The invention relates to a medical washer/disinfector, comprising a washing chamber for receiving medical articles to be washed/disinfected, an opening for accessing the interior of the washing chamber, a door which is movable from a lowered open position to a raised stop position and then to a raised closed position. The door is associated with a first slide surface. The medical washer/disinfector also comprises a carrier arrangement vertically movable by a motor, the carrier arrangement comprising a second slide surface for enabling slidable contact with the first slide surface. A spring member extending vertically upwardly from the carrier arrangement to a connection area of the door. The door is pushed upwards by the spring member until the door reaches said raised stop position. Continued upward movement of the carrier arrangement causes the spring member to become more compressed, whereby the door moves horizontally from the raised stop position to the raised closed position.

A track of a vertically stacking door includes a vertical track, a first curved track portion, a second curved track portion, a first horizontal track portion coupled to the first curved track portion, and a second horizontal track portion coupled to the second curved track portion. The first curved track portion and the second curved track portion are split off from the vertical track and the first curved track portion and the second curved track portion each comprises multiple radii of curvature.

A track of a vertically stacking door includes a vertical track, a first curved track portion, a second curved track portion, a first horizontal track portion coupled to the first curved track portion, and a second horizontal track portion coupled to the second curved track portion. The first curved track portion and the second curved track portion are split off from the vertical track and the first curved track portion and the second curved track portion each comprises multiple radii of curvature.

A hatch operating mechanism is arranged to control opening and closing movements of a hatch covering an opening in a vehicle. The mechanism comprises a first arm and a second arm each having a first end and a second end, wherein each arm is rotatably attached to the vehicle at the first end and rotatably attached to the hatch at the second end. First and second connecting elements extend between and are displaceable relative to a pair of spaced apart, parallel guides fixed to the hatch, wherein the second ends of the arms are rotatably attached to the respective connecting elements. The first arm rotates in a first direction over a first arcuate path, and the second arm simultaneously rotates in an opposing second direction over a second arcuate path; and the first and second connecting elements are configured for reciprocating movement along the guides during rotation of the arms.

A hatch operating mechanism is arranged to control opening and closing movements of a hatch covering an opening in a vehicle. The mechanism comprises a first arm and a second arm each having a first end and a second end, wherein each arm is rotatably attached to the vehicle at the first end and rotatably attached to the hatch at the second end. First and second connecting elements extend between and are displaceable relative to a pair of spaced apart, parallel guides fixed to the hatch, wherein the second ends of the arms are rotatably attached to the respective connecting elements. The first arm rotates in a first direction over a first arcuate path, and the second arm simultaneously rotates in an opposing second direction over a second arcuate path; and the first and second connecting elements are configured for reciprocating movement along the guides during rotation of the arms.

The present disclosure provides a barrier operator system in which a remotely located transceiver type controller is in wireless communication with a transceiver type adapter connected to a barrier operator, and in electronic communication with the barrier operator's microcontroller. The controller is operable to wirelessly transmit door operator status inquiries to the adapter. This may be effected automatically in connection with the transmission and receipt by the adapter of door toggle commands or separate and apart from same. The status information is wirelessly transmitted by the adapter in broadcast form without source or destination address to the remote device in a signal that is non-addressed broadcast door operator (and, indirectly, door) status information by relying upon the receipt of the message by the remote within the specific time limit of the reception window of the remote.

The present disclosure provides a barrier operator system in which a remotely located transceiver type controller is in wireless communication with a transceiver type adapter connected to a barrier operator, and in electronic communication with the barrier operator's microcontroller. The controller is operable to wirelessly transmit door operator status inquiries to the adapter. This may be effected automatically in connection with the transmission and receipt by the adapter of door toggle commands or separate and apart from same. The status information is wirelessly transmitted by the adapter in broadcast form without source or destination address to the remote device in a signal that is non-addressed broadcast door operator (and, indirectly, door) status information by relying upon the receipt of the message by the remote within the specific time limit of the reception window of the remote.

A track of a vertically stacking door includes a vertical track, a first curved track portion, a second curved track portion, a first horizontal track portion coupled to the first curved track portion, and a second horizontal track portion coupled to the second curved track portion. The first curved track portion and the second curved track portion are split off from the vertical track and the first curved track portion and the second curved track portion each comprises multiple radii of curvature.

A track of a vertically stacking door includes a vertical track, a first curved track portion, a second curved track portion, a first horizontal track portion coupled to the first curved track portion, and a second horizontal track portion coupled to the second curved track portion. The first curved track portion and the second curved track portion are split off from the vertical track and the first curved track portion and the second curved track portion each comprises multiple radii of curvature.

A hardware for a slidable facade component includes at least two guide pins for a first side and at least two guide pins for a second side of the component. An actuating rod arrangement for transmitting an actuating force includes a first actuating rod and a second actuating rod for the first side and the second side, respectively, of the component. An actuating device is coupled to the drive rod assembly for transmitting the actuating force to the first and second drive rods with an actuation. The guide pins are eccentric bearing pins with an eccentrically arranged axis of rotation for rotatable attachment to the component and are provided for engagement with a guide groove arrangement arranged in the frame area. The eccentric bearing pins are each coupled to one of the drive rods via a coupling element and are rotatable via a longitudinal movement of the drive rods.