An ultra-low energy consumption side pressure type sliding door and window

Abstract

The utility model discloses a kind of ultra-low energy consumption side pressure type sliding door and window, including outer frame, mullion, opening fan and fixed fan;The outer frame and mullion are all including inner section bar and outer section bar assembly;The inner section bar and outer section bar assembly are connected by first heat insulation and heat preservation structure;The outer section bar assembly includes outer plate and outer section bar;The outer plate is connected with outer section bar by second heat insulation and heat preservation structure;The two sides of the junction of the outer plate and outer section bar are coextruded with the heat preservation layer of the second heat insulation and heat preservation structure.The ultra-low energy consumption side pressure type sliding door and window of the utility model, first and second thermal bridge or cold bridge isolation zone are constructed in its outer frame, first thermal bridge or cold bridge isolation zone is constructed in the outermost of window body effective sealing structure, and coextruded with heat preservation layer, heat preservation layer is filled with polyurethane heat preservation material in first broken bridge and first broken bridge cavity, can block 99% or more thermal effect of outside to fixed fan and fixed bright window transmission.

Description

Technical Field

[0001] This utility model relates to the field of sliding door and window technology, and in particular to an ultra-low energy consumption side-pressure sliding door and window. Background Technology

[0002] Sliding doors and windows have advantages such as taking up little indoor space, flexible opening, wide view, and high light transmission rate, and are widely used.

[0003] Existing sliding doors and windows mostly use contact-type sealing for their movable sashes. One method utilizes a U-shaped structure formed by the two semi-enclosed arms of the sash, with rubber strips at the ends of the two arms or at the bottom of the frame. The sash contacts the bottom of the frame profile to achieve a seal. Another method uses rubber strips or weatherstripping at the inner ends of the two arms of the U-shape, with raised profiles on the frame corresponding to the U-shape. This creates a mortise and tenon joint between the U-shape of the sash and the raised profiles on the frame, with the rubber strips or weatherstripping contacting the sides of the raised profiles to create a seal. However, errors can occur during processing and installation, affecting airtightness. Furthermore, the top and bottom of the movable sash in existing sliding doors and windows also rely on weatherstripping or rubber strips to seal against the upper or lower rail. When the sash profile contacts the upper or lower rail, airstop blocks are needed to prevent air leakage. Currently, there are processing and installation errors in the manufacturing and airstop block installation processes of sliding doors and windows.

[0004] Due to the reasons mentioned above, the highest air tightness level of existing sliding doors and windows is level six, which does not meet the requirement that the air tightness of exterior windows in mid- and high-rise residential buildings should not be lower than level seven, thus limiting their application scenarios. Furthermore, because the thermal break structure of existing sliding doors and windows is designed in the middle of the window frame, the thermal (cold) bridge effect affects the K value of the entire door and window, and its K value is generally greater than 2.0 or higher.

[0005] Therefore, it is essential to provide an ultra-low energy consumption sliding door and window to address the issues of insufficient airtightness (level 7), high thermal insulation performance (K-value), and failure to meet the requirements of high-quality green building and "good house" standards in this technical field. Utility Model Content

[0006] The purpose of this invention is to address the shortcomings of existing technologies by proposing an ultra-low energy consumption side-pressure sliding door and window.

[0007] The technical solution of this utility model is: an ultra-low energy consumption side-pressure sliding door and window, including an outer frame, a mullion, an operable sash, and a fixed mullion sash; both the outer frame and the mullion include an inner profile and an outer profile assembly; the inner profile and the outer profile assembly are connected by a first thermal insulation structure; the outer profile assembly includes an outer panel and an outer profile; the outer panel and the outer profile are connected by a second thermal insulation structure; and the thermal insulation layer of the second thermal insulation structure is co-extruded on both sides of the connection between the outer panel and the outer profile.

[0008] Both the openable and fixed fans are composed of fan beam profiles, fan hook profiles, and glass; the fan beam profile includes a first outer panel, a first profile, and a first inner panel; the first outer panel and the first inner panel are connected to the first profile through a thermal break structure; both sides of the first outer panel are co-extruded with an insulation layer covering the thermal break structure; one side of the first inner panel is co-extruded with an insulation layer covering a second thermal insulation structure, and the other side is provided with a glass fan pressure line profile.

[0009] The opening fan hook profile includes a second outer plate, a second profile, and a second inner plate; the second outer plate and the second inner plate are connected to the second profile through a thermal break structure; both sides of the second outer plate are co-extruded with an insulation layer covering the thermal break structure; one side of the second inner plate is co-extruded with an insulation layer covering the thermal break structure, and the other side is provided with a glass fan pressure line profile; a cap is provided between one end of the second outer plate and the second inner plate.

[0010] The fixed fan hook profile includes a third outer plate and a third profile; the third outer plate and the third profile are connected by a thermal break structure; the two sides of the third outer plate are co-extruded with an insulation layer covering the thermal break structure; and a glass fan pressure line profile is provided on one side of the third profile.

[0011] The bottom of the mullion and the top of the bottom outer frame are respectively fitted with an upper rail and a lower rail; the bottom of the lower rail is provided with a supporting load-bearing arm, and the two sides of the lower rail are provided with baffles; one end of the fan beam profile is provided with a sealing strip that contacts the baffle on the side opposite to the glass fan pressure line profile; the upper rail is n-shaped, and the other end of the fan beam profile is provided with a sealing strip that contacts the upper rail.

[0012] Both the outer frame and the middle mullion are equipped with fan baffle pressure lines; the ends of the fan baffle pressure lines are fitted with sealing strips that seal with the open fan.

[0013] Both the outer frame and the mullion are provided with glass fixing strips; the glass fixing strips have assembly feet and sealing round bar rubber strips.

[0014] The outer frame corresponding to the opening fan is provided with a locking point profile; the locking point profile has two assembly feet, a screw fixing line and a sealing cover; a variable track locking point is installed inside the locking point profile and the two adjacent locking points are covered by a sealing cover; a transmission rod channel profile is provided at the locking point position of the opening fan; the transmission rod channel profile has a convex C-shaped groove.

[0015] The second profile of the openable fan hook profile has a locking hook mounting slot; the locking hook mounting slot is provided with a retractable variable track hook lock.

[0016] The opening fan is equipped with a hardware system; the hardware system includes a first transmission component, a second transmission component, a third transmission component, a fourth transmission component, and a fifth transmission component; the first and fourth transmission components are connected via an upper left corner joint; the third and fifth transmission components are connected to the second transmission component via lower right and lower left corner joints, respectively; the first transmission component includes upper guide wheels located at both ends of the top of the opening fan, with a transmission flat bar between the two upper guide wheels; both upper guide wheels are connected to the transmission flat bar via displacement linkages, and the upper left upper guide wheel is also connected to the upper left corner joint via a displacement linkage; the second transmission component includes lower guide wheels located at both ends of the bottom of the opening fan; a transmission flat bar is located between the two lower guide wheels, and the lower left lower guide wheel... The lower right track-changing wheel is connected to the transmission flat bar and the lower left corner mechanism via displacement connecting rods. The lower right track-changing wheel is connected to the transmission flat bar and the lower right corner mechanism via displacement connecting rods. The third transmission assembly includes track-changing hook locks located at both ends of the right side of the opening fan. A transmission flat bar is provided between the two track-changing hook locks, and both track-changing hook locks are connected to the transmission flat bar via displacement connecting rods. The track-changing hook lock located at the lower right is also connected to the lower right corner mechanism via the transmission flat bar. The fourth transmission assembly includes an upper mushroom head locking point and a lock box. One end of the upper mushroom head locking point is connected to the upper left corner mechanism via the transmission flat bar, and the other end is connected to the lock box via the transmission flat bar. The fifth transmission assembly includes a lower mushroom head locking point. One end of the lower mushroom head locking point is connected to the lower left corner mechanism via the transmission flat bar, and the other end is connected to the lock box via the transmission flat bar.

[0017] The above technical solution has the following beneficial effects: (1) The ultra-low energy consumption side-pressure sliding door and window of this utility model has first and second thermal bridge or cold bridge isolation zones constructed in its outer frame. The first thermal bridge or cold bridge isolation zone is constructed at the outermost edge of the effective sealing structure of the window and is co-extruded with a heat insulation layer. The heat insulation layer, combined with the first broken bridge and the polyurethane heat insulation material filled in the cavity of the first broken bridge, can block more than 99% of the external thermal bridge effect from being transmitted to the fixed sash and fixed bright window.

[0018] (2) The second thermal bridge effect isolation zone of this utility model is constructed with a double thermal break structure on the inner wall of the outermost edge of the movable fan or fixed fan profile and a micro-foamed plastic layer with a thickness of ≥3.5mm co-extruded. The plastic co-extruded layer combined with the first and second thermal insulation structures can block more than 99% of the thermal bridge effect from the outside to be transmitted to the movable fan.

[0019] (3) The opening sash and the fixed sash of this utility model are located at the outermost edge of the thermal break structure, which can significantly improve the heat insulation performance of the whole door and window, reduce the U value of the whole window, and make the U value of the whole window less than or equal to 1.0, thereby achieving the purpose of ultra-low energy consumption.

[0020] (4) The opening fan of this utility model adopts a two-seal system. The first sealing system is located on the outside of the opening fan and is formed by the sealing strips on the pressure lines of the four fan baffles. The second sealing system is formed by the sealing strips in the support arms above, below and to the left of the opening fan and the sealing strips on the groove cover profile.

[0021] (4) When the opening fan of this utility model is locked, the rubber strips of the four parts are squeezed against the inner side of the upper rail, lower rail, locking point profile and fixed fan hook profile.

[0022] (5) The opening sash of this utility model adopts a "variable track hardware system". When the handle of the opening sash is operated, the handle drives the lock box, the lock box drives the transmission flat bar, the locking point enters the variable track lock, the upper and lower wheel displacement linkage, the upper and lower variable track pulleys, the variable track hook lock and other components are squeezed inward through the "S" shaped variable track track. The opening sash of the door and window is tightly squeezed on the first and second sealing strips, which promotes the transformation and upgrading of traditional sliding doors and windows from "contact" sealing structure to "side pressure" sealing structure. This utility model can completely change the technical problem that the air tightness of sliding doors and windows cannot reach level seven, which limits the application scenarios of high-rise buildings. Attached Figure Description

[0023] To make the contents of this utility model easier to understand, the present utility model will be further described in detail below with reference to specific embodiments and accompanying drawings.

[0024] Figure 1 This is a schematic diagram of the structure of this utility model.

[0025] Figure 2 This is a cross-sectional view of the outer frame of this utility model.

[0026] Figure 3 This is a cross-sectional view of the mullion in this utility model.

[0027] Figure 4 This is a cross-sectional view of the fan-shaped profile of this utility model.

[0028] Figure 5 This is a cross-sectional view of the fan hook profile of the opening fan of this utility model.

[0029] Figure 6 This is a cross-sectional view of the fan hook profile of the fixed fan of this utility model.

[0030] Figure 7 This is a cross-sectional view of the lower rail and the fan baffle pressure line of this utility model.

[0031] Figure 8 This is a cross-sectional view of the upper rail of this utility model.

[0032] Figure 9 This is a schematic diagram of the installation structure of the rail-changing hook lock of this utility model.

[0033] Figure 10 This is a diagram showing the state of the opening fan of this utility model when it is open.

[0034] Figure 11 This is a cross-sectional view of the locking point profile of this utility model.

[0035] Figure 12 This is a cross-sectional view of the glass fixing strip of this utility model.

[0036] Figure 13 This is a schematic diagram of the fixed fan installation structure of this utility model.

[0037] Figure 14 This is a schematic diagram of the hardware system of this utility model.

[0038] Figure 15 This is a diagram showing the state of the lock when the fan is open.

[0039] Figure 16 This is a diagram showing the state of the opening fan of this utility model from another direction when it is open.

[0040] Figure 17 This is a structural schematic diagram of Embodiment 2 of the present invention.

[0041] The labels in the attached diagram are:

[0042] 1. Outer frame; 2. Mullion; 3. Opening sash; 4. Fixed sash; 5. Inner profile; 6. Outer profile assembly; 6-1 outer panel; 6-2 outer panel; 6-3 outer profile; 7. First thermal insulation structure; 8. Second thermal insulation structure; 9. Fan light profile; 9. First outer panel; 9-1 first profile; 9-2 first inner panel; 9-3 glass fan pressure line profile; 10. Second outer panel; 11-1 second profile; 11-2 second inner panel; 11-3 cover; 11-4 third outer panel; 12-1 third... Profile 12-2, Upper rail 13, Lower rail 14, Fan baffle pressure line 15, Solid glass pressure strip 16, Locking point profile 17, Sealing cover 18, Hardware system 19, First transmission assembly 19-1, Second transmission assembly 19-2, Third transmission assembly 19-3, Fourth transmission assembly 19-4, Fifth transmission assembly 19-5, Upper left corner bracket 19-6, Lower right corner bracket 19-7, Lower left corner bracket 19-8, Transmission rod channel profile 20, Rail change hook lock 21. Detailed Implementation

[0043] (Example 1)

[0044] See Figures 1 to 16This embodiment of an ultra-low energy consumption side-pressure sliding door and window includes an outer frame 1, a mullion 2, an operable sash 3, and a fixed sash 4. Both the outer frame 1 and the mullion 2 include an inner profile 5 and an outer profile assembly 6. The inner profile 5 and the outer profile assembly 6 are connected by a first thermal insulation structure 7. The outer profile assembly 6 includes an outer panel and an outer profile 6-3. The outer profile 6-3 of the outer frame 1 and the mullion 2 have the same structure, but different outer panel structures. The outer panel of the outer frame 1 is designated as outer panel 6-1, and the outer panel of the mullion 2 is designated as outer panel 6-2. The outer panel and the outer profile 6-3 are connected by a second thermal insulation structure 8. Both sides of the connection between the outer panel and the outer profile 6-3 are co-extruded with an insulation layer covering the second thermal insulation structure 8. The first thermal insulation structure 7 includes two C-shaped first thermal insulation strips, which together with the inner profile 5 and the outer profile assembly 6 form a thermal insulation cavity; the thermal insulation cavity is filled with porous thermal insulation filler. The second thermal insulation structure 8 includes two second thermal insulation strips, which together with the outer surface and the outer profile 6-3 also form a thermal insulation cavity, which is also filled with porous thermal insulation filler. The insulation layer is a PVC plastic co-extruded layer with a thickness of ≥3.5mm. The porous insulation material is used to prevent heat radiation from the cavity from being conducted to the center of the window, which can significantly improve the thermal insulation and sound insulation performance of the doors and windows.

[0045] Furthermore, both the openable fan 3 and the fixed fan 4 are composed of fan beam profile 9, fan hook profile, and glass; the fan beam profile 9 includes a first outer plate 9-1, a first profile 9-2, and a first inner plate 9-3; the first outer plate 9-1 and the first inner plate 9-3 are connected to the first profile 9-2 through a thermal break structure; both sides of the first outer plate 9-1 are co-extruded with a thermal insulation layer covering the thermal break structure; one side of the first inner plate 9-3 is co-extruded with a thermal insulation layer covering the thermal break structure, and the other side is provided with a glass fan pressure line profile 10. The first outer panel 9-1, the first inner panel 9-3, and the first profile 9-2 are each provided with multiple dovetail grooves for co-extruded insulation layers. These insulation layers have sealing strip grooves, corner flattening steel sheet grooves, and functional grooves. The first profile 9-2 also has functional grooves for assembling the hardware system 19 and transmission components. One end of the glass fan profile 10 has a round bar groove for sealing, with a heat-preventing wrap-around sealing strip installed inside. The other end has a sealing strip in contact with the glass. The fan-shaped profile 9 of this embodiment has multiple thermal breaks and an aluminum-plastic co-extruded layer (thermal conductivity 0.14), which can block more than 99% of external heat transfer to the interior, prevent the constant-temperature air from being conducted to the outside, and prevent condensation.

[0046] Furthermore, the fan hook profile of the opening fan 3 includes a second outer plate 11-1, a second profile 11-2, and a second inner plate 11-3; both the second outer plate 11-1 and the second inner plate 11-3 are connected to the second profile 11-2 via a thermal break structure; both sides of the second outer plate 11-1 are co-extruded with an insulation layer covering the thermal break structure; one side of the second inner plate 11-3 is co-extruded with an insulation layer covering the thermal break structure, and the other side is provided with a glass fan pressure line profile 10; a cap 11-4 is provided between one end of the second outer plate 11-1 and the second inner plate 11-3. The cap 11-4 is provided with a sealing strip groove and a V-shaped screw positioning line.

[0047] Furthermore, the fixed fan 4's fan hook profile includes a third outer plate 12-1 and a third profile 12-2; the third outer plate 12-1 and the third profile 12-2 are connected by a thermal break structure; both sides of the third outer plate 12-1 are co-extruded with an insulation layer covering the thermal break structure; one side of the third profile 12-2 is provided with a glass fan pressure line profile 10. One end of the glass fan pressure line profile 10 has a groove for a round bar rubber strip for sealing, and a sealing rubber strip is installed in the groove; the other end has a sealing rubber strip that contacts the glass.

[0048] Furthermore, the bottom of the mullion 2 and the top of the bottom outer frame 1 are respectively snapped with an upper rail 13 and a lower rail 14. In this embodiment, the upper rail can be installed with screws or without screws. The bottom of the lower rail 14 is provided with a supporting load-bearing arm, and the two sides of the lower rail 14 are provided with baffles. One end of the fan beam profile 9 is provided with a sealing strip that contacts the baffle on the side opposite to the glass fan pressure line profile 10. The upper rail 13 is n-shaped, and the other end of the fan beam profile 9 is provided with a sealing strip that contacts the upper rail 13.

[0049] Furthermore, both the outer frame 1 and the mullion 2 are equipped with fan baffle pressure lines 15; the ends of the fan baffle pressure lines 15 are fitted with sealing strips that seal with the operable fan 3. The fan baffle pressure lines 15 have sealing strips installed for the first seal of the operable fan, and are provided with two mounting feet, one of which mates with the outer frame 1 or the other of which mates with the plastic holes on the insulation layer of the mullion 2. Since the plastic is non-conductive, it will not affect the second thermal insulation structure 8 of the outer profile assembly 6 of the outer frame 1 and the mullion 2, thus playing a role in thermal insulation.

[0050] Furthermore, both the outer frame 1 and the mullion 2 are provided with glass fixing strips 16; the glass fixing strips 16 have mounting feet and sealing round rod rubber strips to prevent air leakage from the insulated glass installation cavity.

[0051] Furthermore, the outer frame 1 of the opening fan 3 is provided with a locking point profile 17; the locking point profile 17 has two assembly feet, a screw fixing position line, and a sealing cover 18; a variable track locking point is installed inside the locking point profile 17 and the two adjacent locking points are covered by the sealing cover 18; the opening fan 3 is provided with a transmission rod channel profile 20 at the corresponding locking point position; the transmission rod channel profile 20 has a convex C-shaped groove.

[0052] Furthermore, the second profile 11-2 of the fan hook profile of the opening fan 3 has a locking hook mounting slot; the locking hook mounting slot is provided with a retractable variable track hook lock 21.

[0053] Furthermore, the opening fan 3 is equipped with a hardware system 19; the hardware system 19 includes a first transmission component 19-1, a second transmission component 19-2, a third transmission component 19-3, a fourth transmission component 19-4, and a fifth transmission component 19-5; the first transmission component 19-1 and the fourth transmission component 19-4 are connected by a left upper corner bracket 19-6; the third transmission component 19-3 and the fifth transmission component 19-5 are respectively connected to the second transmission component 19-2 through a right lower corner bracket 19-7 and a left lower corner bracket 19-8; the first transmission component 19-1 includes upper guide wheels located at both ends of the top of the opening fan 3, with a transmission flat bar between the two upper guide wheels; both upper guide wheels are connected to the transmission flat bar through displacement connecting rods, and the upper guide wheel located on the left is also connected to the left upper corner bracket 19-6 through a displacement connecting rod; the second transmission component 19-2 includes lower guide wheels located at both ends of the bottom of the opening fan 3; both lower guide wheels... A transmission flat bar is provided between the wheels. The lower left variable track lower wheel is connected to the transmission flat bar and the lower left corner bracket 19-8 via a displacement connecting rod. The lower right variable track lower wheel is connected to the transmission flat bar and the lower right corner bracket 19-7 via a displacement connecting rod. The third transmission assembly 19-3 includes variable track hook locks 21 located at both ends of the right side of the opening fan 3. A transmission flat bar is provided between the two variable track hook locks 21, and both variable track hook locks 21 are connected to the transmission flat bar via a displacement connecting rod. The lower right variable track... The hook lock 21 is also connected to the lower right corner block 19-7 via a transmission flat bar; the fourth transmission assembly 19-4 includes an upper mushroom head locking point and a lock box; one end of the upper mushroom head locking point is connected to the upper left corner block 19-6 via a transmission flat bar, and the other end is connected to the lock box via a transmission flat bar; the fifth transmission assembly 19-5 includes a lower mushroom head locking point; one end of the lower mushroom head locking point is connected to the lower left corner block 19-8 via a transmission flat bar, and the other end is connected to the lock box via a transmission flat bar.

[0054] (Example 2)

[0055] See Figure 17This embodiment is basically the same as embodiment 1, except that the lower rail 14 in this embodiment adopts an integral structure, and an aluminum-plastic co-extruded insulation layer is added to the inner profile edge of the outer frame 1. The first outer plate 9-1 of the fan-shaped profile 9 is changed to a short plate, and an aluminum-plastic co-extruded insulation layer covering its thermal break structure is added to the outer side of the first outer plate 9-1.

[0056] The specific embodiments described above further illustrate the purpose, technical solution, and beneficial effects of this utility model. It should be understood that the above descriptions are merely specific embodiments of this utility model and are not intended to limit this utility model. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of this utility model should be included within the protection scope of this utility model.

Claims

1. A type of ultra-low energy consumption side-pressure sliding door and window, characterized in that: It includes an outer frame (1), a mullion (2), an opening fan (3), and a fixed fan (4); the outer frame (1) and the mullion (2) each include an inner profile (5) and an outer profile assembly (6); the inner profile (5) and the outer profile assembly (6) are connected by a first thermal insulation structure (7); the outer profile assembly (6) includes an outer panel and an outer profile (6-3); the outer panel and the outer profile (6-3) are connected by a second thermal insulation structure (8); both sides of the connection between the outer panel and the outer profile (6-3) are co-extruded with an insulation layer covering the second thermal insulation structure (8).

2. The ultra-low energy consumption side-pressure sliding door and window according to claim 1, characterized in that: The openable fan (3) and the fixed fan (4) are both composed of fan beam profile (9), fan hook profile and glass; the fan beam profile (9) includes a first outer plate (9-1), a first profile (9-2) and a first inner plate (9-3); the first outer plate (9-1) and the first inner plate (9-3) are connected to the first profile (9-2) through a thermal break structure; the first outer plate (9-1) has a thermal insulation layer covering the thermal break structure co-extruded on both sides; the first inner plate (9-3) has a thermal insulation layer covering the thermal break structure co-extruded on one side, and a glass fan pressure line profile (10) is provided on the other side.

3. The ultra-low energy consumption side-pressure sliding door and window according to claim 2, characterized in that: The opening fan (3) includes a second outer panel (11-1), a second profile (11-2), and a second inner panel (11-3); the second outer panel (11-1) and the second inner panel (11-3) are connected to the second profile (11-2) by a thermal break structure; the second outer panel (11-1) has a thermal insulation layer covering the thermal break structure co-extruded on both sides; the second inner panel (11-3) has a thermal insulation layer covering the thermal break structure co-extruded on one side, and a glass fan pressure line profile (10) is provided on the other side; a cap (11-4) is provided between one end of the second outer panel (11-1) and the second inner panel (11-3).

4. The ultra-low energy consumption side-pressure sliding door and window according to claim 2, characterized in that: The fixed fan (4) includes a third outer plate (12-1) and a third profile (12-2); the third outer plate (12-1) and the third profile (12-2) are connected by a thermal break structure; the third outer plate (12-1) has a thermal insulation layer covering the thermal break structure co-extruded on both sides; and the third profile (12-2) has a glass fan pressure line profile (10) on one side.

5. The ultra-low energy consumption side-pressure sliding door and window according to claim 2, characterized in that: The bottom of the middle mullion (2) and the top of the bottom outer frame (1) are respectively fitted with an upper rail (13) and a lower rail (14); the bottom of the lower rail (14) is provided with a supporting load-bearing arm, and the two sides of the lower rail (14) are provided with baffles; one end of the fan beam profile (9) is provided with a sealing strip that contacts the baffle on the side opposite to the glass fan pressure line profile (10); the upper rail (13) is n-shaped, and the other end of the fan beam profile (9) is provided with a sealing strip that contacts the upper rail (13).

6. The ultra-low energy consumption side-pressure sliding door and window according to claim 2, characterized in that: Both the outer frame (1) and the middle mullion (2) are equipped with fan baffle pressure lines (15); the ends of the fan baffle pressure lines (15) are fitted with sealing strips that seal with the opening fan (3).

7. The ultra-low energy consumption side-pressure sliding door and window according to claim 1, characterized in that: Both the outer frame (1) and the mullion (2) are provided with glass fixing strips (16); the glass fixing strips (16) have mounting feet and sealing round bar rubber strips.

8. The ultra-low energy consumption side-pressure sliding door and window according to claim 1, characterized in that: The outer frame (1) corresponding to the opening fan (3) is provided with a locking point profile (17); the locking point profile (17) has two assembly feet, a screw fixing line and a sealing cover (18); the locking point profile (17) is installed with a track changing locking point and the two adjacent locking points are covered by the sealing cover (18); the opening fan (3) is provided with a transmission rod channel profile (20) at the corresponding locking point position; the transmission rod channel profile (20) has a convex C-shaped groove.

9. The ultra-low energy consumption side-pressure sliding door and window according to claim 1, characterized in that: The second profile (11-2) of the fan hook profile of the opening fan (3) has a locking hook mounting slot; the locking hook mounting slot is provided with a retractable track lock (21).

10. The ultra-low energy consumption side-pressure sliding door and window according to claim 9, characterized in that: The opening fan (3) is equipped with a hardware system (19); the hardware system (19) includes a first transmission component (19-1), a second transmission component (19-2), a third transmission component (19-3), a fourth transmission component (19-4), and a fifth transmission component (19-5); the first transmission component (19-1) and the fourth transmission component (19-4) are connected by a left upper corner bracket (19-6); the third transmission component (19-3) and the fifth transmission component (19-5) are respectively connected by a right lower corner bracket. The cornering device (19-7) and the lower left cornering device (19-8) are connected to the second transmission assembly (19-2); the first transmission assembly (19-1) includes upper track-changing wheels located at both ends of the top of the opening fan (3), and a transmission flat bar is provided between the two upper track-changing wheels; both upper track-changing wheels are connected to the transmission flat bar through displacement connecting rods, and the upper left track-changing wheel is also connected to the upper left cornering device (19-6) through displacement connecting rods; the second transmission assembly (19-2) includes lower track-changing wheels located at both ends of the bottom of the opening fan (3). A transmission flat bar is provided between the two lower guide wheels. The lower left guide wheel is connected to the transmission flat bar and the lower left corner bracket (19-8) respectively through a displacement connecting rod. The lower right guide wheel is connected to the transmission flat bar and the lower right corner bracket (19-7) respectively through a displacement connecting rod. The third transmission assembly (19-3) includes guide hook locks (21) located at both ends of the right side of the opening fan (3). A transmission flat bar is provided between the two guide hook locks (21), and both guide hook locks (21) are connected to the transmission flat bar through a displacement connecting rod. Located on the right The lower track-changing hook lock (21) is also connected to the lower right corner block (19-7) via a transmission flat bar; the fourth transmission assembly (19-4) includes an upper mushroom head locking point and a lock box; one end of the upper mushroom head locking point is connected to the upper left corner block (19-6) via a transmission flat bar, and the other end is connected to the lock box via a transmission flat bar; the fifth transmission assembly (19-5) includes a lower mushroom head locking point; one end of the lower mushroom head locking point is connected to the lower left corner block (19-8) via a transmission flat bar, and the other end is connected to the lock box via a transmission flat bar.

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