CN109269075B - Fixing device for air conditioner, air conditioner - Google Patents

Abstract

The embodiment of the invention discloses a fixing device for an air conditioner, and belongs to the technical field of intelligent household appliances. The device comprises: the device comprises a sliding guide groove, a sliding guide rail, a self-locking structure and a pin; the sliding guide rail is limited in the sliding guide groove to slide, the sliding guide groove is fixedly connected with the guide groove connecting frame, a framework is arranged on the sliding guide rail, and the framework is used for fixedly connecting an air conditioner; the self-locking structure is arranged between the sliding guide groove and the sliding guide rail and can lock the position of the sliding guide rail relative to the sliding guide groove; the side wall of the sliding guide groove is provided with a pin hole a, the side wall of the sliding guide rail is provided with a pin hole b, and the positions between the sliding guide groove and the sliding guide rail can be limited in the pin hole a and the pin hole b. By adopting the embodiment, the difficult problem in the using process of the air conditioner can be solved, and the air conditioner is more convenient and quick to install and use. The embodiment of the invention also discloses an air conditioner.

Description

Fixing device for air conditioner, air conditioner

technical field

The invention relates to the technical field of smart home appliances, in particular to a fixing device for an air conditioner and an air conditioner.

Background technique

At this stage, people's living conditions are getting better and better, and more and more families will choose to install air conditioners to improve the indoor environment, and the air conditioners at this stage are generally divided into hanging air conditioners and vertical air conditioners. The air conditioner has a relatively large power and uses a lot of space, so in most cases people will choose to install a hanging air conditioner.

But at this stage, when installing the hanging air conditioner, most of them are fixed on the wall and cannot be moved up and down. It reduces the operability of the user in different modes of the air conditioner. When the user needs to clean the air conditioner and disassemble the dust filter and other parts, he needs to step on a high object to complete the operation, which increases the difficulty and danger of the user's operation. At the same time, when the user needs to When adjusting the installation height of the air conditioner, it is often necessary to drill holes again, causing damage to the wall, and it is very troublesome to operate.

Contents of the invention

An embodiment of the present invention provides a fixing device for an air conditioner, which can drive the air conditioner to be adjusted up and down according to the needs of users, and adjust the height of the air conditioner. In order to provide a basic understanding of some aspects of the disclosed embodiments, a brief summary is presented below. This summary is not an overview, nor is it intended to identify key/critical elements or delineate the scope of these embodiments. Its sole purpose is to present some concepts in a simplified form as a prelude to the more detailed description that is presented later.

According to a first aspect of embodiments of the present invention, a fixing device for an air conditioner is provided.

In some optional embodiments, the fixing device for the air conditioner includes: a sliding guide groove, a sliding guide rail, a transmission structure and a self-locking structure; the sliding guide rail is limited to slide in the sliding guide groove, and the sliding guide rail The groove is fixedly connected with the guide groove connecting frame, and the sliding guide rail is provided with a skeleton, which is used for fixedly connecting the air conditioner; the transmission structure is arranged between the sliding guide groove and the sliding guide rail, and can drive the sliding guide rail to Sliding in the groove; the self-locking structure is arranged between the sliding guide groove and the sliding guide rail, and can lock the position between the sliding guide groove and the sliding guide rail.

With this optional embodiment, the air conditioner can be lifted up and down by controlling the transmission structure to drive the sliding guide rail to slide on the sliding guide groove, so that when the user needs to clean the air conditioner or adjust the air volume and direction of the air conditioner, It is more convenient to use, can prevent users from climbing and operate, and increases safety.

Optionally, the self-locking structure includes a self-locking plate, self-locking teeth and a self-locking jacking structure, the self-locking plate is a metal plate as a whole, a sawtooth structure is provided on the self-locking plate, and the self-locking The teeth are arranged on the sliding guide groove, and the two cooperate to realize the self-locking of downward movement. The jacking structure of the self-locking plate includes a self-locking motor and a jacking rod, and the self-locking motor is fixedly installed on the sliding guide rail. The jacking rod is obliquely directed to the self-locking plate. With this optional embodiment, after the adjustment of the air conditioner is completed, the relative position between the sliding guide rail and the sliding guide groove can be locked through the cooperation of the self-locking plate and the self-locking tooth, so as to prevent the air conditioner from lacking support after the lifting is stopped. Slide down, use the self-locking structure to replace the self-locking function of the motor itself, the performance is better, the use is more convenient, and the later maintenance is also more convenient.

Optionally, the transmission structure includes a gear, a rack and a transmission motor, the gear is connected to the transmission motor, the transmission motor is fixed on the guide groove connecting frame connected with the sliding guide groove, and the rack is fixedly installed On the slide rail, the gear and the rack mesh with each other. With this optional embodiment, the gear can be driven by the transmission motor, and then the rack can be driven to move up and down through the gear, thereby driving the sliding guide rail connected to the rack to move up and down. The transmission structure is simple and stable, and the purpose of controlling the lifting can be realized through a simple structure. Improve stability while reducing costs, and facilitate later maintenance.

Optionally, a framework is provided on the sliding guide rail, and the framework includes a mounting plate and a connecting beam for fixedly connecting the mounting plate to the sliding guide rail. With this optional embodiment, the connecting beam of the skeleton can be used to separate a certain distance between the sliding guide rail and the mounting plate, so that other parts can be installed using the distance between the mounting plate and the sliding guide rail.

Optionally, the guide slot connection frame includes an integrally formed fixed connection frame, and the fixed connection frame is provided with a fixing hole, and the fixed connection frame can be fixed on the wall by screws. By adopting this optional embodiment, the guide groove connecting frame can be stably fixed on the wall by using the fixed connecting frame, so that all parts connected with the guide groove connecting frame are fixed on the wall.

Optionally, one or more sliding guide grooves are welded on one or both sides of the fixed connecting frame. With this optional embodiment, one or more sliding guide grooves can be used as a group to increase the stability of sliding.

Optionally, the fixing device further includes a sliding bracket connected to the sliding guide rail. With this optional embodiment, the sliding bracket can slide along with the sliding guide rail, and the sliding bracket can be used to fix some parts that slide along with the sliding guide rail, so as to facilitate the connection between the sliding guide rail and other parts.

Optionally, the sliding support includes one or more steel beams. By adopting this optional embodiment, the stability of the sliding bracket can be increased, and the deformation and deviation of the sliding bracket can be prevented.

Optionally, one or more sliding guide rails are respectively welded on one side or both sides of the sliding bracket. With this optional embodiment, the stability of the entire lifting process can be controlled by setting different numbers of sliding guide rails.

Optionally, the inside of the sliding guide groove is a T-shaped groove structure, and the T-shaped groove structure includes a wide groove end and a narrow groove end, and the narrow groove end runs through the sliding guide groove. By adopting this optional embodiment, the sliding guide rail can be better defined, and a part of the sliding guide rail can be exposed from the sliding guide groove, so as to facilitate the connection of the frame on the sliding guide rail.

Optionally, the sliding guide rail is a T-shaped structure, and the T-shaped structure includes a large end and a small end, and the small end is fixedly connected to the skeleton. With this optional embodiment, the big head end of the sliding guide rail can be limited in the wide groove end inside the sliding guide groove, and the small end end of the sliding guide rail can be limited in the narrow groove end inside the sliding guide groove, so that the sliding The guide rail is preferably limited to slide in the slide guide groove.

In another optional embodiment, the fixing device includes: a sliding guide groove, a sliding guide rail, a transmission structure, a self-locking structure, a skeleton running guide rail and a movable skeleton, the sliding guide rail is limited to slide in the sliding guide groove, and the The sliding guide groove is fixedly connected with the guide groove connecting frame, the transmission structure is arranged between the sliding guide groove and the sliding guide rail, and can drive the sliding guide rail to slide in the sliding guide groove; the self-locking structure is arranged between the sliding guide groove and the sliding guide rail Between, the position between the sliding guide groove and the sliding guide rail can be locked, and the sliding guide rail is connected to the movable skeleton through a hinge, and the movable skeleton can be used to connect the air conditioner, and the movable skeleton is arranged on the skeleton running guide rail, A skeleton transmission structure is provided between the movable skeleton and the skeleton running guide rail, which can drive the movable skeleton to run along the skeleton running guide rail, and the skeleton running guide rail is installed on the sliding guide rail.

With this optional embodiment, the air conditioner can be controlled up and down and front and rear translation control at the same time, so that when the user needs to clean the air conditioner or adjust the air volume and direction of the air conditioner, the position of the air conditioner can be controlled and adjusted, which is more convenient to use , can prevent users from climbing and operate, increase safety, and at the same time avoid moving items placed on the lower side of the air conditioner installation position, saving time and effort, convenient and quick.

Optionally, a running rack is provided on the skeleton running rail, and the running rack and the skeleton running rail are integrally formed. This optional embodiment can cooperate with the skeleton running transmission mechanism to achieve the purpose of making the movable skeleton move along the skeleton running guide rail.

Optionally, the sliding guide rail is connected to the hinge through a mounting piece and a hinge fixing piece, wherein the sliding guide rail is connected to the mounting piece, the mounting piece is connected to the hinge fixing piece, and the hinge fixing piece is connected to the hinge. By adopting this optional embodiment, the direct disassembly and installation of the hinge can be facilitated, and the subsequent maintenance and treatment can be facilitated.

Optionally, the frame transmission structure includes a running gear and a running motor, the running gear is fixed on the movable frame through a gear fixing seat, and the running gear is connected to the running motor, and the running motor has a motor self-locking function. With this optional embodiment, the running gear can be driven to rotate by the running motor, so that the running gear can move along the running guide rail of the skeleton, and then drive the whole movable skeleton to move, so as to achieve the purpose of driving the movable skeleton to move.

Optionally, the fixing device further includes a sliding bracket connected to the sliding guide rail. With this optional embodiment, the sliding bracket can slide along with the sliding guide rail, and the sliding bracket can be used to fix some parts that slide along with the sliding guide rail, so as to facilitate the connection between the sliding guide rail and other parts.

Optionally, the skeleton running guide rail is welded on the sliding bracket and is perpendicular to the sliding bracket. By adopting this optional embodiment, the movable skeleton can run more stably on the skeleton running guide rail, ensuring that the movable skeleton can maintain a level when moving in the front-back direction.

Optionally, the transmission structure includes a gear, a rack and a transmission motor, the gear is connected to the transmission motor, the transmission motor is fixed on the guide groove connecting frame connected with the sliding guide groove, and the rack is fixedly installed On the slide rail, the gear and the rack mesh with each other. With this optional embodiment, the gear can be driven by the transmission motor, and then the rack can be driven to move up and down through the gear, thereby driving the sliding guide rail connected to the rack to move up and down. The transmission structure is simple and stable, and the purpose of controlling the lifting can be realized through a simple structure. Improve stability while reducing costs, and facilitate later maintenance.

Optionally, the self-locking structure includes a self-locking plate, self-locking teeth and a self-locking jacking structure, the self-locking plate is a metal plate as a whole, a sawtooth structure is provided on the self-locking plate, and the self-locking The teeth are arranged on the sliding guide groove, and the two cooperate to realize the self-locking of downward movement. The jacking structure of the self-locking plate includes a self-locking motor and a jacking rod, and the self-locking motor is fixedly installed on the sliding guide rail. The jacking rod is obliquely directed to the self-locking plate. With this optional embodiment, after the adjustment of the air conditioner is completed, the relative position between the sliding guide rail and the sliding guide groove can be locked through the cooperation of the self-locking plate and the self-locking tooth, so as to prevent the air conditioner from lacking support after the lifting is stopped. Slide down, use the self-locking structure to replace the self-locking function of the motor itself, the performance is better, the use is more convenient, and the later maintenance is also more convenient.

Optionally, the combined thickness of the mounting piece and the hinge fixing piece between the sliding guide rail and the hinge is greater than the thickness of the self-locking plate in the self-locking structure, and the self-locking plate is installed on the lower side of the mounting piece and the hinge fixing piece . With this optional embodiment, when the self-locking plate is locked, the downward movement of the entire sliding guide rail can be restricted by restricting the downward movement of the mounting piece and the hinge fixing piece, so as to achieve a good self-locking function.

Optionally, the self-locking plate is fixedly connected to the jacking rod of the jacking structure of the self-locking plate. With this optional embodiment, it is convenient to directly control the self-locking plate through the jacking and retraction of the jacking structure of the self-locking plate Whether it is meshed with the self-locking teeth on the sliding guide groove, self-locking and self-locking can be completed conveniently and quickly.

Optionally, one or more hinges are provided, and the one or more hinges are respectively connected to the hinge fixing pieces, and the two hinge fixing pieces are fixedly connected together by a fixing beam. With this optional embodiment, the two hinges can be integrated to make the fixing of the sliding guide rail and the movable frame more stable.

In another optional embodiment, the fixing device includes: a sliding guide groove, a sliding guide rail, a self-locking structure and a pin; the sliding guide rail is limited to slide in the sliding guide groove, and the sliding guide groove is connected with the guide groove The frame is fixedly connected, the sliding guide rail is provided with a skeleton, and the skeleton is used for fixedly connecting the air conditioner; the self-locking structure is arranged between the sliding guide groove and the sliding guide rail, and can lock the position of the sliding guide rail relative to the sliding guide groove ; The side wall of the sliding guide groove is provided with a pin hole a, and the side wall of the sliding guide rail is provided with a pin hole b. position between.

With this optional embodiment, when the air conditioner is fixed, the air conditioner has a certain space for moving up and down, the sliding guide groove and the sliding guide rail are vertically arranged, and the sliding guide rail can Slide up and down on the sliding guide groove, but it will form a restriction in the front and rear directions. After rising or falling to a certain position, the self-locking structure can be used to initially lock the sliding guide groove and the sliding guide rail. At the same time, the pin is inserted into the Inside the pin hole a and pin hole b, the sliding guide groove and the sliding guide rail are firmly locked, and the user can choose the appropriate height according to himself, avoiding multiple holes in the wall, which will damage the building, and at the same time, the air conditioner is being cleaned and dust filtered The air conditioner can be conveniently and quickly operated at any time when the net and other parts are disassembled, providing convenience for the user to use the air conditioner.

Optionally, one or more pin holes a are provided, and the distance between them is fixed, evenly distributed along the side wall of the sliding guide groove, and one or more pin holes b are also provided, and The distance between two pairs is fixed and evenly distributed along the side wall of the sliding guide rail. With this optional embodiment, the height of the sliding guide rail can be limited by the cooperation between the pin holes a and the pin holes b, and the design of multiple pin holes a and b can reduce the distance between each lifting gradient , making it more accurate to adjust the height of the sliding guide groove.

Optionally, the pin hole a runs through the entire sliding guide groove, and the pin hole b runs through the entire sliding guide rail. By adopting this optional embodiment, when the pin is inserted into the pin hole a and the pin hole b, the pin can be inserted deeper to achieve an optimal fixing effect.

Optionally, the pin is a cylindrical steel rod with the same length as the width of the sliding guide groove, and one end of the steel rod is provided with a stop piece, and the diameters of the pin hole a and the pin hole b are slightly larger than the diameter of the pin, so The diameter of the blocking piece is greater than the diameters of the pin hole a and the pin hole b. With this optional embodiment, firstly, it is ensured that the strength of the pin is sufficient to bear the weight of the air conditioner to ensure safety; secondly, the size design of the pin and the size design of the pin hole a and the pin hole b facilitate the flexible insertion of the pin into the pin hole a and the inside of the pin hole b, and at the same time, after the insertion, it can ensure that the pin will not shake up and down in the pin hole a and the pin hole b, so as to increase the stability of the connection.

Optionally, the guide slot connection frame includes an integrally formed fixed connection frame, and the fixed connection frame is provided with a fixing hole, and the fixed connection frame can be fixed on the wall by screws. By adopting this optional embodiment, the guide groove connection frame can be made more stable and reliable, and at the same time, it is convenient to securely fix the whole device on the wall through the fixing hole.

Optionally, one or more sliding guide grooves are welded on one or both sides of the fixed connecting frame. With this optional embodiment, one or more sliding guide grooves can be used as a group to increase the stability of sliding.

Optionally, the device further includes a sliding bracket connected to the sliding guide rail. Adopting this optional embodiment, the sliding bracket can slide together with the sliding guide rail, so that the parts of other parts can be fixedly connected with the sliding guide rail through the sliding bracket, and it is convenient for other parts to drive the sliding guide rail to slide, or the sliding guide rail can drive other parts to slide .

Optionally, one or more sliding guide rails are respectively welded on one side or both sides of the sliding bracket. With this optional embodiment, the stability of the entire lifting process can be controlled by setting different numbers of sliding guide rails.

Optionally, the self-locking structure includes a self-locking plate, self-locking teeth and a self-locking jacking structure, the self-locking plate is a metal plate as a whole, a sawtooth structure is provided on the self-locking plate, and the self-locking The teeth are arranged on the sliding guide groove, and the two cooperate to realize the self-locking of downward movement. The jacking structure of the self-locking plate includes a self-locking motor and a jacking rod, and the self-locking motor is fixedly installed on the sliding guide rail. The jacking rod is obliquely directed to the self-locking plate. With this optional embodiment, after the adjustment of the air conditioner is completed, the relative position between the sliding guide rail and the sliding guide groove can be locked through the cooperation of the self-locking plate and the self-locking tooth, so as to prevent the air conditioner from lacking support after the lifting is stopped. Slide down, use the self-locking structure to replace the self-locking function of the motor itself, the performance is better, the use is more convenient, and the later maintenance is also more convenient.

Optionally, the block on the pin is entirely made of magnets. By adopting this optional embodiment, when the pin is fully inserted into the pin hole a and the pin hole b, the retainer can be adsorbed on the sliding guide groove, so as to maintain a certain limit effect on the pin and prevent the pin from self-moving during use. slide.

Optionally, the other end of the pin opposite to the end with the blocking piece is designed in the shape of a truncated cone. Adopting this optional embodiment, through the design of one end of the circular truncated cone and the other end, it is convenient for the pin to be inserted from the pin hole a to the pin hole b more smoothly, and it is prevented from causing the pin when the pin hole a and the pin hole b are not neatly connected. Difficult to insert.

In another optional embodiment, the fixing device includes: a sliding guide groove, a sliding guide rail, a self-locking structure and a telescopic cylinder, the sliding guide rail is limited to slide in the sliding guide groove, and the sliding guide groove is connected with the guide groove The frame is fixedly connected; the self-locking structure is arranged between the sliding guide groove and the sliding guide rail, and the position between the sliding guide groove and the sliding guide rail can be locked; the telescopic cylinder is connected with the sliding guide rail, and can drive the sliding guide rail to slide Slide in the guide groove.

With this optional embodiment, the reciprocating motion of the telescopic cylinder can drive the sliding guide rail to slide on the sliding guide groove to realize the lifting of the air conditioner, so that when the user needs to clean the air conditioner or adjust the air volume and direction of the air conditioner , the air conditioner can be directly raised and lowered, which is more convenient to use, and can prevent users from climbing up and down to increase safety.

Optionally, the self-locking structure includes a self-locking plate, self-locking teeth and a self-locking jacking structure, the self-locking plate is a metal plate as a whole, a sawtooth structure is provided on the self-locking plate, and the self-locking The teeth are arranged on the sliding guide groove, and the two cooperate to realize the self-locking of downward movement. The jacking structure of the self-locking plate includes a self-locking motor and a jacking rod, and the self-locking motor is fixedly installed on the sliding guide rail. The jacking rod is obliquely directed to the self-locking plate. With this optional embodiment, after the adjustment of the air conditioner is completed, the relative position between the sliding guide rail and the sliding guide groove can be locked through the cooperation of the self-locking plate and the self-locking tooth, so as to prevent the air conditioner from lacking support after the lifting is stopped. Slide down, use the self-locking structure to replace the self-locking function of the motor itself, the performance is better, the use is more convenient, and the later maintenance is also more convenient.

Optionally, the telescopic cylinder is powered by a hydraulic pump built into the telescopic cylinder. By adopting this optional embodiment, the structure of the telescopic cylinder can be made more compact, the size of the whole device can be reduced, and the stability of the structure of the whole device can be improved.

Optionally, the cylinder body of the telescopic cylinder is connected with the sliding guide groove through the bearing seat. By adopting this optional embodiment, the telescopic cylinder and the sliding guide groove can be connected together, so that the telescopic cylinder can drive the sliding guide rail to move relative to the sliding guide groove.

Optionally, the telescopic end of the telescopic cylinder is a multi-stage telescopic rod. With this optional embodiment, the sliding guide rail can be moved to a wider range through multi-stage telescopic expansion, and then the length of the telescopic cylinder can be reduced while ensuring the same telescopic range, thereby reducing the volume of the telescopic cylinder and facilitating the installation of the entire device.

Optionally, the fixing device further includes a sliding bracket connected to the sliding guide rail. With this optional embodiment, the sliding bracket can slide along with the sliding guide rail, and the sliding bracket can be used to fix some parts that slide along with the sliding guide rail, so as to facilitate the connection between the sliding guide rail and other parts.

Optionally, the sliding bracket includes a main frame and a movable rod, the movable rod and the sliding bracket are connected by screws, and the sliding bracket is provided with a row of screw holes distributed along the length direction of the sliding rail, by using screws The position of the movable rod can be adjusted by fixing the movable rod in different screw holes, and the telescopic end of the telescopic cylinder is fixedly connected with the movable rod. With this optional embodiment, it is possible to adjust the position of the movable rod at any time to control the range where the telescopic end can drive the sliding guide rail to move up and down, so that it is convenient to choose the range that can be lifted according to different installation positions, and avoid damage to the air conditioner. Increase the adaptability of the device.

Optionally, the telescopic end of the telescopic cylinder is connected to the sliding bracket through a fixed connection seat, the connection between the fixed connection seat and the telescopic end is a spiral connection, and the fixed connection seat and the sliding bracket are connected through a slot, so The card slot is arranged on the fixed connection seat, and a screw hole is provided inside the card slot, and the sliding bracket is stuck inside the card slot and fixed by screws, and the screw penetrates the sliding bracket and is screwed into the screw hole. By adopting this optional embodiment, the telescopic end of the telescopic cylinder can be fixed on the sliding bracket more conveniently and quickly, which is not only convenient for disassembly and installation, but also more securely fixed.

Optionally, the telescopic end of the telescopic cylinder is connected with the movable rod. With this optional embodiment, the telescopic end can directly drive the sliding bracket to move, and then the sliding bracket can drive the sliding guide rail to move up and down. The transmission is more direct and saves time and effort.

Optionally, the telescopic cylinder is an air cylinder, and the air conditioner's own compressor is used to provide power to the air cylinder. With this optional embodiment, by using the air conditioner's own compressor to provide power to the telescopic cylinder, there is no need to equip the telescopic cylinder with a power system, which can minimize the volume of the device and facilitate installation and use.

In another optional embodiment, the fixing device includes: a sliding guide groove, a sliding guide rail, a self-locking structure and a worm gear transmission structure, the sliding guide rail is limited to slide in the sliding guide groove, and the sliding guide groove and the guide groove The connecting frame is fixedly connected; the self-locking structure is arranged between the sliding guide groove and the sliding guide rail, and the position between the sliding guide groove and the sliding guide rail can be locked; the described worm gear transmission structure includes a worm, a worm wheel and a worm gear motor, and the worm The worm gear is fixed on the sliding guide rail, the worm gear is sleeved on the worm, and the worm gear is connected with the sliding guide groove through the worm gear seat. The worm gear is driven by the worm gear motor, which can drive the sliding guide rail to move up and down in the sliding guide groove.

With this optional embodiment, the rotation of the worm wheel can drive the worm up and down, and the up and down of the worm can drive the sliding rail up and down, so as to realize the up and down of the air conditioner. When the user needs to clean the air conditioner or adjust the air volume and direction of the air conditioner When using, it is more convenient to use, it can prevent users from climbing and increase safety, and at the same time, the worm wheel and worm screw cooperate with lifting, and it has a certain self-locking ability, which can save more effort when locking the sliding guide rail with the self-locking structure.

Optionally, the self-locking structure includes a self-locking plate, self-locking teeth and a self-locking jacking structure, the self-locking plate is a metal plate as a whole, a sawtooth structure is provided on the self-locking plate, and the self-locking The teeth are arranged on the sliding guide groove, and the two cooperate to realize the self-locking of downward movement. The jacking structure of the self-locking plate includes a self-locking motor and a jacking rod, and the self-locking motor is fixedly installed on the sliding guide rail. The jacking rod is obliquely directed to the self-locking plate. With this optional embodiment, after the adjustment of the air conditioner is completed, the relative position between the sliding guide rail and the sliding guide groove can be locked through the cooperation of the self-locking plate and the self-locking tooth, so as to prevent the air conditioner from lacking support after the lifting is stopped. Slide down, use the self-locking structure to replace the self-locking function of the motor itself, the performance is better, the use is more convenient, and the later maintenance is also more convenient.

Optionally, the fixing device further includes a sliding bracket connected to the sliding guide rail. With this optional embodiment, the sliding bracket can slide along with the sliding guide rail, and the sliding bracket can be used to fix some parts that slide along with the sliding guide rail, so as to facilitate the connection between the sliding guide rail and other parts.

Optionally, the worm is welded on the sliding bracket, and there are one or more worms. By adopting this optional embodiment, one or more worms can drive the sliding bracket up and down at the same time, so as to improve the stability of the device when going up and down.

Optionally, the worm gear is connected with the motor gear through the transmission gear, the motor gear is arranged on the worm gear motor, the worm gear seat is provided with a worm hole, and the connection point of the worm wheel and the transmission gear corresponds to one side of the worm seat Features open notches. With this optional embodiment, the worm runs through the entire worm wheel seat, and the worm wheel seat forms a limiting effect on the worm wheel, and the open slot facilitates the meshing between the transmission gear and the worm wheel seat.

Optionally, the inner side of the worm wheel is a thread structure, and the outer side of the worm wheel is a gear structure. With this optional embodiment, the outer gear structure drives the rotation of the worm wheel itself, and the inner thread structure of the worm wheel drives the worm to move up and down.

Optionally, the worm wheel is arranged inside the worm wheel seat, and the worm wheel and the inner wall of the worm wheel seat are connected by a bearing, the inner end of the bearing is connected to the worm wheel, and the outer end of the bearing is connected to the turbine seat, and the worm wheel can be placed in the worm wheel seat Turn freely. With this optional embodiment, the position of the worm wheel is restricted by the worm gear seat, but the rotation of the worm wheel itself is not hindered, so that the rotation of the worm wheel is more comfortable, thereby saving more labor when driving the worm up and down.

Optionally, the inner diameter of the bearing is larger than the diameter of the worm. With this alternative embodiment, friction with the inner side of the bearing is avoided when the worm passes through the bearing.

Optionally, the worm gear motor is fixed on the sliding guide groove. Adopting this optional embodiment ensures the fixation of the worm gear motor, so that the position between the worm gear motor and the sliding guide groove remains unchanged, stably provides power, and drives the sliding guide rail to move up and down.

According to a second aspect of the embodiments of the present invention, an air conditioner is provided.

In some optional embodiments, the air conditioner includes: an air conditioner, characterized in that it includes an indoor unit, and also includes the fixing device described in any one of the above optional embodiments, the indoor unit Direct fixed mounting on fixtures.

With this optional embodiment, by installing the two as a whole to carry out direct sales and use, it is sufficient to directly fix the fixing device for the air conditioner on the wall during use, and there is no need to install the fixing device between the air conditioner and the fixing device. Combination, sales and installation process is more convenient and quick.

By adopting the above optional embodiment, when the user cleans the air conditioner and disassembles the dust filter and other parts, it is convenient to directly lower the air conditioner and then operate it. At the same time, when the user needs to directly adjust the installation height of the air conditioner, no need to drill holes , Directly use the lifting function of the device to adjust the height of the air conditioner, solve the problems in the use of the air conditioner, and make the installation and use of the air conditioner more convenient and quick.

It is to be understood that both the foregoing general description and the following detailed description are exemplary and explanatory only and are not restrictive of the invention.

Description of drawings

The accompanying drawings, which are incorporated in and constitute a part of this specification, illustrate embodiments consistent with the invention and together with the description serve to explain the principles of the invention.

Fig. 1 is a schematic structural diagram of an optional implementation of a fixing device for an air conditioner;

Fig. 1a is a structural schematic diagram of an optional implementation of the sliding guide rail used for the fixing device of the air conditioner;

Figure 1b is a schematic diagram of an optional implementation of the connection between the transmission motor and the gear used for the fixing device of the air conditioner;

FIG. 2 is a structural schematic diagram of another optional implementation of a fixing device for an air conditioner;

Figure 2a is a structural schematic diagram of another optional implementation of the sliding guide rail used in the fixing device of the air conditioner;

Figure 2b is a schematic diagram of an optional implementation of the lifting structure assembly for the fixing device of the air conditioner;

Fig. 2c is a schematic structural diagram of an optional implementation of the hinge used for the fixing device of the air conditioner;

FIG. 3 is a structural schematic diagram of another optional implementation of a fixing device for an air conditioner;

Fig. 3a is a structural schematic diagram of another optional implementation of the sliding guide groove used for the fixing device of the air conditioner;

Fig. 3b is a structural schematic diagram of another optional implementation of the sliding guide rail used in the fixing device of the air conditioner;

Fig. 3c is a schematic diagram of an optional implementation of the pin used in the fixing device of the air conditioner;

Fig. 4 is a structural schematic diagram of another optional implementation of the fixing device for the air conditioner;

Figure 4a is a structural schematic diagram of another optional implementation of the sliding guide rail used in the fixing device of the air conditioner;

Figure 4b is a structural schematic diagram of an optional implementation of the telescopic cylinder used for the fixing device of the air conditioner;

Fig. 5 is a structural schematic diagram of another optional implementation of the fixing device for the air conditioner;

Fig. 5a is a structural schematic diagram of another optional implementation of the sliding guide rail used in the fixing device of the air conditioner;

Fig. 5b is a structural schematic diagram of an optional implementation of the worm gear transmission structure used in the fixing device of the air conditioner;

Fig. 6 is a kind of implementable structural schematic diagram of the air conditioner assembly structure with fixing device;

Fig. 7 is another possible structural schematic diagram of the air conditioner assembly structure with the fixing device;

Fig. 8 is another possible structural schematic diagram of the air conditioner assembly structure with the fixing device;

Fig. 9 is another possible structural schematic diagram of an air conditioner assembly structure with a fixing device;

Fig. 10 is another possible structural schematic diagram of an air conditioner assembly structure with a fixing device;

Fig. 11 is a flow chart of an optional embodiment of the method for controlling the lifting of the indoor unit of the air conditioner;

Fig. 12 is a flowchart of an optional embodiment of a method for controlling the movement of an indoor unit of an air conditioner;

Fig. 12a is a flowchart of an optional embodiment of a method for controlling the indoor unit of an air conditioner to move up and down;

Fig. 12b is a flowchart of an optional embodiment of the method for controlling the forward and backward movement of the indoor unit of the air conditioner;

Fig. 13 is a structural schematic diagram of an optional implementation of the sliding guide groove used for the fixing device of the air conditioner;

Fig. 14 is a structural schematic diagram of an optional implementation of the self-locking plate used in the fixing device of the air conditioner.

Detailed ways

The following description and drawings illustrate specific embodiments of the invention sufficiently to enable those skilled in the art to practice them. Other embodiments may incorporate structural, logical, electrical, process, and other changes. The examples merely represent possible variations. Individual components and functions are optional unless explicitly required, and the order of operations may vary. Portions and features of some embodiments may be included in or substituted for those of other embodiments. The scope of embodiments of the present invention includes the full scope of the claims, and all available equivalents of the claims. Herein, various embodiments may be referred to individually or collectively by the term "invention", which is for convenience only and is not intended to automatically limit the scope of this application if in fact more than one invention is disclosed. A single invention or inventive concept. Herein, relational terms such as first and second etc. are used only to distinguish one entity or operation from another without requiring or implying any actual relationship or relationship between these entities or operations. order. Furthermore, the term "comprises", "comprises" or any other variation thereof is intended to cover a non-exclusive inclusion such that a process, method or apparatus comprising a set of elements includes not only those elements but also other elements not expressly listed elements, or also include elements inherent in such a process, method, or apparatus. Without further limitations, an element defined by the phrase "comprising a ..." does not exclude the presence of additional identical elements in the process, method or apparatus comprising said element. Various embodiments herein are described in a progressive manner, each embodiment focuses on the differences from other embodiments, and the same and similar parts of the various embodiments may be referred to each other. As for the methods, products, etc. disclosed in the examples, since they correspond to the methods disclosed in the examples, the description is relatively simple, and for relevant details, please refer to the description of the methods.

The terms "vertical", "transverse", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", " The orientation or positional relationship indicated by "bottom", "inner", "outer", etc. is based on the orientation or positional relationship shown in the drawings, and is only for the convenience of describing this text and simplifying the description, rather than indicating or implying that the referred device or element must Having a particular orientation, being constructed and operating in a particular orientation, and therefore not to be construed as limiting the invention. In the description herein, unless otherwise stipulated and limited, the terms "installation", "connection" and "connection" should be interpreted in a broad sense, for example, it can be a mechanical connection or an electrical connection, and it can also be the internal communication of two components, It may be directly connected or indirectly connected through an intermediary, and those skilled in the art can understand the specific meanings of the above terms according to specific situations.

Figure 13 shows an optional implementation structure of the sliding guide groove;

In this optional embodiment, the inside of the sliding guide groove 100 is a T-shaped groove structure, and the T-shaped groove structure includes a wide groove end and a narrow groove end, and the narrow groove end runs through the sliding guide groove 100 . With this optional embodiment, the sliding guide rail 200 can be better defined, and a part of the sliding guide rail 200 can be exposed from the sliding guide groove 100 , so as to facilitate the connection of the framework 600 on the sliding guide rail 200 .

Optionally, the sliding guide groove 100 is connected with the guide groove connecting frame 500, and the guide groove connecting frame 500 includes an integrally formed fixed connecting frame 501, and the fixed connecting frame 501 is provided with a fixing hole 502, which can be screwed Fix the fixed connecting frame 501 on the wall. With this optional embodiment, the guide channel connector frame 500 can be stably fixed on the wall by using the fixed connector frame 501 , so that all parts connected with the guide channel connector frame 500 are fixed on the wall surface.

Optionally, the fixed connecting frame 501 includes a longitudinal connecting frame and one or more steel frames. By adopting this optional embodiment, it is convenient to increase the stability of the fixed connection frame 501 and to maintain balance after the fixed connection frame 501 is installed on the wall.

Optionally, one or more sliding guide slots 100 are welded on one side or both sides of the fixed connecting frame 501 . Using this optional embodiment, one or more sliding guide grooves 100 can be used as a group to increase the stability of sliding.

Optionally, the fixed connecting frame 501 and the sliding guide groove 100 are perpendicular to each other. With this optional embodiment, the sliding guide groove 100 can be kept vertical by horizontally installing the fixed connecting frame 501 when installation is convenient, and at the same time it is convenient to install other parts on the fixed connecting frame 501 .

Optionally, two sliding guide grooves 100 are provided, and the adjacent side of the two sliding guide grooves 100 is set as an inner end, and the outer side corresponding to the inner end is set as an outer end, and the wide groove end is located at the end of the sliding guide groove. The inner end of 100 is provided with slots. By adopting this optional embodiment, it is convenient for the sliding bracket 201 to pass through the sliding guide groove 100 without restricting the movement of the sliding bracket 201 .

Optionally, the sliding guide groove 100 is provided with self-locking teeth 302 . With this optional embodiment, the self-locking teeth 302 arranged on the sliding guide groove 100 can better cooperate with the self-locking plate 301 to lock between the sliding guide groove 100 and the sliding guide rail 200 , and the locking is more stable.

Optionally, the sliding guide groove 100 is set up vertically, the lower end of the sliding guide groove 100 is integrally manufactured with the entire sliding guide groove 100 to form a sealed end, and the upper end of the sliding guide groove 100 is directly hollow to form an open end . With this optional embodiment, the movable space of the sliding guide rail 200 in the sliding guide groove 100 can be limited, so that the sliding guide rail 200 can slide upwards and pass out from the open end of the sliding guide groove 100, but when sliding downwards, it is closed by the sealing end. It is restricted so that it will not pass through the sealing end of the lower side of the sliding guide groove 100 , so as to better limit the range of motion of the sliding guide rail 200 .

Figure 14 shows an optional implementation structure of the self-locking plate;

In this optional embodiment, the self-locking plate 301 is provided with a sawtooth structure. The surface on the self-locking plate 301 corresponding to the direction is set as the lower side, and the lower side of the self-locking plate 301 is an inclined surface, and the inclined surface makes the entire self-locking plate 301 incline toward the inner side. Adopting this optional embodiment, the self-locking plate 301 itself can be made to have a tendency to incline inwardly. When the support of the self-locking plate jacking structure 303 is lost, it can automatically incline inwardly and quickly engage with the self-locking teeth 302 to form Self-locking, the overall structure is simple, easy to use, and can quickly and effectively realize the self-locking function.

Optionally, the width of the self-locking plate 301 is smaller than the distance between the two connecting beams 602, the thickness of the self-locking plate 301 is less than the length of the connecting beam 602, and the width of the self-locking plate 301 is Greater than the distance between the protruding parts of the two mounting plates 601 , the self-locking plate 301 is stuck in the space formed between the two mounting plates 601 , the two connecting beams 602 and the sliding guide rail 200 . With this optional embodiment, the self-locking plate 301 can be better fixed.

Optionally, the self-locking plate 301 is provided with an elastic support structure to squeeze and support the self-locking teeth 302 of the self-locking plate 301 facing the sliding guide groove 100 with a sawtooth structure. Adopting this optional embodiment can ensure that when the self-locking plate jacking structure 303 is not activated, the self-locking plate 301 is always pressed on the sliding guide groove 100, so that the sawtooth structure is engaged with the self-locking teeth 302, and the self-locking of the device is maintained. .

Optionally, the self-locking plate 301 is fixedly connected to the jacking rod of the self-locking plate jacking structure 303. With this optional embodiment, it is convenient to directly control the jacking and retraction of the self-locking plate jacking structure 303. Whether the self-locking plate 301 is engaged with the self-locking teeth 302 on the sliding guide groove 100 can be used to complete self-locking and release self-locking conveniently and quickly.

Optionally, the sawtooth structure on the self-locking plate 301 covers an entire surface of the self-locking plate 301 . By adopting this optional embodiment, the self-locking plate 301 can be made more stable when engaged and locked.

Optionally, the sawtooth structures on the self-locking plate 301 are distributed at both ends of the wide surface of the self-locking plate 301, and the distance between the two sawtooth structures is the same as the distance between the self-locking teeth 302 on the sliding guide groove 100 , adopting this optional embodiment can reduce the manufacturing difficulty of the self-locking plate 301 itself, reduce unnecessary processes, and at the same time ensure the stability of the engagement and locking.

Fig. 1 shows an optional implementation structure of a fixing device for an air conditioner;

In this optional embodiment, the fixing device for the air conditioner includes: a sliding guide groove 100, a sliding guide rail 200, a self-locking structure 300 and a transmission structure 400; the sliding guide rail 200 is defined in the sliding guide groove 100 Sliding, the sliding guide groove 100 is fixedly connected with the guide groove connecting frame 500, and the sliding guide rail 200 is provided with a skeleton 600, and the skeleton 600 is used for fixedly connecting the air conditioner; the self-locking structure 300 is arranged on the sliding guide groove 100 and the sliding guide rail 200, the position between the sliding guide groove 100 and the sliding guide rail 200 can be locked; the transmission structure 400 is arranged between the sliding guide groove 100 and the sliding guide rail 200, and can drive the sliding guide rail 200 in the sliding guide groove Swipe within 100.

With this optional embodiment, the air conditioner can be lifted up and down by controlling the transmission structure 400 to drive the sliding guide rail 200 to slide on the sliding guide groove 100, so that when the user needs to clean the air conditioner or adjust the air volume and direction of the air conditioner When adjusting, it is more convenient to use, and it can prevent users from climbing and operate, increasing safety.

Optionally, the self-locking structure 300 includes a self-locking plate 301, a self-locking tooth 302 and a self-locking jacking structure 303, the self-locking plate 301 is a metal plate as a whole, and the self-locking plate 301 is provided with sawtooth structure, the self-locking tooth 302 is arranged on the sliding guide groove 100, and the two cooperate to realize the self-locking of downward movement, and the self-locking plate jacking structure 303 includes a self-locking motor and a jacking rod, and the self-locking motor It is fixedly installed on the sliding guide rail 200 , and the jacking rod is obliquely directed to the self-locking plate 301 . With this optional embodiment, after the adjustment of the lift of the air conditioner is completed, the relative position between the sliding guide rail 200 and the sliding guide groove 100 can be locked through the cooperation of the self-locking plate 301 and the self-locking tooth 302, so as to prevent the air conditioner from being lifted after the lift is stopped. The air conditioner lacks support to slide downwards, and the self-locking structure 300 is used to replace the self-locking function of the motor itself, which has better performance, more convenient use, and more convenient maintenance in the later stage.

Optionally, the transmission structure 400 includes a gear 401, a rack 402 and a transmission motor 403, the gear 401 is connected to the transmission motor 403, and the transmission motor 403 is fixed on the guide slot connection frame 500 connected with the sliding guide slot 100 Above, the rack 402 is fixedly installed on the sliding guide rail 200, and the gear 401 and the rack 402 mesh with each other. With this optional embodiment, the gear 401 can be driven by the transmission motor 403, and then the rack 402 can be driven to move up and down through the gear 401, thereby driving the sliding guide rail 200 connected to the rack 402 to move up and down. The transmission structure is simple and stable. Realize the purpose of controlling the lifting, improve the stability and reduce the cost at the same time, and facilitate the later maintenance.

Optionally, the transmission structure 400 is provided with two pairs of gears 401 and racks 402 . By adopting this optional embodiment, the stability of transmission of the transmission structure 400 can be ensured, and phenomena such as shaking or slipping can be prevented.

When assembling, directly insert the sliding guide rail 200 from the open end of the upper end of the sliding guide groove 100, so that the entire sliding guide rail 200 can slide inside the sliding guide groove 100, and at this time, the skeleton 600 connected with the sliding guide rail 200 protrudes outwards, Install the transmission structure 400 between the sliding guide rail 200 and the sliding guide groove 100 as shown in Figure 1, and at the same time install the self-locking structure 300 between the sliding guide rail 200 and the sliding guide groove 100 according to Figure 1. After the assembly is completed, it can be sold .

When starting to use the device, first select a suitable location, and then use expansion wires or fixing screws to pass through the fixing holes 502 on the guide groove connector 500 to fix the guide groove connector 500 on the wall, so that the entire The device is fixed on the wall, and the finished air conditioner is fixed on the device through the frame 600. After installation, it is powered on for use. In the initial state, the self-locking structure 300 locks the device, and the sliding guide rail 200 and the sliding guide groove 100 are fixed. The position between them provides upward support for the sliding guide rail 200. When the height of the air conditioner needs to be adjusted, the self-locking structure 300 releases the locking of the device, and then drives the gear 401 to rotate through the transmission motor 403. After the meshing between the gear 401 and the rack 402 , drive the rack 402 to slide up and down, and then drive the sliding guide rail 200 to slide upward or downward in the sliding guide groove 100, and after sliding to the designated position, the self-locking structure 300 will lock the device again, and stop the work of the transmission structure 400 at the same time , so that the position of the sliding guide rail 200 remains unchanged, and the lifting of the air conditioner is adjusted.

Figure 1a shows an optional implementation structure of the sliding guide rail;

In this optional embodiment, the sliding guide rail 200 is a T-shaped structure, and the T-shaped structure includes a large end and a small end, and the small end is fixedly connected to the framework 600 . With this optional embodiment, the big head end of the sliding guide rail 200 can be defined in the wide groove end inside the sliding guide groove 100 , and the small end end of the sliding guide rail 200 can be limited in the narrow groove end inside the sliding guide groove 100 , so that the sliding guide rail 200 is better limited to slide in the sliding guide groove 100 .

Optionally, the fixing device further includes a sliding bracket 201 connected to the sliding guide rail 200 . With this optional embodiment, the sliding bracket 201 can slide along with the sliding guide rail 200, and the sliding bracket 201 can be used to fix some components that slide along with the sliding guide rail 200, so as to facilitate the connection between the sliding guide rail 200 and other parts.

Optionally, the sliding bracket 201 includes one or more steel beams. By adopting this optional embodiment, the stability of the sliding bracket 201 can be increased to prevent the sliding bracket 201 from deforming and shifting.

Optionally, the rack 402 in the transmission structure 400 is set on the steel beam on the sliding bracket 201, and two racks 402 are provided, and the distance between the racks 402 is greater than half of the length of the steel beam and less than The total length of the steel beam, the rack 402 remains perpendicular to the steel beam. By adopting this optional embodiment, the stability of power transmission of the transmission structure 400 can be ensured, and the sliding guide rail 200 can be driven to slide upwards or downwards more smoothly through the rack 402 .

Optionally, one or more sliding guide rails 200 are respectively welded on one side or both sides of the sliding bracket 201 . With this optional embodiment, the stability of the entire lifting process can be controlled by setting different numbers of sliding guide rails 200 .

Optionally, the sliding guide rail 200 is provided with a skeleton 600 , and the skeleton 600 includes a mounting plate 601 and a connecting beam 602 fixedly connecting the mounting plate 601 to the sliding guide rail 200 . With this optional embodiment, the connecting beam 602 of the framework 600 can be used to separate a certain distance between the sliding guide rail 200 and the mounting plate 601 , so that other components can be installed using the distance between the mounting plate 601 and the sliding guide rail 200 .

Optionally, two skeletons 600 are provided on the sliding guide rail 200 . With this optional embodiment, the air conditioner can be better fixed through the two skeletons 600, and the space between the two skeletons 600 can be used to install and restrict other parts

Optionally, the installation plate 601 protrudes around relative to the connecting beam 602 . With this optional embodiment, the protruding part of the mounting plate 601 can play a fixing role, and better form a fixing and restricting effect on parts at other positions.

Figure 1b shows an optional implementation structure in which the transmission motor is connected with the gear;

In this optional embodiment, one or more gears 401 on the transmission structure 400 may be provided. With this embodiment, one or more gears 401 can cooperate with one or more racks 402 to drive the sliding guide rail 200 to move up and down, making the structure more stable.

Optionally, the transmission motor 403 itself has a self-locking function. With this optional embodiment, the self-locking of the transmission motor 403 can be used to temporarily lock the device, giving the self-locking structure 300 sufficient reaction time, and the double locking safety performance is also higher.

Optionally, the transmission structure 400 is provided with two gears 401, and the two gears 401 are connected to the transmission motor 403 through the same rotating shaft. With this optional embodiment, two gear racks 402 are matched to make power transmission more stable.

Fig. 2 shows another optional implementation structure of the fixing device of the air conditioner;

In this optional embodiment, the fixing device includes: a sliding guide groove 100, a sliding guide rail 200, a self-locking structure 300, a transmission structure 400, a skeleton running guide rail 700 and a movable skeleton 800, and the sliding guide rail 200 is defined in the sliding guide groove 100, the sliding guide groove 100 is fixedly connected with the guide groove connecting frame 500; the self-locking structure 300 is arranged between the sliding guide groove 100 and the sliding guide rail 200, and can be locked between the sliding guide groove 100 and the sliding guide rail 200 position; the transmission structure 400 is arranged between the sliding guide groove 100 and the sliding guide rail 200, and can drive the sliding guide rail 200 to slide in the sliding guide groove 100; the sliding guide rail 200 is provided with a skeleton 600, and the skeleton 600 passes through The hinge 900 is connected with the movable skeleton 800, which can be used to connect the air conditioner, and the movable skeleton 800 is arranged on the skeleton running guide rail 700, and a skeleton transmission is arranged between the movable skeleton 800 and the skeleton running guide rail 700 The structure 1000 can drive the movable skeleton 800 to run along the skeleton running guide rail 700 , and the skeleton running guide rail 700 is installed on the sliding guide rail 200 .

With this optional embodiment, the air conditioner can be controlled up and down and front and rear translation control at the same time, so that when the user needs to clean the air conditioner or adjust the air volume and direction of the air conditioner, the position of the air conditioner can be controlled and adjusted, which is more convenient to use , can prevent users from climbing and operate, increase safety, and at the same time avoid moving items placed on the lower side of the air conditioner installation position, saving time and effort, convenient and quick.

Optionally, the skeleton transmission structure 1000 includes a running gear 1001 and a running motor 1002, the running gear 1001 is fixed on the movable skeleton 800 through a gear fixing seat, and the running gear 1001 is connected to the running motor 1002, and the running motor 1002 With motor self-locking function. With this optional embodiment, the running motor 1002 can drive the running gear 1001 to rotate, so that the running gear 1001 can move along the skeleton running guide rail 700, and then drive the entire movable skeleton 800 to move, so as to achieve the purpose of driving the movable skeleton 800 to move.

When assembling, directly insert the two sliding guide rails 200 from the open end of the upper end of the sliding guide groove 100, so that the entire sliding guide rail 200 can slide inside the sliding guide groove 100, and at this time, the hinge 900 connected with the sliding guide rail 200 stretches outward Out, connect the other end of the hinge 900 with the movable skeleton 800, and install the skeleton transmission structure 1000 on the movable skeleton 800 according to Fig. The combination is installed between the sliding guide rail 200 and the sliding guide groove 100. At the same time, the self-locking structure 300 is also assembled and installed between the sliding guide rail 200 and the sliding guide groove 100 according to FIG.

When starting to use the device, first select a suitable location, and then use expansion wires or fixing screws to pass through the fixing holes 502 on the guide groove connector 500 to fix the guide groove connector 500 on the wall, so that the entire The device is fixed on the wall, and the finished air conditioner is fixed on the device through the movable frame 800. After installation, it is powered on for use; in the initial state, the self-locking structure 300 locks the device, and the sliding guide rail 200 and the sliding guide groove 100 are fixed. The position between them provides upward support for the sliding guide rail 200. When the height of the air conditioner needs to be adjusted, the self-locking structure 300 releases the locking of the device, and then drives the gear 401 to rotate through the transmission motor 403. After the gear 401 and the rack 402 Engage, drive the rack 402 to slide up and down, and then drive the sliding guide rail 200 to slide upward or downward in the sliding guide groove 100, and after sliding to the designated position, the self-locking structure 300 will lock the device again, and stop the transmission structure 400 at the same time. work, keep the position of the sliding guide rail 200 unchanged, and complete the adjustment of the lift of the air conditioner; when the indoor unit of the air conditioner is moved back and forth, the movable skeleton 800 can be driven back and forth on the skeleton running guide rail 700 directly by starting the skeleton transmission structure 1000 Move, move to the designated position, stop the rotation of the skeleton transmission structure 1000, and keep the movable skeleton 800 fixed under the self-locking action of the running motor 1002 of the skeleton transmission structure 1000. During the movement of the movable skeleton 800, The hinge 900 prolongs its own length through its own deformation, and keeps connecting the movable skeleton 800 and the sliding guide rail 200 all the time, so that the movable skeleton 800 can run smoothly.

Fig. 2a shows another optional implementation structure of the sliding guide rail;

In this optional embodiment, the sliding guide rail 200 is connected with a sliding bracket 201 . With this optional embodiment, the sliding bracket 201 can slide along with the sliding guide rail 200, and the sliding bracket 201 can be used to fix some components that slide along with the sliding guide rail 200, so as to facilitate the connection between the sliding guide rail 200 and other parts.

Optionally, the skeleton running guide rail 700 is welded on the sliding bracket 201 and is perpendicular to the sliding bracket 201 . By adopting this optional embodiment, the movable skeleton 800 can run more stably on the skeleton running guide rail 700 , ensuring that the movable skeleton 800 can remain horizontal when moving in the front-back direction.

Optionally, the skeleton running rail 700 is provided with a running rack, and the running rack and the skeleton running rail 700 are integrally formed. With this optional embodiment, the running transmission mechanism of the skeleton 600 can be used to realize the purpose of moving the movable skeleton 800 along the skeleton running guide rail 700 .

Figure 2b shows an optional implementation structure of the lifting structure assembly for the fixing device of the air conditioner;

In this optional embodiment, the sliding guide rail 200 and the hinge 900 are connected through a skeleton 600 and a hinge fixing piece 901, wherein the sliding guide rail 200 is connected to the skeleton 600, and the skeleton 600 is connected to the hinge fixing piece 901. The hinge fixing piece 901 is connected with the hinge 900 . By adopting this optional embodiment, the direct disassembly and installation of the hinge 900 can be facilitated, which facilitates later maintenance and processing.

Optionally, the combined thickness of the skeleton 600 and the hinge fixing piece 901 between the sliding guide rail 200 and the hinge 900 is greater than the thickness of the self-locking plate 301 in the self-locking structure 300, and the self-locking plate 301 is installed on the skeleton 600 and the hinge fixing piece The underside of the 901. With this optional embodiment, when the self-locking plate 301 is locked, the downward movement of the entire sliding guide rail 200 can be restricted by restricting the downward movement of the skeleton 600 and the hinge fixing piece 901, so as to achieve a good self-locking effect. lock function.

Figure 2c shows an optional implementation of the hinge;

In this optional embodiment, one or more hinges 900 are provided, and the one or more hinges 900 are respectively connected to the hinge fixing piece 901, and the two hinge fixing pieces 901 are connected by a fixing beam 902 together. With this optional embodiment, the two hinges 900 can be integrated to make the fixing of the sliding guide rail 200 and the movable frame 800 more stable.

Fig. 3 shows another optional implementation structure of the fixing device for the air conditioner;

In this optional embodiment, the fixing device includes: a sliding guide groove 100, a sliding guide rail 200, a self-locking structure 300 and a pin 1100; the sliding guide rail 200 is limited to slide in the sliding guide groove 100, and the sliding guide groove 100 is fixedly connected with the guide groove connecting frame 500, and the sliding guide rail 200 is provided with a skeleton 600, and the skeleton 600 is used for fixedly connecting the air conditioner; the self-locking structure 300 is arranged between the sliding guide groove 100 and the sliding guide rail 200 , the position of the sliding guide rail 200 relative to the sliding guide groove 100 can be locked; the side wall of the sliding guide groove 100 is provided with a pin hole a1200, the side wall of the sliding guide rail 200 is provided with a pin hole b1300, and the pin is inserted into the pin hole In the a1200 and the pin hole b1300, the position between the sliding guide groove 100 and the sliding guide rail 200 can be defined.

With this optional embodiment, when the air conditioner is fixed, the air conditioner has a certain space for moving up and down, and the sliding guide groove 100 and the sliding guide rail 200 are vertically arranged. The sliding guide rail 200 can slide up and down on the sliding guide groove 100, but it will form a restriction in the front and rear directions. After rising or falling to a certain position, the self-locking structure 300 can be used to lock the sliding guide groove 100 and the sliding guide rail 200. At the same time, use the pin 1100 to insert into the pin hole a1200 and the pin hole b1300 to lock the sliding guide groove 100 and the sliding guide rail 200 firmly. At the same time, when cleaning the air conditioner and disassembling the dust filter and other parts, you can conveniently and quickly operate the air conditioner at any time, providing convenience for users to use the air conditioner.

Optionally, one or more pin holes a1200 are provided, and the distance between them is fixed, evenly distributed along the side wall of the sliding guide groove 100, and one or more pin holes b1300 are also provided, And the distance between the two is fixed, evenly distributed along the side wall of the sliding guide rail 200 . With this optional embodiment, the height of the sliding guide rail 200 can be limited by the cooperation between the pin holes a1200 and the pin holes b1300, and the design of multiple pin holes a1200 and pin holes b1300 can reduce the distance between each lifting gradient. The distance makes it more accurate to adjust the height of the sliding guide groove 100.

Optionally, the pin hole a1200 runs through the entire sliding guide groove 100 , and the pin hole b1300 runs through the entire sliding guide rail 200 . With this optional embodiment, when the pin 1100 is inserted into the pin hole a1200 and the pin hole b1300, it can be inserted deeper to achieve an optimal fixing effect.

When assembling, directly insert the two sliding guide rails 200 from the open end of the upper end of the sliding guide groove 100, so that the entire sliding guide rail 200 can slide inside the sliding guide groove 100, and at this time, the framework 600 connected with the sliding guide rail 200 stretches outward Put the sliding guide rail 200 completely inside the sliding guide groove 100, make a one-to-one correspondence between the pin hole a1200 of the sliding guide groove 100 and the pin hole b1300 on the sliding guide rail 200, and then insert the pin 1100 into the pin hole a1200 and the pin hole b1300 Inside, the sliding guide groove 100 and the sliding guide rail 200 are fixed together, and then the self-locking structure 300 is combined and installed between the sliding guide rail 200 and the sliding guide groove 100 according to FIG.

When starting to use the device, first select a suitable location, and then use expansion wires or fixing screws to pass through the fixing holes 502 on the guide groove connector 500 to fix the guide groove connector 500 on the wall, so that the entire The device is fixed on the wall, and the finished air conditioner is fixed on the device through the frame 600. After installation, it is powered on for use; in the initial state, the self-locking structure 300 locks the device, and the sliding guide rail 200 and the sliding guide groove 100 are fixed. Together with the pin 1100, it provides upward support for the sliding guide rail 200. When the height of the air conditioner needs to be adjusted, first remove the pin 1100, and then control the self-locking structure 300 to unlock the device. Hold the air conditioner and control the rise or fall of the air conditioner. When the air conditioner rises or falls to a suitable position, select the nearest adjacent pin hole a1200 and pin hole b1300 to make them overlap, and then use the self-locking structure 300 to slide the The guide rail 200 and the sliding guide groove 100 are locked. After locking, the pin 1100 is introduced from the pin hole a1200 and the pin hole b1300 to further fix the sliding guide rail 200 and the sliding guide groove 100 .

Fig. 3 a shows another optional implementation structure of the sliding guide groove;

In this optional embodiment, the side walls of the sliding guide groove 100 are provided with pin holes a1200, one or more of the pin holes a1200 are provided, and the distance between any two of them is fixed.

Optionally, the pin hole a1200 runs through the entire sliding guide groove 100 .

Optionally, a pin hole a1200 is provided on the sliding guide groove 100 . With this optional embodiment, the position of the sliding guide rail 200 can be limited by matching one pin hole a1200 with multiple pin holes b1300.

Optionally, the sliding guide groove 100 is provided with a pin hole a1200, and the pin 1100 is provided with a limiting protrusion in the pin hole a1200. With this optional embodiment, the position of the sliding guide rail 200 can be limited by matching a plurality of pin holes b1300 with one pin hole a1200. At the same time, the pin 1100 can be restricted so that it cannot be completely drawn out of the pin hole a1200, which is convenient for fixing the pin 1100 and prevents the pin 1100 lost.

Fig. 3b shows another optional implementation structure of the sliding guide rail;

In this optional embodiment, the side walls of the sliding guide rail 200 are provided with pin holes b1300, one or more of the pin holes b1300 are provided, and the distance between any two of them is fixed. With this optional embodiment, the height of the sliding guide rail 200 can be limited by the cooperation between the pin holes a1200 and the pin holes b1300, and the design of multiple pin holes a1200 and pin holes b1300 can reduce the distance between each lifting gradient. The distance makes it more accurate to adjust the height of the sliding guide groove 100.

Optionally, the pin hole b1300 runs through the entire sliding guide rail 200 . With this optional embodiment, when the pin 1100 is inserted into the pin hole a1200 and the pin hole b1300, it can be inserted deeper to achieve an optimal fixing effect.

Optionally, different numbers of pin holes b1300 can be selected and preset during production on the sliding guide rail 200 according to different usage requirements. With this optional embodiment, the size of each lifting movement gradient can be controlled by controlling the number of pin holes b1300 according to the need.

Figure 3c shows an optional implementation structure of the pin;

In this optional embodiment, the pin 1100 is a cylindrical steel rod whose length is the same as the width of the sliding guide groove 100, and one end of the steel rod is provided with a stopper 1101, and the diameters of the pin hole a1200 and the pin hole b1300 are approximately is larger than the diameter of the pin 1100 , and the diameter of the blocking piece 1101 is larger than the diameters of the pin hole a1200 and the pin hole b1300 . Adopting this optional embodiment, firstly, it is ensured that the strength of the pin 1100 can bear the weight of the air conditioner to ensure safety; secondly, the size design of the pin 1100 and the size design of the pin hole a1200 and the pin hole b1300 facilitate the flexible insertion of the pin 1100 into Inside the pin hole a1200 and the pin hole b1300, at the same time, after being inserted, it can ensure that the pin 1100 will not shake up and down in the pin hole a1200 and the pin hole b1300, so as to increase the stability of the connection.

Optionally, the block 1101 on the pin 1100 is entirely made of magnets. With this optional embodiment, when the pin 1100 is completely inserted into the pin hole a1200 and the pin hole b1300, the blocking piece 1101 can be adsorbed on the sliding guide groove 100 to maintain a certain position-limiting effect on the pin 1100 and prevent the pin 1100 from Slips off on its own during use.

Optionally, a ring of magnets is embedded in the blocking piece 1101 on the pin 1100 near the end of the pin 1100 . With this optional embodiment, when the pin 1100 is completely inserted into the pin hole a1200 and the pin hole b1300, the blocking piece 1101 can be adsorbed on the sliding guide groove 100 to maintain a certain position-limiting effect on the pin 1100 and prevent the pin 1100 from Slips off on its own during use.

Optionally, the other end of the pin 1100 opposite to the end with the blocking piece 1101 is designed in a truncated cone shape. Adopting this optional embodiment, through the design of one end of the circular truncated cone and the other end, it is convenient for the pin 1100 to be inserted more smoothly from the pin hole a1200 to the pin hole b1300, and it is prevented when the pin hole a1200 and the pin hole b1300 are not neatly connected. A case where the insertion of the pin 1100 is difficult.

Fig. 4 shows another optional implementation structure of the fixing device for the air conditioner;

In this optional embodiment, the fixing device includes: a sliding guide groove 100, a sliding guide rail 200, a self-locking structure 300 and a telescopic cylinder 1400, the sliding guide rail 200 is limited to slide in the sliding guide groove 100, and the sliding guide groove 100 is fixedly connected with the guide groove connecting frame 500; the self-locking structure 300 is arranged between the sliding guide groove 100 and the sliding guide rail 200, and the position between the sliding guide groove 100 and the sliding guide rail 200 can be locked; the sliding guide rail 200 and the sliding guide rail 200 The telescopic cylinder 1400 is connected, and the sliding guide rail 200 can be driven to slide in the sliding guide groove 100 through the telescopic cylinder 1400 .

With this optional embodiment, the reciprocating motion of the telescopic cylinder 1400 can drive the sliding guide rail 200 to slide on the sliding guide groove 100 to realize the lifting of the air conditioner, so that when the user needs to clean the air conditioner or adjust the air volume and direction of the air conditioner When adjusting, the air conditioner can be directly raised and lowered, which is more convenient to use, and can prevent users from climbing up to increase safety.

Optionally, the telescopic cylinder 1400 includes a cylinder body 1401 and a telescopic end 1402 , and the telescopic end 1402 is fixedly connected to the sliding bracket 201 . With this optional embodiment, the telescopic end 1402 can directly drive the sliding bracket 201 to move, and then the sliding bracket 201 can drive the sliding guide rail 200 to move up and down. The transmission is more direct and saves time and effort.

Optionally, the cylinder body 1401 of the telescopic cylinder 1400 is connected with the sliding guide groove 100 through a bearing seat. With this optional embodiment, the telescopic cylinder 1400 and the sliding guide groove 100 can be connected together, so that the telescopic cylinder 1400 can drive the sliding guide rail 200 to move relative to the sliding guide groove 100 .

When assembling, directly insert the sliding guide rail 200 from the open end of the upper end of the sliding guide groove 100, so that the entire sliding guide rail 200 can slide inside the sliding guide groove 100, and at this time, the skeleton 600 connected with the sliding guide rail 200 protrudes outwards, Install the telescopic cylinder 1400 between the sliding guide rail 200 and the sliding guide groove 100 according to Figure 4, wherein the cylinder body 1401 of the telescopic cylinder 1400 is connected to the sliding guide groove 100, the telescopic end 1402 is connected to the sliding guide rail 200, and the self-locking structure 300 It is also assembled and installed between the sliding guide rail 200 and the sliding guide groove 100 according to FIG. 4 , and can be sold after the assembly is completed.

When starting to use the device, first select a suitable location, and then use expansion wires or fixing screws to pass through the fixing holes 502 on the guide groove connector 500 to fix the guide groove connector 500 on the wall, so that the entire The device is fixed on the wall, and the finished air conditioner is fixed on the device through the frame 600. After installation, it is powered on for use. In the initial state, the self-locking structure 300 locks the device, and the sliding guide rail 200 and the sliding guide groove 100 are fixed. The position between them provides upward support for the sliding guide rail 200. When the height of the air conditioner needs to be adjusted, the self-locking structure 300 unlocks the device, and then the telescopic cylinder 1400 provides power, and the telescopic end 1402 drives the sliding guide rail 200 to slide. Slide up or down in the guide groove 100, and after sliding to the designated position, the device will be locked again by the self-locking structure 300, and the work of the telescopic cylinder 1400 will be stopped at the same time, so that the position of the sliding guide rail 200 remains unchanged, and the adjustment of the air conditioner is completed. up and down.

Fig. 4a shows another optional implementation structure of the sliding guide rail;

In this optional embodiment, the sliding bracket 201 includes a main frame 201a and a movable rod 201b, the movable rod 201b and the sliding bracket 201 are connected by screws, and the sliding bracket 201 is provided with a row of The screw holes distributed along the length direction can adjust the position of the movable rod by fixing the movable rod in different screw holes with screws, and the telescopic end 1402 of the telescopic cylinder 1400 is fixedly connected with the movable rod 201b. Adopt this optional embodiment, can adjust the position of movable bar at any time, control telescoping end 1402 can drive sliding guide rail 200 to carry out the interval of lifting, thereby is convenient to choose the interval that can be lifted according to different installation positions, avoids causing air conditioner damage, increasing the adaptability of the device.

Optionally, the telescopic end 1402 of the telescopic cylinder 1400 is connected to the sliding support 201 through a fixed connection seat 1403, and the fixed connection seat 1403 and the telescopic end 1402 are connected by a screw, and the fixed connection seat 1403 and the sliding support 201 They are connected by a card slot, the card slot is set on the fixed connection seat 1403, and a screw hole is provided inside the card slot, the sliding bracket 201 is stuck inside the card slot, and fixed by screws, and the screws penetrate The sliding bracket 201 is screwed into the screw hole. With this optional embodiment, the telescopic end 1402 of the telescopic cylinder 1400 can be fixed on the sliding bracket 201 more conveniently and quickly, which is not only convenient for disassembly and installation, but also relatively firm.

Figure 4b shows an optional implementation of the telescopic cylinder;

In this alternative embodiment, the telescopic cylinder 1400 is powered by a hydraulic pump, and the hydraulic pump is built in the telescopic cylinder 1400 . By adopting this optional embodiment, the structure of the telescopic cylinder 1400 can be made more compact, the size of the whole device can be reduced, and the stability of the structure of the whole device can be improved.

Optionally, the telescopic end 1402 of the telescopic cylinder 1400 is a multi-stage telescopic rod. Adopting this optional embodiment, the sliding guide rail 200 can be moved to a wider range through multi-stage telescopic expansion, and then the length of the telescopic cylinder 1400 can be reduced while ensuring the same telescopic range, thereby reducing the volume of the telescopic cylinder 1400, which is convenient for the entire device. installation.

Optionally, the telescopic cylinder 1400 is an air cylinder, and the air conditioner's own compressor is used to provide power for the air cylinder. The intake end of the telescopic cylinder 1400 is connected to the air outlet end of the air conditioner compressor through a high-pressure insulation pipe, and the air outlet end of the telescopic cylinder 1400 is connected to the condenser of the air conditioner through a high-pressure insulation pipe, so that the high-pressure gas passes through the telescopic cylinder 1400 and is supplied to the telescopic cylinder. 1400 provides power. By adopting this optional embodiment, the telescopic cylinder 1400 is powered by the compressor of the air conditioner itself, and there is no need to equip the telescopic cylinder 1400 with a power system, which can minimize the volume of the device and facilitate installation and use.

Fig. 5 shows another optional implementation structure of the fixing device for the air conditioner;

In this optional embodiment, the fixing device includes: a sliding guide groove 100, a sliding guide rail 200, a self-locking structure 300 and a worm gear transmission structure 1500, the sliding guide rail 200 is limited to slide in the sliding guide groove 100, and the sliding guide rail 200 The groove 100 is fixedly connected with the guide groove connecting frame 500; the self-locking structure 300 is arranged between the sliding guide groove 100 and the sliding guide rail 200, and the position between the sliding guide groove 100 and the sliding guide rail 200 can be locked; the worm gear transmission structure 1500 includes a worm 1600, a worm wheel 1700 and a worm gear motor 1800, the worm 1600 is fixed on the sliding guide rail 200, the worm wheel 1700 is sleeved on the worm 1600, the worm wheel 1700 is connected with the sliding guide groove 100 through a worm seat 1702, the The worm gear 1700 is driven by the worm gear motor 1800 and can drive the sliding guide rail 200 to move up and down in the sliding guide groove 100 .

With this optional embodiment, the rotation of the worm wheel 1700 can drive the worm 1600 up and down, and then the sliding guide rail 200 can be driven up and down by the up and down of the worm 1600, so as to realize the up and down of the air conditioner. When the air volume and direction are adjusted, it is more convenient to use, can avoid the user’s climbing operation, and increases safety. At the same time, the worm wheel 1700 and the worm screw 1600 cooperate with the lifting, and they have a certain self-locking ability. It saves more effort when locking.

Optionally, the worm gear motor 1800 is fixed on the sliding guide groove 100 . Adopting this optional embodiment ensures that the worm gear motor 1800 is fixed, so that the position between the worm gear motor 1800 and the sliding guide groove 100 remains unchanged, stably provides power, and drives the sliding guide rail 200 to move up and down.

When assembling, directly insert the sliding guide rail 200 from the open end of the upper end of the sliding guide groove 100, so that the entire sliding guide rail 200 can slide inside the sliding guide groove 100, and at this time, the skeleton 600 connected with the sliding guide rail 200 protrudes outwards, Install the worm gear transmission structure 1500 between the sliding guide rail 200 and the sliding guide groove 100 according to Figure 5, and at the same time install the self-locking structure 300 between the sliding guide rail 200 and the sliding guide groove 100 according to Figure 5, and then complete the assembly. Sale.

When starting to use the device, first select a suitable location, and then use expansion wires or fixing screws to pass through the fixing holes 502 on the guide groove connector 500 to fix the guide groove connector 500 on the wall, so that the entire The device is fixed on the wall, and the finished air conditioner is fixed on the device through the frame 600. After installation, it is powered on for use. In the initial state, the self-locking structure 300 locks the device, and the sliding guide rail 200 and the sliding guide groove 100 are fixed. The position between them provides upward support for the sliding guide rail 200. When the height of the air conditioner needs to be adjusted, the self-locking structure 300 unlocks the device, and then the worm gear motor 1800 rotates to drive the worm gear 1700 to rotate. The structure provides screw force to the worm 1600, which drives the worm 1600 to move up or down in the worm wheel 1700, and then drives the sliding guide rail 200 to slide up or down in the sliding guide groove 100. After sliding to the designated position, the self-locking structure 300 The device is locked again, and the work of the worm gear transmission structure 1500 is stopped at the same time, so that the position of the sliding guide rail 200 remains unchanged, and the lifting of the air conditioner is adjusted.

Fig. 5a shows another optional implementation structure of the sliding guide rail;

In this optional embodiment, the fixing device further includes a sliding bracket 201 connected to the sliding guide rail 200 .

Optionally, the worm 1600 is welded on the sliding bracket 201, and one or more worms 1600 are provided. With this optional embodiment, one or more worms 1600 can drive the sliding bracket 201 up and down at the same time, which improves the stability of the device when going up and down.

Figure 5b shows an optional implementation structure of the worm gear transmission structure;

In this optional embodiment, the worm gear 1700 is connected with the motor gear 1801 through the transmission gear 1701, the motor gear 1801 is arranged on the worm gear motor 1800, and the worm gear 1702 is provided with a worm hole, and the worm gear 1700 and the transmission One side of the turbine seat 1702 corresponding to the connection point of the gear 1701 is provided with an open notch. In this optional embodiment, the worm 1600 runs through the entire worm seat 1702 , and the worm 1600 is limited by the worm seat 1702 , and the open notch facilitates the meshing between the transmission gear 1701 and the worm seat 1702 .

Optionally, the worm wheel 1700 is arranged inside the worm wheel 1702, and the worm wheel 1700 and the inner wall of the worm wheel 1702 are connected by a bearing 1703, the inner end of the bearing 1703 is connected with the worm wheel 1700, and the outer end of the bearing 1703 is connected with the worm wheel seat Connected, the worm wheel 1700 can rotate freely in the worm seat 1702. Adopting this optional embodiment, the worm wheel 1700 is restricted in position by the worm wheel seat, but it does not hinder the rotation of the worm wheel 1700 itself, making the rotation of the worm wheel 1700 more comfortable, thereby saving more labor when driving the worm 1600 up and down.

Optionally, the inner diameter of the bearing 1703 is larger than the diameter of the worm 1600 . With this alternative embodiment, when the worm 1600 passes through the bearing 1703, friction with the inner side of the bearing 1703 is avoided.

Optionally, the inner side of the worm wheel 1700 is a thread structure, and the outer side of the worm wheel 1700 is a gear structure. With this optional embodiment, the worm wheel 1700 itself is driven to rotate by the outer gear structure through engagement with the transmission gear 1701 , and the worm 1600 is driven to move up and down by the thread structure inside the worm wheel 1700 .

Fig. 6, Fig. 7, Fig. 8, Fig. 9 and Fig. 10 show a plurality of implementable structures of the air conditioner assembly structure with fixing device;

In an embodiment, an air conditioner is provided, including an indoor unit 001 and the fixing device 002 described in any one of the above optional embodiments, the indoor unit 001 is directly fixed and installed on the fixing device 002 .

With this optional embodiment, the two can be installed as a whole for direct sales and use. When in use, the fixing device 002 can be directly fixed on the wall, and no combination between the indoor unit 001 and the fixing device 002 is required. The installation process is more convenient and faster.

Figure 11 shows an optional embodiment of the method for controlling the lifting of the indoor unit of the air conditioner;

In this optional embodiment, a method for controlling the lifting and lowering of the indoor unit of an air conditioner is provided, and the method is used for controlling the automatic fixing device in any one of the foregoing embodiments.

Optionally, the method includes:

Step s101, the air conditioner obtains an adjustment instruction;

Step s102, the air conditioner releases the locking of the device by the self-locking structure according to the adjustment instruction;

Step s103, the air conditioner controls the sliding guide rail to move upward or downward in the sliding guide groove according to the adjustment instruction;

Step s104, after the sliding guide rail of the air conditioner moves to a designated position, control the sliding guide rail to stop sliding upward or downward;

Step s105, the self-locking structure of the air conditioner re-locks the device.

With this optional embodiment, the user can control the sliding guide rail of the device to slide upward or downward in the sliding guide groove by sending commands, and then drive the entire air conditioner to slide upward or downward, so as to conveniently and quickly control the lifting of the air conditioner , to bring convenience to the user when cleaning or adjusting the air conditioner.

Optionally, the method further includes controlling the lifting of the device by continuously receiving adjustment instructions, and stopping the lifting and self-locking the device after the instruction ends. Adopting this optional embodiment, it can cooperate with the adjusting remote control used by the user to control the work of the device by long pressing the up or down button of the remote control to drive the air conditioner to rise or fall, and to adjust the rise or fall of the remote control by stopping pressing. The down button is used to stop the work of the device, and the device is locked by the self-locking structure, which is convenient for the user to realize flexible and reliable lifting control.

Optionally, the method further includes controlling the lifting of the device by receiving an adjustment instruction once, and the lifting distance controlled by each adjustment instruction is fixed. With this optional embodiment, it can cooperate with the adjustment remote control used by the user to adjust the up or down button of the remote control by a single press, send an up or down command, control the device to work automatically, and drive the air conditioner to go up or down to a preset value. Stop working after a certain distance, and the device is locked by the self-locking structure, which is convenient for the user to precisely control the lifting distance.

Optionally, the method further includes controlling the device to lift up and down by a fixed distance by receiving an adjustment command once, controlling the device to continue to lift by receiving the adjustment command twice in a row, and then controlling the device to stop lifting by receiving the adjustment command once . With this optional embodiment, the remote control can be used with the user to adjust the up or down button of the remote control by a single press, and an up or down command is sent to control the automatic operation of the device to drive the air conditioner to go up or down to a preset value. Stop working after the distance, and it is locked by the self-locking structure, which is convenient for the user to accurately control the lifting distance. Single press the up or down button of the remote control to stop the device, and the device is locked by the self-locking structure, which is convenient for users to choose and use independently according to different adjustment requirements, increasing optionality and making it more humanized.

Optionally, the method further includes, when a single command is received to control the device to move up and down a fixed distance, the distance can be selected and controlled through different gears, and the distance of a single up and down movement can be controlled by selecting different distances. By adopting this optional embodiment, the lifting and lowering control of the device can be controlled more precisely, and different gears can be selected according to different needs, making it more convenient for the user to adjust the lifting and lowering.

Optionally, the method further includes, during the process of receiving instructions to control the lifting of the device, obtaining the position of the air conditioner installed on the device at any time, and judging that the lifting can continue according to the position, when it rises to the top or falls to the bottom When it is at the lower end, control the device to stop and continue to execute the command of rising or falling. Adopting this optional embodiment can prevent the device from continuing to work after the device rises or falls to the limit, causing damage to the device, increasing the self-protection ability of the device, facilitating use, and prolonging the service life.

Optionally, the method further includes, when the device receives an instruction to ascend or descend to a designated position and needs to be stopped, firstly stop the rotation of the transmission motor, keep the transmission motor stationary, and then use the self-locking structure to lock the device. Locking, after the locking is completed, a locking signal is generated, and then the drive motor is completely stopped at this time. Adopting this optional embodiment can ensure the stable operation of the device, prevent the air conditioner from falling due to the failure of the self-locking structure, and increase safety.

Figure 12 shows an optional embodiment of the method for controlling the movement of the indoor unit of the air conditioner;

In this optional embodiment, a movement adjustment method is provided, the method comprising:

Step s100, the air conditioner obtains an adjustment instruction;

Step s200, the air conditioner judges the adjustment command;

In step s300, the air conditioner controls the movable frame to go up and down or move back and forth.

With this optional embodiment, the user can control the air conditioner to move up and down and forward and backward by sending commands, so as to meet various requirements of the user when using the air conditioner, making the air conditioner more adjustable and more convenient for users to use.

Optionally, the method includes: after judging the adjustment instruction, forwarding directly to the control system corresponding to the instruction according to the content of the adjustment instruction.

Optionally, the method includes: after judging the adjustment instruction, generating a new instruction according to the content of the instruction, and sending it to a corresponding control system.

Optionally, the method includes:

Step s311, the air conditioner obtains a lift adjustment command;

Step s312, the air conditioner unlocks the device from the self-locking structure;

Step s313, the air conditioner controls the sliding guide rail to move upward or downward in the sliding guide groove;

Step s314, after the sliding guide rail moves to a designated position, the air conditioner controls the sliding guide rail to stop sliding upward or downward;

Step s315, the air conditioner controls the self-locking structure to re-lock the device.

With this optional embodiment, the user can control the sliding guide rail of the device to slide upward or downward in the sliding guide groove by sending commands, and then drive the entire air conditioner to slide upward or downward, so as to conveniently and quickly control the lifting of the air conditioner , to bring convenience to the user when cleaning or adjusting the air conditioner.

Optionally, the method further includes controlling the lifting of the device by continuously receiving the lifting adjustment command, and stopping the lifting and self-locking the device after the command ends. Adopting this optional embodiment, it can cooperate with the adjusting remote control used by the user to control the work of the device by long pressing the up or down button of the remote control to drive the air conditioner to rise or fall, and to adjust the rise or fall of the remote control by stopping pressing. The down button is used to stop the work of the device, and the device is locked by the self-locking structure, which is convenient for the user to realize flexible and reliable lifting control.

Optionally, the method further includes controlling the lifting of the device by receiving a lifting adjustment instruction once, and the lifting distance controlled by each lifting adjustment instruction is fixed. With this optional embodiment, it can cooperate with the adjustment remote control used by the user to adjust the up or down button of the remote control by a single press, send an up or down command, control the device to work automatically, and drive the air conditioner to go up or down to a preset value. Stop working after a certain distance, and the device is locked by the self-locking structure, which is convenient for the user to precisely control the lifting distance.

Optionally, the method further includes controlling the device to lift up and down by a fixed distance by receiving the lifting adjustment command once, controlling the device to continue to lift by receiving the lifting adjustment command twice in a row, and then controlling the device by receiving the lifting adjustment command once. The device stops lifting. With this optional embodiment, the remote control can be used with the user to adjust the up or down button of the remote control by a single press, and an up or down command is sent to control the automatic operation of the device to drive the air conditioner to go up or down to a preset value. Stop working after the distance, and it is locked by the self-locking structure, which is convenient for the user to accurately control the lifting distance. Single press the up or down button of the remote control to stop the device, and the device is locked by the self-locking structure, which is convenient for users to choose and use independently according to different adjustment requirements, increasing optionality and making it more humanized.

Optionally, the method includes:

Step s321, the air conditioner obtains a movement adjustment instruction;

In step s322, the air conditioner controls the movable skeleton to move back and forth on the skeleton running guide rail.

With this optional embodiment, the user can control the air conditioner to move back and forth by sending a movement command, and avoid some items placed on the lower side of the air conditioner by moving back and forth, so as to facilitate the adjustment, cleaning and maintenance of the air conditioner.

Optionally, the method further includes controlling the movement of the device by continuously receiving movement adjustment instructions, and stopping the movement after the instruction ends. Adopting this optional embodiment, it can cooperate with the user's adjusting remote control to control the work of the device by pressing and holding the forward or backward button of the remote control to drive the air conditioner to move forward or backward, and to adjust the remote control by stopping pressing The forward or backward button of the device can be used to stop the work of the device, which is convenient for the user to realize flexible and reliable mobile control.

Optionally, the method further includes controlling the movement of the device by receiving a movement adjustment instruction once, and the movement distance controlled by each movement adjustment instruction is fixed. Adopting this optional embodiment, it can cooperate with the adjusting remote control used by the user to adjust the forward or backward movement button of the remote control by single pressing, and transmit the forward or backward movement command to control the automatic operation of the device and drive the air conditioner to move forward. It stops working after moving or moving back a preset distance, which is convenient for users to precisely control the moving distance.

Optionally, the method further includes controlling the device to move a fixed distance by receiving a movement adjustment instruction once, controlling the device to move continuously by receiving the movement adjustment instruction twice in succession, and then controlling the device by receiving the movement adjustment instruction once. The device stops moving. With this optional embodiment, the remote controller can be used with the user to adjust the forward or backward movement button of the remote control by a single press, and the forward or backward movement command is sent to control the automatic operation of the device and drive the air conditioner to move forward. Or move back the preset distance and stop working, which is convenient for the user to accurately control the moving distance. At the same time, adjust the remote control through two consecutive presses to control the work of the device, continuously drive the air conditioner to move forward or backward, and then pass Single press the forward or backward button of the remote control to make the device stop working, which is convenient for users to choose and use independently according to different adjustment requirements, increasing optionality and being more humanized.

Optionally, the aforementioned apparatus for controlling an air conditioner may be implemented in a network-side server, or may also be implemented in a mobile terminal, or may be implemented in a dedicated control device.

In an optional embodiment, a computer-readable storage medium is provided, on which a computer program is stored, and when the computer program is executed by a processor, the method for controlling an air conditioner as described above is implemented. The above-mentioned computer-readable storage medium may be a read-only memory (Read Only Memory, ROM), a random access memory (Random Access Memory, RAM), a magnetic tape, an optical storage device, and the like.

In the optional embodiments disclosed herein, it should be understood that the disclosed methods and products (including but not limited to devices, equipment, etc.) can be implemented in other ways. For example, the device embodiments described above are only illustrative. For example, the division of the units is only a logical function division. In actual implementation, there may be other division methods. For example, multiple units or components can be combined or May be integrated into another system, or some features may be ignored, or not implemented. In another point, the mutual coupling or direct coupling or communication connection shown or discussed may be through some interfaces, and the indirect coupling or communication connection of devices or units may be in electrical, mechanical or other forms. The units described as separate components may or may not be physically separated, and the components displayed as units may or may not be physical units, that is, they may be located in one place, or may be distributed to multiple network units. Part or all of the units can be selected according to actual needs to achieve the purpose of the solution of this embodiment. In addition, each functional unit in each embodiment of the present invention may be integrated into one processing unit, each unit may exist separately physically, or two or more units may be integrated into one unit.

It should be understood that the present invention is not limited to the processes and structures that have been described above and shown in the accompanying drawings, and various modifications and changes can be made without departing from the scope thereof. The scope of the invention is limited only by the appended claims.

Claims (10)

1. A fixing device for an air conditioner, comprising: the device comprises a sliding guide groove, a sliding guide rail, a self-locking structure, a pin, a framework running guide rail and a movable framework; the sliding guide rail is limited to slide in the sliding guide rail, the sliding guide rail is fixedly connected with the guide rail connecting frame, a framework is arranged on the sliding guide rail and connected with the movable framework through a hinge, the movable framework can be used for connecting an air conditioner, the movable framework is arranged on the framework running guide rail, the framework running guide rail is arranged on the sliding guide rail, a framework transmission structure is arranged between the movable framework and the framework running guide rail and is configured to drive the movable framework to move back and forth on the framework running guide rail, the framework transmission structure comprises a running gear and a running motor, the running gear is fixed on the movable framework through a gear fixing seat, and the running gear is connected with the running motor; the self-locking structure is arranged between the sliding guide groove and the sliding guide rail and can lock the position of the sliding guide rail relative to the sliding guide groove; the side wall of the sliding guide groove is provided with a pin hole a, the side wall of the sliding guide rail is provided with a pin hole b, and the positions between the sliding guide groove and the sliding guide rail can be limited in the pin hole a and the pin hole b.

2. The fixing device according to claim 1, wherein the self-locking structure comprises a self-locking plate, self-locking teeth and a self-locking jacking structure, the self-locking plate is integrally a metal plate, the self-locking plate is provided with a saw-tooth structure, the self-locking teeth are arranged on the sliding guide groove and cooperate to realize self-locking of downward movement, the self-locking plate jacking structure comprises a self-locking motor and a jacking rod, the self-locking motor is fixedly arranged on the sliding guide rail, and the jacking rod is obliquely directed to the self-locking plate.

3. A fixing device according to claim 1, wherein the guide slot connecting frame comprises an integrally formed fixing connecting frame, and the fixing connecting frame is provided with fixing holes, and can be fixed on a wall through screws.

4. A fixing device according to claim 3, wherein one or more sliding guide grooves are welded to one or both sides of the fixing frame.

5. The fixture of claim 1, further comprising a sliding bracket coupled to the sliding rail.

6. A fixing device according to claim 5, wherein one or more sliding guide rails are welded to one or both sides of the sliding support.

7. A fixing device according to claim 1, wherein said pin holes a are provided in one or more pairs with a constant distance therebetween and uniformly distributed along the side wall of the sliding guide, and said pin holes b are provided in one or more pairs with a constant distance therebetween and uniformly distributed along the side wall of the sliding guide.

8. A fixing device according to claim 1, wherein the pin hole a extends through the entire sliding guide and the pin hole b extends through the entire sliding guide.

9. A fixing device according to any one of claims 1 to 8, wherein the pin is a cylindrical steel bar having the same length as the width of the sliding guide groove, and wherein one end of the steel bar is provided with a stopper, the diameters of the pin hole a and the pin hole b being larger than the diameters of the pin, and the diameters of the stopper being larger than the diameters of the pin hole a and the pin hole b.

10. An air conditioner comprising an indoor unit and further comprising the fixture of any one of claims 1 to 9, the indoor unit being fixedly mounted directly on the fixture.

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