Abstract:
A capacitive-type touch panel and a touch-point detecting method thereof are provided. The capacitive-type touch panel includes a plurality of first-dimension sensing lines and a plurality of second-dimension sensing lines arranged crossing over one another and in a matrix. When detecting a first touch point and a second touch point existed on the capacitive-type touch panel at the same time by scanning the capacitive-type touch panel, locations of the first touch point and the second touch point are determined according to detected currents in the first-dimension sensing lines and the second-dimension sensing lines. Capacitances of each of the first-dimension sensing lines are gradually decreased along a first direction, and capacitances of each of the second-dimension sensing lines are gradually decreased along a second direction.
Abstract:
An integrated injection logic device is provided in which each collector of an I2L gate is isolated by a field oxide (“FOX”), or by other suitable isolation such as, for example, an isolation trench. The connection of the base to the collectors, between the base contact region and the bottom of the collectors, is made underneath the field oxide using a buried p type layer (TN3 in the Figures illustrating the invention). Because both silicide and heavy implant p+ implant is present at the base contact point only, the recombination current is reduced. This reduces the current loss when compared to the current loss of the known device. Additionally, current gain is also improved by placing a deep base implant close to the emitter of the upside own NPN transistor in the integrated logic device. The area of the base and the area of the collectors is decoupled, i.e. one can adjust the base to collector areas and the base contact area, independently to control the total base current, thus allowing more freedom in layout optimization of the I2L gate and allowing more freedom in optimizing the gain of the I2L gate.
Abstract:
An integrated injection logic device is provided in which each collector of an I2L gate is isolated by a field oxide ("FOX"), or by other suitable isolation such as, for example, an isolation trench. The connection of the base to the collectors, between the base contact region and the bottom of the collectors, is made underneath the field oxide using a buried p type layer (TN3 in the Figures illustrating the invention). Because both silicide and heavy implant p+ implant is present at the base contact point only, the recombination current is reduced. This reduces the current loss when compared to the current loss of the known device. Additionally, current gain is also improved by placing a deep base implant close to the emitter of the upside down NPN transistor in the integrated logic device. The area of the base and the area of the collectors is decoupled, i.e. one can adjust the base to collector areas and the base contact area, independently to control the total base current, thus allowing more freedom in layout optimization of the I2L gate and allowing more freedom in optimizing the gain of the I2L gate.
Abstract:
A stroke display method of handwriting input and an electronic device are provided. In the method, a selection of a specific script style comprising multiple common strokes is received. When a touch is detected, an initial touch point is obtained. While the touch is not terminated, a latest touch point is obtained continuously, and a moving direction is determined by the initial touch point and the latest touch point. Once the touch is terminated or the moving direction is changed, whether a trajectory of the touch consists with any of the common strokes is determined. If yes, at least one patch point is determined according to the initial touch point, the latest touch point, and the consisted common stroke. A closed graph is established by using the initial touch point, the latest touch point, and the at least one patch point, and is displayed on a display module.
Abstract:
The present invention discloses a biosensor strip, which comprises: a base plate layer defining a first strip end and a second strip end; a conductive layer being disposed on the base plate layer and partitioned into at least two electrode paths; a reagent containing layer being disposed on the conductive layer and comprising a first through hole that is located at the first strip end and for accommodating a reagent solution, wherein the reagent solution comprises matrix, redox mediator, enzyme, surfactant, and a buffer solution; a channel forming layer being disposed on the reagent containing layer and comprising a gap portion that is located at the first strip end; and a cover layer being disposed on the channel forming layer and comprising a second through hole that exposes the partial area of the gap portion of the channel forming layer.
Abstract:
A pressure detector is disclosed having an organic transistor, a pressure-detecting layer and a first electrode. The organic transistor includes an emitter, an organic layer, a grid formed with holes, and a collector, the organic layer being sandwiched between the emitter and the collector. The pressure-detecting layer is formed on the organic transistor such that the collector is sandwiched between the organic layer and the pressure-detecting layer. The first electrode is formed on the pressure-detecting layer such that the pressure-detecting layer is sandwiched between the collector and the first electrode. The area of the active region of the pressure detector is determined by the overlapped area of the electrodes, thereby reducing the pitch of the electrodes and thus the size of the pressure detector.
Abstract:
A memory controller includes a clock detector and a microprocessor. The clock detector is utilized for detecting if a specific pin of the memory controller has a clock signal thereon to generate a detecting result. The microprocessor is coupled to the clock generator, and is utilized for determining which type of memory devices that the memory controller is applied to according to the detecting result.
Abstract:
A biochemical analyzer having a microprocessing apparatus with expandable voice capacity is characterized in that a driving module is installed in a data processor and a voice carrier is replaceable. Thereby, increase or decrease of voice files can be easily done by replacing the current voice carrier with an alternative voice carrier storing desired voice files, without the need of replacing the driving module together with the voice carrier, thereby saving costs and reducing processing procedures.
Abstract:
The present invention discloses a biosensor strip, which comprises: a base plate layer defining a first strip end and a second strip end; a conductive layer being disposed on the base plate layer and partitioned into at least two electrode paths; a reagent containing layer being disposed on the conductive layer and comprising a first through hole that is located at the first strip end and for accommodating a reagent solution, wherein the reagent solution comprises matrix, redox mediator, enzyme, surfactant, and a buffer solution; a channel forming layer being disposed on the reagent containing layer and comprising a gap portion that is located at the first strip end; and a cover layer being disposed on the channel forming layer and comprising a second through hole that exposes the partial area of the gap portion of the channel forming layer.
Abstract:
A method for suppressing errors is provided. The method is applied to a controller of a Flash memory, where the Flash memory includes a plurality of blocks. The method includes: according to an address of data to be written into or read from the Flash memory, determining whether to utilize an original seed as an input seed of a randomizer/derandomizer, where the randomizer/derandomizer is arranged to generate a random function according to the input seed, with the random function being utilized for adjusting a plurality of bits of the data bit by bit, and with regard to at least each block of the blocks, a value of the original seed remains unvaried; and when it is determined that the original seed should not be utilized as the input seed, generating the random function according to a new seed to adjust the data.