Window frame system with anti-falling structure

Abstract

Disclosed is a window frame system with a fall-off prevention structure, which prevents an insect screen unit from falling off to the outside of a building by a fall-off prevention unit that can eliminate a gap between a guide rail unit and a guide rail unit coupled by clearance movement. The window frame system with the anti-falling structure is installed on a wall body of a building and installed in the wall body of the building to form a square frame, a plurality of guide rail units are installed on the upper portion and the lower portion of the inner side of a window frame framework unit and extend in the longitudinal direction, and the window frame framework unit penetrates through the square frame in the cross direction perpendicular to the vertical direction and the longitudinal direction. The present invention relates to a window unit having an upper portion and a lower portion, the upper portion and the lower portion of the window unit being formed with an inwardly penetrating upper portion groove and an inwardly recessed lower portion on the upper portion and the lower portion, and a plurality of guide rail units being inserted in the upper portion groove and the lower portion groove, comprising an insect-proof screen unit installed in the penetrating center of the window unit and an anti-drop unit, one side of which is installed in the upper portion groove and the other side of which is installed in the lower portion groove and the other side of which is installed in the lower portion groove. The other side is movably supported by the guide rail unit.

Description

TECHNICAL FIELD

[0001] The present invention relates to a window frame system having a fall prevention structure, and more particularly, to a window frame system having a fall prevention structure that can prevent a fly screen unit from falling outside a building by play. BACKGROUND

[0002] Generally, walls of a building are equipped with windows and screens. Specifically, a glass door window is installed inside a wall of a building, and a fly screen is installed outside the wall of the building.

[0003] In recent years, there has been a tendency for accidents to occur every year due to the rainy season and typhoons. In other words, a fly screen installed outside falls, and accidents such as falling outside a building are occurring.

[0004] Conventionally, methods such as sticking newspapers and tapes on glass have been used to solve this problem.

[0005] However, in practice, the above method is only a temporary measure, and the effect is not very good because it cannot fundamentally prevent the fly screen from falling, and when it is removed, residues remain on the glass, which not only destroys the aesthetics, but also causes considerable removal difficulty.

[0006] In addition, in order to prevent the fly screen from shaking, a support bar is inserted in the frame in which the fly screen is installed to support the fly screen, but there is a problem that the support bar falls during movement of the fly screen, and it is not easy to support the fly screen.

[0007] PRIOR ART DOCUMENT

[0008] PATENT DOCUMENT

[0009] Patent Document 1: Korean 10-2006-0025843 SUMMARY

[0010] PROBLEMS TO BE SOLVED BY THE INVENTION

[0011] The present invention provides a window frame system having a fall prevention structure that prevents a fly screen unit from deviating outside a building by a fall prevention unit that can eliminate a gap between a fly screen unit and a track unit coupled by a gap movement.

[0012] MEANS FOR SOLVING THE PROBLEMS

[0013] An embodiment of the present invention is a window frame system with a fall prevention structure to solve this problem, characterized by installing a fall prevention structure on the wall of a building and installing it on the wall of the building to form a square frame, with a crosswise direction penetrating the inside, extending in the vertical direction and perpendicular to the vertical direction, and horizontally orthogonal to the length direction; a plurality of guide rail units are installed on the upper and lower parts of the inside of the window frame unit and extend in the longitudinal direction; the center penetrates the crosswise direction, forms an upper groove and a lower groove in the upper and lower parts, and forms an upper groove and a lower groove in the upper groove; a plurality of guide rail units are inserted into the window unit of the upper groove and the lower groove; an insect screen unit is installed in the penetrating center of the window unit; and a fall prevention unit, one side of which is installed in the upper groove and the other side is supported by the guide rail unit; the fall prevention device is fixed to the inner wall of the window unit forming the upper groove, extends to the guide rail unit inserted into the upper groove, and is configured to elastically support the window unit.

[0014] The anti-off unit is arranged on both sides of the upper groove relative to the longitudinal direction, and the upper part is in rotational contact with the guide rail unit, so that the guide rail unit is elastically pressed to the first anti-off piece; a plurality of second anti-off pieces are arranged between the first anti-off pieces, and are elongated and telescopic in the up-down direction, are spaced apart in the longitudinal direction, and elastically support the guide rail unit in the upper part; the first anti-off unit is a 1-1 anti-off support member installed on the inner surface of the window unit to form an upper groove; a pair of 1-2 anti-off support members are installed on one side of the 1-1 anti-off support member relative to the longitudinal direction, are spaced apart in the cross direction, and form a space therebetween; the first anti-off rotating member is rotatably coupled to each pair of 1-2 anti-off support members on both sides, and is placed in the space between the pair of 1-2 anti-off support members; the first anti-off power member is capable of generating a rotational driving force, and is installed on any one of the 1-2 anti-off support members of the 1-2 anti-off support members, and is coupled to the first anti-off support member; the first anti-off torsion member is arranged in the normal direction of the first anti-off rotating member, and is coupled to the first anti-off rotating member on one side; the first anti-off support member is rotatably coupled to the first anti-off torsion member on the other side in the circumferential direction of the circle with the cross direction as the central axis, and is in contact with the guide rail unit; the first anti-off stop member is installed on the top of the 1-2 anti-off torsion member, so that the first anti-off torsion member can be contacted and the rotation of the first anti-off torsion member does not exceed a preset angle; the first anti-off support member is rotatably coupled to the first anti-off torsion member, and enters in a circular form on the outer peripheral surface corresponding to the guide rail unit; the first anti-off sub-member is composed of a plurality of installation groove members connected to the single-occupancy groove line, and is spaced apart in the circumferential direction of the circle with the cross direction as the central axis; a plurality of 1-1 anti-off sensors are installed between the plurality of installation groove members; a plurality of 1-2 anti-off sensors are arranged in the remaining part of the installation groove members opposite to each other; a plurality of first anti-off elastic bodies are installed in the plurality of installation groove members, and are formed in a shape that can be elongated and telescopic in the radial direction, and one side is connected with a plurality of 1-1 anti-off sensors and a plurality of anti-escape sensors 1-2; the first anti-off contact body is coupled to the end of the plurality of first anti-off elastic bodies, and is placed in the plurality of installation groove parts so that it can be exposed on the single-occupancy groove line; a first anti-escape controller controls the operation of the first anti-off power member according to the pressure measurement values measured by the 1-1 anti-off sensor and the 1-2 anti-off sensor and the first anti-off sensor, and the pressure measurement values measured by the 1-1 anti-off sensor and the 1-2 anti-off sensor.The plurality of 1-1 anti-off course sensors and the 1-2 plurality of anti-off course sensors are configured to be able to sense pressure, the plurality of first anti-off course contacts are in contact with the guide rail unit, the plurality of first anti-off course elastic bodies are pressed by the plurality of first anti-off course contacts, and the plurality of first anti-off course elastic bodies are contracted to generate elastic restoring force, which is provided to the 1-1 anti-off course sensor and the 1-2 anti-off course sensor, if the measured value of the 1-1 anti-off course sensor is less than the preset set value, the first anti-off course sensor should be less than the measured value of the 1-1 anti-off course sensor, which prevents the anti-off rotation member and the first anti-off take-off support member from moving towards the guide rail unit, if the measured value of the 1-1 anti-off course sensor exceeds the preset set value, the first anti-off rotation member and the first anti-off take-off support member rotate counterclockwise, and the first anti-off rotation member moves away from the guide rail unit along the first anti-off rotation member and the first anti-off take-off support member, if the measured value of the 1-1 anti-off course sensor exceeds the preset set value, the first anti-off rotation member moves away from the guide rail unit along the first anti-off rotation member and the first anti-off take-off support member.

[0015] The second anti-off shelf unit is installed on the inner surface of the window unit forming the upper groove, and the second anti-off shelf support can generate a rotational driving force; the lower screw is fixed on the second anti-off shelf support, which can rotate in the circumferential direction centered on the up-down direction and be rotated by the rotational driving force generated by the second anti-off shelf support through the screw coupling, and can move in the up-down direction; the second anti-off spring member is connected to the upper part of the second anti-off screw member and forms an elongated and telescopic shape in the up-down direction; the second anti-off take-off support is connected to the upper part of the second anti-off spring member and is made of EDPM material; the 1-1 anti-offset sensor is spaced apart from each other and arranged in parallel in the first direction, and has a plurality of 1-1 sensor paths; a plurality of 1-2 sensor paths are spaced apart from each other and arranged in parallel in the second direction, intersecting the first direction; between the plurality of sensor paths of the 1-1 sensor path and the plurality of sensor paths of the 1-2 sensor path, for each cross section intersecting the 1-1 sensor path and the 1-2 sensor path, a plurality of photoresist components are formed, wherein the resistance changes with the change of pressure, and the space forming part changes when pressure is applied; the 1-1 sensor support plate installed on the inner wall of the first anti-falling rotating body forming the installation groove part supports the 1-1 sensor path, the space forming part, and the 1-2 sensor path; a plurality of 1-1 electrodes are connected to one end of the plurality of sensor paths 1-1; a plurality of 1-2 electrodes are connected to one end of the plurality of 1-2 sensor paths; the 1-1 sensor cover plate covers the connection part of the 1-1 electrode and the 1-1 sensor path and the connection part of the 1-2 electrode and the 1-2 sensor path;The space forming part is formed of a porous fabric, and the resist part is formed so that a plurality of resist modules are inserted into the porous fabric, and at least a part of the resist modules are spaced apart from each other, when pressure is applied, at least some parts of the resist modules contact each other and the electrical resistance is reduced, the photoresist part is formed by being spaced apart into the horizontal parts, and the density of the plurality of photoresist modules is formed to be different, when the same pressure is applied, they exhibit different electrical resistance values, and are connected in parallel to each other within one cross section, the 1-1 sensor path and the 1-2 sensor path, as a fabric formed of a conductive braid, have a fixed width and length, the space forming part is formed between two photoresist parts adjacent in a first direction among the plurality of photoresist parts, a single through line of a size corresponding to the width of the 1-1 sensor path is formed, among the plurality of photoresist parts, a two-through line of a size corresponding to the width of the 1-2 sensor path is formed between two photoresist parts adjacent in a second direction, the 1-1 sensor path passes through the single through line from one side of the space forming part, passes through the other single through line closest to the other side of the space forming part to one side, the 1-2 sensor path is formed to pass from one side of the space forming part to the other side, passes through the other through line closest to the other side of the space forming part from one side of the space forming part to the other side, the 1-1 sensor path and the 1-2 sensor path are formed so that they are alternately located on one side of the space forming part.

[0016] The 1-2 escape prevention sensor is an elastomer, an auxiliary resistor that applies heat to the elastomer, an AC power adapter that provides AC power to the auxiliary resistor, and a fall prevention controller that determines the pressure applied to the elastomer based on the resistance value of the auxiliary resistor; and 1-2 sensor support plates installed on the inner wall of the first escape prevention rotating body, forming a mounting groove portion, with an insulator mounted on the top; the escape prevention controller controls the frequency of the AC power source, so that the heat penetration depth of the heat generated in the auxiliary resistor is greater than the maximum thickness of the elastomer, the elastomer is composed of a plurality of pores and nanoparticles, the elastomer bears external pressure through one side, the auxiliary resistor is arranged on the other side of the elastomer opposite to the one side of the elastomer, the one side of the auxiliary resistor is arranged near the elastomer, and the insulator is arranged on the other side of the auxiliary resistor opposite to the one side of the auxiliary resistor, a post-processing material is arranged between the auxiliary resistor and the elastomer, the escape prevention controller extracts a signal corresponding to the frequency of the AC power source from the voltage of both ends of the auxiliary resistor, and calculates the resistance value of the auxiliary resistor according to the extracted signal, the insect screen window unit is installed on the penetration portion of the window unit and placed near the inside of the building; the outer insect screen is installed on the penetration portion of the door and window unit, facing the inner insect screen and placed near the outer wall of the building; the inner insect screen is a static generating member that generates arc discharge to remove fine dust generated inside the building and attached to the inner insect screen; a piezoelectric film that generates vibration through an electric signal to shake off fine dust residues removed by arc discharge generated by the electrostatic generating member; and an air spray assembly installed on the upper and lower parts of the inner wall of the inner and outer insect screen units, for wind and collection with ionized air; the electrostatic generating members are arranged in pairs, and the pair of electrostatic generating members are arranged on the two outer sides of the inner insect screen centered on the inner insect screen, wherein any one electrostatic generating element represents a positive electrode, and the other electrostatic generating element represents a negative electrode.

[0017] The insect screen window unit is an internal insect screen window installed in the penetration part of the door and window unit and placed near the inside of the building; the external insect screen is installed in the penetration part of the door and window unit, facing the internal insect screen and placed near the outer wall of the building; the outer wall insect screen should be a blocking outer wall insect screen component adjacent to the outer wall of the building; the auxiliary outer screen component is placed between the cut-off outer screen and the inner layer screen; the isolated outer insect screen component is a single isolated outer insect screen with a single slope and a low slope, and a single isolated outer insect screen with a single slope and an illite slope, which is woven at a right angle at regular intervals in the horizontal and vertical directions; the two outer insect screens with a single slope and a slope and the two outer insect screens with an e-left slope and an e-light slope are woven at a right angle at regular intervals in the horizontal and vertical directions; the two cut-off outer screens and the closed outer screen edges; the cross section of the single isolated outer insect screen forms a rhombus shape with a single slope and a slope left-right symmetrical, the cross section of the single outer insect screen forms a rhombus shape with a single left slope and a weak light slope left-right symmetrical, the included angle between the single slope and the slope is greater than 122° to less than 128°, the included angle between the single slope and the slope is greater than 122° to less than 128°, the cross section of the two outer insect screens forms a rhombus shape with a single slope and a slope left-right symmetrical, the cross section of the two outer insect screens forms a rhombus shape, the left two slopes and the e-light slope are left-right symmetrical, the included angle between the ear slope and the iranger slope is greater than 122° to less than 128°, the included angle between the left two slopes and the e-right slope is greater than 122° to less than 128°, the two cut-off outer insect screens are alternately arranged, so that the single isolated outer insect screen and the two outer insect screens are alternately arranged, so that the single cut-off outer screen is not aligned, the auxiliary outer screen component is a photocatalytic coating coated on the outer surface of the auxiliary outer screen component; a hydrophobic coating coated on the outer surface of the photocatalytic coating; the photocatalytic coating layer is formed by combining selenium sol and titanium white photocatalyst, the selenium sol is formed by mixing 70% selenium nitrate, 30ml distilled water in 100ml solution into a rare nitric acid solution, mixing 10% of the solution weight, while stirring 30% potassium hydroxide, while adjusting the PH to 8-9, mixing 3-4% titanium oxide, heating and stirring for less than 10 minutes at 100°C, the hydrophobic coating layer is 5-15% oxybispropyl alcohol, 0.1-5% alpha-dodecyl omega hydroxyethylene, which is composed of 25% to 35% perfluoroalkyl acrylate copolymer and 60% to 70% water.

[0018] Inventive effects

[0019] According to the present application, the anti-off device is movable supported by the guide rail unit while connected to the insect screen window unit, so that the insect screen unit can be prevented from falling off the window frame unit.

[0020] Further, the anti-deviation unit prevents the screen unit from moving away while suppressing wear of the track unit, by adjusting the force with which the anti-falling unit exerts pressure on the track unit. BRIEF DESCRIPTION OF DRAWINGS

[0021] Figure 1 is a diagram schematically showing the structure of a window frame system having an anti-falling structure according to an embodiment of the present application.

[0022] Figure 2 shows Figure 1 the A-A' portion of.

[0023] Figure 3 is a diagram showing the structure of a first anti-escape bracket according to an embodiment of the present application, from the side and front.

[0024] Figure 4 is a diagram showing the angle of a first departure torsion member of a first anti-escape torsion member adjusted according to an embodiment of the present application.

[0025] Figure 5 is a diagram showing the structure of a second anti-escape member according to an embodiment of the present application.

[0026] Figure 6 is a diagram showing the structure of a first anti-falling stopper according to an embodiment of the present application.

[0027] Figure 7 is a diagram showing the structure of a screen unit according to an embodiment of the present application.

[0028] Figure 8 is a diagram showing the disassembly of an anti-escape sensor 1-1 according to an embodiment of the present application.

[0029] Figure 9 is a diagram showing the top view of an anti-escape sensor 1-1 according to an embodiment of the present application.

[0030] Figure 10 is a diagram showing the cross-sectional view of an anti-escape sensor 1-1 according to an embodiment of the present application.

[0031] Figure 11 is a diagram schematically showing the structure of an anti-escape sensor 1-2 according to an embodiment of the present application.

[0032] Figure 12 is a diagram showing the structure of an elastic body according to an embodiment of the present application.

[0033] Figure 13 is a diagram showing the structure of an anti-escape sensor 1-2 according to an embodiment of the present application.

[0034] Figure 14 is a diagram showing the structure of a single-cut, outer-cut, and double-block outer insect repellent according to an embodiment of the present application.

[0035] Figure 15 is a sectional view of a cut-off external insect screen according to an embodiment of the present application.

[0036] Reference numerals

[0037] 1000: window frame system with anti-off structure

[0038] 1100: window frame unit

[0039] 1200: guide rail unit

[0040] 1300: window unit

[0041] 1400: screen unit

[0042] 1500: exit prevention device DETAILED DESCRIPTION

[0043] Hereinafter, embodiments will be described in detail with reference to the accompanying drawings. However, the embodiments can be variously changed, and the scope of the patent application is not limited or restricted by the embodiments. Any modification, equivalence or substitution of the embodiments should be understood to be included in the scope of the right.

[0044] The specific structure or function description of the embodiments is only for the purpose of illustration, and can be changed and implemented in various forms. Therefore, the embodiments are not limited to the specific form of disclosure, and the scope of the specification includes changes, unification or substitution included in the descriptive idea.

[0045] Terms such as "first" or "second" can be used to describe various components, but the interpretation of these terms should be used only to distinguish one component from another. For example, the first component can be named the second component, and similarly, the second component can be named the first component.

[0046] When a component is referred to as "connected" to another component, it is understood that it can be directly connected to the other component or connected to the other component, but there can be another component.

[0047] The terms used in the embodiments are only for the purpose of illustration and should not be interpreted as limiting. The singular expression includes the plural expression unless the context clearly indicates otherwise. In this specification, the term "include" or "have" should be understood to mean the presence of features, numbers, steps, actions, components, parts or combinations thereof described herein, and should not exclude the presence or addition of one or more other features or numbers, steps, actions, components, parts or combinations thereof.

[0048] Unless otherwise defined, all terms used in disclosing embodiments of the present application, including technical or scientific terms, have the same meaning as commonly understood by one of ordinary skill in the art to which embodiments of the present application belong. Terms such as terms defined in a generally used dictionary should be interpreted in conjunction with the meaning in the relevant descriptive context, and are not to be interpreted ideally or overly formally unless clearly defined in the present application.

[0049] Also, in describing the drawings, the same reference numerals are assigned to the same components, regardless of drawing codes, and repetitive description is omitted. In describing embodiments, if it is judged that a detailed description of the related art technology can unnecessarily obscure the gist of the embodiments, detailed description is omitted.

[0050] Advantages and features of the present application and methods of achieving the same will be clarified by referring to embodiments described below in detail and the accompanying drawings. However, the present application is not limited to embodiments disclosed herein but can be implemented in various forms, and the embodiments are provided only to ensure the present application is complete and to allow those having ordinary knowledge in the technical field to which the present application pertains to fully understand the scope of the present application, and the present application is defined only by the category of claims.

[0051] In embodiments of the present application, all terms used herein, including technical or scientific terms, unless otherwise defined, have the same meaning as commonly understood by one of ordinary skill in the art to which embodiments of the present application belong. Terms such as terms defined in a generally used dictionary should be interpreted to have the same meaning as the meaning in the relevant description context, and should not be interpreted ideally or overly formally, unless clearly defined in the embodiments of the present application.

[0052] The shapes, sizes, ratios, angles, and numbers disclosed in the drawings for explaining embodiments of the present application are illustrative and are not limited to the matters shown. Also, in describing the present application, if it is judged that a detailed description of the related art technology can unnecessarily obscure the gist of the present application, detailed description is omitted. If the words such as "include", "have", and "comprise" are used in the present specification, other parts can be added unless "only" is used. This includes the case where components are expressed in singular, and includes plural unless clearly stated.

[0053] In interpreting components, even if not explicitly stated, it is interpreted to include an error range.

[0054] If a positional relationship description is described as "on", "top", "below", "next to", etc., it can be located between two parts unless "immediately" or "directly" is used.

[0055] The term "opening" of one element or another element or layer includes any case in which another layer or other element is directly inserted on another device or is located in the middle of another device. Throughout the specification, the same reference numerals denote the same components.

[0056] The size and thickness of each configuration shown in the drawings are shown for ease of explanation, and the present application is not necessarily limited to the size and thickness of the structures shown.

[0057] The features of each of the various embodiments of the present application can be partially or wholly combined with each other, and as can be fully understood by those skilled in the art, they can be technically interlocked and driven, and each embodiment can be executed independently of each other or together in an association relationship.

[0058] Figure 1 is a schematic view showing the structure of a window frame system with a fall-preventing structure according to an embodiment of the present application, Figure 2 is Figure 1 is a view of the A-A' portion of Figure 3 is a structure view of a first escape-preventing bracket according to an embodiment of the present application from the side and front, Figure 4 is an angle view of a first anti-unhooking torsion member according to an embodiment of the present application, Figure 5 is a structure view of a second escape-preventing member according to an embodiment of the present application, Figure 6 is a structure view of a first escape-preventing member according to an embodiment of the present application, Figure 7 is a structure view of an insect screen unit according to an embodiment of the present application, Figure 8 is an exploded view of a 1-1 escape-preventing sensor according to an embodiment of the present application, Figure 9 is a plan view of a 1-1 escape-preventing sensor according to an embodiment of the present application, Figure 10 is a cross-sectional view of a 1-1 escape-preventing sensor according to an embodiment of the present application, Figure 11 is a view showing the structure of a 1-2 escape-preventing sensor according to an embodiment of the present application, Figure 12 is a structure view of an elastic body according to an embodiment of the present application, Figure 13 is a detailed structure view of a 1-2 escape-preventing sensor according to an embodiment of the present application, Figure 14 is a structure view of a single-piece outer insect screen window and two-piece outer insect screen window according to an embodiment of the present application, Figure 15 is a cross-sectional view of a blocking outer insect screen member according to an embodiment of the present application.

[0059] Hereinafter, referring to Figures 1 to 15 , the structure of a window frame system 1000 with a fall-preventing structure according to an embodiment of the present application will be described.

[0060] The window frame system 1000 with the off-leaving prevention structure according to an embodiment of the present application includes a window frame unit 1100, a guide rail unit 1200, a window unit 1300, an insect screen unit 1400, and an off-leaving prevention unit 1500.

[0061] More specifically, the window frame system 1000 with the off-leaving prevention structure according to an embodiment of the present application is a window frame system with the off-leaving prevention structure installed on a wall of a building 10, and extends in an up-down direction (see Figure 1 ) and a longitudinal direction (see Figure 1 ), and is perpendicular to the up-down direction and horizontally orthogonal to the longitudinal direction (see Figure 1 ), and forms a square frame 1100, the inside of which is penetrated, a plurality of guide rail units 1200 are respectively installed at upper and lower portions of the inside of the window frame unit 1100 and extend in the longitudinal direction, a center is penetrated in a cross direction, an upper portion recessed upper groove 1310 and a lower portion recessed lower groove 1320 are formed, the upper portion recessed upper groove 1310 and the lower portion recessed lower groove 1320 are respectively inserted into the complex guide rail unit 1200, the window unit 1300 is installed at the penetrated center of the window unit 1300, one side is installed in the upper groove 1310, and the other side is movably supported on the guide rail unit 1200, and includes the off-leaving prevention unit 1500. In addition, the off-leaving prevention unit 1500 is fixed to an inner wall of the window unit 1300 forming the upper groove 1310, extends toward the guide rail unit 1200 inserted into the upper groove 1310, and is configured to elastically support the window unit 1300.

[0062] The window frame unit 1100 is installed on a wall of a building 10 and extends in an up-down direction and a longitudinal direction, forms a square frame, the inside of which is penetrated in a cross direction, is perpendicular to the up-down direction, and is horizontally orthogonal to the longitudinal direction.

[0063] The guide rail unit 1200 is provided with a plurality of components and is respectively installed at upper and lower portions of the inside of the window frame unit 1100 and extends in the longitudinal direction.

[0064] The guide rail unit 1200 is provided, for example, in four pieces, and two are provided at upper and lower portions of the inside of the window frame unit 1100. A pair of guide rail units 1200 are located at upper and lower portions of the inside of the window frame unit 1100, are placed in a cross direction of the plurality of guide rail units 1200 adjacent to an interior of a building, and can be movably coupled to a glass window 20. In addition, a pair of guide rail units 1200 are located at upper and lower portions of the inside of the window frame unit 1100, the frame unit is placed with respect to an exterior of a building 10, and with respect to the cross direction, the plurality of guide rail units 1200 can be movably coupled to a window unit 1300.

[0065] The window unit 1300 penetrates along the center direction of the intersection, forming an inner groove 1320 with an upper groove 1310 pressed inward at the top and a lower groove 1320 recessed inward at the bottom, and inserting a plurality of guide rail units 1200 into the upper groove 1310 and the lower groove 1320 respectively.

[0066] Insect screen unit 1400 is installed at the penetration center of window unit 1300.

[0067] The insect-proof netting unit 1400 includes an inner insect-proof netting 1410 and an outer insect-proof netting 1420.

[0068] The internal insect screen 1410 is installed in the penetrating part of the window unit 1300 and placed near the interior of the building 10.

[0069] The internal insect-proof net 1410 includes an electrostatic generator 1411, a piezoelectric film 1412, and an air spraying component 1413.

[0070] The static electricity generating component 1411 is a static electricity generator that generates an electric arc discharge to remove fine dust adhering to insect screens inside a building.

[0071] The static electricity generating elements 1411 are arranged in pairs. The pair of static electricity generating elements 1411 are set on both sides facing the inner insect-proof net 1410. With the inner insect-proof net 1410 as the center, one static electricity generating element 1411 represents the positive electrode and the other static electricity generating element 1411 represents the negative electrode.

[0072] The piezoelectric film 1412 vibrates through an electrical signal to shake off fine dust residues removed by the arc discharge generated by the electrostatic generator 1411.

[0073] Air spray unit 1413 is installed on the upper middle and lower part of the inner wall of window unit 1300, wherein the inner insect net 1410 and the outer insect net 1420 are combined together to use ionized air for air spraying and collection.

[0074] The external insect screen 1420 is installed in the penetrating part of the window unit 1300 and is placed facing the internal insect screen 1410, and is placed near the exterior of the building 10.

[0075] The outer screen 1420 includes an outer screen blocking component 1421 and an auxiliary outer insect-proof net component 1422.

[0076] The external insect-proof netting 1421 is used to prevent the exterior of the building 10 from being adjacent to it.

[0077] The outer insect-proof netting 1421 includes a single outer insect-proof netting 1421a, a double-layer outer insect-proof netting 1421b, and an outer insect-proof netting body 1421c.

[0078] The single outer insect screen weft 1421aa with the upper slope 1421aaa and the lower slope 1421aab and the single outer insect screen curtain weft 1421ab with the left slope 1421aba and the e-light slope 1421abb are woven at right angles with regular intervals in horizontal and vertical directions.

[0079] Furthermore, the cross section of the outer insect screen weft 1421aa forms a rhombus, wherein the upper slope 1421a and the lower slope 1421aab are left-right symmetrical.

[0080] Furthermore, the cross section of the single outer insect screen curtain weft 1421ab forms a rhombus, wherein the left slope 1421aba and the e-light slope 1421abb are left-right symmetrical.

[0081] Furthermore, the included angle between the upper slope 1421a and the lower slope 1421aab is between 122° and 128°.

[0082] Furthermore, the included angle between the left slope 1421aba and the e-light slope 1421abb is between 122° and 128°.

[0083] The two outer insect screen wefts 1421ba with the ear slope 1421baa and the lower slope 1421bab and the two outer insect screen curtain wefts 1421bb with the ear slope 1421bba and the e-light slope 1421bbb are woven at right angles with regular intervals in horizontal and vertical directions.

[0084] Furthermore, the cross section of the two outer insect screen wefts 1421ba forms a rhombus, wherein the ear slope 1421baa and the lower slope 1421bab are left-right symmetrical.

[0085] Furthermore, the cross section of the two outer insect screen curtain wefts 1421bb forms a rhombus, wherein the left slope 1421bba and the e-light slope 1421bbb are left-right symmetrical.

[0086] Furthermore, the included angle between the ear slope 1421baa and the lower slope 1421bab is greater than 122° and less than 128°.

[0087] Furthermore, the included angle between the left slope 1421bba and the e-light slope 1421bbb is between 122° and 128°.

[0088] Furthermore, the two outer insect screen wefts 1421ba are alternately arranged, so as to be staggered between the single outer insect screen weft 1421aa.

[0089] Furthermore, the two outer insect screen curtain wefts 1421bb are alternately arranged, so as to be staggered between the single outer insect screen weft 1421aa.

[0090] The isolation outer insect screen body 1421c closes the edges of the single isolation outer insect screen 1421a and the double isolation outer insect screen 1421b.

[0091] The auxiliary outer insect screen 1422 is placed between the blocking outer insect screen 1421 and the inner insect screen 1410.

[0092] The outer insect screen part 1422 includes a photocatalytic coating (unknown) and a hydrophobic coating (unknown).

[0093] The photocatalytic coating is coated on the outside of the auxiliary outer insect screen part 1422.

[0094] The photocatalytic coating layer is formed by combining a selenium sol with a titanium dioxide photocatalyst.

[0095] The selenium sol in the photocatalytic coating layer is prepared by mixing a rare nitric acid solution with 70% nitric acid and 100 ml of distilled water in a 100 ml solution, adding 10% by weight of the solution, adding 30% potassium hydroxide, adjusting the pH to 8-9 by stirring, mixing 3-4% by weight of titanium oxide, and stirring at a temperature of 100°C for less than 10 minutes.

[0096] The hydrophobic coating is coated on the outer peripheral surface of the photocatalytic coating.

[0097] The hydrophobic coating is composed of 5-15% by weight of oxobispropyl alcohol, 0.1-5% by weight of alpha dodecyl omega hydroxy polyethylene, 25-35% by weight of perfluoroalkyl acrylate copolymer, and 60-70% by weight of polymeric material.

[0098] The escape prevention unit 1500 is installed on one side of the upper groove 1310, and the other side is movably supported in the guide rail unit 1200.

[0099] The escape prevention unit 1500 is fixed to the inner wall of the window unit 1300, forms the upper groove 1310, extends toward the guide rail unit 1200 inserted into the upper groove 1310, and is configured to elastically support the window unit 1300.

[0100] The escape prevention unit 1500 includes a first escape prevention unit 1510 and a second escape prevention unit 1520.

[0101] The first escape prevention unit 1510 is disposed in a plurality of units and is placed on both sides of the upper groove 1310 with respect to the longitudinal direction, and the upper portion is in rotational contact with the guide rail unit 1200 to elastically pressurize the guide rail unit 1200.

[0102] The first departure prevention unit 1510 includes a 1-1 departure prevention takeoff support member 1511, a 1-2 departure prevention takeoff support member 1512, a first departure prevention rotation member 1513, a first departure prevention power member 1514, a first departure prevention torsion member 1515, a first departure prevention support member 1516, and a first departure prevention baffle member 1517.

[0103] The 1-1 departure prevention support member 1511 is installed on the inner surface of the window unit 1300, forming the upper groove 1310.

[0104] The 1-2 departure prevention support member 1512 is arranged in pairs and is installed on one side of the 1-1 departure prevention support member 1511 with respect to the longitudinal direction, and is spaced apart in the intersection direction, forming an intermediate space.

[0105] The first departure prevention rotation member 1513 is rotationally coupled to a pair of 1-2 departure prevention support members 1512 on both sides and is placed in the space between the pair of 1-2 departure prevention support members 1512.

[0106] The first departure prevention power member 1514 can generate a rotational driving force and is entered and installed in the 1-2 departure prevention support member 1512 of the pair of 1-2 departure prevention support members 1512 and is coupled with the first departure prevention rotation member 1513.

[0107] The first departure prevention torsion member 1515 is arranged in the normal direction of the first departure prevention rotor member 1513 and is coupled on one side with the first departure prevention rotor member 1513.

[0108] The first departure prevention support member 1516 is rotated in the circumferential direction of the circle with the intersection direction as the central axis on the other side of the first departure prevention torsion member 1515 and is in contact with the guide rail unit 1200.

[0109] The first departure prevention support member 1516 includes a first departure prevention rotor 1516a, a 1-1 departure prevention sensor 1516b, a 1-2 departure prevention sensor 1516c, a first departure prevention elastic body 1516d, a first departure prevention buckle 1516e, and a first departure prevention buckle controller 1516f.

[0110] The first departure prevention rotor 1516a is rotationally coupled with the first departure prevention torsion member 1515, enters in a circular form on the outer peripheral surface, corresponds to the guide rail unit 1200, and extends in the circumferential direction of the circle, the intersection direction is the central axis of the single concave line 1516aa and the single groove line 1516aa, and is connected in the radial direction of the intersection direction, is pressed inward with the intersection direction as the central axis, and is spaced apart in the circumferential direction of the installed recessed groove member 1515ab.

[0111] The 1-1 departure prevention sensor 1516b is disposed in the plurality of mounting groove members 1515ab and is mounted in some of the plurality of mounting groove members 1515ab that face each other.

[0112] The 1-1 deviation prevention sensor 1516b includes a 1-1 sensor support plate 1516ba, a 1-1 sensor path 1516bb, a 1-2 sensor path 1516bc, a space forming portion 1516bd, a 1-1 electrode 1516be, a 1-2 electrode 1516bf, and a 1-1 sensor cover plate 1516bg.

[0113] The 1-1 sensor support plate 1516ba is mounted on the inner wall of the first 1-1 escape prevention rotor 1516a that forms the mounting groove portion 1515ab, and supports the 1-1 sensor path 1516bb, the space forming portion 1516bd, and the 1-2 sensor path 1516bc.

[0114] The 1-1 sensor path 1516bb is arranged in a plurality of ways, spaced apart from each other, and arranged in parallel in a first direction.

[0115] The 1-2 sensor path 1516bc is a plurality of ways, spaced apart from each other, and arranged in parallel in a second direction intersecting the first direction.

[0116] The space forming portion 1516bd is located between the plurality of 1-1 sensor paths 1516bb and the 1-2 sensor path 1516bc, and for each cross section 1561bda at which the plurality of 1-1 sensor paths 1516bb and the 1-2 sensor path intersect, a plurality of resistance portions 1516bdb are formed, which change in resistance in response to changes in pressure, and the resistance changes when pressure is applied.

[0117] The space constituting portion 1516bd is formed between the plurality of photoresist portions 1516bdb adjacent in the first direction, and forms a single straight line (unknown) having a size corresponding to the width of the 1-1 sensor path 1516bb.

[0118] In addition, the space constituting portion 1516bd is formed between the plurality of photoresist portions 1516bdb adjacent in the second direction, and forms a double-penetrating line (unknown) having a size corresponding to the width of the 1-2 sensor path 1516bc.

[0119] In addition, the space constituting portion 1516bd is formed such that the 1-1 sensor path 1516bb passes from one side (unknown) of the space constituting portion 1516bd to the other side (unknown) and passes from the other side of the space constituting portion 1516bd to the one side after passing through the nearest other single-penetrating line.

[0120] Further, the space forming part 1516bd is formed such that the 1-2 sensor path 1516bc passes from the other side of the space constituting part 1516bd to the one side of the space constituting part 1516bd, and passes the nearest other sweat line from the one side of the space forming part 1516bd.

[0121] Further, the space forming part 1516bd is formed such that the 1-1 sensor path 1516BB and the 1-2 sensor path 1516BC are alternately located on the one side of the space forming part 1516BD.

[0122] The plurality of photoresist parts 1516bdb are formed such that the plurality of photoresist modules 1516bdba are inserted into the porous fabric, and at least a part of the photoresist modules 1516bdba are spaced apart from each other, and when pressure is applied, at least a part of the photoresist modules 1516bdba are in contact with each other and the resistance is reduced.

[0123] The photoresist part 1516bdb is composed of a plurality of parts separated from each other in a cross section 1561bda, the density of the plurality of photoresist modules 1516bdba is formed to be different, and exhibits different resistance values when the same pressure is applied, and is connected in parallel to each other within one cross section 1561bda.

[0124] The space forming part 1516bd is formed of a porous fabric.

[0125] The 1-1 electrode 1516BE is arranged as a plurality of electrodes and connected to the single stage 1516BB of the plurality of sensor paths 1-1.

[0126] The 1-2 electrode 1516bf is prepared as a plurality of electrodes and connected to the single stage 1516BC of the plurality of sensor paths 1-2.

[0127] The 1-1 sensor path 1516BB and the 1-2 sensor path 1516BC are fabrics formed of conductive plywood having a fixed width and length.

[0128] The 1-1 sensor cover plate 1516BG covers the connection between the 1-1 electrode 1516BE and the 1-1 sensor path 1516BB and the connection between the 1-2 electrode 1516BF and the 1-2 sensor path 1516BC.

[0129] The 1-2 prevention of leaving sensor 1516c is provided in a plurality of parts and installed in the remaining part of the mounting groove part 1515ab opposite to each other between the plurality of mounting groove parts 1515ab.

[0130] 1-2 Anti-escape sensor 1516C includes an elastomer 1516ca, an auxiliary resistor 1516CB, an AC power adapter 1516cc, an anti-escape controller 1516cd, and a 1-2 sensor support plate 1516cg.

[0131] Elastomer 1516ca includes a plurality of holes 1516caa and nanoparticles 1516cab. In addition, elastomer 1516ca receives external pressure on one side.

[0132] Auxiliary resistor 1516cb heats elastomer 1516ca.

[0133] In addition, auxiliary resistor 1516cb is disposed on the other side of elastomer 1516ca, opposite the one side of elastomer 1516ca.

[0134] In addition, one side of auxiliary resistor 1516cb is placed near elastomer 1516ca.

[0135] In addition, an insulator 1516CE is disposed on the other side of auxiliary resistor 1516cb, opposite the one side of auxiliary resistor 1516cb.

[0136] In addition, a post-processing material is between auxiliary resistor 1516cb and elastomer 1516ca.

[0137] AC power adapter 1516cc provides AC power to auxiliary resistor 1516CB.

[0138] Anti-escape controller 1516cB determines the pressure applied to elastomer 1516ca based on the resistance value of auxiliary resistor 1516cb.

[0139] In addition, anti-escape controller 1516cB controls the frequency of the AC power such that the heat penetration depth generated by auxiliary resistor 1516cb is greater than the maximum thickness of elastomer 1516ca.

[0140] In addition, the anti-escape controller 1516cd extracts a signal corresponding to the AC power frequency from the voltage across the auxiliary resistor 1516cb, and calculates the resistance value of the auxiliary resistor 1516cb based on the extracted signal.

[0141] The 1-2 sensor support plate 1516CG is mounted on the inner wall of the first anti-falling rotor 1516a, forming a mounting groove portion 1515AB, and the insulator 1516CE is mounted on the top thereof.

[0142] A plurality of 1-1 anti-escape sensors 1516B and a plurality of 1-2 anti-escape sensors 1516C are used to detect pressure.

[0143] The first anti-escape body 1516d is provided in a plurality of parts, installed in the plurality of installation groove parts 1515ab, and formed widely in a radial direction, one side of which is connected to the plurality of 1-1 anti-escape sensors 1516b and the plurality of 1-2 anti-escape sensors 1516c.

[0144] The plurality of first anti-escape bodies 1516d are pressed by the plurality of first anti-escape bodies 1516e, shrink and elastic restoring force generated by the shrink is provided to the 1-1 anti-escape sensors 1516b and the 1-2 anti-escape sensors 1516c.

[0145] The first anti-escape bodies 1516e are coupled to the ends of the plurality of first anti-escape bodies 1516d and placed in the plurality of installation groove parts 1515ab so that they can be exposed as a single groove line 1516aa.

[0146] The plurality of first anti-escape bodies 1516e are in contact with the guide rail unit 1200 and pressurize the plurality of first anti-escape bodies 1516d.

[0147] The first anti-escape controller 1561f is installed in the first anti-escape rotor 1516a and electromagnetically connected to the 1-1 anti-escape sensors 1516b and the 1-2 anti-escape sensors 1516c and the first anti-escape power supply part 1514, and can control the operation of the first anti-escape power supply part 1514 according to the pressure measurement values measured by the 1-1 anti-escape sensors 1516b and the 1-2 anti-escape sensors 1516c.

[0148] In addition, the first anti-departure controller 1561f controls the first anti-departure torsion member 1515 and the first anti-departure support member 1516 to move toward the guide rail unit 1200, so that the first anti-departure rotation member 1513 rotates counterclockwise, and the first anti-departure rotation member 1514 rotates counterclockwise if the measurement value measured in the 1-1 anti-departure sensor 1516b is less than the preset value.

[0149] In addition, the first anti-departure controller 1561f controls the operation of the first anti-departure force member 1514 so that the first anti-departure rotation member 1513 rotates clockwise, so that when the measurement value measured in the 1-1 anti-departure sensor 1516b exceeds the preset value, the first anti-departure torsion member 1515 and the first anti-departure support member 1516 move in a direction away from the guide rail unit 1200.

[0150] The first anti-departure stopper 1517 can be in contact with the first anti-escape torsion member 1515, and the first anti-escape torsion member 1515 is installed on the top of the 1-2 anti-escape support member 1512 so that the rotation thereof does not exceed a preset angle.

[0151] The first escape prevention member 1517 includes a plurality of buffer slits 1517a extending in the up-and-down direction along both sides, and a plurality of buffer slits 1517a extending in the up-and-down direction and penetrating the honeycomb structure 1517b therebetween.

[0152] The second anti-falling member 1520 is provided in a plurality, is disposed between the plurality of first anti-falling members 1510, forms an extendable and contractible body in the up-and-down direction, is spaced apart in the longitudinal direction, and supports the upper rail unit 1200.

[0153] The second escape prevention unit 1520 includes a second escape prevention support member 1521, a second escape prevention screw member 1522, a second escape prevention spring member 1523, and a second escape prevention jump prevention member 1524.

[0154] The second escape prevention support member 1521 is installed on the inner surface of the window unit 1300, forms the upper groove 1310, and is capable of generating a rotational driving force.

[0155] The second anti-falling screw member 1522 is screwed to the second escape prevention support member 1521, such that the lower portion is rotatable in the circumferential direction of a circle centered on the up-and-down direction, and is rotatable by the rotational driving force of the second escape prevention support member 1521 through a screw coupling, and is movable in the up-and-down direction.

[0156] The second anti-falling spring member 1523 is coupled to the upper portion of the second anti-falling screw member 1522 in the up-and-down direction, and forms an extendable and contractible shape.

[0157] The second escape prevention support member 1524 is coupled to the upper portion of the second escape prevention spring member 1523, and is made of an EDPM material.

[0158] In this way, the escape prevention unit is supported by the rail unit when connected to the screen window unit, and thus has the effect of preventing the screen window unit from falling off the window frame unit. In addition, the escape prevention unit prevents the screen window unit from moving away while suppressing wear of the rail unit by adjusting the force with which the anti-falling unit exerts pressure on the rail unit.

[0159] The embodiments of the present application are described in more detail with reference to the above-described drawings, but the present application is not necessarily limited to such embodiments, and various modifications can be made within the scope of the technical idea of the present application. Therefore, the disclosed embodiments of the present application are not intended to limit the technical idea of the present application, but to explain the technical idea of the present application, and the scope of the technical idea of the present application is not limited by such embodiments. Therefore, the above-described embodiments should be understood as illustrative, not limiting in all respects. The scope of protection of the present application should be interpreted according to the following claims, and all technical ideas within the equivalent scope should be interpreted as belonging to the scope of protection of the present application.

[0160] Thus, other implementations, other embodiments, and equivalents thereof do not depart from the scope of the claims.

Claims

1. A window frame system with a fall prevention structure, wherein, As a window frame system with a fall prevention structure installed on a building wall, comprising: a window frame unit installed on a building wall, which forms a square frame, penetrates the inside in a cross direction, extends in an up-down direction, is perpendicular to the up-down direction, and is horizontally and longitudinally orthogonal; a plurality of guide rail units installed on the inside of the window frame unit at the upper and lower portions, respectively, and extending in the longitudinal direction; a center penetrating the inside in the cross direction, forming an upper groove and a lower groove in the upper and lower portions, respectively, and forming an upper groove and a lower groove in the window unit into which the plurality of guide rail units are inserted, respectively; an insect screen unit installed in the penetration center of the window unit; one side is installed in the upper groove, and the other side is supported by the guide rail unit; and the fall prevention unit is a window frame system with a fall prevention structure, which is composed of an elastic support for the window unit, which extends toward the guide rail unit inserted into the upper groove while being fixed to the inner wall of the window unit forming the upper groove.

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