mhurhangee/patent-ind-claim-en huggingface dataset:
A method of fabricating a capacitor, comprising: forming a three-dimensional structure over a substrate , the three-dimensional structure comprising a region having elongated pores extending towards the substrate from a top surface of the three-dimensional structure remote from the substrate or elongated columns extending away from the substrate towards the top surface of the three-dimensional structure remote from the substrate ; forming a first electrode layer over a surface of said region of the three-dimensional structure , the first electrode layer conformal to said surface of said region ; forming an intermediate layer over the first electrode layer ; and forming a second electrode layer over the intermediate layer, the second electrode layer conformal to the intermediate layer, wherein forming the intermediate layer comprises: forming a solid-state electrolyte layer partially conformal to the first electrode layer ; and forming a dielectric layer conformal to the first electrode layer . forming a three-dimensional structure over a substrate , the three-dimensional structure comprising a region having elongated pores extending towards the substrate from a top surface of the three-dimensional structure remote from the substrate or elongated columns extending away from the substrate towards the top surface of the three-dimensional structure remote from the substrate ; forming a first electrode layer over a surface of said region of the three-dimensional structure , the first electrode layer conformal to said surface of said region ; forming an intermediate layer over the first electrode layer ; and forming a second electrode layer over the intermediate layer, the second electrode layer conformal to the intermediate layer, wherein forming the intermediate layer comprises: forming a solid-state electrolyte layer partially conformal to the first electrode layer ; and forming a dielectric layer conformal to the first electrode layer . forming a solid-state electrolyte layer partially conformal to the first electrode layer ; and forming a dielectric layer conformal to the first electrode layer .
An electronic imaging device (P) comprising a toner cartridge (b) and a rotatable toner cartridge guide rail (F100), the toner cartridge being removably mounted in the electronic imaging device via the rotatable toner cartridge guide rail, the toner cartridge comprising: a locating column (b21), disposed and movable at one side of the toner cartridge, wherein the locating column is supported by the toner cartridge guide rail and rotates the toner cartridge guide rail when the locating column is moved by an external force; characterized in that the electronic imaging device further comprises an inspection device (PD1) having a trigger switch (SW1) for enabling the inspection device to perform an inspection operation so that when the toner cartridge guide rail is rotated in response to the external force on the locating column, the toner cartridge guide rail touches the trigger switch and turns on the trigger switch, the inspection device starts inspecting and generates a signal that the trigger switch is turned on, and as the trigger switch is turned off, the inspection device PD1 generates a signal that the trigger switch is turned off; and the electronic imaging device is configured to determine, through the signals obtained from the inspection device, whether the toner cartridge matches the electronic imaging device. a locating column (b21), disposed and movable at one side of the toner cartridge, wherein the locating column is supported by the toner cartridge guide rail and rotates the toner cartridge guide rail when the locating column is moved by an external force; characterized in that the electronic imaging device further comprises an inspection device (PD1) having a trigger switch (SW1) for enabling the inspection device to perform an inspection operation so that when the toner cartridge guide rail is rotated in response to the external force on the locating column, the toner cartridge guide rail touches the trigger switch and turns on the trigger switch, the inspection device starts inspecting and generates a signal that the trigger switch is turned on, and as the trigger switch is turned off, the inspection device PD1 generates a signal that the trigger switch is turned off; and the electronic imaging device is configured to determine, through the signals obtained from the inspection device, whether the toner cartridge matches the electronic imaging device.
A water craft, in particular a piece of water sports equipment, comprising: a) a surfboard whose upper side is provided to take a person; and b) a drive that has a propeller that is arranged at the lower side of the surfboard ; c) wherein a depression is provided at the lower side of the surfboard and forms a channel that extends along the longitudinal axis (L) of the surfboard and that is open toward the lower side; d) wherein the drive is arranged such that the surface (A P ) swept over by the propeller extends partially through the depression ; wherein e) the drive has an electric motor to drive the propeller ; f) wherein the electric motor is electrically connected to an electrical energy source that is integrated in the surfboard ; and wherein the electrical energy source is arranged in a cutout in the surfboard , characterized in that the drive is arranged at the lower side of the surfboard and is received in a watertight motor housing. a) a surfboard whose upper side is provided to take a person; and b) a drive that has a propeller that is arranged at the lower side of the surfboard ; c) wherein a depression is provided at the lower side of the surfboard and forms a channel that extends along the longitudinal axis (L) of the surfboard and that is open toward the lower side; d) wherein the drive is arranged such that the surface (A P ) swept over by the propeller extends partially through the depression ; wherein e) the drive has an electric motor to drive the propeller ; f) wherein the electric motor is electrically connected to an electrical energy source that is integrated in the surfboard ; and wherein the electrical energy source is arranged in a cutout in the surfboard , characterized in that the drive is arranged at the lower side of the surfboard and is received in a watertight motor housing.
A computer-implemented method, comprising: receiving, by a control computing device located within a physical structure , a first set of user credentials from a first user, wherein the first set of user credentials is associated with one or more of: the control computing device, a first application, or a first web service, and wherein the first set of user credentials is associated with a first user account associated with the first user; determining, by the control computing device, a structure identifier associated with the physical structure in which the control computing device and the first user are physically located; assigning, by the control computing device , the first set of user credentials to the structure identifier to generate a first set of structure credentials for the physical structure in which the control computing device and the first user are physically located; receiving, by the control computing device from a second user located within the physical structure, a voice command to control the one or more of: the control computing device, the first application, or the first web service; and in response to the voice command received from the second user, using, by the control computing device , the first set of structure credentials to control the one or more of: the control computing device, the first application, or the first web service. receiving, by a control computing device located within a physical structure , a first set of user credentials from a first user, wherein the first set of user credentials is associated with one or more of: the control computing device, a first application, or a first web service, and wherein the first set of user credentials is associated with a first user account associated with the first user; determining, by the control computing device, a structure identifier associated with the physical structure in which the control computing device and the first user are physically located; assigning, by the control computing device , the first set of user credentials to the structure identifier to generate a first set of structure credentials for the physical structure in which the control computing device and the first user are physically located; receiving, by the control computing device from a second user located within the physical structure, a voice command to control the one or more of: the control computing device, the first application, or the first web service; and in response to the voice command received from the second user, using, by the control computing device , the first set of structure credentials to control the one or more of: the control computing device, the first application, or the first web service.
An assembly comprising a fuse holder and a fuse cover , and including a fixing structure for assembling the fuse holder and the fuse cover , wherein the fuse holder holds a fuse to be connected to a bus-bar module with the fuse cover that insulates the fuse , wherein the fuse holder includes a projecting portion , wherein the fuse cover includes an engagement portion that is brought into engagement with the projecting portion , wherein the engagement portion is a through hole that penetrates the fuse cover along the assembling direction, and the through hole has a step portion that is formed by making an edge of an opening on a side facing the fuse cover in the assembling direction concave towards the side facing the fuse holder , and wherein the projecting portion has a return portion that is inserted through the through hole to be brought into engagement with the step portion , characterized in that, the projecting portion projects in an assembling direction with the fuse cover , and wherein in the return portion that is in engagement with the step portion , an end portion on the side facing the fuse cover in the assembling direction is positioned near a circumferential edge of the opening of the through hole on the side facing the fuse cover , so that the return portion is held between the step portion and the circumferential edge of the opening and a hole wall portion of the through holes, wherein a return length (L) of the return portion in the assembling direction is set substantially the same as a step height (H) of the step portion in the assembling direction, so that the whole of the return portion interferes with the hole wall portion of the engagement portion .
Method for manufacturing a composite pressurized-fluid vessel comprising a step of winding a first polyolefin resin-based tape in order to form a first layer of the vessel, a step of depositing an intermediate second layer on the first layer , consisting of a material having variable permeability properties depending on the temperature and in particular permeability below a determined threshold temperature and non-permeability above the threshold temperature, the method comprising a step of winding a second resin-based tape on the intermediate second layer in order to form a third layer , characterized in that the tape forming the third layer is based on a different resin from the resin of the first layer and in that , during the step of depositing the intermediate second layer and during the step of winding the second tape, the intermediate second layer is kept at a temperature above the threshold temperature, the method then comprising a step of cooling the intermediate second layer to a temperature below the threshold temperature while the first and third layers are each kept at a temperature above the melting temperature of their resin.
Spray vehicle for applying a two-component epoxy adhesive comprising one or more storage spaces and a heating device for these components, a mixing device for mixing the components and conduits to a spray body provided at the rear of the spray vehicle, characterized in, that the spray body has a variable length, wherein the spray vehicle comprises 6-10 nozzles coupled to the spray body, wherein the nozzles are positioned equidistant from each other and further characterized in that each of the 6-10 nozzles can be individually switched off automatically.
A method comprising: creating a thread and identifying that said thread is to use an accelerator of a plurality of accelerators ; receiving from a processor including said accelerator an amount of storage space for storing said accelerator's context ; creating an allocated storage space by allocating said amount of storage space ; executing said thread on said processor and utilizing said accelerator to create context information of said accelerator for said thread ; in response to a decision to place said thread in an inactive state , storing said context information in said allocated storage space ; storing a vector commensurate with said storing of said context information, said vector identifying said accelerator; and in response to a decision to reactivate said thread, reading said vector to determine that said accelerator has saved context information, reading said context information of said accelerator for said thread from said allocated storage space, and reincorporating said context information into said accelerator. creating a thread and identifying that said thread is to use an accelerator of a plurality of accelerators ; receiving from a processor including said accelerator an amount of storage space for storing said accelerator's context ; creating an allocated storage space by allocating said amount of storage space ; executing said thread on said processor and utilizing said accelerator to create context information of said accelerator for said thread ; in response to a decision to place said thread in an inactive state , storing said context information in said allocated storage space ; storing a vector commensurate with said storing of said context information, said vector identifying said accelerator; and in response to a decision to reactivate said thread, reading said vector to determine that said accelerator has saved context information, reading said context information of said accelerator for said thread from said allocated storage space, and reincorporating said context information into said accelerator.
Device (10, 10.1, 10.2, 10.m, 10.n) for the implementation of a distributed server structure in a building system , wherein the building system comprises a fieldbus which has at least one fieldbus line (2, 2.1, 2.2, 2.n) to which at least one bus device (3, 3.1) is connected, wherein by means of a data network that is at a higher level than the building system , at least one client (5, 5.1, 5.n) can access the fieldbus via a network connection , wherein the device has a network port for communicating with at least one client (5, 5.1, 5.n) via a network connection , the device has a functional module having a server function, and therefore the device is designed to provide information from the fieldbus to the at least one client (5, 5.1, 5.n), the device (10, 10.1, 10.2, 10.m, 10.n) has at least one fieldbus port for communicating with the fieldbus, and the device (10, 10.1, 10.2, 10.m, 10.n) has an internal memory , which contains an at least partial process image of the fieldbus line (2, 2.1, 2.2, 2.n) connected to the fieldbus, characterized in that the device has a synchronization connection , with the use of which the devices (10, 10.1, 10.2, 10.m, 10.n) in the building system are continuously synchronized with one another either entirely or partially, with the result that all or some of the stored information is identical.
A medical air mattress comprising: A lower bedspread ; a mattress body mounted on the lower bedspread comprising multiple body air cells , substantially parallel to each other and arranged in a row forming an air cell row; an upper bedspread configured to cover an upper surface of the mattress body ; connected securely to the lower bedspread a pumping assembly comprising: a pump ; and at least a pipeline connecting the pump with the body air cells , and a guardrail, characterized in that the guardrail includes a guardrail unit and at least one guardrail sleeve formed adjacent to longitudinal edges of the upper bedspread, the guardrail unit including at least one guardrail air cell ; the pump assembly further including a guardrail pipeline connected between the pump and the guardrail air cell ; said guardrail pipeline configured to enable fluid to flow between said pump and said at least one of said guardrail air cells, the at least one guardrail sleeve positioned on at least one side of the upper bedspread , the at least one guardrail sleeve having at least one sleeve body , wherein the at least one guardrail air cell is positioned in the sleeve body of the guardrail sleeve . A lower bedspread ; a mattress body mounted on the lower bedspread comprising multiple body air cells , substantially parallel to each other and arranged in a row forming an air cell row; an upper bedspread configured to cover an upper surface of the mattress body ; connected securely to the lower bedspread a pumping assembly comprising: a pump ; and at least a pipeline connecting the pump with the body air cells , a pump ; and at least a pipeline connecting the pump with the body air cells , and a guardrail, characterized in that the guardrail includes a guardrail unit and at least one guardrail sleeve formed adjacent to longitudinal edges of the upper bedspread, the guardrail unit including at least one guardrail air cell ; the pump assembly further including a guardrail pipeline connected between the pump and the guardrail air cell ; said guardrail pipeline configured to enable fluid to flow between said pump and said at least one of said guardrail air cells, the at least one guardrail sleeve positioned on at least one side of the upper bedspread , the at least one guardrail sleeve having at least one sleeve body , wherein the at least one guardrail air cell is positioned in the sleeve body of the guardrail sleeve .
Release liner removal apparatus, comprising. a) at least one release liner removal device for removing at least one release liner from at least one adhesive piece arranged on a material web , b) at least one support body which supports the at least one release liner removal device , and c) at least one guide body which is arranged adjacent to the at least one release liner removal device at least during the removal of the at least one release liner for which serves for guiding the material web , characterized in that d) the at least one release liner removal device is designed as a negative-pressure body. a) at least one release liner removal device for removing at least one release liner from at least one adhesive piece arranged on a material web , b) at least one support body which supports the at least one release liner removal device , and c) at least one guide body which is arranged adjacent to the at least one release liner removal device at least during the removal of the at least one release liner for which serves for guiding the material web , characterized in that d) the at least one release liner removal device is designed as a negative-pressure body.
A device comprising: a flexible glass optical waveguide structure comprising a flexible glass substrate having a thickness of no greater than about 0.3 mm, the flexible glass substrate having at least one waveguide feature that transmits optical signals through the flexible glass substrate , the at least one waveguide feature being formed of glass material that forms the flexible glass substrate ; and a first electro-optical device connected to a substrate , and a second optical or electro-optical device connected to the substrate , wherein the flexible glass optical waveguide structure optically connects the first and second devices, characterized in that the substrate is formed of multiple layers , the flexible glass optical waveguide structure at least partially extending between the multiple layers of the substrate . a flexible glass optical waveguide structure comprising a flexible glass substrate having a thickness of no greater than about 0.3 mm, the flexible glass substrate having at least one waveguide feature that transmits optical signals through the flexible glass substrate , the at least one waveguide feature being formed of glass material that forms the flexible glass substrate ; and a first electro-optical device connected to a substrate , and a second optical or electro-optical device connected to the substrate , wherein the flexible glass optical waveguide structure optically connects the first and second devices, characterized in that the substrate is formed of multiple layers , the flexible glass optical waveguide structure at least partially extending between the multiple layers of the substrate .
A ballistic-resistant composite comprising: at least one layer including a network of ballistic fibers and a resin matrix , the resin matrix including blocked isocyanate composed of isocyanate bonded with a blocking agent, the resin matrix being cross-linkable by heating to a temperature that causes the isocyanate to liberate from the blocking agent and the liberated isocyanate to reactively cause cross-linking of the resin matrix , characterised in that prior to heating and crosslinking, the resin matrix includes, by weight, from 0.2% to 25% of the blocked isocyanate . at least one layer including a network of ballistic fibers and a resin matrix , the resin matrix including blocked isocyanate composed of isocyanate bonded with a blocking agent, the resin matrix being cross-linkable by heating to a temperature that causes the isocyanate to liberate from the blocking agent and the liberated isocyanate to reactively cause cross-linking of the resin matrix , characterised in that prior to heating and crosslinking, the resin matrix includes, by weight, from 0.2% to 25% of the blocked isocyanate .
A controller for a hybrid vehicle , the hybrid vehicle comprising: an engine capable of outputting power for travel; an electric motor (MG1, MG2; 203) capable of outputting power for travel; a power transmission system (2a, 3, MG1, MG2, 7, 3e; 201, 202, 203, 204, 205, ...) permitting power transmission to driving wheels along with manual selection of gear steps; and a gear shift indicator (16,67;68) prompting a driver to change the gear steps; the controller being characterized in that , among the gear steps selectable in the power transmission system, one or more gear steps allowing the engine to be shut down and one or more gear steps not allowing the engine to be shut down are set in advance; during the manual shifting mode (S), in which the gear steps are shifted manually, the controller determines whether automatic engine shutdown conditions have been met in a state in which the engine is operated, and when the current gear step of the power transmission system at a time when the automatic engine shutdown conditions have been met is one of the gear step(s) (1 st -5 th ; 4 th -6 th ) that do not allow the engine to be shut down, the gear shift indicator prompts the driver to change the current gear step to one of the gear step(s) (6 th ; 1 st -3 rd ) that allows the engine to be shut down, and the change to the gear step (6 th ; 1 st -3 rd ) that allows the engine to be shut down is to change a transmission ratio, which is a ratio of the rotational speed of the engine (Ne) to the rotational speed (Nr) of a drive shaft of the power transmission system, while keeping the engine operated.