Abstract:
A gap controlling structure for image forming apparatus for maintaining a development gap between a photoconductor of an image-receiving module and a developer roller of a developer unit includes a image-receiving module frame, and at least a photoconductor support bar. The photoconductor support bars are combined on the image-receiving module unit frame. Each of the photoconductor support bars has a raised curved surface. The developer unit has at least a toner cartridge disposed corresponding to the curved surfaces. The distance between the toner cartridges is maintained by the photoconductor support bars supporting the photoconductor. The developer unit further includes a roller gap controlling apparatus to improve a gap accuracy of positioning the developer roller.
Abstract:
An exemplary touch panel display includes a display panel, light source modules, and a camera. The display panel includes a touch surface. The light source modules are disposed on a periphery of the display panel. Light from the light source modules cooperatively forms a substantially planar illumination field. The camera is provided at a periphery of the display panel. When an object contacts or is adjacent to the touch surface, some of the light of the illumination field is reflected by the object to the camera.
Abstract:
An apparatus and method for shifting the image-forming region of a printing device is disclosed. The apparatus includes a photoconductor, an encoder, several rollers, and a controlled device. The present invention is used to shift the image-forming region in the photoconductor by the controlled device. The damage of the image-forming region in the photoconductor can be reduced. The lifetime of the photoconductor can be extended. In addition, the controlled device uses firmware to shift the image-forming region. The shifting method can be a sequential mode or random mode.
Abstract:
A liquid crystal display includes a main body, a screen positioned on the main body, a backlight module positioned in the main body and supplying light for the screen, a controller for controlling the brightness of the backlight module and an ambient light sensor positioned on the main body. The ambient light sensor includes a barrel, an optical sheet positioned at an end of the barrel and a photosensitive unit positioned at the other end of the barrel. The photosensitive unit creates a signal according to the ambient light received via the optical sheet, and sends the signal to the controller. The controller adjusts the brightness of the backlight module. The optical sheet includes a first surface, a second surface opposite the first surface and a plurality of V-shaped micro structures formed on the first surface.
Abstract:
An exemplary motion sensing controller includes an infrared light detection module, a spherical light output member, and a processing unit. The infrared light detection module is configured for detecting infrared light and includes a lens module. The spherical light output member is configured for outputting infrared light. The infrared light detection module has a sensing surface configured for capturing images of the spherical light output member. The processing unit is electrically connected with the infrared light detection module. The processing unit is configured for receiving signals of the images of the spherical light output member, computing dimensions and positions of the images of the spherical light output member on the sensing surface, and computing positions of the spherical light output member with respect to the lens module based on the dimensions and the positions of the images of the spherical light output member on the sensing surface.
Abstract:
A lithium battery includes a casing having at least one reacting trough in which at least one electrode device is installed and the at least one electrode device includes a first electrode having a lithium compound that contains ionizable lithium ions and a first electric conductor. A second electrode includes at least including a layer material containing carbon or metal alloys, and a second electric conductor. A third electrode is disposed between the first electrode and the second electrode. The third electrode has an electrically conductive carrier for electroplating lithium ions and the carrier has a penetrating hole for passing lithium ions through the penetrating hole. At least one isolating membrane separates the first, second and third electrodes. The isolating membrane including a small hole for passing ions through the small holes. A control device controls the switch of a charging or a discharging status of the first, second and third electrodes.
Abstract:
An exemplary motion sensing controller includes an infrared light detection module, a spherical light output member, and a processing unit. The infrared light detection module is configured for detecting infrared light and includes a lens module. The spherical light output member is configured for outputting infrared light. The infrared light detection module has a sensing surface configured for capturing images of the spherical light output member. The processing unit is electrically connected with the infrared light detection module. The processing unit is configured for receiving signals of the images of the spherical light output member, computing dimensions and positions of the images of the spherical light output member on the sensing surface, and computing positions of the spherical light output member with respect to the lens module based on the dimensions and the positions of the images of the spherical light output member on the sensing surface.
Abstract:
A portable electronic device includes a housing defining a through hole, a barrel positioned in the housing, a lens fixed at an end of the barrel and a light detection unit fixed at the other end of the barrel away from the lens. The lens includes an imaging portion facing the light detection unit and an incidence portion facing the through hole. The incidence portion forms a reflecting surface angled relative to an optical axis of the imaging portion, such that light entering from the through hole through the incidence portion is then reflected by the reflecting surface and refracted by the imaging portion, and is then received by the light detection unit.
Abstract:
An exemplary handheld controller includes a shell, a gas pressure detecting member and a processing unit. The gas pressure detecting member is received in the shell and exposed to the ambient environment. The gas pressure detecting member is configured for detecting a pressure exerted by ambient air at the outside of the shell, and generating a signal relating to the pressure. The processing unit is electrically connected with the pressure detecting member. The processing unit is configured for receiving the signal, identifying a movement of the shell according to the signal, and generating an instruction based on the identified movement.
Abstract:
An image capturing device includes a lens module defining an optical axis, a holder defining an opening and a space communicating with the opening, an image processing unit received in the space, and an image sensor received in the space and fixed on the image processing unit. The holder is configured for receiving the lens module. The image processing unit is electrically connected to the image processing unit and inclined relative to the optical axis. The image sensor is configured for capturing images of objects. The optical axis passes through the center of the sensing surface of image sensor.