Abstract:
An image forming apparatus is configured to reduce a velocity fluctuation of a rotating body by reducing the AC velocity component of the rotating body. The image forming apparatus may include an image bearing body with a surface on which a toner image is formed; a driving motor configured to drive the image bearing body according to an input signal; and a controller configured to control the driving motor to output a motor output velocity at a period equal to that of an AC velocity component of the image bearing body. A velocity control method for the rotating body includes sampling a continuous motor input signal at a period equal to that of an AC velocity component of a rotating velocity of the rotating body. The sampled signal is transmitted to a driving motor that drives the rotating body, which is driven based upon the discrete motor input signal.
Abstract:
An image forming apparatus is configured to reduce a velocity fluctuation of a rotating body by reducing the AC velocity component of the rotating body. The image forming apparatus may include an image bearing body with a surface on which a toner image is formed; a driving motor configured to drive the image bearing body according to an input signal; and a controller configured to control the driving motor to output a motor output velocity at a period equal to that of an AC velocity component of the image bearing body. A velocity control method for the rotating body includes sampling a continuous motor input signal at a period equal to that of an AC velocity component of a rotating velocity of the rotating body. The sampled signal is transmitted to a driving motor that drives the rotating body, which is driven based upon the discrete motor input signal.
Abstract:
An image forming apparatus is configured to reduce a velocity fluctuation of a rotating body by reducing the AC velocity component of the rotating body. The image forming apparatus may include an image bearing body with a surface on which a toner image is formed; a driving motor configured to drive the image bearing body according to an input signal; and a controller configured to control the driving motor to output a motor output velocity at a period equal to that of an AC velocity component of the image bearing body. A velocity control method for the rotating body includes sampling a continuous motor input signal at a period equal to that of an AC velocity component of a rotating velocity of the rotating body. The sampled signal is transmitted to a driving motor that drives the rotating body, which is driven based upon the discrete motor input signal.
Abstract:
An image forming apparatus is configured to reduce a velocity fluctuation of a rotating body by reducing the AC velocity component of the rotating body. The image forming apparatus may include an image bearing body with a surface on which a toner image is formed; a driving motor configured to drive the image bearing body according to an input signal; and a controller configured to control the driving motor to output a motor output velocity at a period equal to that of an AC velocity component of the image bearing body. A velocity control method for the rotating body includes sampling a continuous motor input signal at a period equal to that of an AC velocity component of a rotating velocity of the rotating body. The sampled signal is transmitted to a driving motor that drives the rotating body, which is driven based upon the discrete motor input signal.
Abstract:
Disclosed is an oxidation catalyst device comprising a duct, a fan, a liquefier member, heaters, and an oxidation catalyst filter. Here, the liquefier member liquefies part of the carrier vapor produced by a fixing device, so that a catalyst of the oxidation catalyst filter shares part of the oxidation of the carrier vapor. The control method of the oxidation catalyst device comprises the steps of intaking the carrier vapor produced inside of a fixing device; cooling and liquefying the carrier vapor taken in; performing a first oxidation on the remaining unliquefied carrier vapor; and performing a second oxidation on the liquefied carrier among the carrier vapor.
Abstract:
Disclosed herein is a wireless device including at least one locker structure. The locker structure includes a battery pack side coupling member (a first coupling member) protruding from the outer surface of a battery pack, the first coupling member having a hook formed at one side thereof and a structure tapered downward toward the battery pack (an incline structure) at the other side thereof, and a wireless device body side coupling member (a second coupling member) mounted in a body of the wireless device at the position corresponding to the first coupling member, the second coupling member including a coupling part which can be coupled with the hook, a member body having a rear protrusion formed at the position corresponding to the incline, and an elastic member mounted at the rear of the member body. When the member body is pushed toward the elastic member so as to separate the battery pack from the wireless device, the coupling part is uncoupled from the hook, and the rear protrusion pushes the incline of the first coupling member. As a result, the battery pack is automatically separated from the wireless device.
Abstract:
An agitator according to the present invention comprises a container for storing a compound of at least two materials, and an agitation unit mounted in the container to agitate the compound. The agitation unit may comprise a plurality of agitators of which at least one agitator can independently rotate.
Abstract:
An agitator according to the present invention comprises a container for storing a compound of at least two materials, and an agitation unit mounted in the container to agitate the compound. The agitation unit may comprise a plurality of agitators of which at least one agitator can independently rotate.
Abstract:
A mounting structure of an automobile stabilizer bar includes a support bracket fixed at one end thereof to a lateral surface of a crossmember. The other end of the support bracket protrudes out toward the side of a vehicle body. At least one bushing is coupled to a stabilizer bar and affixed onto the support bracket. A bushing bracket is formed in an arch shape for enclosing the periphery of the bushing. A stud bolt is attached at one end to each outer surface of the bushing bracket. The other end of the stud bolt penetrates each lateral surface of the support bracket. A pipe member into which the stud bolt penetrates is coupled to each lateral surface of the support bracket. A coupling nut is coupled to one end of the stud bolt after the stud bolt passes through the pipe member.
Abstract:
A mounting structure of an automobile stabilizer bar includes a support bracket fixed at one end thereof to a lateral surface of a crossmember. The other end of the support bracket protrudes out toward the side of a vehicle body. At least one bushing is coupled to a stabilizer bar and affixed onto the support bracket. A bushing bracket is formed in an arch shape for enclosing the periphery of the bushing. A stud bolt is attached at one end to each outer surface of the bushing bracket. The other end of the stud bolt penetrates each lateral surface of the support bracket. A pipe member into which the stud bolt penetrates is coupled to each lateral surface of the support bracket. A coupling nut is coupled to one end of the stud bolt after the stud bolt passes through the pipe member.