A portable KVM controlled intelligent battery management platform and method

Abstract

The present invention provides a portable KVM control intelligent battery management platform and method, which adopts a built-in battery continuous power supply module, and performs uninterrupted continuous power supply and multi-form charging and replenishment during the operation of the KVM controller through the KVM built-in battery and a multi-form charging group; a 4K resolution switching support module, which sets a 4K pixel display resolution support window; high-speed data input and output through a composite expandable input and output interface; device conversion control is performed by combining program-controlled virtual switching with physical switching hot keys; a battery intelligent management module, which automatically monitors the KVM built-in battery power and the charging process, and performs intelligent distribution of the built-in battery and the charging power; a service cabinet cluster line control module, which performs service cabinet cluster local KVM control and service cabinet cluster IP remote KVM control through local KVM control and IP remote KVM control.

Description

Technical Field

[0001] The present invention relates to the technical field of system integrated energy utilization intelligent control, and more specifically, to a portable KVM controlled intelligent battery management platform and method. Background Art

[0002] It is very important to ensure that the KVM platform can be continuously powered and more portable during use. The existing KVM requires a power adapter for power supply, which is inconvenient to carry, and the power is taken from the computer room, the operating space is limited, clustered energy is wasted, and the screen resolution needs to be improved. It is more important to manage the battery and monitor and distribute the power of the KVM control platform. The following problems still exist: how to provide uninterrupted continuous power supply and multi-form charging during the operation of the KVM controller; how to improve display resolution support; how to increase the speed of input and output data and control device conversion; how to intelligently distribute power; how to perform multi-zone KVM control of service cabinets and other issues have yet to be resolved. Therefore, it is necessary to propose a portable KVM control intelligent battery management platform and method to at least partially solve the problems existing in the prior art. Summary of the invention

[0003] A series of simplified concepts are introduced in the content of the invention, which will be further described in detail in the specific implementation method section; the content of the invention of the present invention does not mean to attempt to limit the key features and essential technical features of the technical solution claimed for protection, nor does it mean to attempt to determine the scope of protection of the technical solution claimed for protection.

[0004] To at least partially solve the above problems, the present invention provides a portable KVM controlled intelligent battery management platform, comprising:

[0005] Built-in battery continuous power supply module, through the KVM built-in battery and multi-form energy replenishment charging group, provides uninterrupted continuous power supply and multi-form charging during the operation of the KVM controller;

[0006] 4K resolution switching support module, set 4K pixel display resolution support window; carry out high-speed data input and output through composite expandable input and output interface; combine program-controlled virtual switching with physical switching hotkeys to control device conversion;

[0007] The battery intelligent management module automatically monitors the KVM's built-in battery power and charging process, and intelligently distributes the built-in battery and charging power;

[0008] The service cabinet cluster wiring control module performs service cabinet cluster local KVM control and service cabinet cluster IP remote KVM control through local KVM control and IP remote KVM control.

[0009] Preferably, the built-in battery continuous power supply module includes:

[0010] KVM built-in battery submodule, set the KVM built-in battery to provide power supply during the operation of the KVM controller;

[0011] The built-in battery conversion charging submodule can charge the KVM built-in battery in multiple forms through the multi-form charging group. Preferably, the 4K resolution switching support module includes:

[0012] 4K resolution support submodule, set the KVM controller to control the 4K pixel display resolution support window in the control service cabinet cluster KVM control;

[0013] The composite integrated expansion interface submodule performs high-speed data input and output through a composite expandable input and output interface;

[0014] The program-controlled virtual hotkey combination submodule converts the KVM controller from controlling one device to controlling another device through program-controlled virtual switching combined with physical switching hotkeys;

[0015] The composite extensible input and output interface includes: a multi-channel input interface, a multi-channel output interface, a composite high-speed data interface and an extended high-speed data interface; the extended high-speed data interface is used to expand the multi-channel input interface, the multi-channel output interface and the composite high-speed data interface.

[0016] Preferably, the battery intelligent management module includes:

[0017] The charging start-stop control submodule controls the start-stop switching of the multi-form energy replenishment charging process of the KVM built-in battery;

[0018] The automatic power monitoring submodule automatically monitors the power of the KVM's built-in battery and the charging process;

[0019] The power intelligent allocation submodule intelligently allocates the power of the built-in battery and the charging process according to the KVM's built-in battery power and the charging process, thereby optimizing the battery usage efficiency.

[0020] Preferably, the service cabinet cluster line control module includes:

[0021] The service cabinet cluster wiring submodule connects the service cabinet cluster wiring harness through a composite scalable input and output interface to perform high-speed and high-bandwidth data transmission between the service cabinet cluster and the KVM controller;

[0022] The local cluster control submodule performs local KVM control of the service cabinet cluster through local KVM control;

[0023] The remote IP control submodule performs IP remote KVM control of the service cabinet cluster through IP remote KVM control.

[0024] The present invention provides a portable KVM controlled intelligent battery management method, comprising:

[0025] P100, through the KVM built-in battery and multi-mode energy replenishment charging group, provides uninterrupted continuous power supply and multi-mode charging during the operation of the KVM controller;

[0026] P200, set 4K pixel display resolution to support Windows; through the composite expandable input and output interface, high-speed data input and output; combine program-controlled virtual switching with physical switching hot keys to control device conversion;

[0027] P300 automatically monitors the KVM's built-in battery power and charging process, and intelligently distributes the built-in battery and charging power; P400 performs service cabinet cluster local KVM control and service cabinet cluster IP remote KVM control through local KVM control and IP remote KVM control.

[0028] Preferably, P100 comprises:

[0029] P101, set the KVM built-in battery to provide power supply during the operation of the KVM controller;

[0030] P102, through the multi-mode charging group, the KVM built-in battery is charged in multiple ways.

[0031] Preferably, P200 comprises:

[0032] P201, set the KVM controller to control the service cabinet cluster KVM control 4K pixel display resolution support window;

[0033] P202, through the composite expandable input and output interface, high-speed data input and output;

[0034] P203, which switches the KVM controller from controlling one device to another through programmable virtual switching combined with physical switching hotkeys;

[0035] The composite extensible input and output interface includes: a multi-channel input interface, a multi-channel output interface, a composite high-speed data interface and an extended high-speed data interface; the extended high-speed data interface is used to expand the multi-channel input interface, the multi-channel output interface and the composite high-speed data interface.

[0036] Preferably, P300 comprises:

[0037] P301, starts and stops the multi-mode charging process of the KVM built-in battery;

[0038] P302, automatically monitors the power level and charging process of the KVM's built-in battery; automatically monitors the power level and charging process of the KVM's built-in battery;

[0039] P303, intelligently distributes the built-in battery and charging power according to the KVM's built-in battery power and charging process, and optimizes battery usage efficiency.

[0040] Preferably, P400 comprises:

[0041] P401, connects to the server cabinet cluster wiring harness through a composite scalable input and output interface, and performs high-speed and high-bandwidth data transmission between the server cabinet cluster and the KVM controller;

[0042] P402, local KVM control of the server cabinet cluster via local KVM control;

[0043] P403, IP remote KVM control of service cabinet cluster via IP remote KVM control.

[0044] Compared with the prior art, the present invention has at least the following beneficial effects:

[0045] The present invention discloses a portable KVM control intelligent battery management platform, which adopts a built-in battery continuous power supply module, and provides uninterrupted continuous power supply and multi-form charging and replenishment through the KVM built-in battery and multi-form charging and replenishment group during the operation of the KVM controller; a 4K resolution switching support module, which sets a 4K pixel display resolution support window; a composite and expandable input and output interface for high-speed data input and output; a combination of program-controlled virtual switching and physical switching hot keys for device conversion control; a battery intelligent management module, which automatically monitors the KVM built-in battery power and the charging and replenishment process, and performs intelligent distribution of the built-in battery and the charging and replenishment power; a service cabinet cluster line control module, which performs service cabinet cluster local KVM through local KVM control and IP remote KVM control Control and service cabinet cluster IP remote KVM control; capable of continuous power supply from the built-in battery, and through the multi-form energy replenishment charging group, uninterrupted continuous power supply and multi-form charging and replenishment during the operation of the KVM controller; capable of 4K pixel display resolution support windows; composite expandable input and output interface significantly improves the high-speed data input and output speed; capable of combining program-controlled virtual switching with physical switching hot keys to improve equipment conversion control efficiency; capable of intelligent battery management, automatic monitoring of the KVM built-in battery power and energy replenishment charging process, significantly improving the energy utilization rate of the built-in battery and energy replenishment charging power distribution; capable of local KVM control of service cabinet clusters and IP remote KVM control of service cabinet clusters, greatly improving the scale of KVM control and control stability.

[0046] The portable KVM controlled intelligent battery management platform and method described in the present invention, other advantages, objectives and features of the present invention will be reflected in part through the following description, and in part will be understood by technical personnel in the field through research and practice of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0047] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0048] Figure 1 This is a diagram of an embodiment of a portable KVM-controlled intelligent battery management platform described in the present invention.

[0049] Figure 2 This is another embodiment diagram of a portable KVM-controlled intelligent battery management platform described in the present invention.

[0050] Figure 3 This is a diagram of an embodiment of a portable KVM controlled intelligent battery management method described in the present invention. DETAILED DESCRIPTION

[0051] The present invention will be further described in detail below with reference to the accompanying drawings and embodiments so that those skilled in the art can implement the invention according to the instructions. Figure 1-Figure 3 As shown, the present invention provides a portable KVM controlled intelligent battery management platform, comprising:

[0052] Built-in battery continuous power supply module, through the KVM built-in battery and multi-form energy replenishment charging group, provides uninterrupted continuous power supply and multi-form charging during the operation of the KVM controller;

[0053] 4K resolution switching support module, set 4K pixel display resolution support window; carry out high-speed data input and output through composite expandable input and output interface; combine program-controlled virtual switching with physical switching hotkeys to control device conversion;

[0054] The battery intelligent management module automatically monitors the KVM's built-in battery power and charging process, and intelligently distributes the built-in battery and charging power;

[0055] The service cabinet cluster wiring control module performs service cabinet cluster local KVM control and service cabinet cluster IP remote KVM control through local KVM control and IP remote KVM control.

[0056] The principle and effect of the above technical solution are as follows: the present invention provides a portable KVM control intelligent battery management platform, including: a built-in battery continuous power supply module, which provides uninterrupted continuous power supply and multi-form charging and energy replenishment during the operation of the KVM controller through the KVM built-in battery and multi-form charging and energy replenishment group; a 4K resolution switching support module, which sets a 4K pixel display resolution support window; high-speed data input and output through a composite expandable input and output interface; combining program-controlled virtual switching with physical switching hot keys to perform device conversion control; a battery intelligent management module, which automatically monitors the KVM built-in battery power and energy replenishment charging process, and intelligently distributes the built-in battery and energy replenishment charging power; a service cabinet cluster wiring control module, which controls services through local KVM control and IP remote KVM control Local KVM control of service cabinet cluster and IP remote KVM control of service cabinet cluster; capable of continuous power supply from the built-in battery, and through the multi-form energy replenishment charging group, uninterrupted continuous power supply and multi-form charging and energy replenishment during the operation of the KVM controller; capable of 4K pixel display resolution supporting windows; composite and expandable input and output interfaces significantly improve the high-speed input and output speed of data; capable of combining program-controlled virtual switching with physical switching hot keys to improve the efficiency of equipment conversion control; capable of intelligent battery management, automatic monitoring of the KVM built-in battery power and energy replenishment charging process, and significantly improving the energy utilization rate of the built-in battery and energy replenishment charging power distribution; capable of local KVM control of service cabinet cluster and IP remote KVM control of service cabinet cluster, greatly improving the scale of KVM control and control stability.

[0057] In one embodiment, the built-in battery continuous power supply module includes:

[0058] KVM built-in battery submodule, set the KVM built-in battery to provide power supply during the operation of the KVM controller;

[0059] The built-in battery energy conversion charging sub-module can charge and recharge the KVM's built-in battery in multiple ways through a multi-mode energy recharge charging group.

[0060] The principle and effect of the above technical solution are as follows: the built-in battery continuous power supply module includes: a KVM built-in battery sub-module, which is equipped with a KVM built-in battery to provide power supply for the KVM controller operation process; a built-in battery energy conversion charging sub-module, which performs multi-form charging and energy replenishment on the KVM built-in battery through a multi-form energy replenishment charging group; the multi-form energy replenishment charging group includes: a service cabinet cluster thermoelectric unit, a high-definition display thermal regeneration unit, a keyboard conversion unit, a mouse control unit and a battery adapter energy replenishment charging unit; the service cabinet cluster thermoelectric unit sets the heat dissipation fan outlet of the service cabinet cluster with a hot air regeneration power generation group to perform hot air regeneration power generation; and the hot air regeneration power generation is transmitted through the local power supply It can be transmitted to the uninterruptible power supply energy storage end of the KVM built-in battery to perform thermoelectric power generation and energy storage for the service cabinet cluster; the high-definition display thermal regeneration unit collects and controls the dissipated heat energy of the 4K high-definition display for thermal regeneration, and after the thermal regeneration collection, it is transmitted to the KVM built-in battery temperature control unit through the proximal heat transmission pipeline; the KVM built-in battery temperature control unit controls when the ambient temperature is lower than the suitable working temperature of the KVM built-in battery, and uses the dissipated heat energy collected by thermal regeneration to compensate and increase the micro-environment temperature to the suitable working temperature of the KVM built-in battery; in cold winter environments and low-temperature environments, the battery energy storage efficiency is greatly reduced, and the present invention can significantly improve the energy storage efficiency of the battery in cold and low-temperature environments.

[0061] In one embodiment, the 4K resolution switching support module includes:

[0062] 4K resolution support submodule, set the KVM controller to control the 4K pixel display resolution support window in the control service cabinet cluster KVM control;

[0063] The composite integrated expansion interface submodule performs high-speed data input and output through a composite expandable input and output interface;

[0064] The program-controlled virtual hotkey combination submodule converts the KVM controller from controlling one device to controlling another device through program-controlled virtual switching combined with physical switching hotkeys;

[0065] The composite extensible input and output interface includes: a multi-channel input interface, a multi-channel output interface, a composite high-speed data interface and an extended high-speed data interface; the extended high-speed data interface is used to expand the multi-channel input interface, the multi-channel output interface and the composite high-speed data interface.

[0066] The principles and effects of the above technical solution are as follows: the 4K resolution switching support module includes: a 4K resolution support sub-module, which sets the KVM controller to control the 4K pixel display resolution support window in the control service cabinet cluster KVM control; a composite integrated extension interface sub-module, which performs high-speed data input and output through a composite extensible input and output interface; a programmable virtual hotkey combination sub-module, which converts the KVM controller from controlling one device to controlling another device through programmable virtual switching and combining with the physical switching hotkey; the composite extensible input and output interface includes: a multi-channel input interface, a multi-channel output interface, a composite high-speed data interface and an extended high-speed data interface; the extended high-speed data interface is used to expand the multi-channel input interface, the multi-channel output interface and the composite high-speed data interface.

[0067] In one embodiment, the battery intelligent management module includes:

[0068] The charging start-stop control submodule controls the start-stop switching of the multi-form energy replenishment charging process of the KVM built-in battery;

[0069] The automatic power monitoring submodule automatically monitors the power of the KVM's built-in battery and the charging process;

[0070] The power intelligent allocation submodule intelligently allocates the power of the built-in battery and the charging process according to the KVM's built-in battery power and the charging process, thereby optimizing the battery usage efficiency.

[0071] The principle and effect of the above technical solution are as follows: the battery intelligent management module includes: a charging start-stop control submodule, which performs start-stop switching control on the multi-form energy replenishment charging process of the KVM built-in battery; an automatic power monitoring submodule, which automatically monitors the power of the KVM built-in battery and the energy replenishment charging process; an intelligent power allocation submodule, which intelligently allocates the power of the built-in battery and the energy replenishment charging process according to the power of the KVM built-in battery and the energy replenishment charging process; and optimizes the battery use efficiency;

[0072] According to the power of the KVM built-in battery and the energy replenishment charging process, the power of the built-in battery and the energy replenishment charging are intelligently allocated; the optimization of battery use efficiency includes: according to the power of the KVM built-in battery and the energy replenishment charging process, analyzing and determining the KVM built-in battery power monitoring information; when the power of the KVM built-in battery is higher than the set battery safety power; the first charging surplus power of the KVM built-in battery that is higher than the set battery safety power is introduced into the surplus power storage capacitor through the first charging transmission line; analyzing and determining the multi-form energy replenishment charging power of the energy replenishment charging process; when the multi-form energy replenishment charging power of the energy replenishment charging process reaches the set battery safety power, the second energy replenishment surplus power of the multi-form energy replenishment charging power of the energy replenishment charging process is introduced into the surplus power storage capacitor through the second energy replenishment transmission line; until the surplus power storage capacitor is full; when the power of the KVM built-in battery is not higher than the set battery safety power, first allocate multi-form energy replenishment charging to replenish the KVM built-in battery; when the multi-form energy replenishment charging power cannot reach the set battery safety power, start the surplus power storage capacitor to release electric energy to the KVM built-in battery; and intelligently allocate the built-in battery and energy replenishment charging power.

[0073] In one embodiment, the service cabinet cluster line control module includes:

[0074] The service cabinet cluster wiring submodule connects the service cabinet cluster wiring harness through a composite scalable input and output interface to perform high-speed and high-bandwidth data transmission between the service cabinet cluster and the KVM controller;

[0075] The local cluster control submodule performs local KVM control of the service cabinet cluster through local KVM control;

[0076] The remote IP control submodule performs IP remote KVM control of the service cabinet cluster through IP remote KVM control.

[0077] The principle and effect of the above technical solution are as follows: the service cabinet cluster wiring control module includes: a service cabinet cluster wiring sub-module, which connects the service cabinet cluster wiring harness through a composite expandable input and output interface to perform high-speed and high-bandwidth data transmission between the service cabinet cluster and the KVM controller; a local cluster control sub-module, which performs service cabinet cluster local KVM control through local KVM control; a remote IP control sub-module, which performs service cabinet cluster IP remote KVM control through IP remote KVM control; performing service cabinet cluster IP remote KVM control through IP remote KVM control includes: interconnecting the service cabinet cluster IP and the local KVM control IP through a remote transmission network and a wireless mobile network respectively through remote wired communication protocol and remote wireless communication connection; monitoring the remote wired communication protocol interconnection and remote wireless communication connection status, monitoring and comparing the remote wired communication protocol interconnection data transmission stability and the remote wireless communication connection data transmission stability, as well as the wired communication protocol interconnection IP remote KVM control node and the remote wireless communication connection IP remote KVM control Node; according to the comparison results of the data transmission stability of the remote wired communication protocol interconnection and the data transmission stability of the remote wireless communication connection, when the data transmission stability of the wired communication protocol interconnection is higher than the data transmission stability of the remote wireless communication connection, and the number of wired communication protocol interconnection IP remote KVM control nodes is less than the remote wireless communication connection IP remote KVM control nodes, the remote wired communication protocol interconnection data transmission control is automatically selected; when the data transmission stability of the wired communication protocol interconnection is higher than the data transmission stability of the remote wireless communication connection, and the number of wired communication protocol interconnection IP remote KVM control nodes is not less than the remote wireless communication connection IP remote KVM control nodes, the remote wireless communication connection IP remote KVM control nodes are automatically increased; when the data transmission stability of the wired communication protocol interconnection is not higher than the data transmission stability of the remote wireless communication connection, the remote wireless communication connection data transmission control is automatically selected; significantly improve the IP remote KVM control stability and data transmission control scale of the service cabinet cluster, and at the same time significantly improve the local KVM control coordination efficiency of the service cabinet cluster.

[0078] The present invention provides a portable KVM controlled intelligent battery management method, comprising:

[0079] P100, through the KVM built-in battery and multi-mode energy replenishment charging group, provides uninterrupted continuous power supply and multi-mode charging during the operation of the KVM controller;

[0080] P200, set 4K pixel display resolution to support Windows; through the composite expandable input and output interface, high-speed data input and output; combine program-controlled virtual switching with physical switching hot keys to control device conversion;

[0081] P300 automatically monitors the KVM's built-in battery power and charging process, and intelligently distributes the built-in battery and charging power; P400 performs service cabinet cluster local KVM control and service cabinet cluster IP remote KVM control through local KVM control and IP remote KVM control.

[0082] The principle and effect of the above technical solution are as follows: The present invention provides a portable KVM control intelligent battery management method, including: through the KVM built-in battery and multi-form energy replenishment charging group, uninterrupted continuous power supply and multi-form charging and energy replenishment are carried out during the operation of the KVM controller; 4K pixel display resolution is set to support windows; high-speed data input and output are carried out through a composite expandable input and output interface; program-controlled virtual switching is combined with physical switching hot keys to perform device conversion control; automatically monitor the KVM built-in battery power and energy replenishment charging process, and intelligently distribute the built-in battery and energy replenishment charging power; local KVM control of service cabinet cluster and IP remote KVM control of service cabinet cluster are carried out through local KVM control and IP remote KVM control VM control; capable of continuous power supply from the built-in battery, and through the multi-form energy replenishment charging group, uninterrupted continuous power supply and multi-form charging and replenishment during the operation of the KVM controller; capable of 4K pixel display resolution support windows; the composite expandable input and output interface significantly improves the high-speed data input and output speed; capable of combining program-controlled virtual switching with physical switching hot keys to improve equipment conversion control efficiency; capable of intelligent battery management, automatic monitoring of the KVM built-in battery power and energy replenishment charging process, significantly improving the energy utilization rate of the built-in battery and energy replenishment charging power distribution; capable of local KVM control of service cabinet clusters and IP remote KVM control of service cabinet clusters, greatly improving the scale of KVM control and control stability.

[0083] In one embodiment, P100 includes:

[0084] P101, set the KVM built-in battery to provide power supply during the operation of the KVM controller;

[0085] P102, through the multi-mode charging group, the KVM built-in battery is charged in multiple ways.

[0086] The principle and effect of the above technical solution are as follows: a built-in battery is set up in the KVM to provide power supply for the operation process of the KVM controller; the built-in battery of the KVM is charged and recharged in multiple forms through a multi-form energy replenishment charging group; the multi-form energy replenishment charging group includes: a service cabinet cluster thermoelectric unit, a high-definition display thermal regeneration unit, a keyboard conversion unit, a mouse control unit and a battery adapter energy replenishment charging unit; the service cabinet cluster thermoelectric unit sets a hot air regeneration power generation group at the heat dissipation fan outlet of the service cabinet cluster to perform hot air regeneration power generation; and transmits the hot air regeneration power generation to the uninterruptible power supply storage of the built-in battery of the KVM through local power. At the energy end, the service cabinet cluster is used for thermoelectric power generation and energy storage; the high-definition display heat regeneration unit collects and controls the lost heat energy of the 4K high-definition display for heat regeneration, and the heat regeneration collection is transmitted to the KVM built-in battery temperature control unit through the proximal heat transmission pipeline; the KVM built-in battery temperature control unit controls when the ambient temperature is lower than the suitable working temperature of the KVM built-in battery, and uses the lost heat energy collected by heat regeneration to compensate and increase the micro-environment temperature to the suitable working temperature of the KVM built-in battery; in the cold environment in winter and in the low temperature environment, the battery energy storage efficiency is greatly reduced, and the present invention can significantly improve the energy storage efficiency of the battery in the cold and low temperature environment.

[0087] In one embodiment, P200 includes:

[0088] P201, set the KVM controller to control the service cabinet cluster KVM control 4K pixel display resolution support window;

[0089] P202, through the composite expandable input and output interface, high-speed data input and output;

[0090] P203, which switches the KVM controller from controlling one device to another through programmable virtual switching combined with physical switching hotkeys;

[0091] The composite extensible input and output interface includes: a multi-channel input interface, a multi-channel output interface, a composite high-speed data interface and an extended high-speed data interface; the extended high-speed data interface is used to expand the multi-channel input interface, the multi-channel output interface and the composite high-speed data interface.

[0092] The principle and effect of the above technical solution are: setting the KVM controller to control the service cabinet cluster KVM to control 4K pixel display resolution to support windows; performing high-speed data input and output through a composite extensible input and output interface; switching the KVM controller from controlling one device to controlling another device through program-controlled virtual switching combined with physical switching hot keys; the composite extensible input and output interface includes: a multi-channel input interface, a multi-channel output interface, a composite high-speed data interface and an extended high-speed data interface; the extended high-speed data interface is used to expand the multi-channel input interface, the multi-channel output interface and the composite high-speed data interface.

[0093] In one embodiment, P300 includes:

[0094] P301, starts and stops the multi-mode charging process of the KVM built-in battery;

[0095] P302, automatically monitors the power level and charging process of the KVM's built-in battery; automatically monitors the power level and charging process of the KVM's built-in battery;

[0096] P303, intelligently distributes the built-in battery and charging power according to the KVM's built-in battery power and charging process, and optimizes battery usage efficiency.

[0097] The principle and effect of the above technical solution are: start-stop switching control of the multi-form energy replenishment charging process of the KVM built-in battery; automatic monitoring of the power of the KVM built-in battery and the energy replenishment charging process; intelligent allocation of the built-in battery and energy replenishment charging power according to the KVM built-in battery power and the energy replenishment charging process; optimization of battery use efficiency;

[0098] According to the power of the KVM built-in battery and the energy replenishment charging process, the power of the built-in battery and the energy replenishment charging are intelligently allocated; the optimization of battery use efficiency includes: according to the power of the KVM built-in battery and the energy replenishment charging process, analyzing and determining the KVM built-in battery power monitoring information; when the power of the KVM built-in battery is higher than the set battery safety power; the first charging surplus power of the KVM built-in battery that is higher than the set battery safety power is introduced into the surplus power storage capacitor through the first charging transmission line; analyzing and determining the multi-form energy replenishment charging power of the energy replenishment charging process; when the multi-form energy replenishment charging power of the energy replenishment charging process reaches the set battery safety power, the second energy replenishment surplus power of the multi-form energy replenishment charging power of the energy replenishment charging process is introduced into the surplus power storage capacitor through the second energy replenishment transmission line; until the surplus power storage capacitor is full; when the power of the KVM built-in battery is not higher than the set battery safety power, first allocate multi-form energy replenishment charging to replenish the KVM built-in battery; when the multi-form energy replenishment charging power cannot reach the set battery safety power, start the surplus power storage capacitor to release electric energy to the KVM built-in battery; and intelligently allocate the built-in battery and energy replenishment charging power.

[0099] In one embodiment, P400 includes:

[0100] P401, connects to the server cabinet cluster wiring harness through a composite scalable input and output interface, and performs high-speed and high-bandwidth data transmission between the server cabinet cluster and the KVM controller;

[0101] P402, local KVM control of the server cabinet cluster via local KVM control;

[0102] P403, IP remote KVM control of service cabinet cluster via IP remote KVM control.

[0103] The principle and effect of the above technical solution are: connecting the service cabinet cluster wiring harness through a composite expandable input and output interface to perform high-speed and high-bandwidth data transmission between the service cabinet cluster and the KVM controller; performing local KVM control of the service cabinet cluster through local KVM control; performing IP remote KVM control of the service cabinet cluster through IP remote KVM control; performing IP remote KVM control of the service cabinet cluster through IP remote KVM control includes: interconnecting the service cabinet cluster IP and the local KVM control IP through a remote transmission network and a wireless mobile network through a remote wired communication protocol and a remote wireless communication connection respectively; monitoring the connection status of the remote wired communication protocol interconnection and the remote wireless communication connection, monitoring and comparing the data transmission stability of the remote wired communication protocol interconnection and the data transmission stability of the remote wireless communication connection, as well as the IP remote KVM control node interconnected by the wired communication protocol and the IP remote KVM control node connected by the remote wireless communication; according to the data transmission stability and The comparison results of the data transmission stability of the remote wireless communication connection are as follows: when the data transmission stability of the wired communication protocol interconnection is higher than that of the remote wireless communication connection, and the number of wired communication protocol interconnection IP remote KVM control nodes is less than the number of remote wireless communication connection IP remote KVM control nodes, the remote wired communication protocol interconnection data transmission control is automatically selected; when the data transmission stability of the wired communication protocol interconnection is higher than that of the remote wireless communication connection, and the number of wired communication protocol interconnection IP remote KVM control nodes is not less than the number of remote wireless communication connection IP remote KVM control nodes, the remote wireless communication connection IP remote KVM control nodes are automatically increased; when the data transmission stability of the wired communication protocol interconnection is not higher than that of the remote wireless communication connection, the remote wireless communication connection data transmission control is automatically selected; the control stability and data transmission control scale of the IP remote KVM control of the service cabinet cluster are significantly improved, and at the same time, the collaborative efficiency of the local KVM control of the service cabinet cluster is significantly improved.

[0104] Although the embodiments of the present invention have been disclosed as above, they are not limited to the applications listed in the specification and the implementation modes, and they can be fully applied to various fields suitable for the present invention. For those familiar with the art, additional modifications can be easily implemented. Therefore, without departing from the general concept defined by the claims and the scope of equivalents, the present invention is not limited to the specific details and the illustrations shown and described herein.

Claims

1. A portable KVM controlled intelligent battery management platform, characterized in that: include: Built-in battery continuous power supply module, through the KVM built-in battery and multi-form energy replenishment charging group, provides uninterrupted continuous power supply and multi-form charging during the operation of the KVM controller; 4K resolution switching support module, set 4K pixel display resolution support window; through the composite expandable input and output interface, high-speed data input and output; combine program-controlled virtual switching with physical switching hot keys to control device conversion; The battery intelligent management module automatically monitors the KVM's built-in battery power and charging process, and intelligently distributes the built-in battery and charging power; The service cabinet cluster wiring control module performs local KVM control of the service cabinet cluster and IP remote KVM control of the service cabinet cluster through local KVM control and IP remote KVM control; Built-in battery continuous power supply module includes: KVM built-in battery submodule, set the KVM built-in battery to provide power supply during the operation of the KVM controller; Built-in battery energy conversion charging submodule, through the multi-mode energy charging group, the KVM built-in battery is charged in multiple forms; The multi-form energy replenishment and charging group includes: a service cabinet cluster thermoelectric unit, a high-definition display thermal regeneration unit, a keyboard conversion unit, a mouse control unit and a battery adapter energy replenishment and charging unit; the service cabinet cluster thermoelectric unit sets a hot air regeneration power generation group at the heat dissipation fan outlet of the service cabinet cluster to perform hot air regeneration power generation; and transmits the hot air regeneration power generation to the uninterruptible power supply energy storage end of the KVM built-in battery through local power to perform service cabinet cluster thermoelectric power generation energy storage; the high-definition display thermal regeneration unit collects and controls the lost heat energy of the 4K high-definition display for thermal regeneration, and after the heat regeneration is collected, it is transmitted to the KVM built-in battery temperature control unit through the proximal heat transmission pipeline; the KVM built-in battery temperature control unit controls when the ambient temperature is lower than the suitable working temperature of the KVM built-in battery, and uses the lost heat energy collected by thermal regeneration to compensate and increase the micro-environment temperature to the suitable working temperature of the KVM built-in battery.

2. A portable KVM controlled intelligent battery management platform according to claim 1, characterized in that: 4K resolution switching support modules include: 4K resolution support submodule, set KVM controller to control service cabinet cluster KVM control 4K pixel display resolution support window; The composite integrated expansion interface submodule performs high-speed data input and output through a composite expandable input and output interface; The program-controlled virtual hotkey combination submodule converts the KVM controller from controlling one device to controlling another device through program-controlled virtual switching combined with physical switching hotkeys; The composite extensible input and output interface includes: a multi-channel input interface, a multi-channel output interface, a composite high-speed data interface and an extended high-speed data interface; the extended high-speed data interface is used to expand the multi-channel input interface, the multi-channel output interface and the composite high-speed data interface.

3. A portable KVM controlled intelligent battery management platform according to claim 1, characterized in that: The battery intelligent management module includes: The charging start-stop control submodule controls the start-stop switching of the multi-form energy replenishment charging process of the KVM built-in battery; The automatic power monitoring submodule automatically monitors the power of the KVM's built-in battery and the charging process; The power intelligent allocation submodule intelligently allocates the power of the built-in battery and the charging process according to the KVM's built-in battery power and the charging process, thereby optimizing the battery usage efficiency.

4. A portable KVM controlled intelligent battery management platform according to claim 1, characterized in that: The service cabinet cluster wiring control module includes: The service cabinet cluster wiring submodule connects the service cabinet cluster wiring harness through a composite scalable input and output interface to perform high-speed and high-bandwidth data transmission between the service cabinet cluster and the KVM controller; The local cluster control submodule performs local KVM control of the service cabinet cluster through local KVM control; The remote IP control submodule performs IP remote KVM control of the service cabinet cluster through IP remote KVM control.

5. A portable KVM controlled intelligent battery management method, characterized in that: include: Step 100, through the KVM built-in battery and the multi-mode energy replenishment charging group, uninterrupted continuous power supply and multi-mode charging and energy replenishment are provided during the operation of the KVM controller; Step 200, setting a 4K pixel display resolution support window; performing high-speed data input and output through a composite scalable input and output interface; combining program-controlled virtual switching with physical switching hot keys to perform device conversion control; Step 300, automatically monitoring the KVM built-in battery power and the energy replenishment charging process, and intelligently allocating the built-in battery and energy replenishment charging power; Step 400, performing local KVM control of the service cabinet cluster and IP remote KVM control of the service cabinet cluster through local KVM control and IP remote KVM control; Step 100 includes: Step 101, setting a built-in battery of the KVM to supply power during the operation of the KVM controller; Step 102, performing multi-mode charging and energy replenishment on the KVM built-in battery through a multi-mode energy replenishment charging group; The multi-form energy replenishment and charging group includes: a service cabinet cluster thermoelectric unit, a high-definition display thermal regeneration unit, a keyboard conversion unit, a mouse control unit and a battery adapter energy replenishment and charging unit; the service cabinet cluster thermoelectric unit sets a hot air regeneration power generation group at the heat dissipation fan outlet of the service cabinet cluster to perform hot air regeneration power generation; and transmits the hot air regeneration power generation to the uninterruptible power supply energy storage end of the KVM built-in battery through local power to perform service cabinet cluster thermoelectric power generation energy storage; the high-definition display thermal regeneration unit collects and controls the lost heat energy of the 4K high-definition display for thermal regeneration, and after the heat regeneration is collected, it is transmitted to the KVM built-in battery temperature control unit through the proximal heat transmission pipeline; the KVM built-in battery temperature control unit controls when the ambient temperature is lower than the suitable working temperature of the KVM built-in battery, and uses the lost heat energy collected by thermal regeneration to compensate and increase the micro-environment temperature to the suitable working temperature of the KVM built-in battery.

6. A portable KVM controlled intelligent battery management method according to claim 5, characterized in that: Step 200 includes: Step 201, setting a KVM controller to control a service cabinet cluster KVM to control a 4K pixel display resolution support window; Step 202, high-speed data input and output are performed through the composite extensible input and output interface; Step 203, switching the KVM controller from controlling one device to controlling another device through program-controlled virtual switching combined with a physical switching hotkey; The composite extensible input and output interface includes: a multi-channel input interface, a multi-channel output interface, a composite high-speed data interface and an extended high-speed data interface; the extended high-speed data interface is used to expand the multi-channel input interface, the multi-channel output interface and the composite high-speed data interface.

7. A portable KVM controlled intelligent battery management method according to claim 5, characterized in that: Step 300 includes: Step 301, start-stop switching control of the multi-mode energy replenishment charging process of the KVM built-in battery; Step 302, automatically monitoring the power level of the KVM's built-in battery and the charging process; automatically monitoring the power level of the KVM's built-in battery and the charging process; Step 303, based on the KVM built-in battery power and the energy replenishment charging process, intelligently distribute the built-in battery power and the energy replenishment charging power to optimize the battery usage efficiency.

8. The portable KVM controlled intelligent battery management method according to claim 5, characterized in that: Step 400 includes: Step 401, connecting the service cabinet cluster wiring harness through the composite scalable input and output interface to perform high-speed and high-bandwidth data transmission between the service cabinet cluster and the KVM controller; Step 402, performing local KVM control of the service cabinet cluster through local KVM control; Step 403: Perform IP remote KVM control of the service cabinet cluster through IP remote KVM control.

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