MOUNTING SUPPORT FOR WINDOW TYPE AIR CONDITIONER AND WINDOW TYPE AIR CONDITIONER ASSEMBLY

Description

CROSS TO REFERENCE TO RELATED APPLICATIONS

This application is a continuation of International Application No. PCT/CN2024/085003 filed on Mar. 29, 2024, which claims priorities to Chinese Patent Applications Nos. 202310354717.5 and 202320728349.1 both filed on Mar. 31, 2023, the entire contents of each of which are incorporated herein by reference for all purposes. No new matter has been introduced.

FIELD

The present disclosure relates to the field of household appliances, and more particularly, to a mounting support for a window type air conditioner and a window type air conditioner.

BACKGROUND

In the related art, a window type air conditioner is fixed to a building wall by a mounting support. The window type air conditioner includes an indoor unit portion located at an inner side of the building wall and an outdoor unit portion located at an outer side of the building wall, and straddles the building wall in a saddle shape.

However, during mounting of the window type air conditioner, the outdoor unit portion is likely to get stuck with the mounting support, which is difficult to adjust, resulting in high mounting difficulty.

SUMMARY

The present disclosure aims to solve at least one of the technical problems in the related art. To this end, the present disclosure is to provide a mounting support for a window type air conditioner, which can reduce mounting difficulty of the window type air conditioner.

The present disclosure further provides a window type air conditioner assembly adopting the above mounting support.

In a first aspect, the mounting support of the window type air conditioner according to an embodiment of the present disclosure is provided. The mounting support for the window type air conditioner includes: a base frame assembly including a first connection portion adapted to be disposed at a window; and an outer frame assembly including an outer movement frame and an outer rotation frame, the outer movement frame including a second connection portion and a top support portion, the second connection portion being in a slip cooperation with the first connection portion to be movable relative to each other in an direction from inside to outside, the outer rotation frame being pivotally connected to an outer end of the second connection portion, and the top support portion being located at a top of the outer end of the second connection portion and being located at an inner side of the outer rotation frame.

With the mounting support of the window type air conditioner according to the embodiment of the present disclosure, the top support portion is disposed and located at the outer end of the second connection portion to support and guide the outdoor unit portion, which can avoid jamming between the outer rotation frame and the outdoor unit portion, improving mounting convenience of the window type air conditioner, and thus reducing the mounting difficulty and improving a mounting efficiency.

According to some embodiments of the present disclosure, the outer rotation frame includes a support wall, the outer rotation frame having a first end portion and a second end portion that are parts of the outer rotation frame located at two ends of the support wall, respectively, the first end portion being pivotally connected to the outer end of the second connection portion to allow the outer rotation frame to be rotatable between a first state in which the second end portion is raised and a second state in which the second end portion is lowered, the top support portion having an inner guide surface, and the inner guide surface obliquely and upwards extending in the direction from inside to outside to a top end of the top support portion, wherein, in the first state the support wall is laid flat to form a top wall of the outer rotation frame, the top end of the top support portion being flush with or higher than the support wall.

According to some embodiments of the present disclosure, the outer movement frame includes an outer support portion, the outer support portion having an upper end connected to the outer end of the second connection portion, the outer support portion being adapted to be disposed at an outdoor side and located at a side of the outer rotation frame close to an outer surface of a wall body, and a damping member being connected between the outer support portion and the outer rotation frame.

According to some embodiments of the present disclosure, the outer movement frame includes a plurality of outer support legs and a plurality of cushion blocks, each of the plurality of outer support legs including the second connection portion and an outer support portion, and each of the plurality of cushion blocks being mounted at each of the plurality of outer support legs to form the top support portion.

According to some embodiments of the present disclosure, the outer frame assembly further includes at least one of a first spacer, a second spacer, or a third spacer. The first spacer is disposed at the outer movement frame and located at a side of the outer support portion facing towards the outer rotation frame, and/or is disposed at the outer rotation frame and located at a side of the outer rotation frame facing towards the outer support portion. The second spacer is disposed at the outer movement frame and located at a side of a lower part of the outer support portion facing away from the outer rotation frame to be adapted to face towards the outer surface of the wall body. The third spacer is disposed at the outer movement frame and located at a side of an upper part of the outer support portion facing away from the outer rotation frame to be adapted to face towards the outer surface of the wall body or a windowsill.

According to some embodiments of the present disclosure, a first slide slot extending in the direction from inside to outside is defined at the first connection portion, a first guide hole extending in the direction from inside to outside being formed at a slot sidewall of the first slide slot, the second connection portion passing through the first slide slot, and the second connection portion being provided with a first guide shaft that passes through the first guide hole in a direction perpendicular to the direction from inside to outside.

According to some embodiments of the present disclosure, the base frame assembly includes an inner movement frame, the inner movement frame including an inner support portion, and the inner support portion being adapted to be disposed at an indoor side and located between an indoor unit portion of the window type air conditioner and an inner surface of a wall body.

According to some embodiments of the present disclosure, the inner movement frame includes the first connection portion, the inner support portion having an upper end connected to an inner end of the first connection portion, and the inner movement frame being in a slip cooperation with the outer movement frame.

According to some embodiments of the present disclosure, the first connection portion is arranged outside the second connection portion, a recess being defined at a top wall of the first connection portion, a first locking hole being defined at a bottom wall of the recess, a plurality of first cooperation holes that is arranged at intervals in the direction from inside to outside being defined at the second connection portion, and a first locking member being adapted to pass through the first locking hole and a first cooperation hole among the plurality of first cooperation holes corresponding to the first locking hole through the recess.

According to some embodiments of the present disclosure, the base frame assembly includes a third connection portion, and the inner movement frame includes a fourth connection portion, the inner support portion having an upper end connected to an inner end of the fourth connection portion, and the fourth connection portion being in a slip cooperation with the third connection portion to be movable relative to each other in the direction from inside to outside.

According to some embodiments of the present disclosure, the base frame assembly includes a heat insulating plate, an inner connection plate, and an outer connection plate, the inner connection plate and the outer connection plate both being enclosed in the heat insulating plate, the heat insulating plate being positioned between the inner connection plate and the outer connection plate to block the inner connection plate from the outer connection plate, the inner connection plate forming the third connection portion, and the outer connection plate forming the first connection portion.

According to some embodiments of the present disclosure, a second slide slot extending in the direction from inside to outside is defined at the third connection portion, a second guide hole extending in the direction from inside to outside being formed at a slot sidewall of the second slide slot, the fourth connection portion passing through the second slide slot, and the fourth connection portion being provided with a second guide shaft that passes through the second guide hole in a direction perpendicular to the direction from inside to outside. And/or an avoidance groove is defined at a top wall of the third connection portion, a second locking hole being defined at a bottom wall of the avoidance groove, a plurality of second cooperation holes that is arranged at intervals in the direction from inside to outside being defined at the fourth connection portion, and a second locking member being adapted to pass through the second locking hole and a second cooperation hole among the plurality of second cooperation holes corresponding to the second locking hole through the avoidance groove.

According to some embodiments of the present disclosure, the inner movement frame includes a plurality of inner support legs and at least one inner connection rod, each of the plurality of inner support legs including the inner support portion, and each of the at least one inner connection rod being connected to two adjacent inner support legs of the plurality of inner support legs.

According to some embodiments of the present disclosure, the base frame assembly further includes a fourth spacer and/or a fifth spacer. The fourth spacer is disposed at the inner movement frame and located at a side of the inner support portion facing towards the indoor unit portion of the window type air conditioner. The fifth spacer is disposed at the inner movement frame and located at a side of the inner support portion facing towards the inner surface of the wall body.

According to some embodiments of the present disclosure, the outer rotation frame is provided with an outer bottom support portion at the second end portion of the outer rotation frame, in the second state the support wall being placed vertically and the outer bottom support portion being adapted to extend away from an outer surface of the wall body for supporting a bottom of an outdoor unit portion of the window type air conditioner.

According to some embodiments of the present disclosure, the base frame assembly includes an inner bottom support portion, the inner bottom support portion being disposed at a lower end of the inner support portion and adapted to extend away from the inner surface of the wall body for supporting a bottom of the indoor unit portion of the window type air conditioner.

According to some embodiments of the present disclosure, the base frame assembly includes an inner rotation frame, the inner rotation frame being defined with the inner bottom support portion, the outer rotation frame having an end portion pivotally connected to the inner movement frame to allow the inner rotation frame to be rotatable between a third state and a fourth state. In the third state, the inner rotation frame is either held up and covers an outer side of the inner rotation frame or hangs below the inner movement frame. In the fourth state, the inner rotation frame is laid flat for supporting the bottom of the indoor unit portion of the window type air conditioner.

According to some embodiments of the present disclosure, the base frame assembly further includes a locking assembly configured to lock the inner rotation frame in the third state and/or the fourth state.

According to some embodiments of the present disclosure, the base frame assembly further includes an inner fixation structure, the inner fixation structure being disposed at the inner movement frame to move synchronously with the inner movement frame, and the inner fixation structure being configured to be connected to the window type air conditioner.

In a second aspect, the window type air conditioner assembly according to the embodiment of the present disclosure is provided. The window type air conditioner assembly includes: a window type air conditioner; and the mounting support according to the above embodiments. The window type air conditioner includes an outdoor unit portion adapted to be disposed at an outdoor side, an indoor unit portion adapted to be disposed at an indoor side, and a connection portion adapted to pass through the window and connected to the outdoor unit portion and the indoor unit portion, the connection portion having an outer end rotatably connected to an inner end of an upper part of the outer unit portion.

Additional aspects and advantages of the present disclosure will be provided at least in part in the following description, or will become apparent at least in part from the following description, or can be learned from practicing of the present disclosure.

BRIEF DESCRIPTION OF THE DRAWINGS

The above and/or additional aspects and advantages of the present disclosure will become more apparent and more understandable from the following description of embodiments taken in conjunction with the accompanying drawings.

FIG. 1 is a schematic view of a window type air conditioner according to an embodiment of the present disclosure.

FIG. 2 is a schematic view of a mounting support according to a first embodiment of the present disclosure.

FIG. 3 is an exploded schematic view of a mounting support according to a first embodiment of the present disclosure.

FIG. 4 is a schematic view of a mounting support according to a second embodiment of the present disclosure.

FIG. 5 is an exploded schematic view of a mounting support according to a second embodiment of the present disclosure.

FIG. 6 is a schematic view of a mounting support according to a third embodiment of the present disclosure.

FIG. 7 is an exploded schematic view of a mounting support according to a third embodiment of the present disclosure.

FIG. 8 is a schematic view of a mounting support according to a fourth embodiment of the present disclosure.

DETAILED DESCRIPTION OF THE EMBODIMENTS

Embodiments of the present disclosure will be described in detail below with reference to examples thereof as illustrated in the accompanying drawings, throughout which same or similar elements, or elements having same or similar functions, are denoted by same or similar reference numerals. The embodiments described below with reference to the drawings are illustrative only, and are intended to explain, rather than limiting, the embodiments of the present disclosure.

In the description of the present disclosure, it should be understood that, the orientation or the position indicated by terms such as “center,” “over,” “below,” “front,” “rear,” “left,” “right,” “vertical,” “horizontal,” “top,” “bottom,” “inner,” and “outer,” should be construed to refer to the orientation or the position as shown in the drawings, and is only for the convenience of describing the present disclosure and simplifying the description, rather than indicating or implying that the pointed device or element must have a specific orientation, or be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation of the present disclosure.

It should be noted that the terms “first” and “second” are only used for descriptive purposes, and cannot be understood as indicating or implying relative importance or implicitly indicating the number of indicated technical features. Therefore, the features associated with “first” and “second” may explicitly or implicitly include one or more of the features. Further, in the description of the present disclosure, unless otherwise specified, “plurality” means two or more.

A mounting support 100 for a window type air conditioner 1000 and a window type air conditioner assembly according to the embodiments of the present disclosure are described below with reference to FIG. 1 to FIG. 8.

As illustrated in FIG. 2, FIG. 4, FIG. 6, and FIG. 8, according to an embodiment in a first aspect of the present disclosure, the mounting support 100 for the window type air conditioner 1000 is provided. The mounting support 100 for the window type air conditioner 1000 includes a base frame assembly 10 and an outer frame assembly 20.

In the related art, an indoor unit portion 200 (i.e., an indoor unit of the window type air conditioner 1000) and an outdoor unit portion 300 (i.e., an outdoor unit of the window type air conditioner 1000) of the window type air conditioner 1000 are generally fixed to a windowsill by the mounting support 100. However, when a user is on a higher floor, after the outdoor unit portion 300 is lifted to the windowsill, moving from an inside of a window to an outside of the window has a difficult mounting operation, which is a high-altitude operation posing certain safety hazards.

The present disclosure provides the mounting support 100, which is capable of realizing outdoor mounting of the outdoor unit portion 300 indoors, and has low safety hazards and low operation difficulty.

The base frame assembly 10 includes a first connection portion 111 adapted to be disposed at a window. The base frame assembly 10 is configured to integrally fix the mounting support 100 to a wall body or an indoor space (e.g., an inner support portion 112 configured to be fixed to an indoor unit portion 200 and adapted to clamp the wall body with the outer frame assembly 20, and the first connection portion 111 configured to be connected to the outer frame assembly 20 are provided. Or, instead of the inner support portion 112, an inner abutment portion connected to the first connection portion 111 and supported at the window may be provided).

In some embodiments, the base frame assembly 10 may include the inner abutment portion connected to the first connection portion 111. In addition, the inner abutment portion is placed at the windowsill. The inner abutment portion may include a first rod and at least one second rod in telescopic cooperation with the first rod, such that two ends of the inner abutment portion are pressed against wall bodies on a left side and a right side of the windowsill, realizing fixation of the mounting support 100 on the window. In addition, based on different widths of the window, an extension length of the second rod from the first rod can also be adjusted to accommodate windows having different widths. In other embodiments, the base frame assembly 10 may include the inner support portion 112 disposed in the indoor space, and the inner support portion 112 is adapted to abut against an inner wall body. The inner support portion 112 has an upper end connected to the first connection portion 111, and a lower end extending away from the first connection portion 111 and supported at the inner wall body, to realize fixation of the mounting support 100 at the wall body.

The window type air conditioner 1000 according to the present disclosure is suitable for use at the window. A direction from inside to outside of the window (that is, a direction penetrating the window) is “longitudinal direction”, a width direction of the window is “horizontal direction”, and a height direction of the window is “vertical direction”. In short, when the window type air conditioner 1000 is in a use mode, the outdoor unit portion 300 is spaced apart from the indoor unit portion 200 in a direction from inside to outside. The indoor unit portion 200 is disposed at an indoor side for adjusting an indoor ambient temperature and the like. The outdoor unit portion 300 is disposed at an outdoor side for heat exchange with an outdoor environment. In other words, a height, up-down, top-bottom, and other directions of the present disclosure coincide with the height direction and the vertical direction of the window, while a width, left-right and other directions coincide with the width direction and the horizontal direction of the window.

As illustrated in FIG. 2 to FIG. 8, the outer frame assembly 20 includes an outer movement frame 21 and an outer rotation frame 22. The outer movement frame 21 is connected to the first connection portion 111 (or may be formed in one piece with the first connection portion). In addition, the outer movement frame 21 is adapted to be supported at the outer wall body. The outer movement frame 21 cooperates with the inner abutment portion or the outer movement frame 21 cooperates with the inner support portion 112 to realize the fixation of the mounting support 100 at the wall body.

The outer movement frame 21 includes a second connection portion 211 and a top support portion 215. The second connection portion 211 is in a slip cooperation with the first connection portion 111 to be movable relative to each other in a direction from inside to outside (for example, the first connection portion 111 extends into the second connection portion 211 or the second connection portion 211 extends into the first connection portion 111 to enable the second connection portion 211 to be in a slip cooperation with the first connection portion 111), in such a manner that a clamping width between the base frame assembly 10 and the outer frame assembly 20 can be adjusted, allowing that a safety support can be used for walls of different thicknesses.

The outer rotation frame 22 is pivotally connected to an outer end of the second connection portion 211 to be rotatable relative to the second connection portion 211 and is at least switchable between two positions to facilitate mounting of the window type air conditioner 100.

When the outdoor unit portion 300 of the window type air conditioner 1000 is pushed outwardly from the window, a bottom outer end of the outdoor unit portion 300 may fall under an action of its own gravity, or a stuck phenomenon between the outdoor unit portion 300 and the outer rotation frame 22 occurs due to a left end of the outdoor unit portion 300 being out of sync with a right end of the outdoor unit portion 300 during pushing out of the outdoor unit portion 300. The stuck phenomenon, that is, a dead center phenomenon in mechanical movement, causes the outdoor unit portion 300 to be stuck and difficult to move. Therefore, the outdoor unit portion 300 cannot be pushed out to a support wall 212, which affects mounting of the outdoor unit portion 300, increases mounting difficulty, and poses a mounting risk.

The present disclosure further provides the top support portion 215. The top support portion 215 is located at a top of the outer end of the second connection portion 211 and located at an inner side of the outer rotation frame 22.

Therefore, when the outdoor unit portion 300 is pushed to move towards the support wall 212, the outdoor unit portion 300 can be guided by the top support portion 215, and the outdoor unit portion 300 can be gradually supported by the top support portion 215, in such a manner that a bottom end of the outdoor unit portion 300 is always higher than a top end of the outdoor unit portion 300 in a process of pushing the outdoor unit portion 300 to the support wall 212. Therefore, an outer part of the bottom end of the outdoor unit portion 300 can be prevented from falling off. Thus, it can avoid the stuck or dead center phenomenon between the outdoor unit portion 300 and the outer rotation frame 22 (in the direction from inside to outside, a relative stuck phenomenon between the outer rotation frame 22 and a surface of the bottom end of the outdoor unit portion 300 in the inner-outer direction), reducing difficulty of assembly and improving an efficiency of assembly.

The top support portion 215 is disposed at the second connection portion 211, and located at the outer end of the second connection portion 211, in such a manner that after adjusting a relative position between the first connection portion 111 and the second connection portion 211, the top support portion 215 can move synchronously with the second connection portion 211, to enable the top support portion 215 to always provide guidance and support inside the outer rotation frame 22. In this way, the outdoor unit portion 300 and the outer rotation frame 22 can be effectively prevented from being stuck.

With the mounting support 100 of the window type air conditioner 1000 according to the embodiments of the present disclosure, by disposing the top support portion 215 and causing the top support portion 215 to be located at the outer end of the second connection portion 211 to support and guide the outdoor unit portion 300, it is possible to avoid occurrence of jamming between the outer rotation frame 22 and the outdoor unit portion 300 to improve mounting convenience of the window type air conditioner 1000, reducing mounting difficulty, and thus improving a mounting efficiency.

As illustrated in FIG. 1, the window type air conditioner 1000 includes an indoor unit portion 200, an outdoor unit portion 300, and a connection portion 400 connected to the indoor unit portion 200 and the outdoor unit portion 300. The connection portion 400 is constructed as a hollow structure. A power supply wiring harness, a control wiring harness, a condensate pipe, a refrigerant pipe, or the like of the outdoor unit portion 300 can pass through the connection portion 400 and can be invisible to an outside to improve aesthetics. During mounting, a locking structure can be disposed to fix the outdoor unit portion 300 and the connection portion 400. After moving the outdoor unit portion 300 under guidance and support of the top support portion 215 to above the outer rotation frame 22 in a first state, the locking structure is allowed to unlock the outdoor unit portion 300, enabling the outdoor unit portion 300 to synchronously pivot downwardly with the outer rotation frame 22 to abut against the outer movement frame 21 in a second state.

The outdoor unit portion 300 and the connection portion 400 are connected to each other by the locking structure. In this case, the outdoor unit portion 300 and the connection portion 400 are in a horizontal position. After assembly is completed, the outdoor unit portion 300 is turned downwardly to abut against the wall body, in this case the outdoor unit portion 300 is substantially perpendicular to the connection portion 400.

In some embodiments, the outer rotation frame 22 includes a support wall 22. The outer rotation frame 22 has a first end portion 213 and a second end portion 214 that are parts located at two ends of the support wall 22, respectively. The first end portion 213 is pivotally connected to the outer end of the second connection portion 211 to allow the outer rotation frame 22 to be rotatable between a first state in which the second end portion 214 is raised and a second state in which the second end portion 214 is lowered. In the first state, the outer rotation frame 22 is laid flat to support the outdoor unit portion 300. In the second state, the outer rotation frame 22 is placed vertically and configured to support the outdoor unit portion 300 together with a movement frame. The first state and the second state have an angle of preferably 90°.

A mounting process of the window type air conditioner 1000 at the windowsill is as follows: firstly, a clamping size between the base frame assembly 10 and the outer movement frame 21 is adjusted to correspond to a size of the wall body. The base frame assembly 10 is fixed at the windowsill (pressed against walls on two sides of the windowsill or supported at the inner wall body). Then, the outer movement frame 21 is placed at an outer wall body below the windowsill and the outdoor unit portion 300 is placed at the first connection portion 111 and can be pushed to the outer rotation frame 22 in the first state. Further, the outer rotation frame 22 is switched from the first state to the second state, which means that the mounting of the window type air conditioner 1000 at the windowsill is completed. When the window type air conditioner 100 is needed to be disassembled, the outer rotation frame 22 is switched from the second state to the first state and the outdoor unit portion 300 is moved to the indoor space to disassemble the mounting support 100.

The outer rotation frame 22 may define the rectangular frame. In the first state, the first end portion 213 and the second end portion 214 of the outer rotation frame 22 are substantially flush with an extension direction of the windowsill (in this case, the outer rotation frame 22 is placed horizontally and the support wall 212 is configured to support the outdoor unit portion 300) to facilitate moving out of the outdoor unit portion 300. In the second state, the second end portion 214 of the outer rotation frame 22 is located below (in this case, the outer rotation frame 22 is placed vertically, and the support wall 212 is attached to or accommodated at the outer movement frame 21), and the first end portion 213 of the outer rotation frame 22 is located above, such that the outer rotation frame 22 can drive the outdoor unit portion 300 to pivot below the windowsill to avoid covering the windowsill.

Horizontal placement and vertical placement defined in the present disclosure are relative concepts rather than absolute concepts. The horizontal placement should be understood as being parallel or substantially parallel to a horizontal plane. That is, there can be a small inclination angle with the horizontal plane. In this way, the outer rotation frame 22 can be attached to the second connection portion 211. The outdoor unit portion 300 can be smoothly moved to the outer rotation frame 22 from a position where the second connection portion 211 is. The horizontal plane can be a surface parallel to the windowsill. The vertical placement should be understood as being parallel to or having a small inclination angle with a vertical surface to allow the mounted outdoor unit portion 300 to be attached to the wall body, improving stability. The vertical surface can be one that is parallel to the wall body.

As illustrated in FIG. 2, the top support portion 215 is located at a top of the outer end of the second connection portion 211 and is located at an inner side of the first end portion 213. The top support portion 215 includes an inner guide surface a. The inner guide surface a obliquely and upwards extends to a top end of the top support portion 215 in the direction from inside to outside. In the first state the support wall 212 is laid flat to form a top wall of the outer rotation frame 22. The top end of the top support portion 215 is flush with or higher than the support wall 212.

Therefore, when the outdoor unit portion 300 is pushed to move towards the support wall 212, the outdoor unit portion 300 can be guided by the inner guide surface a, and the outdoor unit portion 300 can be gradually supported by the top support portion 215, in such a manner that the bottom end of the outdoor unit portion 300 is always higher than the top end of the outdoor unit portion 300 in the process of pushing the outdoor unit portion 300 to the support wall 212. Therefore, the outer part of the bottom end of the outdoor unit portion 300 can be prevented from falling down, such that the stuck or dead center phenomenon between the outdoor unit portion 300 and the outer rotation frame 22 (in the direction from inside to outside, a relative stuck phenomenon between a first end portion 213 of the outer rotation frame 22 and the surface of the bottom end of the outdoor unit portion 300 in the inner-outer direction) can be avoided, reducing the difficulty of assembly and improving the efficiency of assembly.

The top support portion 215 is disposed at the second connection portion 211, and the top support portion 215 is located at the outer end of the second connection portion 211. In this way, after adjusting the relative position between the first connection portion 111 and the second connection portion 211, the top support portion 215 can move synchronously with the second connection portion 211 to enable the top support portion 215 to always provide guidance and support inside the first end portion 213 of the outer rotation frame 22. In this way, the outdoor unit portion 300 and the first end portion 213 of the outer rotation frame 22 can be effectively prevented from being stuck.

According to some embodiments of the present disclosure, the outer movement frame 21 includes an outer support portion. The outer support portion has an upper end connected to the outer end of the second connection portion 211. The outer support portion is adapted to be disposed at an outdoor side and located at a side of the outer rotation frame 22 close to an outer surface of a wall body. A damping member 30 is connected between the outer support portion and the outer rotation frame 22.

A plurality of the first connection portion 111 and a plurality of the second connection portion 211 and a plurality of the outer support portion may be provided. The first connection portion 111 and the second connection portion 211 are arranged in groups. The plurality of outer support portions are connected to each other by the inner connection rod to form a rectangular frame structure. Each outer support portion has the upper end connected to the outer end of the second connection portion 211, and the lower end extending downwardly relative to the second connection portion 211. The outer support portion and the second connection portion 211 are both configured as a beam body structure and integrally formed, welded or fixed by a fastener (such as bolts). In addition, the outer support portion is supported at a side of an outer wall of the wall body to reliably support the outer rotation frame 22 in the second state and the outdoor unit portion 300.

By disposing the damping member 30 between the outer support portion and the outer rotation frame 22, when the outer rotation frame 22 is rotated to be in the second state by the damping member 30, resistance is provided to reduce a rotation speed of the outer rotation member to prevent the outdoor unit portion 300 from rotating too fast and falling.

The damping member 30 can be constructed as a gas strut or a hydraulic strut. The damping member 30 has an end fixed to the outer rotation frame 22 and another end fixed to the outer support portion. In the first state, the outer rotation frame 22 forms an angle (preferably) 90° with the outer support portion. In the second state, the rectangular frame defined by the outer rotation frame 22 is attached to the outer support portion. During transition from the first state to the second state, or from the second state to the first state, the outer rotation frame 22 rotates relative to the second connection portion 211. The damping member 30 can provide a cushioning force to reduce the rotation speed of the outer rotation, which can provide cushioning for the outer rotation frame 22 and the outdoor unit portion 300, preventing the outdoor unit portion 300 from excessive impact to avoid damage to the outdoor unit portion 300. In addition, noise during mounting is minimized, and the outdoor unit portion 300 can be prevented from falling, enhancing safety and reliability of a mounting process for the window type air conditioner 1000.

The damping member 30 is constructed as the gas strut and has a cylinder hingedly fixed to the outer support portion and a free end hingedly fixed to the outer rotation frame 22. In this way, through sliding of the strut within the cylinder, damping buffer during the switching between the first state and the second state is realized. The gas strut having an appropriate support force can be selected or a support force of the gas strut can be adjusted to match a weight of the outdoor unit portion 300, enhancing stability of the outer rotation frame 22 in a first position. Therefore, deformation of the outer rotation frame 22 in the first state under a weight of the outdoor unit during assembly, which can lead to falling of the outdoor unit portion 300, is avoided, further improving reliability of the assembly and effectively reducing safety hazards.

The damping member 30 according to the embodiments of the present disclosure is not limited in this regard. In other embodiments, the damping member 30 includes a fixation base and a sliding member, an elastic member. The sliding member is slidably engaged with the fixation base. One of the sliding member and the fixation base is rotatably connected to the outer support portion, and the other one of the sliding member and the fixation base is rotatably connected to the outer rotation frame 22. The elastic member is disposed between the fixation base and the sliding member to provide elastic resistance for the sliding member, to realize buffering of the outer rotation frame 22 through energy storage and energy storage release of the elastic member.

In some embodiments, the fixation base is rotatably arranged at the outer support portion, and the sliding member is connected to the outer rotation frame 22 by a rod-shaped member. Two ends of the rod-shaped member are connected to the sliding member and the outer rotation frame 22, respectively, to adjust an angle between the outer rotation frame 22 and the outer support portion through movement of the sliding member relative to the fixation base. A mechanical dead point is avoided through pivoting adaptability of the fixation base, improving convenience of angle adjustment between the outer rotation frame 22 and the outer support portion. In other embodiments, the fixation base is fixed at the outer rotation frame 22, and the sliding member is pivotally connected to the outer support portion by the rod-shaped member. Two ends of the rod-shaped member are hinged to the sliding member and the outer rotation frame 22, respectively, to adjust the angle between the outer rotation frame 22 and the outer support portion through movement of the sliding member relative to the fixation base. The mechanical dead point is avoided through pivoting adaptability of the rod-shaped member.

As in a first embodiment illustrated in FIG. 2 and FIG. 3, a cushion block may be formed as the top support portion 215. That is, the outer movement frame 21 includes a plurality of outer support legs and a plurality of cushion blocks. Each of the plurality of outer support legs includes the second connection portion 211 and an outer support portion. Each of the plurality of outer support legs is provided with a cushion block, such that the top support portion 215 is formed by the cushion block.

The plurality of outer support legs include a second connection portion 211 extending in a horizontal direction or a substantially horizontal direction and an outer support portion extending in a vertical direction or a substantially vertical direction. The second connection portion 211 is connected to the outer support portion by an angle of approximately 90°. The outer support portion is connected to an inner connection rod to form the rectangular frame structure, which can improve connection stability and reliability of the outer movement frame 21 and the first connection portion 111, and improve a supporting effect of the outdoor unit portion 300.

The cushion block may be disposed at the outer support leg. The cushion block may at least partially protrude from the outer support portion to buffer impact when the outdoor unit portion 300 and the rotation frame fall, reducing mounting noise, and avoiding shell deformation or even damage of the outdoor unit portion 300 after the outdoor unit portion 300 is greatly impacted. Also, the cushion block may extend in an up-down direction, and at least partially protrude from an upper end of the support portion to form the top support portion 215 for guiding and supporting the outdoor unit portion 300, which can also avoid the stuck phenomenon between the outdoor unit portion 300 and the rotation frame. In addition, the top support portion 215 is defined by the cushion block, which can reduce the assembly difficulty and improve the assembly efficiency.

As illustrated in FIG. 3 and FIG. 7, in some embodiments, the outer frame assembly 20 further includes at least one of a first spacer 216, a second spacer 217, or a third spacer 218.

The first spacer 216 is disposed at the outer movement frame 21 and located at a side of the outer support portion facing towards the outer rotation frame 22, and/or is disposed at the outer rotation frame 22 and located at a side of the outer rotation frame 22 facing towards the outer support portion.

The first spacer 216 may be formed as at least part of the cushion block, or may be separately disposed at a side of the outer support portion close to the outer rotation frame 22 when the outer rotation frame 22 is in the second state, or may be disposed at the side of the outer rotation frame 22 facing towards the outer support portion when the outer rotation frame 22 is in the second state. Further, the first spacer 216 may be disposed at both the outer rotation frame 22 and the outer support portion. The two first spacers 216 may be arranged opposite to each other when the outer rotation frame 22 is in the second state, to provide buffering for the outer rotation frame 22 and the outdoor unit portion 300 by the first spacer 216, which can effectively protect the outdoor unit portion 300, reduce mounting noise, and absorb vibrations generated during operation of the outdoor unit portion 300, reducing noise, and improving user experience of the window type air conditioner 1000.

The outer movement frame 21 is provided with the second spacer 217. The second spacer 217 is disposed at the outer movement frame 21 and located at a side of a lower part of the outer support portion facing away from the outer rotation frame 22 to be adapted to face towards the outer surface of the wall body. Therefore, the second spacer 217 can be disposed between the outer support portion and the wall body, to prevent a metal frame body part of the outer support portion from directly being in contact with the wall body and scratching or damaging the wall body. In addition, a friction force between the outer support portion and the wall body can be improved, improving fixation stability and reliability of the outer frame assembly 20 on the window.

The outer movement frame 21 may be provided with the third spacer 218. The third spacer 218 is disposed at the outer movement frame 21 and located at a side of an upper part of the outer support portion facing away from the outer rotation frame 22 to be adapted to face towards the outer surface of the wall body or a windowsill.

The third spacer 218 can be disposed between the outer support portion and the windowsill, to prevent the metal frame body part of the outer support portion from being directly in contact with the windowsill and to avoid scratching or damaging the windowsill. In addition, the friction force between the outer support portion and the windowsill can be improved, improving the fixation stability and reliability of the outer frame assembly 20 on the window.

The first spacer 216, the second spacer 217, and the third spacer 218 may be made of a rubber member or a rigid sponge member.

As illustrated in FIG. 3, according to some embodiments of the present disclosure, a first slide slot 1111 extending in the direction from inside to outside is defined at the first connection portion 111. A first guide hole 1112 extending in the direction from inside to outside is formed at a slot sidewall of the first slide slot 1111. The second connection portion 211 passes through the first slide slot 1111, and the second connection portion 211 is provided with a first guide shaft 2111 that passes through the first guide hole 1112 in a direction perpendicular to the direction from inside to outside.

The first connection portion 111 and the second connection portion 211 may have a sleeve structure. For example, the first connection portion 111 is configured as a U-shaped plate body or a tubular member, and correspondingly the second connection portion 211 is configured as another U-shaped plate body or tubular member, allowing the first connection portion 111 to be in telescopic engagement with the second connection portion 211. An inner cavity of the first connection portion 111 is formed as a first slide slot 1111. The second connection portion 211 has an inner end telescopically arranged at an outer end of the first connection portion 111, and another end connected to the outer support portion and pivotally engaged with the outer rotation frame 22 to enable an inner to outer length of a transitional connection part between the base assembly 10 and the outer frame assembly 20 formed by the first connection portion 111 and the second connection portion 211 to be adjustable.

A row of through-holes may be defined at the first connection portion 111 and/or the second connection portion 211. In addition, locking at any position is realized by a connection member (the connection member may be configured as a plug-in pin or have a structure such as an elastic pin that can selectively extend out of the through-holes). In this way, reliability and stability of length adjustment of the first connection portion 111 and the second connection portion 211 are improved. Or, a first guide hole 1112 is defined at the first slide slot 1111. The first guide shaft 2111 engaged with the first guide hole 1112 is disposed at the second connection portion 211. A locking member can be disposed at a free end of the first guide shaft 2111, in such a manner that after the relative position of the first connection portion 111 and the second connection portion 211 is adjusted to be appropriate, the locking member can be used to lock to realize length adjustment. In this way, a width of the mounting support 100 is adapted to a thickness of the wall body, and the first guide shaft 2111 can be used to limit, to prevent the second connection portion 211 from being disengaged from the first connection portion 111.

In an embodiment in which the base frame assembly 10 is provided with the inner support portion 112, the base frame assembly 10 may include an inner movement frame 11. The inner movement frame 11 includes an inner support portion 112. The inner support portion 112 is adapted to be disposed at an indoor side and located between an indoor unit portion 200 of the window type air conditioner 1000 and an inner surface of a wall body.

The inner support portion 112 may include a plurality of inner support legs. The inner support leg has an upper end connected to the first connection portion 111, and a lower end extending away from the first connection portion 111 and configured to support the inner surface of a wall body. The inner support leg may be configured as a square tube or a cylindrical tube, and has the upper end connected to the first connection portion 111, and the lower end extending away from the windowsill. In addition, the inner support leg may have the lower end provided with a first cooperation piece. The first cooperation piece is disposed at a side of the inner support leg facing towards the inner wall body and configured to be pressed against the inner wall body and to cooperate with the outer support portion to realize clamping and fixing of the mounting support 100 on the wall body. Each inner support leg is provided with the first cooperation piece to enable the inner support portion 112 to construct a multi-point or multi-surface press and fixation with the wall, which can enhance force stability and improve fixing stability of the mounting support 100 on the wall body.

The inner movement frame 11 includes a plurality of inner support legs and at least one inner connection rod. Each of the plurality of inner support legs includes the inner support portion 112. Each of the at least one inner connection rod is connected to two adjacent inner support legs of the plurality of inner support legs. The plurality of inner support legs are provided and arranged at intervals and opposite to each other in a width direction of the window. The inner connection rod can be disposed between adjacent inner support legs to allow a plurality of inner support portions 112 to be substantially configured as a frame structure having higher structural strength and better fixing stability.

An extension length of the inner support leg should be smaller than or equal to an extension length of the outer support leg, in such a manner that straddle stability of the mounting support 100 on the wall body can be improved.

The base frame assembly 10 further includes a fourth spacer 14 and/or a fifth spacer 15. The fourth spacer 14 is disposed at the inner movement frame 11 and located at a side of the inner support portion 112 facing towards the indoor unit portion 200 of the window type air conditioner 1000. The fifth spacer 15 is disposed at the inner movement frame 11 and located at a side of the inner support portion 112 facing towards the inner surface of the wall body.

The first cooperation piece may include a first adjusting screw and a fifth spacer 15 disposed at a head of the first adjusting screw. The fifth spacer 15 is pressed against the inner wall body. The first adjusting screw is threadedly engaged with the inner support leg. In addition, by adjusting a distance between the head and the inner support leg, the upper end and the lower end of the inner support leg have a same distance from the inner wall body, which can improve an abutment effect of the first cooperation piece. In addition, through a cushioning and abutment effect of the fifth spacer 15, noise can be also reduced during operation of the indoor unit portion. Also, elastic cushioning of a first buffer can dampen vibration impact of the indoor unit portion.

A structure of the first cooperation piece is not limited to this. In other embodiments, each of a plurality of first cooperation pieces has an end connected to the inner support leg corresponding to the first cooperation piece, and another end provided with a plate-shaped fifth spacer 15. An elastic member is arranged around each of the plurality of first cooperation pieces, and the first cooperation piece is slidably arranged at the inner support leg to elastically press against the inner wall body by the elastic member. In addition, during bearing a gravitational component of the indoor unit portion and balancing a force applied to the outdoor unit portion 300, the fifth spacer 15 can stably abut against the inner wall body, effectively fixing the mounting support 100 and the window type air conditioner 1000.

According to some embodiments of the present disclosure, the inner support leg is further provided with a second cooperation piece. At least one inner support leg is provided with the second cooperation piece. The second cooperation piece is adapted to abut against an outer side surface of the indoor unit portion 200.

Each inner support leg is provided with a first cooperation piece to improve a abutment effect of the inner movement frame 11 on the inner wall body. The second cooperation piece is disposed at a side of the inner support leg facing away from the inner wall body. The second cooperation piece is provided with the fourth spacer 14. The fourth spacer 14 is used for pressing against or abutting against a side surface of the indoor unit portion 200 facing towards the inner movement frame 11 or for pressing against a lower end surface of the indoor unit portion 200. On the one hand, a contact area between the indoor unit portion 200 and a rod-shaped metal piece such as the inner support leg is reduced, avoiding frequent scraping that can damage an appearance and paint finish of the indoor unit portion 200, and enhancing aesthetics of the indoor unit portion 200. On the other hand, secure and reliable fixation of the indoor unit portion 200 on the inner movement frame 11 can be ensured, and a balancing effect between the indoor unit portion 200 and the outdoor unit portion 300 is improved, which can reduce bending and torsional forces borne by the outer support portion, enhancing fixation stability of the window type air conditioner 1000.

The fourth spacer 14 is configured as a flexible member adapted to abut against the indoor unit portion 200. As a result, the fourth spacer 14 can flexibly abut against the indoor unit portion 200, which, on the one hand, can absorb vibration, cushion shock, improve operation noise of the indoor unit portion 200, and avoid beat vibration or vibration coupling phenomenon between the indoor unit portion 200 and surrounding components, effectively improving the user experience of the window type air conditioner 1000. On the other hand, fixing stability of the indoor unit portion 200 can be improved, the impact can be effectively cushioned, prolonging a service life of the indoor unit portion 200, and preventing a paint surface of the indoor unit portion 200 from falling off due to scratches to improve the aesthetics of the indoor unit portion 200.

As illustrated in FIG. 2 and FIG. 3, in a first embodiment, the inner movement frame 11 includes the first connection portion 111. The inner support portion 112 has an upper end connected to an inner end of the first connection portion 111. The inner movement frame 11 is in a slip cooperation with the outer movement frame 21.

Therefore, by adjusting a distance between the inner support portion 112 of the inner movement frame 11 and the outer support portion of the outer movement frame 21, it is possible to adapt to wall bodies having different thicknesses. The first connection portion 111 is in a slip cooperation with the second connection portion 211, which can realize distance adjustment between the inner support portion 112 and the outer support portion, and facilitate and simplify the distance adjustment between the inner support portion 112 and the outer support portion.

After adjusting the first connection portion 111 and the second connection portion 211 to suitable positions according to the embodiments of the present disclosure, the locking structure is used. The locking structure is not limited to a locking member on the first guide shaft 2111. In other embodiments, a locking assembly can be provided.

The first connection portion 111 is arranged outside the second connection portion 211. In addition, a recess 1113 is defined at a top wall of the first connection portion 111. A first locking hole 1114 is defined at a bottom wall of the recess 1113. A plurality of first cooperation holes 2112 that is arranged at intervals in the direction from inside to outside is defined at the second connection portion 211. A first locking member 40 is adapted to pass through the first locking hole 1114 and a first cooperation hole 2112 among the plurality of first cooperation holes 2112 corresponding to the first locking hole 1114 through the recess 1113.

Therefore, on the one hand, when the relative position between the first connection portion 111 and the second connection portion 211 is appropriate, the first connection portion 111 can be locked to the second connection portion 211 by the first locking member 40 passing through the first locking hole 1114 and any of the first cooperation holes 2112, which can improve relative position stability between the first connection portion 111 and the second connection portion 211, to enhance structural stability and reliability of the mounting support 100. On the other hand, by disposing the recess 1113, the first locking member 40 can be prevented from protruding from an upper surface of the first connection portion 111. On the premise of realizing locking of the first connection portion 111 and the second connection portion 211, the first locking member 40 can be prevented from scratching the outdoor unit portion 300 during pushing and pulling of the outdoor unit portion 300, prolonging the service life of the outdoor unit portion 300, and avoiding interference between the first locking member 40 and the outdoor unit portion 300 during mounting.

By disposing the recess 1113, the upper surface of the first connection portion 111 can be kept flush with a starting point of the inner guide surface a of the top support portion 215, and mounting convenience of the outdoor unit portion 300 can also be improved. Also, the outer end of the top supporting portion 215 can have an outer guide surface which can facilitate pull-back operation of the outdoor unit portion 300 when the outdoor unit portion 300 is disassembled, improving convenience of disassembling the window type air conditioner 1000.

As illustrated in FIG. 4, FIG. 5, and FIG. 8, in a second embodiment and a fourth embodiment, the base frame assembly 10 includes a third connection portion 12. The inner movement frame 11 includes a fourth connection portion 113. The inner support portion 112 has an upper end connected to an inner end of the fourth connection portion 113. The fourth connection portion 113 is in a slip cooperation with the third connection portion 12 to be movable relative to each other in the direction from inside to outside.

An upper surface of the third connection portion 12 and an upper surface of the fourth connection portion 113 are both configured as flat plate body structures. In addition, the third connection portion 12 is arranged around and engaged with the fourth connection portion 113, in such a manner that the fourth connection portion 113 is slidably disposed in the third connection portion 12. The first connection portion 111 is connected to the third connection portion 12, and the fourth connection portion 113 is connected to the inner support portion 112. Alternatively, the inner support portion 112 is connected to the fourth connection portion 113 by the first connection portion 111. The third connection portion 12 is connected to the second connection portion 211. In this way, by adjusting a position relationship between the third connection portion 12 and the fourth connection portion 113, a clamping width of the mounting support 100 can be adjusted, further improving the mounting convenience. In addition, the third connection portion 12 and the fourth connection portion 113 that are configured as the flat plate structures also facilitate push-pull operation of the outdoor unit portion 300, further improving the mounting convenience.

As illustrated in FIG. 4 and FIG. 8, the base frame assembly 10 further includes a heat insulating plate 13, an inner connection plate, and an outer connection plate. The inner connection plate and the outer connection plate both are enclosed in the heat insulating plate 13, and the heat insulating plate 13 is positioned between the inner connection plate and the outer connection plate to block the inner connection plate from the outer connection plate. The inner connection plate forms the third connection portion 12. The outer connection plate forms the first connection portion 111.

The inner connection plate is connected to the second connection portion 211. The outer connection plate is connected to the first connection portion 111. The inner connection plate is in a slip cooperation with the outer connection plate. A heat insulating member is arranged outside the inner connection plate or disposed between the inner connection plate and the outer connection plate. The heat insulation member can be constructed as a bridge-cut plate structure, and extends in a width direction of the windowsill to separate the outer connection plate and the second connection portion 211 from the windowsill, blocking and reducing heat transfer between the outer connection plate/the second connection portion 211 and the windowsill, and thus improving operation stability of the window type air conditioner 1000. In addition, by disposing the heat insulating plate 13 and an upper surface of the heat insulating plate 13 being constructed as a plane, sealing of the window can be facilitated to effectively separate the indoor space from an outdoor space, and a temperature adjustment effect of the window-type air conditioner 1000 in the indoor space can also be improved.

The structure of the heat insulating plate 13 as the bridge-cut plate means that a plurality of partitions can be disposed in the heat insulating plate 13 to define a plurality of micro chambers arranged at intervals inside the heat insulating plate 13, which can improve a heat insulation effect of the heat insulating plate 13, and allow the heat insulating plate 13 to have a higher structure strength, facilitating sealing of the window, and improving the sealing and heat insulation effect. The heat insulating plate 13 may be made of ABS material (Acrylonitrile Butadiene Styrene/acrylonitrile-butadiene-styrene copolymer), to reduce heat loss and improve a heat exchange effect of the window type air conditioner 1000 by the heat insulating member.

According to some embodiments of the present disclosure, a second slide slot 121 extending in the direction from inside to outside is defined at the third connection portion 12. A second guide hole 122 extending in the direction from inside to outside is formed at a slot sidewall of the second slide slot 121. The fourth connection portion 113 passes through the second slide slot 121, and the fourth connection portion 113 is provided with a second guide shaft 1131 that passes through the second guide hole 122 in a direction perpendicular to the direction from inside to outside. And/or an avoidance groove is defined at a top wall of the third connection portion 12. A second locking hole is defined at a bottom wall of the avoidance groove. A plurality of second cooperation holes that are arranged at intervals in the direction from inside to outside are defined at the fourth connection portion 113. A second locking member is adapted to pass through the second locking hole and a second cooperation hole among the plurality of second cooperation holes corresponding to the second locking hole through the avoidance groove.

As a result, sliding smoothness of the third connection portion 12 and the fourth connection portion 113 can be improved through cooperation of the second guide hole 122, the second slide slot 121, and the second guide shaft 1131, which facilitates and simplifies adjustment of internal and external dimensions of the mounting support 100. The stability and reliability of the mounting support 100 after the dimensions adjustment can be improved through locking cooperation of the second locking member with the second locking hole and the second cooperation hole.

As illustrated in FIG. 6 and FIG. 7, in a third embodiment of the present disclosure, the outer rotation frame 22 is provided with an outer bottom support portion 23 at the second end portion 214 of the outer rotation frame 22. In the second state the support wall 212 is placed vertically. The outer bottom support portion 23 is adapted to extend away from an outer surface of the wall body and is used for supporting a bottom of an outdoor unit portion 300 of the window type air conditioner 1000.

Therefore, through the outer bottom support portion 23 in the second state supporting the outdoor unit portion 300, fixation stability and reliability of the outdoor unit portion 300 on the mounting support 100 can be further improved.

As illustrated in FIG. 5, the base frame assembly 10 includes an inner bottom support portion 16. The inner bottom support portion 16 is disposed at a lower end of the inner support portion 112. The inner bottom support portion 16 is adapted to extend away from the inner surface of the wall body and is used for supporting a bottom of the indoor unit portion 200 of the window type air conditioner 1000.

Therefore, the indoor unit portion 200 is supported by the inner bottom support portion 16, and thus the fixation stability and reliability of the indoor unit portion 200 on the mounting support 100 can be further improved.

As illustrated in FIG. 5, the base frame assembly 10 includes an inner rotation frame. The inner rotation frame is defined with the inner bottom support portion 16. The inner rotation frame has an end portion pivotally connected to the inner movement frame 11 to allow the inner rotation frame to be rotatable between a third state and a fourth state. In the third state the inner rotation frame is either held up and covers an outer side of the inner rotation frame or hangs below the inner movement frame 11. In the fourth state the inner rotation frame is laid flat for supporting the bottom of the indoor unit portion 200 of the window type air conditioner 1000.

Therefore, the inner rotation frame can be switched between the third state and the fourth state. During mounting of the outdoor unit portion 300, the inner rotation frame is in the third state to avoid scratching by a mounter, improving mounting safety. During mounting of the indoor unit portion 200, the inner rotation frame is switched to the fourth state to improve the fixation stability and reliability of the indoor unit component after the mounting.

The base frame assembly 10 may further include a locking assembly configured to lock the inner rotation frame in the third state and/or the fourth state, which can avoid automatic switching of the inner rotation frame between the third state and the fourth state, improve stability and reliability of the inner rotation frame in the third state and the fourth state, and improve the mounting convenience and the mounting safety.

As illustrated in FIG. 8, in a fourth embodiment, the base frame assembly 10 further includes an inner fixation structure 17. The inner fixation structure 17 is disposed at the inner movement frame 11 to move synchronously with the inner movement frame 11. The inner fixation structure 17 is configured to be connected to the window type air conditioner 1000.

The inner fixation structure 17 includes a bottom plate and two guide plates located at two ends of the bottom plate. The two guide plates define a guide portion having an opening tapering in an outward direction. The bottom plate supports a back plate of the outdoor unit portion 300 during pushing of the outdoor unit portion 300. In addition, guided by the two guide plates, the outdoor unit portion 300 gradually moves to align with the outer rotation frame 22. In this way, the mounting convenience of the outdoor unit portion 300 is improved by the inner fixation structure 17. In addition, the inner fixation structure 17 can be configured to be connected to the indoor unit portion 200. In this way, fixation stability and reliability of the window type air conditioner 1000 can also be enhanced by the mounting support 100 while structure strength of the mounting support 100 can be improved.

As illustrated in FIG. 2 to FIG. 8, differences from the first embodiment to the fourth embodiment of the present disclosure will be described in detail.

From the first embodiment to the fourth embodiment, the top support portion 215 is disposed to guide and support the outdoor unit portion 300. The first spacer 216, the second spacer 217, the third spacer 218, the fourth spacer 14, the fifth spacer 15, the inner bottom support portion 16, the outer bottom support portion 23, or the like are also provided in the first embodiment to the fourth embodiment, which can achieve a same technical effect.

As illustrated in FIG. 2 and FIG. 3, in the first embodiment, the first connection portion 111 is directly slidably in cooperation with the second connection portion 211. In addition, the outer bottom support portion 23 is disposed below the outer support portion. As illustrated in FIG. 4 and FIG. 5, the second embodiment and the first embodiment have the following differences. By disposing the third connection portion 113 and the fourth connection portion 122, the fourth connection portion 122 is slidably in cooperation with the second connection portion 211, and the first connection portion 111 is slidably in cooperation with the third connection portion 113, which can realize the adjustment of internal and external dimensions. A placement platform of the heat insulating plate 13 is built by the third connection portion 113 and the fourth connection portion 122. Of course, in the first embodiment, the heat insulating plate 13 may be directly provided.

As illustrated in FIG. 6 and FIG. 7, in the third embodiment, a cooperation structure between the first connection portion 111 and the second connection portion 211 is the same as that in the first embodiment, except that in the third embodiment, the outer bottom support leg 23 is disposed at the outer rotation frame 22 instead of the outer movement frame 21. As illustrated in FIG. 8, in the fourth embodiment, the cooperation structure between the first connection portion 111 and the second connection portion 211 is the same as that in the second embodiment, in which the heat insulating plate 13 is also provided, except that in the fourth embodiment, the outer bottom support leg 23 is disposed at the outer rotation frame 22, and the inner fixation structure 17 is further disposed at the inner movement frame 11.

A window type air conditioner assembly according to an embodiment of a second aspect of the present disclosure includes a window type air conditioner 1000 and the mounting support 100 according to the above embodiments. The window type air conditioner 1000 includes an outdoor unit portion 300 adapted to be disposed at an outdoor side, an indoor unit portion 200 adapted to be disposed at an indoor side, and a connection portion 400 adapted to be pass through a window and connected to the outdoor unit portion 300 and the indoor unit portion 200. The connection portion 400 has an outer end rotatably connected to an inner end of an upper part of the outer unit portion 300.

With the window type air conditioner assembly according to the embodiments of the present disclosure, by adopting the above mounting support 100, mounting difficulty of the window type air conditioner 1000 can be reduced, the mounting convenience of the window type air conditioner 1000 can be improved, and potential safety hazards can be reduced.

Reference throughout this specification to “an embodiment,” “some embodiments,” “illustrative embodiments,” “an example,” “a specific example,” or “some examples” means that a particular feature, structure, material, or characteristic described in connection with the embodiment or example is included in at least one embodiment or example of the present disclosure. The appearances of the above phrases in various places throughout this specification are not necessarily referring to the same embodiment or example. Further, the particular features, structures, materials, or characteristics may be combined in any suitable manner in one or more embodiments or examples.

Although embodiments of the present disclosure have been illustrated and described, it is conceivable for those skilled in the art that various changes, modifications, replacements, and variations can be made to these embodiments without departing from the principles and spirit of the present disclosure. The scope of the present disclosure shall be defined by the claims as appended and their equivalents.