Abstract: An arbitrating circuit includes a first NOR gate, a second NOR gate, four resistors and a pull-up circuit. The first transistor is connected with the first node and the second node, and generates a first acknowledging signal. The second transistor is connected with a supply voltage, the second node and the first transistor. The third transistor is connected with the first node and second node, and generates a second acknowledging signal. The fourth transistor is connected with the supply voltage, the first node and the third transistor. The pull-up circuit is connected with the first node, the second node, the first NOR gate and the second NOR gate. If both of the first request signal and the second request signal have a low logic level, a voltage at the second node is pulled up to a high logic level by the pull-up circuit.

Abstract: Systems and methods associated with an HVAC system and a multi-functional ECM motor for use in the HVAC system are disclosed. The motor controller of the ECM motor includes a microprocessor, a tap detection circuit and a power source portion. The tap detection circuit is coupled to several tap input lines. The motor also includes first and second AC input wires, a common wire, a ground wire, a first jumper wire and a second jumper wire. Each tap input line is coupled to the first input terminal of one current sensing unit. The first jumper wire is coupled to the second AC input wire, and the second jumper wire is coupled to the common wire. By coupling different wires of the ECM motor differently when replacing a PSC motor than when replacing ECM motors, the ECM motor is configured to replace PSC motors and ECM motors in HVAC systems.

Abstract: Systems and methods associated with an HVAC system and a multi-functional ECM motor for use in the HVAC system are disclosed. The motor controller of the ECM motor includes a microprocessor, a tap detection circuit and a power source portion. The tap detection circuit is coupled to several tap input lines. The motor also includes first and second AC input wires, a common wire, a ground wire, a first jumper wire and a second jumper wire. Each tap input line is coupled to the first input terminal of one current sensing unit. The first jumper wire is coupled to the second AC input wire, and the second jumper wire is coupled to the common wire. By coupling different wires of the ECM motor differently when replacing a PSC motor than when replacing ECM motors, the ECM motor is configured to replace PSC motors and ECM motors in HVAC systems.

Abstract: A static memory apparatus and a static memory cell thereof are provided. The static memory cell includes a data latch circuit, a data write-in circuit and a data read-out circuit. The data latch circuit has a first tristate output inverting circuit and a second tristate output inverting circuit. The data write-in circuit provides a first reference voltage to a power receiving terminal of a selected tristate output inverting circuit which is one of the first and second tristate output inverting circuits, and provides a second reference voltage to an input terminal of the selected tristate output inverting circuit during a data write-in time period. The data read-out circuit generates read-out data according to a voltage at an output terminal of the second tristate output inverting circuit and the second reference voltage during a data read-out time period.

Abstract: A static memory apparatus and a data reading method thereof are provided. The static memory apparatus includes a plurality of memory cells, a plurality of dummy memory cells, a sense amplifier, and a discharge current adjuster. The dummy memory cells respectively include a plurality discharge ends for discharging charges on a dummy bit line. The sense amplifier is enabled for a sensing and amplifying operation according to a signal on the dummy bit line, and the sense amplifier generates readout data accordingly. The discharge current adjuster adjusts at least one discharge current on at least one controlled discharge end according to an operating voltage of the memory cells.

Abstract: A static memory apparatus and a data reading method thereof are provided. The static memory apparatus includes a plurality of memory cells, a plurality of dummy memory cells, a sense amplifier, and a discharge current adjuster. The dummy memory cells respectively include a plurality discharge ends for discharging charges on a dummy bit line. The sense amplifier is enabled for a sensing and amplifying operation according to a signal on the dummy bit line, and the sense amplifier generates readout data accordingly. The discharge current adjuster adjusts at least one discharge current on at least one controlled discharge end according to an operating voltage of the memory cells.

Abstract: A memory includes a logic controller, a word line driver, a boost circuit, plural capacitor circuits, plural memory cores, plural selectors, and plural output drivers. The logic controller generates a word line enabling signal and a boost enabling signal. The word line driver receives the word line enabling signal. The boost circuit receives the boost enabling signal. The plural capacitor circuits are connected between the boost circuit and the word line driver. Each of the plural memory cores is connected with the word line driver through plural word lines. The plural selectors are connected with the corresponding memory cores. The plural output drivers are connected with the corresponding selectors. The number of the plural memory cores is positively correlated with the number of the plural capacitor circuits.

Abstract: A memory includes a logic controller, a word line driver, a boost circuit, plural capacitor circuits, plural memory cores, plural selectors, and plural output drivers. The logic controller generates a word line enabling signal and a boost enabling signal. The word line driver receives the word line enabling signal. The boost circuit receives the boost enabling signal. The plural capacitor circuits are connected between the boost circuit and the word line driver. Each of the plural memory cores is connected with the word line driver through plural word lines. The plural selectors are connected with the corresponding memory cores. The plural output drivers are connected with the corresponding selectors. The number of the plural memory cores is positively correlated with the number of the plural capacitor circuits.

Abstract: A LED lamp includes a number of lenses each of which includes a light emitting surface and a plurality of shades mounted on the light emitting surface. Each of the shades includes a hole whose sectional area in radial direction is equal to that of the light emitting surface. An axial height of the hole follows the formula H ? = ? ? max tan ? ? ? max , wherein H? is the axial height of the hole, ?max is a diameter value of the light emitting surface, and ?max is an output angle of the lens. Accordingly, a work area of the anti-glare LED lamp can be extend the most thereof since the shades block the stray light of a glare area of the LED lamp and strictly separates the work area from the glare area, and no stray light shot into eye in any areas. Therefore, the anti-glare LED lamp can achieve light distribution as designed without glare under cooperation of the lenses and the shades.

Abstract: A clamping apparatus for receiving a plurality of objects comprises a base, a limiting mechanism with a pair of limiting plates, and at least one clamping mechanisms secured to one of the limiting plates. The limiting mechanisms are secured to the base and cooperate with the base to form a receiving channel for receiving the objects. Each of the limiting plates comprises a first end. The at least one clamping mechanism is rotatably secured to the first end and clamps the object adjacent to the first end, for allowing the clamped object to be pulled out of the receiving channel. When the clamped object is separated from the at least one clamping mechanism, the at least one clamping mechanism clamps the rest of the objects at the first end.

Abstract: An attaching mechanism is used for attaching an adhesive member to an object. The adhesive member includes an adhesive side. The object includes a first side and a second side opposite to the first side. The attaching mechanism includes a positioning part, a pressing part, and a loading member. The positioning part holds the object. The pressing part moves in a first direction toward the positioning part to press on the first side of the object. The loading member loads the adhesive member, and the adhesive side is away from the loading member. The loading member moves in a second direction opposite to the first direction to press the adhesive member on the second side, so as to make the adhesive side adhere to the second side.

Abstract: A peeling apparatus for peeling labels in rows from a tape-shaped release paper comprises a main body, a peeling mechanism, a driving mechanism and a sensing mechanism. The peeling mechanism locates the release paper and peels the labels in a row from the release paper when being rotating. The sensing mechanism located upon the peeling mechanism and parallel with the peeling mechanism. The labels in a row are orderly arranged from a first position to a second position on the release paper. The sensing mechanism comprises at least two detectors which are perpendicular to the peeling mechanism. When the peeled labels facing the sensing mechanism, either of the at least two detectors detects the peeled labels at the first position or the second position to generate a pause signal. The driving mechanism stops driving the peeling mechanism rotating in response to the pause signal.

Abstract: A peeling apparatus for peeling labels from a tape-shaped release paper comprises a main body, a peeling mechanism and a driving mechanism. The release paper comprises a free end without labels. The label comprises an information surface and an adhesive surface opposite to the information surface. The peeling mechanism comprises a first roller, a second roller above the first roller, and a peeling member. The main body comprises a first cantilever. The first roller sleeved on the first cantilever fixes the release paper. The second roller fixes the free end. When being rotating by the driving mechanism, the release paper moves along a first direction and turns to move along a second direction after passing the peeling mechanism. The first direction forms an angle with the second direction. Each of the labels is partly peeled from the release paper by the peeling member and the adhesive surface is upward.

Abstract: A film affixing apparatus for affixing a film to a workpiece includes a stand, a film provider, and an affixing device. The stand includes a work platform. The workpiece slides along the work platform under an external force. The film provider is mounted to the stand and dispenses rolls of film. The affixing device is mounted to the stand. The affixing device includes a pressing portion that faces the work platform. The film is unwound and passes over the pressing portion onto the workpiece on the work platform. The pressing portion presses the film onto the workpiece.

Abstract: An auto-cutting apparatus cuts off burrs from a workpiece. The auto-cutting apparatus includes a work platform, a cutting device, and a control box. The work platform has a work station. The workpiece is placed on the work station. The cutting device is mounted to the work platform, the cutting device comprises a blade. The control box controls the blade to move to the workpiece on the work station to cut off the burrs of the workpiece. The control box controls the cutting device to move the blade away from the workpiece when the redundant part has been cut off.

Abstract: A machine for cutting off a redundant part of a workpiece and affixing film to a top surface of the workpiece includes a stand, a cutting device, and an affixing device. The stand has a work platform. The workpieces slide on the work platform. The cutting device includes a first blade. The film provider dispenses the film. The affixing device has a pressing portion facing the work platform. The workpiece slides to the cutting device and the affixing device. The film is unwound and passes over the pressing portion. The cutting device cuts off the redundant parts of the workpiece when the workpiece slides under the cutting device, and the pressing portion presses the film onto the top surface of the workpiece when the workpiece slides under the affixing device.

Abstract: A film affixing apparatus is used for affixing a film to a workpiece. The film affixing apparatus includes a stand, a film provider, and an affixing and cutting device. The stand includes a work platform. The workpiece is capable of sliding around the work platform under an external force. The film provider is mounted to the stand, and a roll of film is mounted to the film provider to dispense the film. The affixing and cutting device includes a pressing part. The pressing part presses the film onto the workpiece, and the film is cut, allowing the workpiece to slide away from the affixing and cutting device and be removed manually.

Abstract: An electronic apparatus for replacing materials for a device is mounted on a base. The electronic apparatus comprises an installing mechanism and a controlling mechanism for controlling the operations of the installing mechanism. The controlling mechanism can position materials on the device and can remove the materials from the device.

Abstract: A stacking apparatus for stacking packages includes a frame, a stacking station, a first driving mechanism, and a control box. The stacking station is movably mounted to the frame, and has a first top side on which packages are arranged one at a time. The first top side is positioned on a plane. The control box controls the first driving mechanism to lower the stacking station a predetermined distance as each package stacked to make room for other packages, to enable one side of the stacked package away from the first top side to position in the plane.

Abstract: An LED lamp includes a lens which forms a light emitting surface and a shade mounted on the light emitting surface. Each of the shades includes a hole whose sectional area in radial direction is equal to that of the light emitting surface, an axial height of the hole following the formula of H ? = ? ? max tan ? ? ? max , wherein H? is the axial height of the hole, ?max is a diameter value of the light emitting surface, and ?max is an output angle of the lens. Accordingly, a work area of the LED lamp can be extended since the shade shields the stray light of a glare area of the LED lamp and strictly separates the work area from the glare area, and no stray light escapes. Therefore, the LED lamp can achieve light distribution as designed without glare under cooperation of the lens and the shade.