Winbond Electronics Corporation

Nuvoton Technology Corporation

Ming-Chih Tsai

Yu-Hsuan Ho

Ming-Hung Hsieh

Yen-Jui Chu

Hsin-Hung Chou

A composite material including a nanocellulose core and a metal shell is provided. The metal shell covers a surface of the nanocellulose core. The composite material is nanosized and has high mechanical strength. Additionally, a method of manufacturing the composite material is also provided.

Composite material and method of manufacturing the same

A sensor is provided and is disposed on a package body of an integrated circuit chip. The sensor includes a sensing element, a protective element, a cover, and at least two traces. The sensing element is disposed on the integrated circuit chip. The protective element is disposed on the integrated circuit chip and surrounds the sensing element. The cover is connected to the protective element. The at least two traces are electrically connected to the sensing element and to at least two pins of the integrated circuit chip.

Sensor and integrated circuit module

A method of manufacturing a composite material, comprising providing a conductive polymer having a hydrophilic end and adding a metal oxide, such that the metal oxide is connected to the hydrophilic end of the conductive polymer, wherein the metal oxide is obtained by subjecting a metal oxide precursor to a dehydration reaction, a polymerization reaction, a condensation reaction, or a combination thereof.

Sensor, composite material and method of manufacturing the same

A metal bronze compound is provided. The metal bronze compound is a compound represented by formula (1) below. In formula (1), 'A' represents at least one type of cation. 'M' represents at least two types of ions selected from a transition metal and a metalloid. &#x201c;x&#x201d; represents the sum of the number of the at least one type of cation used as &#x201c;A&#x201d;. &#x201c;y&#x201d; represents the sum of the number of the at least two types of ions selected from the transition metal and the metalloid used as &#x201c;M&#x201d;. &#x201c;z&#x201d; represents the number of oxygen ion. The values of &#x201c;x&#x201d;, &#x201c;y&#x201d; and &#x201c;z&#x201d; balance the charge number of formula (1).AMO&#x2003;&#x2003;(1)

Metal bronze compound, manufacturing method thereof, and ink

A sensing device for sensing ion concentration of a solution, including a first substrate, a second substrate, a sensing layer, and two electrodes. The material of the first substrate includes cellulose. The second substrate is located on the first substrate. The sensing layer is located on the second substrate. The two electrodes are separately disposed on the sensing layer to expose the sensing layer and bring a solution in contact with the sensing layer so as to measure the resistance value of the solution and convert the resistance value into the ion concentration of the solution.

Sensing device, nursing bra, and manufacturing method thereof

A sensor, a composite material and a method of manufacturing the same are provided. The sensor includes a first electrode, a second electrode, and a sensing material layer. The first electrode and the second electrode are separated from each other. The sensing material layer is located between the first electrode and the second electrode and covers the first electrode and the second electrode. The sensing material layer includes the composite material including a conductive polymer and a metal oxide. The conductive polymer has a hydrophilic end. The metal oxide is connected to the hydrophilic end of the conductive polymer. The metal oxide includes a metal oxide precursor.

The present invention provides a patterned structure for an electronic device and a manufacturing method thereof. The patterned structure includes a patterned layer, a blocking structure, a cantilever structure, and a connection structure. The patterned layer is disposed on a substrate. The blocking structure is disposed on the substrate at one side of the patterned layer, wherein a thickness of the blocking structure is smaller than a thickness of the patterned layer. The cantilever structure is disposed on the substrate and located between the patterned layer and the blocking structure. The cantilever structure is connected with the patterned layer and the blocking structure. The connection structure is connected between the patterned layer and the substrate at one side of the patterned layer, and located on the cantilever structure and the blocking structure.

Patterned structure for electronic device and manufacturing method thereof

A resistive environmental sensor including an electrode stack and a sensing layer is provided. The electrode stack includes a first electrode layer, a second electrode layer, and a dielectric layer disposed between the first and second electrode layers, wherein the electrode stack includes a side surface, and the first and second electrode layers are exposed on the side surface of the electrode stack. The sensing layer is disposed on the side surface of the electrode stack, and the sensing layer s in contact with the first and second electrode layers. An environmental variation is inspected by sensing a resistance variation of the sensing layer that is between the first and second electrode layers. The above-mentioned sensor is capable of sensing gases, light, humidity, temperature, and so on. The above-mentioned sensor has advantages of low resistivity and good sensitivity.

Resistive environmental sensor and resistive environmental sensor array

A reduction-oxidation sensor device and a manufacturing method thereof are provided. The reduction-oxidation sensor device includes a first electrode, at least one sensing structure and a second electrode. The first electrode is located on a substrate. The at least one sensing structure is located on the first electrode and the substrate. The at least one sensing structure includes a metal nanowire layer and a metal oxide layer. The metal nanowire layer is disposed on the first electrode and the substrate. The metal nanowire layer is wrapped by the metal oxide layer. The second electrode is located on the at least one sensing structure.

Reduction-oxidation sensor device and manufacturing method thereof

A strain sensing device and a manufacturing method thereof are provided in the invention. The strain sensing device includes a substrate and at least one sensing electrode. The substrate has a plurality of pores. A material of the substrate includes nanocellulose, and the substrates is strained in response to changes in external conditions. The at least one sensing electrode is disposed on the substrate, wherein the sensing electrode contacting the substrate extends into the pores of the substrate. The at least one sensing electrode has a major axis parallel to a surface of the substrate. A resistance value of the at least one sensing electrode changes in response to a strain of the substrate.

Strain sensing device and manufacturing method thereof

A transparent pressure sensor and a manufacturing method thereof are provided. The transparent pressure sensor includes several layers of transparent electrodes, at least one pressure-sensitive deformation layer between the transparent electrodes, and a metal oxide layer. Each layer of the transparent electrodes is composed of nanowires, and the metal oxide layer is disposed in a space among the nanowires.

Transparent pressure sensor and manufacturing method thereof

A gas sensor includes a first substrate, at least one first electrode, a sensing structure, at least one second electrode, and a second substrate. The at least one first electrode is located on the first substrate. The sensing structure is located on the at least one first electrode and the first substrate, and the sensing structure includes a first semiconductor layer and a second semiconductor layer. The first semiconductor layer having a first conductive type covers the first substrate and the at least one first electrode; the second semiconductor layer having a second conductive type is located on the first semiconductor layer. The at least one second electrode covers the sensing structure. The second substrate covers the at least one second electrode and the sensing structure.

Gas sensor

A perovskite composite structure is provided. The perovskite composite structure includes a light absorption layer and a sterically-hindered layer disposed in the periphery of the light absorption layer. The light absorption layer includes a perovskite material. The sterically-hindered layer includes a two-dimensional material.

Perovskite composite structure

A multifunctional sensor including a substrate, a first sensing structure, a dielectric layer and a second sensing structure is provided. The first sensing structure is disposed on the substrate. The dielectric layer is disposed on the first sensing structure. The second sensing structure is disposed on the dielectric layer. The first sensing structure and the second sensing structure are located on the same side of the substrate.

Multifunctional sensor

A pressure sensor and a manufacturing method thereof are provided. The pressure sensor includes a thin-film transistor (TFT) array and a pressure-sensitive layer covering the TFT array. The pressure-sensitive layer includes a plurality of insulating layers and one of one-directional materials arranged on the same plane and two-directional materials. The insulating layers and the one- or two-directional materials are alternately stacked so as to effectively enhance pressure resolution.

Growing community of inventors

Taichung, Taiwan

Ming-Chih Tsai