The present invention relates to a gear motor formed of a housing, comprising an electric motor comprising a stator assembly (3) and a rotor (1) driving a reduction gear train having a plurality of intermediate stages (100, 200, 300) each formed by a shaft (101, 201, 301) coupled to a toothed wheel (102, 202, 302) and to a toothed gear (103, 203, 303), and an output stage formed by a shaft (401) coupled to a wheel and a coupling component, the shafts (2, 101, 201, 301, 401) of the rotor, of said intermediate stages (100, 200, 300) and of said output wheel being parallel, said gear motor further comprising a printed circuit (20) transversely positioned above said stator assembly (3), characterized in that said wheel of the output stage is positioned above part of said stator assembly (3), the shafts of said intermediate stages (100, 200, 300) being located in the zone of the housing located on the opposite side, relative to a transverse vertical plane (500), of the zone comprising the shaft (2) of said rotor and the shaft (401) of said output wheel.

An actuator assembly for actuating actuatable members. The actuator assembly includes an upper cam mounted to an upper side of a center plate. The upper cam is rotatable by a motor. A lower cam is mounted to a lower side of the center plate. The lower cam is rotatable by the motor. The upper cam and the lower cam are configured to rotate at different speeds and are configured to actuate linkages for moving the actuatable members.

A door drive mechanism used for a vehicle air conditioning device includes a link mechanism connected to first and second shafts. The link mechanism includes a base member secured to an air conditioner case. The base member includes first and second shaft holes in which first and second shafts are inserted, guide grooves formed around the first and second shaft holes and configured to allow positioning portions to be inserted into the respective guide grooves, and guide portions including inclined surfaces configured to guide the positioning portions to the guide grooves. Moreover, the first and second shafts include the positioning portions protruding radially outward at positions closer to distal ends thereof than first gear portions.

A driving force transmission mechanism configuring a vehicular air conditioning device includes: a driving lever coupled to a driving source; a following lever engaged with this driving lever and following this driving lever; and a rack rod engaged with the following lever and moving linearly. A first shaft and a link gear of the following lever are engaged with this rack rod. Moreover, by the driving lever and the following lever revolving under driving action of the driving source, a second shaft engaged with the link gear rotates, and the first shaft rotates via the rack rod. As a result, a first and a second air-mix door engaged with the first and the second shaft slide to undergo an opening/closing operation, and their opening extent characteristics are configured nonlinear under engaging action of a link pin and a link groove of the following lever.

A heating, ventilation, and air conditioning (HVAC) system including a plurality of airflow control doors. A plurality of door gears are in cooperation with the plurality of airflow control doors such that rotation of each one of the plurality of door gears actuates a different one of the plurality of airflow control doors to control airflow through the HVAC system. A selector gear is moveable to individually rotate each one of the plurality of door gears to selectively actuate different ones of the plurality of airflow control doors. A power gear rotates the selector gear.

A rotary apparatus includes a motor, a plurality of gears including an output gear, and a housing accommodating the plurality of gears and the motor. The housing includes a first surface portion, a second surface portion facing the first surface portion and spaced apart from the first surface portion, and a sidewall portion provided at an outer peripheral portion of the first surface portion and the second surface portion and supporting the first surface portion and the second surface portion. One of the first surface portion and the second surface portion includes a vibration damping part opposing the output gear.

A link mechanism includes a first link member, a second link member, a third link member, and a link cover. The first link member is connected to a motor and rotated by the motor. The second link member is connected to an open/close door which opens and closes a blowout opening through which air is blown to adjust the temperature inside the passenger compartment. The third link member has a rotation shaft supported by a fixing member, and connects the first link member and the second link member with each other. The link cover is arranged to cover the periphery of the first link member. The link cover has a protrusion protruding toward the third link member.

A rotary apparatus includes a motor, a plurality of gears, and a sensor configured to detect a rotation angle of one of the plurality of gears. The sensor includes a first connection terminal electrically connecting to the outside, and a base portion. The first connection terminal is disposed at the base portion. A second connection terminal is disposed at the base portion.

A rotary apparatus includes a motor, a plurality of gears including an output gear, and a housing accommodating the plurality of gears and the motor. The housing includes a first surface portion, a second surface portion facing the first surface portion and spaced apart from the first surface portion, and a sidewall portion provided at an outer peripheral portion of the first surface portion and the second surface portion and supporting the first surface portion and the second surface portion. One of the first surface portion and the second surface portion includes a vibration damping part opposing the output gear.

An air handling system of a vehicle comprises a housing defining an inlet section. The inlet section includes a recirculation inlet in fluid communication with a passenger compartment of the vehicle and a fresh air inlet in fluid communication with an ambient environment. An air distribution door is disposed in the inlet section for controlling a distribution of air entering the inlet section through the recirculation inlet and the fresh air inlet. A baffle door is disposed in the inlet section for selectively reducing a flow area through the fresh air inlet to accommodate a ram air pressure induced by motion of the vehicle relative to fresh air of the ambient environment.