Abstract: A microelectromechanical system (MEMS) device includes a substrate and at least one MEMS unit disposed on the substrate. The MEMS unit includes at least one first electrode, at least one second electrode, at least one landing element, and a hinge layer. The first electrode is disposed on the substrate. The second electrode is disposed on the substrate. The landing element is disposed on the substrate. The hinge layer includes a hinge portion and at least one cantilever portion. The hinge portion is connected to the second electrode. The cantilever portion is connected to the hinge portion. The cantilever portion has a first opening and at least one spring disposed in the first opening and connected to at least one side of the first opening. When a voltage difference exists between the first electrode and the second electrode, the hinge portion is distorted and the spring thus touches the landing element.

Abstract: A circuit stack structure is provided. The circuit stack structure includes a conductor layer having metal wires arranged at intervals, propping portions respectively disposed in a gap between any two of the neighboring metal wires, and a protective layer covering the metal wires and the propping portions. The propping portions are electrically isolated with the metal wires. With supporting by the propping portions, all regions of a top surface of the protective layer corresponding to one of the propping portions are coplanar with all regions of the top surface of the protective layer corresponding to each of the metal wires.

Abstract: There is provided systems and method for unified payment account establishment and incorporation in a main payment account. A service provider, such as a payment provider, may offer merchants with a development kit that unifies payment methods between various merchants and the service provider so that users are provided with more easily established payment accounts with the merchants. The development kit may include an account establishment interface that may be utilized in a merchant ordering and payment application for a merchant. The interface may provide for establishment of a payment account with the merchant. When initially establishing the payment account, the user may generate a provisional account, which may be synchronized to a payment account the user has with the service provider. When synchronizing the two accounts, the user may transfer information to the merchant, which may be redacted to prevent the merchant from receiving sensitive information.

Abstract: A MEMS package structure includes a base, a MEMS device, a first cover, a second cover and a glass frit. The base includes a recess. The MEMS device is disposed in the recess. The first cover is disposed in the recess and covering the MEMS device. The second cover is disposed on the base and covering the recess. The glass frit is disposed between the base and the second cover. A MEMS package structure includes the base, the MEMS device, the first cover, a second cover, a first metal frame and a first sealing medium. The first metal frame is disposed around the second cover, and the second cover and the first metal frame collectively are disposed on the base and covering the recess. The first sealing medium is disposed between the first metal frame and the base. Manufacturing methods of the MEMS package structures above are further provided.

Abstract: A method is provided for a computing device with an imaging device to read a specimen test strip. The method includes capturing an image of the specimen test strip, wherein the image includes a reaction area, a color calibration area, and a temperature calibration area on the specimen test strip, determining a color of the reaction area based on one or more colors of the color calibration area, and determining a value of a characteristic of an analyte by correlating the color of the reaction area to the value and then adjusting the value based on the color of the temperature calibration area, or adjusting the color of the reaction area based on the color of the temperature calibration area and then correlating the color of the reaction area to the value.

Abstract: A method is provided for a computing device with an imaging device to detect a characteristic of an analyte in a specimen sample from a specimen test strip with reaction areas that have colors based on the characteristic of the analyte in different ranges of values. The method includes capturing images of the specimen test strip under different exposures or light intensities, selecting an image comprising captured reaction areas that have a proper exposure or a proper lighting intensity from the images, selecting a captured reaction area from the image, and correlating a color of the captured reaction area to a value of the characteristic of the analyte.

Abstract: A test strip module includes a case, a test strip in the case, and a position anchor extending down past a mating surface to a face of a mobile computing device. The position anchor has a shape matching a feature on the face of the mobile computing device.

Abstract: A MEMS package structure including a chip, a MEMS device, a lid, a sealant and a first moisture barrier is provided. The chip comprises an active surface. The MEMS system device is disposed on the active surface. The lid is covered on the chip and comprising a recess, wherein the MEMS device is in the recess. The sealant is disposed between the chip and the lid so as to seal the recess, wherein a thickness of the sealant is less than a height of the MEMS device. The first moisture barrier is sealed around the chip, the sealant and the lid.

Abstract: Embodiments of the disclosure provide semiconductor device structures and methods of forming the same. The semiconductor device structure includes a metal gate over a substrate. A first spacer is formed over sidewalls of the metal gate and having a first height. A second spacer is formed over the sidewalls of the metal gate and having a second height. The first height is higher than the second height. The first spacer is farther from the sidewalls of the metal gate than the second spacer. In addition, the semiconductor device structure includes a dielectric layer formed over the substrate to surround the first spacer and the metal gate.

Abstract: A manufacturing method for a liquid crystal display panel is provided. After providing a substrate having an insulation layer thereon, a first metal composite layer is formed on the insulation layer and then patterned to form at least one first opening through the first metal composite layer. A first intermediate dielectric layer is formed within the at least one first opening and a second intermediate dielectric layer is formed on the patterned first metal composite layer. The second intermediate dielectric layer is patterned to form second openings through the second intermediate dielectric layer. A second metal composite layer is formed on the patterned second intermediate dielectric layer and then patterned to form at least one third opening. Then, a third intermediate dielectric layer is formed within the at least one third opening.

Abstract: A MEMS package structure including a chip, a MEMS device, a lid, a sealant and a first moisture barrier is provided. The chip comprises an active surface. The MEMS system device is disposed on the active surface. The lid is covered on the chip and comprising a recess, wherein the MEMS device is in the recess. The sealant is disposed between the chip and the lid so as to seal the recess, wherein a thickness of the sealant is less than a height of the MEMS device. The first moisture barrier is sealed around the chip, the sealant and the lid.

Abstract: A specimen test strip is provided to detect a characteristic of an analyte in a specimen sample. The specimen test strip includes a reaction area to receive the specimen sample and a color calibration area to determine a color, or a color and a color intensity, of the reaction area after receiving the specimen sample. The specimen test strip may further include a temperature indication area to correct a measurement of the characteristic of analyte.

Abstract: The present invention provides a pharmaceutical kit, methods for cancer treatment and for preparing a metal nanoparticle-antibody fragment conjugate, which can reduce the recurrence rate of cancer and provide a safer and less invasive therapeutic method for cancer treatment.

Abstract: A pressure measuring device for measuring the internal pressure of the affected part under the fixing member includes a plurality of flexible pressure meters (or called as manometers) and a processor connected to each of the flexible pressure meters. The flexible pressure meters are configured at the inner surface of the fixing member and pasted on the affected part to measure the surface pressure of the affected part, and generate measuring signals according to the measured pressure. The processor is capable of receiving the measuring signals and displaying the surface pressure of the affected part according to the measuring signals, furthermore, by analyzing the measuring signals, the internal pressure corresponded to each of the compartments of the affected part can be found. Accordingly, the pressure measuring device assists to judge if compartment syndrome occurs in the affected part.

Abstract: A method for manufacturing pixel structure is provided. A patterned conductor layer including a gate, a scan line and a conductor pattern is formed on a substrate. A gate insulating layer, a metal oxide material layer and an etching stop material layer are formed on the substrate. Using the patterned conductor layer as mask, a patterned photoresist layer is formed on the etching stop material layer through a back exposure process. Using the patterned photoresist layer as mask, a metal oxide channel layer and an etching stop layer are formed above the gate. A source and a drain are formed on the etching stop layer. A passivation layer is formed on the substrate. A halftone mask is used to form a photosensitive layer on the passivation layer. The metal oxide material layer and the etching stop material layer on the scan line and the conductor pattern are removed.

Abstract: The present invention discloses a surgical guiding and positioning system, comprising: a global information device, a local information device, and a computing device. The global information device is capable of collecting an overall information of a surgical site before a surgical procedure begins. The local information device can comprise a surgical device including at least one sensor and provide a real-time information of a section of the surgical site. The computing device is capable of calculating a position data of the surgical device in the surgical site by comparing the overall information and the real-time information. Therefore, the present invention is capable of providing the real-time guidance and monitoring during a surgical procedure so that the surgeon can acquire precise real-time information of the surgical site and perform the surgery efficiently.

Abstract: A gate line driving module used on a liquid crystal display uses clock signal sources in replacement of a high level gate power source, such that the phenomenon of device characteristic drift occurring in the foregoing related art is avoided. The gate line driving module includes a plurality of odd-pixel gate line driving circuits, a plurality of even-pixel gate line driving circuits, and an auxiliary gate line driving circuit. A pair of neighboring odd-pixel gate line driving circuit and even-pixel gate line driving circuit exchange output signals thereof with each other in a forward or feedback manner for ensuring that each the odd-pixel gate line driving circuit and each the even-pixel gate line driving circuit are driven once. The auxiliary gate line driving circuit is used for ensuring that signal iteration of the gate line driving module is under normal operation.

Abstract: A method is provided for a portable computing device to read a reaction area on a test strip, which is located in a peripheral device placed over an image sensor and a light source of the portable computing device. Light is provided with the light source, which the peripheral device directs to the reaction area. An image including the reaction area is captured with the image sensor. An analyte characteristic is determined based on a color of the captured reaction area in the image.

Abstract: The present invention discloses a feedback system. The feedback system includes an application executing module, a trigger module and a feedback interface module. The application executing module executes an application to display a plurality of display elements, wherein at least one of the display elements corresponds to at least one of a plurality of motion events provided for users to operate. The trigger module receives a first selection signal when the application executing module executes the application, wherein the first selection signal corresponds to an indicated feedback element, and the indicated feedback element is one of the display elements. The feedback interface module receives a first feedback content corresponding to the indicated feedback element and generates a first feedback message, when the trigger module receives the first selection signal, wherein the first feedback message includes the first feedback content and the first selection signal.

Abstract: A circuit stack structure is provided. The circuit stack structure includes a conductor layer having metal wires arranged at intervals, propping portions respectively disposed in a gap between any two of the neighboring metal wires, and a protective layer covering the metal wires and the propping portions. The propping portions are electrically isolated with the metal wires. With supporting by the propping portions, all regions of a top surface of the protective layer corresponding to one of the propping portions are coplanar with all regions of the top surface of the protective layer corresponding to each of the metal wires.