215results about How to "Improve electronic performance" patented technology

In a thin film transistor (1), a gate insulating layer (4) is formed on a gate electrode (3) formed on an insulating substrate (2). Formed on the gate insulating layer (4) is a semiconductor layer (5). Formed on the semiconductor layer (5) are a source electrode (6) and a drain electrode (7). A protective layer (8) covers them, so that the semiconductor layer (5) is blocked from an atmosphere. The semiconductor layer (5) (active layer) is made of, e.g., a semiconductor containing polycrystalline ZnO to which, e.g., a group V element is added. The protective layer (8) thus formed causes decrease of a surface level of the semiconductor layer (5). This eliminates a depletion layer spreading therewithin. Accordingly, the ZnO becomes an n-type semiconductor indicating an intrinsic resistance, with the result that too many free electrons are generated. However, the added element works on the ZnO as an accepter impurity, so that the free electrons are reduced. This decreases a gate voltage required for removal of the free electrons, so that the threshold voltage of the thin film transistor (1) becomes on the order of 0V. This allows practical use of a semiconductor device which has an active layer made of zinc oxide and which includes an protective layer for blocking the active layer from an atmosphere.

The invention provides methods and devices for fabricating printable semiconductor elements and assembling printable semiconductor elements onto substrate surfaces. Methods, devices and device components of the present invention are capable of generating a wide range of flexible electronic and optoelectronic devices and arrays of devices on substrates comprising polymeric materials. The present invention also provides stretchable semiconductor structures and stretchable electronic devices capable of good performance in stretched configurations.

The present invention provides device components geometries and fabrication strategies for enhancing the electronic performance of electronic devices based on thin films of randomly oriented or partially aligned semiconducting nanotubes. In certain aspects, devices and methods of the present invention incorporate a patterned layer of randomly oriented or partially aligned carbon nanotubes, such as one or more interconnected SWNT networks, providing a semiconductor channel exhibiting improved electronic properties relative to conventional nanotubes-based electronic systems.

A method for making a multilayered electronic device with at least one epitaxial layer grown on a single-crystal film bonded to a composite wherein at least one layer is polycrystalline, the method includes the step of bonding a single-crystal film at least one of the epitaxial layers on the single-crystal film wherein thermal coefficients of expansion for the substrate and the epitaxial layer are closely matched.

Throttles electronic devices based on compliance with rules for electronic communications such as emails, texts, or postings on social media sites. Rules may for example prohibit certain topics, language, or behaviors such as online bullying. If system detects a violation of the electronic communications rules, it may block access or reduce performance on one or more electronic devices as a consequence. In some cases, devices or selected apps or services may continue to function, but at a reduced level. Conversely the system may provide rewards for conforming with the rules. Throttling of devices may also depend on other factors, such as homework completion, test results, grades, and environmental conditions. Machine learning techniques may be applied to determine when electronic communications may violate the rules. For example, probabilistic topic models may be applied to determine the topics of electronic communications, and to assess whether these topics violate the rules.

A package structure with chip embedded in substrate includes: a carrier having a stepped cavity; a semiconductor chip (or a chip set) received in the cavity of the carrier; a dielectric layer formed on the semiconductor chip and the carrier and filled in a gap between the semiconductor chip and the cavity of the carrier to fix the semiconductor chip in the carrier; and a circuit layer formed on the dielectric layer, and electrically connected to electrode pads of the semiconductor chip via a plurality of conductive structures so as to provide external electrical extension for the semiconductor chip via the circuit layer.

An auxiliary battery device for an electronic device includes: one or more auxiliary battery bodies; first and second coupling units provided on front and rear surfaces of the bodies to couple or separate the auxiliary battery bodies according to rotation of the auxiliary battery bodies; and one or more connection terminal units provided in the coupling units to electrically connect the auxiliary battery bodies when the auxiliary battery bodies are coupled to each other.

An insulated spray cooling system for extreme environments for providing a desired enclosed environment for electronic devices regardless of external environmental conditions. The insulated spray cooling system for extreme environments includes an insulated enclosure that isolates the electronic devices being thermally managed from the external environment and a thermal management unit within the enclosure for thermally managing electronic devices.

A thin-film transistor (1) of the present invention includes an insulating substrate (2), a gate electrode (3) which has a predetermined shape and is formed on the insulating substrate (2), a gate insulating film (4) formed on the gate electrode (3), and a semiconductor layer (5) which is polycrystalline ZnO and is formed on the gate insulating film (4). The semiconductor layer (5) is immersed in a solution in which impurities are dissolved so that the impurities are selectively added to a grain boundary part of the polycrystalline ZnO film. Subsequently, a source electrode (6) and a drain electrode (7) are formed so as to have a predetermined shape. Next, a protection layer (8) is formed on the source electrode (6) and the drain electrode (7). Thus, a thin-film transistor which has a good subthreshold characteristic and has a zinc oxide film as a base of an active layer can be realized.

A semiconductor package structure and a fabrication method thereof are provided. A semiconductor chip having an active surface and an inactive surface is coupled to a substrate. A plurality of bond pads are formed on the active surface of the semiconductor chip. The substrate can be arranged to expose the bond pads. The semiconductor chip is further attached to a lead frame having a plurality of leads, each of which has an inner portion and an outer portion higher than the inner portion, such that the semiconductor chip can be accommodated in the inner portions of the leads. An encapsulant is formed to cover the semiconductor chip and the substrate, and bottom surfaces of the leads of the lead frame are exposed from the encapsulant, so as to form a thin and compact package structure, which can package various semiconductor chips having different arrangements of bond pads.

Provided are apparatuses and method for the thermal processing of a substrate surface, e.g., controlled laser thermal annealing (LTA) of substrates. The invention typically involves irradiating the substrate surface with first and second images to process regions of the substrate surface at a substantially uniform peak processing temperature along a scan path. A first image may serve to effect spike annealing of the substrates while another may be used to provide auxiliary heat treatment to the substrates before and / or after the spike annealing. Control over the temperature profile of the prespike and / or postspike may also reduce stresses and strains generated in the wafers. Also provided are microelectronic devices formed using the inventive apparatuses and methods.

A battery capable of improving high-temperature characteristics is provided. The battery includes a cathode, an anode and an electrolytic solution. A separator provided between the cathode and the anode is impregnated with the electrolytic solution. A solvent of the electrolytic solution includes a main solvent such as a cyclic carbonate which includes halogen and a sub solvent such as carbonate dimer.

Method for manufacturing an electronic semiconductor package, in which method an electronic chip (100) is coupled to a carrier, the electronic chip is at least partially encapsulated by means of an encapsulation structure having a discontinuity, and the carrier is partially encapsulated, and at least one part of the discontinuity and a volume connected thereto adjoining an exposed surface section of the carrier are covered by an electrically insulating thermal interface structure, which electrically decouples at least one part of the carrier with respect to its surroundings.

A method and apparatus for supporting multiple IMS networks includes an electronic device supporting multiple IMS networks. A modem receives communication services through an access network and multiple IMS networks including first and second IMS networks; and a communication control module includes a processor. The communication control module is configured to attach the electronic device to the access network on the basis of first identification information corresponding to the access network, register the electronic device in the first IMS network via the access network on the basis of second identification information corresponding to the first IMS network, and register the electronic device in the second IMS network via the access network on the basis of third identification information corresponding to the second IMS network.

A method for customizing a user interface and an electronic device thereof are provided. In the present method, if a first input signal is detected when an active window corresponding to an application program is displayed on a screen of the electronic device, an operating screen of the active window is captured and the active window is closed. A launching mechanism between the operating screen and a thumbnail thereof is established. The thumbnail is added to a home screen of the electronic device, and the home screen is displayed on the screen. Thereby, the performance of the electronic device is improved by ensuring that system resources won't be occupied by a closed window.

The invention discloses an electrolyte additive for improving low-temperature properties of a lithium ion battery and electrolyte and relates to the technical field of lithium ion batteries. The additive is pyridine with an electron donor group substitution group, and in addition, the molecular structure of the additive is free of intense electron withdrawing group substitution group. When the additive is applied to lithium ion battery electrolyte, the ion conduction velocity of the electrolyte under a low-temperature condition can be increased, the curing point of the electrolyte can be reduced, the charge and discharge capacity and the circulation performance of the lithium ion battery at a low temperature can be improved, meanwhile the wettability of an anode piece and a cathode piece can be improved. The additive does not affect the performance of a battery cell at normal temperatures and high temperatures, and is gentle to the environment.

A foot cushion mechanism with lifting function is disclosed. The foot cushion mechanism includes a foot cushion member, a holding base and at least one shape memory material member. The foot cushion member is installed on a housing and abuts against a supporting surface. The holding base and the foot cushion member are respectively installed on opposite sides of the housing. The at least one shape memory material member selectively connects the housing and the holding base or connects the holding base and the foot cushion member. The at least one shape memory material member deforms when being heated due to a shape memory effect, and the housing is driven by the shape memory effect to move away from the foot cushion member such that a distance between the housing and the supporting surface is increased.

An electronic cigarette, an atomizer device thereof and a method for assembling the atomizer device are provided. The atomizer device comprises an atomizer assembly (14) having an atomizer base (141), a heating member (142), and a liquid conductive member (143). The atomizer base (141) includes a cylindrical body (1412) having an inserting end (1413); and a side wall of the cylindrical body (1412) defines at least one slot (1414) extending along a vertical direction and communicating with an end surface of the inserting end (1413). The heating member (142) is cylindrical and arranged in the cylindrical body (1412), and an air flowing channel is defined inside the heating member (142). The liquid conductive member (143) comprises a cylindrical liquid conductive body (1431) and at least one couple of connecting portions (1432) connected together in a circumferential direction of the liquid conductive body (1431).

The present invention relates to devices, particularly photovoltaic devices, incorporating Group IIB / VA semiconductors such phosphides, arsenides, and / or antimonides of one or more of Zn and / or Cd. In particular, the present invention relates to methodologies, resultant products, and precursors thereof in which electronic performance of the semiconductor material is improved by causing the Group IIB / VA semiconductor material to react with at least one metal-containing species (hereinafter co-reactive species) that is sufficiently co-reactive with at least one Group VA species incorporated into the Group IIB / VA semiconductor as a lattice substituent (recognizing that the same and / or another Group VA species also optionally may be incorporated into the Group IIB / VA semiconductor in other ways, e.g., as a dopant or the like).