| Patent application number | Description | Published |
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| 20090130467 | TRANSFER COMPONENT AND LASER-ASSISTED TRANSFER SYSTEM USING THE SAME - A transfer component and a laser-assisted transfer system using the same are provided. The laser-assisted transfer system comprises: a multimode laser source; a beam transformer; a scanner module; and a transfer component. The beam transformer is capable of transforming a multimode laser beam generated from the multimode laser source into a rectangular beam and then feeding the rectangular beam into the scanner module to form a large-area scanning laser beam. The transfer component comprises a conductive thin film and an insulating thin film. The conductive thin film receives a scanning laser beam from the scanner module and is ablated while the ablation of the conductive thin film is transferred onto the insulating thin film. In an exemplary embodiment, the transfer component comprising a metal thin film and an organic thin film is used for enabling the system to perform large-area pattern transfer with high efficiency. | 05-21-2009 |
| 20090135863 | PROGRAMMABLE LASER DEVICE AND METHOD FOR CONTROLLING THE SAME - A programmable laser trigger device and the method for controlling the same are disclosed. The programmable laser trigger device comprises: an external signal module and a command executing module. The external signal module is capable of interfacing the inputs and outputs of waveform command and signals. The command executing module further comprises: a waveform command memory, for storing the waveform command; a waveform command decoder; a waveform generator; and a buffer memory, acting as a waveform trigger parameter buffer between the waveform command decoder and the waveform generator; wherein the waveform command decoder accesses the waveform command stored in the memory for pre-decoding an executing code while generating a sequence of waveform trigger parameters to be stored in the buffer memory, which provides the waveform generator with the sequence of waveform trigger parameters to be transformed into a pulse-width modulation (PWM) pulse train. With the aforesaid device and method, not only unequal pulse outputs can be generated with good flexibility for matching the needs of various manufacturing processes, but also through the instructions to an external feedback signal from the waveform command, the laser pulses outputted therefrom can be modulated in real time in response to the external feedback signal. | 05-28-2009 |
| 20090139297 | CALIBRATION STRIP AND THE LASER CALIBRATION SYSTEM USING THEREOF - A calibration strip and a laser calibration system using thereof are disclosed. The calibration strip is comprised of: a substrate; and a light impermissible layer, having a calibration pattern formed thereon while being formed on the substrate. The light impermissible layer is an opaque layer, being formed on the surface of the substrate by coating, electroplating or adhering. The substrate, manufactured by the principle for enabling the color or brightness of the substrate to have high contrast comparing with those of the light impermissible layer, can be a structure of a layer of transparent material and a light source; a layer of transparent material and a backlight source; or a metal film having a reflective layer formed thereon. Since, in the laser calibration system, the calibration strip with the calibration pattern is imaged by an imaging device and then the captured image is send to a processing unit where it is analyzed, the time-consuming and inaccurate off-line manual calibration is no longer required and the laser calibration system can be adapted for various lasers regardless of their spectra. | 06-04-2009 |
| 20100112889 | METHODS FOR FORMING GAS BARRIERS ON ELCTRONIC DEVICES - A method for forming gas barriers on electronic devices is provided. The fabrication method includes: providing a first substrate having at least one electronic device thereon; providing a second substrate and forming a gas barrier over the second substrate; disposing the second substrate over the first substrate, wherein the gas barrier faces the electronic device; providing an electromagnetic wave light source over the second substrate; and irradiating the second substrate by the electromagnetic wave light source to transfer the gas barrier to the electronic device and cover the electronic device. | 05-06-2010 |
| 20110128979 | LASER SCANNING DEVICE AND METHOD USING THE SAME - A laser scanning device and a method using the same are provided. The laser scanning device includes a laser output unit, a shape rotation unit, a scanning unit and a control unit. The laser output unit is used to output a laser beam. The shape rotation unit is disposed on a propagation path of the laser beam for rotating a spot of the laser beam by a predetermined angle. The scanning unit receives the laser beam whose spot has been rotated by the predetermined angle to scan a work piece set on a carrier unit. The control unit is set between the shape rotation unit and the scanning unit for generating the predetermined angle based on a scanning position of the scanning unit. | 06-02-2011 |
| 20120097833 | LASER SCANNING DEVICE - A laser scanning device includes a laser output unit, a scanner, a light splitting unit, an imaging compensation unit, a detection unit, and a control unit. A scanning focusing unit included in the scanner focuses a laser beam emitted by the laser output unit to scan an object. A visible light beam received by the canning focusing unit is reflected by the light splitting unit and is incident into the imaging compensation unit. Next, the detection unit receives the visible light beam passing through the imaging compensation unit, and outputs a detection signal. The control unit adjusts the detection signal according to the wavelength of the visible light beam, the wavelength of the laser beam, the scanning focusing unit, and the imaging compensation unit. Therefore, the laser scanning device may compensate the aberration and the dispersion caused when the visible light beam passes through the scanning focusing unit. | 04-26-2012 |
| 20120097834 | LASER SCANNING DEVICE - A laser scanning device includes a laser output unit, a scanner, a light splitting unit, an imaging compensation unit, a detection unit, and a control unit. A scanning focusing unit included in the scanner focuses a laser beam emitted by the laser output unit to scan an object. A visible light beam received by the canning focusing unit is reflected by the light splitting unit and is incident into the imaging compensation unit. Next, the detection unit receives the visible light beam passing through the imaging compensation unit, and outputs a detection signal. The control unit adjusts the detection signal according to the wavelength of the visible light beam, the wavelength of the laser beam, the scanning focusing unit, and the imaging compensation unit. Therefore, the laser scanning device may compensate the aberration and the dispersion caused when the visible light beam passes through the scanning focusing unit. | 04-26-2012 |
| 20120125901 | APPARATUS AND SYSTEM FOR IMPROVING DEPTH OF FOCUS - The present invention provides an apparatus and a system for improving depth of focus (DOF), wherein an optical lens for optical processing is actuated to vibrate whereby the DOF of the optical processing is increased due to the variation of focal point. In the embodiment of the present invention, an actuator is coupled to the optical lens for providing vibration energy wherein the optical lens is actuated by the vibration energy so as to vibrate on an optical axis thereof so as to increase the DOF during the optical processing, thereby improving the quality and efficiency of optical processing. | 05-24-2012 |
| 20120125902 | ABSORBING METHOD AND APPARATUS FOR REAR SIDE LASER PROCESS - An absorbing method and apparatus for rear side laser process is disclosed. A conductive plate contacts or separates above a flexible substrate which is deposited a conductive film therebelow. A power source electrically connects the conductive plate and the conductive film, or only the conductive plate. After the power source provides voltages, a Coulomb electrostatic force is produced between the conductive plate and the conductive film, so as to absorb the flexible substrate and the conductive film. A light source is disposed above the conductive plate and emits a laser beam which in series passes through the conductive plate and the flexible substrate, and then focuses on rear side of the conductive film to process. Therefore, it is able to avoid the flexible substrate bent or drooping, and improve yield rate. | 05-24-2012 |
