Optimal scheduling device for power load side resources

Abstract

The application provides a power load side resource optimization scheduling device, which comprises a fixed seat with a fixed groove; a control box is installed in an activity box and movably installed in the fixed groove; a movable seat is movably installed on the top of the fixed seat; a display mechanism is rotatably installed on the inner side of the movable seat to adjust the inclination angle; a control assembly is movably installed on the top of the activity box; when the display mechanism is rotated to a non-limiting state of the control assembly, the display mechanism is moved from the first side of the control assembly to the second side by moving the movable seat and the control assembly in opposite directions respectively, so that the operation interface of the display mechanism is located in front of the control assembly, and the control assembly is prevented from being accidentally touched when the operation interface of the display mechanism is operated. The rotation of the display mechanism, the inclination angle adjustment function and the relative movement mechanism of the control assembly can be freely adjusted according to requirements, and the technical problem of inconvenient operation of the equipment in the prior art is solved.

Description

Technical Field

[0001] This invention relates to the field of power dispatching technology, and more specifically, to a power load-side resource optimization dispatching device. Background Technology

[0002] With rapid socio-economic development and the widespread integration of renewable energy, the operational complexity of power systems has increased significantly. In particular, the large-scale utilization of power load-side resources has brought unprecedented challenges to the supply-demand balance and optimal resource allocation of the power system. Power load-side resources, including but not limited to industrial loads, commercial loads, residential loads, and electric vehicles, have become crucial components of power system peak shaving, load response, and demand-side management due to their flexibility and controllability. However, existing power load-side resource dispatching technologies suffer from the following major problems:

[0003] 1. Challenges in Modeling Large-Scale Demand-Side Resources: Existing modeling methods for demand-side resources are often suitable for scenarios with relatively small resource scales. When demand-side resources are massively integrated into the power grid, the number of optimization variables surges, leading to a significant increase in computational complexity, greater difficulty in solving the problem, and making it difficult to achieve fast and effective optimized scheduling.

[0004] 2. Lack of Cooperative Optimization Among Different Types of Resources: Different types of demand-side resources, such as interruptible loads, energy storage devices, and electric vehicle charging stations, have different scheduling strategies and operating characteristics. Existing methods often lack effective cooperative optimization mechanisms when dealing with these resources, thus affecting the overall scheduling efficiency and the economics of system operation.

[0005] 3. Insufficient Data Privacy Protection: With the digitalization and intelligentization of power load-side resources, how to protect user data privacy while ensuring dispatch efficiency has become an urgent problem to be solved. Existing technologies do not adequately address this issue, which may reduce users' enthusiasm for participating in the optimized dispatch of load-side resources.

[0006] To address the aforementioned issues, patent document CN112886567A proposes a method and system for optimizing the scheduling of demand-side resources based on master-slave game theory. This method constructs a flexible scheduling framework for large-scale demand-side resources, establishes a general model for generalized demand-side resources, proposes a modeling method for demand-side resource aggregation flexibility based on external approximation, and an optimization scheduling strategy based on master-slave game theory, attempting to solve the problem of optimizing the scheduling of large-scale demand-side resources.

[0007] However, this technical solution still has limitations, particularly in terms of ease of operation and data privacy protection, requiring further improvement and optimization. Therefore, researching and developing a flexible optimization scheduling device and system for power load-side resources that can effectively solve the above problems has significant theoretical and practical implications. Summary of the Invention

[0008] The main objective of this invention is to provide a power load-side resource optimization scheduling device to solve the technical problem that the operation of existing equipment is not convenient enough.

[0009] To achieve the above objectives, according to one aspect of the present invention, a power load-side resource optimization scheduling apparatus is provided, comprising:

[0010] The mounting base has a mounting groove;

[0011] The movable box contains a control box and can be movably installed in the fixed slot;

[0012] The movable base is movably mounted on top of the fixed base;

[0013] The display mechanism is rotatably mounted inside the movable base, and the tilt angle can be adjusted.

[0014] The control component is movably mounted on the top of the movable box. The bottom of the display mechanism is limited to the control component. When the display mechanism is rotated to a non-limited state with the control component, the display mechanism is moved from the first side to the second side of the control component by moving the movable seat and the control component in opposite directions respectively. This places the operation interface of the display mechanism in front of the control component, preventing accidental contact with the control component when operating the operation interface of the display mechanism.

[0015] Furthermore, the display mechanism includes a fixed post and a torsion spring. The torsion spring is sleeved on the fixed post, and a mounting hole is provided on the inner wall of the movable seat. The fixed post is rotatably installed in the mounting hole by means of the torsion spring.

[0016] Furthermore, the top of the movable box has an opening, inside which a movable plate is movably installed. The control components are mounted on the movable plate. A slot is opened on the inner wall of the opening, and a support mechanism is installed in the slot. A limit block is provided on the side of the movable plate. The limit block is movably installed in the slot and connected to the support mechanism. The support mechanism is at least partially a telescopic mechanism that can extend and retract along the extension direction of the slot, providing a pushing force for the movable plate and the control components to move inward toward the opening.

[0017] Furthermore, the support mechanism includes at least one elastic component, one end of which is fixed to the inside of the slot and the other end is connected to the limiting block of the movable plate. When the control component and the display mechanism are in a non-limited state, the elastic component provides a pushing force to the movable plate to move inward toward the opening, so that the relative position of the control component and the display mechanism remains unchanged.

[0018] Furthermore, the power load-side resource optimization and dispatching device also includes a limit mechanism, which is installed in the movable seat and is at least partially adjustable to limit or avoid the display mechanism.

[0019] Furthermore, the limiting mechanism includes a return spring and a retaining ball. The movable seat is provided with a groove, the return spring is installed in the groove, and the retaining ball is located at the free end of the return spring. The retaining ball limits the display mechanism, and when the display mechanism presses the retaining ball, the retaining ball moves toward the inside of the groove to avoid the display mechanism.

[0020] Furthermore, there are multiple limiting mechanisms, which are arranged sequentially at intervals along the moving direction of the movable seat.

[0021] Furthermore, a limiting groove is provided on the side of the movable box. The retaining ball cooperates with the limiting groove. When the movable box moves upward relative to the fixed seat to the predetermined position, the retaining ball enters the limiting groove under the action of the return spring to limit and fix the movable box.

[0022] Furthermore, the power load-side resource optimization and dispatching device also includes a heat dissipation component. The heat dissipation component is fixed to the side of the fixed base. An installation groove is provided on the inner wall of the fixed groove. A connection box communicating with its cavity is provided on the outer wall of the movable box. The connection box is movably installed in the installation groove and communicates with the installation groove. The heat dissipation component is arranged opposite to the installation groove, so that the heat dissipated from the movable box into the installation groove is discharged through the installation groove.

[0023] Furthermore, the heat dissipation component includes a cooling fan, and the movable box is provided with an air inlet. Driven by the cooling fan, airflow enters the movable box through the air inlet and is discharged through the connecting box.

[0024] Furthermore, the movable box is vertically adjustable, with an exhaust vent at the bottom and an exhaust fan at the vent. An air inlet is located on the side wall of the movable box, and exhaust air is discharged through the exhaust vent when the movable box moves upward to the predetermined heat dissipation position.

[0025] Furthermore, the movable box is also equipped with a handle, which is installed on the side wall of the movable box, providing a gripping point when the position of the movable box needs to be adjusted.

[0026] Furthermore, the control assembly includes a control base, a switch, and a baffle. Both the switch and the baffle are mounted on the upper surface of the control base. The top of the baffle protrudes from the top of the switch. When the control base moves to the rear of the display mechanism, the switch is blocked by the display mechanism.

[0027] Furthermore, the fixed seat has a groove at the top and a slider at the bottom, which is slidably disposed in the groove along the extension direction of the groove.

[0028] Furthermore, the control assembly also includes a sealing seat for protecting the switch, which is installed on the inner wall of the opening and mates with the control seat and the movable plate.

[0029] Furthermore, the data processing and scheduling system includes a central processing unit, a data acquisition module, a construction module, and a scheduling module. It processes large-scale demand-side resource scheduling information, realizes collaborative optimization of power load-side resources, and has a built-in data privacy protection mechanism.

[0030] Furthermore, the data processing and scheduling system includes an analysis module that connects to the data acquisition module to perform in-depth analysis of the collected large-scale demand-side resource data.

[0031] Furthermore, the construction module includes a demand-side resource aggregation flexibility model building module and a demand-side resource economic model building module. The demand-side resource aggregation flexibility model building module is used to quantify the flexibility of demand-side resource aggregation, and the demand-side resource economic model building module is used to evaluate the economic cost of demand-side resource scheduling.

[0032] Furthermore, the power load-side resource optimization dispatching device also integrates functions such as power load forecasting, power resource optimization allocation, and power system stability control.

[0033] Applying the technical solution of this invention, the fixed base is designed with a fixed slot to accommodate the movable box. The movable box houses a control box, which is the core of the entire scheduling device, responsible for executing scheduling algorithms and control strategies. The movable box, through its movable connection to the fixed slot of the fixed base, can move up and down within the slot. This design allows the movable box to adjust its position according to actual needs, thereby optimizing the heat dissipation and operating height of the equipment. The movable base is mounted on top of the fixed base, and a display mechanism can be movably installed inside it. The display mechanism is connected to the movable base via a rotating mechanism such as a fixed column and a torsion spring. This design allows the display mechanism to rotate inside the movable base, adjusting its tilt angle for viewing and operation from different heights. Control components are movably mounted on the top of the movable box, including a control base, a switch, and a baffle. The control base provides a secondary angle adjustment function, enhancing the flexibility of the display mechanism. When the display mechanism rotates to a position parallel to the control base, the control base can move to a position behind the display mechanism. At this time, the display mechanism can shield the control base for protection, preventing accidental operation when not in use. Simultaneously, the baffle on the control base can contact the display mechanism, further enhancing the protective effect. The rotation and tilt angle adjustment functions of the display mechanism of the present invention, as well as the relative movement mechanism with the control components, enable operators to freely adjust the display interface according to their needs and comfort, greatly improving the ease of operation of the equipment and solving the technical problem of insufficient ease of operation of the equipment in the prior art. Attached Figure Description

[0034] The accompanying drawings, which form part of this application, are used to provide a further understanding of the invention. The illustrative embodiments of the invention and their descriptions are used to explain the invention and do not constitute an undue limitation of the invention. In the drawings:

[0035] Figure 1 A three-dimensional structural schematic diagram of an embodiment of the power load-side resource optimization scheduling device according to the present invention is shown;

[0036] Figure 2 A schematic diagram of a structure showing the movable seat moving to the rear side of the display mechanism is shown in an embodiment of the power load-side resource optimization scheduling device according to the present invention.

[0037] Figure 3 This diagram shows a schematic of the structure of the active box after removal in one embodiment of the power load-side resource optimization scheduling device according to the present invention;

[0038] Figure 4 A schematic diagram of the structure of a fixed column is shown in one embodiment of the power load-side resource optimization scheduling device according to the present invention;

[0039] Figure 5 A side view of the active box structure is shown in an embodiment of the power load-side resource optimization scheduling device according to the present invention;

[0040] Figure 6 This diagram shows a schematic of the structure after the control base of an embodiment of the power load-side resource optimization scheduling device according to the present invention has been removed.

[0041] Figure 7 A schematic side view of the active seat structure of an embodiment of the power load-side resource optimization scheduling device according to the present invention is shown;

[0042] Figure 8 A schematic cross-sectional view of a limit mechanism is shown in an embodiment of the power load-side resource optimization scheduling device according to the present invention.

[0043] Figure 9 A schematic diagram of a power load-side resource optimization scheduling system according to the present invention is shown.

[0044] The above figures include the following reference numerals:

[0045] 1. Fixed base; 2. Heat dissipation assembly; 3. Fixed groove; 4. Movable box; 5. Air inlet; 6. Handle; 7. Slide groove; 8. Slider; 9. Movable base; 10. Display mechanism; 11. Limiting mechanism; 12. Control assembly; 13. Mounting groove; 14. Connecting box; 15. Fixed column; 16. Torsion spring; 17. Limiting groove; 18. Opening; 19. Slot; 20. Movable plate; 21. Control base; 22. Switch; 23. Baffle; 24. Support mechanism; 25. Sealing seat; 26. Groove; 27. Return spring; 28. Clamping ball. Detailed Implementation

[0046] It should be noted that, unless otherwise specified, the embodiments and features described in this application can be combined with each other. The present invention will now be described in detail with reference to the accompanying drawings and embodiments.

[0047] like Figure 1 As shown, an embodiment of the present invention provides a power load-side resource optimization scheduling device, including a fixed base 1 with a fixed slot 3; a movable box 4, in which a control box is installed, movably installed in the fixed slot 3; a movable base 9, movably installed on the top of the fixed base 1; a display mechanism 10, rotatably installed inside the movable base 9, with an adjustable tilt angle; and a control component 12, movably installed on the top of the movable box 4. The bottom of the display mechanism 10 is in a limiting fit with the control component 12. When the display mechanism 10 rotates to a non-limited state with the control component 12, the movable base 9 and the control component 12 are moved in opposite directions, respectively, so that the display mechanism 10 moves from the first side to the second side of the control component 12, and the operation interface of the display mechanism 10 is located in front of the control component 12, thus avoiding accidental contact with the control component 12 when operating the operation interface of the display mechanism 10.

[0048] The power load-side resource optimization scheduling device provided in this embodiment of the invention, with its rotation and tilt angle adjustment functions of the display mechanism 10 and its relative movement mechanism with the control component 12, allows operators to freely adjust the display interface according to their needs and comfort, greatly improving the ease of operation of the device and solving the technical problem of insufficient ease of operation of the device in the prior art.

[0049] In the above embodiment, the fixed base 1 is designed with a fixed groove 3 to accommodate the movable box 4. The movable box 4 houses a control box, which is the core of the entire scheduling device and is responsible for executing scheduling algorithms and control strategies. The movable box 4, through its movable connection to the fixed groove 3 of the fixed base 1, can move up and down within the groove 3. This design allows the movable box 4 to adjust its position according to actual needs, thereby optimizing the heat dissipation effect and operating height of the device. The movable base 9 is mounted on top of the fixed base 1, and a display mechanism 10 can be movably installed inside it. The display mechanism 10 is connected to the movable base 9 via a rotating mechanism such as a fixed column 15 and a torsion spring 16. This design allows the display mechanism 10 to rotate inside the movable base 9, adjusting its tilt angle for viewing and operation from different heights. The control assembly 12 is movably mounted on the top of the movable box 4 and includes a control base 21, a switch 22, a baffle 23, etc., where the control base 21 provides a secondary angle adjustment function, enhancing the flexibility of the display mechanism 10. When the display mechanism 10 is rotated to be parallel to the control base 21, the control base 21 can be moved to a position behind the display mechanism 10. At this time, the display mechanism 10 can shield and protect the control base 21 to avoid accidental operation when not in use. At the same time, the baffle 23 on the control base 21 can contact the display mechanism 10 to further enhance the protection effect.

[0050] like Figures 1 to 8As shown, specifically, the display mechanism 10 includes a fixed post 15 and a torsion spring 16. The torsion spring 16 is sleeved on and connected to the fixed post 15. The inner wall of the movable base 9 has mounting holes, and the fixed post 15 is rotatably mounted in the mounting holes via the torsion spring 16. The core component of the display mechanism 10 is the fixed post 15. One end of the fixed post 15 is connected to the back plate of the display mechanism 10, and the other end is located in the mounting hole. The torsion spring 16 is connected to the mounting hole, allowing the display mechanism 10 to rotate around the fixed post 15. The set torque of the torsion spring 16 should be optimized according to the weight and size of the display mechanism 10 to ensure that the display mechanism 10 can stably maintain any tilt angle during rotation, while also allowing for easy angle adjustment. The inner wall of the movable base 9 has multiple mounting holes for mounting the fixed post 15. The fixed post 15 is rotatably mounted in the mounting hole via a torsion spring 16. This design not only ensures the rotational freedom of the display mechanism 10 but also guarantees its stability and safety. The position of the mounting hole can be adjusted according to the size of the display mechanism 10 and rotation requirements to achieve the optimal viewing angle and ease of operation. When it is necessary to adjust the tilt angle of the display mechanism 10, the operator only needs to gently push it. The torsion spring 16 adjusts its tension according to the pushing torque, thereby moving the display mechanism 10 to the required angle and maintaining stability. This operating mechanism is simple and intuitive, requiring no additional tools or complex adjustment steps, greatly improving the user experience. When the display mechanism 10 is not in use, the movement of the control component 12 can rotate the display mechanism 10 to contact the baffle 23 of the control component 12, thereby providing physical protection for the display mechanism 10 and preventing accidental collisions and damage. In addition, this design can also avoid scheduling errors caused by misoperation when the display mechanism 10 is not in use, improving system safety. The display mechanism 10, through the structural design of the fixed column 15 and the torsion spring 16, not only improves the flexibility and safety of operation, but also simplifies the operation process and optimizes the visual effect. It is an important innovation in the power load side resource optimization and scheduling device.

[0051] Specifically, the movable box 4 has an opening 18 at its top, and a movable plate 20 is movably installed inside the opening 18. A control component 12 is mounted on the movable plate 20. A slot 19 is formed on the inner wall of the opening 18, and a support mechanism 24 is installed within the slot 19. Limiting blocks are provided on the sides of the movable plate 20, and these limiting blocks are movably installed within the slot 19 and connected to the support mechanism 24. The support mechanism 24 is at least partially a telescopic mechanism that extends and retracts along the extension direction of the slot 19, providing a pushing force for the movable plate 20 and the control component 12 to move inwards from the opening 18. The opening 18 at the top of the movable box 4 is designed to be rectangular, slightly larger than the movable plate 20, allowing the movable plate 20 to move up and down within the opening 18. Limiting blocks are provided on the sides of the movable plate 20, and these limiting blocks are adapted to the slots 19 on the inner wall of the opening 18, ensuring smooth movement of the movable plate 20 while preventing it from detaching from the opening 18. A support mechanism 24 is installed inside the slot 19, at least part of which is a telescopic mechanism that can extend and retract along the extension direction of the slot 19. In this embodiment, the support mechanism 24 can be a telescopic spring, one end of which is fixed to the bottom of the slot 19, and the other end is connected to a limiting block on the movable plate 20. The telescopic spring is in a compressed state in its natural state. When the movable plate 20 is subjected to an external force and moves outward from the opening 18, the telescopic spring is stretched and stores elastic potential energy; conversely, when the external force disappears, the restoring force of the telescopic spring pushes the movable plate 20 and the control component 12 inward from the opening 18, ensuring that they are stably held in the desired position. The control component 12 is installed in the opening 18 through the movable plate 20, corresponding to the display mechanism 10. When the display mechanism 10 is rotated to a position parallel to the control component 12, the operator can push the control component 12 and the movable plate 20 to move them inward along the slot 19 on the inner wall of the opening 18 until the control component 12 is blocked by the display mechanism 10, at which point the telescopic spring is in a compressed state. When the control component 12 is needed, the operator only needs to rotate the display mechanism 10 to its original position, and the restoring force of the telescopic spring will automatically push the control component 12 back to its original position, making it easy to operate.

[0052] Specifically, the support mechanism 24 includes at least one elastic component. One end of the elastic component is fixed to the inside of the slot 19, and the other end is connected to the limiting block of the movable plate 20. When the control component 12 and the display mechanism 10 are in a non-limited state, the elastic component provides a pushing force to the movable plate 20 to move inward toward the opening 18, so that the relative position of the control component 12 and the display mechanism 10 remains unchanged. The elastic component can be a spring, a sheet spring, or other mechanical element with elastic recovery capability. In this invention, a spring is preferably used as the elastic component because a spring can not only provide a continuous pushing force, but its pushing force can also be linearly adjusted according to the amount of compression, making it easy to adjust and maintain. One end of the spring is fixed to the inside of the slot 19, and the other end is connected to the limiting block on the movable plate 20. This connection method ensures the stability and reliability of the spring when pushing the movable plate 20. When the display mechanism 10 rotates to a non-limited state relative to the baffle 23 of the control component 12, the relative position between the control component 12 and the display mechanism 10 may change due to external forces, leading to reduced visibility of the display interface or increased risk of malfunction of the control component 12. At this time, the support mechanism 24 becomes particularly important. When the control component 12 and the display mechanism 10 are in a non-limited state, the spring begins to function, providing a pushing force to the movable plate 20 to move inwards towards the opening 18. This pushing force keeps the movable plate 20 tightly fitted to the control component 12, ensuring that the relative position between the control component 12 and the display mechanism 10 remains unchanged and preventing positional displacement caused by external interference.

[0053] Specifically, the power load-side resource optimization scheduling device also includes a limiting mechanism 11, which is installed within the movable base 9. The limiting mechanism 11 is at least partially adjustable to limit or avoid the display mechanism 10. The limiting mechanism 11, installed inside the movable base 9, includes at least one adjustable limiting component. In this embodiment, the limiting component can be a system consisting of a retaining bead 28 with a spring return function and a groove 26. The retaining bead 28 is installed at the bottom of the limiting mechanism 11, while the groove 26 is located at a specific position inside the movable base 9, allowing the retaining bead 28 to be inserted into or removed from the groove 26 as needed. When the display mechanism 10 rotates to the desired tilt angle, the limiting mechanism 11, through the retaining bead 28, inserts into the limiting groove 17 at the bottom of the display mechanism 10, fixing the position of the display mechanism 10. This design not only ensures the stability of the display mechanism 10 during operation but also allows adjustment of the tilt angle of the display mechanism 10 according to different operational needs, providing optimal visual effects and operational convenience. When it is necessary to rotate the display mechanism 10 to a position parallel to the control component 12 to avoid accidental contact with the control component 12, the limiting mechanism 11 can adjust the position of the retaining bead 28 to disengage it from the limiting groove 17 at the bottom of the display mechanism 10, thereby preventing the display mechanism 10 from moving. This free movement of the display mechanism 10 provides protection for the control component 12 and also ensures the safety of the display mechanism 10 in non-operating states. The adjustment mechanism of the limiting mechanism 11 can be manual or automatic. In manual adjustment, the operator can adjust the position of the retaining bead 28 using specific tools or control buttons to limit or prevent the display mechanism 10 from moving. In automatic adjustment, the limiting mechanism 11 can be connected to the movement sensor of the control component 12 or the display mechanism 10. When the display mechanism 10 is detected to have moved to a specific position, the position of the retaining bead 28 is automatically adjusted to limit or prevent the display mechanism 10 from moving.

[0054] Specifically, the limiting mechanism 11 includes a return spring 27 and a retaining bead 28. A groove 26 is provided on the movable seat 9. The return spring 27 is installed in the groove 26, and the retaining bead 28 is located at the free end of the return spring 27. The retaining bead 28 limits the display mechanism 10. When the display mechanism 10 presses the retaining bead 28, the retaining bead 28 moves towards the inside of the groove 26 to avoid the display mechanism 10. The groove 26 is pre-set on the movable seat 9, and its size and shape must match the retaining bead 28 and the return spring 27 of the limiting mechanism 11. The return spring 27 is installed in the groove 26, with one end fixed to the bottom of the groove 26 and the other end free, used to push the retaining bead 28. The retaining bead 28 is a cylindrical or spherical limiting component located at the free end of the return spring 27. Under normal conditions, the retaining bead 28 is pushed by the return spring 27, partially or completely extending out of the groove 26 and in a limited position, preventing unnecessary rotation of the display mechanism 10. When the angle of the display mechanism 10 needs to be adjusted, the operator can manually push the display mechanism 10 so that it contacts the retaining bead 28, overcoming the thrust of the return spring 27 and forcing the retaining bead 28 to move toward the inside of the groove 26, thereby creating clearance space and allowing the display mechanism 10 to rotate freely to the desired angle.

[0055] Specifically, there are multiple limiting mechanisms 11, which are arranged sequentially and at intervals along the moving direction of the movable seat 9. Each limiting mechanism 11 consists of multiple limiting components, such as latches, limiting pins, magnetic devices, or other mechanisms capable of providing position locking. To accommodate the movement range of the display mechanism 10 within the movable seat 9, the multiple limiting mechanisms 11 are arranged sequentially and at intervals along the moving direction of the movable seat 9, forming one or more rows of limiting points. This ensures that the display mechanism 10 can find a suitable limiting point for stable fixation at any position. The multi-point interval arrangement of the limiting mechanisms 11 ensures that the display mechanism 10 can find a suitable limiting point for fixation at any tilt angle, avoiding shaking or instability of the display mechanism 10 due to improper angle adjustment, and improving the overall stability and reliability of the equipment.

[0056] Specifically, a limiting groove 17 is provided on the side of the movable box 4. A retaining bead 28 cooperates with the limiting groove 17. When the movable box 4 moves upward relative to the fixed base 1 to a predetermined position, the retaining bead 28 enters the limiting groove 17 under the action of the return spring 27 to limit and fix the movable box 4. By providing a limiting groove 17 on the side of the movable box 4 and utilizing the combination of the retaining bead 28 and the return spring 27, the movement state of the movable box 4 relative to the fixed base 1 is controlled and fixed. The limiting groove 17 is designed as a groove 26 structure adapted to the shape of the side of the movable box 4. Its depth and width must match the size of the retaining bead 28 to ensure that the retaining bead 28 can be accurately embedded in the limiting groove 17. The retaining bead 28 is designed as a sphere or other circular body to facilitate its entry and exit from the limiting groove 17, while also being able to withstand a certain lateral thrust to prevent the movable box 4 from shaking under lateral force. One end of the return spring 27 is fixed to the bottom of the groove 26, and the other end is connected to the retaining bead 28. When the movable box 4 is in the predetermined position, the return spring 27, in its natural state, pushes the retaining bead 28 towards the limiting groove 17, so that the retaining bead 28 can automatically engage with the limiting groove 17 when the movable box 4 moves to the corresponding height, thereby completing the limiting and fixing of the movable box 4. The limiting mechanism 11, through the cooperation of the retaining bead 28 and the limiting groove 17, effectively increases the stability of the movable box 4 in the predetermined position, prevents the movable box 4 from shaking or changing position due to external environmental factors, and improves the operational stability and safety of the equipment.

[0057] Specifically, the power load-side resource optimization and dispatching device also includes a heat dissipation component 2, which is fixed to the side of the fixed base 1. An installation groove 13 is provided on the inner wall of the fixed slot 3, and a connecting box 14 communicating with its cavity is provided on the outer wall of the movable box 4. The connecting box 14 is movably installed in and communicates with the installation groove 13. The heat dissipation component 2 is positioned opposite to the installation groove 13, allowing the movable box 4 to dissipate heat into the installation groove 13, which is then discharged through the installation groove 13. The heat dissipation component 2 is fixedly installed on the side of the fixed base 1, and its position should ensure effective heat dissipation from the interior of the movable box 4. The design of the heat dissipation component 2 should consider the power consumption and internal heat distribution of the power load-side resource optimization and dispatching device to achieve optimal heat dissipation. The installation groove 13 is provided on the inner wall of the fixed slot 3, and this installation groove 13 is positioned opposite to the heat dissipation component 2, ensuring that the heat dissipation component 2 can directly act on the interior of the installation groove 13, thereby improving heat dissipation efficiency. The size and shape of the installation groove 13 should match the connecting box 14 of the movable box 4, allowing the connecting box 14 to be smoothly installed into the installation groove 13. A connecting box 14 is provided on the outer wall of the movable box 4. One end of the connecting box 14 is connected to the cavity of the movable box 4, and the other end is connected to the mounting slot 13. An air channel is provided inside the connecting box 14, allowing heat generated inside the movable box 4 to be transferred to the mounting slot 13, and then exhausted to the external environment by the heat dissipation component 2. When the movable box 4 needs to dissipate heat, the operator can push the movable box 4 so that its connecting box 14 enters the mounting slot 13 of the fixed base 1. At this time, the heat inside the movable box 4 will be transferred to the mounting slot 13 through the air channel of the connecting box 14, and the heat dissipation component 2 will exhaust the heat from the mounting slot 13, achieving an efficient heat dissipation process.

[0058] Specifically, the heat dissipation component 2 includes a cooling fan, and the movable box 4 is provided with an air inlet 5. Driven by the cooling fan, airflow enters the movable box 4 through the air inlet 5 and is discharged through the connecting box 14. The heat dissipation component 2 mainly includes two parts: a cooling fan and a heat dissipation channel. The cooling fan is installed inside the exhaust port at the bottom of the movable box 4, while the heat dissipation channel is composed of the air inlet 5 on the movable box 4 and the connecting box 14.

[0059] When the cooling fan starts, the airflow it generates enters through the air inlets 5 of the movable housing 4. Multiple air inlets 5 are designed and evenly distributed along the sides of the movable housing 4 to ensure uniform airflow coverage of the interior space. The airflow entering the movable housing 4 flows through the control box, carrying away the heat generated during its operation. Subsequently, the airflow connects to the mounting slot 13 of the heat dissipation component 2 via the connecting box 14, and finally exits through the exhaust port, forming an effective airflow circulation to reduce the internal temperature of the movable housing 4. The connecting box 14 not only provides a channel for airflow from the movable housing 4 to the heat dissipation component 2 but also provides insulation, reducing heat loss during airflow transmission and thus improving heat dissipation efficiency. The interior of the connecting box 14 can be designed with baffles to increase airflow turbulence and further enhance the heat dissipation effect.

[0060] Specifically, the movable box 4 is vertically adjustable, with an exhaust vent at its bottom and an exhaust fan at the vent. An air inlet 5 is located on the side wall of the movable box 4. When the movable box 4 moves upward to the predetermined heat dissipation position, air is exhausted through the exhaust vent. The movable box 4 is vertically adjustable along the fixed base 1 via a slide rail or lifting mechanism, allowing operators to manually or automatically adjust its height according to actual needs. This design is particularly suitable for operators of different heights, or for quickly adjusting the position of the movable box 4 to adapt to different operating environments when equipment layout needs to be changed. The bottom of the movable box 4 has an exhaust vent, which must be large enough to ensure airflow. An exhaust fan is installed at the exhaust vent; the fan can be DC or AC, the specific choice depending on the power supply method and power requirements of the power load-side resource optimization and dispatching device. The exhaust fan's function is to accelerate the exhaust of hot air from inside the movable box 4, thereby reducing the internal temperature. The movable enclosure 4 has an air inlet 5 on its side wall. The design of the air inlet 5 needs to consider airflow efficiency and dust prevention performance. The air inlet 5 can be equipped with a filter to prevent dust and impurities from entering the interior of the movable enclosure 4, protecting the cleanliness and stable operation of the internal electronic equipment. To ensure effective heat dissipation of the equipment inside the movable enclosure 4, one or more heat dissipation positions need to be pre-determined based on the exhaust fan's capacity and the equipment's heat generation. When the movable enclosure 4 is adjusted to these heat dissipation positions, the cooperation between the exhaust fan and the air inlet 5 can achieve the best heat dissipation effect.

[0061] Specifically, the movable box 4 is also equipped with a handle 6, which is mounted on the side wall of the movable box 4. The handle 6 provides a gripping point when the position of the movable box 4 needs to be adjusted. The handle 6 is mounted on the side wall of the movable box 4 in a position that is easily accessible to the user and will not interfere with other operations of the equipment. Typically, the handle 6 is mounted in the center of the side of the movable box 4 or near the top, so that the user can easily apply force when adjusting the position of the movable box 4 without causing the movable box 4 to wobble or become difficult to operate due to improper grip. When the position of the movable box 4 needs to be adjusted, the user can easily move the movable box 4 up or down by gripping the handle 6, thereby adjusting the height of the movable box 4. The addition of the handle 6 makes the movement of the movable box 4 more intuitive and convenient, improving the operability of the equipment and the user experience.

[0062] Specifically, the control assembly 12 includes a control base 21, a switch 22, and a baffle 23. Both the switch 22 and the baffle 23 are mounted on the upper surface of the control base 21. The top of the baffle 23 protrudes from the top of the switch 22. When the control base 21 moves to the rear of the display mechanism 10, the display mechanism 10 blocks the switch 22, preventing accidental operation of the switch 22 when the control assembly 12 is not in use. The control assembly 12 mainly consists of the control base 21, the switch 22, and the baffle 23. The control base 21 serves as a support and load-bearing platform, the switch 22 is used to implement the control function of power resource dispatch, and the baffle 23 is designed with a certain height, its top protruding from the top of the switch 22. When the control base 21 moves to the rear of the display mechanism 10, the display mechanism 10 can effectively block the switch 22, preventing accidental operation. The design of the baffle 23 should consider both its blocking effect and the ease of operation of the switches 22. The width of the display mechanism 10 should cover all switches 22, while the height should ensure that the switches 22 are completely blocked when the control base 21 moves to the rear of the display mechanism 10, preventing accidental activation of the switches 22 when the control component 12 is not in use. The baffle 23 can be made of insulating material to increase safety. The design of the control base 21 allows it to move along a predetermined trajectory inside the movable base 9. The trajectory design should ensure that when the control base 21 moves to the rear of the display mechanism 10, the display mechanism 10 can precisely block the switches 22 without affecting the normal operation of the display mechanism 10. The moving mechanism of the control base 21 can be a sliding rail, a rack and pinion, or a magnetic sliding mechanism, etc., and the specific choice should be based on the overall design and cost considerations of the equipment.

[0063] Specifically, the fixed base 1 has a groove 7 at its top, and the movable base 9 has a slider 8 at its bottom. The slider 8 is slidably disposed within the groove 7 along its extension direction, enabling position adjustment of the movable base 9 and the display mechanism 10. The fixed base 1 has at least one groove 7 at its top. The depth and width of the groove 7 must match the slider 8 at the bottom of the movable base 9 to ensure that the slider 8 can slide smoothly within the groove 7 without jamming or wobbling. The slider 8 at the bottom of the movable base 9 is designed to fit the shape of the groove 7, and its material should be selected to have self-lubricating properties and high wear resistance to reduce friction during sliding and extend the service life of the slider 8. The connection between the slider 8 and the movable base 9 should be secure to ensure that the movable base 9 does not experience relative displacement with the slider 8 during sliding. The core of the sliding mechanism lies in the smooth contact between the slider 8 and the groove 7. During sliding, the operator only needs to gently push the movable base 9, and the slider 8 can slide within the groove 7 along its extension direction, thereby achieving vertical position adjustment of the movable base 9 and the display mechanism 10.

[0064] Specifically, the control assembly 12 also includes a sealing seat 25 for protecting the switch 22. The sealing seat 25 is installed on the inner wall of the opening 18 and cooperates with the control seat 21 and the movable plate 20. When the control assembly 12 is not in use, it provides additional protection for the control assembly 12, preventing the influence of external factors such as dust and moisture. The sealing seat 25 is fixedly installed on the inner wall of the opening 18, ensuring that it can be in close contact with the control seat 21 and the movable plate 20 in any state, forming an effective isolation layer. When the control assembly 12 is not in use, the movement of the movable plate 20 causes the control seat 21 to contact the sealing seat 25. The elasticity of the sealing seat 25 ensures that even during the movement of the movable plate 20, the switch 22 can be completely covered and protected, preventing external contaminants such as dust and moisture from entering the switch 22 area, thus avoiding damage to electronic components and functional failure.

[0065] like Figure 9As shown, specifically, the data processing and scheduling system includes a central processing unit (CPU), a data acquisition module, a construction module, and a scheduling module. It processes large-scale demand-side resource scheduling information, achieves collaborative optimization of power load-side resources, and incorporates a data privacy protection mechanism to ensure user data security and privacy. The CPU is the core of the data processing and scheduling system, employing high-performance computing chips and processors, such as Intel Xeon or AMD EPYC series processors, to meet the needs of large-scale data processing and complex algorithm calculations. The processor can receive information from the data acquisition module in real time and simultaneously process data from the construction and scheduling modules, achieving fast and efficient power load-side resource scheduling. The data acquisition module consists of a series of sensors, metering devices, and communication interfaces, used to collect information in real time on the operating status of power load-side resources, environmental parameters, and user demands. This information includes, but is not limited to, electricity consumption, equipment status, ambient temperature, and user electricity preferences. The data acquisition module transmits this information to the CPU for processing. The construction module is responsible for establishing models of power load-side resources, including economic models and flexibility models.

[0066] The model is built upon historical and real-time data, employing techniques such as machine learning, deep learning, and optimization algorithms to quantify the characteristics and potential value of each resource. This module also constructs cost and revenue models to evaluate the economic benefits of different scheduling strategies. The scheduling module is a key component for achieving collaborative optimization. Based on information processed by the central processing unit and combined with the resource model provided by the construction module, it uses advanced scheduling algorithms (such as genetic algorithms, particle swarm optimization, or mixed integer programming) to generate the optimal power load scheduling strategy. This module can dynamically adjust resource scheduling plans to cope with real-time changes in grid load, achieving flexible and optimized scheduling of power resources. To ensure the security and privacy of user data, the system incorporates encryption algorithms and access control mechanisms. All transmitted and stored user data is encrypted, and only authorized users and system components can access the decrypted data. Furthermore, the system employs access control lists (ACLs) and role-based access control (RBAC) to ensure the compliance and security of data access.

[0067] Specifically, the data processing and scheduling system includes an analysis module connected to the data acquisition module. This module performs in-depth analysis of the collected large-scale demand-side resource data, providing more precise scheduling strategies and optimizing the efficiency and effectiveness of power load-side resource scheduling. The data acquisition module is responsible for collecting real-time operational data of power load-side resources, including but not limited to key parameters such as load demand, equipment status, and ambient temperature. Sensors in the data acquisition module should be distributed at key locations on the power load-side resources to ensure the comprehensiveness and accuracy of the data. The analysis module is closely connected to the data acquisition module, and the data collected by the data acquisition module is transmitted to the analysis module in real time. The analysis module uses advanced data analysis algorithms, such as machine learning, deep learning, or artificial intelligence, to perform in-depth analysis of the large-scale demand-side resource data, identifying patterns and trends in the data. Based on the results of the in-depth analysis, the analysis module generates more precise scheduling strategies. These strategies will consider factors such as real-time demand of power load-side resources, equipment operating efficiency, and cost-effectiveness to optimize the scheduling efficiency and effectiveness of power load-side resources.

[0068] Specifically, the construction module includes a demand-side resource aggregation flexibility model building module and a demand-side resource economics model building module. The demand-side resource aggregation flexibility model building module is used to quantify the aggregation flexibility of demand-side resources, while the demand-side resource economics model building module is used to evaluate the economic cost of demand-side resource scheduling to achieve economical and efficient scheduling of demand-side resources. This module first collects relevant data on demand-side resources, including but not limited to load characteristics, response speed, and schedulable range. After data collection, the module performs data preprocessing, including data cleaning, standardization, and outlier detection, to ensure the quality of the foundational data for model building. Next, based on the preprocessed data, the module builds detailed mathematical models for each type of demand-side resource. These models will consider the characteristics of resources, such as the different response times and scheduling capacities of electric heating and air conditioning, electric vehicle charging stations, and energy storage devices. Based on resource modeling, a model that can reflect the aggregation flexibility of various demand-side resources is constructed. This model will consider the synergistic effects between different resources, as well as the overall responsiveness and schedulable range after resource aggregation, to quantify flexibility. Through historical data and simulation tests, the model parameters are continuously adjusted and optimized to ensure that the model can accurately reflect the aggregation flexibility of demand-side resources, providing a reliable foundation for optimized scheduling.

[0069] The demand-side resource economics model building module first identifies the main cost factors affecting the economics of demand-side resource scheduling, including resource scheduling costs, market response costs, and equipment maintenance costs. Next, based on preprocessed data, the module builds detailed mathematical models for each type of demand-side resource. These models take into account the characteristics of resources, such as the different response times and scheduling capacities of electric heating and air conditioning, electric vehicle charging stations, and energy storage devices. Based on resource modeling, a model that reflects the flexibility of aggregating various demand-side resources is constructed. This model considers the synergistic effects between different resources, as well as the overall responsiveness and schedulable range after resource aggregation, to quantify flexibility. Through historical data and simulation testing, the model parameters are continuously adjusted and optimized to ensure that the model accurately reflects the aggregation flexibility of demand-side resources, providing a reliable foundation for optimized scheduling.

[0070] Specifically, the power load-side resource optimization and dispatching device integrates functions such as power load forecasting, power resource optimization and allocation, and power system stability control. This enables comprehensive and multi-faceted optimization and dispatching of power load-side resources, improving power system operating efficiency and reliability while also considering economic efficiency and data security. The power load forecasting module employs advanced machine learning algorithms, such as neural networks, support vector machines, or sequence prediction models, to predict future power demand through analysis of historical power load data. The module design considers real-time data updates and feedback mechanisms to improve forecast accuracy and response speed. Based on load forecasting results, the power resource optimization and allocation module combines the real-time status of power load-side resources with the power system's operational needs. It utilizes mathematical optimization algorithms (such as linear programming, integer programming, or dynamic programming) to optimize the allocation of power load-side resources, including demand response resources, energy storage resources, and interruptible loads, to achieve power system supply-demand balance and economical operation. The power system stability control module monitors the real-time operating status of the power system, including key parameters such as voltage, frequency, and power factor, as well as the response of power load-side resources. This allows for the rapid identification of potential threats to system stability and the implementation of corresponding control strategies, such as quickly adjusting generation output, load-side resource scheduling, or energy storage charging and discharging, to maintain stable power system operation. While achieving these functions, this invention also places special emphasis on data security and privacy protection. Encryption technology is used during data transmission to ensure data security. Furthermore, user data and personal information involved in the scheduling process are optimized through data desensitization and anonymization to protect user privacy and prevent the leakage of sensitive data.

[0071] In this embodiment of the invention, the display mechanism 10 is rotated inside the movable seat 9 during use. The rotation and the limiting mechanism 11 work together to adjust the tilt angle, thereby facilitating viewing of the display mechanism 10 from different heights. In addition, the control seat 21 works with the bottom of the display mechanism 10 to perform secondary angle adjustments. When the control seat 21 is no longer needed, it is moved inside the display mechanism 10 and the movable seat 9, and the display mechanism 10 shields and protects the control seat 21 to prevent misoperation when not in use. Later, the movable box 4 is pushed upward by the control seat 21. After the control seat 21 moves upward, the movable box 4 is limited by the limiting mechanism 11. The limiting mechanism 11 loses its limit on the display mechanism 10. The display mechanism 10 rotates and is parallel to the control seat 21. The baffle 23 on the control seat 21 contacts the display mechanism 10 and blocks the display screen. After the movable box 4 is limited and fixed by the control seat 21, the exhaust vent at the bottom of the movable box 4 is exposed. The exhaust vent and the heat dissipation component 2 provide multi-point heat dissipation to the control box inside the movable box 4, thereby maintaining the normal operating temperature of the internal equipment.

[0072] In the above embodiment, the device body includes a fixed base 1, which has a fixed groove 3 inside. A movable box 4 is movably installed in the fixed groove 3, and a control box is fixed inside the movable box 4. The top of the fixed base 1 is designed with a sliding groove 7, and a slider 8 is installed in the sliding groove 7. The top of the slider 8 is fixedly connected to the movable base 9. The movable base 9 is provided with a rotatable display mechanism 10, which is a touch screen for displaying data information. A limiting mechanism 11 that cooperates with the display mechanism 10 is installed on the inner wall of the movable base 9. Its function is to limit the movement of the display mechanism 10 and fix the movable box 4 at a specific position.

[0073] In the above embodiment, the control component 12 is installed on the top of the movable box 4, including a control base 21 and a switch 22, with a baffle 23 fixed between the switches 22. A movable plate 20 is movably installed in the opening 18 at the top of the movable box 4, with a limit block fixed to the side of the movable plate 20. A support mechanism 24 is installed in the slot 19 on the inner wall of the opening 18, with one end of the support mechanism 24 fixed to the limit block. The support mechanism 24 uses a support spring, which pushes the movable plate 20 and the control base 21 inward by the spring force, so that one side of the control base 21 supports the display mechanism 10. A sealing seat 25 is also fixed to the inner wall of the opening 18, which works in conjunction with the control base 21 and the movable plate 20 to ensure the sealing of the switch 22 area and prevent dust and moisture from entering.

[0074] In the above embodiment, an installation groove 13 is designed on the inner wall of the fixing groove 3, and a connecting box 14 is movably installed in the installation groove 13. One end of the connecting box 14 is fixed to the movable box 4. A heat dissipation assembly 2, including a heat dissipation box and a cooling fan, is installed on the side of the fixing base 1. The cooling fan exhausts the airflow inside the installation groove 13 through the connecting box 14, while the connecting box 14 exhausts the high-temperature air inside the movable box 4, effectively reducing the operating temperature of the control box and maintaining its efficient operation.

[0075] In the above embodiment, a fixing post 15 is rotatably mounted on the side of the display mechanism 10. A torsion spring 16 is mounted on the fixing post 15, and the fixing post 15 is rotatably mounted on the inner wall of the fixing groove 3 via the torsion spring 16. The limiting mechanism 11 includes a groove 26 and a reset mechanism. A retaining bead 28 is fixed at one end of the reset mechanism. A limiting groove 17 is opened on the side of the movable box 4. The retaining bead 28 cooperates with the limiting groove 17. The reset mechanism uses a reset spring 27. The elastic force of the spring pushes the retaining bead 28 into the limiting groove 17 to limit and fix the movable box 4.

[0076] The scheduling system of this invention includes a central processing unit installed inside a control box, electrically connected to a data acquisition module, a construction module, and a scheduling module. The construction module is responsible for establishing cost and revenue models. The data acquisition module is connected to the analysis module, and the scheduling module is connected to the power generation scheduling module. A flexible optimization scheduling framework establishment module is connected to a general model establishment module, which includes a demand-side resource aggregation flexibility model establishment module and a demand-side resource economic model establishment module. Through the construction of these models, the quantification and economic assessment of large-scale demand-side resource flexibility are realized.

[0077] When using this device, first select the positions of the display mechanism 10 and the control base 21 as needed. When using the display mechanism 10 for data operation, rotate it to make it parallel to the control base 21, then move the movable base 9. As the movable base 9 moves forward, the control base 21 and the movable plate 20 move backward. When the control base 21 moves to the rear of the display mechanism 10, the display mechanism 10 returns to its original position under the action of the torsion spring 16, with its bottom positioned on top of the limiting mechanism 11. The tilt angle can be adjusted by pressing the display mechanism 10. The limiting mechanism 11 restricts the movement of its bottom, completing the angle adjustment while protecting the control base 21 from accidental activation of the switch 22. After the movable plate 20 and the control base 21 move backward, the exhaust fan blows air through the air inlet 5 to provide heat dissipation for the display mechanism 10. When the control base 21 is needed for power dispatching, the display mechanism 10 rotates, and the support mechanism 24 pushes the movable plate 20 and the control base 21 back to their original positions. Power dispatching control is then achieved through the switch 22. When not in use for extended periods, the display mechanism 10 rotates to be parallel to the control base 21, and is limited by contacting the display screen via the baffle 23. The movable housing 4 moves upward, exposing the exhaust fan for more efficient heat dissipation. Throughout use, the heat dissipation component 2 effectively reduces the internal temperature of the movable housing 4 via the connecting housing 14, protecting the normal operation of the equipment.

[0078] As can be seen from the above description, the embodiments of the present invention achieve the following technical effects:

[0079] Enhanced operational flexibility: The rotation and tilt angle adjustment of the display mechanism 10, as well as the relative movement design of the movable seat 9 and the control component 12, significantly improve the visibility of the operating interface and operational safety, facilitating efficient operation at various positions and heights.

[0080] Equipment stability and lifespan extension: The design of the limit mechanism 11 ensures the stable positioning of the movable box 4 and the display mechanism 10, avoiding vibration and displacement during equipment use, which helps to extend the service life of the equipment.

[0081] Enhanced data security: The safety mechanisms of the control component 12, including the design of the baffle 23 and the sealing seat 25, effectively prevent unintended data operations and environmental factors from affecting the switch 22, ensuring the accuracy of power dispatch.

[0082] Optimized heat dissipation efficiency: The exhaust design of heat dissipation component 2 and movable box 4 ensures the normal operating temperature of the control box, avoids equipment failure due to overheating, and improves the overall stability and operating efficiency of the system.

[0083] Resource scheduling optimization: The integration of functions such as power load forecasting, resource optimization and system stability control enables the present invention to achieve economical and efficient resource scheduling while ensuring the stable operation of the power system, thereby reducing energy consumption and improving energy utilization efficiency.

[0084] Enhanced environmental adaptability: The device and system design of this invention take into account the impact of environmental factors, such as heat dissipation and dust prevention, enabling the equipment to operate stably in various environments and enhancing its environmental adaptability. In summary, the power load-side resource optimization scheduling device and system of this invention not only achieves high efficiency and flexibility in resource scheduling, but also improves the safety, stability and environmental adaptability of operation through optimized equipment structure design. It is an important innovation in the field of power load-side resource management and has significant practical value.

[0085] It should be noted that the terminology used herein is for the purpose of describing particular embodiments only and is not intended to limit the exemplary embodiments according to this application. As used herein, the singular form is intended to include the plural form as well, unless the context clearly indicates otherwise. Furthermore, it should be understood that when the terms "comprising" and / or "including" are used in this specification, they indicate the presence of features, steps, operations, devices, components, and / or combinations thereof.

[0086] Unless otherwise specifically stated, the relative arrangement, numerical expressions, and values ​​of the components and steps described in these embodiments do not limit the scope of this application. It should also be understood that, for ease of description, the dimensions of the various parts shown in the drawings are not drawn to actual scale. Techniques, methods, and devices known to those skilled in the art may not be discussed in detail, but where appropriate, such techniques, methods, and devices should be considered part of the specification. In all examples shown and discussed herein, any specific values ​​should be interpreted as merely exemplary and not as limitations. Therefore, other examples of exemplary embodiments may have different values. It should be noted that similar reference numerals and letters in the following drawings denote similar items; therefore, once an item is defined in one drawing, it need not be further discussed in subsequent drawings.

[0087] In the description of this application, it should be understood that the orientation or positional relationship indicated by directional terms such as "front, back, up, down, left, right", "horizontal, vertical, horizontal" and "top, bottom" is usually based on the orientation or positional relationship shown in the accompanying drawings, and is only for the convenience of describing this application and simplifying the description. Unless otherwise stated, these directional terms do not indicate or imply that the device or element referred to must have a specific orientation or be constructed and operated in a specific orientation, and therefore should not be construed as a limitation on the scope of protection of this application; the directional terms "inner" and "outer" refer to the inner and outer contours relative to the outline of each component itself.

[0088] For ease of description, spatial relative terms such as "above," "on top of," "on the upper surface of," "above," etc., are used herein to describe the spatial positional relationship of a device or feature as shown in the figures to other devices or features. It should be understood that spatial relative terms are intended to encompass different orientations in use or operation beyond the orientation of the device as described in the figures. For example, if the device in the figures were inverted, a device described as "above" or "on top of" other devices or structures would subsequently be positioned as "below" or "under" other devices or structures. Thus, the exemplary term "above" can include both "above" and "below." The device may also be positioned in other different ways (rotated 90 degrees or in other orientations), and the spatial relative descriptions used herein will be interpreted accordingly.

[0089] Furthermore, it should be noted that the use of terms such as "first" and "second" to define components is merely for the purpose of distinguishing the corresponding components. Unless otherwise stated, the above terms have no special meaning and therefore cannot be construed as limiting the scope of protection of this application.

[0090] The above description is merely a preferred embodiment of the present invention and is not intended to limit the invention. Various modifications and variations can be made to the present invention by those skilled in the art. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the scope of protection of the present invention.

Claims

1. A power load-side resource optimization scheduling device, characterized in that, include: The fixing seat (1) has a fixing groove (3); The movable box (4) has a control box installed inside it, and the movable box (4) is movably installed in the fixed slot (3); Movable seat (9), which is movably mounted on top of fixed seat (1); The display mechanism (10) is rotatably mounted on the inside of the movable base (9) to adjust the tilt angle of the display mechanism (10); The control component (12) is movably mounted on the top of the movable box (4). The bottom of the display mechanism (10) is limited to the control component (12). When the display mechanism (10) is rotated to a non-limited state with the control component (12), the display mechanism (10) is moved from the first side of the control component (12) to the second side of the control component (12) by moving the movable seat (9) and the control component (12) in opposite directions respectively. This makes the display mechanism (10) the operation interface located in front of the control component (12), so as to avoid accidental contact with the control component (12) when operating the operation interface of the display mechanism (10).

2. The power load-side resource optimization scheduling device according to claim 1, characterized in that, The display mechanism (10) includes a fixed post (15) and a torsion spring (16). The torsion spring (16) is sleeved on the fixed post (15). The inner wall of the movable seat (9) is provided with a mounting hole. The fixed post (15) is rotatably installed in the mounting hole through the torsion spring (16).

3. The power load-side resource optimization scheduling device according to claim 1, characterized in that, The top of the movable box (4) is provided with an opening (18), and a movable plate (20) is movably installed inside the opening (18). The control component (12) is installed on the movable plate (20). A slot (19) is provided on the inner wall of the opening (18). A support mechanism (24) is installed in the slot (19). A limit block is provided on the side of the movable plate (20). The limit block is movably installed in the slot (19) and connected to the support mechanism (24). At least a part of the support mechanism (24) is a telescopic mechanism that can extend and retract along the extension direction of the slot (19) to provide a pushing force for the movable plate (20) and the control component (12) to move towards the inside of the opening (18).

4. The power load-side resource optimization scheduling device according to claim 3, characterized in that, The support mechanism (24) includes at least one elastic component, one end of which is fixed to the inside of the slot (19), and the other end of which is connected to the limiting block of the movable plate (20). When the control component (12) and the display mechanism (10) are in a non-limited state, the elastic component provides a pushing force to the movable plate (20) to move towards the inside of the opening (18), so that the relative position of the control component (12) and the display mechanism (10) remains unchanged.

5. The power load-side resource optimization scheduling device according to claim 1, characterized in that, The power load side resource optimization scheduling device also includes a limiting mechanism (11), which is installed in the movable seat (9). At least part of the position of the limiting mechanism (11) is adjustable to limit or avoid the display mechanism (10).

6. The power load-side resource optimization scheduling device according to claim 5, characterized in that, The limiting mechanism (11) includes a return spring (27) and a retaining bead (28). The movable seat (9) is provided with a groove (26). The return spring (27) is installed in the groove (26). The retaining bead (28) is located at the free end of the return spring (27) so as to limit the display mechanism (10) through the retaining bead (28). When the display mechanism (10) presses the retaining bead (28), the retaining bead (28) moves toward the inside of the groove (26) to avoid the display mechanism (10).

7. The power load-side resource optimization scheduling device according to claim 6, characterized in that, There are multiple limiting mechanisms (11), and the multiple limiting mechanisms (11) are arranged sequentially at intervals along the moving direction of the movable seat (9).

8. The power load-side resource optimization scheduling device according to any one of claims 1 to 7, characterized in that, The power load side resource optimization scheduling device also includes a heat dissipation component (2), which is fixed to the side of the fixed base (1). The inner wall of the fixed groove (3) is provided with an installation groove (13), and the outer wall of the movable box (4) is provided with a connecting box (14) communicating with its cavity. The connecting box (14) is movably installed in the installation groove (13) and communicates with the installation groove (13). The heat dissipation component (2) is arranged opposite to the installation groove (13) so that the heat dissipated from the movable box (4) into the installation groove (13) is discharged through the installation groove (13).

9. The power load-side resource optimization scheduling device according to claim 8, characterized in that, The heat dissipation component (2) includes a heat dissipation fan, and the movable box (4) is provided with an air inlet (5) so that the airflow enters the movable box (4) through the air inlet (5) and is discharged through the connecting box (14) by the driving action of the heat dissipation fan.

10. The power load-side resource optimization scheduling device according to any one of claims 1 to 7, characterized in that, The movable box (4) is vertically adjustable. The bottom of the movable box (4) is provided with an exhaust port and an exhaust fan is provided at the exhaust port. An air inlet (5) is provided on the side wall of the movable box (4) so ​​that when the movable box (4) moves upward to the predetermined heat dissipation position, air is exhausted through the exhaust port.

11. The power load-side resource optimization scheduling device according to claim 10, characterized in that, The movable box (4) is also provided with a handle (6), which is installed on the side wall of the movable box (4) to provide a gripping point when the position of the movable box (4) needs to be adjusted.

12. The power load-side resource optimization scheduling device according to any one of claims 1 to 7, characterized in that, The control component (12) includes a control base (21), a switch (22) and a baffle (23). The switch (22) and the baffle (23) are both disposed on the upper surface of the control base (21). The top of the baffle (23) protrudes from the top of the switch (22) so that when the control base (21) moves to the rear side of the display mechanism (10), the switch (22) is blocked by the display mechanism (10).

13. The power load-side resource optimization scheduling device according to any one of claims 1 to 7, characterized in that, The top of the fixed seat (1) is provided with a slide groove (7), and the bottom of the movable seat (9) is provided with a slider (8). The slider (8) is slidably disposed in the slide groove (7) along the extension direction of the slide groove (7).

14. The power load-side resource optimization scheduling device according to claim 12, characterized in that, The control assembly (12) also includes a sealing seat (25) for protecting the switch (22), the sealing seat (25) being installed on the inner wall of the opening (18) and cooperating with the control seat (21) and the movable plate (20).

Images