mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor device comprising: a substrate having opposed first and second major surfaces, an active area , and a termination area surrounding the active area; insulated trenches extending from the first major surface toward the second major surface, and having a longitudinal direction, each of the insulated trenches including a conductive field plate and a gate electrode overlying the conductive field plate, the gate electrode being separated from the field plate by a gate-field plate insulator , wherein the conductive field plate extends longitudinally in both of the active and termination areas and the gate electrode extends longitudinally in the active area and is absent in the termination area; and a body region of a first conductivity type extending laterally between pairs of the insulated trenches; characterised by first and second (112 2 ) spacer regions of a second conductivity type extending laterally between the pairs of the insulated trenches and perpendicularly to the longitudinal direction thereof, at the termination area defined by segments of the first conductivity type, between the first and second spacer regions and that are isolated from the body region. a substrate having opposed first and second major surfaces, an active area , and a termination area surrounding the active area; insulated trenches extending from the first major surface toward the second major surface, and having a longitudinal direction, each of the insulated trenches including a conductive field plate and a gate electrode overlying the conductive field plate, the gate electrode being separated from the field plate by a gate-field plate insulator , wherein the conductive field plate extends longitudinally in both of the active and termination areas and the gate electrode extends longitudinally in the active area and is absent in the termination area; and a body region of a first conductivity type extending laterally between pairs of the insulated trenches; characterised by first and second (112 2 ) spacer regions of a second conductivity type extending laterally between the pairs of the insulated trenches and perpendicularly to the longitudinal direction thereof, at the termination area defined by segments of the first conductivity type, between the first and second spacer regions and that are isolated from the body region.
A safety arrangement for a height-adjustable seat structure, the seat structure comprising: a first set of legs comprising a first leg pivotably connected to a second leg , and a first pair of guide rails comprising an upper guide rail and a lower guide rail ; wherein the first leg in the first set of legs comprises one end portion being pivotably hinged to the upper guide rail in the first pair of guide rails and the other end portion being linearly movable along the lower guide rail in the first pair of guide rails , and the second leg in the first set of legs comprises one end portion pivotably hinged to the lower guide rail in the first pair of guide rails and the other end portion being linearly movable along the upper guide rail in the first pair of guide rails ; wherein the height-adjustable seat structure further comprises a stop member and a seat actuator comprising a piston , said seat actuator being configured, upon an activation signal, to move the piston from a retracted position to an extended position in which a free end of the piston is configured to exert a force to an impact surface of the stop member , whereby the piston forces the height-adjustable seat structure towards a lowered position; and wherein said piston forms an impact angle α of 25-65 degrees as seen between the piston and a horizontal plane. the first leg in the first set of legs comprises one end portion being pivotably hinged to the upper guide rail in the first pair of guide rails and the other end portion being linearly movable along the lower guide rail in the first pair of guide rails , and the second leg in the first set of legs comprises one end portion pivotably hinged to the lower guide rail in the first pair of guide rails and the other end portion being linearly movable along the upper guide rail in the first pair of guide rails ; wherein the height-adjustable seat structure further comprises a stop member and a seat actuator comprising a piston , said seat actuator being configured, upon an activation signal, to move the piston from a retracted position to an extended position in which a free end of the piston is configured to exert a force to an impact surface of the stop member , whereby the piston forces the height-adjustable seat structure towards a lowered position; and wherein said piston forms an impact angle α of 25-65 degrees as seen between the piston and a horizontal plane.
A measurement device for measuring antenna characteristics of an antenna under test , AUT, the AUT having a plurality of radiating elements , the measurement device comprising an exterior surface , where a plurality of measurement apertures is formed in the exterior surface, and a repetitive structure is arranged on the exterior surface, the repetitive structure comprising a plurality of protruding conductive elements arranged to surround the plurality of measurement apertures and to define a passage into the measurement apertures , wherein each measurement aperture is arranged to align with a respective radiating element on the AUT when the measurement device engages the AUT, the repetitive structure being configured to attenuate electromagnetic signal propagation past the repetitive structure , in a given frequency band, while allowing electromagnetic signal propagation via the passage .
A moisture detector comprising: - a dry charged catalytic electrode accumulator as means for generating energy when moisture is detected; - an absorbing material encapsulating at least a part of the dry charged catalytic electrode accumulator , where the absorbing material has spongy absorption properties; - an intermediate layer having absorption properties placed between electrodes of the dry charged catalytic electrode accumulator , characterized in that there is a thin membrane between the absorbing material and the dry charged catalytic electrode accumulator , where the thin membrane is made of a material dissolving when exposed to humidity of at least 75% RH. - a dry charged catalytic electrode accumulator as means for generating energy when moisture is detected; - an absorbing material encapsulating at least a part of the dry charged catalytic electrode accumulator , where the absorbing material has spongy absorption properties; - an intermediate layer having absorption properties placed between electrodes of the dry charged catalytic electrode accumulator ,
A character input device , configured to convert an input character string into a corresponding conversion character string, the character input device comprising: a first input unit configured to accept input of a first character string by a first input method; a second input unit configured to accept input of a second character string by a second input method different from the first input method; and a character string combination unit configured to, when the input of the second character string is accepted after the input of the first character string is accepted, generate an input character string candidate by connecting the first character string and the second character string, wherein the character string combination unit is configured to: extract an identical character string as a duplicate character string at a tail of the first character string and a head of the second character string, and when the duplicate character string is extracted, generate a character string as one of the input character string candidates formed by connecting the first character string without the duplicate character string and the second character string without the duplicate character string by the duplicate character string. a first input unit configured to accept input of a first character string by a first input method; a second input unit configured to accept input of a second character string by a second input method different from the first input method; and a character string combination unit configured to, when the input of the second character string is accepted after the input of the first character string is accepted, generate an input character string candidate by connecting the first character string and the second character string, wherein the character string combination unit is configured to: extract an identical character string as a duplicate character string at a tail of the first character string and a head of the second character string, and when the duplicate character string is extracted, generate a character string as one of the input character string candidates formed by connecting the first character string without the duplicate character string and the second character string without the duplicate character string by the duplicate character string. extract an identical character string as a duplicate character string at a tail of the first character string and a head of the second character string, and when the duplicate character string is extracted, generate a character string as one of the input character string candidates formed by connecting the first character string without the duplicate character string and the second character string without the duplicate character string by the duplicate character string.
A battery device, comprising at least two battery units, wherein a difference between characteristic values of any one of the at least two battery units is within a preset range, characterised in that the preset range is 0.5% to 40%, wherein each one of the characteristic values is obtained by adopting a following test: when any one of the at least two the battery units is discharged at a discharge rate of 0.05 Capacity (C) and a discharge rate of 1C respectively in a discharge voltage interval of 2.8 Volt(V) to 4.2V, obtaining two discharge differential voltage analysis (DVA) curves, and determining a difference between minimum values of the two discharge DVA curves. characterised in that the preset range is 0.5% to 40%, wherein each one of the characteristic values is obtained by adopting a following test: when any one of the at least two the battery units is discharged at a discharge rate of 0.05 Capacity (C) and a discharge rate of 1C respectively in a discharge voltage interval of 2.8 Volt(V) to 4.2V, obtaining two discharge differential voltage analysis (DVA) curves, and determining a difference between minimum values of the two discharge DVA curves.
A method for wireless communication by a first base station of a first cell in a wireless communications network in which at least the first base station of the first cell and a second base station of a second cell share resource blocks, RBs, via a frequency division multiplexing, FDM, scheme, the method comprising: identifying a set of RBs for transmitting a physical downlink shared channel, PDSCH, wherein the second base station of the second cell is scheduled to limit transmissions using the identified set of RBs; identifying one or more guard RBs surrounding the identified set of RBs; and transmitting the PDSCH to a user equipment, UE, using the identified RBs with limited or no transmissions by either the first or second base stations in the guard RBs, wherein the use of guard RBs is optional for transmission of the PDSCH in the wireless communications network and the method further comprises: signaling the presence of guard RBs to the UE, to instruct the UE to use broadband channel estimation to decode the PDSCH, wherein broadband channel estimation uses all common reference signal, CRS, tones in frequency domain for the estimation. identifying a set of RBs for transmitting a physical downlink shared channel, PDSCH, wherein the second base station of the second cell is scheduled to limit transmissions using the identified set of RBs; identifying one or more guard RBs surrounding the identified set of RBs; and transmitting the PDSCH to a user equipment, UE, using the identified RBs with limited or no transmissions by either the first or second base stations in the guard RBs, wherein the use of guard RBs is optional for transmission of the PDSCH in the wireless communications network and the method further comprises: signaling the presence of guard RBs to the UE, to instruct the UE to use broadband channel estimation to decode the PDSCH, wherein broadband channel estimation uses all common reference signal, CRS, tones in frequency domain for the estimation. signaling the presence of guard RBs to the UE, to instruct the UE to use broadband channel estimation to decode the PDSCH, wherein broadband channel estimation uses all common reference signal, CRS, tones in frequency domain for the estimation.
A computer-implemented method executed by a remote utility to update firmware on a computing device communicatively coupled to the remote utility , wherein the remote utility completes the update procedure, comprising: retrieving an existing image of the firmware, wherein the firmware is located on a firmware storage device in the computing device ; retrieving a new image of updated firmware; analyzing the existing image and the new image; based on analysis of the existing image and the new image, creating a processed image from the existing image and the new image; and writing the processed image to the firmware storage device of the computing device ; wherein analyzing the existing image and the new image further comprises comparing the new image with the existing image and identifying a portion of the existing data that does not conflict with updates in the new image; and creating the processed image further comprises combining the updates in the new image with the portion of the existing data that does not conflict with the updates to form the processed image. retrieving an existing image of the firmware, wherein the firmware is located on a firmware storage device in the computing device ; retrieving a new image of updated firmware; analyzing the existing image and the new image; based on analysis of the existing image and the new image, creating a processed image from the existing image and the new image; and writing the processed image to the firmware storage device of the computing device ; wherein analyzing the existing image and the new image further comprises comparing the new image with the existing image and identifying a portion of the existing data that does not conflict with updates in the new image; and creating the processed image further comprises combining the updates in the new image with the portion of the existing data that does not conflict with the updates to form the processed image.
A method for producing cobalt ferrite particles, comprising performing a thermal treatment on an aqueous solution containing deionized and deaerated water and a ferrous salt and a cobalt salt stabilized by a complexing agent and an alkali, wherein the aqueous solution has a pH of 7 to 13.
A catheter for positioning and anchoring an electrode in a coronary sinus for use in a localization or ablation system, the catheter comprising: an elongate catheter body adapted to be inserted into a coronary sinus, the elongate catheter body including an anchor section having an expandable axial cross-section; at least one electrode on the catheter body ; and an actuation mechanism operably coupled to the anchor section to actuate the anchor section between an undeployed configuration, wherein the expandable axial cross-section of the anchor section is in a collapsed state, and a deployed configuration, wherein the expandable axial cross-section of the anchor section is in an expanded state, wherein, when the anchor section is in the deployed configuration, the expandable axial cross-section engages a tissue surface of the coronary sinus to inhibit movement between the catheter body and the coronary sinus without completely occluding the coronary sinus, and wherein the catheter body includes at least one perfusion passage through the interior of the catheter body having a first opening positioned distally of the anchor section and a second opening positioned proximally of the anchor section to preserve a perfusion pathway through the coronary sinus. an elongate catheter body adapted to be inserted into a coronary sinus, the elongate catheter body including an anchor section having an expandable axial cross-section; at least one electrode on the catheter body ; and an actuation mechanism operably coupled to the anchor section to actuate the anchor section between an undeployed configuration, wherein the expandable axial cross-section of the anchor section is in a collapsed state, and a deployed configuration, wherein the expandable axial cross-section of the anchor section is in an expanded state, wherein, when the anchor section is in the deployed configuration, the expandable axial cross-section engages a tissue surface of the coronary sinus to inhibit movement between the catheter body and the coronary sinus without completely occluding the coronary sinus, and wherein the catheter body includes at least one perfusion passage through the interior of the catheter body having a first opening positioned distally of the anchor section and a second opening positioned proximally of the anchor section to preserve a perfusion pathway through the coronary sinus.
A laundry treating apparatus comprising: a cabinet including a body , a body front surface fixed to the body , forming a front surface, and an inlet provided to pass through the body front surface ; a drum including a drum body provided inside the cabinet , configured for storing laundry therein, and a drum inlet provided to pass through the drum body and communicated with the inlet ; a driving unit configured for rotating the drum; a door rotatably provided in the cabinet , wherein the door comprises: a frame rotatably fixed to the cabinet , configured for opening or closing the inlet ; a front panel fixed to the frame and located on the body front surface ; and a through hole provided to pass through the front panel ; a controller configured for controlling the driving unit; and a voice recognition unit provided in the door , configured for recognizing a voice generated by a user and for transmitting a control command corresponding to the recognized voice to the controller , wherein the voice recognition unit includes a microphone located between the front panel and the frame , configured for converting a sound wave entering the through hole into an electrical signal, wherein the through hole is provided in an area below a horizontal line (H) passing through a center of the front panel . a cabinet including a body , a body front surface fixed to the body , forming a front surface, and an inlet provided to pass through the body front surface ; a drum including a drum body provided inside the cabinet , configured for storing laundry therein, and a drum inlet provided to pass through the drum body and communicated with the inlet ; a driving unit configured for rotating the drum; a door rotatably provided in the cabinet , wherein the door comprises: a frame rotatably fixed to the cabinet , configured for opening or closing the inlet ; a front panel fixed to the frame and located on the body front surface ; and a through hole provided to pass through the front panel ; a frame rotatably fixed to the cabinet , configured for opening or closing the inlet ; a front panel fixed to the frame and located on the body front surface ; and a through hole provided to pass through the front panel ; a controller configured for controlling the driving unit; and a voice recognition unit provided in the door , configured for recognizing a voice generated by a user and for transmitting a control command corresponding to the recognized voice to the controller , wherein the voice recognition unit includes a microphone located between the front panel and the frame , configured for converting a sound wave entering the through hole into an electrical signal, wherein the through hole is provided in an area below a horizontal line (H) passing through a center of the front panel .
Apparatus for determining opening of an aortic valve of a biological subject, characterized in that the apparatus including an electronic processing device configured to: a) determine a pump speed of a ventricular assist device that is assisting cardiac function of the biological subject; b) analyse the pump speed to determine a pump speed indicator at least partially indicative of changes in pump speed; and, c) use the pump speed indicator to determine an opening indicator indicative of opening of the aortic valve. a) determine a pump speed of a ventricular assist device that is assisting cardiac function of the biological subject; b) analyse the pump speed to determine a pump speed indicator at least partially indicative of changes in pump speed; and, c) use the pump speed indicator to determine an opening indicator indicative of opening of the aortic valve.
An installation protocol generation device , set up for generating an installation protocol for a tub support , in particular a bathtub support and/or shower tub support, comprising: a sensor device , set up for detecting geometric installation conditions of the surroundings of the planned installation position of the tub support and detecting installation data of the tub support installed thereafter; a control unit , set up for generating the installation protocol using the recorded installation data; a storage unit , set up for storing the installation protocol. a sensor device , set up for detecting geometric installation conditions of the surroundings of the planned installation position of the tub support and detecting installation data of the tub support installed thereafter; a control unit , set up for generating the installation protocol using the recorded installation data; a storage unit , set up for storing the installation protocol.
A device comprising: a die comprising a microfluidic device and fluidic and electrical routing for the functioning of the microfluidic device; a polymer substrate formed around the die with an upper surface of the die being fully exposed with respect to the substrate; and a separate fluid manifold attached to the polymer substrate over the die and on a same side of the substrate as the upper surface of the die, the manifold to deliver fluid to the die. a die comprising a microfluidic device and fluidic and electrical routing for the functioning of the microfluidic device; a polymer substrate formed around the die with an upper surface of the die being fully exposed with respect to the substrate; and a separate fluid manifold attached to the polymer substrate over the die and on a same side of the substrate as the upper surface of the die, the manifold to deliver fluid to the die.