Abstract: An adhered multilayer die unit includes at least one probe zone and at least one non-probe zone for probes to be inserted in the probe zone. The adhered multilayer die unit includes dies and at least one adhesive layer. Each die includes at least one connecting surface, and through holes in the at least one probe zone for the probes to be inserted through the through holes of each die. The at least one adhesive layer adheres the connecting surfaces of the dies to each other. The at least one adhesive layer is entirely in the at least one non-probe zone. Accordingly, the adhered multilayer die unit of the invention has great structural strength in large-area condition, avoids drilling process difficulty problem and size restriction of fastening combining manner, avoids adhesive spillage and its affection on probes, and avoids adhesive-caused problems of adhesive spillage and die levelness deviation.

Abstract: A probe card includes a structure stiffener unit including a base with a lower surface where central and peripheral supporting elements protrude out and a main circuit board is fixed, a space transformer and a probe head disposed thereunder, which are disposed to the supporting elements by bolts and defined with central and peripheral regions located correspondingly to the central and peripheral supporting elements respectively, and a metal supporting member fixed on the space transformer in a direct contact manner and located correspondingly to the central region. The supporting member has a lower surface coplanar with the lower end surface of the peripheral supporting element, which is abutted on the space transformer, and an upper surface against which the central supporting element is abutted. The space transformer has great structural strength, flatness and heat dissipation effect for satisfying the large-area requirement and great electrical property testing stability.

Abstract: Embodiments include a Schottky barrier diode (SBD) structure and method of forming the same, the SBD structure including a current blockage feature to inhibit current from leaking at an interface with a shallow trench isolation regions surrounding an anode region of the SBD structure.

Abstract: The invention relates to a source driver and a composite level shifter. The source driver comprises a data buffer circuit, a plurality of level shifters and a plurality of driving circuits. The data buffer circuit receives and registers a plurality of pixel data during a driving period. The level shifters convert the voltage levels of the pixel data registered in the data buffer circuit during the driving period. The driving circuits generate a plurality of source signals according to the converted pixel data during driving period. The data buffer circuit may comprise a plurality of composite level shifters for converting the voltage levels of the pixel data, and latching the converted pixel data.

Abstract: A probe head includes upper and lower die units, and a linear probe inserted therethrough and thereby defined with tail, body and head portions. A first bottom surface of the upper die unit and a second top surface of the lower die unit face each other, thereby defining an inner space wherein the body portion is located and includes a plurality of sections each having front width larger than or equal to back width, including a narrowest section whose upper and lower ends have a distance from the first bottom surface and the second top surface respectively. The head and tail portions are offset from each other along two horizontal axes and the body portion is thereby curved. The present invention is favorable in dynamic behavior control of the linear probe which is easy in manufacturing, lower in cost and has more variety in material.

Abstract: A method of forming a protective film on at least one electronic module is provided. The method includes the following steps. A protective material is disposed on at least one electronic module such that the protective material and the electronic modules are in contact with each other. The electronic modules and the protective material disposed on the electronic modules are disposed in a chamber, and a first ambient pressure is provided in the chamber. The protective material in the chamber is heated to a first temperature to soften the protective material disposed on the electronic modules. After the protective material is softened, a second ambient pressure greater than the first ambient pressure is provided in the chamber, wherein a gas in the chamber directly pressurizes the protective material such that the protective material conformally covers a top of the electronic modules.

Abstract: A driving circuit for display panel is provided. Wherein, a first and a second power supply circuits produce a first and a second supply voltages. The electric charge provided by the second power supply circuit is less than that provided by the first power supply circuit. A plurality of drivers include a plurality of first power input terminals and a plurality of second power input terminals. The first power input terminals are coupled to the first power supply circuit and receives the first supply voltage. The second power input terminals are coupled to the second power supply circuit and receives the second supply voltage. The drivers increase the voltage levels of a plurality of gate signals in a voltage rising period according to the first supply voltage. The drivers hold the voltage levels of gate signals in a voltage holding period according to the second supply voltage.

Abstract: A vacuum lamination system includes a film supply assembly, a film collection assembly, a lower lamination body, an upper lamination body, an air extractor, a moving assembly and a cutting assembly. The lower lamination body includes a first casing base and a lower heating assembly vertically movable and disposed in the first casing base. The lower heating assembly carries and moves the substrate so that the substrate is substantially flush with a top surface of the first casing base or retracted into the first casing base. The upper lamination body is vertically movable and disposed above the lower lamination body and includes an upper casing and an upper heating assembly disposed on the upper casing. The air extractor is connected to the lower lamination body. The moving assembly changes a height of a portion of the film. The cutting assembly cuts a portion of the film laminated onto the substrate.

Abstract: A vacuum lamination system includes a film supply assembly, a film collection assembly, a lower lamination body, an upper lamination body, an air extractor, a moving assembly and a cutting assembly. The lower lamination body includes a first casing base and a lower heating assembly vertically movable and disposed in the first casing base. The lower heating assembly carries and moves the substrate so that the substrate is substantially flush with a top surface of the first casing base or retracted into the first casing base. The upper lamination body is vertically movable and disposed above the lower lamination body and includes an upper casing and an upper heating assembly disposed on the upper casing. The air extractor is connected to the lower lamination body. The moving assembly changes a height of a portion of the film. The cutting assembly cuts a portion of the film laminated onto the substrate.

Abstract: A probe head includes upper and lower die units, and a linear probe inserted therethrough and thereby defined with tail, body and head portions. A first bottom surface of the upper die unit and a second top surface of the lower die unit face each other, thereby defining an inner space wherein the body portion is located and includes a plurality of sections each having front width larger than or equal to back width, including a narrowest section whose upper and lower ends have a distance from the first bottom surface and the second top surface respectively. The head and tail portions are offset from each other along two horizontal axes and the body portion is thereby curved. The present invention is favorable in dynamic behavior control of the linear probe which is easy in manufacturing, lower in cost and has more variety in material.

Abstract: A method of manufacturing a structure having conductive lines is disclosed by forming a patterned catalyst material layer on a substrate; activating the patterned catalyst material layer to form an activated patterned catalyst material layer including activated catalysts; and growing a conductive layer on the activated catalysts of the activated patterned catalyst material layer. The patterned catalyst material layer is formed from a catalyst material including 40 wt % to 90 wt % of polymer and 10 wt % to 60 wt % of catalyzer. An uppermost portion of the activated patterned catalyst material layer includes the activated catalysts, and the activated catalysts include metal reduced from the catalyzer. The pattern of the conductive layer corresponds to that of the patterned catalyst material layer. The structure of the conductive line of the disclosure has the characteristics of high conductivity.

Abstract: The invention relates to a source driver and a composite level shifter. The source driver comprises a data buffer circuit, a plurality of level shifters and a plurality of driving circuits. The data buffer circuit receives and registers a plurality of pixel data during a driving period. The level shifters convert the voltage levels of the pixel data registered in the data buffer circuit during the driving period. The driving circuits generate a plurality of source signals according to the converted pixel data during driving period. The data buffer circuit may comprise a plurality of composite level shifters for converting the voltage levels of the pixel data, and latching the converted pixel data.

Abstract: An array-type electrode, which may include a substrate, an isolating layer, an electrode and a micro-structure layer. The isolating layer may be disposed on one side of the substrate. The first part of the electrode may be disposed on one side of the substrate and covered by the isolating layer; the second part of the electrode penetrates through the substrate; the third part of the electrode may be disposed on the other side of the substrate; the first part may be connected to the third part via the second part. The micro-structure layer may be disposed on the isolating layer.

Abstract: A driving circuit for display panel is provided. Wherein, a first and a second power supply circuits produce a first and a second supply voltages. The electric charge provided by the second power supply circuit is less than that provided by the first power supply circuit. A plurality of drivers include a plurality of first power input terminals and a plurality of second power input terminals. The first power input terminals are coupled to the firs power supply circuit and receives the first supply voltage. The second power input terminals are coupled to the second power supply circuit and receives the second supply voltage. The drivers increase the voltage levels of a plurality of gate signals in a voltage rising period according to the first supply voltage. The drivers hold the voltage levels of gate signals in a voltage holding period according to the second supply voltage.

Abstract: A method of forming a protective film on at least one electronic module is provided. The method includes the following steps. A protective material is disposed on at least one electronic module such that the protective material and the electronic modules are in contact with each other. The electronic modules and the protective material disposed on the electronic modules are disposed in a chamber, and a first ambient pressure is provided in the chamber. The protective material in the chamber is heated to a first temperature to soften the protective material disposed on the electronic modules. After the protective material is softened, a second ambient pressure greater than the first ambient pressure is provided in the chamber, wherein a gas in the chamber directly pressurizes the protective material such that the protective material conformally covers a top of the electronic modules.

Abstract: An apparatus, for reinforcing bone and tools for mounting the same, has an implant including a barrel and a device. The implant can be expanded by an expanding apparatus including an outer tube, a base, a hollow body and a handle. The expanding apparatus can be bound to the implant to place the implant into a bone to be treated and adjust the expansion degree. The expanding apparatus can be replaced by an injector apparatus including a container for bone cement and an injecting handle. The injector apparatus can inject a mixture for reinforcing bone (e.g., bone cement) into the bone through an exit, the device, the aperture, the barrel and the window of the barrel, and into the to-be treated area.

Abstract: An array-type electrode, which may include a substrate, an isolating layer, an electrode and a micro-structure layer. The isolating layer may be disposed on one side of the substrate. The first part of the electrode may be disposed on one side of the substrate and covered by the isolating layer; the second part of the electrode penetrates through the substrate; the third part of the electrode may be disposed on the other side of the substrate; the first part may be connected to the third part via the second part. The micro-structure layer may be disposed on the isolating layer.

Abstract: A structure of conductive lines and method of manufacturing the same are disclosed by forming a patterned catalyst material layer on a substrate; activating the patterned catalyst material layer to form an activated patterned catalyst material layer comprising activated catalysts; and growing a conductive layer on the activated catalysts of the activated patterned catalyst material layer. The patterned catalyst material layer is formed from a catalyst material comprising 40 wt % to 90 wt % of polymer and 10 wt % to 60 wt % of catalyzer. An uppermost portion of the activated patterned catalyst material layer comprises the activated catalysts, and the activated catalysts comprises metal reduced from the catalyzer. The pattern of the conductive layer corresponds to that of the patterned catalyst material layer. The structure of the conductive line of the disclosure has the characteristics of high conductivity.

Abstract: A method of making a metal insulator metal (MIM) capacitor includes forming a copper bulk layer in a base layer, wherein the copper bulk layer includes a hillock extending from a top surface thereof. The method further includes depositing an etch stop layer over the base layer and the copper bulk layer. The method further includes depositing an oxide-based dielectric layer over the etch stop layer. The method further includes forming a capacitor over the oxide-based dielectric layer. The method further includes forming a contact extending through the oxide-based dielectric layer and the etch stop layer to contact the copper bulk layer, wherein the forming of the contact removes the hillock.

Abstract: A method of making a metal insulator metal (MIM) capacitor includes forming a copper bulk layer in a base layer, wherein the copper bulk layer includes a hillock extending from a top surface thereof. The method further includes depositing an etch stop layer over the base layer and the copper bulk layer. The method further includes depositing an oxide-based dielectric layer over the etch stop layer. The method further includes forming a capacitor over the oxide-based dielectric layer. The method further includes forming a contact extending through the oxide-based dielectric layer and the etch stop layer to contact the copper bulk layer, wherein the forming of the contact removes the hillock.