

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Date Code Title Description
C14 Grant of patent or utility model
GR01 Patent grant
TR01 Transfer of patent right

Effective date of registration: 20210331

Address after: 266000 11th floor, North building, G building, enterprise headquarters, 88 Longji Road, Jimo District, Qingdao City, Shandong Province

Patentee after: Qingdao future energy Environment Technology Co.,Ltd.

Address before: 266000 3rd floor, building D-1, 1688 Industrial Park, 1022 Beilao Road, Licang District, Qingdao, Shandong Province

Patentee before: SHANDONG FUTE ENERGY MANAGEMENT Co.,Ltd.

TR01 Transfer of patent right
CF01 Termination of patent right due to non-payment of annual fee

Granted publication date: 20160727

CF01 Termination of patent right due to non-payment of annual fee