mhurhangee/ep-ind-claims huggingface dataset:
A method for power control parameter determination, comprising: receiving one higher-layer signaling, wherein the high-layer signaling comprises a correspondence between M transmission configuration indication, TCI, states and power control parameters, M being an integer and M >=1; wherein each of the M TCI states comprises: a quasi-co-location, QCL, type, a source reference signal, a reference serving cell, and a reference bandwidth part, BWP; each of the power control parameters comprises: a parameter used for determining a target receive power, a parameter used for determining a pathloss weight factor, a downlink reference signal used for pathloss measurement, and a parameter used for determining a closed-loop power control adjustment state; activating, via a media access control-control element, MAC CE, K TCI states from the M TCI states, K ≤ M; determining a target TCI state for an uplink signal from the K TCI states according to TCI-state indication information in downlink control information, DCI, wherein each indication value of the TCI-state indication information corresponds to one or more TCI states among the K TCI states, wherein the uplink signal is a physical uplink shared channel, PUSCH or an a periodic sounding reference signal, SRS; and determining a power control parameter of the uplink signal according to the target TCI state and the correspondence between M TCI states and power control parameters comprised in the higher-layer signaling. receiving one higher-layer signaling, wherein the high-layer signaling comprises a correspondence between M transmission configuration indication, TCI, states and power control parameters, M being an integer and M >=1; wherein each of the M TCI states comprises: a quasi-co-location, QCL, type, a source reference signal, a reference serving cell, and a reference bandwidth part, BWP; each of the power control parameters comprises: a parameter used for determining a target receive power, a parameter used for determining a pathloss weight factor, a downlink reference signal used for pathloss measurement, and a parameter used for determining a closed-loop power control adjustment state; activating, via a media access control-control element, MAC CE, K TCI states from the M TCI states, K ≤ M; determining a target TCI state for an uplink signal from the K TCI states according to TCI-state indication information in downlink control information, DCI, wherein each indication value of the TCI-state indication information corresponds to one or more TCI states among the K TCI states, wherein the uplink signal is a physical uplink shared channel, PUSCH or an a periodic sounding reference signal, SRS; and determining a power control parameter of the uplink signal according to the target TCI state and the correspondence between M TCI states and power control parameters comprised in the higher-layer signaling.
A liquid crystal composition, comprising a compound of Formula selected from compounds of Formula and, and a chiral dopant, and exhibiting an optically isotropic liquid crystal phase: wherein R 1 is any one of the groups of Formulas (CHN-1)-(CHN-19), R 1a is hydrogen or a C 1-20 alkyl; rings A 3 and A 4 are independently a group of Formula (RG-1), (RG-5), (RG-7), (RG-8-1)-(RG-8-5), (RG-9), (RG-10), (RG-11-1), (RG-13), or (RG-15); Z 3, Z 4 and Z 5 are independently a single bond, -CH 2 CH 2 -, -CH=CH-, -C≡C-, -COO-, -CF 2 O-,-CH 2 O-, or -OCH 2 - provided that at least one of Z 3, Z 4 and Z 5 is -CF 2 O-; L 1 and L 2 are independently hydrogen or halogen; X 1 is hydrogen, halogen, -C=N, -N=C=S, -C=C-C=N,-SF 5, or a C 1-10 alkyl, wherein arbitrary -CH 2 - in the alkyl may be replaced by -O-, -S-, - CH=CH-, or -C=C-, and arbitrary hydrogen in the alkyl and the alkyl with arbitrary -CH 2 -replaced by -O-, -S-, -CH=CH-, or -C=C- may be replaced by halogen;
A negative electrode active material comprising: a silicon-based composite represented by SiOa (0≤a<1); and a carbon coating layer distributed on a surface of the silicon-based composite; wherein the silicon-based composite has a bimodal pore structure including mesopores and macropores; and wherein the specific surface area of the negative electrode active material is in the range of 1 to 20 m 2 /g. a silicon-based composite represented by SiOa (0≤a<1); and a carbon coating layer distributed on a surface of the silicon-based composite; wherein the silicon-based composite has a bimodal pore structure including mesopores and macropores; and wherein the specific surface area of the negative electrode active material is in the range of 1 to 20 m 2 /g.
A compound, comprising a polymer formed of units each represented by the following general formula, wherein: the compound has hyaluronic acid having a molecular weight of less than 50,000 as its skeleton, R 1 's are independent of each other from unit to unit in the general formula; and the polymer contains at least one unit having one of the following general formula and the following general formula as R 1 in the general formula, and at least one unit having the following general formula as R 1 in the general formula: provided that: in the general formula, the general formula, and the general formula, L's represent linkers independent of each other from unit to unit, and * represents a binding site with N in the general formula; and in the general formula, R 2 represents any one of H, OH, OMe, NH 2, and COOH, and k represents an integer of 20 or more and 200 or less. the compound has hyaluronic acid having a molecular weight of less than 50,000 as its skeleton, R 1 's are independent of each other from unit to unit in the general formula; and the polymer contains at least one unit having one of the following general formula and the following general formula as R 1 in the general formula, and at least one unit having the following general formula as R 1 in the general formula: provided that: in the general formula, the general formula, and the general formula, L's represent linkers independent of each other from unit to unit, and * represents a binding site with N in the general formula; and in the general formula, R 2 represents any one of H, OH, OMe, NH 2, and COOH, and k represents an integer of 20 or more and 200 or less.
A method for producing an artificial basin, comprising: - a step of constructing a sloping bottom; - a step of applying a waterproofing layer on the bottom; - a step of laying an intermediate layer of geotextile; - a step of applying a stabilisation layer, based on granular material of mineral origin, over the intermediate layer of geotextile; - a step of laying an upper layer of geotextile on the stabilisation layer; - a step of distributing a layer of sand over the upper layer of geotextile; and - a step of filling the artificial basin with a volume of water; characterised in that it comprises: - a step of laying a lower layer of geotextile on the waterproofing layer; - a step of applying a separation layer, based on granular material of mineral origin having a particle size smaller than that of the stabilisation layer, over the lower layer of geotextile; each of said layers entirely covering the layer which precedes it, said method further comprising a step of installing drainage means between the waterproofing layer and the separation layer, above the lower layer of geotextile. - a step of constructing a sloping bottom; - a step of applying a waterproofing layer on the bottom; - a step of laying an intermediate layer of geotextile; - a step of applying a stabilisation layer, based on granular material of mineral origin, over the intermediate layer of geotextile; - a step of laying an upper layer of geotextile on the stabilisation layer; - a step of distributing a layer of sand over the upper layer of geotextile; and - a step of filling the artificial basin with a volume of water; - a step of laying a lower layer of geotextile on the waterproofing layer; - a step of applying a separation layer, based on granular material of mineral origin having a particle size smaller than that of the stabilisation layer, over the lower layer of geotextile;
An electrotherapeutic device for muscle stimulation, comprising: a main body configured to generate an electric current; and a conductor connected to the main body via a suction guide cord in both an electrical and a suction path manner, and having a conductive portion electrically connected to the body surface of the user via an absorber containing conductive liquid, and a suction portion configured to adhere the conductor to the body surface of the user, characterized in that the conductor further comprises: an inner cover covering the conductive portion; and an outer cover disposed outside the inner cover, wherein each of the inner cover and the outer cover has a contacting portion configured to contact with the body surface of the user, and the suction portion is disposed between the inner cover and the outer cover while keeping it separated from the conductive portion. a main body configured to generate an electric current; and a conductor connected to the main body via a suction guide cord in both an electrical and a suction path manner, and having a conductive portion electrically connected to the body surface of the user via an absorber containing conductive liquid, and a suction portion configured to adhere the conductor to the body surface of the user, characterized in that the conductor further comprises: an inner cover covering the conductive portion; and an outer cover disposed outside the inner cover, wherein each of the inner cover and the outer cover has a contacting portion configured to contact with the body surface of the user, and the suction portion is disposed between the inner cover and the outer cover while keeping it separated from the conductive portion. an inner cover covering the conductive portion; and an outer cover disposed outside the inner cover, wherein each of the inner cover and the outer cover has a contacting portion configured to contact with the body surface of the user, and the suction portion is disposed between the inner cover and the outer cover while keeping it separated from the conductive portion.
A method for producing glass-ceramic sheets, comprising: texturing at least one surface of a first glass sheet, wherein an R RMS average surface roughness of the textured surface of the first glass sheet is 1.00 μm or more; stacking the first glass sheet and a second glass sheet wherein the textured surface of the first glass sheet contacts a surface of the second glass sheet; ceramming the first glass sheet and the second glass sheet; separating the first cerammed glass sheet and the second cerammed glass sheet. texturing at least one surface of a first glass sheet, wherein an R RMS average surface roughness of the textured surface of the first glass sheet is 1.00 μm or more; stacking the first glass sheet and a second glass sheet wherein the textured surface of the first glass sheet contacts a surface of the second glass sheet; ceramming the first glass sheet and the second glass sheet; separating the first cerammed glass sheet and the second cerammed glass sheet.
Construction element including a concrete body and at least one straight edging strip that is anchored in the concrete body to form at least a part of an edge of the construction element, the edging strip extending along a straight line and having two main faces extending along said straight line, the edging strip including a magnet intended to press the edge against a wall of a mould for manufacturing the construction element, the magnet being arranged on one of the main faces of the edging strip so as to project from said face, the edging strip being rigidly secured to the concrete body so as to form therewith a rigid whole and an upper portion of the edging strip projecting beyond an upper face of the concrete body.
An elevator activation system, wherein the elevator activation system comprises: a. a plurality of buttons positioned on an operating panel and configured to be activated by physical contact, wherein the plurality of buttons are positioned along multiple horizontal and vertical axes; b. an optical sensing device (102, 302), wherein the optical sensing device (102, 103) is configured to project an optical curtain, wherein the optical curtain comprises an array that covers the plurality of buttons that are positioned along the multiple horizontal and vertical axes of the operating panel, wherein the optical sensing device (102, 302) is configured to detect a disturbance in the optical curtain at a distance away from the operating panel; and c. a sensor controller, wherein the sensor controller is configured to virtually activate at least one button of the plurality of buttons in response to the disturbance detected in the optical curtain, wherein virtual activation of the at least one button of the plurality of buttons comprises activation of the at least one button before physically contacting the operating panel; characterised in that the physical activation of one of the plurality of buttons overrides virtual activation of another one of the plurality of buttons. a. a plurality of buttons positioned on an operating panel and configured to be activated by physical contact, wherein the plurality of buttons are positioned along multiple horizontal and vertical axes; b. an optical sensing device (102, 302), wherein the optical sensing device (102, 103) is configured to project an optical curtain, wherein the optical curtain comprises an array that covers the plurality of buttons that are positioned along the multiple horizontal and vertical axes of the operating panel, wherein the optical sensing device (102, 302) is configured to detect a disturbance in the optical curtain at a distance away from the operating panel; and c. a sensor controller, wherein the sensor controller is configured to virtually activate at least one button of the plurality of buttons in response to the disturbance detected in the optical curtain, wherein virtual activation of the at least one button of the plurality of buttons comprises activation of the at least one button before physically contacting the operating panel;
Photosensitive composition that can be activated by multiphoton absorption comprising: - gelatin, - collagen, - a water-soluble photoinitiator, suitable for being excited by several photons and capable of generating singlet oxygen, - optionally a cell adhesion promoter, - and water. - gelatin, - collagen, - a water-soluble photoinitiator, suitable for being excited by several photons and capable of generating singlet oxygen, - optionally a cell adhesion promoter, - and water.
A laminated polyester film having a layer on at least one surface of a polyester film, wherein the layer is disposed on at least one surface layer, the layer has a surface having a sea-island structure, the layer has a sea component with an elastic modulus of 4,000 MPa or less, and a ratio (G1/G2) of an elastic modulus of an island component and the elastic modulus of the sea component is 1.5 to 4.0, wherein the elastic modulus of an island component and the elastic modulus of the sea component are measured according to the description.
A wood panel element comprising a plurality of planks (1-1′′′) which are significantly longer in a longitudinal direction than in directions perpendicular thereto, wherein the direction of the grain is substantially parallel to the longitudinal direction and the planks are arranged parallel to each other, wherein the parallel planks (1-1′′′) are arranged next to each other in at least one layer parallel to the main plane of the panel element, comprising transverse connectors (2-2′′′, 4) for connecting adjacent planks (1-1′′′) to each other in the at least one layer, and comprising additional stiffening elements (3-3′′′) between adjacent planks (1-1′′′) in the respective at least one layer, which stiffening elements (3-3′′′) engage in grooves in the planks (1-1′′′), namely without positive locking relative to a direction perpendicular to the main plane of the planks (1-1′′′), characterised in that the planks (1-1′′′) are arranged adjacent to each other in more than one layer parallel to the main plane of the panel element. comprising a plurality of planks (1-1′′′) which are significantly longer in a longitudinal direction than in directions perpendicular thereto, wherein the direction of the grain is substantially parallel to the longitudinal direction and the planks are arranged parallel to each other, wherein the parallel planks (1-1′′′) are arranged next to each other in at least one layer parallel to the main plane of the panel element, comprising transverse connectors (2-2′′′, 4) for connecting adjacent planks (1-1′′′) to each other in the at least one layer, and comprising additional stiffening elements (3-3′′′) between adjacent planks (1-1′′′) in the respective at least one layer, which stiffening elements (3-3′′′) engage in grooves in the planks (1-1′′′), namely without positive locking relative to a direction perpendicular to the main plane of the planks (1-1′′′), characterised in that the planks (1-1′′′) are arranged adjacent to each other in more than one layer parallel to the main plane of the panel element.
An oxygen assembly comprising: a hose configured to be in flow communication with an oxygen source, wherein the hose includes a hose wall, a switch positioned on the hose, wherein an electric lead wire is disposed in the hose wall and is configured to electrically communicate the switch with a power source, wherein the switch includes a plunger, a mask positioned at a distal end of the hose, and a flow indicator, wherein the flow indicator is a light that is positioned on the hose, wherein the electric lead wire is configured to electrically communicate the light with the power source, wherein the hose includes a lumen through which oxygen can flow from the oxygen source to the mask, wherein the switch is switchable between a normal state when oxygen is not flowing from the oxygen source to the mask and a flow state where oxygen flows to the mask, wherein when the switch is in the flow state, the light is switched from a static state to an indication state, wherein when the oxygen flows from the oxygen source to the mask, the plunger closes an electrical circuit thereby switching the light from the static state to the indication state. a hose configured to be in flow communication with an oxygen source, wherein the hose includes a hose wall, a switch positioned on the hose, wherein an electric lead wire is disposed in the hose wall and is configured to electrically communicate the switch with a power source, wherein the switch includes a plunger, a mask positioned at a distal end of the hose, and a flow indicator, wherein the flow indicator is a light that is positioned on the hose, wherein the electric lead wire is configured to electrically communicate the light with the power source, wherein the hose includes a lumen through which oxygen can flow from the oxygen source to the mask, wherein the switch is switchable between a normal state when oxygen is not flowing from the oxygen source to the mask and a flow state where oxygen flows to the mask, wherein when the switch is in the flow state, the light is switched from a static state to an indication state, wherein when the oxygen flows from the oxygen source to the mask, the plunger closes an electrical circuit thereby switching the light from the static state to the indication state.
Corner piece for forming a corner of a container, which corner piece comprises a body designed to be provided between ribs (12,13) of the container, wherein the corner piece additionally contains at least the following elements: - a hold (32,50) having a shape which can be grabbed by external, gripping means (45,51); and, - coupling means which can be activated and deactivated and which contain a movable coupling element which can be moved between an activated position and a deactivated position, as well as an activator mechanism for activating and deactivating the coupling means, which activator mechanism can be coupled to external driving means the corner piece further being characterised in that it contains stacking means containing a fixed part protruding from the body so as to form a static protrusion - a hold (32,50) having a shape which can be grabbed by external, gripping means (45,51); and, - coupling means which can be activated and deactivated and which contain a movable coupling element which can be moved between an activated position and a deactivated position, as well as an activator mechanism for activating and deactivating the coupling means, which activator mechanism can be coupled to external driving means the corner piece further being characterised in that it contains stacking means containing a fixed part protruding from the body so as to form a static protrusion
A trim component for a vehicle interior providing an airbag door cover and comprising: (a) an instrument panel substrate; (b) a cover comprising an instrument panel skin layer and a support layer coupled to the skin layer; and (c) a foam layer between the cover and the instrument panel substrate; wherein the cover comprises a skin weakening line extending through an entire thickness of the support layer and a part of a thickness of the skin layer; wherein the support layer comprises at least one of (a) a polyurethane coating; (b) two-component reactive aliphatic polyurethane; (c) two-component reactive aromatic polyurethane; (d) polyurea; (e) acrylic elastomer; (f) aromatic thermoplastic polyurethane; (g) aliphatic thermoplastic polyurethane; (h) thermoplastic polyolefin; and wherein the skin layer is molded from at least one of (a) a slush-molding powder; (b) polyvinyl chloride; (c) thermoplastic polyurethane; (d) thermoplastic polyolefin. (a) an instrument panel substrate; (b) a cover comprising an instrument panel skin layer and a support layer coupled to the skin layer; and (c) a foam layer between the cover and the instrument panel substrate;