TW202226931A - Temperature controlling unit and operating apparatus using the same - Google Patents

Abstract

The present invention reveals a temperature controlling unit, including a support and a heat exchanger. The base has a compartment and a flow channel. The base has a first inlet and a second inlet, which communicate with the compartment respectively, and an outlet. The flow channel has no barrier around a first end of the first inlet. The flow channel has a barrier beside a third end of the second inlet. The heat exchanger is assembled in the compartment. The heat exchanger has fins, which include first fins and second fins differing from the first fins in height. A quick flowing zone is defined above the shorter fins for the heat medium flowing quickly therethrough. Therefore, the first inlet can reduce the duct loss and increase the flows, promoting temperature controlling efficiency.

Description

Temperature control unit and its application equipment

The present invention provides a temperature control unit that effectively reduces the loss of the flow channel and rapidly discharges the heat-exchanged fluid, thereby improving the use efficiency of the temperature control.

At present, the crimping mechanism of the electronic component testing equipment presses the electronic components in the tester with the lower pressure fixture to ensure that the contacts of the electronic components are electrically contacted with the probes of the tester to perform the test operation. During testing of electronic components, self-heating will rapidly occur, which will affect the test yield beyond the preset test temperature range. Due to the high heat of the component, the test operation is expected to be performed at the preset test temperature.

Please refer to FIG. 1 , the tester includes an electrically connected circuit board 11 and a test seat 12 with probes 121 for holding and testing electronic components. The crimping mechanism is set between the moving arm 13 and the pressing fixture 14 to set a temperature The temperature control unit includes a heat exchange body 15 and a heat exchange element 16. The top surface of the heat exchange body 15 is connected to the moving arm 13, a chamber 151 is recessed on the bottom surface, and a middle position of the top surface of the chamber 151 communicates with a Water supply channel 152, one end of water supply channel 152 is connected to a water supply pipe, and the other end is bent and extended downward to form a water inlet 153, the water inlet 153 is connected to the chamber 151 for injecting cooling water, and the other end is close to the top surface of the chamber 151. A water outlet 154 is provided at the outer periphery, and the water outlet 154 communicates with a water outlet channel 155 for discharging the cooling water that has been heat exchanged; In the chamber 151 of the heat exchange body 15, the heat exchange element 16 is connected to the pressing jig 14 with the bottom surface; when the pressing jig 14 presses the electronic components 17 of the test seat 12, the cooling that flows into the chamber 151 is utilized. The water exchanges heat with the fins 161 of the heat exchange element 16 , so as to reduce the self-heating of the electronic components 17 to perform the test operation.

However, when the cooling water in the water supply channel 152 flows to the water inlet 153, it will first collide with the bending block A of the channel, and then flow into the water inlet 153, resulting in a flow of energy loss due to collision and friction between the water molecules of the cooling water. The loss of the channel not only consumes the cooling water, but also slows down the flow rate, so that the inflow into the chamber 151 cannot be replenished quickly, so that the cooling performance cannot be improved.

Furthermore, the high heat of the electronic element 17 is concentrated in the center position, so the heat exchange element 16 only needs to use the fins 161 at the center position and the center position of the electronic element 17 for better heat exchange, and the requirement for heat exchange around the electronic element 17 is not required. However, the height of all the fins 161 of the heat exchanging element 16 is the same, so that the heat exchanged cooling water flowing through the fins 161 at the center of the heat exchanging element 16 must still meander and flow in a plurality of positions around the heat exchanging element 16 Between the fins, the water can be discharged from the water outlet 154, when the cooling water flows slowly , not only cannot quickly discharge the cooling water that has been heat exchanged, but also affects the flow rate of the water inlet 153 to deliver the pre-warmed cooling water to the fins 161 at the center of the heat exchange element 16, thereby reducing the heat exchange cooling efficiency, and even the operator must consume the cooling equipment. More energy can be used to cool the electronic components to the preset test temperature, which increases cost and operation time.

The first objective of the present invention is to provide a temperature control unit, which includes a holder and a heat exchange member. The holder is provided with first and second water inlets and water outlets that communicate with the temperature control space, and the first end of the first water inlet is relatively supplied with water around the first end. The main flow path of the flow channel is not provided with a blocking part, and the third end of the second water inlet is provided with a blocking part relative to the main flow path of the water supply flow channel. There are a plurality of first fins and a plurality of second fins; the first water inlet of the holder can avoid fluid collision, effectively reduce the loss of the flow channel, and increase the flow rate of the fluid, so that the first water inlet can be used for rapid circulation Combined with the second water inlet, the fluid can be quickly transported to the temperature-controlled space, thereby improving the efficiency of temperature-controlled use.

The second object of the present invention is to provide a temperature control unit, wherein the heat exchange element is provided with first fins and second fins of different heights, and a high-speed flow area is formed above the second fins with a lower height for supplying The heat-exchanged fluid flows rapidly from the high-speed flow area to the water outlet for discharge, and the first and second water inlets quickly deliver the pre-warmed fluid to the temperature-controlled space, thereby improving the temperature-controlled use efficiency.

The third object of the present invention is to provide a temperature control unit, the holder is provided with first and second temperature control spaces for arranging the first and second heat exchange elements, and the first temperature control space is equipped with first and second water inlets And the first water outlet, the second temperature control space is equipped with the third and fourth water inlets and the second water outlet, so as to form a plurality of independent temperature control areas, which not only shortens the flow path of the fluid in the first and second temperature control spaces , make the fluid quickly exchange heat with the first and second heat exchange parts, and use multiple independent temperature control areas to facilitate the temperature control operation of large-sized electronic components or multiple micro-sized electronic components, thereby improving the use of temperature control. efficacy.

The fourth object of the present invention is to provide a temperature control unit, which is provided with a first water outlet and a second water outlet on both sides of the first and second water inlets, respectively, and the first and second water outlets communicate with the temperature control space and the second water outlet. The first and second water outlet channels, and the fluid in the temperature control space is quickly diverted to the first and second water outlets with a short flow path for discharge, thereby improving the efficiency of temperature control.

The fifth object of the present invention is to provide a temperature control unit, the diameter of the water outlet of the holder is larger than that of the first and second water inlets, so as to increase the pressure difference between the water outlet and the first and second water inlets , so that the heat-exchanged fluid is quickly and massively discharged from the water outlet, thereby improving the temperature control efficiency.

The sixth object of the present invention is to provide a temperature control unit, in which the bottom surface of the substrate of the heat exchange element is used as a joint for attaching electronic components, or at least one jig with a joint section is installed on the bottom surface of the substrate for attaching electronic components, Use the joint to perform the operation of pressing down or carrying electronic components, and to control the temperature of electronic components , thereby improving the efficiency of temperature control.

The seventh object of the present invention is to provide an operation equipment, including a machine, a feeding device, a receiving device, an operating device, a conveying device and a central control device; the feeding device is arranged on the machine, and is provided with at least one accommodating electronic The feeding and receiving device for components; the receiving device is arranged on the machine table, and is provided with at least one receiving and receiving device for accommodating the electronic components that have been processed; the working device is arranged on the machine table, and is provided with at least one operating device Perform preset operations on electronic components; the conveying device is arranged on the machine table, and is provided with at least one feeder and at least one temperature control unit of the present invention, the feeder is used for transferring electronic components, and the temperature control unit is used for temperature control electronics Components; the central control device is used to control and integrate the actions of various devices to perform automated operations to achieve practical benefits of improving operational efficiency.

In order to make your examiners further understand the present invention, hereby give a preferred embodiment and cooperate with the drawings, the details are as follows:

Please refer to FIGS. 2 , 3 and 4 , a temperature control unit includes a holder 21 and a heat exchange member. The holder 21 is provided with at least one temperature control space; further, the holder 21 can be provided with a plurality of non-temperature-controlled spaces according to operational requirements. In the same temperature control spaces, the dimensions of the plurality of temperature control spaces are the same or different; There is a partition 2123 between the control space 2121 and the second temperature control space 2122, but they are not connected, so that the first temperature control space 2121 and the second temperature control space 2122 respectively form two independent temperature control spaces, so as to facilitate the application of large-size electronic Temperature control of components or multiple micro-sized electronic components.

The holder 21 is provided with a first water inlet 2131 and a second water inlet 2132. The first end of the first water inlet 2131 communicates with the first water supply channel 2141, and the periphery of the first end is opposite to the first main water supply channel 2141. The flow path L1 is not provided with a blocking portion, the second end of the first water inlet 2131 communicates with the first temperature control space 2121, the third end of the second water inlet 2132 communicates with the first water supply channel 2141, and the periphery of the third end is opposite to the first temperature control space 2121. The first main flow path L1 of a water supply channel 2141 is provided with a blocking portion, and the fourth end of the second water inlet 2132 communicates with the first temperature control space 2121; in this embodiment, the holder 21 is provided with a first water inlet 2131 and The second water inlet 2132 communicates with the first temperature control space 2121 and the first water supply channel 2141, and is provided with a third water inlet 2133 and a fourth water inlet 2134 to communicate with the second temperature control space 2122 and the second water supply flow Road 2142.

The first water inlet 2131 of the holder 21 is located near the center of the first temperature control space 2121 . The first main flow path L1 is not provided with a blocking part, that is, the first water inlet 2131 and the first water supply flow channel 2141 form a T-shaped first branch flow path L3, and the second end of the first water inlet 2131 communicates with the first The temperature control space 2121 is used for the fluid of the first water supply channel 2141 to flow into the first temperature control space 2121 through the first water inlet 2131; the third end of the second water inlet 2132 is connected to the first water supply channel 2141, and the third A blocking portion 2141A is provided around the end relative to the first main flow path L1 of the first water supply channel 2141, that is, the second water inlet 2132 and the first water supply channel 2141 form a "shaped second branch flow path L4, and the second inlet The fourth end of the water inlet 2132 communicates with the first temperature control space 2121 , so that the fluid of the first water supply channel 2141 flows into the first temperature control space 2121 through the second water inlet 2132 .

The third water inlet 2133 of the holder 21 is located near the center of the second temperature control space 2122. The second main flow path L2 is not provided with a blocking part, that is, the third water inlet 2133 and the second water supply channel 2142 form a T-shaped third branch flow path L5, and the second end of the third water inlet 2133 communicates with the second The temperature control space 2122 is for the fluid of the second water supply channel 2142 to flow into the second temperature control space 2122 through the third water inlet 2133; the third end of the fourth water inlet 2134 is connected to the second water supply channel 2142, and the third A blocking portion 2142A is provided around the end relative to the second main flow path L2 of the second water supply channel 2142, that is, the fourth water inlet 2134 and the second water supply channel 2142 form a “shaped fourth branch flow path L6, and the fourth inlet The fourth end of the water inlet 2134 communicates with the second temperature control space 2122 , so that the fluid of the second water supply channel 2142 flows into the second temperature control space 2122 through the fourth water inlet 2134 .

The holder 21 is provided with at least one water outlet, and the water outlet communicates with the water outlet channel and the first temperature control space 2121. Further, the diameter of the water outlet is larger than the diameter of the first and second water inlets 2131 and 2132, so that the first and second water inlets 2131 and 2132 have a diameter. The pressure difference between the two water inlets 2131, 2132 and the water outlet becomes larger, so as to quickly discharge the heat-exchanged fluid.

In this embodiment, the holder 21 is provided with a first water outlet 2151 and a second water outlet 2152 on two sides of the first and second water inlets 2131 and 2132, respectively, and the first water outlet 2151 communicates with the first water outlet channel 2161 and the second water outlet. A temperature control space 2121 , and the second water outlet 2152 communicates with the second water outlet channel 2162 and the first temperature control space 2121 . The holder 21 is further provided with a third water outlet 2153 and a fourth water outlet 2154 on two sides of the third and fourth water inlets 2133 and 2134, respectively. The third water outlet 2153 communicates with the third water outlet channel 2163 and the second temperature control space. 2122 , the fourth water outlet 2154 communicates with the fourth water outlet channel 2164 and the second temperature control space 2122 .

At least one heat exchange element is assembled in the temperature control space of the holder 21, and a plurality of first fins and a plurality of second fins are arranged on the base plate; further, the first fins and the second fins are cylindrical, Corner column shape or sheet shape, a plurality of first fins and a plurality of second fins are arranged in a plurality of rings concentric circles or convex; the first fin and the second fin have the same or different heights, if the first fin and the second fin have the same or different heights The fins and the second fins have different heights, so that a high-speed flow area is formed above the second fin with a lower height, so that the heat-exchanged fluid can quickly flow to the water outlet for discharge through the high-speed flow area. The first water inlet 2131 of the holder 21 is opposite to the first fin of the heat exchange element.

In addition, the substrate can be directly or indirectly bonded to electronic components. For example, the second surface (such as the bottom surface) of the substrate can be used as a bonding portion for direct bonding and temperature control of electronic components. For example, the bottom surface of the substrate is equipped with a fixture with at least one bonding portion to It is used for indirect bonding of electronic components, using the joints to perform the operation of pressing down or carrying electronic components, and to temperature control the electronic components, thereby improving the performance of temperature control.

Of course, the temperature control unit is provided with a plurality of temperature control spaces for assembling a plurality of heat exchange elements according to operational requirements, and the plurality of heat exchange elements can be used with a plurality of heaters or cooling chips.

In this embodiment, the temperature control unit is configured with a first heat exchange member 22 and a second heat exchange member 23, the first heat exchange member 22 is assembled in the first temperature control space 2121 of the holder 21, and is provided with a first substrate 221, A plurality of first fins 222 are protruded and arrayed at the center of the first surface of the first substrate 221 . A plurality of second fins 223 are respectively protruded and arrayed on both sides of the fin 222. The first fin 222 and the second fin 223 have a height difference, that is, the height of the second fin 223 is lower than that of the first fin 222. A high-speed flow area is formed above the second fins 223 , so that the two sides of the first fins 222 and the first and second water outlets 2151 and 2152 respectively have high-speed flow areas.

In addition, the second surface (such as the bottom surface) of the first substrate 221 is used for assembling at least one jig (not shown in the figure, such as a pressing jig or a holder, etc.) for bonding electronic components, and the bonding part is used for execution. The operation of pressing down or carrying electronic components, and temperature-controlling the electronic components.

The second heat exchanging element 23 is assembled in the second temperature control space 2122 of the holder 21, and is provided with a second base plate 231. The second base plate 231 protrudes from the center of the first surface and has a plurality of third fins 232 in an array. The third fins 232 are opposite to the third water inlet 2133 and the fourth water inlet 2134 of the holder 21 , and a plurality of fourth fins 233 are protruded and arrayed on both sides of the third fin 232 respectively. The third fins 232 There is a height difference with the fourth fin 233, that is, the height of the fourth fin 233 is lower than that of the third fin 232, so as to form a high-speed flow area above the fourth fin 233, so that the two There are fast flow areas between the side and the third and fourth water outlets 2153 and 2154 respectively.

The second surface (such as the bottom surface) of the second substrate 231 can be equipped with at least one jig (not shown in the figure, such as a pressing jig or a holder, etc.) for attaching electronic components, and using the bonding The part performs the operation of pressing down or carrying electronic components, and controls the temperature of the electronic components.

Please refer to FIGS. 3 and 5 , the temperature control unit is applied to the crimping mechanism of the conveying device. The holder 21 of the temperature control unit is connected to the moving arm 31 with the second surface. Furthermore, the holder 21 can be used to directly or indirectly assemble the moving arm 31 If it is an indirect assembly, a float or the like can be arranged between the moving arm 31 and the holder 21; in this embodiment, the moving arm 31 is indirectly assembled on the second surface of the holder 21; The base plate 231 of the heat exchange element 23 is equipped with a pressing jig 32 , and the pressing jig 32 is provided with first and second joint portions 321 and 322 for performing the operation of pressing down the electronic components and controlling the temperature of the electronic components. In addition, the test device is provided with first and second test sockets 33 and 34 with probes at positions opposite to the first and second joint parts 321 and 322 of the pressing fixture 32 . The first and second test sockets 33 and 34 are electrically connected to each other. Circuit board 35; a feeder (not shown) moves the first and second electronic components 36, 37 into the first and second test seats 33, 34 respectively, the moving arm 31 drives the temperature control unit and the pressing fixture 32 The Z-direction displacement is performed to make the first and second joint parts 321 and 322 of the pressing fixture 32 press the first and second electronic components 36 and 37 respectively to perform the test operation.

Please refer to FIGS. 6 and 7 , taking the first heat exchange element 22 of the temperature control unit as an example, the first water supply channel 2141 of the holder 21 supplies low-temperature fluid, and the low-temperature fluid flows along the first main flow path L1 to the first water inlet 2131 and the second water inlet 2132, since there is no blocking portion around the first end of the first water inlet 2131 relative to the first water supply channel 2141, it can prevent the water molecules of the low-temperature fluid from colliding with the blocking portion. loss, so that when the low-temperature fluid flows through the first water inlet 2131, it quickly flows into the first water inlet 2131 along the first branch flow path L3, and then the low-temperature fluid flows along the first main flow path L1 to the second water inlet 2132 , since the blocking portion 2141A is the closed end of the first water supply channel 2141, the low-temperature fluid will collide with the blocking portion 2141A. , and then flows into the second water inlet 2132 along the second tributary flow path L4. Although the low-temperature fluid will have a partial flow channel loss at the second water inlet 2132, there will be no flow channel loss at the first water inlet 2131. And relative to the central position of the heat exchanging element 22, the first water inlet 2131 flows into the first fins 222 at the central position of the heat exchanging element 22 with a preset flow rate of low-temperature fluid for heat exchange, and cooperates with the second water inlet 2132 to flow in. The low-temperature fluid can rapidly and surely reduce the high heat of the central position of the first electronic component 36 .

Since a high-speed flow area is formed above the second fins 223 of the heat exchange element 22 , the low-temperature fluid that has passed through the first fins 222 and has been heat-exchanged can flow along the second fins 223 and the high-speed flow area, respectively. The cooling requirement of the peripheral position is lower than that of the central position, and when the low-temperature fluid flows into the second fins 223 on both sides of the heat exchanging element 22, the low-temperature fluid and the second fins 223 can perform a heat exchange, so as to reduce the heat exchange rate. A high heat at the peripheral position of the electronic component 36; in addition, the high-speed flow regions located on both sides of the first fin 222 allow the heat-exchanged low-temperature fluid to flow without meandering, so that the heat-exchanged low-temperature fluid quickly passes through the The high-speed flow areas on both sides pass above the second fins 223 on both sides, and the first water outlet 2151 and the second water outlet 2152 are located on both sides of the first water inlet 2131, which can shorten the water outlet path, so that the heat exchanged The low-temperature fluid flows into the first water outlet 2151 and the second water outlet 2152 respectively, and then is quickly discharged from the first water outlet channel 2161 and the second water outlet channel 2162 .

Please refer to FIGS. 2-4 and 8 , a working equipment includes a machine table 40 , a feeding device 50 , a receiving device 60 , a working device 70 , a conveying device 80 and a central control device (not shown); the feeding device 50 is assembled The machine table 40 is provided with at least one feeding holder 51 for holding the electronic components to be operated; the receiving device 60 is assembled on the machine table 40 and is provided with at least one material receiving holder 61 to For holding the electronic components that have been operated The operation device 70 is assembled on the machine table 40, and is provided with at least one operator for performing preset operations on the electronic components. In this embodiment, the operator is a tester, and the tester is provided with a circuit board 71 that is electrically connected and a test seat 72 for testing electronic components; the conveying device 80 is assembled on the machine table 40, and is provided with at least one feeder and at least one temperature control unit of the present invention, and the feeder is used for transferring electronic components, the present invention The temperature control unit is used for temperature control electronic components; in this embodiment, the first feeder 81 of the conveying device 80 takes out the electronic components to be tested from the feeding holder 51 of the feeding device 50, and transfers them to The conveying stage 82, the second feeder 83 takes out the electronic components to be tested from the conveying stage 82, and transfers them to the test seat 72. The conveying device 80 is provided with a crimping mechanism above the testing device 70, and the crimping mechanism is mounted on the moving arm. A temperature control unit is arranged between the pressing jig and the pressing jig. When the pressing jig presses the electronic components of the test seat 72, the temperature control unit is used to keep the electronic components at the preset test temperature to perform the test operation. The tested electronic components of the test seat 72 are transferred to the conveying stage 82 , and the first feeder 81 takes out the tested electronic components from the conveying stage 82 and transfers them to the receiving device 61 of the receiving device 60 for storage. ; The central control device (not shown in the figure) is used to control and integrate the actions of various devices to perform automatic operations and achieve the practical benefits of improving operational efficiency.

[acquaintance] 11: circuit board 12: Test seat 121: Probe 13: Moving Arm 14: Press down the jig 15: heat exchange body 151: Room 152: Water supply channel 153: Inlet 154: Water outlet 155: outlet channel 16: heat exchange parts 161: Fins 17: Electronic Components A: runner bending stop [this invention] 21: Bearing 211: The first side 2121: The first temperature control space 2122: The second temperature control space 2123: Separator 2131: The first water inlet 2132: Second water inlet 2133: The third water inlet 2134: Fourth Inlet 2141: First water supply channel 2141A: Stopper 2142: Second water supply channel 2142A: Stopper 2151: The first water outlet 2152: Second water outlet 2153: The third outlet 2154: Fourth outlet 2161: The first outlet channel 2162: Second outlet channel 2163: The third outlet channel 2164: Fourth outlet channel 22: The first heat exchange part 221: The first substrate 222: The first fin 223: Second Fin 23: Second heat exchange element 231: Second substrate 232: Third Fin 233: Fourth Fin L1: The first main flow path L2: Second main flow path L3: The first tributary flow path L4: Second tributary flow path L5: Third tributary flow path L6: Fourth tributary flow path 31: Moving Arm 32: Press down the jig 321: First Joint 322: Second Joint 33: The first test seat 34: Second test seat 35: circuit board 36: The first electronic component 37: Second electronic component 40: Machine 50: Feeding device 51: Feed holder 60: Receiving device 61: Receiving holder 70: Working device 71: circuit board 72: Test seat 80: Conveying device 81: First mover 82: Conveying stage 83: Second mover

Figure 1: A schematic diagram of the use of a conventional temperature control unit. Figure 2: A top view of the temperature control unit of the present invention. FIG. 3 is a schematic cross-sectional view (1) of the temperature control unit of the present invention. FIG. 4 is a schematic cross-sectional view (2) of the temperature control unit of the present invention. FIG. 5 is a schematic view of the temperature control unit of the present invention assembled to the crimping mechanism. Figure 6: Schematic diagram (1) of the use of the temperature control unit of the present invention. Figure 7: Schematic diagram (2) of the use of the temperature control unit of the present invention. Figure 8: The configuration diagram of the operation equipment of the present invention.

21: Bearing

211: The first side

2121: The first temperature control space

2122: The second temperature control space

2123: Separator

2131: The first water inlet

2132: Second water inlet

2133: The third water inlet

2134: Fourth Inlet

2141: First water supply channel

2141A: Stopper

2142: Second water supply channel

2142A: Stopper

22: The first heat exchange part

221: The first substrate

222: The first fin

223: Second Fin

23: Second heat exchange element

231: Second substrate

232: Third Fin

233: Fourth Fin

L1: The first main flow path

L2: Second main flow path

L3: The first tributary flow path

L4: Second tributary flow path

L5: Third tributary flow path

L6: Fourth tributary flow path

Claims (10)

A temperature control unit comprising: Holder: with at least one temperature control space and a first water inlet connected to the water supply channel and a second water inlet, the first end of the first water inlet is not provided with a block relative to the water supply channel, the second end communicates with the temperature control space for inflow of fluid, and the third end of the second water inlet A baffle is arranged around the water supply channel, and the fourth end communicates with the temperature control space for the fluid to flow in. The holder is provided with at least one water outlet, and the water outlet communicates with the water outlet channel and the temperature control space, so as to for discharging the heat-exchanged fluid; Heat exchange element: assembled in the temperature control space of the holder, and provided with a plurality of first fins and a plurality of second fins on the base plate for heat exchange with the fluid. The temperature control unit according to claim 1, wherein the holder is provided with a first temperature control space and a second temperature control space A control space for disposing a first heat exchange element and a second heat exchange element, the first water inlet and the second water inlet communicate with the first temperature control space and the first water supply channel, and the holder is further provided with a first water inlet The three water inlets and the fourth water inlet communicate with the second temperature control space and the second water supply channel. The temperature control unit according to claim 1, wherein the first fin and the second fin of the heat exchange element The fins have different heights, so as to form a high-speed flow area above the second fin with a lower height , so that the heat-exchanged fluid quickly flows through the high-speed flow area to the water outlet for discharge. The temperature control unit according to claim 3, wherein the heat exchange element is provided with the second fins on both sides of the first fins, so as to form the high-speed flow regions on both sides of the first fins. The temperature control unit according to claim 1, wherein the first water inlet of the holder is at the first fin relative to the heat exchange element. The temperature control unit according to claim 1, wherein the holder is provided with two sides of the first water inlet A first water outlet and a second water outlet, the first water outlet communicates with the temperature control space and the first water outlet channel, and the second water outlet communicates with the temperature control space and the second water outlet channel. The temperature control unit according to any one of claims 1 to 5, wherein the first water inlet of the holder and the water supply channel form a T-shaped first branch flow path. The temperature control unit according to any one of claims 1 to 5, the outlet of the water outlet of the holder is The diameter size is larger than the diameter size of the first water inlet and the second water inlet. The temperature control unit according to any one of claims 1 to 5, wherein the base plate of the heat exchange element is the first The two sides are used as bonding parts for bonding and temperature-controlling electronic components, or at least one jig with bonding parts is assembled on the substrate for bonding electronic components. A work equipment comprising: Machine; Feeding device: It is arranged on the machine, and is equipped with at least one accommodating electronic components to be operated. feed holder; Receiving device: It is arranged on the machine, and is equipped with at least one accommodating electronic components that have been operated. material receiver; Operating device: It is arranged on the machine and has at least one operating device for controlling the electronic unit. to execute preset jobs; Conveying device: It is arranged on the machine, and is equipped with at least one mover and at least one as required The temperature control unit described in item 1, the feeder is used for transferring electronic components, the Temperature control unit for temperature control electronic components; Central control device: for controlling and integrating the actions of various devices.

Images