EP3581746A1 - Combined damping and pulling device for a middle door - Google Patents
Combined damping and pulling device for a middle door Download PDFInfo
- Publication number
- EP3581746A1 EP3581746A1 EP19000283.2A EP19000283A EP3581746A1 EP 3581746 A1 EP3581746 A1 EP 3581746A1 EP 19000283 A EP19000283 A EP 19000283A EP 3581746 A1 EP3581746 A1 EP 3581746A1
- Authority
- EP
- European Patent Office
- Prior art keywords
- slide
- driver
- closing device
- hook
- spring
- Prior art date
- Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
- Granted
Links
- 238000013016 damping Methods 0.000 title claims abstract description 72
- 238000004146 energy storage Methods 0.000 claims abstract description 6
- 230000008878 coupling Effects 0.000 description 45
- 238000010168 coupling process Methods 0.000 description 45
- 238000005859 coupling reaction Methods 0.000 description 45
- 230000007704 transition Effects 0.000 description 8
- 230000002040 relaxant effect Effects 0.000 description 5
- 238000006073 displacement reaction Methods 0.000 description 4
- 238000007789 sealing Methods 0.000 description 4
- 125000006850 spacer group Chemical group 0.000 description 3
- 230000006835 compression Effects 0.000 description 2
- 238000007906 compression Methods 0.000 description 2
- 230000002093 peripheral effect Effects 0.000 description 2
- 230000036316 preload Effects 0.000 description 2
- 241000237983 Trochidae Species 0.000 description 1
- 238000005452 bending Methods 0.000 description 1
- 230000005540 biological transmission Effects 0.000 description 1
- 230000003111 delayed effect Effects 0.000 description 1
- 238000007599 discharging Methods 0.000 description 1
- 239000010720 hydraulic oil Substances 0.000 description 1
- 238000009434 installation Methods 0.000 description 1
- 239000003921 oil Substances 0.000 description 1
- 230000001960 triggered effect Effects 0.000 description 1
Images
Classifications
-
- E—FIXED CONSTRUCTIONS
- E05—LOCKS; KEYS; WINDOW OR DOOR FITTINGS; SAFES
- E05F—DEVICES FOR MOVING WINGS INTO OPEN OR CLOSED POSITION; CHECKS FOR WINGS; WING FITTINGS NOT OTHERWISE PROVIDED FOR, CONCERNED WITH THE FUNCTIONING OF THE WING
- E05F1/00—Closers or openers for wings, not otherwise provided for in this subclass
- E05F1/08—Closers or openers for wings, not otherwise provided for in this subclass spring-actuated, e.g. for horizontally sliding wings
- E05F1/16—Closers or openers for wings, not otherwise provided for in this subclass spring-actuated, e.g. for horizontally sliding wings for sliding wings
-
- E—FIXED CONSTRUCTIONS
- E05—LOCKS; KEYS; WINDOW OR DOOR FITTINGS; SAFES
- E05F—DEVICES FOR MOVING WINGS INTO OPEN OR CLOSED POSITION; CHECKS FOR WINGS; WING FITTINGS NOT OTHERWISE PROVIDED FOR, CONCERNED WITH THE FUNCTIONING OF THE WING
- E05F5/00—Braking devices, e.g. checks; Stops; Buffers
- E05F5/003—Braking devices, e.g. checks; Stops; Buffers for sliding wings
-
- E—FIXED CONSTRUCTIONS
- E05—LOCKS; KEYS; WINDOW OR DOOR FITTINGS; SAFES
- E05Y—INDEXING SCHEME ASSOCIATED WITH SUBCLASSES E05D AND E05F, RELATING TO CONSTRUCTION ELEMENTS, ELECTRIC CONTROL, POWER SUPPLY, POWER SIGNAL OR TRANSMISSION, USER INTERFACES, MOUNTING OR COUPLING, DETAILS, ACCESSORIES, AUXILIARY OPERATIONS NOT OTHERWISE PROVIDED FOR, APPLICATION THEREOF
- E05Y2201/00—Constructional elements; Accessories therefor
- E05Y2201/10—Covers; Housings
-
- E—FIXED CONSTRUCTIONS
- E05—LOCKS; KEYS; WINDOW OR DOOR FITTINGS; SAFES
- E05Y—INDEXING SCHEME ASSOCIATED WITH SUBCLASSES E05D AND E05F, RELATING TO CONSTRUCTION ELEMENTS, ELECTRIC CONTROL, POWER SUPPLY, POWER SIGNAL OR TRANSMISSION, USER INTERFACES, MOUNTING OR COUPLING, DETAILS, ACCESSORIES, AUXILIARY OPERATIONS NOT OTHERWISE PROVIDED FOR, APPLICATION THEREOF
- E05Y2201/00—Constructional elements; Accessories therefor
- E05Y2201/20—Brakes; Disengaging means; Holders; Stops; Valves; Accessories therefor
- E05Y2201/262—Type of motion, e.g. braking
- E05Y2201/264—Type of motion, e.g. braking linear
-
- E—FIXED CONSTRUCTIONS
- E05—LOCKS; KEYS; WINDOW OR DOOR FITTINGS; SAFES
- E05Y—INDEXING SCHEME ASSOCIATED WITH SUBCLASSES E05D AND E05F, RELATING TO CONSTRUCTION ELEMENTS, ELECTRIC CONTROL, POWER SUPPLY, POWER SIGNAL OR TRANSMISSION, USER INTERFACES, MOUNTING OR COUPLING, DETAILS, ACCESSORIES, AUXILIARY OPERATIONS NOT OTHERWISE PROVIDED FOR, APPLICATION THEREOF
- E05Y2201/00—Constructional elements; Accessories therefor
- E05Y2201/40—Motors; Magnets; Springs; Weights; Accessories therefor
- E05Y2201/404—Function thereof
- E05Y2201/41—Function thereof for closing
- E05Y2201/412—Function thereof for closing for the final closing movement
-
- E—FIXED CONSTRUCTIONS
- E05—LOCKS; KEYS; WINDOW OR DOOR FITTINGS; SAFES
- E05Y—INDEXING SCHEME ASSOCIATED WITH SUBCLASSES E05D AND E05F, RELATING TO CONSTRUCTION ELEMENTS, ELECTRIC CONTROL, POWER SUPPLY, POWER SIGNAL OR TRANSMISSION, USER INTERFACES, MOUNTING OR COUPLING, DETAILS, ACCESSORIES, AUXILIARY OPERATIONS NOT OTHERWISE PROVIDED FOR, APPLICATION THEREOF
- E05Y2201/00—Constructional elements; Accessories therefor
- E05Y2201/40—Motors; Magnets; Springs; Weights; Accessories therefor
- E05Y2201/404—Function thereof
- E05Y2201/422—Function thereof for opening
- E05Y2201/424—Function thereof for opening for the final opening movement
-
- E—FIXED CONSTRUCTIONS
- E05—LOCKS; KEYS; WINDOW OR DOOR FITTINGS; SAFES
- E05Y—INDEXING SCHEME ASSOCIATED WITH SUBCLASSES E05D AND E05F, RELATING TO CONSTRUCTION ELEMENTS, ELECTRIC CONTROL, POWER SUPPLY, POWER SIGNAL OR TRANSMISSION, USER INTERFACES, MOUNTING OR COUPLING, DETAILS, ACCESSORIES, AUXILIARY OPERATIONS NOT OTHERWISE PROVIDED FOR, APPLICATION THEREOF
- E05Y2800/00—Details, accessories and auxiliary operations not otherwise provided for
- E05Y2800/20—Combinations of elements
- E05Y2800/23—Combinations of elements of elements of different categories
- E05Y2800/24—Combinations of elements of elements of different categories of springs and brakes
-
- E—FIXED CONSTRUCTIONS
- E05—LOCKS; KEYS; WINDOW OR DOOR FITTINGS; SAFES
- E05Y—INDEXING SCHEME ASSOCIATED WITH SUBCLASSES E05D AND E05F, RELATING TO CONSTRUCTION ELEMENTS, ELECTRIC CONTROL, POWER SUPPLY, POWER SIGNAL OR TRANSMISSION, USER INTERFACES, MOUNTING OR COUPLING, DETAILS, ACCESSORIES, AUXILIARY OPERATIONS NOT OTHERWISE PROVIDED FOR, APPLICATION THEREOF
- E05Y2900/00—Application of doors, windows, wings or fittings thereof
- E05Y2900/20—Application of doors, windows, wings or fittings thereof for furniture, e.g. cabinets
Definitions
- the invention relates to a combined damping and closing device for a center door with a housing in which a driving element can be moved between two parking positions.
- the driving element can be coupled to a transmission carriage in which a damping device is mounted.
- a spring slide can be coupled to it.
- the problem underlying the present invention is to develop a compact damping and closing device.
- driver slides which can alternatively be positively coupled to the driving element, are each guided between a non-positively and / or positively secured waiting position and a non-positively and / or positively secured end position.
- a cylinder-piston unit which can be loaded by means of both driver slides is axially displaceably mounted in the housing.
- Each driver slide either has a spring mount or is coupled or can be coupled to a spring slide having a spring mount.
- a spring energy store is held in both spring mounts.
- the described combined damping and closing device enables the middle sliding door to be opened from a closed basic position in both directions and to be closed from both directions. In the event of an overload, for example if the door is closed too quickly, the sliding door can open in the other direction. This prevents damage.
- a driving element of the damping and closing device is triggered from a parking position when the sliding door is closed.
- a resultant force from a damping device which retards the closing movement and a force emanating from the spring energy accumulator and accelerating the closing movement promotes the entraining element and the sliding door which can be coupled therewith into the basic position.
- the driving element couples with one of the driving slides, depending on the stroke section, while the other in its end position remains.
- the driver element couples to the left driver slide.
- the driving element couples with the right driving slide.
- the two driver slides, together with the discharging spring energy store load the cylinder-piston unit.
- the Figure 1 shows a combined damping and closing device (10) for center doors.
- Devices of this type are used on furniture, for example cupboards, with at least three sliding doors. At least a middle one of these three sliding doors, which is guided, for example, in front of or behind the two outer sliding doors, can be opened from the basic position (11) shown both in an opening direction (2) to the left and in an opening direction (4) to the right. Closing in the closing direction (3; 5) then takes place in the opposite direction.
- the combined damping and closing device (10) can be arranged on the furniture body or on the sliding door. In operation, it interacts with a driver (6), which is attached to the respective counterpart, either on the sliding door or on the furniture body.
- the arrangement of the combined damping and closing device (10) on the furniture body, for example on the ceiling of the interior, is described below. For example, it is fastened there by means of two screws which are inserted into through holes (21).
- the combined damping and closing device (10) has a housing (20), in which one at least in regions out of the housing (20) projecting driving element (71) is arranged to be displaceable in the longitudinal direction (15).
- This driving element (71) points in the direction of the closed sliding door, for example, not shown here.
- It has two catch hooks (82, 282) spaced apart from one another.
- these driving hooks (82, 282) are symmetrical to a central transverse plane of the combined damping and closing device (10).
- the two driving hooks (82, 282) each have a hook surface (83, 283).
- the two hook surfaces (83, 283) are parallel to one another in the basic position (11) of the driving element (71).
- the length of the combined damping and closing device (10) is 270 millimeters in this exemplary embodiment.
- Their height in the height direction (14) including the parts of the driving element (71) protruding from the housing (20) is, for example, 30 millimeters.
- the height of the housing (20) is 24 millimeters.
- the width of the combined damping and closing device (10) is determined by the width of the housing (20). In the exemplary embodiment, this is 12 millimeters.
- the housing (20) consists of a lower housing part (31) and an upper housing part (61). Both parts enclose a housing interior (22).
- the upper housing part (61) overlaps with corresponding webs of the lower housing part (31), at least in regions, with end webs (62).
- the lower housing part (31) and the upper housing part (61) are joined together.
- the two parts (31, 61) are screwed, glued or welded together.
- the housing (20) has a longitudinal slot (24) on one longitudinal end face, through which the housing interior (22) is connected to the surroundings (1).
- the longitudinal slot (24) has a rectangular cross-sectional area.
- the length of the longitudinal slot oriented in the longitudinal direction (15) (24) is 88% of the length of the housing (20) in the exemplary embodiment.
- the width of the longitudinal slot is, for example, 45% of the width of the housing (20).
- the catch hooks (82, 282) protrude into the surroundings (1) through this longitudinal slot (24).
- the housing (20) On its side surface (25), the housing (20) has two slot-like guide grooves (32, 42) arranged symmetrically to the central transverse plane both on the lower housing part (31) and on the upper housing part (61). These guide grooves (32, 42) each have a straight guide groove section (33, 43) oriented in the longitudinal direction (15).
- the guide grooves (32, 42) are shown at both ends in the illustration of FIG Figure 1 turned down.
- the respective end section (34; 44) encloses an angle of, for example, 90 degrees with the straight guide track section (33; 43).
- the individual guide groove (32; 42) At the end facing away from the central transverse plane, the individual guide groove (32; 42) has a waiting section (35; 45).
- the waiting section (35; 45) is, for example, twice as long as the end section (34; 44).
- a first driver slide guide pin (102; 302) is mounted in each case in the straight guide groove section (33; 43) of the guide grooves (32: 42).
- the driver slide guide pins (102, 103; 302, 303) mounted in one of the guide grooves (32; 42) are together on a driver slide (101; 301), cf. Figure 23 arranged.
- the housing (10) can also be designed in such a way that the guide grooves (32; 42) designed here as openings are sunk into the housing inner wall (26). You are then not visible from the outside of the housing (10).
- the Figures 2-16 show a combined damping and closing device (10) with removed housing upper part (61) and its individual parts. It comprises a driving element (71) arranged in the lower housing part (31), two driving slides (101, 301), a cylinder-piston unit (141) and a spring energy accumulator (161).
- the driving element (71) is in a middle position. This position is referred to below as the basic position (11) of the combined damping and closing device (10).
- the spring energy store (161) is designed as a tension spring (161).
- the lower housing part (31) has a side wall (36), the inside of which is delimited by end webs (37) which are approximately normal to the side wall (36).
- the end webs (37) enclose an angle of 2 degrees with a normal plane to the side wall (36).
- the width of the end webs (37) normal to the side wall (36) corresponds to the width of the housing interior (22). They are offset inwards by their width from the contour of the side wall (36).
- the end webs (36) are replaced by a ceiling web (38). Its width is, for example, a quarter of the width of the end webs (37).
- a control track (46) is arranged in the side wall (36) below the longitudinal slot (24).
- the length of the control track (46) in the longitudinal direction (15) is, for example, 84% of the length of the lower housing part (31).
- the control track (46) has a straight control section (47) oriented in the longitudinal direction (15), at the two ends of which a parking section (48; 49) projects in the direction facing away from the longitudinal slot (24).
- the individual parking section (48; 49) closes with the straight control section (47) an angle of 90 degrees.
- the respective transitions between the individual parking section (48; 49) and the straight control section (47) are curved.
- the angle enclosed by the parking section (48; 49) and the straight control section (47) can also be larger, for example 135 degrees.
- the control track (46) is surrounded, for example, by a limiting web (39) projecting into the housing interior (22).
- the width of this boundary web (39) is, for example, one millimeter.
- FIG. 1 shows normal and symmetrical to the central transverse plane of the damping and closing device (10)
- Figure 3 a spacer web (51) is arranged below the straight control section (47).
- a slide channel (52) adjoins the spacer web (51).
- the slide channel (52) is oriented in the longitudinal direction (15). It has a constant, bowl-shaped cross section and is open on one side. For example, their radius is 4 millimeters.
- the length of the slide channel (52) is, for example, 32% of the length of the housing (20).
- the slide channel (52) is delimited by a head shell (53).
- the length of the head shell (53) is 4% of the length of the housing (20) in the exemplary embodiment. It has a constant cross section, which is smaller than the cross section of the slide channel (52).
- the imaginary center lines of the slide channel (52) and the head shell (53) are aligned with one another.
- the group of the slide channel (52) and the head shell (53) is arranged symmetrically to the central transverse plane of the combined damping and closing device (10).
- the guide grooves (32, 42) are arranged in front of and behind the group of slide channel (52) and head shell (53).
- the guide grooves (32, 42) are thus each between the group mentioned and the end wall (27) delimiting the combined damping and closing device (10) in the longitudinal direction (15).
- the waiting sections (35, 45) of the guide grooves (32, 42) are bent in the same direction as the parking sections (48, 49) of the control track (46).
- the waiting sections (35, 45) are shown in FIG Figure 2 delegated below the park sections (48, 49).
- the respective end section (34; 44) forms an angle of, for example, 115 degrees with the straight guide groove section (33; 43) at the end facing the central transverse plane.
- the individual guide groove (32; 42) has a waiting section (35; 45). This includes an angle of, for example, 100 degrees with the straight guide groove section (33; 43).
- the guide grooves (32; 42) are delimited on the side of the housing interior (22), for example by means of an edge web (54). Its width is, for example, one millimeter.
- control track (46) and the guide grooves (32, 42) can be designed as control links and guide links.
- the lower limit of the grooves (32, 42, 46) is designed as a sliding surface.
- the Figure 4 shows the driving element (71).
- the driving element (71) in the exemplary embodiment consists of two hook slides (81, 281) and a connecting rod (72) arranged between them.
- Each of the hook slides (81; 281) has a driving hook (82; 282).
- the hook slides (81; 281) arranged at both ends of the connecting rod (72) are pivotally connected to the connecting rod (72).
- the swivel joint is formed in each case by a swivel pin (73; 74) arranged on the connecting rod (72), each of which is in a swivel bushing (84; 284) of the hook slide (81; 281), cf. Figure 5 , is stored.
- the pivot pin (73; 74) projects from the hook slide (81; 281) on both sides, for example.
- the length of the connecting rod (72) is, for example, 36% of the length of the combined damping and closing device (10).
- the driving element (71) can also be formed in one piece.
- the hook slides (81; 281) are e.g. rigidly and immovably connected to the connecting rod (72).
- An embodiment of the driving element (71) with film joints between the hook slides (81; 281) and the connecting rod (72) is also conceivable.
- the hook slide (81; 281) is shown as an individual part in two isometric views.
- the two hook slides (81; 281) are identical to one another in the exemplary embodiment.
- the individual hook pusher (81; 281) comprises the catch hook (82; 282) and a hook pusher body (85).
- the driving hook (82; 282) is, for example, web-like. In the exemplary embodiment shown, it is integrally formed on the hook slide body (85).
- the hook surface (83; 283) is aligned in the representations, for example, normal to the surface (86) of the hook slide body (85).
- the hook pusher body (85) has a prism-shaped support body (87) adjoining its surface (86), which sits on a main body (88).
- the latter has, at least approximately, a cuboidal envelope contour. He has on both sides each have a cylindrical control pin (89).
- a plane spanned by the center lines of the control pins (89) and the pivot bushing (84; 284) is, for example, normal to the plane of the hook surface (83; 283).
- the coupling pin (92) On the underside (91) of the hook slide body (85) has a coupling pin (92) in the exemplary embodiment.
- This has, for example, a rectangular cross-sectional area. It merges laterally into two side webs (93) which delimit the hook pusher body (85) in the width direction (29).
- the height of the coupling pin (92) is three millimeters in the exemplary embodiment.
- the coupling pin (92) has two coupling surfaces (94, 95) pointing in the longitudinal direction and facing away from one another.
- a first coupling surface (94) is oriented in the direction facing the catch hook (82; 282).
- a second coupling surface (95) points in the direction of the swivel bushing (84; 284).
- both coupling surfaces (94, 95) are formed parallel to one another.
- the first coupling surface (94) is from said normal plane e.g. spaced apart by 3.3% of the distance between said center lines in the direction of the hook-side end face (96).
- the second coupling surface (95) is in the exemplary embodiment from a normal plane containing the center lines of the control pins (89) to the plane spanned by the center lines of the control pins (89) and the pivot bushing (84, 284) by a third of the distance of the center lines in the direction of the Swivel bushing (84; 284) offset.
- One of the coupling surfaces (94; 95) or both coupling surfaces (94, 95) can be curved.
- the single coupling surface (94; 95) can be convex, uniaxial curved surface.
- the arch axis then runs in the width direction (29).
- Both coupling surfaces (94, 95) can also be designed as single-axis concave or as double-axis curved surfaces. They can be spaced apart from one another up to the length of the hook slide (81; 281).
- the coupling pin (92) can also be constructed from two, for example parallel, webs which are spaced apart from one another in the longitudinal direction of the hook slide (81; 281).
- the Figures 7 and 8 show a driver slide (101; 301).
- the two driver slides (101, 301) of the combined damping and closing device (10) are identical.
- the individual driver slide (101; 301) has a driver slide body (104) which has two driver slide guide pins (102, 103; 302, 303) on each of its two side surfaces (105). All driver slide guide pins (102, 103, 302, 303) are cylindrical in the exemplary embodiment. They have the same length and the same diameter.
- the distance between the center lines of the driver slide guide pins (102, 103; 302, 303) of a driver slide (101; 301) is, for example, 80% of the distance between the center lines of the control pins (89) and the center line of the swivel bushing (84; 284).
- the driver slide (101; 301) has a stop face (106) on one end face, which, when the driver slide (101; 301) is installed, points in the direction of the central transverse plane of the damping and closing device (10).
- This is prism-shaped in cross section with rounded transitions. It has three partial areas arranged one above the other (107 - 109).
- the upper two partial surfaces (107, 108) adjoin one another in a transition radius.
- the middle partial surface (108) is normal to one of the center lines of the driver slide guide pins (102, 103; 302, 303) spanned level.
- the upper partial surface (107) deviates from the plane of the central partial surface (108) by an angle of 20 degrees.
- the transition between the central partial surface (108) and the lower partial surface (109) is also rounded.
- the lower partial surface (109) encloses an angle of 27 degrees with the plane of the central partial surface (108).
- the imaginary intersection of the planes of the central partial surface (108) and the lower partial surface (109) lies below the plane spanned by the central lines of the driving slide guide pins (102, 103; 302, 303).
- the imaginary line of intersection of the plane of the lower partial surface (109) and the plane of the upper partial surface (107) lies outside the driver slide (101; 301).
- the end face (111) of the driver slide (101; 301) facing away from the stop face (106) is designed as a flat face in the exemplary embodiment.
- the driver slide (101; 301) has a coupling recess (112) on its upper side.
- the length of this coupling recess (112) in the longitudinal direction is, for example, 11% greater than the length of the coupling pin (92).
- the depth of the coupling recess (112) is, for example, two thirds of the height of the coupling pin (92).
- the width of the coupling recess (112) is slightly smaller than the distance between the side webs (93) of the hook slide (81; 281).
- the coupling recess (112) is delimited in the longitudinal direction by means of two slide surfaces (113, 114) pointing towards each other.
- both slide surfaces (113, 114) are designed as flat surfaces and are arranged parallel to one another.
- the distance between the plane of the second slide surface (114) and the center line of the guide pins (103; 303) adjacent to the stop surface (106) is, for example, 58% of the distance between the center lines both guide pins (102, 103; 302, 303).
- the center line of the guide pins (102; 302) lies in the plane of the first slide surface (113).
- the two slide surfaces (113, 114) can be curved in one or more axes. For example, they can be concavely curved in one axis.
- the driver slide (101; 301) has a spring holder (116) on its underside (115). This comprises a retaining web (117) with a central receiving groove (118) and a securing hook (119).
- the spring holder (116) is arranged on the end of the driver slide (101; 301) facing the stop surface (106).
- the Figure 9 shows a longitudinal section of a cylinder-piston unit (141).
- the cylinder-piston unit (141) comprises a cylinder (142) in which a piston (144) connected to a piston rod (143) can be moved linearly.
- the piston rod (143) is retracted.
- the piston (144) is in its left end position.
- a return spring (146) which is supported on the closed cylinder base (145) and on the piston (144), for example, is compressed.
- This return spring (146) is a compression spring in the exemplary embodiment.
- the displacement space (147) located between the piston (144) and the cylinder base (145) has its minimum volume.
- the piston (144) has throttle channels (148) oriented in the longitudinal direction (15), through which, when the piston (144) moves in the direction of the cylinder head (149), hydraulic oil, for example, from a between the cylinder head (149) and the piston (144 ) lying compensation chamber (151) can flow into the displacement chamber (147) while simultaneously moving a throttle disc (152).
- the piston (144) can be sealed against the cylinder inner wall (153).
- On the piston peripheral surface (154) and / or further throttle channels can also be formed on the cylinder inner wall (153).
- the compensation space (151) is delimited by a compensation sealing element (155).
- This compensation sealing element (155) is by means of e.g. compensating spring (156) designed as a compression spring is supported on the cylinder head (149). It is sealed both on the piston rod (143) and on the inside wall of the cylinder (153).
- the piston rod (143) penetrates the cylinder head gasket (157) and has a piston rod head (158) located outside the cylinder (142).
- the cylinder-piston unit (141) can also be pneumatic.
- the compensating sealing element (155) and the compensating spring (156) can be omitted.
- the compensation chamber (151) can have a pneumatic connection to the housing interior (22) at least in a stroke end position.
- the driver slides (101, 301) are inserted into the guideways (32, 42) of the lower housing part (31), for example.
- the pre-assembled driver element (71) is used in such a way that the control pins (89) and the pivot pins (73, 74) lie in the control track (46).
- the driving element (71) can be inserted into the center of the control track (46).
- the cylinder-piston unit (141) is inserted between the driver slides (101, 301).
- the spring energy storage device (161) is hooked into the two spring receptacles (116), for example by applying a preload. Both driver slides (101, 301) are moved, for example, into their end positions (17; 19).
- the cylinder-piston unit (141) is then retracted The distance between the spring mounts (116) is minimal.
- the housing (20) is then closed by fitting the housing cover (61). This assembly can be done, for example, using a template.
- the assembled damping and closing device (10) is e.g. attached to the ceiling of a furniture body.
- a driver (6) is attached to the inner sliding door.
- the Figure 2 shows the combined damping and closing device (10) in the basic position (11).
- the sliding door is closed.
- the driving element (71) is located in the center of the straight control section (47) of the control track (46).
- the hook slides (81, 281) are, for example, without contact with the driving slides (101; 301) which are in their respective end positions (17; 19), cf.
- Figure 10 In this end position (17; 19) the driver slides (101; 301) are non-positively and / or positively secured.
- the plane of the driver slide guide pins (102, 103; 302, 303) includes an angle of 13 degrees with the longitudinal direction (15).
- the tension spring (161) is relaxed except for the preload. It has its minimum operating length.
- the cylinder-piston unit (141) is retracted.
- the driver (6) moves the driver element (71) to the right.
- the driver slide (301) is pivoted about the first guide pin (302) displaced along the guide groove (42).
- the second guide pin (303) enters the straight guide groove section (43).
- the Indian Figure 2 The first driver slide (101) shown on the left remains in its end position (17).
- the tension spring (161) is tensioned.
- the piston rod head (158) migrates along the stop surface (106) into the second partial surface (108).
- the piston rod (143) is extended by means of the return spring (146).
- the Figure 12 shows a partial sectional view of the second hook slide (281) and the second driver slide (301) during the further movement in the opening direction (4) to the right.
- the hook slide (281) continues to rest with its first coupling surface (94) on the first slide surface (113).
- the driver slide (301) is shifted to the right along the guideway (42).
- the first driver slide (101) remains in its end position (17).
- the tension spring (161) is tensioned.
- the piston rod (143) of the cylinder-piston unit (141) extends. Depending on the opening speed of the sliding door, the piston rod head (158) can detach from the driving slide (301).
- the driving element (71) with the two hook slides (81, 281) is moved further to the right.
- the right hook slide (281) presses the second driver slide (301) further to the right.
- the first guide pin (302) of the driver slide (301) enters the Transition arch to the waiting section (45). This is shown in FIG. 13.
- the first guide pin (302) is in this - non-stationary - representation at the apex of the transition arch.
- the tension spring (161) is stretched to its maximum operating length in this position.
- the hook slide (281) continues to push the coupling recess (112) of the driving slide (301) to the right.
- the relaxing tension spring (161) loads the driving slide (301) with a torque around the second guide pin (303).
- the driver slide (301) is pulled into the second waiting position (18) by means of the tension spring (161), cf. the Figures 14 and 15 ,
- the angle of the driver slide (301) relative to the longitudinal direction (15) is, for example, 21 degrees in the waiting position. There it remains firmly and / or positively secured.
- the hook slide (281) - and thus the driving element (71) - and the driving slide (301) are coupled to one another, for example, during the entire movement.
- the second hook slide (281) is displaced with its control pin (89) into the curve of the control track (46) and into the second parking section (49).
- the coupling pin (92) is immersed, for example, with play on all sides in the coupling recess (112) of the second driver slide (301).
- the catch hook (282) of the second hook slide (281) plunges into the envelope contour of the housing (20).
- the driving element (71) is now in a second parking position (13). In this second parking position (13), it can be secured non-positively and / or positively, for example by means of the second driver slide (301). However, it is also conceivable that the driving element (71) in the parking position (13) is decoupled from the driving slide (301) standing in the waiting position (18).
- the first hook slide (81) is in the straight control section (47) of the control track (46).
- the spring energy store (161) is charged, the stored energy being less than the maximum operating energy.
- the cylinder-piston unit (141) is extended. In the representation of the Figure 15 the cylinder-piston unit (141) continues to rest with the cylinder base (145) on the upper partial surface (107) of the stop surface (106) of the first driver slide (101). The first driver slide (101) is still in its end position (17).
- the piston rod (143) loaded by means of the return spring (146) is supported on the lower partial surface (109) of the stop surface (106) of the second driver slide (301).
- the sliding door can now be opened further to the right.
- the combined damping and closing device (10) remains in its position.
- the driver (6) is then completely separated from the driver element (71).
- the driver (6) passes the second hook slide (281) without contact.
- the damping and closing device (10) is in its Figure 15 shown location.
- the driver (6) strikes the first hook slide (81) of the driver element (71).
- the first hook slide (81) is moved to the left. He takes the second hook pusher (281) with him via the connecting rod (72).
- the second hook pusher (281) is pulled along the control path (46).
- the second hook pusher (281) pivots about the pivot pin (74) guided in the control track (46).
- the second hook pusher (281) hits with his second coupling surface (95) to the second slide surface (114) of the second driver slide (301).
- the second driver slide (301) is taken along.
- the first driver slide (101) remains at rest.
- the piston rod (143) of the cylinder-piston unit (141) is retracted relative to the cylinder (142). Oil, for example, is pressed out of the displacement space (147) through the throttle channels (148) into the compensation space (151).
- the movement of the driver slides (101, 301) towards one another is delayed.
- the movement of the sliding door is dampened.
- the relaxing spring energy store (161) loads the two driver slides (101, 301) with respect to one another with a tensile force. A resulting force from the spring force and the damping force thus acts on the sliding door. A quickly closed sliding door is braked.
- the second driver slide (301) is pivoted into the horizontal position.
- the first hook pusher (81) pulls the second hook pusher (281) along the control path (46) analogously to the illustration of FIG Figure 12 ,
- the second driver slide (301) is pulled along.
- the piston rod (143) of the cylinder-piston unit (141) now rests on the central partial surface (108) of the stop surface (106).
- the piston rod (143) is retracted further.
- the spring energy accumulator (161) which continues to relax, acts on the entraining element (71) via the entraining slide (301).
- the sliding door is further braked, for example to a residual speed.
- the second guide pin (303) of the driver slide (301) swings into the end section (44). This movement is supported by the hook slide (281).
- the contact zone of the piston rod head (158) and the stop surface (106) moves in the first partial area (107).
- the piston rod (143) pushes the driving element (301) into the end position (19).
- the hook pusher (281) detaches from the driver pusher (301).
- the tension spring (161) which relaxes to the minimum operating length, pulls the sliding door into the Figure 2 shown closed position.
- the manual or motorized opening of the sliding door in an opening direction (2) to the left is carried out analogously.
- the piston rod head (158) and the piston rod (143) keep their position relative to the housing (20) and the second driver slide (301).
- the cylinder (142) slides to the left along the slide channel (52). If the sliding door is opened quickly, the cylinder base (145) can temporarily detach itself from the first driving element (101).
- the Figure 16 shows the combined damping and closing device (10) with the driving element (71) in the left parking position (12), the first parking position (12).
- the first driver slide (101) is in the first waiting position (16).
- the piston rod (143) of the cylinder-piston unit (141) is extended and lies against the first partial surface (107) of the stop surface (106) of the second driver slide (301).
- This second driver slide (302) is in the end position (19). With the cylinder bottom (145), the cylinder-piston unit (141) bears against the third partial surface (109) of the stop surface (106) of the first driver slide (101). This is also pressed into the waiting position (16). The swivel angle of the driver slide (101; 301) in the waiting position (16; 18) relative to the longitudinal direction (15) of the combined damping and closing device (10) is greater than the swivel angle of the other driver element (301; 101) relative to the Longitudinal direction (15) in the respective end position (19; 17). The spring energy storage (161) is charged.
- Closing in a closing direction (3) from the left is analogous to closing the sliding door that is open to the right.
- the combined damping and closing device (10) then takes its in again Figure 2 shown starting position.
- the sliding door is closed too quickly, for example, it may still be too high in the basic position (11). It then continues in the other opening direction (2; 4).
- the driving element (71) releases the respective driving slide (101; 301) from its end position (17; 19) and moves it in the opening direction (2; 4).
- the tension spring (161) is tensioned. After the sliding door has come to a standstill, it is pulled back into the basic position (11) by means of the tension spring (161).
- the sliding door When the sliding door is partially opened, it is stopped, for example, when the driving element (71) is in a position between the basic position (11) and one of the parking positions (12; 13).
- the piston rod (143) extends out of the cylinder (142) in some areas.
- the tension spring (161) is loaded to a value between its minimum operating voltage and its maximum operating voltage. For example, when the sliding door is released, the relaxing tension spring (161) pulls the sliding door back into the in the Figure 2 shown basic position (11).
- the combined damping and closing device (10) Before the sliding door is closed for the first time after assembly, the combined damping and closing device (10) is in the basic position (11), for example.
- the sliding door contacts one of the catch hooks (82; 282) from the outside and deforms it elastically.
- the driver hook (82; 282) After passing the driver (6), the driver hook (82; 282) returns to its original shape.
- the driver (6) now sits between the catch hook (82; 282). It is also conceivable to bring the combined damping and closing device (10) into a parking position (12; 13) before the sliding door is closed for the first time.
- the Figures 17-30 show further views and details of the in the Figure 1 shown damping and closing device (10).
- the damping and closing device (10) is shown in the basic position (11) with the upper housing part (61) removed.
- a driving element (71) is guided in the lower housing part (31) between two parking positions (12, 13). Depending on its stroke range, this driving element (71) can be coupled relative to the basic position (11) with a first driving slide (101) or with a second driving slide (301).
- a cylinder-piston unit (141) with an extendable piston rod (143) and a cylinder (142) displaceable in the longitudinal direction (15) relative to the housing (20) is arranged between the two driver slides (101, 301).
- the cylinder-piston unit (141) is constructed as in connection with that in connection with the Figures 2-16 described embodiment described.
- Each of the driver slides (101; 301) is coupled to a spring slide (131; 331).
- the two spring slides (131; 331) can each be moved along a linear path (55; 56) in the housing (20).
- the Figure 18 shows the lower housing part (31) of the combined damping and closing device (10) shown in FIG.
- the control path (46) adjacent to the longitudinal slot (24) also has a straight control section (47) in this exemplary embodiment, to which a parking section (48; 49) is connected on both sides.
- the angle enclosed by the respective parking section (48; 49) and the straight section (47) is 120 degrees in this exemplary embodiment.
- the transition between the individual parking section (48; 49) and the straight section (47) is curved.
- the length of the control track (46) in this exemplary embodiment is 87% of the length of the housing (20).
- the two parking sections (48; 49) are at least triangular in the exemplary embodiment.
- the imaginary angle at the end of the park section (48; 49) is, for example, 37 degrees.
- the group of slide channel (52) and head shell (53) for the cylinder-piston unit (141) is designed as described in connection with the first embodiment. It is arranged centrally to the central transverse plane of the combined damping and closing device (10).
- the two guide grooves (32, 42) are arranged in the lower housing part (31) axisymmetrically to the central transverse plane. They each have an outside waiting section (35; 45), a straight guide groove section (33; 43) and an end section (34; 44) facing the slide channel (52).
- the distance in the height direction (14) between the horizontal center lines of the control track (46) and the guide grooves (32, 42) is, for example, 35% of the height of the housing (20).
- the length of a single guide groove (32, 42) is, for example, 22% of the length of the housing (20).
- a linear path (55, 56) is arranged on the side of the guide grooves (32, 42) facing away from the control path (46). This is formed horizontally and arranged parallel to the straight section (33; 43) of the guideways (32; 42) and to the straight section (47) of the control track (46).
- the length of the linear tracks (55; 56) is 22% of the length of the housing (20).
- the distance from the straight section (33, 43) of the guide grooves (32; 42) is 34% of the height of the housing (20) in the exemplary embodiment.
- the linear tracks (55; 56) are each offset to the outside by 2% of the length of the housing in relation to the guide grooves (32; 42).
- the upper housing part (61) is shown.
- the end webs (62) are flush with the outer contour of the side wall (66).
- the upper housing part (61) can thus overlap the end webs (37) of the lower housing part (31) by means of its end webs (62).
- a control track (46), a group of slide channel (52) and head receptacle (53), two guide grooves (32, 42) and two linear tracks (55, 56) are arranged on the inner wall of the upper housing part (61).
- the housing (20) is mounted, these are arranged in a mirror image of one another with respect to a vertical center longitudinal plane of the damping and closing device (10).
- the Figure 20 shows the driving element (71) in the Figures 1 and 17 shown variant of the damping and closing device (10).
- This driving element (71) also comprises a connecting rod (72), at the two ends of which a hook slide (81; 281) is articulated.
- a joint pin (75) penetrates the control bolt (97) facing the connecting rod (72) and the connecting rod (72).
- the two hook slides (81, 281) are, for example, identical to one another.
- a hook pusher (81; 281) is shown in two isometric views from below.
- the hook pusher (81; 281) has a hook pusher body (85), on the two side surfaces of which a control pin (89) and a control pin (97) are arranged.
- These control pins (89) and control pins (97) each have a cylindrical cross section. The distance between their center lines is, for example, 6.5% of the length of the damping and closing device (10).
- the catch hook (82; 282) protrudes from the hook slide body (85) at the top. It has a hook surface (83; 283) which lies in a normal plane to a plane spanned by the control pins (89) and control bolts (97).
- the driving hook (82; 282) can also be designed to be elastically deformable in this exemplary embodiment.
- the hook pusher body (85) has a coupling pin (92) on its underside (91). This is formed by the side webs (93) and two transverse webs (98, 99) spaced apart from one another in the longitudinal direction of the hook slide (81; 281).
- the first transverse web (98) facing the catch hook (82; 282) has a first coupling surface (94).
- the second crossbar (99) facing the connecting rod (72) has a second coupling surface (95).
- the two coupling surfaces (94, 95) point in opposite directions. They are arranged parallel to each other. In the exemplary embodiment, their distance is 3% of the length of the control track (46).
- the Figures 23 and 24 show a driver slide (101; 301) of the in the Figures 1 and 17 illustrated embodiment.
- This comprises a driving slide body (104), on each of which two driving slide guide pins (102, 103; 302; 303) are arranged on both sides.
- the driving slide body (104) On its upper side, the driving slide body (104) has a coupling recess (112) which is delimited by two slide surfaces (113, 114).
- the distance between the two mutually parallel, mutually facing slide surfaces (113, 114) is, for example, three tenths of a millimeter larger than the distance between the coupling surfaces (94, 95).
- the driving slide (101; 301) also has a stop surface (106) facing the central transverse plane of the combined damping and closing device (10). This is designed, for example, as the stop surface (106) of the in the Figures 2-16 illustrated embodiment.
- the driver slide (101; 301) has a hook recess (121) on its underside (115). This points in the direction facing away from the stop surface (106).
- the hook recess (121) has a pointed counter hook (122).
- the counter hook surface (123), cf. Figure 26 includes, for example, an angle of 30 degrees with a plane spanned by the center lines of the guide pins (102, 103; 302, 303)).
- a spring slide (131; 331) is shown.
- the individual spring slide (131; 331) has two slide pins (133, 134) on each of its two side surfaces (132). In the exemplary embodiment, all slide pins (133, 134) have an oval cross section.
- the spring slide (131; 331) has an engagement hook (136) on its upper side (135). When the spring slide (131; 331) is installed, it points in the direction of the central transverse plane of the combined damping and closing device (10).
- the engagement hook (136) is delimited by an outer hook surface (137) and an inner hook surface (138).
- the two hook surfaces (137, 138) enclose an angle of, for example, 27 degrees.
- the angle enclosed by the outer hook surface (137) and the plane spanned by the slide pins (133, 134) is 24 degrees in the exemplary embodiment.
- the spring slide (131; 331) has a spring holder (116) on its underside facing away from the engagement hook (136). This is designed, for example, like the spring holder (116) of in connection with that in the Figures 2-16 described embodiment.
- a spring slide (131; 331) is inserted into each of the linear tracks (55; 56).
- the engagement hook (136) of the respective spring slide (131; 331) is inserted into the hook recess (121) of the driver slide (101; 301).
- the spring energy store (161) is inserted into the spring receptacles (116) of the spring slides (131, 331).
- the spring energy store (161) is designed as a tension spring (161).
- the combined damping and closing device (10) is in its basic position (11).
- the sliding door is closed.
- Both driver slides (101, 301) are in a respective end position (17; 19).
- Each spring slide (131; 331) engages with its engagement hook (136) in a hook recess (121) of the associated driver slide (101; 301).
- the cylinder-piston unit (141) also pushes the driver slides (101, 301) into their end positions (17; 19).
- the tension spring (161) has its shortest operating length.
- the Figure 26 shows a partial longitudinal section of the hook slide (81), the driver slide (101) and the spring slide (131) in the lower housing part (31) in this position.
- the sectional plane is, for example, a vertical central longitudinal plane of the combined damping and closing device (10).
- the hook slide (81) is in the straight control section (47) of the control track (46).
- it is spaced from the driving slide (101), for example by a few tenths of a millimeter.
- the driver (6) pulls the driver element (71) to the left.
- the left hook slide (81) releases the driver slide (101) from the end position (17).
- the coupling recess (112) engages around the coupling pin (92).
- the driver slide (101) is released from the end position (17) and moves along the straight guide groove section (33), cf. Figure 27.
- the driver slide (101) also pulls the spring slide (131) in the opening direction (2).
- the tension spring (161) is tensioned. Here it is drawn linearly.
- the cylinder (142) of the cylinder-piston unit (141) slides along the slide channel (52) in the opening direction (2).
- the contact of the cylinder base (145) on the driver slide (101) can come loose.
- the second driver slide (301) and the second spring slide (331) remain in the end position (19).
- FIG. 28 and 29 is the combined damping and closing device (10) from the Figure 17 shown with an opening to the left.
- the driving element (71) is in the first parking position (12).
- the coupling pin (92) of the hook slide (81) sits in the coupling recess (112) of the driving slide (101).
- the spring slide (131) engages with the engagement hook (136) in the hook recess (121) of the driver slide (101).
- the tension spring (161) is stretched to its greatest operating length. It is linearly stretched. It therefore does not require any additional installation space below the spring slide (131, 331).
- the cylinder-piston unit (141) loads both driver slides (101, 301).
- the driver slide (101) is thus positively and non-positively secured in the first waiting position (16). This securing also holds the driving element (71) in the first parking position (12).
- the driver (6) strikes the second hook slide (281) of the driver element (71).
- the driving element (71) is released from the parking position (12). It takes the first driver slide (101) with it, on which the tensile force of the relaxing tension spring (161) acts. At the same time, the cylinder-piston unit (141) is retracted, thereby delaying the movement of the sliding door.
- the driver slide (101) and the spring slide (131) coupled to it move into the first end position (17).
- the driving element (71) detaches from the driving slide (101).
- the sliding door remains in the basic position (11).
- the spring slide (131; 331) can detach from the driver slide (101; 301).
- the relaxing tension spring (161) pulls the two spring slides (131, 331) together relative to each other until the contact of each spring slide (131; 331) with a driver slide (101; 301) is restored.
- the opening of the sliding door in the opening direction (4) to the right and the closing of the sliding door in the closing direction (5) from the right is carried out analogously.
- the Figure 30 shows the combined damping and closing device (10) with the driving element (71) in the right parking position (13).
- the sliding door can also open in the other direction in this exemplary embodiment.
- the driver slide (101; 301) and the spring slide (131; 331) can be coupled by means of a joint.
- This joint can be a swivel joint or a combined swivel and push joint. If necessary, the driver slide (101; 301) can also be connected to the spring slide (131; 331) by means of a film joint.
- the piston rod head (158) can additionally be guided axially in the housing (20). This guide is oriented in the longitudinal direction (15). This prevents the piston rod from bending.
- the piston rod head (158) is mounted in a curved elongated hole in the second driver slide (301).
- the piston rod head (158) can additionally be guided in the housing (20).
- the cylinder base (145) can then be pivotally and displaceably mounted in a curved slot of the first driver slide (101).
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- Power-Operated Mechanisms For Wings (AREA)
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Abstract
Die Erfindung betrifft eine kombinierte Dämpfungs- und Zuziehvorrichtung für eine Mitteltür mit einem Gehäuse, in dem ein Mitnahmeelement zwischen zwei Parkpositionen verfahrbar ist. Im Gehäuse sind zwei alternativ mit dem Mitnahmeelement formschlüssig kuppelbare Mitnehmerschieber jeweils zwischen einer kraft- und/oder formschlüssig gesicherten Warteposition und einer kraft- und/oder formschlüssig gesicherten Endposition geführt. Im Gehäuse ist eine mittels beider Mitnehmerschieber belastbare Zylinder-Kolben-Einheit axial verschiebbar gelagert. Jeder Mitnehmerschieber weist entweder eine Federaufnahme auf oder ist mit einem eine Federaufnahme aufweisenden Federschieber gekuppelt oder kuppelbar. Außerdem ist ein Federenergiespeicher in beiden Federaufnahmen gehalten.Mit der vorliegenden Erfindung wird eine kompakte Dämpfungs- und Zuziehvorrichtung entwickelt.The invention relates to a combined damping and closing device for a center door with a housing in which a driving element can be moved between two parking positions. In the housing, two driver slides which can alternatively be positively coupled to the driving element are each guided between a non-positively and / or positively secured waiting position and a non-positively and / or positively secured end position. A cylinder-piston unit which can be loaded by means of both driver slides is axially displaceably mounted in the housing. Each driver slide either has a spring mount or is coupled or can be coupled to a spring slide having a spring mount. In addition, a spring energy storage is held in both spring mounts. With the present invention, a compact damping and closing device is developed.
Description
Die Erfindung betrifft eine kombinierte Dämpfungs- und Zuziehvorrichtung für eine Mitteltür mit einem Gehäuse, in dem ein Mitnahmeelement zwischen zwei Parkpositionen verfahrbar ist.The invention relates to a combined damping and closing device for a center door with a housing in which a driving element can be moved between two parking positions.
Aus der
Der vorliegenden Erfindung liegt die Problemstellung zugrunde, eine kompakte Dämpfungs- und Zuziehvorrichtung zu entwickeln.The problem underlying the present invention is to develop a compact damping and closing device.
Diese Problemstellung wird mit den Merkmalen des Hauptanspruches gelöst. Dazu sind im Gehäuse zwei alternativ mit dem Mitnahmeelement formschlüssig kuppelbare Mitnehmerschieber jeweils zwischen einer kraft- und/oder formschlüssig gesicherten Warteposition und einer kraft- und/oder formschlüssig gesicherten Endposition geführt. Im Gehäuse ist eine mittels beider Mitnehmerschieber belastbare Zylinder-Kolben-Einheit axial verschiebbar gelagert. Jeder Mitnehmerschieber weist entweder eine Federaufnahme auf oder ist mit einem eine Federaufnahme aufweisenden Federschieber gekuppelt oder kuppelbar. Außerdem ist ein Federenergiespeicher in beiden Federaufnahmen gehalten.This problem is solved with the features of the main claim. For this purpose, two driver slides, which can alternatively be positively coupled to the driving element, are each guided between a non-positively and / or positively secured waiting position and a non-positively and / or positively secured end position. A cylinder-piston unit which can be loaded by means of both driver slides is axially displaceably mounted in the housing. Each driver slide either has a spring mount or is coupled or can be coupled to a spring slide having a spring mount. In addition, a spring energy store is held in both spring mounts.
Die beschriebene kombinierte Dämpfungs- und Zuziehvorrichtung ermöglicht ein Öffnen der mittleren Schiebetür aus einer geschlossenen Grundstellung in beide Richtungen sowie ein Schließen aus beiden Richtungen. Bei einer Überlast, z.B. einem zu schnellen Schließen kann die Schiebetür in die jeweils andere Richtung öffnen. Beschädigungen werden dadurch vermieden. In einem an die Grundstellung angrenzenden Bereich wird beim Schließen der Schiebetür ein Mitnahmeelement der Dämpfungs- und Zuziehvorrichtung aus einer Parkposition ausgelöst. Eine resultierende Kraft aus einer die Schließbewegung verzögernden Dämpfungsvorrichtung und einer vom Federenergiespeicher ausgehenden, die Schließbewegung beschleunigenden Kraft fördert das Mitnahmeelement und die damit koppelbare Schiebetür in die Grundstellung. Beim Öffnen und beim Schließen kuppelt das Mitnahmeelement hubabschnittsabhängig mit einem der Mitnehmerschieber, während der andere in seiner Endstellung verbleibt. Bei einer Öffnung nach links und einem Schließen von links koppelt das Mitnahmeelement mit dem linken Mitnehmerschieber. Bei einer Öffnung nach rechts und einem Schließen von rechts kuppelt das Mitnahmeelement mit dem rechten Mitnehmerschieber. Beim jeweiligen Verfahren in die Grundstellung belasten die beiden Mitnehmerschieber zusammen mit dem sich entladenden Federenergiespeicher die Zylinder-Kolben-Einheit. Der beschriebene Aufbau der kombinierte Dämpfungs- und Zuziehvorrichtung ermöglicht weitgehend der Verzicht auf Bewegungskomponenten der Bauteile in Richtungen normal zur Längsrichtung der Dämpfungs- und Zuziehvorrichtung. Die Dämpfungs- und Zuziehvorrichtung ist damit kompakt aufgebaut.The described combined damping and closing device enables the middle sliding door to be opened from a closed basic position in both directions and to be closed from both directions. In the event of an overload, for example if the door is closed too quickly, the sliding door can open in the other direction. This prevents damage. In an area adjacent to the basic position, a driving element of the damping and closing device is triggered from a parking position when the sliding door is closed. A resultant force from a damping device which retards the closing movement and a force emanating from the spring energy accumulator and accelerating the closing movement promotes the entraining element and the sliding door which can be coupled therewith into the basic position. When opening and closing, the driving element couples with one of the driving slides, depending on the stroke section, while the other in its end position remains. With an opening to the left and a closing from the left, the driver element couples to the left driver slide. With an opening to the right and a closing from the right, the driving element couples with the right driving slide. When moving to the basic position, the two driver slides, together with the discharging spring energy store, load the cylinder-piston unit. The described structure of the combined damping and closing device largely makes it possible to dispense with movement components of the components in directions normal to the longitudinal direction of the damping and closing device. The damping and closing device is thus compact.
Weitere Einzelheiten der Erfindung ergeben sich aus den Unteransprüchen und der nachfolgenden Beschreibung schematisch dargestellter Ausführungsformen.
- Figur 1:
- Kombinierte Dämpfungs- und Zuziehvorrichtung;
- Figur 2:
- Kombinierte Dämpfungs- und Zuziehvorrichtung bei geöffnetem Gehäuse;
- Figur 3:
- Gehäuseunterteil;
- Figur 4:
- Mitnahmeelement;
- Figur 5:
- Hakenschieber;
- Figur 6:
- Isometrische Rückansicht der
;Figur 5 - Figur 7:
- Mitnehmerschieber;
- Figur 8:
- Isometrische Unteransicht der
Figur 7 ; - Figur 9:
- Längsschnitt der Zylinder-Kolben-Einheit;
- Figur 10:
- Teillängsschnitt des Hakenschiebers und des Mitnehmerschiebers in der Grundstellung;
- Figur 11:
- Teillängsschnitt des Hakenschiebers und des Mitnehmerschiebers beim Beginn der Öffnungsbewegung nach rechts;
- Figur 12:
- Teilschnittdarstellung beim Verfahren in der Öffnungsrichtung entlang des geraden Führungsbahnabschnitts;
- Figur 13:
- Teilschnittdarstellung beim Verfahren des Mitnehmerschiebers im Übergangsbogen;
- Figur 14:
- Teilschnittdarstellung mit dem Mitnehmerschieber in der Warteposition und dem Hakenschieber in der Parkposition;
- Figur 15:
- Kombinierte Dämpfungs- und Zuziehvorrichtung aus
mit dem Mitnahmeelement in der rechten Parkposition;Figur 2 - Figur 16:
- Kombinierte Dämpfungs- und Zuziehvorrichtung aus
mit dem Mitnahmeelement in der linken Parkposition;Figur 2 - Figur 17:
- Kombinierte Dämpfungs- und Zuziehvorrichtung aus
bei geöffnetem Gehäuse;Figur 1 - Figur 18:
- Gehäuseunterteil der Vorrichtung aus
;Figur 17 - Figur 19:
- Gehäuseoberteil der Vorrichtung aus den
undFiguren 117 ; - Figur 20:
- Mitnahmeelement der Vorrichtung aus
;Figur 17 - Figur 21:
- Hakenschieber der Vorrichtung auf
;Figur 17 - Figur 22:
- Isometrische Rückansicht der
;Figur 21 - Figur 23:
Mitnehmerschieber aus Figur 17 ;- Figur 24:
- Unteransicht der
Figur 23 ; - Figur 25:
- Federschieber;
- Figur 26:
- Teillängsschnitt eines Hakenschiebers, Mitnehmerschiebers und Federschiebers aus
Figur 17 in der Grundstellung; - Figur 27:
- Teillängsschnitt eines Hakenschiebers, Mitnehmerschiebers und Federschiebers beim Verfahren entlang des geraden Abschnitts;
- Figur 28:
- Teillängsschnitt eines Hakenschiebers, Mitnehmerschiebers und Federschiebers in der Parkposition;
- Figur 29:
- Kombinierte Dämpfungs- und Zuziehvorrichtung aus
Figur 17 mit dem Mitnahmeelement in der linken Parkposition; - Figur 30:
- Kombinierte Dämpfungs- und Zuziehvorrichtung aus
Figur 17 mit dem Mitnahmeelement in der rechten Parkposition.
- Figure 1:
- Combined damping and closing device;
- Figure 2:
- Combined damping and closing device when the housing is open;
- Figure 3:
- Housing base;
- Figure 4:
- Driving element;
- Figure 5:
- Hook slide;
- Figure 6:
- Isometric rear view of the
Figure 5 ; - Figure 7:
- catch slide;
- Figure 8:
- Isometric bottom view of the
Figure 7 ; - Figure 9:
- Longitudinal section of the cylinder-piston unit;
- Figure 10:
- Partial longitudinal section of the hook pusher and the driver pusher in the basic position;
- Figure 11:
- Partial longitudinal section of the hook slide and the driver slide at the beginning of the opening movement to the right;
- Figure 12:
- Partial sectional view when moving in the opening direction along the straight guide track section;
- Figure 13:
- Partial sectional view when moving the driver slide in the transition curve;
- Figure 14:
- Partial sectional view with the driver slide in the waiting position and the hook slide in the park position;
- Figure 15:
- Combined damping and closing device
Figure 2 with the driving element in the right parking position; - Figure 16:
- Combined damping and closing device
Figure 2 with the driving element in the left parking position; - Figure 17:
- Combined damping and closing device
Figure 1 with the housing open; - Figure 18:
- Lower part of the device
Figure 17 ; - Figure 19:
- Upper part of the device from the
Figures 1 and17 ; - Figure 20:
- Driving element of the device
Figure 17 ; - Figure 21:
- Hook slide of the device
Figure 17 ; - Figure 22:
- Isometric rear view of the
Figure 21 ; - Figure 23:
- Driver slide out
Figure 17 ; - Figure 24:
- Bottom view of the
Figure 23 ; - Figure 25:
- Spring slide;
- Figure 26:
- Partial longitudinal section of a hook pusher, driver pusher and spring pusher
Figure 17 in the basic position; - Figure 27:
- Partial longitudinal section of a hook slide, driver slide and spring slide when moving along the straight section;
- Figure 28:
- Partial longitudinal section of a hook pusher, driver pusher and spring pusher in the park position;
- Figure 29:
- Combined damping and closing device
Figure 17 with the driving element in the left parking position; - Figure 30:
- Combined damping and closing device
Figure 17 with the driving element in the right parking position.
Die
Die kombinierte Dämpfungs- und Zuziehvorrichtung (10) hat ein Gehäuse (20), in dem ein zumindest bereichsweise aus dem Gehäuse (20) herausragendes Mitnahmeelement (71) in Längsrichtung (15) verschiebbar angeordnet ist. Dieses Mitnahmeelement (71) zeigt in Richtung der z.B. geschlossenen, hier nicht dargestellten Schiebetür. Es hat zwei zueinander beabstandete Mitnahmehaken (82, 282). In der Darstellung der
Das Gehäuse (20) besteht aus einem Gehäuseunterteil (31) und einem Gehäuseoberteil (61). Beide Teile umschließen einen Gehäuseinnenraum (22). Das Gehäuseoberteil (61) übergreift mit Stirnstegen (62) zumindest bereichsweise entsprechende Stege des Gehäuseunterteils (31). Das Gehäuseunterteil (31) und das Gehäuseoberteil (61) sind miteinander gefügt. Beispielsweise sind die beiden Teile (31, 61) miteinander verschraubt, verklebt oder verschweißt. An einer Längsstirnseite hat das Gehäuse (20) einen Längsschlitz (24), durch den hindurch der Gehäuseinnenraum (22) mit der Umgebung (1) verbunden ist. Der Längsschlitz (24) hat eine rechteckige Querschnittsfläche. Die in der Längsrichtung (15) orientierte Länge des Längsschlitzes (24) beträgt im Ausführungsbeispiel 88 % der Länge des Gehäuses (20). Die Breite des Längsschlitzes beträgt beispielsweise 45 % der Breite des Gehäuses (20). Durch diesen Längsschlitz (24) hindurch ragen die Mitnahmehaken (82, 282) in die Umgebung (1).The housing (20) consists of a lower housing part (31) and an upper housing part (61). Both parts enclose a housing interior (22). The upper housing part (61) overlaps with corresponding webs of the lower housing part (31), at least in regions, with end webs (62). The lower housing part (31) and the upper housing part (61) are joined together. For example, the two parts (31, 61) are screwed, glued or welded together. The housing (20) has a longitudinal slot (24) on one longitudinal end face, through which the housing interior (22) is connected to the surroundings (1). The longitudinal slot (24) has a rectangular cross-sectional area. The length of the longitudinal slot oriented in the longitudinal direction (15) (24) is 88% of the length of the housing (20) in the exemplary embodiment. The width of the longitudinal slot is, for example, 45% of the width of the housing (20). The catch hooks (82, 282) protrude into the surroundings (1) through this longitudinal slot (24).
An seiner Seitenfläche (25) hat das Gehäuse (20) sowohl am am Gehäuseunterteil (31) als auch am Gehäuseoberteil (61) zwei symmetrisch zur Mittenquerebene angeordnete langlochartige Führungsnuten (32, 42). Diese Führungsnuten (32, 42) haben jeweils einen in Längsrichtung (15) orientierten geraden Führungsnutabschnitt (33, 43). An beiden Enden sind die Führungsnuten (32, 42) in der Darstellung der
Das Gehäuse (10) kann auch derart ausgebildet sein, dass die hier als Durchbrüche ausgebildeten Führungsnuten (32; 42) in die Gehäuseinnenwandung (26) eingesenkt sind. Sie sind dann von der Außenseite des Gehäuses (10) nicht sichtbar.The housing (10) can also be designed in such a way that the guide grooves (32; 42) designed here as openings are sunk into the housing inner wall (26). You are then not visible from the outside of the housing (10).
Die
Das Gehäuseunterteil (31) hat eine Seitenwand (36), deren Innenseite mittels annähernd normal zur Seitenwand (36) stehender Stirnstege (37) begrenzt ist. Im Ausführungsbeispiel schließen die Stirnstege (37) mit einer Normalenebene zur Seitenwand (36) einen Winkel von 2 Grad ein. Die Breite der Stirnstege (37) normal zur Seitenwand (36) entspricht der Breite des Gehäuseinnenraums (22). Sie sind um ihre Breite von der Kontur der Seitenwand (36) nach innen versetzt. Im Bereich des Längsschlitzes (24) sind die Stirnstege (36) durch einen Deckensteg (38) ersetzt. Seine Breite beträgt beispielsweise ein Viertel der Breite der Stirnstege (37).The lower housing part (31) has a side wall (36), the inside of which is delimited by end webs (37) which are approximately normal to the side wall (36). In the exemplary embodiment, the end webs (37) enclose an angle of 2 degrees with a normal plane to the side wall (36). The width of the end webs (37) normal to the side wall (36) corresponds to the width of the housing interior (22). They are offset inwards by their width from the contour of the side wall (36). In the area of the longitudinal slot (24), the end webs (36) are replaced by a ceiling web (38). Its width is, for example, a quarter of the width of the end webs (37).
In der Seitenwand (36) ist unterhalb des Längsschlitzes (24) eine Steuerbahn (46) angeordnet. Die Länge der Steuerbahn (46) in der Längsrichtung (15) beträgt beispielsweise 84 % der Länge des Gehäuseunterteils (31). Die Steuerbahn (46) hat einen in der Längsrichtung (15) orientierten geraden Steuerabschnitt (47), an dessen beiden Enden jeweils ein Parkabschnitt (48; 49) in der vom Längsschlitz (24) abgewandten Richtung absteht. Im Ausführungsbeispiel schließt der einzelne Parkabschnitt (48; 49) mit dem geraden Steuerabschnitt (47) einen Winkel von 90 Grad ein. Die jeweiligen Übergänge zwischen dem einzelnen Parkabschnitt (48; 49) und dem geraden Steuerabschnitt (47) sind gebogen ausgeführt. Der vom Parkabschnitt (48; 49) und dem geraden Steuerabschnitt (47) eingeschlossene Winkel kann auch größer sein, z.B. kann er 135 Grad betragen. Die Steuerbahn (46) ist beispielsweise von einem in den Gehäuseinnenraum (22) ragenden Begrenzungssteg (39) umgeben. Die Breite dieses Begrenzungsstegs (39) beträgt z.B. einen Millimeter.A control track (46) is arranged in the side wall (36) below the longitudinal slot (24). The length of the control track (46) in the longitudinal direction (15) is, for example, 84% of the length of the lower housing part (31). The control track (46) has a straight control section (47) oriented in the longitudinal direction (15), at the two ends of which a parking section (48; 49) projects in the direction facing away from the longitudinal slot (24). In the exemplary embodiment, the individual parking section (48; 49) closes with the straight control section (47) an angle of 90 degrees. The respective transitions between the individual parking section (48; 49) and the straight control section (47) are curved. The angle enclosed by the parking section (48; 49) and the straight control section (47) can also be larger, for example 135 degrees. The control track (46) is surrounded, for example, by a limiting web (39) projecting into the housing interior (22). The width of this boundary web (39) is, for example, one millimeter.
Normal und symmetrisch zur Mittenquerebene der Dämpfungs- und Zuziehvorrichtung (10) ist in der Darstellung der
In der Längsrichtung (15) sind vor und hinter der Gruppe aus Gleitrinne (52) und Kopfschale (53) die Führungsnuten (32, 42) angeordnet. Die Führungsnuten (32, 42) liegen damit jeweils zwischen der genannten Gruppe und der in der Längsrichtung (15) die kombinierte Dämpfungs- und Zuziehvorrichtung (10) begrenzenden Stirnwand (27). Die Warteabschnitte (35, 45) der Führungsnuten (32, 42) sind in die gleiche Richtung abgekröpft wie die Parkabschnitte (48, 49) der Steuerbahn (46). Beispielsweise sind die Warteabschnitte (35, 45) in der Darstellung der
Die Steuerbahn (46) und die Führungsnuten (32, 42) können als Steuerkulissen und Führungskulissen ausgebildet sein. Hierbei ist beispielsweise nur die in der Darstellung der
Die
Das Mitnahmeelement (71) kann auch einteilig ausgebildet sein. In diesem Fall sind die Hakenschieber (81; 281) z.B. starr und unbeweglich mit der Verbindungsstange (72) verbunden. Auch eine Ausbildung des Mitnahmeelements (71) mit Filmgelenken zwischen den Hakenschiebern (81; 281) und der Verbindungsstange (72) ist denkbar.The driving element (71) can also be formed in one piece. In this case the hook slides (81; 281) are e.g. rigidly and immovably connected to the connecting rod (72). An embodiment of the driving element (71) with film joints between the hook slides (81; 281) and the connecting rod (72) is also conceivable.
In den
Der Hakenschieberkörper (85) hat einen an seine Oberfläche (86) angrenzenden prismenförmigen Stützkörper (87), der auf einem Hauptkörper (88) sitzt. Letzterer hat zumindest annährend eine quaderförmige Hüllkontur. Er hat auf beiden Seiten jeweils einen zylinderförmig ausgebildeten Steuerzapfen (89). Eine Ebene, die von den Mittellinien der Steuerzapfen (89) und der Schwenkbuchse (84; 284) aufgespannt wird, steht beispielsweise normal zur Ebene der Hakenfläche (83; 283).The hook pusher body (85) has a prism-shaped support body (87) adjoining its surface (86), which sits on a main body (88). The latter has, at least approximately, a cuboidal envelope contour. He has on both sides each have a cylindrical control pin (89). A plane spanned by the center lines of the control pins (89) and the pivot bushing (84; 284) is, for example, normal to the plane of the hook surface (83; 283).
An seiner Unterseite (91) hat der Hakenschieberkörper (85) im Ausführungsbeispiel einen Kupplungszapfen (92). Dieser hat beispielsweise eine rechteckige Querschnittsfläche. Seitlich geht er in zwei Seitenstege (93) über, die den Hakenschieberkörper (85) in der Breitenrichtung (29) begrenzen. Die Höhe des Kupplungszapfens (92) beträgt im Ausführungsbeispiel drei Millimeter. Der Kupplungszapfen (92) hat zwei in die Längsrichtung zeigende, voneinander abgewandte Kupplungsflächen (94, 95). Eine erste Kupplungsfläche (94) ist der dem Mitnahmehaken (82; 282) zugewandte Richtung orientiert. Eine zweite Kupplungsfläche (95) zeigt in Richtung der Schwenkbuchse (84; 284). Im Ausführungsbeispiel sind beide Kupplungsflächen (94, 95) zueinander parallel ausgebildet. Beispielsweise stehen sie jeweils normal zu einer Ebene, die durch die Mittellinien der Steuerzapfen (89) und der Schwenkbuchse (84, 284) aufgespannt wird. Die erste Kupplungsfläche (94) ist von der genannten Normalenebene z.B. um 3,3 % des Abstands zwischen den genannten Mittellinien in Richtung der hakenseitigen Stirnseite (96) beabstandet. Die zweite Kupplungsfläche (95) ist im Ausführungsbeispiel von einer die Mittellinien der Steuerzapfen (89) enthaltenden Normalenebene zu der durch die Mittellinien der Steuerzapfen (89) und der Schwenkbuchse (84, 284) aufgespannten Ebene um ein Drittel des Abstands der Mittellinien in Richtung der Schwenkbuchse (84; 284) versetzt.On the underside (91) of the hook slide body (85) has a coupling pin (92) in the exemplary embodiment. This has, for example, a rectangular cross-sectional area. It merges laterally into two side webs (93) which delimit the hook pusher body (85) in the width direction (29). The height of the coupling pin (92) is three millimeters in the exemplary embodiment. The coupling pin (92) has two coupling surfaces (94, 95) pointing in the longitudinal direction and facing away from one another. A first coupling surface (94) is oriented in the direction facing the catch hook (82; 282). A second coupling surface (95) points in the direction of the swivel bushing (84; 284). In the exemplary embodiment, both coupling surfaces (94, 95) are formed parallel to one another. For example, they are each normal to a plane that is spanned by the center lines of the control pins (89) and the swivel bushing (84, 284). The first coupling surface (94) is from said normal plane e.g. spaced apart by 3.3% of the distance between said center lines in the direction of the hook-side end face (96). The second coupling surface (95) is in the exemplary embodiment from a normal plane containing the center lines of the control pins (89) to the plane spanned by the center lines of the control pins (89) and the pivot bushing (84, 284) by a third of the distance of the center lines in the direction of the Swivel bushing (84; 284) offset.
Eine der Kupplungsflächen (94; 95) oder beide Kupplungsflächen (94, 95) können gewölbt ausgebildet sein. So kann z.B. die einzelne Kupplungsfläche (94; 95) als konvexe, einachsig gewölbte Fläche ausgebildet sein. Die Wölbungsachse verläuft dann in der Breitenrichtung (29). Beide Kupplungsflächen (94, 95) können auch als einachsig konkav gewölbte oder als zweiachsig gewölbte Flächen ausgebildet sein. Sie können maximal bis zur Länge des Hakenschiebers (81; 281) voneinander beabstandet sein. Der Kupplungszapfen (92) kann auch aus zwei z.B. parallelen, in der Längsrichtung des Hakenschiebers (81; 281) zueinander beabstandeten Stegen aufgebaut sein.One of the coupling surfaces (94; 95) or both coupling surfaces (94, 95) can be curved. For example, the single coupling surface (94; 95) can be convex, uniaxial curved surface. The arch axis then runs in the width direction (29). Both coupling surfaces (94, 95) can also be designed as single-axis concave or as double-axis curved surfaces. They can be spaced apart from one another up to the length of the hook slide (81; 281). The coupling pin (92) can also be constructed from two, for example parallel, webs which are spaced apart from one another in the longitudinal direction of the hook slide (81; 281).
Die
Der Mitnehmerschieber (101; 301) hat an einer Stirnseite eine Anschlagfläche (106), die bei eingebautem Mitnehmerschieber (101; 301) in Richtung der Mittenquerebene der Dämpfungs- und Zuziehvorrichtung (10) zeigt. Diese ist im Querschnitt prismenförmig mit abgerundeten Übergängen ausgebildet. Sie hat drei übereinander angeordnete Teilflächen (107 - 109). Die oberen beiden Teilflächen (107, 108) grenzen im Ausführungsbeispiel in einem Übergangsradius aneinander an. Die mittlere Teilfläche (108) steht hierbei normal zu einer von den Mittellinien der Mitnehmerschieber-Führungszapfen (102, 103; 302, 303) aufgespannten Ebene. Die obenliegende Teilfläche (107) weicht von der Ebene der mittleren Teilfläche (108) um einen Winkel von 20 Grad ab. Der Übergang zwischen der mittleren Teilfläche (108) und der unteren Teilfläche (109) ist ebenfalls abgerundet ausgebildet. Die untere Teilfläche (109) schließt hierbei mit der Ebene der mittleren Teilfläche (108) einen Winkel von 27 Grad ein. Die gedachte Schnittlinie der Ebenen der mittleren Teilfläche (108) und der unteren Teilfläche (109) liegt unterhalb der durch die Mittellinien der Mitnehmerschieber-Führungszapfen (102, 103; 302, 303) aufgespannten Ebene. Die gedachte Schnittlinie der Ebene der unteren Teilfläche (109) und der Ebene der oberen Teilfläche (107) liegt außerhalb des Mitnehmerschiebers (101; 301). Die der Anschlagfläche (106) abgewandte Stirnfläche (111) des Mitnehmerschiebers (101; 301) ist im Ausführungsbeispiel als Planfläche ausgebildet.The driver slide (101; 301) has a stop face (106) on one end face, which, when the driver slide (101; 301) is installed, points in the direction of the central transverse plane of the damping and closing device (10). This is prism-shaped in cross section with rounded transitions. It has three partial areas arranged one above the other (107 - 109). In the exemplary embodiment, the upper two partial surfaces (107, 108) adjoin one another in a transition radius. The middle partial surface (108) is normal to one of the center lines of the driver slide guide pins (102, 103; 302, 303) spanned level. The upper partial surface (107) deviates from the plane of the central partial surface (108) by an angle of 20 degrees. The transition between the central partial surface (108) and the lower partial surface (109) is also rounded. The lower partial surface (109) encloses an angle of 27 degrees with the plane of the central partial surface (108). The imaginary intersection of the planes of the central partial surface (108) and the lower partial surface (109) lies below the plane spanned by the central lines of the driving slide guide pins (102, 103; 302, 303). The imaginary line of intersection of the plane of the lower partial surface (109) and the plane of the upper partial surface (107) lies outside the driver slide (101; 301). The end face (111) of the driver slide (101; 301) facing away from the stop face (106) is designed as a flat face in the exemplary embodiment.
An seiner Oberseite hat der Mitnehmerschieber (101; 301) eine Kupplungsausnehmung (112). Die Länge dieser Kupplungsausnehmung (112) in der Längsrichtung ist beispielsweise um 11 % größer als die Länge des Kupplungszapfens (92). Die Tiefe der Kupplungsausnehmung (112) beträgt z.B. zwei Drittel der Höhe des Kupplungszapfens (92). Die Breite der Kupplungsausnehmung (112) ist geringfügig kleiner als der Abstand der Seitenstege (93) des Hakenschiebers (81; 281). In der Längsrichtung ist die Kupplungsausnehmung (112) mittels zweier zueinander zeigender Schieberflächen (113, 114) begrenzt. Im Ausführungsbeispiel sind beide Schieberflächen (113, 114) als ebene Flächen ausgebildet und parallel zueinander angeordnet. Sie stehen normal zu der von den Mittellinien der Mitnehmerschieber-Führungszapfen (102, 103; 302, 303) aufgespannten Ebene. Der Abstand der Ebene der zweiten Schieberfläche (114) zur Mittellinie der der Anschlagfläche (106) benachbarten Führungszapfen (103; 303) beträgt z.B. 58 % des Abstands der Mittellinien beider Führungszapfen (102, 103; 302, 303). Die Mittellinie der Führungszapfen (102; 302) liegt im Ausführungsbeispiel in der Ebene der ersten Schieberfläche (113).The driver slide (101; 301) has a coupling recess (112) on its upper side. The length of this coupling recess (112) in the longitudinal direction is, for example, 11% greater than the length of the coupling pin (92). The depth of the coupling recess (112) is, for example, two thirds of the height of the coupling pin (92). The width of the coupling recess (112) is slightly smaller than the distance between the side webs (93) of the hook slide (81; 281). The coupling recess (112) is delimited in the longitudinal direction by means of two slide surfaces (113, 114) pointing towards each other. In the exemplary embodiment, both slide surfaces (113, 114) are designed as flat surfaces and are arranged parallel to one another. They are normal to the plane spanned by the center lines of the driving slide guide pins (102, 103; 302, 303). The distance between the plane of the second slide surface (114) and the center line of the guide pins (103; 303) adjacent to the stop surface (106) is, for example, 58% of the distance between the center lines both guide pins (102, 103; 302, 303). In the exemplary embodiment, the center line of the guide pins (102; 302) lies in the plane of the first slide surface (113).
Die beiden Schieberflächen (113, 114) können ein- oder mehrachsig gewölbt ausgebildet sein. Beispielsweise können sie einachsig konkav gewölbt ausgebildet sein.The two slide surfaces (113, 114) can be curved in one or more axes. For example, they can be concavely curved in one axis.
An seiner Unterseite (115) hat der Mitnehmerschieber (101; 301) eine Federaufnahme (116). Diese umfasst einen Haltesteg (117) mit einer zentralen Aufnahmenut (118) und einem Sicherungshaken (119). Die Federaufnahme (116) ist an dem der Anschlagfläche (106) zugewandten Ende des Mitnehmerschiebers (101; 301) angeordnet.The driver slide (101; 301) has a spring holder (116) on its underside (115). This comprises a retaining web (117) with a central receiving groove (118) and a securing hook (119). The spring holder (116) is arranged on the end of the driver slide (101; 301) facing the stop surface (106).
Die
Der Ausgleichsraum (151) ist begrenzt von einem Ausgleichsdichtelement (155). Dieses Ausgleichsdichtelement (155) ist mittels einer z.B. als Druckfeder ausgebildeten Ausgleichsfeder (156) am Zylinderkopf (149) abgestützt. Es ist sowohl an der Kolbenstange (143) als auch an der Zylinderinnenwandung (153) angedichtet.The compensation space (151) is delimited by a compensation sealing element (155). This compensation sealing element (155) is by means of e.g. compensating spring (156) designed as a compression spring is supported on the cylinder head (149). It is sealed both on the piston rod (143) and on the inside wall of the cylinder (153).
Die Kolbenstange (143) durchdringt die Zylinderkopfdichtung (157) und weist einen außerhalb des Zylinders (142) liegenden Kolbenstangenkopf (158) auf. Die Zylinder-Kolben-Einheit (141) kann auch pneumatisch ausgebildet sein. Hierbei können beispielsweise das Ausgleichsdichtelement (155) und die Ausgleichsfeder (156) entfallen. Der Ausgleichsraum (151) kann zumindest in einer Hubendlage eine pneumatische Verbindung mit dem Gehäuseinnenraum (22) haben.The piston rod (143) penetrates the cylinder head gasket (157) and has a piston rod head (158) located outside the cylinder (142). The cylinder-piston unit (141) can also be pneumatic. For example, the compensating sealing element (155) and the compensating spring (156) can be omitted. The compensation chamber (151) can have a pneumatic connection to the housing interior (22) at least in a stroke end position.
Beim Zusammenbau der kombinierten Dämpfungs- und Zuziehvorrichtung (10) werden beispielsweise die Mitnehmerschieber (101, 301) in die Führungsbahnen (32, 42) des Gehäuseunterteils (31) eingesetzt. Das vormontierte Mitnahmeelement (71) wird derart eingesetzt, dass die Steuerzapfen (89) und die Schwenkzapfen (73, 74) in der Steuerbahn (46) liegen. Beispielsweise kann das Mitnahmeelement (71) in die Mitte der Steuerbahn (46) eingesetzt werden. Zwischen den Mitnehmerschiebern (101, 301) wird die Zylinder-Kolben-Einheit (141) eingelegt. Außerdem wird der Federenergiespeicher (161) z.B. unter Aufbringung einer Vorspannung in die beiden Federaufnahmen (116) eingehängt. Beide Mitnehmerschieber (101, 301) werden beispielsweise in ihre Endpositionen (17; 19) verfahren. Die Zylinder-Kolben-Einheit (141) ist dann eingefahren, der Abstand der Federaufnahmen (116) zueinander ist minimal. Anschließend wird das Gehäuse (20) durch Aufsetzen des Gehäusedeckels (61) verschlossen. Diese Montage kann beispielsweise mittels einer Schablone erfolgen.When assembling the combined damping and closing device (10), the driver slides (101, 301) are inserted into the guideways (32, 42) of the lower housing part (31), for example. The pre-assembled driver element (71) is used in such a way that the control pins (89) and the pivot pins (73, 74) lie in the control track (46). For example, the driving element (71) can be inserted into the center of the control track (46). The cylinder-piston unit (141) is inserted between the driver slides (101, 301). In addition, the spring energy storage device (161) is hooked into the two spring receptacles (116), for example by applying a preload. Both driver slides (101, 301) are moved, for example, into their end positions (17; 19). The cylinder-piston unit (141) is then retracted The distance between the spring mounts (116) is minimal. The housing (20) is then closed by fitting the housing cover (61). This assembly can be done, for example, using a template.
Die zusammengebaute Dämpfungs- und Zuziehvorrichtung (10) wird z.B. an der Decke eines Möbelkorpus befestigt. An der mittleren, z.B. innenliegenden Schiebetür wird ein Mitnehmer (6) angebracht.The assembled damping and closing device (10) is e.g. attached to the ceiling of a furniture body. At the middle, e.g. a driver (6) is attached to the inner sliding door.
Die
Wird die mittlere Schiebetür aus der Darstellung der
Die
Bei der Fortsetzung der Öffnungsbewegung nach rechts wird das Mitnahmeelement (71) mit den beiden Hakenschiebern (81, 281) weiter nach rechts verschoben. Der rechte Hakenschieber (281) drückt mit seiner ersten Kupplungsfläche (94) den zweiten Mitnehmerschieber (301) weiter nach rechts. Hierbei gelangt der erste Führungszapfen (302) des Mitnehmerschiebers (301) in den Übergangsbogen zum Warteabschnitt (45). Dies ist in der Figur 13 dargestellt. Der erste Führungszapfen (302) steht in dieser - nicht stationären - Darstellung am Scheitelpunkt des Übergangsbogens. Beispielsweise ist die Zugfeder (161) in dieser Position auf ihre maximale Betriebslänge gespannt. Der Hakenschieber (281) drückt weiterhin die Kupplungsausnehmung (112) des Mitnehmerschiebers (301) nach rechts. Gleichzeitig belastet die sich entspannende Zugfeder (161) den Mitnehmerschieber (301) mit einem Drehmoment um den zweiten Führungszapfen (303). Der Mitnehmerschieber (301) wird mittels der Zugfeder (161) in die zweite Warteposition (18) gezogen, vgl. die
In dieser zweiten Parkposition (13) des Mitnahmeelements (71) steht der erste Hakenschieber (81) im geraden Steuerabschnitt (47) der Steuerbahn (46). Der Federenergiespeicher (161) ist geladen, wobei die gespeicherte Energie geringer ist als die maximale Betriebsenergie. Die Zylinder-Kolben-Einheit (141) ist ausgefahren. In der Darstellung der
Die Schiebetür kann nun weiter nach rechts geöffnet werden. Die kombinierte Dämpfungs- und Zuziehvorrichtung (10) verbleibt in ihrer Position. Der Mitnehmer (6) ist dann vollständig vom Mitnahmeelement (71) getrennt.The sliding door can now be opened further to the right. The combined damping and closing device (10) remains in its position. The driver (6) is then completely separated from the driver element (71).
Beim Schließen der Schiebetür in der Schließrichtung (5) von rechts fährt der Mitnehmer (6) ohne Kontakt am zweiten Hakenschieber (281) vorbei. Die Dämpfungs- und Zuziehvorrichtung (10) steht in ihrer in der
Der zweite Hakenschieber (281) wird entlang der Steuerbahn (46) gezogen. Hierbei schwenkt der zweite Hakenschieber (281) um den in der Steuerbahn (46) geführten Schwenkzapfen (74). Der zweite Hakenschieber (281) stößt mit seiner zweiten Kupplungsfläche (95) an die zweite Schieberfläche (114) des zweiten Mitnehmerschiebers (301). Der zweite Mitnehmerschieber (301) wird mitgenommen. Der erste Mitnehmerschieber (101) verbleibt in Ruhe. Die Kolbenstange (143) der Zylinder-Kolbeneinheit (141) wird relativ zum Zylinder (142) eingefahren. Aus dem Verdrängungsraum (147) wird z.B. Öl durch die Drosselkanäle (148) hindurch in den Ausgleichsraum (151) gepresst. Die Bewegung der Mitnehmerschieber (101, 301) zueinander wird verzögert. Die Bewegung der Schiebetür wird gedämpft. Gleichzeitig belastet der sich entspannende Federenergiespeicher (161) die beiden Mitnehmerschieber (101, 301) relativ zueinander mit einer Zugkraft. Auf die Schiebetür wirkt damit eine resultierende Kraft aus der Federkraft und der Dämpfungskraft. Eine schnell zugeschobene Schiebetür wird abgebremst.The second hook pusher (281) is pulled along the control path (46). The second hook pusher (281) pivots about the pivot pin (74) guided in the control track (46). The second hook pusher (281) hits with his second coupling surface (95) to the second slide surface (114) of the second driver slide (301). The second driver slide (301) is taken along. The first driver slide (101) remains at rest. The piston rod (143) of the cylinder-piston unit (141) is retracted relative to the cylinder (142). Oil, for example, is pressed out of the displacement space (147) through the throttle channels (148) into the compensation space (151). The movement of the driver slides (101, 301) towards one another is delayed. The movement of the sliding door is dampened. At the same time, the relaxing spring energy store (161) loads the two driver slides (101, 301) with respect to one another with a tensile force. A resulting force from the spring force and the damping force thus acts on the sliding door. A quickly closed sliding door is braked.
Zusammen mit dem zweiten Hakenschieber (281) wird der zweite Mitnehmerschieber (301) in die waagerechte Lage geschwenkt. Der erste Hakenschieber (81) zieht den zweiten Hakenschieber (281) entlang der Steuerbahn (46) analog zur Darstellung der
Beim Annähern an das innenliegende Ende der Führungsbahn (42) schwenkt der zweite Führungszapfen (303) des Mitnehmerschiebers (301) in den Endabschnitt (44). Diese Bewegung wird mittels des Hakenschiebers (281) unterstützt. Die Kontaktzone des Kolbenstangenkopfes (158) und der Anschlagfläche (106) wandert in die erste Teilfläche (107). Hierbei drückt die Kolbenstange (143) das Mitnahmeelement (301) zusätzlich in die Endposition (19). Der Hakenschieber (281) löst sich vom Mitnehmerschieber (301). Die sich auf die minimale Betriebslänge entspannende Zugfeder (161) zieht die Schiebetür in die in der
Das manuellen oder motorischen Öffnen der Schiebetür in einer Öffnungsrichtung (2) nach links erfolgt analog. Der Kolbenstangenkopf (158) und die Kolbenstange (143) behalten ihre Lage relativ zum Gehäuse (20) und zum zweiten Mitnehmerschieber (301). Der Zylinder (142) gleitet entlang der Gleitrinne (52) nach links. Bei einem schnellen Öffnen der Schiebetür kann sich dabei zeitweise der Zylinderboden (145) vom ersten Mitnahmeelement (101) lösen. Die
Das Schließen in einer Schließrichtung (3) von links erfolgt analog zum Schließen der nach rechts geöffneten Schiebetür. Die kombinierte Dämpfungs- und Zuziehvorrichtung (10) nimmt dann wieder ihre in der
Wird die Schiebetür beispielsweise zu schnell geschlossen, kann sie in der Grundstellung (11) noch eine zu hohe Geschwindigkeit aufweisen. Sie verfährt dann weiter in die jeweils andere Öffnungsrichtung (2; 4). Das Mitnahmeelement (71) löst den jeweiligen Mitnehmerschieber (101; 301) aus seiner Endposition (17; 19) und verschiebt diesen in der Öffnungsrichtung (2; 4). Gleichzeitig wird die Zugfeder (161) gespannt. Nach Stillstand der Schiebetür wird diese mittels der Zugfeder (161) wieder in die Grundstellung (11) gezogen.If the sliding door is closed too quickly, for example, it may still be too high in the basic position (11). It then continues in the other opening direction (2; 4). The driving element (71) releases the respective driving slide (101; 301) from its end position (17; 19) and moves it in the opening direction (2; 4). At the same time, the tension spring (161) is tensioned. After the sliding door has come to a standstill, it is pulled back into the basic position (11) by means of the tension spring (161).
Bei einem teilweisen Öffnen der Schiebetür wird diese beispielsweise bei einer Lage des Mitnahmeelements (71) zwischen der Grundstellung (11) und einer der Parkpositionen (12; 13) angehalten. Die Kolbenstange (143) ist bereichsweise aus dem Zylinder (142) ausgefahren. Die Zugfeder (161) ist auf einen Wert zwischen ihrer minimalen Betriebsspannung und ihrer maximalen Betriebsspannung geladen. Beispielsweise beim Loslassen der Schiebetür zieht die sich entspannende Zugfeder (161) die Schiebetür zurück in die in der
Vor dem ersten Schließen der Schiebetür nach der Montage steht die kombinierte Dämpfungs- und Zuziehvorrichtung (10) beispielsweise in der Grundstellung (11). Die Schiebetür kontaktiert beim Schließen einen der Mitnahmehaken (82; 282) von außen und verformt diesen elastisch. Nach dem Passieren des Mitnehmers (6) nimmt der Mitnahmehaken (82; 282) wieder seine ursprüngliche Gestalt an. Der Mitnehmer (6) sitzt nun zwischen den Mitnahmehaken (82; 282). Auch ist es denkbar, die kombinierte Dämpfungs- und Zuziehvorrichtung (10) vor dem ersten Schließen der Schiebetür in eine Parkposition (12; 13) zu bringen.Before the sliding door is closed for the first time after assembly, the combined damping and closing device (10) is in the basic position (11), for example. When closing, the sliding door contacts one of the catch hooks (82; 282) from the outside and deforms it elastically. After passing the driver (6), the driver hook (82; 282) returns to its original shape. The driver (6) now sits between the catch hook (82; 282). It is also conceivable to bring the combined damping and closing device (10) into a parking position (12; 13) before the sliding door is closed for the first time.
Die
Die
Die Gruppe aus Gleitrinne (52) und Kopfschale (53) für die Zylinder-Kolben-Einheit (141) ist so ausgebildet, wie im Zusammenhang mit dem ersten Ausführungsbeispiel beschrieben. Sie ist mittig zur Mittenquerebene der kombinierten Dämpfungs- und Zuziehvorrichtung (10) angeordnet.The group of slide channel (52) and head shell (53) for the cylinder-piston unit (141) is designed as described in connection with the first embodiment. It is arranged centrally to the central transverse plane of the combined damping and closing device (10).
Die beiden Führungsnuten (32, 42) sind im Gehäuseunterteil (31) achsensymmetrisch zur Mittenquerebene angeordnet. Sie haben jeweils einen außenliegenden Warteabschnitt (35; 45), einen geraden Führungsnutabschnitt (33; 43) und einen der Gleitrinne (52) zugewandten Endabschnitt (34; 44). Der Abstand in Höhenrichtung (14) zwischen den waagerechten Mittellinien der Steuerbahn (46) und den Führungsnuten (32, 42) beträgt beispielsweise 35 % der Höhe des Gehäuses (20). Die Länge einer einzelnen Führungsnut (32, 42) beträgt beispielsweise 22 % der Länge des Gehäuses (20).The two guide grooves (32, 42) are arranged in the lower housing part (31) axisymmetrically to the central transverse plane. They each have an outside waiting section (35; 45), a straight guide groove section (33; 43) and an end section (34; 44) facing the slide channel (52). The distance in the height direction (14) between the horizontal center lines of the control track (46) and the guide grooves (32, 42) is, for example, 35% of the height of the housing (20). The length of a single guide groove (32, 42) is, for example, 22% of the length of the housing (20).
Auf der der Steuerbahn (46) abgewandten Seite der Führungsnuten (32, 42) ist jeweils eine Linearbahn (55, 56) angeordnet. Diese ist waagerecht ausgebildet und parallel zu dem geraden Abschnitt (33; 43) der Führungsbahnen (32; 42) und zu dem geraden Abschnitt (47) der Steuerbahn (46) angeordnet. Die Länge der Linearbahnen (55; 56) beträgt jeweils 22 % der Länge des Gehäuses (20). Der Abstand zum geraden Abschnitt (33, 43) der Führungsnuten (32; 42) beträgt im Ausführungsbeispiel 34 % der Höhe des Gehäuses (20). Die Linearbahnen (55; 56) sind jeweils um 2 % der Gehäuselänge gegenüber den Führungsnuten (32; 42) nach außen versetzt.A linear path (55, 56) is arranged on the side of the guide grooves (32, 42) facing away from the control path (46). This is formed horizontally and arranged parallel to the straight section (33; 43) of the guideways (32; 42) and to the straight section (47) of the control track (46). The length of the linear tracks (55; 56) is 22% of the length of the housing (20). The distance from the straight section (33, 43) of the guide grooves (32; 42) is 34% of the height of the housing (20) in the exemplary embodiment. The linear tracks (55; 56) are each offset to the outside by 2% of the length of the housing in relation to the guide grooves (32; 42).
In der
Die
In den
Der Mitnahmehaken (82; 282) ragt an der Oberseite aus dem Hakenschieberkörper (85) heraus. Er hat eine Hakenfläche (83; 283), die in einer Normalenebene zu einer von den Steuerzapfen (89) und Steuerbolzen (97) aufgespannten Ebene liegt. Der Mitnahmehaken (82; 282) kann auch in diesem Ausführungsbeispiel elastisch verformbar ausgebildet sein.The catch hook (82; 282) protrudes from the hook slide body (85) at the top. It has a hook surface (83; 283) which lies in a normal plane to a plane spanned by the control pins (89) and control bolts (97). The driving hook (82; 282) can also be designed to be elastically deformable in this exemplary embodiment.
Der Hakenschieberkörper (85) hat an seiner Unterseite (91) einen Kupplungszapfen (92). Dieser wird durch die Seitenstege (93) und zwei in Längsrichtung des Hakenschiebers (81; 281) voneinander beabstandete Querstege (98, 99) gebildet. Der dem Mitnahmehaken (82; 282) zugewandte erste Quersteg (98) hat eine erste Kupplungsfläche (94). Der der Verbindungsstange (72) zugewandte zweite Quersteg (99) hat eine zweite Kupplungsfläche (95). Die beiden Kupplungsflächen (94, 95) zeigen in entgegengesetzte Richtungen. Sie sind parallel zueinander angeordnet. Ihr Abstand beträgt im Ausführungsbeispiel 3 % der Länge der Steuerbahn (46).The hook pusher body (85) has a coupling pin (92) on its underside (91). This is formed by the side webs (93) and two transverse webs (98, 99) spaced apart from one another in the longitudinal direction of the hook slide (81; 281). The first transverse web (98) facing the catch hook (82; 282) has a first coupling surface (94). The second crossbar (99) facing the connecting rod (72) has a second coupling surface (95). The two coupling surfaces (94, 95) point in opposite directions. They are arranged parallel to each other. In the exemplary embodiment, their distance is 3% of the length of the control track (46).
Die
Der Mitnehmerschieber (101; 301) hat weiterhin eine der Mittenquerebene der kombinierten Dämpfungs- und Zuziehvorrichtung (10) zugewandte Anschlagfläche (106). Diese ist beispielsweise so ausgebildet wie die Anschlagfläche (106) des in den
An seiner Unterseite (115) hat der Mitnehmerschieber (101; 301) eine Hakenausnehmung (121). Diese zeigt in die der Anschlagfläche (106) abgewandte Richtung. Die Hakenausnehmung (121) hat einen spitz ausgebildeten Gegenhaken (122). Die Gegenhakenfläche (123), vgl.
In der
An seiner dem Eingriffshaken (136) abgewandten Unterseite hat der Federschieber (131; 331) eine Federaufnahme (116). Diese ist beispielsweise so ausgebildet wie die Federaufnahme (116) des im Zusammenhang mit dem in den
Der Zusammenbau der in den
In den
Beim Öffnen der Schiebetür in der Öffnungsrichtung (2) nach links zieht der Mitnehmer (6) das Mitnahmeelement (71) nach links. Der linke Hakenschieber (81) löst den Mitnehmerschieber (101) aus der Endposition (17). Die Kupplungsausnehmung (112) umgreift den Kupplungszapfen (92). Der Mitnehmerschieber (101) wird aus der Endposition (17) gelöst und verfährt entlang des geraden Führungsnutabschnitts (33), vgl. Figur 27. Der Mitnehmerschieber (101) zieht den Federschieber (131) ebenfalls in die Öffnungsrichtung (2). Die Zugfeder (161) wird gespannt. Hierbei wird sie linear gezogen. Der Zylinder (142) der Zylinder-Kolben-Einheit (141) gleitet entlang der Gleitrinne (52) in der Öffnungsrichtung (2). Hierbei kann sich die Anlage des Zylinderbodens (145) am Mitnehmerschieber (101) lösen. Der zweite Mitnehmerschieber (301) und der zweite Federschieber (331) verbleiben in der Endposition (19).When opening the sliding door in the opening direction (2) to the left, the driver (6) pulls the driver element (71) to the left. The left hook slide (81) releases the driver slide (101) from the end position (17). The coupling recess (112) engages around the coupling pin (92). The driver slide (101) is released from the end position (17) and moves along the straight guide groove section (33), cf. Figure 27. The driver slide (101) also pulls the spring slide (131) in the opening direction (2). The tension spring (161) is tensioned. Here it is drawn linearly. The cylinder (142) of the cylinder-piston unit (141) slides along the slide channel (52) in the opening direction (2). Here, the contact of the cylinder base (145) on the driver slide (101) can come loose. The second driver slide (301) and the second spring slide (331) remain in the end position (19).
In den
Beim Schließen der Schiebetür in einer Schließrichtung (3) von links schlägt der Mitnehmer (6) den zweiten Hakenschieber (281) des Mitnahmeelements (71). Das Mitnahmeelement (71) wird aus der Parkposition (12) gelöst. Es nimmt dabei den ersten Mitnehmerschieber (101) mit, auf den die Zugkraft der sich entspannenden Zugfeder (161) wirkt. Gleichzeitig wird die Zylinder-Kolben-Einheit (141) eingefahren und damit die Bewegung der Schiebetür verzögert. Beim Erreichen der Grundstellung (11) verfährt der Mitnehmerschieber (101) und der mit ihm gekoppelte Federschieber (131) in die erste Endposition (17). Das Mitnahmeelement (71) löst sich vom Mitnehmerschieber (101). Die Schiebetür bleibt in der Grundstellung (11) stehen.When the sliding door is closed in a closing direction (3) from the left, the driver (6) strikes the second hook slide (281) of the driver element (71). The driving element (71) is released from the parking position (12). It takes the first driver slide (101) with it, on which the tensile force of the relaxing tension spring (161) acts. At the same time, the cylinder-piston unit (141) is retracted, thereby delaying the movement of the sliding door. When the basic position (11) is reached, the driver slide (101) and the spring slide (131) coupled to it move into the first end position (17). The driving element (71) detaches from the driving slide (101). The sliding door remains in the basic position (11).
Beispielsweise bei einem schnellen Schließen der Schiebetür kann sich der Federschieber (131; 331) vom Mitnehmerschieber (101; 301) lösen. Der relativ zum Zylinder (142) verfahrende Kolben (144) verzögert die Schiebetür. Die sich entspannende Zugfeder (161) zieht die beiden Federschieber (131, 331) relativ zueinander zusammen, bis der Kontakt eines jeden Federschiebers (131; 331) mit jeweils einem Mitnehmerschieber (101; 301) wiederhergestellt ist.For example, if the sliding door closes quickly, the spring slide (131; 331) can detach from the driver slide (101; 301). The piston (144), which moves relative to the cylinder (142), decelerates the sliding door. The relaxing tension spring (161) pulls the two spring slides (131, 331) together relative to each other until the contact of each spring slide (131; 331) with a driver slide (101; 301) is restored.
Das Öffnen der Schiebetür in der Öffnungsrichtung (4) nach rechts und das Schließen der Schiebetür in der Schließrichtung (5) von rechts erfolgt analog. Die
Bei einem sehr schnellen Schließen der Schiebetür kann auch in diesem Ausführungsbeispiel die Schiebetür in die jeweils andere Richtung öffnen.If the sliding door closes very quickly, the sliding door can also open in the other direction in this exemplary embodiment.
Der Mitnehmerschieber (101; 301) und der Federschieber (131; 331) können mittels eines Gelenks gekoppelt sein. Dieses Gelenk kann ein Schwenkgelenk oder ein kombiniertes Schwenk- und Schubgelenk sein. Gegebenenfalls kann der Mitnehmerschieber (101; 301) auch mittels eines Filmgelenks mit dem Federschieber (131; 331) verbunden sein.The driver slide (101; 301) and the spring slide (131; 331) can be coupled by means of a joint. This joint can be a swivel joint or a combined swivel and push joint. If necessary, the driver slide (101; 301) can also be connected to the spring slide (131; 331) by means of a film joint.
In allen Ausführungsbeispielen kann der Kolbenstangenkopf (158) zusätzlich im Gehäuse (20) axial geführt sein. Diese Führung ist in der Längsrichtung (15) orientiert. Hiermit wird ein Verbiegen der Kolbenstange verhindert.In all exemplary embodiments, the piston rod head (158) can additionally be guided axially in the housing (20). This guide is oriented in the longitudinal direction (15). This prevents the piston rod from bending.
Es ist auch denkbar, die Zylinder-Kolben-Einheit (141) mit einem Mitnehmerschieber (101; 301) oder mit beiden Mitnehmerschiebern (101, 301) zu koppeln. Hierbei ist beispielsweise der Kolbenstangenkopf (158) in einem gekrümmten Langloch des zweiten Mitnehmerschiebers (301) gelagert. Der Kolbenstangenkopf (158) kann auch in diesem Fall zusätzlich im Gehäuse (20) geführt sein. Der Zylinderboden (145) kann dann in einem gekrümmten Langloch des ersten Mitnehmerschiebers (101) schwenkbar und verschiebbar gelagert sein. Bei einer beidseitigen Ankupplung der Zylinder-Kolben-Einheit (141) an die Mitnehmerschieber (101, 301) kann die Zylinder-Kolben-Einheit (141) ohne Rückstellfeder (146) ausgebildet sein.It is also conceivable to couple the cylinder-piston unit (141) to a driver slide (101; 301) or to both driver slides (101, 301). For example, the piston rod head (158) is mounted in a curved elongated hole in the second driver slide (301). In this case too, the piston rod head (158) can additionally be guided in the housing (20). The cylinder base (145) can then be pivotally and displaceably mounted in a curved slot of the first driver slide (101). When the cylinder-piston unit (141) is coupled to the driver slides (101, 301) on both sides, the cylinder-piston unit (141) can be designed without a return spring (146).
Auch Kombinationen der einzelnen Ausführungsbeispiele sind denkbar.Combinations of the individual exemplary embodiments are also conceivable.
- 11
- UmgebungSurroundings
- 22
- Öffnungsrichtung nach linksOpening direction to the left
- 33
- Schließrichtung von linksClosing direction from the left
- 44
- Öffnungsrichtung nach rechtsOpening direction to the right
- 55
- Schließrichtung von rechtsClosing direction from the right
- 66
- Mitnehmertakeaway
- 1010
- Kombinierte Dämpfungs- und ZuziehvorrichtungCombined damping and closing device
- 1111
- Grundstellunginitial position
- 1212
- erste Parkposition, linke Parkpositionfirst parking position, left parking position
- 1313
- zweite Parkposition, rechte Parkpositionsecond parking position, right parking position
- 1414
- Höhenrichtungheight direction
- 1515
- Längsrichtunglongitudinal direction
- 1616
- erste Warteposition, linke Wartepositionfirst waiting position, left waiting position
- 1717
- erste Endposition, linke Endpositionfirst end position, left end position
- 1818
- zweite Warteposition, rechte Wartepositionsecond waiting position, right waiting position
- 1919
- zweite Endposition, rechte Endpositionsecond end position, right end position
- 2020
- Gehäusecasing
- 2121
- DurchgangsbohrungenThrough holes
- 2222
- GehäuseinnenraumHousing interior
- 2424
- Längsschlitzlongitudinal slot
- 2525
- Seitenflächeside surface
- 2626
- Gehäuseinnenwandunghousing inner wall
- 2727
- Stirnwandbulkhead
- 2929
- Breitenrichtungwidthwise
- 3131
- GehäuseunterteilHousing bottom
- 3232
- Führungsnutenguide
- 3333
- gerader Führungsnutabschnittstraight guide groove section
- 3434
- Endabschnittend
- 3535
- Warteabschnittwaiting section
- 3636
- SeitenwandSide wall
- 3737
- Stirnstegebrow ridges
- 3838
- Deckenstegtop web
- 3939
- Begrenzungssteglimiting web
- 4242
- Führungsnutenguide
- 4343
- gerader Führungsnutabschnittstraight guide groove section
- 4444
- Endabschnittend
- 4545
- Warteabschnittwaiting section
- 4646
- Steuerbahncontrol track
- 4747
- gerader Steuerabschnittstraight control section
- 4848
- erster Parkabschnittfirst section of the park
- 4949
- zweiter Parkabschnittsecond section of the park
- 5151
- AbstandshalterstegSpacer strip
- 5252
- Gleitrinnechute
- 5353
- KopfschaleTop shell
- 5454
- Randstegedge web
- 5555
- Linearbahnlinear path
- 5656
- Linearbahnlinear path
- 6161
- GehäuseoberteilHousing top
- 6262
- Stirnstegebrow ridges
- 6666
- SeitenwandSide wall
- 7171
- Mitnahmeelementdriving element
- 7272
- Verbindungsstangeconnecting rod
- 7373
- Schwenkzapfenpivot pin
- 7474
- Schwenkzapfenpivot pin
- 7575
- Gelenkstiftpintle
- 81, 28181, 281
- Hakenschieberhook slide
- 82, 28282, 282
- Mitnahmehakendriving hook
- 83, 28383, 283
- Hakenflächehook surface
- 84; 28484; 284
- Schwenkbuchsepivot bushing
- 8585
- HakenschieberkörperHook slider body
- 8686
- Oberfläche von (85)Surface of (85)
- 8787
- Stützkörpersupport body
- 8888
- Hauptkörpermain body
- 8989
- Steuerzapfencontrol pin
- 9191
- Unterseitebottom
- 9292
- Kupplungszapfenkingpin
- 9393
- Seitenstegesidebars
- 9494
- Kupplungsfläche, erste KupplungsflächeCoupling surface, first coupling surface
- 9595
- Kupplungsfläche, zweite KupplungsflächeCoupling surface, second coupling surface
- 9696
- Stirnseite, hakenseitigFront side, hook side
- 9797
- Steuerbolzencontrol bolt
- 9898
- Quersteg, erster QuerstegCross bar, first cross bar
- 9999
- Quersteg, zweiter QuerstegCross bar, second cross bar
- 101, 301101, 301
- Mitnehmerschiebercatch slide
- 102; 302102; 302
- erster Mitnehmerschieber-Führungszapfenfirst driver slide guide pin
- 103; 303103; 303
- zweiter Mitnehmerschieber-Führungszapfensecond driver slide guide pin
- 104104
- MitnehmerschieberkörperMitnehmerschieberkörper
- 105105
- Seitenflächenfaces
- 106106
- Anschlagflächestop surface
- 107107
- Teilfläche von (106), obere TeilflächePartial area of (106), upper partial area
- 108108
- Teilfläche von (106), mittlere TeilflächePartial area of (106), middle partial area
- 109109
- Teilfläche von (106), untere TeilflächePartial area of (106), lower partial area
- 111111
- Stirnflächeface
- 112112
- Kupplungsausnehmungcoupling recess
- 113113
- Schieberfläche, erste SchieberflächeSlider area, first slider area
- 114114
- Schieberfläche, zweite SchieberflächeSlide surface, second slide surface
- 115115
- Unterseite von (101; 301)Underside of (101; 301)
- 116116
- Federaufnahmespring mount
- 117117
- Haltestegholding web
- 118118
- Aufnahmenutreceiving groove
- 119119
- Sicherungshakensafety hook
- 121121
- Hakenausnehmunghook recess
- 122122
- Gegenhakencounter hook
- 123123
- GegenhakenflächeAgainst hook surface
- 131, 331131, 331
- Federschieberspring slide
- 132132
- Seitenflächenfaces
- 133133
- Schieberzapfenpusher stud
- 134134
- Schieberzapfenpusher stud
- 135135
- Oberseitetop
- 136136
- Eingriffshakenengaging hook
- 137137
- äußere Hakenflächeouter hook surface
- 138138
- innere Hakenflächeinner hook surface
- 141141
- Zylinder-Kolben-EinheitCylinder-piston unit
- 142142
- Zylindercylinder
- 143143
- Kolbenstangepiston rod
- 144144
- Kolbenpiston
- 145145
- Zylinderbodencylinder base
- 146146
- RückstellfederReturn spring
- 147147
- Verdrängungsraumdisplacement space
- 148148
- Drosselkanälethrottle channels
- 149149
- Zylinderkopfcylinder head
- 151151
- Ausgleichsraumcompensation space
- 152152
- Drosselscheibethrottle disc
- 153153
- Zylinderinnenwandunginner cylinder
- 154154
- KolbenumfangsflächePiston peripheral surface
- 155155
- AusgleichsdichtelementCompensating sealing element
- 156156
- Ausgleichsfederbalancing spring
- 157157
- ZylinderkopfdichtungCylinder head gasket
- 158158
- KolbenstangenkopfPiston rod head
- 161161
- Federenergiespeicher, ZugfederSpring energy storage, tension spring
Claims (11)
Applications Claiming Priority (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
DE102018004643.6A DE102018004643B4 (en) | 2018-06-12 | 2018-06-12 | Combined damping and closing device for a center door |
Publications (2)
Publication Number | Publication Date |
---|---|
EP3581746A1 true EP3581746A1 (en) | 2019-12-18 |
EP3581746B1 EP3581746B1 (en) | 2023-01-18 |
Family
ID=66826797
Family Applications (1)
Application Number | Title | Priority Date | Filing Date |
---|---|---|---|
EP19000283.2A Active EP3581746B1 (en) | 2018-06-12 | 2019-06-11 | Combined damping and pulling device for a middle door |
Country Status (3)
Country | Link |
---|---|
EP (1) | EP3581746B1 (en) |
DE (1) | DE102018004643B4 (en) |
PL (1) | PL3581746T3 (en) |
Cited By (1)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
WO2024056846A1 (en) * | 2022-09-16 | 2024-03-21 | Häfele SE & Co KG | Sliding door fitting and an item of furniture having such a sliding door fitting |
Families Citing this family (1)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
DE102019008572B4 (en) * | 2019-12-10 | 2021-09-16 | Günther Zimmer | Sliding door system |
Citations (5)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
WO2009100717A1 (en) * | 2008-02-13 | 2009-08-20 | Zimmer Guenther | Acceleration and deceleration device having two driving elements |
EP2730734A2 (en) * | 2012-11-13 | 2014-05-14 | Häfele GmbH & Co. KG | Bidirectional intake device for a medium-sized sliding door |
WO2015091118A1 (en) * | 2013-12-18 | 2015-06-25 | Paul Hettich Gmbh & Co. Kg | Damping unit for a sliding element |
WO2017123147A1 (en) * | 2016-01-15 | 2017-07-20 | Ikea Supply Ag | Self-closing assembly for a sliding door |
DE102016007885A1 (en) | 2016-06-29 | 2018-01-04 | Günther Zimmer | Center door closing device with transfer carriage |
-
2018
- 2018-06-12 DE DE102018004643.6A patent/DE102018004643B4/en active Active
-
2019
- 2019-06-11 EP EP19000283.2A patent/EP3581746B1/en active Active
- 2019-06-11 PL PL19000283.2T patent/PL3581746T3/en unknown
Patent Citations (5)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
WO2009100717A1 (en) * | 2008-02-13 | 2009-08-20 | Zimmer Guenther | Acceleration and deceleration device having two driving elements |
EP2730734A2 (en) * | 2012-11-13 | 2014-05-14 | Häfele GmbH & Co. KG | Bidirectional intake device for a medium-sized sliding door |
WO2015091118A1 (en) * | 2013-12-18 | 2015-06-25 | Paul Hettich Gmbh & Co. Kg | Damping unit for a sliding element |
WO2017123147A1 (en) * | 2016-01-15 | 2017-07-20 | Ikea Supply Ag | Self-closing assembly for a sliding door |
DE102016007885A1 (en) | 2016-06-29 | 2018-01-04 | Günther Zimmer | Center door closing device with transfer carriage |
Cited By (1)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
WO2024056846A1 (en) * | 2022-09-16 | 2024-03-21 | Häfele SE & Co KG | Sliding door fitting and an item of furniture having such a sliding door fitting |
Also Published As
Publication number | Publication date |
---|---|
PL3581746T3 (en) | 2023-05-22 |
DE102018004643B4 (en) | 2020-01-16 |
EP3581746B1 (en) | 2023-01-18 |
DE102018004643A1 (en) | 2019-12-12 |
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