Abstract: An optical device including a holder and a light transmissive plate is provided. The holder includes a first frame and a second frame connected to each other, and the first frame is located inside the second frame. A light transmissive plate is disposed inside the first frame and has a surface. The first frame has at least one inner surface and includes at least one surface supporting part, and the surface supporting part extends along a direction from the inner surface of the first frame to the center of the first frame, and the surface of the light transmissive plate is at least partially supported by the surface supporting part of the first frame. The surface supporting part is non-continuously distributed along the inner surface of the first frame. The disclosure further provides a projector including the optical device.

Abstract: An optical device including a bearing structure and a light-transmitting plate body is provided. The bearing structure includes a first frame body and a second frame body connected to each other, and the first frame body is located in the second frame body. The first frame body has at least one first inner surface, and the at least one first inner surface has at least one limiting protruding portion protruding from the at least one first inner surface. The light-transmitting plate body is disposed in the first frame body and is fixed to the first frame body. The light-transmitting plate body has at least one first edge, and the at least one first edge of the light-transmitting plate body is positioned through the at least one limiting protruding portion.

Abstract: A projector includes a light source module and an optical engine. The light source module provides an illumination beam. The optical engine includes a light valve, a projection lens, and a pixel offset device. The light valve has an active surface, and the active surface converts the illumination beam into an image beam and reflects the image beam. The projection lens projects the image beam from the projector. The pixel offset device is located between the light valve and the projection lens and includes a frame and a transparent panel, the transparent panel is disposed in the frame and includes a transparent surface, the transparent panel is disposed on the transmission path of the illumination beam and the transmission path of the image beam, the frame is configured to drive the transparent panel to vibrate, and the transparent surface is tilted with respect to the active surface.

Abstract: A projector, an optical engine module, an image resolution enhancement device and a driving method are provided. The projector includes an illumination device, an optical engine module and a projection lens. The optical engine module is configured with the image resolution enhancement device configured to enhance a resolution of a projection light, and the image resolution enhancement device is adapted to enhance the image resolution by two times or four times.

Abstract: Disclosed is an optical device, comprising a supporting structure, at least one first driving element, at least one second driving element and a light-transmitting plate body. The supporting structure has a first side and a second side opposing each other and comprises a base and a frame mutually connected to each other, the base has at least one first supporting part, the frame has at least one second supporting part and at least one third supporting part, the first supporting part and the second supporting part are positioned on the first side, and the third supporting part is positioned on the second side. Furthermore, an optical module having the above optical device is disclosed. The optical device of the invention may be properly installed in a limited space inside a projector.

Abstract: The invention provides an optical module and a projector to which the optical module is applied. The optical module provided in the invention includes a first frame, a second frame, and a light-transmissive plate. The first frame includes at least one first axial part. The first frame is configured to oscillate with the at least one first axial part as a rotation axis. The second frame is disposed in the first frame and includes at least one second axial part. The second frame is connected to the first frame via the at least one second axial part and is configured to oscillate with respect to the first frame with the at least one second axial part as a rotation axis. The light-transmissive plate is disposed in the second frame.

Abstract: A water-cooling head includes a casing, an inclined flow-guiding structure and a bottom plate assembly. The casing includes an inlet and an outlet. A liquid is fed into the inlet. The inclined flow-guiding structure is disposed within the casing, and includes plural first openings. A bottom end of the inclined flow-guiding structure is located under the inlet. A top end of the inclined flow-guiding structure is arranged beside the outlet. The top end is located at a level higher than the bottom end. A second opening is formed in the bottom end. The bottom plate assembly is assembled with the casing, and located under the inclined flow-guiding structure. The bottom plate assembly includes a fin group. After the liquid is transferred to the fin group through the second opening or the plural first openings, the liquid is exited from the outlet.

Abstract: The present disclosure discloses a lighting device for plant growth, comprising: a lamp, a lifting mechanism, at least two sensing mechanisms and a control mechanism. A light-emitting module is disposed on the bottom surface of the lamp and two ends of the lifting mechanism are coupled to the top surface of the lamp and the control mechanism respectively. Each sensing mechanisms is disposed at the bottom of the lamp. The control mechanism comprises a timing module. When the sensing mechanisms operate that form a signal sensing path and sense a plant to generate a sensing signal, the control mechanism may drive the lifting mechanism according to the sensing signal to control the longitudinal displacement of the lamp. Through the automatic detection and position lifting function, it is possible to provide suitable light sources for plants at different growth stages.

Abstract: An optical module including a transparent component and at least one coil device is provided. The at least one coil device is connected to the transparent component and includes a main body and at least one extending wire. The at least one extending wire is extended out from the main body, the at least one coil device is adapted to be driven by a magnetic force to vibrate along at least one rotation axis, and a length of the at least one extending wire is in positive correlation with a width of the transparent component along a direction. The direction is perpendicular to the at least one rotation axis and perpendicular to an optical axis of the transparent component. In addition, a projector having the optical module is also provided.

Abstract: An imaging module includes a display element and an image displacement device. The display element includes an active display surface adapted to receive an illumination beam, convert the illumination beam into an image beam, and transmit the image beam. The image displacement device includes an optical component located on a transmission path of the image beam and adapted to allow the image beam to pass therethrough, a carrier, a base and at least one actuator, wherein the optical component is disposed on the carrier, the at least one actuator is disposed on the base, one end of the at least one actuator is connected to the carrier to drive the optical element on the carrier to swing relative to the base, and an orthographic projection area of the at least one actuator on a reference plane does not overlap with an orthographic projection area of the active display surface.

Abstract: A dynamic bit-line clamping circuit for computing-in-memory applications is configured to clamp a bit line via at least one reference signal and includes a clamping node, a first clamping unit, a second clamping unit, a first feedback controlling unit and a second feedback controlling unit. The first clamping unit is electrically connected between the bit line and the clamping node. The second clamping unit is electrically connected between the clamping node and a power source voltage and includes a switch. The second feedback controlling unit is electrically connected to the clamping node and the switch. The second feedback controlling unit generates a switching signal according to the at least one reference signal and a voltage level of the clamping node. The switch is switched by the switching signal so as to clamp the voltage level of the clamping node according to the at least one reference signal.

Abstract: An operating method of the soft-verify write assist circuit of the resistive memory provides a voltage level applying step, a write operating step and a write voltage controlling step. The voltage level applying step is for applying a plurality of voltage levels to the reference voltage, the word line and the switching signal, respectively. The write operating step is for driving the memory cell to perform in a set process or a reset process via the first three-terminal switching element, the second three-terminal switching element and the soft-verify controlling unit during a write operation. The write voltage controlling step is for controlling the write voltage to be increased in the ramping cycle and decreased in the soft-verify cycle.

Abstract: A projection device including a lens module and an actuating module is provided. The lens module includes at least one lens and is used for transferring an image beam. The actuating module is disposed beside the lens module, and is relatively close to the at least one lens. The actuating module includes a frame, a transparent element and at least one actuator. The transparent element is fixed on the frame. The actuator is disposed on at least one side edge of the frame, and is connected to the frame. In a light emission direction of the lens module, an orthographic projection of the actuator on a first reference plane does not overlap with an orthographic projection of the at least one lens on the first reference plane.

Abstract: A remote controller comprises a wireless communication interface and a processing unit. The wireless communication interface is communicatively connected with another remote controller. The processing unit is electrically connected with the wireless communication interface. The processing unit generates a first identification code and a second identification code and transmits the first identification code and the second identification code to the another remote controller through the wireless communication interface. The another remote controller transmits the first identification code and the second identification code to a controlled device to establish an indirect pairing relationship between the remote controller and the controlled device and a direct pairing relationship between the another remote controller and the controlled device. A pairing method of remote controllers is also disclosed.

Abstract: A remote controller comprises a wireless communication interface and a processing unit. The wireless communication interface is communicatively connected with another remote controller. The processing unit is electrically connected with the wireless communication interface. The processing unit generates a first identification code and a second identification code and transmits the first identification code and the second identification code to the another remote controller through the wireless communication interface. The another remote controller transmits the first identification code and the second identification code to a controlled device to establish an indirect pairing relationship between the remote controller and the controlled device and a direct pairing relationship between the another remote controller and the controlled device. A pairing method of remote controllers is also disclosed.

Abstract: A projector includes a light source module and an optical engine. The light source module provides an illumination beam. The optical engine includes a light valve, a projection lens, and a pixel offset device. The light valve has an active surface, and the active surface converts the illumination beam into an image beam and reflects the image beam. The projection lens projects the image beam from the projector. The pixel offset device is located between the light valve and the projection lens and includes a frame and a transparent panel, the transparent panel is disposed in the frame and includes a transparent surface, the transparent panel is disposed on the transmission path of the illumination beam and the transmission path of the image beam, the frame is configured to drive the transparent panel to vibrate, and the transparent surface is tilted with respect to the active surface.

Abstract: An input-pattern aware reference generation system for a memory cell array having a plurality of word lines crossing a plurality of bit lines includes an input counting circuit, a reference array, and a reference word line control circuit. The input counting circuit receives the input signal of the memory cell array, discovers input activated word lines according to the input signal and generates a number signal representing a number of the input activated word lines. The reference array includes a plurality of reference memory cells storing a predetermined set of weights. The reference word line control circuit is electrically connected between the input counting circuit and the reference array. Moreover, the reference word line control circuit controls the reference array to generate a plurality of reference signals being able to distinguish candidates of the computational result of the bit lines in the memory cell array.

Abstract: A rack cooling system includes plural cold plates, a radiator, a coolant distribution unit, a fan and a manifold device. The plural cold plates correspond to plural electronic computing devices. The fan is used for driving the airflow. The manifold device is connected between the plural cold plates, the radiator and the coolant distribution unit. The fluid medium is circulated along a fluid loop that is defined by the plural cold plates, the radiator, the coolant distribution unit and the manifold device. Consequently, the heat from the plural electronic computing devices is dissipated away. The rack cooling system of the present invention has the elastically-changed architecture. Consequently, the rack cooling system can be applied to the racks with different heat dissipation demands while achieving the power-saving efficacy.

Abstract: A rack system includes a rack cabinet and a rack door. The rack door is selectively opened or closed relative to the rack cabinet. Moreover, plural electronic computing devices are installed within the rack cabinet. The rack door includes a heat dissipation device, a fan module and a door assembly. The heat dissipation device and the fan module are installed on the door assembly. At least one of the heat dissipation device and the fan module is detachable from the door assembly.

Abstract: A rack door adapting frame includes an edge frame assembly and an intermediate frame assembly. The edge frame assembly defines a two-dimensional size corresponding to a rack cabinet. The intermediate frame assembly is disposed within a range of the two-dimensional size of the edge frame assembly. The intermediate frame assembly is provided for connecting a specified part in a fixing manner or a detachable manner.