Abstract:
An electronic device includes a first body, a second body and at least one driving mechanism. The second body includes a casing and a flexible screen installed on the casing. The driving mechanism includes a shaft, a driving element and a linking assembly. The shaft has first and second connecting portions opposite to each other, the first connecting portion is fixed to the first body, and the second body is pivoted to the second connecting portion. The driving element is sleeved on the shaft and is located in the casing. The linking assembly is carried by the casing and covered by the flexible screen. When the second body is folded onto the first body, the flexible screen keeps flat. When the second body is unfolded with respect to the first body, the driving element is rotated and moved with respect to the shaft to drive the linking assembly to move, and the linking assembly drives the flexible screen to bend.
Abstract:
An electronic device and a hinge assembly thereof are provided. The hinge assembly has a first fixing block, a second fixing block, a first linking rod and a second linking rod. The first fixing block has a first end and a second end. The second fixing block has a third end and a fourth end. The first linking rod has a fifth end slidably and rotatably connected to the second end and a sixth end rotatably connected to the fourth end. The second linking rod has a seventh end slidably and rotatably connected to the fourth end and an eighth end rotatably connected to the second end. The sixth end has a groove portion and a first inclined surface, and the eighth end has a second inclined surface contacting the first inclined surface.
Abstract:
A substrate processing apparatus for processing a wafer including a temporary substrate and a semiconductor device. The substrate processing apparatus includes a first half portion, a second half portion and a liquid supply unit. The first half portion includes a working platform. The second half portion includes an upper cover having a first surface and a plurality of second holes. The liquid supply unit provides a liquid. The wafer is placed on the working platform, and a second surface of the semiconductor device and the first surface are spaced by a distance sufficient for allowing the liquid to come into contact with the first surface when the liquid flows at the second surface to generate a suction force on the second surface. As such, a peel force is formed between the temporary substrate and the semiconductor device to cause the two to separate from each other.
Abstract:
A lighting device for a hand tool contains: a base, an illumination unit, and a clamping mechanism. The illumination unit is disposed in the base which includes a lighting orifice and four projections, each two of which are arranged on each of two sides of a bottom end of the base, and between each two projections is defined a V-shaped groove. The clamping mechanism includes a retainer, a connection shaft, and a resilient element, wherein the retainer has a fitting portion, a positioning section, and a controlling section, and wherein the positioning section is placed on the bottom end of the base and is defined among the four projections, the controlling section extends out of one side of the base, and the resilient element is fitted on the connection shaft and has a first end abutting against the base and a second end contacting with the controlling section.
Abstract:
A method for electrochemically converting a carbon dioxide gas into expected products includes using a member reactor. In the method, a membrane reactor includes a cavity, a solid electrolyte membrane separator, a cathode, an anode, and a fuel cell is provided. A cathode electrolyte and the carbon dioxide gas are passed through the cathode, and an anode electrolyte and an anode active material are passed through the anode chamber at the same time. An electrolytic voltage is applied to decompose the carbon dioxide gas into expected products. The expected products include a hydrogen gas and an oxygen gas which are fed back to the fuel cell to generate electric power.
Abstract:
A constant ON-time or constant OFF-time switching power converter includes a control circuit for controlling a power switch. The control circuit includes: a constant ON-time or constant OFF-time calculation circuit, for calculating a constant ON-time or constant OFF-time; a logic circuit having inputs for receiving an output of the constant ON-time or constant OFF-time calculation circuit and a clock signal, respectively, wherein the clock signal has a frequency which is the desired fixed frequency; and a flip-flop for generating an output signal according to a set input and a reset input, wherein one of the set input and the reset input receives an output of the logic circuit, and the other one of the set input and the reset input receives a trigger signal which determines a start time of the ON-time or OFF-time.
Abstract:
An alarm device applied to a portable electronic device is provided. The alarm device includes a detection unit and a connecting unit. The detection unit includes a first data transfer pin, and the first transfer pin is preset to a first electric potential. When the portable electronic device is connected to the detection unit via the connecting unit, the first data transfer pin is connected to a second electric potential via the connecting unit. The detection unit is set in a detection mode. In the detection mode, when electric potential of the first data transfer pin is switched from the second electric potential to the first electric potential, the detection unit issues an alarm.
Abstract:
A system may comprise an optimizer/scheduler to schedule on a set of instructions, compute a data dependence, a checking constraint and/or an anti-checking constraint for the set of scheduled instructions, and allocate alias registers for the set of scheduled instructions based on the data dependence, the checking constraint and/or the anti-checking constraint. In one embodiment, the optimizer is to release unused registers to reduce the alias registers used to protect the scheduled instructions. The optimizer is further to insert a dummy instruction after a fused instruction to break cycles in the checking and anti-checking constraints.
Abstract:
Dynamically switching cores on a heterogeneous multi-core processing system may be performed by executing program code on a first processing core. Power up of a second processing core may be signaled. A first performance metric of the first processing core executing the program code may be collected. When the first performance metric is better than a previously determined core performance metric, power down of the second processing core may be signaled and execution of the program code may be continued on the first processing core. When the first performance metric is not better than the previously determined core performance metric, execution of the program code may be switched from the first processing core to the second processing core.
Abstract:
An apparatus and method for speculative vectorization. For example, one embodiment of a processor comprises: a queue comprising a set of locations for storing addresses associated with vectorized memory access instructions; and execution logic to execute a first vectorized memory access instruction to access the queue and to compare a new address associated with the first vectorized memory access instruction with existing addresses stored within a specified range of locations within the queue to detect whether a conflict exists, the existing addresses having been previously stored responsive to one or more prior vectorized memory access instructions.