Bathroom partition doors include a closing mechanism such as a cammed hinge, or an internal spring hinge, or a piano hinge with springs, or a hydraulic cylinder, coupling the partitions to corresponding stiles, or fascia panels (individually or collectively referred to herein as “stiles”). The closing mechanism helps close the partition after it is opened. Typically, the force provided by the closing mechanism on such doors, as for example the spring force is set high because, under the Americans with Disabilities Act, the torque on the hinge has to be strong enough to keep the door closed at all times. When the door is opened at an angle of 90 degrees or more, the torque provided by the closing mechanism to close the door is at its highest. As the door moves towards the closed position, the closing mechanism torque continues to decrease, yet remains strong enough, causing the door to slam against another stile, causing an unacceptable noise and vibration to the toilet partition system. As the door slams to the closed position, the force from slamming causes the door to re-open and slam again towards the closed position. This process repeats itself, with each cycle the door opening less and less, until the door remains closed, causing undue vibration. Thus, a toilet partition system that allows for the closing of the toilet partition without such slamming against the closing fascia is desired.
In an example embodiment, a partition door system includes a partition door, a stile, and a closing mechanism coupling the partition door to the stile, such that the closing mechanism provides a force for closing the door relative to the stile. A first magnet is at the partition door proximate the stile, and a second magnet is at the stile proximate the door. In another example embodiment, the door rotates about a longitudinal axis between the partition door and the stile. In yet another example embodiment, the door has an upper end and a lower end and the stile has an upper end and a lower end, and the first magnet is proximate the upper end of the door and the second magnet is proximate the upper end of the stile. With this embodiment, the system further includes a third magnet proximate the lower end of the partition door, and a fourth magnet proximate the lower end of the stile. In a further example embodiment, the system further includes a first member at an end of the door proximate the first magnet and the third magnet, and a second member proximate an end of the stile proximate the second magnet and the fourth magnet. In yet a further example embodiment, one of the first and second members defines a longitudinally extending channel and the other of the first and second members defines a longitudinally extending projection such that when the partition door is in a closed position the longitudinally extending projection is received within the longitudinally extending channel. In one example embodiment, the first and third magnets are sandwiched between the door and the first member and the second and fourth magnets are sandwiched between the stile and the second member. In another example embodiment, the system further includes a first member at an end of the door proximate the first magnet and a second member proximate an end of the stile proximate the second magnet. In yet another example embodiment, one of the first and second members defines a longitudinally extending channel and the other of the first and second members defines a longitudinally extending projection such that when the partition door is in a closed position the longitudinally extending projection is received within the longitudinally extending channel. In a further example embodiment, the first magnet sandwiched between the door and the first member and the second magnet is sandwiched between the stile and the second member.
In an example embodiment a method of operating a partition door includes closing the partition door towards a stile, and applying a magnetic force to keep the partition door closed at the stile.
In yet another example embodiment, a partition wall member includes a first end for coupling to another partition wall member, a second end opposite the first end, and a first magnet at the partition wall member at or proximate the second end. In a further example embodiment, the partition wall member has an upper end and a lower end, and the first magnet is proximate the upper end of the partition wall member and the partition wall member further includes a second magnet proximate the lower end of the partition wall member proximate the second end. In one example embodiment, the partition wall member also includes an end member at an end of the partition wall member proximate the first magnet. In another example embodiment, the end member includes at least one of a longitudinally extending channel or a longitudinally extending projection. In another example embodiment, the partition wall member is a door and the other partition wall member is a stile. In yet a further example embodiment, the partition wall member is a stile and the other partition wall member is a door.
Typically, a toilet partition door 10 is mounted onto a stile (or fascia) 12, and closes against another stile (or fascia) 14 (
In an example embodiment, a first pocket 26 is formed into the stile and a second pocket 28 is formed in the partition door, as for example by a machining or other manufacturing methods. The first magnet 18 is received in the first pocket 26 formed in the stile and the second magnet 20 is received in the second pocket 28 formed in the partition door. In one example embodiment, each pocket may be formed through any surface of the door or stile. For example the pocket may be formed from a top surface, or a bottom surface, or an end surface, or a face surface of the door. In another example embodiment, the first pocket 26 extends to a top surface 30 of the stile and the second pocket 28 extends to a top surface 32 of the door. In an example embodiment, the pockets both have a depth that extends to the same height. In the example embodiments shown in
In an example embodiment shown in
In an example embodiment, for a door having a length of 72 inches, two magnets 18, 20 are installed in each of the stile 12 and the door 10. One magnet is installed proximate the top surface 46 of the door, and one proximate the top surface 48 of the stile, and another one proximate bottom surface 50 of the door and another bottom surface 52 of the stile, as for example showing in
With this embodiment, the force provided by the closing mechanism, as for example by a spring hinge, to close the door does not have to be that great. In this regard, as the door approaches to a closed position, the door would not slam and cause undue vibration that may be harmful to the partition and stile. In addition, as the door approaches a closed position, the magnets attract and pull the doors closed, and retain the door in the closed position with minimal or no vibration. It should be noted that the magnets are mounted on the stile and door, respectively, such that the north pole of one magnet faces the south pole of the other magnet so that the two magnets can attract each other when the door is closed to a closed position.
Even though the invention has been described in relation to a bathroom partition door, it is to be understood that the invention can easily be applied to other doors, such that the force required by the hinge is reduced while the doors remain in closed position. It is also to be understood that use of the phrase “closing mechanism” is not meant to invoke 35 USC 112(f).
This application is based upon and claims priority to U.S. Provisional Application Ser. No. 62/128,403, filed on Mar. 4, 2015, entitled “PARTITION AND CLOSING SYSTEM FOR PARTITION”, the contents of which are fully incorporated herein by reference.
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