Abstract: A portable electronic device includes: a main module disposed in a main housing; a keyboard mounted on a mounting surface of the main housing and connected electrically to the main module; and a touch input unit mounted to the main housing and connected electrically to the main module. The touch input unit has first, second and third operating areas spaced apart from each other and exposed from the mounting surface of the main housing. The touch input unit generates an input signal corresponding to one touch point on any one of the first, second and third operating areas, and outputs the input signal to the main module such that the main module performs an operation corresponding to the input signal.

Abstract: The present invention provides a transparent touch pad and a method for manufacturing the same. The transparent touch pad includes a first transparent substrate, a second transparent substrate and an adhesion layer. The adhesion sides of the first transparent substrate and the second transparent substrate are respectively provided with a plurality of first sensing conductors and second sensing conductors and are adhered by the adhesion layer to form a transparent touch pad having two-dimensional arrangement of sensing conductors. Since the first transparent substrate has a low electrical resistance and the second transparent substrate is easy to process, the area of a visible region of the touch pad is increased and a lithographic process is no longer required. In this way, the structure of the touch pad is simplified and the production cost is reduced.

Abstract: A method for identifying a single tap with a controller employing the method comprises following steps: (a) detecting the first hit-movement being conducted by the object touching the touch device; (b) starting a time-counting if a detected result of step (a) is “YES”; (c) detecting if the object leaves the touch device within the first reference time interval; (d) generating an operation signal to represent a start of the hit-movement at the time of the first reference time interval ending if a detected result of step (c) is “YES”; (e) detecting if the second hit-movement is conducted by the object touching the touch device within a second reference time interval after the first reference time interval; (f) maintaining the operation signal to represent the second hit-movement being conducted if a detected result of step (e) is “YES”; and (g) terminating said operation signal at the time of the second reference time interval ending to represent a cease of the second hit-movement if a detected result of said s

Abstract: The present invention provides a capacitive touch sensor and a method for manufacturing the same. The capacitive touch sensor includes at least one transparent insulation substrate and at least one transparent capacitive touch conductor. The capacitive touch conductor is coated on the insulation substrate and formed with a boundary. The capacitive touch conductors are electrically connected to each other to form at least one first and second electrical-conductive set. At least one recess region is defined in the boundary. The recess region increases the light transmittance of the insulation substrate, reduces the necessary brightness of a light source for the capacitive touch pad, and saves the material cost.

Abstract: An input module includes a substrate, at least two bio-keys and a control unit. The substrate has at least two bio-leads and switches. Each of the bio-keys has a key surface, at least one conductive elastic piece and a protrusion. The conductive elastic piece is electrically connected and conducted to the key surface and the bio-leads. The control unit has an input-signal generating element and a biological-signal generating element. The input-signal generating element is configured to generate a first input signal and a second input signal by using the protrusion to toggle the switch. The biological-signal generating element is configured to generate a bioelectric signal through the electrical conduction between the bio-key and the bio-lead. The present invention further provides an electronic device, in which the bioelectric signal is analyzed by an operational unit to generate a biological function index.

Abstract: A method for controlling an electronic device includes the steps of: upon detecting a single-object touch on a touch pad when the electronic device operates in a cursor mode, where movement of a cursor in a visual display displayed on the display screen is enabled and controlled in response to and in correspondence with a single-object sliding touch motion on the touch pad, configuring the electronic device to determine whether a time interval that the single-object touch remains substantially stationary on the touch pad reaches a predefined threshold value; and when it is determined that the time interval reaches the predefined threshold value, configuring the electronic device to exit the cursor mode and enter a scrolling mode, where scrolling of the visual display is enabled and controlled in response to and in correspondence with a single-object sliding touch motion on the touch pad.

Abstract: An input device includes a contact sensing surface having at least one key region and a controller. The controller includes: a position-detecting unit configured to detect the position on the contact sensing surface contacted by an object, a memory unit configured to store at least one functional data each corresponding to a key function, a key-triggering unit configured to read out the functional data in the memory unit and activate the corresponding key function without a sliding into the key region, a key function setting unit configured to change the functional data based on the direction and distance of the object sliding within the key region. With this arrangement, the key function setting unit can reduce the number of the keys regions virtually provided on the contact sensing surface, thereby providing an intuitive operation of key functions for a user.

Abstract: A capacitive touch panel includes: a substrate having upper and lower surfaces and vias; a first patterned layer formed on the upper surface of the substrate and including first electrode units, each of the first electrode units being connected to a respective one of the vias and including interconnected first electrode pads that are aligned in a first direction; a first insulating layer disposed above and covering the first patterned layer; and a second patterned layer disposed above and formed on the first insulating layer and including second electrode units. Each of the second electrode units is connected to a respective one of the vias and includes interconnected second electrode pads that are aligned in a second direction transverse to the first direction.

Abstract: A touch-control module for recognizing gesture inputs by a position sensitive device to an electronic device is disclosed. The touch-control module includes an input connected to the position sensitive device for receiving at least one sensing signal generated by the position sensitive device when one or more objects touch a surface thereof; a touch state unit for detecting the sensing signal and determining a touch state of the object(s), such as approaching to or lifting off the position sensitive device; a position and multi-gesture processing unit for analyzing the sensing signal to determine a touch position of the object(s) on the position sensitive device, and tracking the touch state and touch position to determine a corresponding motion factor; and an output connected to the electronic device for outputting the touch state and touch position as well as information corresponding to a motion factor whenever the motion factor is determined.

Abstract: An integrated input system includes a touch sensing unit, a signal processing unit, a user instruction recognizing unit and an integration bus. The touch sensing unit has at least an electrical circuit and a transmission conducting line for outputting a sensing signal after being touched with one or multiple objects. The signal processing unit processes the sensing signal and outputting a press point message. The user instruction recognizing unit analyzes a user instruction, which includes a keyboard message input, a triggering action of a functional key or hot key, a directional input of a touchpad or mouse and a drawing information input of a handwriting board, corresponding to the press point message. The integration bus receives information of an external display unit and transmits the user instruction.

Abstract: A method for identifying a single tap with a controller employing the method comprises following steps: (a) detecting the first hit-movement being conducted by the object touching the touch device; (b) starting a time-counting if a detected result of step (a) is “YES”; (c) detecting if the object leaves the touch device within the first reference time interval; (d) generating an operation signal to represent a start of the hit-movement at the time of the first reference time interval ending if a detected result of step (c) is “YES”; (e) detecting if the second hit-movement is conducted by the object touching the touch device within a second reference time interval after the first reference time interval; (f) maintaining the operation signal to represent the second hit-movement being conducted if a detected result of step (e) is “YES”; and (g) terminating said operation signal at the time of the second reference time interval ending to represent a cease of the second hit-movement if a detected result of said s

Abstract: A method capable of controlling brushless DC motor detects the magnetic pole positions of the rotor with a Hall component to produce a Hall signal correspondingly, generates a PWM signal based on an external control signal with a PWM generator, controls a switch circuit based on the PWM signal and the Hall signal with a driver such that switched output is capable of being sent to the current phase of the stator coils for rotating the rotor. Further, while the Hall signal is detected to be level-switched, the external control signal level increases or decreases corresponding to change of the level of the Hall signal with respect to the duty cycle of the PWM signal being controlled to increase to the preset duty cycle from 0 or to decrease to 0 from the preset duty cycle for eliminating both sharp wave in the current during switching and noise.

Abstract: A protect-control device capable of limiting current for reducing noise resulting from switchover of a motor includes a motor coil set, a driving unit, a sensing unit and a control unit. The motor coil set constitutes a motor. The driving unit is electrically connected to the motor coil and provides a driving level to pass through the motor coil for driving the motor. The sensing unit is electrically connected to the motor coil set, provides a preset reference level, detects the driving level, compares the driving level to the preset reference level and outputs identifying signal. The control signal is electrically connected to the driving unit, the sensing unit and a Hall component, adjusts the driving level based on the identifying signal for driving unit output maintaining a basic duty cycle.

Abstract: A method of scrolling a window screen for controlling electronic device provides a first press zone and a second press zone in a touch device of the electronic device. When the first press zone is pressed, the window screen can be controlled to scroll along a first direction and when the second press zone is pressed, the window screen can controlled to scroll along a second direction, which has a direction different from the first direction. Hence, the scrolling of the window screen is capable of being controlled easily by way of clicking the press zones.

Abstract: A touch pad module includes a touch pad unit for generating contact signals in response to operation thereof, a control circuit unit separate from the touch pad unit, and an electrical coupling unit having a first end coupled to the touch pad unit and a second end coupled to the control circuit unit. The electrical coupling unit permits transmission of the contact signals generated by the touch pad unit to the control circuit unit.

Abstract: A method of making a microstructure includes the steps of providing a circuit board that includes a dielectric layer and a conductor layer formed on the dielectric layer, forming a metal structure on the circuit board such that the metal structure extends through the dielectric layer, and removing at least a portion of the dielectric layer adjacent to the conductor layer and the metal structure to result in the microstructure.

Abstract: A method of identifying double tap gesture, wherein the double tap gesture is produced on a touch device and characterize in that: when the summation of the first appearing time duration, the time span between the two appearing time durations and the second appearing time duration is smaller than the first reference time, then generate a first signal that represents the first and second appearances. This is to simulate the double tap signal output from the double clicking of the mouse button and so as to achieve a short, simple and reliable determination.

Abstract: A method of identifying a drag gesture, with which the drag gesture is performed on a touch device and the method is characterized in that a drag signal can be generated when a sum of time duration of the first appearance and time span between an end of the first appearance time duration and a start of the second appearance is less than a first reference time, a sum of the first appearance time duration, the time span and a second appearance time duration is not less than the reference time value and an accumulated displacement of the second appearance time duration is not less than a reference displacement.

Abstract: A method for identifying a movement of single tap includes having detected the movement of the object contacting the touch device initiating to start time counting, having detected the movement of the object contacting the touch device terminating and a first time span being obtained and generating a control signal indicating the movement of single tap in case of the first time span being less than a second time span, the first time span being greater than a preset time span and only one contacting time being greater than the preset time with the second time span.

Abstract: A heat dissipating microdevice is made from comprising the steps of: a board including an insulator layer having a first and facing second surfaces and a conductor layer on the first surface by forming in the layer a hole that extends between the surfaces to form a fluid microsystem including: first and second micro-channel structures disposed respectively in first and second areas of the board and bounded by the layer, and first and second micro-conduit structures that permit fluid communication between the micro-channel structures. The first micro-conduit structure has a first end in fluid communication with the second micro-channel structure and a second end section in fluid communication with the first micro-channel structure. The second micro-conduit structure has a first end section in fluid communication with the first micro-channel structure and a second end section in fluid communication with the second micro-channel structure. A cover is put on the second surface.