Abstract:
A refrigerated cabinet includes a first plurality of doors arranged along a first long side and configured and disposed to control access to a product space defined within the interior of the cabinet. The cabinet includes a second plurality of doors arranged along a second long side that is disposed opposite the first long side. The second plurality of doors is configured and disposed to control access to the product space. The refrigerated cabinet includes a transverse side connecting the first long side to the second long side. The transverse side includes a third plurality of doors configured and disposed to control access to the product space.
Abstract:
An Anuba concealed hinge for rotatable moving a door, in particular a reinforced door, connected to a tubular support structure, which includes a rear counterframe anchored to a wall and a front frame anchored to the counterframe The hinge includes a lower fixed half-hinge and an upper movable half-hinge rotatably coupled to each other for rotating about a first longitudinal axis between an open position and a closed position. The lower fixed half-hinge includes a box-shaped hinge body to be concealedly inserted within the tubular support structure. The upper movable half-hinge includes a connecting plate connected to the door to extend from the tubular support structure in the open position and to concealedly retract within the tubular support structure in the closed position. The movable half-hinge includes a pivot defining the first axis unitarily connected to the connecting plate. The hinge body (11) includes a seat internally housing the pivot.
Abstract:
In one embodiment, window regulator 140 uses a rotational bearing assembly 270 to reduce stress on the system. The window regulator 140 may guide in a groove 310 a tackle 240 moving a runner 220. The window regulator 140 may move the groove 310 with the tackle 240. The window regulator 140 may rotate the groove 310 around an axis 302 using a rotational bearing assembly 270.
Abstract:
A coupled structure with high separation strength and a window regulator. A lift arm (5) is provided with a tapered through-hole (35) provided with a first inner wall portion (33) work-hardened due to plastic deformation and a swell portion (45) having an inner wall surface (41) continuing to an inner wall surface (31) of the tapered through-hole (35) and provided with a second inner wall portion (43) work-hardened due to plastic deformation. A driven gear (3) is provided with a protrusion (51) fit in from the tapered through-hole (35) to the swell portion (45), provided with an outer wall portion (53) work-hardened due to plastic deformation, and having an outer wall surface (55) in close contact with the inner wall surface (31) of the tapered through-hole (35) and at least a part of the inner wall surface (41) of the swell portion (45).
Abstract:
A hinge device has a first part and a second part, which are intended to be attached to a door frame and a door, respectively. The first part and the second part are rigidly connected to each other and have each a tubular housing, whose center axis defines a first hinge axis and which accommodates two balls, an axially displaceable locking member arranged axially inwardly of each ball, a compression spring arranged between and cooperating with each ball and the associated locking member, and an eccentric located between the two locking members and cooperating therewith. Each eccentric is rotatably carried about a transverse axis in the respective housing and rotatable between an initial position, in which the two associated locking members are located in an axially inner position and the two associated balls are located in a position slightly projecting from the housing, in which position they are held biased by the respective compression spring, and an active position, in which the two associated locking members are located in an axially outer position, in which they abut against the respective ball axially locking it in the projecting position.
Abstract:
A coupled structure with high separation strength and a window regulator. A lift arm (5) is provided with a tapered through-hole (35) provided with a first inner wall portion (33) work-hardened due to plastic deformation and a swell portion (45) having an inner wall surface (41) continuing to an inner wall surface (31) of the tapered through-hole (35) and provided with a second inner wall portion (43) work-hardened due to plastic deformation. A driven gear (3) is provided with a protrusion (51) fit in from the tapered through-hole (35) to the swell portion (45), provided with an outer wall portion (53) work-hardened due to plastic deformation, and having an outer wall surface (55) in close contact with the inner wall surface (31) of the tapered through-hole (35) and at least a part of the inner wall surface (41) of the swell portion (45).
Abstract:
A snap stud assembly is provided for pivotally connecting two hardware members together. A stud is disposed within a tubular sleeve. A lower or bottom end of the stud is attached to a lower hardware member by pressing or deforming the bottom end of the stud member to provide an interference fit. The upper hardware member is mounted over a top end of the plastic sleeve which includes a top flange but which is resiliently compressible in the radially inward direction so that the top hardware member may be easily forced over the top end of the plastic sleeve. Once installed, the upper hardware member is disposed between a top flange and a bottom flange of the plastic sleeve which serves as a bushing about which the top member pivots as well as a washer between the top hardware member and bottom hardware member.
Abstract:
A window hinge having a track mountable to a window frame, a sash arm mountable to a window sash, and a plurality of pivotally interconnected links connecting the track to the sash arm to allow pivotal movement of the sash relative to the window frame. At least one of the links is pivotally connected to a shoe movable on the track and another of the links is pivotally connected to a block. The block includes a projecting stud and is elastically deformable to allow sliding of the block in the track with the stud retracted until snappingly securing the stud in a mounting slot in the track during field assembly. The hinge is mounted by first fixing the track to a window frame and the sash arm to a window sash, thereafter sliding the shoe and the block in the track to dispose the block stud adjacent the track slot, then fixing the block to the track with the block stud in the track slot.
Abstract:
A friction supported stay comprising a track (10) secured vertically to a window frame with a slider (15) connected by link (18) to a strut (16) in turn connected to bar (24) which is also connected to slider (15) by a link (21). The bar, which is normally connected to the window has a nose member (35) which engages in a plastic, shaped cap member (14). The cap member (14) has internal cam surfaces (36) (37) which are asymmetrically disposed with respect to the central longitudinal axis of the track. One cam surface is at a greater angle to the axis than the other. The corresponding surfaces of the nose portion (35) of strut (24) are similarly inclined to each other and to the axis of strut (24).
Abstract:
A friction pivot joint where a headed fastening couples two components by passing through aligned openings in the components and having structure for preventing axial movement of the tail of the fastening. The joint is characterized by the shank of the fastening extending through a bushing of wear resistant plastics material located in the opening in one component. The bushing has integrally formed therewith a peripheral flange and the flange is sandwiched between the two components thereby preventing contact between the components. Friction in the joint is created from the plastics bushing and integral peripheral flange being placed under pressure by the fastening. The bushing has a length which is greater than the length of the opening in which it is located with the result that during assembly of the joint pressure created by the fastening causes the free end of the bushing to flow under the head of the fastening to be retained thereunder by retaining structure. The head and shank of the fastening are thus prevented from contacting that one component so that during relative pivotal movement of the component substantially no torque is applied to the shank by the head of the fastening.