Low-carbon visual energy-saving server

Abstract

The invention discloses a low-carbon visual energy-saving server, and belongs to the technical field of energy-saving servers, the low-carbon visual energy-saving server comprises a server body, a lifting assembly is arranged on the back face of the server body and used for controlling telescopic work, the lifting assembly is arranged in a mounting seat, and a connecting seat is arranged at the top end of the mounting seat and used for connecting the lifting assembly with the connecting seat. The lifting assembly comprises a second-stage lifting mechanism and a first-stage lifting mechanism, the second-stage lifting mechanism and the first-stage lifting mechanism are both arranged in the mounting base, and the lifting heights of the second-stage lifting mechanism and the first-stage lifting mechanism are the same. According to the low-carbon visual energy-saving server, through the arrangement of the first-stage lifting mechanism and the second-stage lifting mechanism, multi-position moving work can be conducted on the whole server body, a user can adjust the height of the server body according to actual use requirements, a maintainer can conduct operation at a more comfortable and more convenient position, and inconvenience of climbing operation is reduced.

Description

Technical Field

[0001] The present application relates to the technical field related to energy-saving servers, and in particular to a low-carbon visualized energy-saving server. Background Art

[0002] The injection molding machine drying barrel (also called the injection molding machine barrel or drying barrel) is a key device used to heat and dry plastic particles during the injection molding process. Its function is to remove moisture from plastic particles and ensure that the plastic can be melted evenly during the injection molding process, thereby improving product quality and production efficiency. Since the fan and heating device need to be used for a long time when the drying barrel is working, in order to save energy on the drying barrel, an energy-saving server will be used to accurately control the heating device and fan. The low-carbon visual energy-saving server for the drying barrel of the injection molding machine is an energy-saving control device specially used for the drying barrel of the injection molding machine. It optimizes the energy consumption in the drying process through intelligent control technology, improves production efficiency and reduces operating costs. Compared with traditional equipment, the energy saving effect can reach 40% to 60%. For example, after the 200kg drying barrel was improved, the hourly power consumption was reduced from 3.3kW·h to 1.5kW·h, with a power saving rate of about 54%. It is equipped with a visual interface, which can monitor the equipment operation status and energy consumption data in real time, making it easier for operators to manage and optimize production. In the existing market, when the injection molding machine feed barrel is used, an energy-saving server is used to control it.

[0003] When a general energy-saving server is in use, it will detect the moisture content inside the raw material through the moisture content detection unit and transmit the data to the intelligent control module. According to the moisture content of the raw material, the temperature adjustment unit controls the heating temperature of the heating module, and the fan power unit controls the operating power of the fan module. The higher the moisture content, the greater the heating temperature and fan power, and vice versa, to ensure the drying quality while reducing energy consumption. The stirring power unit controls the operating power of the mixer according to the heating temperature and the fan operating power. The higher the drying efficiency of the hot air blown by the fan for the raw material, the lower the operating power of the mixer, and vice versa;

[0004] In the existing market, in order to ensure that the plastic particles stay in the barrel for a certain period of time to complete drying, to extend the time that the plastic particles stay in the hot air, and to better utilize the convection effect in the barrel and increase production efficiency, the height of the entire drying barrel will be increased. For example, a 200KG drying barrel has a height of about 1229mm and an overall size of 1725*607*1229mm. The installation position of the energy-saving server is generally installed on the outer wall of the heating tube. When the entire drying barrel fails, the staff is often required to climb up to inspect the inside of the server, which increases the safety risk. When operating at high altitude, the operator's limited space for movement often makes it difficult to carry out maintenance work. In addition, directly inspecting the inside of the server at a high altitude will cause the inside of the server to be directly exposed to the high temperature and humid environment at a high altitude, which will have a negative impact on the performance and life of the equipment. Summary of the invention

[0005] The purpose of the present invention is to provide a low-carbon visual energy-saving server to solve the problem raised in the above background technology that the installation position of the energy-saving server on the current market is generally installed on the outer wall of the heating tube. When the entire drying barrel fails, the staff is often required to climb up to perform maintenance work on the inside of the server, which increases the safety risk. When operating at high altitude, the operator's limited space for movement often makes maintenance work difficult to carry out, and directly maintaining the inside of the server at a high altitude will cause the inside of the server to be directly exposed to the high temperature and humid environment at a high altitude, which will have a negative impact on the performance of the equipment and the subsequent problems.

[0006] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a low-carbon visualized energy-saving server, comprising a server body, a lifting assembly is arranged on the back of the server body for controlling the telescopic operation, the lifting assembly is arranged inside the mounting seat, and a connecting seat is arranged on the top of the mounting seat, a mounting assembly is arranged on the back of the mounting seat and connected to a heating pipe, the top of the heating pipe is connected to a fan, and the bottom of the heating pipe is connected to one side of the connecting pipe, and the connecting wire inside the server body passes through the top of the server body and is electrically connected to the fan;

[0007] The lifting assembly comprises a secondary lifting mechanism and a primary lifting mechanism, both of which are arranged inside the mounting seat, and the lifting heights of the secondary lifting mechanism and the primary lifting mechanism are the same.

[0008] Preferably, the server body includes an external heat dissipation unit, an internal intelligent control unit, a mounting plate on the back, and an external visual interface. The heat dissipation unit is arranged on both sides of the outside of the server body, and includes a heat dissipation fan and a heat dissipation through hole. A heat dissipation through hole is arranged above the heat dissipation fan, and the heat dissipation fan and the heat dissipation through hole are both connected to the inside of the server body. The intelligent control unit includes a moisture content detection unit, a temperature adjustment unit, a fan power unit, and a stirring power unit. The moisture content inside the raw material is detected by the moisture content detection unit, and the data is transmitted to the intelligent control module. According to the moisture content of the raw material, the temperature adjustment unit controls the temperature of the raw material. The heating temperature of the heating module inside the drying barrel is controlled, and the fan power unit controls the operating power of the fan. The higher the moisture content, the greater the heating temperature and the fan power, and vice versa. The stirring power unit controls the operating power of the mixer inside the drying barrel according to the heating temperature and the fan operating power. The higher the drying efficiency of the hot air blown by the fan for the raw materials, the lower the operating power of the mixer, and vice versa. The outer side of the mounting plate is connected to the secondary lifting mechanism, and the inner side of the mounting plate is also provided with two limit blocks that slide on the outside of the mounting seat. The visual interface is equipped with a display screen for real-time display of the operating status, energy consumption data and temperature information of the equipment.

[0009] Preferably, a reserved groove is provided in the middle of the mounting seat, and a secondary lifting mechanism is provided inside the reserved groove, and sliding grooves for sliding limit blocks are also provided on the two side surfaces of the mounting seat, and a first-level lifting mechanism is provided in the hollow structure inside both sides of the mounting seat, and a secondary lifting mechanism is provided in the middle of the two first-level lifting mechanisms, and a winding assembly is also provided at the top of one of the first-level lifting mechanisms for automatically retracting and releasing excessively long connecting wires, and the winding assembly is arranged in the hollow structure inside the connecting seat.

[0010] Preferably, the secondary lifting mechanism includes two rotating rollers, a conveyor belt, a connecting rod and a control component, the conveyor belt is arranged outside the two rotating rollers, and a connecting rod is arranged on the outside of the conveyor belt to connect the two rotating rollers, the rotating rollers are connected to the connecting rods by bearings, and a movable sleeve is fixed to the outer side of the connecting rod slightly above, the movable sleeve is connected to the primary lifting mechanism, the outer side of one of the rotating rollers is driven to rotate by the control component, and a mounting plate is arranged outside the conveyor belt.

[0011] Preferably, the control component includes a control motor, a meshing gear and a driving gear, the outer side of the control motor is provided with a fixed support rod connected to the side wall of the connecting rod, and the top of the control motor is coaxially connected with the driving gear, the outer side of the driving gear is connected to the meshing gear, and the meshing gear and the rotating roller are coaxially keyed.

[0012] Preferably, one side of the connecting wire passes through the winding assembly inside the connecting seat and is connected to the fan, and the winding assembly includes a connecting bevel gear, a meshing bevel gear, a functional gear, a connecting gear and a winding post. The connecting bevel gear is connected to the top of the first-level lifting mechanism on one side, and a meshing bevel gear meshing with the connecting bevel gear is vertically arranged on the outer side of the connecting bevel gear, and the top of the meshing bevel gear is coaxially connected with the functional gear, the top of the functional gear is provided with a connecting gear meshing with the functional gear, and the top of the connecting gear is coaxially connected with the winding post, the size of the functional gear is more than twice that of the connecting gear, and the intermediate shaft of the meshing bevel gear and the intermediate shaft of the connecting gear are both connected to the inner wall bearing of the connecting seat.

[0013] Preferably, the installation assembly includes two groups of clamping hoops, fastening bolts and fixing blocks, the two groups of clamping hoops are engaged with the outside of the heating tube, and the two groups of clamping hoops are fastened by fastening bolts, and the outside of one of the clamping hoops is provided with a fixing block connected to the outside of the mounting seat.

[0014] Preferably, the first-stage lifting mechanism includes a driving motor and a connecting screw, the top end of the driving motor is coaxially connected to the connecting screw, and the top end of the connecting screw passes through the top end of the mounting seat and is connected to the connecting bevel gear inside the connecting seat, and the outside of the connecting screw is threadedly connected to the movable sleeve outside the second-stage lifting mechanism.

[0015] Compared with the prior art, the beneficial effects of the present invention are: the low-carbon visual energy-saving server;

[0016] A lifting assembly is provided, and it includes a primary lifting mechanism and a secondary lifting mechanism. The primary lifting mechanism and the secondary lifting mechanism are arranged in an overlapping manner and can be stored inside the mounting seat. Therefore, when the entire energy-saving server is not under maintenance, it will not occupy the external space, thereby reducing the occupation of space. At the same time, through the arrangement of the primary lifting mechanism and the secondary lifting mechanism, the entire server body can be moved to multiple positions. The user can adjust its height according to actual use requirements, so that the maintenance personnel can operate in a more comfortable and convenient position, reducing the inconvenience of climbing operations, reducing the risk of falling from heights, and reducing the risk of electric shock caused by climbing, thereby improving the maintenance efficiency and safety of the staff;

[0017] A winding mechanism is provided, which is arranged inside the connecting seat above the mounting seat. When the first-level lifting mechanism is started, it will automatically drive the winding mechanism to reel in and unreel the connecting wires. Therefore, it can effectively avoid the connecting wires from being entangled and damaged during the lifting process, thereby extending the service life of the connecting wires. The operator does not need to manually organize the connecting wires, saving the staff's time and energy. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a schematic diagram of the main structure of the present invention;

[0019] Figure 2 It is a schematic diagram of the disassembly structure of the mounting base and the server body of the present invention;

[0020] Figure 3 It is a schematic diagram of the back structure of the present invention;

[0021] Figure 4 This is an enlarged structural diagram of the installation assembly of the present invention;

[0022] Figure 5 It is a schematic diagram of the internal structure of the server body of the present invention;

[0023] Figure 6 It is a schematic diagram of the connection structure between the lifting assembly and the winding assembly of the present invention;

[0024] Figure 7 It is a schematic diagram of a partially enlarged structure of a winding assembly of the present invention;

[0025] Figure 8 It is a partially enlarged structural schematic diagram of the first-level lifting mechanism of the present invention;

[0026] Fig. 9 It is a schematic diagram of the enlarged structure of the control component of the present invention;

[0027] Fig.10 This is a schematic diagram of a partially enlarged structure of the mounting seat of the present invention.

[0028] In the figure: 1. fan; 2. heating pipe; 3. connecting pipe; 4. server body; 41. cooling fan; 42. cooling through hole; 43. mounting plate; 431. stop block; 44. moisture content detection unit; 45. temperature adjustment unit; 46. fan power unit; 47. stirring power unit; 5. mounting seat; 51. reserved slot; 52. slide slot; 6. connecting seat; 7. secondary lifting mechanism; 71. rotating roller; 72. conveyor belt; 73. connecting rod; 7 4. Control assembly; 741. Control motor; 742. Meshing gear; 743. Driving gear; 9. Connecting wires; 10. Mounting assembly; 101. Clamping hoop; 102. Fastening bolt; 103. Fixing block; 11. Winding assembly; 111. Connecting bevel gear; 112. Meshing bevel gear; 113. Functional gear; 114. Connecting gear; 115. Winding column; 12. Primary lifting mechanism; 121. Driving motor; 122. Connecting screw. DETAILED DESCRIPTION

[0029] Below, the present application is further described in conjunction with specific implementation methods. It should be noted that, under the premise of no conflict, the various embodiments or technical features described below can be arbitrarily combined to form new embodiments.

[0030] In the description of the present application, it should be noted that directional words, such as the terms "center", "lateral", "longitudinal", "length", "width", "thickness", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", "clockwise", "counterclockwise", etc., indicating directions and positional relationships are based on the directions or positional relationships shown in the accompanying drawings, which are only for the convenience of narrating the present application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and cannot be understood as limiting the specific scope of protection of the present application.

[0031] It should be noted that the terms "first", "second", etc. in the description and claims of the present application are used to distinguish similar objects, and are not necessarily used to describe a specific order or sequence.

[0032] One of the preferred embodiments of the present application is as follows: Figures 1 to 10 As shown, a low-carbon visualized energy-saving server, a server body 4, a lifting assembly is arranged on the back of the server body 4 for controlling the telescopic operation, the lifting assembly is arranged inside a mounting seat 5, and a connecting seat 6 is arranged on the top of the mounting seat 5, a mounting assembly 10 is arranged on the back of the mounting seat 5 to connect with a heating pipe 2, the top of the heating pipe 2 is connected with a fan 1, and the bottom of the heating pipe 2 is connected with one side of a connecting pipe 3, and a connecting wire 9 inside the server body 4 passes through the top of the server body 4 and is electrically connected with the fan 1;

[0033] The lifting assembly includes a secondary lifting mechanism 7 and a primary lifting mechanism 12, both of which are arranged inside the mounting seat 5, and the lifting heights of the secondary lifting mechanism 7 and the primary lifting mechanism 12 are the same;

[0034] The present application provides a low-carbon visual energy-saving server with a lifting component. Specifically, when using it, first, the entire energy-saving server needs to be installed between the installation component 10 and the outer wall of the external heating tube 2. After the installation is completed, the front and rear top ends of the connecting wire 9 of sufficient length are respectively connected to the top of the fan 1 and the server body 4. After the connection is completed, the internal debugging of the server body 4 is completed, and the external injection molding machine drying barrel can be controlled through the entire server body 4. During the control process, when it is necessary to perform maintenance and repair work on the inside of the server body 4, it is necessary to first start the first-level lifting mechanism 12, so that it drives the second-level lifting mechanism 7 to descend as a whole inside the mounting seat 5. When the height after the descent is not convenient for the staff to perform maintenance operations, at this time, the second-level lifting mechanism 7 can be started, so that it drives the server body 4 to descend again, so that the entire server body 4 is descended to a suitable position. At this time, the staff can easily perform maintenance work on the inside. After the maintenance is completed, the control lifting component rises to the initial position again, reducing the occupation of the production space and achieving the purpose of saving space;

[0035] Among them, according to Figure 1 , Figure 2 , Figure 3 and Figure 5 As shown, the server body 4 includes an external heat dissipation unit, an internal intelligent control unit, a mounting plate 43 on the back, and an external visual interface. The heat dissipation unit is arranged on both sides of the outside of the server body 4, and includes a heat dissipation fan 41 and a heat dissipation through hole 42. The heat dissipation through hole 42 is arranged above the heat dissipation fan 41, and the heat dissipation fan 41 and the heat dissipation through hole 42 are both connected to the inside of the server body 4. The intelligent control unit includes a moisture content detection unit 44, a temperature adjustment unit 45, a fan power unit 46, and a stirring power unit 47.

[0036] Specifically, the moisture content inside the raw material is detected by the moisture content detection unit 44, and the data is transmitted to the intelligent control module. According to the moisture content of the raw material, the temperature adjustment unit 45 controls the heating temperature of the heating module inside the drying barrel, and the fan power unit 46 controls the operating power of the fan 1. The higher the moisture content, the greater the heating temperature and the fan power, and vice versa. The stirring power unit 47 controls the operating power of the stirrer inside the drying barrel according to the heating temperature and the operating power of the fan 1. The higher the drying efficiency of the hot air blown by the fan 1 for the raw material, the lower the operating power of the stirrer, and vice versa.

[0037] In this application, the server body 4 is connected to the company's injection molding machine drying barrel through the Internet of Things technology to collect various data in the production process in real time, such as equipment operation status, production output, energy consumption (electricity, water, gas, steam, etc.). The collected data will undergo preliminary processing, such as data cleaning, format conversion, etc., and then stored in the company's data center or cloud platform to form the company's data flow. On the enterprise energy management platform, real-time data and historical data are displayed in a visual way. Through real-time data and historical data, the energy consumption of equipment and various production links is calculated, including unit product energy consumption, process energy consumption, etc., and the energy-saving effect is analyzed by comparing with historical data or industry standards. At the same time, the company's carbon emissions can also be calculated through data analysis;

[0038] Furthermore, the outer side of the mounting plate 43 is connected to the secondary lifting mechanism 7, and the inner side of the mounting plate 43 is also provided with two limit blocks 431 that slide on the outside of the mounting seat 5. The visual interface is equipped with a display screen for real-time display of the operating status, energy consumption data and temperature information of the equipment. Since the server body 4 is installed on the outer side of the secondary lifting mechanism 7, the primary lifting mechanism 12 will drive the secondary lifting mechanism 7 and the server body 4 to descend together when it is lifted. Afterwards, when the secondary lifting mechanism 7 is started, the server body 4 will descend alone, thereby completing the up and down movement of the server body 4.

[0039] As a further preferred embodiment of this invention, according to Fig.10 As shown, a reserved groove 51 is provided in the middle of the mounting seat 5, and a secondary lifting mechanism 7 is provided inside the reserved groove 51. Slide grooves 52 for sliding the limit block 431 are also provided on the two side surfaces of the mounting seat 5. A primary lifting mechanism 12 is provided in the hollow structure inside the two sides of the mounting seat 5, and a secondary lifting mechanism 7 is provided in the middle of the two primary lifting mechanisms 12. A winding assembly 11 is also provided at the top of one primary lifting mechanism 12 for automatically retracting and releasing the excessively long connecting wire 9. The winding assembly 11 is provided in the hollow structure inside the connecting seat 6.

[0040] Among them, since the first-level lifting mechanism 12 is arranged inside the two sides of the mounting seat 5, the second-level lifting mechanism 7 moves to the reserved groove 51 inside the mounting seat 5 along with the first-level lifting mechanism 12, so that the entire lifting assembly can be completely stored inside the mounting seat 5. When the mounting plate 43 moves outside the mounting seat 5, a limit block 431 is also provided to slide inside the slide groove 52 to ensure its stable movement.

[0041] As a further preferred embodiment of this invention, according to Figure 6 , Figure 7 , Figure 8 and Fig. 9As shown, the secondary lifting mechanism 7 includes two rotating rollers 71, a conveyor belt 72, a connecting rod 73 and a control component 74. The conveyor belt 72 is arranged outside the two rotating rollers 71, and a connecting rod 73 is arranged outside the conveyor belt 72 to connect the two rotating rollers 71. The rotating rollers 71 and the connecting rod 73 are connected by bearings, and a moving sleeve is fixed on the outer side of the connecting rod 73, which is connected to the primary lifting mechanism 12. The outer side of one of the rotating rollers 71 is driven to rotate by the control component 74, and the outer side of the conveyor belt 72 is provided with a mounting plate 43.

[0042] The control assembly 74 includes a control motor 741, a meshing gear 742 and a driving gear 743. A fixed support rod is provided on the outer side of the control motor 741 and connected to the side wall of the connecting rod 73. The top of the control motor 741 is coaxially connected to the driving gear 743. The outer side of the driving gear 743 is connected to the meshing gear 742. The meshing gear 742 and the rotating roller 71 are coaxially keyed.

[0043] The primary lifting mechanism 12 includes a driving motor 121 and a connecting screw 122. The top of the driving motor 121 is coaxially connected with the connecting screw 122. The top of the connecting screw 122 penetrates the top of the mounting seat 5 and is connected to the connecting bevel gear 111 inside the connecting seat 6. The outside of the connecting screw 122 is threadedly connected to the moving sleeve outside the secondary lifting mechanism 7.

[0044] When controlling the first-level lifting mechanism 12 to work, it is necessary to start the driving motor 121 so that it drives the connecting screw 122 to rotate. When it rotates, it will be threadedly connected with the movable sleeve, so that the movable sleeve drives the connecting rod 73 to move up and down. When the connecting rod 73 works, it drives the rotating rollers 71 and the conveyor belt 72 at the upper and lower tops to move up and down. Since the outer side of the conveyor belt 72 is installed with the server body 4, the lifting work of the top of the server body 4 is completed.

[0045] When a second lifting is required, the control motor 741 needs to be started to drive the driving gear 743 to rotate, thereby causing the meshing gear 742 engaged therewith to rotate. When the meshing gear 742 rotates, the rotating roller 71 coaxially connected therewith rotates, thereby causing the conveyor belt 72 to move, thereby driving the external server body 4 to move, and completing the second lifting work.

[0046] Specifically, according to Figure 6 and Figure 7As shown, one side of the connecting wire 9 passes through the winding assembly 11 inside the connecting seat 6 and is connected to the fan 1. The winding assembly 11 includes a connecting bevel gear 111, a meshing bevel gear 112, a functional gear 113, a connecting gear 114 and a winding post 115. The connecting bevel gear 111 is connected to the top of the first-level lifting mechanism 12 on one side, and the outer side of the connecting bevel gear 111 is vertically provided with a meshing bevel gear 112 meshing therewith, and the top of the meshing bevel gear 112 is coaxially connected with the functional gear 113, the top of the functional gear 113 is provided with a connecting gear 114 meshing therewith, and the top of the connecting gear 114 is coaxially connected with the winding post 115, the size of the functional gear 113 is more than twice that of the connecting gear 114, and the intermediate shaft of the meshing bevel gear 112 and the intermediate shaft of the connecting gear 114 are both connected to the inner wall bearing of the connecting seat 6;

[0047] When the primary lifting mechanism 12 is working, the connecting screw 122 inside it will drive the connecting bevel gear 111 at its top to rotate, thereby causing the meshing bevel gear 112 to rotate, thereby causing the functional gear 113 coaxially connected to the meshing bevel gear 112 to rotate. When the functional gear 113 rotates, it will mesh with the connecting gear 114, thereby causing the connecting gear 114 to drive the winding post 115 coaxially connected thereto to retract and release the connecting wire 9, thereby achieving the effect of automatic cable retraction and release, wherein the diameter of the functional gear 113 is larger than the connecting gear 114. The diameter of the gear 114 is such that when the connecting screw rod 122 rotates one circle to drive the server body 4 to descend, the connecting gear 114 has already rotated more than two circles to pay out the wire, thereby ensuring that the connecting wire 9 can be paid out quickly, and there will be no pulling of the connecting wire 9, which may cause the connecting end to become loose. Moreover, since the size of the connecting gear 114 is smaller than half of the functional gear 113, the connecting wire 9 has been completely paid out after the first-level lifting mechanism 12 has finished working, thereby not affecting the normal lifting work of the second-level lifting mechanism 7.

[0048] Furthermore, during installation, according to Figure 3 and Figure 4 As shown, the installation assembly 10 includes two groups of clamping hoops 101, fastening bolts 102 and fixing blocks 103. The two groups of clamping hoops 101 are engaged with the outside of the heating tube 2, and the two groups of clamping hoops 101 are fastened by the fastening bolts 102. The outside of one clamping hoops 101 is provided with a fixing block 103 connected to the outside of the mounting base 5. Specifically, when installing, the two clamping hoops 101 are engaged with each other and fixed by the fastening bolts 102. Thus, under the action of the fixing block 103, the position of the mounting base 5 is fixed, and then the position of the server body 4 is fixed.

[0049] The above describes the basic principles, main features and advantages of the present application. Those skilled in the art should understand that the present application is not limited by the above embodiments, and the above embodiments and the specification only describe the principles of the present application. The present application may have various changes and improvements without departing from the spirit and scope of the present application, and these changes and improvements fall within the scope of the present application for which protection is sought. The scope of protection claimed by the present application is defined by the attached claims and their equivalents.

Claims

1. A low-carbon, visual, energy-saving server, comprising a server body (4), characterized in that: The back of the server body (4) is provided with a lifting component for controlling the telescopic operation. The lifting component is arranged inside the mounting seat (5), and a connecting seat (6) is arranged at the top of the mounting seat (5). The back of the mounting seat (5) is provided with a mounting component (10) connected to the heating pipe (2). The top of the heating pipe (2) is connected to the fan (1), and the bottom of the heating pipe (2) is connected to one side of the connecting pipe (3). The connecting wire (9) inside the server body (4) passes through the top of the server body (4) and is electrically connected to the fan (1); The lifting assembly comprises a secondary lifting mechanism (7) and a primary lifting mechanism (12); the secondary lifting mechanism (7) and the primary lifting mechanism (12) are both arranged inside the mounting seat (5); and the lifting heights of the secondary lifting mechanism (7) and the primary lifting mechanism (12) are the same.

2. A low-carbon visual energy-saving server as claimed in claim 1, characterized in that: The server body (4) comprises an external heat dissipation unit, an internal intelligent control unit, a rear mounting plate (43) and an external visual interface. The heat dissipation unit is arranged on both sides of the outside of the server body (4), and comprises a heat dissipation fan (41) and a heat dissipation through hole (42). A heat dissipation through hole (42) is arranged above the heat dissipation fan (41), and the heat dissipation fan (41) and the heat dissipation through hole (42) are both connected to the inside of the server body (4). The intelligent control unit comprises a moisture content detection unit (44), a temperature adjustment unit (45), a fan power unit (46) and a stirring power unit (47). The moisture content inside the raw material is detected by the moisture content detection unit (44), and the data is transmitted to the intelligent control module. According to the moisture content of the raw material, The temperature regulating unit (45) controls the heating temperature of the heating module inside the drying barrel, and the fan power unit (46) controls the operating power of the fan (1). The higher the moisture content, the greater the heating temperature and the fan power, and vice versa. The stirring power unit (47) controls the operating power of the stirrer inside the drying barrel according to the heating temperature and the operating power of the fan (1). The higher the drying efficiency of the hot air blown by the fan (1) for the raw materials, the lower the operating power of the stirrer, and vice versa. The outer side of the mounting plate (43) is connected to the secondary lifting mechanism (7), and the inner side of the mounting plate (43) is also provided with two limit blocks (431) that slide on the outside of the mounting seat (5). The visual interface is equipped with a display screen for real-time display of the operating status, energy consumption data and temperature information of the device.

3. A low-carbon visual energy-saving server as claimed in claim 2, characterized in that: A reserved groove (51) is arranged in the middle of the mounting seat (5), and a secondary lifting mechanism (7) is arranged inside the reserved groove (51). Slide grooves (52) for sliding limit blocks (431) are also arranged on the surfaces of both sides of the mounting seat (5). A primary lifting mechanism (12) is arranged in the hollow structure inside both sides of the mounting seat (5), and a secondary lifting mechanism (7) is arranged in the middle of the two primary lifting mechanisms (12). A winding assembly (11) is also arranged at the top end of one of the primary lifting mechanisms (12) for automatically retracting and releasing an overlong connecting wire (9), and the winding assembly (11) is arranged in the hollow structure inside the connecting seat (6).

4. A low-carbon visual energy-saving server as claimed in claim 3, characterized in that: The secondary lifting mechanism (7) comprises two rotating rollers (71), a conveyor belt (72), a connecting rod (73) and a control assembly (74); the conveyor belt (72) is arranged outside the two rotating rollers (71); a connecting rod (73) is arranged outside the conveyor belt (72) to connect the two rotating rollers (71); the rotating rollers (71) and the connecting rod (73) are connected by bearings; a movable sleeve is fixed on the outer side of the connecting rod (73) slightly above the rotating rollers (71); the movable sleeve is connected to the primary lifting mechanism (12); the outer side of one of the rotating rollers (71) is driven to rotate by the control assembly (74); and a mounting plate (43) is arranged outside the conveyor belt (72).

5. A low-carbon visual energy-saving server as claimed in claim 4, characterized in that: The control assembly (74) comprises a control motor (741), a meshing gear (742) and a driving gear (743); a fixed support rod is arranged on the outer side of the control motor (741) and is connected to the side wall of the connecting rod (73); the top end of the control motor (741) is coaxially connected to the driving gear (743); the outer side of the driving gear (743) is connected to the meshing gear (742); and the meshing gear (742) and the rotating roller (71) are coaxially keyed.

6. A low-carbon visual energy-saving server as claimed in claim 4, characterized in that: One side of the connecting wire (9) passes through a winding assembly (11) inside the connecting seat (6) and is connected to the fan (1); the winding assembly (11) comprises a connecting bevel gear (111), a meshing bevel gear (112), a functional gear (113), a connecting gear (114) and a winding post (115); the connecting bevel gear (111) is connected to the top end of the primary lifting mechanism (12) on one side, and a meshing bevel gear (112) meshing with the connecting bevel gear (111) is vertically arranged on the outer side of the connecting bevel gear (111). 112), and the top end of the meshing bevel gear (112) is coaxially connected to a functional gear (113), the top end of the functional gear (113) is provided with a connecting gear (114) meshing therewith, and the top end of the connecting gear (114) is coaxially connected to a winding post (115), the size of the functional gear (113) is more than twice that of the connecting gear (114), and the intermediate shaft of the meshing bevel gear (112) and the intermediate shaft of the connecting gear (114) are both connected to the inner wall bearing of the connecting seat (6).

7. The low-carbon visual energy-saving server according to claim 1, characterized in that: The mounting assembly (10) comprises two groups of clamping hoops (101), fastening bolts (102) and fixing blocks (103); the two groups of clamping hoops (101) are engaged with the outside of the heating tube (2), and the two groups of clamping hoops (101) are fastened together by the fastening bolts (102); and a fixing block (103) is provided on the outside of one of the clamping hoops (101) and is connected to the outside of the mounting seat (5).

8. The low-carbon visual energy-saving server according to claim 8, characterized in that: The primary lifting mechanism (12) comprises a driving motor (121) and a connecting screw (122); the top end of the driving motor (121) is coaxially connected to the connecting screw (122); the top end of the connecting screw (122) passes through the top end of the mounting seat (5) and is connected to a connecting bevel gear (111) inside the connecting seat (6); the outside of the connecting screw (122) is threadedly connected to a moving sleeve outside the secondary lifting mechanism (7).

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