mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing driver assistance in an industrial truck, in particular a forklift, which comprises a steering apparatus and a surrounding area display system which comprises at least one camera, an image processing apparatus and a display apparatus arranged in the region of a driver's position of the industrial truck, wherein a steering angle of the steering apparatus is captured and images of at least part of the surrounding area of the industrial truck are captured by means of the at least one camera and a travel path (1, 2, 4; 12, 14) of the industrial truck corresponding to the captured steering angle is superimposed on the captured images in the image processing apparatus and the images having the superimposed travel path (1, 2, 4; 12, 14) are displayed on the display apparatus , characterised in that a travel path (3; 16) of a load transported on the industrial truck, which corresponds to the captured steering angle, is superimposed on the captured images and displayed.
A method of forming a hair perm using an oxidizing agent, wherein the oxidizing agent consists of hydrogen water (HW), and the hydrogen water (HW) has a pH of 7.0 to 7.9.
Method for the production of flat metal products, in particular coils of strip, in endless and/or semi-endless mode, in which a metal product is continuously fed to a rolling mill consisting overall of at least 4 stands, in which the rolling stands are, in sequence, roughing stands , and finishing stands , wherein it is provided to perform a flying gauge change, namely a change of thickness without interrupting the rolling process, of the metal product exiting from the rolling mill, characterized in that at least the rotation speed of the rollers of the first stand of the rolling mill and their gap are not modified during the flying gauge change of the strip .
A wireless communication method, comprising: receiving, by a wireless communication device from a base station, a list of open-loop power control parameter sets; receiving, by the wireless communication device from the base station a downlink control information, DCI, comprising an open-loop power control parameter set indicator, OLI, and a sounding reference signal, SRS, resource indicator, SRI, wherein, the OLI indicates a subset of the list of open-loop power control parameter sets, the SRI indicates an open-loop power control parameter set from the subset; determining, by the wireless communication device, the open-loop power control parameter set from the list of open-loop power control parameter sets according to the subset indicated by the OLI and the open-loop power control parameter set indicated by the SRI; and performing, by the wireless communication device, power control for a transmission scheduled by the DCI using the open-loop power control parameter set. receiving, by a wireless communication device from a base station, a list of open-loop power control parameter sets; receiving, by the wireless communication device from the base station a downlink control information, DCI, comprising an open-loop power control parameter set indicator, OLI, and a sounding reference signal, SRS, resource indicator, SRI, wherein, the OLI indicates a subset of the list of open-loop power control parameter sets, the SRI indicates an open-loop power control parameter set from the subset; determining, by the wireless communication device, the open-loop power control parameter set from the list of open-loop power control parameter sets according to the subset indicated by the OLI and the open-loop power control parameter set indicated by the SRI; and performing, by the wireless communication device, power control for a transmission scheduled by the DCI using the open-loop power control parameter set.
Use as a refrigerant in a heat pump system in an electric vehicle of a composition comprising from 3 to 30% by weight 1,1-difluoroethylene (R-1132a) based on the total weight of the composition and at least one fluorocarbon refrigerant compound selected from the group consisting of 2,3,3,3-tetrafluoropropene (R-1234yf), difluoromethane (R-32), 1,3,3,3-tetrafluoropropene (R-1234ze(E)) and 1,1-difluoroethane (R-152a).
A semiconductor light emitting device comprising: a substrate of alumina or aluminium nitride, the substrate having a face ; a flexible film that includes therein an optical element , wherein the flexible film is silicone-based and conforms to the substrate face as it expands and contracts during operation; and a semiconductor light emitting diode between the substrate and the flexible film and configured to emit light through the optical element, wherein the optical element comprises a lens. a substrate of alumina or aluminium nitride, the substrate having a face ; a flexible film that includes therein an optical element , wherein the flexible film is silicone-based and conforms to the substrate face as it expands and contracts during operation; and a semiconductor light emitting diode between the substrate and the flexible film and configured to emit light through the optical element, wherein the optical element comprises a lens.
A method of printing an image on a textile, the method comprising: coating and curing the textile with a coating solution comprising from 0.1 weight percent to 2 weight percent of an orthosilicate, from 70 weight percent to 85 weight percent of a water miscible solvent, from 5 weight percent to 15 weight percent water and from 10 weight percent to 20 weight percent ammonium hydroxide, thereby creating a silica network attached to the textile; and applying an ink composition to the silica network, forming an image on the silica network. coating and curing the textile with a coating solution comprising from 0.1 weight percent to 2 weight percent of an orthosilicate, from 70 weight percent to 85 weight percent of a water miscible solvent, from 5 weight percent to 15 weight percent water and from 10 weight percent to 20 weight percent ammonium hydroxide, thereby creating a silica network attached to the textile; and applying an ink composition to the silica network, forming an image on the silica network.
A fluid dispensing toothbrush comprising: a head including a plurality of tooth cleaning elements; a storage member for storing a fluid; at least one fluid outlet disposed in the head for dispensing the fluid and having a shape; a channel fluidly coupling the storage member to the outlet; and a storage cap removably attachable to the head of the toothbrush, the cap including a sealing socket configured to substantially conform to the shape of the fluid outlet, wherein when the storage cap is attached to the toothbrush head, the socket is operative to at least partially seal the fluid outlet to minimize evaporative loss of the fluid, characterized in that , the channel is formed of a wicking material. a head including a plurality of tooth cleaning elements; a storage member for storing a fluid; at least one fluid outlet disposed in the head for dispensing the fluid and having a shape; a channel fluidly coupling the storage member to the outlet; and a storage cap removably attachable to the head of the toothbrush, the cap including a sealing socket configured to substantially conform to the shape of the fluid outlet, wherein when the storage cap is attached to the toothbrush head, the socket is operative to at least partially seal the fluid outlet to minimize evaporative loss of the fluid, characterized in that , the channel is formed of a wicking material.
A method for transmitting a data unit by a transmitting device in a wireless communication system, the method comprising: submitting (S703), by a packet data convergence protocol, PDCP, entity of the transmitting device, configured with a PDCP duplication function, a PDCP protocol data unit, PDU, which corresponds to a duplicated PDCP PDU 1, to a lower layer and starting a prohibit timer for the duplicated PDCP PDU 1; submitting (S705), by the PDCP entity, the same PDCP PDU, which corresponds to a duplicated PDCP PDU 2, to the lower layer if the prohibit timer expires; and transmitting, by the transmitting device, the duplicated PDCP PDU 1 and the duplicated PDCP PDU 2, wherein the duplicated PDCP PDU 1 and the duplicated PDCP PDU 2 are loaded into transport blocks transmitted at different time instances. submitting (S703), by a packet data convergence protocol, PDCP, entity of the transmitting device, configured with a PDCP duplication function, a PDCP protocol data unit, PDU, which corresponds to a duplicated PDCP PDU 1, to a lower layer and starting a prohibit timer for the duplicated PDCP PDU 1; submitting (S705), by the PDCP entity, the same PDCP PDU, which corresponds to a duplicated PDCP PDU 2, to the lower layer if the prohibit timer expires; and transmitting, by the transmitting device, the duplicated PDCP PDU 1 and the duplicated PDCP PDU 2, wherein the duplicated PDCP PDU 1 and the duplicated PDCP PDU 2 are loaded into transport blocks transmitted at different time instances.
A conduit connector, including: a first hub with a first cavity section, a second hub with a second cavity section, wherein said first and second cavity sections form a cavity when the first and second hubs are connected, wherein the first cavity section includes a first protrusion with inner and outer tapering sidewalls (5a, b), the second cavity section includes a second protrusion with inner and outer tapering sidewalls (5a, b), wherein the first protrusion is facing the second protrusion when the two hubs are connected, a seal ring located in said cavity, characterized in that the seal ring includes an inner annular sealing portion and an outer annular sealing portion , wherein the sealing portions (3a, b) are disconnected from each other allowing them to move completely freely relative to each other during operation, the inner sealing portion comprising a pair of inner annular seal lips , the outer sealing portion comprising a pair of outer annular seal lips , the lips of the inner sealing portion engaging the inner sidewalls of the first and second protrusions (4a, b), the lips of the outer sealing portion engaging the outer sidewalls of the first and second protrusions (4a, b), wherein the inner annular sealing portion is separated from the outer annular sealing portion by wedging action provided by the tapered sidewalls (5a, b), and wherein fluid pressure inside the connector is only acting on and affecting the inner sealing portion , and fluid pressure on the outside of the connector is only acting on and affecting the outer sealing portion . a first hub with a first cavity section, a second hub with a second cavity section, wherein said first and second cavity sections form a cavity when the first and second hubs are connected, wherein the first cavity section includes a first protrusion with inner and outer tapering sidewalls (5a, b), the second cavity section includes a second protrusion with inner and outer tapering sidewalls (5a, b), wherein the first protrusion is facing the second protrusion when the two hubs are connected, a seal ring located in said cavity, characterized in that the seal ring includes an inner annular sealing portion and an outer annular sealing portion , wherein the sealing portions (3a, b) are disconnected from each other allowing them to move completely freely relative to each other during operation, the inner sealing portion comprising a pair of inner annular seal lips , the outer sealing portion comprising a pair of outer annular seal lips , the lips of the inner sealing portion engaging the inner sidewalls of the first and second protrusions (4a, b), the lips of the outer sealing portion engaging the outer sidewalls of the first and second protrusions (4a, b), wherein the inner annular sealing portion is separated from the outer annular sealing portion by wedging action provided by the tapered sidewalls (5a, b), and wherein fluid pressure inside the connector is only acting on and affecting the inner sealing portion , and fluid pressure on the outside of the connector is only acting on and affecting the outer sealing portion .
A transdermal composition containing donepezil as an active ingredient, the transdermal composition comprising: (a) a backing layer; (b) a drug-containing matrix layer comprising, based on a total weight of the drug-containing matrix layer, (b-1) 15-55 wt% of donepezil or a pharmaceutically acceptable salt thereof, (b-2) 25-70 wt% of an EVA-based adhesive, (b-3) 5-20 wt% of at least one selected from the group consisting of a pyrrolidone derivative and a C 8-18 aliphatic derivative, and (b-4) 1-10 wt% of triacetin or a citric acid derivative, (c) a polymer adhesive matrix layer comprising, based on a total weight of the polymer adhesive matrix layer, 60 wt% or more of an acrylic adhesive, wherein the acrylic adhesive does not contain a functional group; and (d) a release layer. (a) a backing layer; (b) a drug-containing matrix layer comprising, based on a total weight of the drug-containing matrix layer, (b-1) 15-55 wt% of donepezil or a pharmaceutically acceptable salt thereof, (b-2) 25-70 wt% of an EVA-based adhesive, (b-3) 5-20 wt% of at least one selected from the group consisting of a pyrrolidone derivative and a C 8-18 aliphatic derivative, and (b-4) 1-10 wt% of triacetin or a citric acid derivative, (b-1) 15-55 wt% of donepezil or a pharmaceutically acceptable salt thereof, (b-2) 25-70 wt% of an EVA-based adhesive, (b-3) 5-20 wt% of at least one selected from the group consisting of a pyrrolidone derivative and a C 8-18 aliphatic derivative, and (b-4) 1-10 wt% of triacetin or a citric acid derivative, (c) a polymer adhesive matrix layer comprising, based on a total weight of the polymer adhesive matrix layer, 60 wt% or more of an acrylic adhesive, wherein the acrylic adhesive does not contain a functional group; and (d) a release layer.
A stair assembly (SA) to be arranged in a stairwell opening (SO) of an upper floor (UF), comprising: - a girder assembly (GA); - a plurality of steps (ST) mounted to the girder assembly, - a guard structure (GS); wherein the girder assembly is pivotably mountable to the upper floor to pivot about a pivot axis (PA1, PA2) between an operational position, in which the girder assembly extends obliquely downwards between the upper floor and a lower floor to allow access from the upper floor to the lower floor, and a hidden position, in which the girder assembly extends horizontally in the stairwell opening parallel to the upper floor, characterized in that the moveable guard structure is moveable between an operational position, in which the guard structure extends upwards from the upper floor to prevent a person from inadvertently falling into the stairwell opening, and a hidden position, in which the guard structure has moved downwards relative to the operational position, and in that the stair assembly is configured such that when the girder assembly and the guard structure are in their respective hidden positions a person is able to walk over the stair assembly as part of the upper floor. - a girder assembly (GA); - a plurality of steps (ST) mounted to the girder assembly, - a guard structure (GS); wherein the girder assembly is pivotably mountable to the upper floor to pivot about a pivot axis (PA1, PA2) between an operational position, in which the girder assembly extends obliquely downwards between the upper floor and a lower floor to allow access from the upper floor to the lower floor, and a hidden position, in which the girder assembly extends horizontally in the stairwell opening parallel to the upper floor, characterized in that the moveable guard structure is moveable between an operational position, in which the guard structure extends upwards from the upper floor to prevent a person from inadvertently falling into the stairwell opening, and a hidden position, in which the guard structure has moved downwards relative to the operational position, and in that the stair assembly is configured such that when the girder assembly and the guard structure are in their respective hidden positions a person is able to walk over the stair assembly as part of the upper floor.
A method for preparing frozen coconut containing frozen coconut meat and frozen coconut water, in which the entire coconut shell is preserved intact with coconut meat and coconut water inside the coconut shell, the method comprising: a. dehusking a coconut to remove an outer green layer and at least a majority portion of a fibrous husk thereof; b. drying said dehusked coconut until it weighs at least 5% less than its weight prior to drying; and c. freezing the coconut in an environment at or below 0 degrees Celsius. a. dehusking a coconut to remove an outer green layer and at least a majority portion of a fibrous husk thereof; b. drying said dehusked coconut until it weighs at least 5% less than its weight prior to drying; and c. freezing the coconut in an environment at or below 0 degrees Celsius.
A method for controlling a high electron mobility transistor including a semiconductor structure having a fin extending between a source and a drain of the transistor, wherein a top gate of the transistor is arranged on top of the fin and two side gates of the transistor are arranged on opposite sidewalls of the fin at a distance from the top gate , wherein the semiconductor structure includes a heterostructure formed by a cap layer positioned beneath the top gate and a channel layer arranged beneath the cap layer for providing electrical conduction, wherein the cap layer includes nitride-based semiconductor material to enable the heterostructure forming a carrier channel between the source and the drain , such that a two-dimensional electron gas, 2-DEG, is formed at an interface of the cap layer and the channel layer , the method comprising: applying a voltage to the top gate with respect to the source to modulate the conductivity of the carrier channel between the source and the drain ; and applying a voltage to the side gates with respect to the source to modulate a threshold voltage of the top gate of the transistor wherein the method comprises increasing a negative bias applied to the side gates for increasing the threshold voltage of the top gate , further comprising: measuring the threshold voltage of the top gate ; detecting a request to change a sign of the threshold voltage with respect to the source ; and applying a positive voltage to the side gates when the measured threshold voltage is positive and the negative threshold voltage is required; and otherwise applying a negative voltage to the side gates when the measured threshold voltage is negative and the positive threshold voltage is required. applying a voltage to the top gate with respect to the source to modulate the conductivity of the carrier channel between the source and the drain ; and applying a voltage to the side gates with respect to the source to modulate a threshold voltage of the top gate of the transistor wherein the method comprises increasing a negative bias applied to the side gates for increasing the threshold voltage of the top gate , further comprising: measuring the threshold voltage of the top gate ; detecting a request to change a sign of the threshold voltage with respect to the source ; and applying a positive voltage to the side gates when the measured threshold voltage is positive and the negative threshold voltage is required; and otherwise applying a negative voltage to the side gates when the measured threshold voltage is negative and the positive threshold voltage is required. measuring the threshold voltage of the top gate ; detecting a request to change a sign of the threshold voltage with respect to the source ; and applying a positive voltage to the side gates when the measured threshold voltage is positive and the negative threshold voltage is required; and otherwise applying a negative voltage to the side gates when the measured threshold voltage is negative and the positive threshold voltage is required.
A web for down padding having a basis weight of 70 to 150 g/m 2 , wherein: the web for down padding comprises: 25.0 to 50.0% by weight of a mixed down containing a mixture of feather with at least one selected from goose down and duck down; 9.0 to 18.0% by weight of hollow conjugate short fiber; 13.0 to 21.0% by weight of RSS (Regular Solid Siliconized Fiber) short fiber; and the remaining amount of non-stretchable low melting sheath-core composite fiber out of 100% by weight, a sheath part of the non-stretchable low melting sheath-core composite fiber is composed PET (polyethylene terephthalate) resin having a melting point of 100 to 150 °C, and a core part thereof is composed PET (polyethylene terephthalate) resin having a melting point of 250 °C or more, and the hollow conjugate short fiber and the RSS short fiber have a melting point of 260 °C or higher, wherein the hollow conjugate short fiber has an average fineness of 2.0 to 3.5 denier, an average fiber length of 45 to 60 mm, and the RSS short fiber has an average fineness of 2.0 to 3.5 denier, an average fiber length of 45 to 60 mm, and a number of crimps of 5.9 to 9.1/cm (15 to 23/inch). 25.0 to 50.0% by weight of a mixed down containing a mixture of feather with at least one selected from goose down and duck down; 9.0 to 18.0% by weight of hollow conjugate short fiber; 13.0 to 21.0% by weight of RSS (Regular Solid Siliconized Fiber) short fiber; and the remaining amount of non-stretchable low melting sheath-core composite fiber out of 100% by weight, a sheath part of the non-stretchable low melting sheath-core composite fiber is composed PET (polyethylene terephthalate) resin having a melting point of 100 to 150 °C, and a core part thereof is composed PET (polyethylene terephthalate) resin having a melting point of 250 °C or more, and the hollow conjugate short fiber and the RSS short fiber have a melting point of 260 °C or higher, wherein the hollow conjugate short fiber has an average fineness of 2.0 to 3.5 denier, an average fiber length of 45 to 60 mm, and the RSS short fiber has an average fineness of 2.0 to 3.5 denier, an average fiber length of 45 to 60 mm, and a number of crimps of 5.9 to 9.1/cm (15 to 23/inch).