Airline operators offer convenient cabin amenities for passenger use and comfort. Passengers often wear layers of clothing articles to prepare for varying weather conditions as they travel, for example on long distance trips among countries of varying climates. Business travelers often wear outer suit coats, blazers, and jackets and are particularly concerned with presentable appearances, for example as they travel to attend meetings, and may be greeted by associates, clients, or competitors without time to visit a residence, hotel, or other accommodations for a change of attire after flying. Airline employees too are expected to have professional and fresh appearances before, during, and after flights.
While access to effects such as clothing hangers is expected on need or demand, such effects are also expected to stow for convenience when not in use, particularly given the limited space in passenger cabins even in premium suite accommodations. Space savings principles apply in airline passenger cabins as much or more than in any other industry or application. Thus, hanging suit coats and other garments as needed in parallel fashion relative to wall panels is a potentially beneficial approach to save space, for example particularly in individual or small group passenger suite spaces. However, opening a large door that matches the broad area of a hanging enclosure may be an inconvenient or even unsafe operation in a small space. Also, inserting a garment on a hangar through a narrow opening into a deep slender enclosure may be inconvenient.
Accordingly, improvements are needed in garment hanging devices. More particularly, improvements are needed to automatically present a passenger with a ready hanger support and stow the hanger support from sight when not in use, among other features, uses and advantages.
To achieve the foregoing and other advantages, the inventive aspects disclosed herein are directed to an extending hanger assembly for a wardrobe system having an enclosure and a door pivotable between open and closed positions. The hanger assembly includes a base on which an article support peg is mounted for linear translation, a mechanism operative to move the article support peg linearly relative to the base, and a control link coupling the door to the mechanism, whereby, upon opening and closing of the door, the control link operates the mechanism to translate the article support peg in opposing linear directions.
In some embodiments, the mechanism operative to move the article support peg linearly relative to the base includes a scissor mechanism having a proximal end extending toward the door and a distal end extending away from the door, wherein the distal end is attached to the base, and the proximal end is attached to a traveling bracket that carries the article support peg.
In some embodiments, the control link is attached to an intermediate joint of the scissor mechanism between the proximal end and distal end.
In some embodiments, upon opening and closing of the door, the control link moves the intermediate joint of the scissor mechanism, which thereby translates the article support peg.
In some embodiments, upon opening of the door, the control link operates the mechanism to translate the article support peg in a first linear direction toward the door; and, upon closing of the door, the control link operates the mechanism to translate the article support peg in a second linear direction away from the door.
In some embodiments, the mechanism includes a first scissor actuator driven by the control link and a second scissor actuator driven by the first scissor actuator.
In some embodiments, each of the first and second scissor actuators has multiple arms pivotally interconnected at overlapped centers and terminal ends of the arms.
In some embodiments, the first scissor actuator has a distal end extending away from the door and attached to the base, and a proximal end opposite the distal end and attached to the second scissor actuator, and the second scissor actuator has a distal end extending away from the door and attached to the base, and a proximal end opposite the distal end and attached to the article support peg.
In some embodiments, the proximal end of the first scissor actuator is attached to an intermediate joint of the second scissor actuator between the proximal end and distal end thereof.
In some embodiments, each scissor actuator imparts a respective stroke amplification factor by which translation of the article support peg is greater than movement of the control link.
In some embodiments, a cover is connected to the base, wherein the article support peg extends through and moves along the slot when the mechanism translates the article support peg.
In some embodiments, a first plate and a second plate has oppositely diagonal respective slots through which the article support peg extends, the first plate and second plate cooperatively occluding the slot in the cover.
In some embodiments, the first plate and second plate move in opposite vertical directions, due to the oppositely diagonal slots, as the article support peg translates.
In some embodiments, a crossing intersection of the oppositely diagonal slots defines a minimal opening for passage and movement of the article support peg.
In some embodiments, the control link includes a gas-filled cylinder and a rod to damp motion of the door.
In another aspect, the inventive concepts disclosed herein are directed to a wardrobe system including a fixed first structure, a second structure pivotable relative to the fixed first structure between a first position and a second position, an article support peg mounted on the first structure for linear translation, a scissor mechanism operative to move the article support peg linearly relative to the first structure, and a control link coupling the second structure to the scissor mechanism, whereby, upon opening and closing of the door, the control link operates the scissor mechanism to translate the article support peg in opposing linear directions.
In some embodiments, the scissor mechanism has a proximal end extending toward the second structure and a distal end extending away from the second structure, wherein the distal end is attached to the first structure, and the proximal end is attached to a traveling bracket that carries the article support peg.
In some embodiments, the scissor mechanism includes a first scissor actuator driven by the control link and a second scissor actuator driven by the first scissor actuator.
In some embodiments, the first scissor actuator has a distal end extending away from the second structure and attached to the first structure, and a proximal end opposite the distal end and attached to the second scissor actuator; and the second scissor actuator has a distal end extending away from the second structure and attached to the first structure, and a proximal end opposite the distal end and attached to the article support peg.
In some embodiments, a first plate and a second plate have oppositely diagonal respective slots through which the article support peg extends, the first plate and second plate cooperatively occluding a slot in a cover attached to the first structure, wherein the first plate and second plate move in opposite vertical directions, due to the oppositely diagonal slots, as the article support peg translates.
Implementations of the inventive concepts disclosed herein may be better understood when consideration is given to the following detailed description thereof. Such description makes reference to the included drawings, which are not necessarily to scale, and in which some features may be exaggerated, and some features may be omitted or may be represented schematically in the interest of clarity. Like reference numbers in the drawings may represent and refer to the same or similar element, feature, or function. In the drawings:
The description set forth below in connection with the appended drawings is intended to be a description of various, illustrative embodiments of the disclosed subject matter. Specific features and functionalities are described in connection with each illustrative embodiment; however, it will be apparent to those skilled in the art that the disclosed embodiments may be practiced without each of those specific features and functionalities. The aspects, features and functions described below in connection with one embodiment are intended to be applicable to the other embodiments described below except where expressly stated or where an aspect, feature or function is incompatible with an embodiment.
A wardrobe system is provided for use in a passenger suite for example where garments and garment bags carried by passengers are to be hung and stowed. The wardrobe system takes minimal space and can be situated, for example, along a wall, with a closing door, to be visibly inconspicuous and continuous with the overall look of a passenger suite. An actuating hanger assembly within an enclosure automatically presents a user with an article support peg near the opening of the enclosure when the door is opened. The actuating hanger assembly automatically stows the article support peg upon closure of the door to stow any articles such as a coat on a hanger placed on the support peg by a passenger. The articulating hanger assembly has a base mounted on a fixed panel within the interior of the enclosure, and an actuator that automatically moves the article support peg into an access position near the open doorway and a stowed position deeper within the enclosure as the door is opened and closed.
Accordingly, in the embodiment illustrated in the drawings, a wardrobe system 20 includes an extending hanger assembly 30 mounted on a first fixed structure, and a second structure that pivots relative to the first structure between a first position (
A base 32 mounted on the first fixed panel 22 serves as a frame of the hanger assembly 30. The base 32 is stationary with the fixed panel 22 as the door 28 is opened and closed. As shown in
The base 32 has a first end, referenced as the proximal end 40 with respect to relative proximity to the door 28, and a second end opposite the first end, referenced as the distal end 42 of the base 32. As shown in
The scissor mechanism 50 has multiple arms 48 pivotally interconnected at their overlapped centers and terminal ends. Joints, defined where adjacent arms pivotally cross at their centers or pivotally join at their ends, are controllably uniformly spaced according to the dispositions of arms as the scissor mechanism is actuated by the control link 52.
The distal most joint 62, which defines the distal end of the scissor mechanism 50 extending away from the door 28, is pivotally attached to, and stationary with, the base 32 by a first fixed post 64 connected to the base. The proximal most joint 66, which defines the proximal end of the scissor mechanism 50 extending toward the door 28, is pivotally attached to the traveling bracket 46 that carries the article support peg 34. The distal end 60 of the control link 52 is pivotally attached to an intermediate joint 68. As the control link 52 moves with opening and closing of the door 28, the distal end 60 moves the intermediate joint 68 of the scissor mechanism 50, which thereby moves the traveling bracket 46 and the article support peg 34 with stroke amplification.
When the door 28 is in the closed position, the control link 52 is accordingly in its most distally extended position, and the scissor mechanism 50 is in the most collapsed condition thereof (
As the door 28 is opened, the door-mounted bracket 56 moves with the door 28, pulling the intermediate joint 68 relative to the fixed distal most joint 62 thereby expanding the scissor mechanism 50 and translating the traveling bracket 46 and article support peg 34 in a first linear direction 45 (
In a single level scissor mechanism (not illustrated), the distal most joint 62, intermediate joint 68, and proximal most joint 66, are of the same scissor actuator. As shown in
The first scissor actuator 70 imparts a first stroke amplification factor upon movement of the distal end 60 of the control link 52. The distal most joint 62, which defines the distal end of the scissor mechanism 50 pivotally attached to the first fixed post 64, also defines the distal end of the first scissor actuator 70 extending away from the door 28. An intermediate joint of the first scissor actuator 70 is the intermediate joint 68 to which the control link 52 is pivotally attached. A proximal most joint 72 defines the proximal end of the first scissor actuator 70 extending toward the door 28. As the control link 52 moves with opening and closing of the door 28, the control link 52 translates the intermediate joint 68 in the first and second linear directions 45 and 47 respectively, thereby moving the proximal most joint 72 of the first scissor actuator 70.
The second scissor actuator 80 imparts a second stroke amplification factor upon movement of the proximal most joint 72 of the first scissor actuator 70. The distal end of the second scissor actuator 80 extending away from the door 28 is defined by a distal most joint 82 pivotally attached to a second fixed post 84, which is spaced from the first fixed post 64. The second fixed post 84 is connected to a cover 90, which is connected to the base 32. Thus, the distal most joint 82 is pivotally attached to, and stationary with, the base 32 by way of the second fixed post 84 and cover 90.
The proximal end of the second scissor actuator 80 extending toward the door 28 is defined by the proximal most joint 66, which also defines the proximal end of the scissor mechanism 50 pivotally attached to the traveling bracket 46 and to the article support peg 34 by way of the traveling bracket. The proximal most joint 72 of the first scissor actuator 70 is pivotally attached to an intermediate joint 86 of the second scissor actuator 80. As the first scissor actuator 70 moves with opening and closing of the door 28, the proximal most joint 72 of the first scissor actuator translates the intermediate joint 86 of the second actuator 80 in the first and second linear directions 45 and 47 respectively, thereby translating the proximal end (proximal most joint 66) of the second scissor actuator 80 and the traveling bracket 46 and article support peg 34 therewith in the first and second linear directions 45 and 47.
By the first and second scissor actuators 70 and 80 imparting respective stroke amplification factors, stroke amplification by the dual level scissor mechanism 50 is greater than would be achieved by a single level scissor mechanism of similar dimensions. In the illustrated embodiment, the first scissor actuator 70 has three joints. The intermediate joint 68 driven by the control link 52 is adjacent the first or distal most joint 62. The stroke amplification factor of the first scissor actuator 70 is thereby two, as movement of the proximal most joint 72 is twice that of the intermediate joint 68. The second scissor actuator 80 has six joints (see
The cover 90 (
To further closeout the slot 92 from entry by fingers and hanger hooks and such, moving adjacent slider plates under the cover 90 cooperatively occlude the slot beyond the flange 94 as the support peg 34 moves. A first slider plate 96 (shown in dashed line in
The slider plates 96 and 100 are permitted to move vertically within the hanger assembly 30 by a proximal guide 104 and a distal guide 106 (
While the foregoing description provides embodiments of the invention by way of example only, it is envisioned that other embodiments may perform similar functions and/or achieve similar results. Any and all such equivalent embodiments and examples are within the scope of the present invention and are intended to be covered by the appended claims.
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