A high thermal conductivity adhesive raw material dispersion and grinding device
By introducing a water supply and reflux mechanism into the ultra-high thermal conductivity adhesive raw material dispersion and grinding device, the problem of heat accumulation during the grinding process was solved, the fluidity and discharge efficiency of the raw materials were improved, and the grinding effect was ensured.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- DALIAN KAIHUA NEW TECH ENG
- Filing Date
- 2025-06-24
- Publication Date
- 2026-06-30
AI Technical Summary
Existing ultra-high thermal conductivity adhesive raw material dispersion and grinding devices generate a large amount of heat during the grinding process, resulting in a sharp increase in viscosity or gelation, and the raw material has poor flowability and is difficult to completely discharge.
A device was designed that includes feeding, grinding, discharging, water supply and reflux mechanisms. The water supply mechanism absorbs heat, and the reflux mechanism circulates cooling water to ensure that the temperature inside the device does not exceed the limit. Combined with the concave grinding disc structure, the flowability of raw materials is improved and residue is reduced.
It effectively avoids a sharp increase in viscosity or gelation, enhances the flowability and discharge efficiency of raw materials, and ensures the grinding effect.
Smart Images
Figure CN224422958U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the technical field of thermally conductive adhesive production, and in particular to a device for dispersing and grinding ultra-high thermal conductivity adhesive raw materials. Background Technology
[0002] As the power density of electronic devices continues to increase, the requirements for heat dissipation become increasingly stringent, making ultra-high thermal conductivity adhesives a key material. These adhesives typically require a large amount of micron- or nano-sized high thermal conductivity fillers.
[0003] Existing ultra-high thermal conductivity adhesive raw material dispersion and grinding devices, such as the grinding device for producing filled epoxy resin-based high-efficiency thermally conductive adhesive disclosed in utility model patent application number 202320516788.6, mainly include a box body, with a grinding sleeve fixedly connected to the top of the inner cavity of the box body, and a grinding roller arranged inside the grinding sleeve. In use, by starting the motor, the output end of the motor drives gear two, gear belt, gear one and limit block to rotate. The limit block drives the limit groove, transmission shaft and grinding roller to rotate. The grinding roller and grinding sleeve cooperate to grind the material. Start the electric cylinder, and the output end of the electric cylinder drives the rocker plate to rotate counterclockwise around the pin shaft. The rocker plate drives the lifting plate to move upward. The lifting plate drives the grinding roller, transmission shaft and limit groove to move upward.
[0004] However, the grinding process of ultra-high thermal conductivity adhesive raw materials generates a lot of heat, which may lead to a sharp increase in viscosity or gelation. Moreover, the thermal conductivity adhesive raw materials have poor fluidity, making it difficult to flow within the grinding device and easily leaving residues inside. Utility Model Content
[0005] To solve the above-mentioned technical problems, this utility model provides an ultra-high thermal conductivity adhesive raw material dispersion and grinding device that can not only absorb the heat generated by grinding in a timely manner, thus enhancing the heat dissipation effect of the device and preventing the raw material viscosity from increasing sharply or gelling, but also enhance the flowability of the raw material and facilitate the discharge of the raw material after grinding.
[0006] This utility model discloses a high thermal conductivity adhesive raw material dispersion and grinding device, including a feeding mechanism; it also includes a grinding mechanism, a discharging mechanism, a water supply mechanism, and a reflux mechanism. The grinding mechanism is installed on the feeding mechanism to grind the raw material, the discharging mechanism is installed on the grinding mechanism to accelerate the discharge of the raw material, the water supply mechanism is installed on the feeding mechanism to absorb the heat generated during grinding, and the reflux mechanism is installed on the water supply mechanism to circulate cooling water. The operator feeds the high thermal conductivity adhesive raw material into the feeding mechanism, the grinding mechanism disperses and grinds it, and the ground material is discharged through the discharging mechanism. During the grinding process, the water supply mechanism and the reflux mechanism work together to absorb the heat generated, preventing the temperature inside the feeding mechanism from becoming too high, which could lead to a sharp increase in viscosity or gelation, thus ensuring the grinding effect.
[0007] Preferably, the feeding mechanism includes a cylinder, a partition, a feeding cylinder, a hinge, a sealing cover, and a handle. The bottom end of the cylinder is connected to the ground. The partition is installed inside the cylinder, forming a sandwich between the cylinder and the partition. The partition has an internal cavity. The bottom end of the feeding cylinder is connected to the top end of the partition. The hinge is installed on the feeding cylinder, the sealing cover is installed on the hinge, and the handle is installed on the sealing cover. The operator pulls the handle to open the sealing cover, facilitating the feeding of raw materials through the feeding cylinder into the cavity of the partition. Then, the sealing cover is closed to prevent material volatilization during the grinding process.
[0008] Preferably, the grinding mechanism includes a stator grinding disc, a motor, a dual-output shaft reducer, a first drive shaft, a rotor grinding disc, a first helical blade, and a stirring blade. The stator grinding disc is installed in the cavity of the partition layer. The motor is installed on the cylinder. The power output end of the motor is connected to the power input end of the dual-output shaft reducer, and the power output end of the dual-output shaft reducer is connected to the power input end of the first drive shaft. The rotor grinding disc is installed on the first drive shaft. A grinding gap is left between the stator grinding disc and the rotor grinding disc. The first helical blade is installed on the first drive shaft, and the stirring blade is installed on the first drive shaft. When the motor is started, the motor drives the first drive shaft to rotate through the dual-output shaft reducer. The first drive shaft drives the rotor grinding disc, the first helical blade, and the stirring blade to rotate. The stirring blade stirs and disperses the raw material, improving its fluidity. The rotation of the first helical blade generates downward pressure, squeezing the raw material into the grinding gap between the stator grinding disc and the rotor grinding disc. The rotor grinding disc cooperates with the stator grinding disc to grind the raw material.
[0009] Preferably, the upper surface of the stator grinding disc is concave; by setting the concave shape, it is convenient for the raw material to enter the gap between the stator grinding disc and the rotor grinding disc, thereby reducing the amount of raw material residue.
[0010] Preferably, the discharge mechanism includes a discharge hopper, a discharge pipe, a second drive shaft, and a second helical blade. The discharge hopper is installed at the bottom of the cavity inside the partition. The top of the discharge pipe is connected to the bottom of the discharge hopper. The second drive shaft is rotatably mounted on the discharge pipe, and the power output end of the dual-output shaft reducer is connected to the power input end of the second drive shaft. The second helical blade is mounted on the second drive shaft. The ground raw material falls into the discharge hopper and is discharged through the discharge pipe. The dual-output shaft reducer drives the second drive shaft to rotate, and the second drive shaft drives the second helical blade to rotate, accelerating the discharge of the raw material.
[0011] Preferably, the water supply mechanism includes a heat dissipation water tank, a water inlet pipe, a water delivery pipe, and a valve. The bottom end of the heat dissipation water tank is connected to the top end of the cylinder, the bottom end of the water inlet pipe is connected to the inside of the top end of the heat dissipation water tank, the water delivery pipe is installed between the heat dissipation water tank and the cylinder, and the valve is installed on the water delivery pipe. The operator adds cooling water to the heat dissipation water tank through the water inlet pipe, opens the valve, and the cooling water is delivered to the interlayer through the water delivery pipe to absorb the heat generated by grinding.
[0012] Preferably, the reflux mechanism includes a circulating pump, a pumping pipe, a thermometer, and a return pipe. The bottom end of the circulating pump is connected to the top end of the cylinder. The pumping pipe is installed between the circulating pump and the jacket. The thermometer is installed on the pumping pipe. The return pipe is installed between the circulating pump and the cooling water tank. When the circulating pump is started, it draws cooling water from the jacket through the pumping pipe and delivers the cooling water to the cooling water tank through the return pipe for heat dissipation and circulation, reducing water resource utilization. The temperature of the cooling water is detected by the thermometer, and the cooling water can be replaced when the temperature is too high.
[0013] Compared with the prior art, the beneficial effects of this utility model are as follows: the staff puts the ultra-high thermal conductivity adhesive raw material into the feeding mechanism, the grinding mechanism disperses and grinds it, and the ground material is discharged through the discharge mechanism. During the grinding process, the water supply mechanism and the reflux mechanism work together to absorb the heat generated, so as to avoid the temperature in the feeding mechanism from being too high, which would cause the viscosity to increase sharply or gel, and ensure the grinding effect. Attached Figure Description
[0014] Figure 1 This is a cross-sectional axonometric structural schematic diagram of this utility model;
[0015] Figure 2 This is a partially enlarged cross-sectional isometric structural diagram of the feeding mechanism and the return mechanism of this utility model;
[0016] Figure 3 This is a cross-sectional isometric structural diagram of the grinding mechanism and the discharge mechanism of this utility model;
[0017] Figure 4 This is a partially enlarged isometric structural diagram of the water supply mechanism of this utility model.
[0018] The attached diagram is labeled as follows: 01, feeding mechanism; 11, cylinder; 12, partition; 13, feeding cylinder; 14, hinge; 15, sealing cover; 16, handle; 02, grinding mechanism; 21, stator grinding disc; 22, electric motor; 23, dual output shaft reducer; 24, first drive shaft; 25, rotor grinding disc; 26, first spiral blade; 27, stirring blade; 03, discharge mechanism; 31, discharge hopper; 32, discharge pipe; 33, second drive shaft; 34, second spiral blade; 04, water supply mechanism; 41, cooling water tank; 42, water inlet pipe; 43, water delivery pipe; 44, valve; 05, reflux mechanism; 51, circulating pump; 52, water extraction pipe; 53, thermometer; 54, reflux pipe. Detailed Implementation
[0019] To facilitate understanding of this utility model, a more complete description will be given below with reference to the accompanying drawings. This utility model can be implemented in many different forms and is not limited to the embodiments described herein. Rather, these embodiments are provided to make the disclosure of this utility model more thorough and complete.
[0020] Example 1
[0021] This utility model discloses a high thermal conductivity adhesive raw material dispersion and grinding device, including a feeding mechanism 01; it also includes a grinding mechanism 02, a discharging mechanism 03, a water supply mechanism 04, and a reflux mechanism 05. The grinding mechanism 02 is installed on the feeding mechanism 01 and grinds the raw material; the discharging mechanism 03 is installed on the grinding mechanism 02 and accelerates the discharge of the raw material; the water supply mechanism 04 is installed on the feeding mechanism 01 and absorbs the heat generated by grinding; the reflux mechanism 05 is installed on the water supply mechanism 04 and circulates cooling water. The feeding mechanism 01 includes a cylinder 11, a partition 12, and an upper... The upper feed cylinder 13, hinge 14, sealing cover 15, and handle 16 are connected to the ground at the bottom end of the cylinder 11. A partition 12 is installed inside the cylinder 11, forming a sandwich between the cylinder 11 and the partition 12. The partition 12 has a cavity inside. The bottom end of the upper feed cylinder 13 is connected to the top end of the partition 12. The hinge 14 is installed on the upper feed cylinder 13, the sealing cover 15 is installed on the hinge 14, and the handle 16 is installed on the sealing cover 15. The grinding mechanism 02 includes a stator grinding disc 21, a motor 22, a dual-output shaft reducer 23, a first transmission shaft 24, and a rotor grinding disc. The stator grinding disc 21, consisting of a disc 25, a first helical blade 26, and a stirring blade 27, is installed in the cavity of the partition 12. A motor 22 is mounted on the cylinder 11, with its output end connected to the input end of a dual-output-shaft reducer 23. The output end of the dual-output-shaft reducer 23 is connected to the input end of a first drive shaft 24. A rotor grinding disc 25 is mounted on the first drive shaft 24. A grinding gap is left between the stator grinding disc 21 and the rotor grinding disc 25. The first helical blade 26 is mounted on the first drive shaft 24. The stirring blade 27... 7 is installed on the first drive shaft 24; it also includes a stator grinding disc 21 with a concave upper surface; the discharge mechanism 03 includes a discharge hopper 31, a discharge pipe 32, a second drive shaft 33, and a second spiral blade 34. The discharge hopper 31 is installed at the bottom of the cavity of the partition 12. The top end of the discharge pipe 32 is connected to the bottom end of the discharge hopper 31. The second drive shaft 33 is rotatably installed on the discharge pipe 32, and the power output end of the dual output shaft reducer 23 is connected to the power input end of the second drive shaft 33. The second spiral blade 34 is installed on the second drive shaft 33.During operation, the operator first pulls handle 16 to open the sealing cover 15, facilitating the feeding of raw materials through the feeding cylinder 13 into the cavity of the partition 12. Then, the sealing cover 15 is closed to prevent material evaporation during grinding. The motor 22 is then started. The motor 22 drives the first transmission shaft 24 to rotate via a dual-output shaft reducer 23. The first transmission shaft 24 drives the rotor grinding disc 25, the first spiral blade 26, and the stirring blade 27 to rotate. The stirring blade 27 stirs and disperses the raw materials, improving their fluidity. The rotating first spiral blade 26 generates downward pressure, and its concave shape facilitates the entry of raw materials into the gaps between the stator grinding disc 21 and the rotor grinding disc 25, reducing material residue. The rotor grinding disc 25, in conjunction with the stator grinding disc 21, grinds the raw materials. The ground material falls into the discharge hopper 31 and is discharged through the discharge pipe 32. The dual-output shaft reducer 23 drives the second transmission shaft 33 to rotate, which in turn drives the second spiral blade 34 to rotate, accelerating the discharge of the raw materials.
[0022] Example 2
[0023] like Figures 1 to 4As shown, this utility model discloses an ultra-high thermal conductivity adhesive raw material dispersion and grinding device, based on Example 1; the water supply mechanism 04 includes a heat dissipation water tank 41, a water inlet pipe 42, a water delivery pipe 43, and a valve 44. The bottom end of the heat dissipation water tank 41 is connected to the top end of the cylinder 11, the bottom end of the water inlet pipe 42 is connected to the inside of the top end of the heat dissipation water tank 41, the water delivery pipe 43 is connected and installed between the heat dissipation water tank 41 and the cylinder 11, and the valve 44 is installed on the water delivery pipe 43; the return mechanism 05 includes a circulation pump 51, a water extraction pipe 52, a thermometer 53, and a return pipe 54, the circulation pump 51... The bottom end is connected to the top end of the cylinder 11. The water pump 52 is connected and installed between the circulating pump 51 and the jacket. The thermometer 53 is installed on the water pump 52. The return pipe 54 is connected and installed between the circulating pump 51 and the cooling water tank 41. When it is working, firstly, the operator pulls the handle 16 to open the sealing cover 15, so that the raw material can be fed into the cavity of the jacket 12 through the feeding cylinder 13. Then the sealing cover 15 is closed to prevent the material from volatilizing during the grinding process. The motor 22 is started. The motor 22 drives the first transmission shaft 24 to rotate through the dual output shaft reducer 23. 4 drives the rotor grinding disc 25, the first spiral blade 26, and the stirring blade 27 to rotate. The stirring blade 27 stirs and disperses the raw material, improving its fluidity. The rotation of the first spiral blade 26 generates downward pressure. By setting its concave shape, it facilitates the entry of the raw material into the gap between the stator grinding disc 21 and the rotor grinding disc 25, reducing material residue. The rotor grinding disc 25 works with the stator grinding disc 21 to grind the raw material. The ground raw material falls into the discharge hopper 31 and is discharged through the discharge pipe 32. The dual output shaft reducer 23 drives the second transmission shaft 33 to rotate. Shaft 33 drives the second spiral blade 34 to rotate, accelerating the discharge of raw materials. During the grinding process, the operator adds cooling water to the heat dissipation tank 41 through the water inlet pipe 42, opens the valve 44, and the cooling water is transported to the jacket through the water delivery pipe 43 to absorb the heat generated by grinding. The circulation pump 51 is started, and the circulation pump 51 draws out the cooling water in the jacket through the water extraction pipe 52 and transports the cooling water to the heat dissipation tank 41 through the return pipe 54 for heat dissipation circulation, reducing the use of water resources. The temperature of the cooling water is detected by the thermometer 53, and the cooling water can be replaced when the temperature is too high.
[0024] The electric motor 22, the dual-output shaft reducer 23, and the circulating pump 51 of this utility model are commercially available. Technical personnel in this industry only need to install and operate them according to the accompanying instruction manual, without requiring any creative work from those skilled in the art.
[0025] The above description is only a preferred embodiment of the present utility model. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the technical principles of the present utility model, and these improvements and modifications should also be considered within the protection scope of the present utility model.
Claims
1. A dispersion and grinding device for ultra-high thermal conductivity adhesive raw materials, comprising a feeding mechanism (01); characterized in that, It also includes a grinding mechanism (02), a discharge mechanism (03), a water supply mechanism (04), and a reflux mechanism (05). The grinding mechanism (02) is installed on the feeding mechanism (01) and grinds the raw materials. The discharge mechanism (03) is installed on the grinding mechanism (02) and accelerates the discharge of the raw materials. The water supply mechanism (04) is installed on the feeding mechanism (01) and absorbs the heat generated by grinding. The reflux mechanism (05) is installed on the water supply mechanism (04) and circulates the cooling water.
2. The ultra-high thermal conductivity adhesive raw material dispersion and grinding device as described in claim 1, characterized in that, The feeding mechanism (01) includes a cylinder (11), a partition (12), a feeding cylinder (13), a hinge (14), a sealing cover (15), and a handle (16). The bottom end of the cylinder (11) is connected to the ground. The partition (12) is installed inside the cylinder (11), forming a sandwich between the cylinder (11) and the partition (12). The partition (12) has a cavity inside. The bottom end of the feeding cylinder (13) is connected to the top end of the partition (12). The hinge (14) is installed on the feeding cylinder (13), the sealing cover (15) is installed on the hinge (14), and the handle (16) is installed on the sealing cover (15).
3. The ultra-high thermal conductivity adhesive raw material dispersion and grinding device as described in claim 2, characterized in that, The grinding mechanism (02) includes a stator grinding disc (21), a motor (22), a dual-output shaft reducer (23), a first transmission shaft (24), a rotor grinding disc (25), a first spiral blade (26), and a stirring blade (27). The stator grinding disc (21) is installed in the cavity of the partition (12). The motor (22) is installed on the cylinder (11). The power output end of the motor (22) is connected to the power input end of the dual-output shaft reducer (23). The power output end of the dual-output shaft reducer (23) is connected to the power input end of the first transmission shaft (24). The rotor grinding disc (25) is installed on the first transmission shaft (24). A grinding gap is left between the stator grinding disc (21) and the rotor grinding disc (25). The first spiral blade (26) is installed on the first transmission shaft (24). The stirring blade (27) is installed on the first transmission shaft (24).
4. The ultra-high thermal conductivity adhesive raw material dispersion and grinding device as described in claim 3, characterized in that, It also includes a stator grinding disc (21) with a concave upper surface.
5. The ultra-high thermal conductivity adhesive raw material dispersion and grinding device as described in claim 2, characterized in that, The discharge mechanism (03) includes a discharge hopper (31), a discharge pipe (32), a second drive shaft (33), and a second spiral blade (34). The discharge hopper (31) is installed at the bottom of the cavity of the partition (12). The top of the discharge pipe (32) is connected to the bottom of the discharge hopper (31). The second drive shaft (33) is rotatably installed on the discharge pipe (32). The power output end of the dual output shaft reducer (23) is connected to the power input end of the second drive shaft (33). The second spiral blade (34) is installed on the second drive shaft (33).
6. The ultra-high thermal conductivity adhesive raw material dispersion and grinding device as described in claim 2, characterized in that, The water supply mechanism (04) includes a heat dissipation tank (41), a water supply pipe (42), a water delivery pipe (43), and a valve (44). The bottom end of the heat dissipation tank (41) is connected to the top end of the cylinder (11). The bottom end of the water supply pipe (42) is connected to the inside of the top end of the heat dissipation tank (41). The water delivery pipe (43) is connected and installed between the heat dissipation tank (41) and the cylinder (11). The valve (44) is installed on the water delivery pipe (43).
7. The ultra-high thermal conductivity adhesive raw material dispersion and grinding device as described in claim 6, characterized in that, The reflux mechanism (05) includes a circulation pump (51), a water suction pipe (52), a thermometer (53), and a reflux pipe (54). The bottom end of the circulation pump (51) is connected to the top end of the cylinder (11). The water suction pipe (52) is connected and installed between the circulation pump (51) and the interlayer. The thermometer (53) is installed on the water suction pipe (52). The reflux pipe (54) is connected and installed between the circulation pump (51) and the heat dissipation tank (41).