mhurhangee/ep-ind-claims huggingface dataset:
A device for placement in a hollow organ, in particular for holding open said hollow organ, comprising: - a placement body having an inner side and an outer side, and - at least one layer of biostable random-fiber fleece material arranged at said placement body and at least partially in abutment thereon, wherein said random-fiber fleece material layer is at least partially arranged in abutment on said outer side of the placement body, characterized in that the random-fiber fleece material layer has a bottom side which is in abutment on the outer side of the placement body, and a top side facing away from the outer side of the placement body, wherein the random-fiber fleece material layer on its top side comprises pores of a size different from that of the pores on its bottom side, and wherein the pores on the bottom side of the random-fiber fleece material layer are smaller than the pores on the top side of the random-fiber fleece material layer. - a placement body having an inner side and an outer side, and - at least one layer of biostable random-fiber fleece material arranged at said placement body and at least partially in abutment thereon, wherein said random-fiber fleece material layer is at least partially arranged in abutment on said outer side of the placement body, characterized in that the random-fiber fleece material layer has a bottom side which is in abutment on the outer side of the placement body, and a top side facing away from the outer side of the placement body, wherein the random-fiber fleece material layer on its top side comprises pores of a size different from that of the pores on its bottom side, and wherein the pores on the bottom side of the random-fiber fleece material layer are smaller than the pores on the top side of the random-fiber fleece material layer.
A method implemented by a wireless transmit/receive unit, WTRU, comprising: receiving, by the WTRU in downlink control information, DCl, scheduling for a PDSCH and information indicating two or more patterns of time/frequency interference measurement resource elements, REs, associated with a physical downlink shared channel, PDSCH, transmission, wherein the associated time/frequency interference measurement REs contain no PDSCH data and the two or more patterns of time/frequency interference measurement REs associated with the PDSCH are orthogonal in frequency; determining, by the WTRU, positions in time and frequency of the time/frequency interference measurement REs of the two or more patterns of time/frequency interference measurement REs indicated by the information in the DCl; receiving the PDSCH transmission; and decoding the PDSCH transmission, wherein the receiving of the PDSCH transmission includes at least one of: rate-matching the PDSCH around the determined positions in time and frequency of the time/frequency interference measurement REs, excluding the time/frequency interference measurement REs of the two or more patterns from the reception of the PDSCH, or de-mapping the PDSCH to generate modulation symbols excluding the time/frequency interference measurement REs of the two or more patterns. receiving, by the WTRU in downlink control information, DCl, scheduling for a PDSCH and information indicating two or more patterns of time/frequency interference measurement resource elements, REs, associated with a physical downlink shared channel, PDSCH, transmission, wherein the associated time/frequency interference measurement REs contain no PDSCH data and the two or more patterns of time/frequency interference measurement REs associated with the PDSCH are orthogonal in frequency; determining, by the WTRU, positions in time and frequency of the time/frequency interference measurement REs of the two or more patterns of time/frequency interference measurement REs indicated by the information in the DCl; receiving the PDSCH transmission; and decoding the PDSCH transmission, wherein the receiving of the PDSCH transmission includes at least one of: rate-matching the PDSCH around the determined positions in time and frequency of the time/frequency interference measurement REs, excluding the time/frequency interference measurement REs of the two or more patterns from the reception of the PDSCH, or de-mapping the PDSCH to generate modulation symbols excluding the time/frequency interference measurement REs of the two or more patterns.
Solar cell module comprising electrically interconnected solar cells with frontsides and backsides, a transparent first layer running directly on the front sides facing the radiation, which is followed by a transparent cover on the front, as well as a second layer running along the backsides and resting on them, which is covered at the back by a second cover resting on them, wherein the covers are outer sides of the solar cell module, characterized in that the first layer consists of a first polymer material and the second layer consists of a second polymer material deviating from the first polymer material, that specific resistance ρ 1 of the first material is greater than specific resistance ρ 2 of the second material, wherein the specific resistance ρ 1 of the first layer amounts to 5x10 16 Ωcm ≤ ρ 1 ≤ 5x10 19 Ωcm, measured at 25 °C, and storage module G 1 ' of the first layer is greater than the storage module G 2 ' of the second layer, wherein the storage module G 1 ' of the first layer amounts to G 1 ' > 8x10 6 Pa measured at 25 °C and 1 Hz, wherein the first polymer material is polyethylene-polypropylene-copolymer material and the second polymer material is ethyl vinyl acetate.
A thermoplastic elastomer composition comprising: (a) 30 to 60 wt%, based on the weight of the composition, of a thermoplastic vulcanizate, wherein the thermoplastic vulcanizate comprises a rubber phase that is dispersed and at least partially cross-linked within a continuous thermoplastic resin component; (b) 5 to 25 wt%, based on the weight of the composition, of thermoplastic resin; (c) 5 to 25 wt%, based on the weight of the composition, of a high density polyethylene; and (d) 5 to 40 wt%, based on the weight of the composition, of an ultrahigh molecular weight polyethylene, wherein the high density polyethylene has a density greater than 0.93 g/cc, and wherein the ultrahigh molecular weight polyethylene has a density greater than 0.91 g/cc and a weight average molecular weight of greater than 1,500,000 g/mol. (a) 30 to 60 wt%, based on the weight of the composition, of a thermoplastic vulcanizate, wherein the thermoplastic vulcanizate comprises a rubber phase that is dispersed and at least partially cross-linked within a continuous thermoplastic resin component; (b) 5 to 25 wt%, based on the weight of the composition, of thermoplastic resin; (c) 5 to 25 wt%, based on the weight of the composition, of a high density polyethylene; and (d) 5 to 40 wt%, based on the weight of the composition, of an ultrahigh molecular weight polyethylene, wherein the high density polyethylene has a density greater than 0.93 g/cc, and wherein the ultrahigh molecular weight polyethylene has a density greater than 0.91 g/cc and a weight average molecular weight of greater than 1,500,000 g/mol.
A high-strength high-elongation tinned primary plate, containing by weight from 0.065 to 0.12% of carbon, from 0.2 to 0.8% of manganese, from 0.01 to 0.08% of aluminum, from 0.003 to 0.015% of nitrogen, and one or more of the following component(s) by weight from 0.001 to 0.005% of boron, from 0.01 to 0.05% of chromium, from 0.001 to 0.1% of titanium, from 0.001 to 0.2% of niobium, from 0.001 to 0.2% of copper, from 0.002 to 0.008% of molybdenum, the remainder being iron and the inevitable trace impurities, wherein, the tinned primary plate has a yield strength of Rp 0.2 ≥520 MPa, and percentage elongations A% in rolling direction RD, 45° direction and perpendicular direction TD, which are all greater than or equal to 10% after bake-hardening, wherein the tinned primary plate has a microstructure of ferrite plus granular cementite with a banded distribution.
A microfluidic array comprising: a hydrophilic polymeric substrate or metal substrate comprising a planar surface with a plurality of individual spherical depressions formed therein, each of the depressions having a diameter in the range greater than 1μm and up to 5 μm and containing an aqueous solution; a lipid layer extending across the plurality of individual depressions; and wherein each of the plurality of individual depressions comprises arcuate side walls extending downwardly into the substrate from the planar surface. a hydrophilic polymeric substrate or metal substrate comprising a planar surface with a plurality of individual spherical depressions formed therein, each of the depressions having a diameter in the range greater than 1μm and up to 5 μm and containing an aqueous solution; a lipid layer extending across the plurality of individual depressions; and wherein each of the plurality of individual depressions comprises arcuate side walls extending downwardly into the substrate from the planar surface.
A method of profiling a nucleic acid composition of a single cell comprising: isolating the single cell in a liquid droplet; lysing the single cell in the liquid droplet to release template nucleic acid from the cell; amplifying the template nucleic acid in the liquid droplet to generate amplified nucleic acid; and detecting the amplified nucleic acid in the liquid droplet, wherein the detecting comprises profiling the amplified nucleic acid by performing a molecular computation with a nucleic acid logic gate. isolating the single cell in a liquid droplet; lysing the single cell in the liquid droplet to release template nucleic acid from the cell; amplifying the template nucleic acid in the liquid droplet to generate amplified nucleic acid; and detecting the amplified nucleic acid in the liquid droplet, wherein the detecting comprises profiling the amplified nucleic acid by performing a molecular computation with a nucleic acid logic gate.
A method comprising: determining a torque value of a motor of a belt sander associated with potential damage to the motor; selecting a drive belt for the belt sander having a pre-tensioning selected to allow slippage of the drive belt at the torque value; and fitting the drive belt around a drive pulley and a driven pulley of the belt sander, the drive pulley being operationally coupled to the motor and rotated by the motor, and the driven pulley being operationally coupled to a drive roller of the belt sander to rotate the drive roller. determining a torque value of a motor of a belt sander associated with potential damage to the motor; selecting a drive belt for the belt sander having a pre-tensioning selected to allow slippage of the drive belt at the torque value; and fitting the drive belt around a drive pulley and a driven pulley of the belt sander, the drive pulley being operationally coupled to the motor and rotated by the motor, and the driven pulley being operationally coupled to a drive roller of the belt sander to rotate the drive roller.
A user terminal that supports communication which uses dual connectivity with a plurality of radio base stations that each configure a cell group formed with one or more cells, the user terminal comprising: a transmission section that transmits UL signals to one or a plurality of cell groups; and a control section that controls antenna selection for transmitting the UL signals, wherein, when antenna selection for a serving cell, UE transmit antenna selection, is configured, the control section controls the antenna selection expecting that the plurality of cell groups are not configured. a transmission section that transmits UL signals to one or a plurality of cell groups; and a control section that controls antenna selection for transmitting the UL signals, wherein, when antenna selection for a serving cell, UE transmit antenna selection, is configured, the control section controls the antenna selection expecting that the plurality of cell groups are not configured.
A microfluidic convection-enhanced-delivery device, comprising: a substrate that defines a body, an elongate distal tip; a first fluid channel that extends along the body, and along the distal tip; a second fluid channel that extends along the body, and along the distal tip; characterised in that: the substrate further defines first and second proximal legs; the first channel further extends along the first leg; and the second channel further extends along the second leg; wherein the device further comprises: a first micro-capillary tube coupled to the first leg portion and in fluid communication with the first fluid channel; a second micro-capillary tube coupled to the second leg portion and in fluid communication with the second fluid channel; and a tubular sheath that encapsulates the first and second legs and at least a portion of the first and second micro-capillary tubes. a substrate that defines a body, an elongate distal tip; a first fluid channel that extends along the body, and along the distal tip; a second fluid channel that extends along the body, and along the distal tip; characterised in that: the substrate further defines first and second proximal legs; the first channel further extends along the first leg; and the second channel further extends along the second leg; the substrate further defines first and second proximal legs; the first channel further extends along the first leg; and the second channel further extends along the second leg; wherein the device further comprises: a first micro-capillary tube coupled to the first leg portion and in fluid communication with the first fluid channel; a second micro-capillary tube coupled to the second leg portion and in fluid communication with the second fluid channel; and a tubular sheath that encapsulates the first and second legs and at least a portion of the first and second micro-capillary tubes. a first micro-capillary tube coupled to the first leg portion and in fluid communication with the first fluid channel; a second micro-capillary tube coupled to the second leg portion and in fluid communication with the second fluid channel; and a tubular sheath that encapsulates the first and second legs and at least a portion of the first and second micro-capillary tubes.
An image projection device comprising: an image generating unit that includes an optical modulation element generating an image using light emitted from a light source; an illumination optical unit that includes one or more optical elements guiding the light emitted from the light source to the image generating unit; a projecting unit that projects the image generated by the image generating unit; a first control unit that performs control to move the image generating unit movable with respect to the illumination optical unit; and a second control unit (410, 411) that performs control to move an illumination area indicating an area illuminated with the light guided to the image generating unit by the illumination optical unit according to a movement amount of the image generating unit, wherein: the illumination optical unit includes a first optical element that is a cylindrical optical component making uniform a brightness distribution of the light emitted from the light source; and characterized in that: the second control unit (410, 411) performs control to move the first optical element according to a movement amount of the image generating unit. an image generating unit that includes an optical modulation element generating an image using light emitted from a light source; an illumination optical unit that includes one or more optical elements guiding the light emitted from the light source to the image generating unit; a projecting unit that projects the image generated by the image generating unit; a first control unit that performs control to move the image generating unit movable with respect to the illumination optical unit; and a second control unit (410, 411) that performs control to move an illumination area indicating an area illuminated with the light guided to the image generating unit by the illumination optical unit according to a movement amount of the image generating unit, wherein: the illumination optical unit includes a first optical element that is a cylindrical optical component making uniform a brightness distribution of the light emitted from the light source; and characterized in that: the second control unit (410, 411) performs control to move the first optical element according to a movement amount of the image generating unit.
Device with a protective cover which is suitable and designed to cover at least one room region in such a way that the protective cover surrounds the at least one room region in the manner of a tent or chamber, directly adjoins a floor region and is able to separate the room region from an environment immediately surrounding the protective cover, wherein the protective cover includes at least two layers (1, 2), a first and a second layer separated by a spacer layer, of which the spacer layer has a support structure that keeps the two layers (1, 2) apart and is flow-permeable in the longitudinal extension of the layers, and at least one flow unit with a flow outlet is provided, which is fluidically connected to the spacer layer via the second layer of the protective cover, which is closest to the environment, characterized in that the first layer is mounted closest to the room region and is flow-permeable and has a permeability to flow in the range from 500 to 49,000 m 3 /m 2 /h, at least the first and second layers (1, 2) are made exclusively from clean-room compatible material which is designed to directly enclose a cleanroom of ISO classes 1 to 9 according to DIN EN ISO 14644-1:2016-06, the protective cover has an outlet area, through which room air driven by overpressure exits into the environment and on which a sterilisation unit is mounted; and the at least one flow unit is operable in such manner that a layer internal pressure p2 created inside the spacer layer is both greater than a room inner pressure p1 formed inside the room region and greater than an ambient pressure p3 prevailing in the surrounding environment. wherein the protective cover includes at least two layers (1, 2), a first and a second layer separated by a spacer layer, of which the spacer layer has a support structure that keeps the two layers (1, 2) apart and is flow-permeable in the longitudinal extension of the layers, and at least one flow unit with a flow outlet is provided, which is fluidically connected to the spacer layer via the second layer of the protective cover, which is closest to the environment, characterized in that the first layer is mounted closest to the room region and is flow-permeable and has a permeability to flow in the range from 500 to 49,000 m 3 /m 2 /h, at least the first and second layers (1, 2) are made exclusively from clean-room compatible material which is designed to directly enclose a cleanroom of ISO classes 1 to 9 according to DIN EN ISO 14644-1:2016-06, the protective cover has an outlet area, through which room air driven by overpressure exits into the environment and on which a sterilisation unit is mounted; and the at least one flow unit is operable in such manner that a layer internal pressure p2 created inside the spacer layer is both greater than a room inner pressure p1 formed inside the room region and greater than an ambient pressure p3 prevailing in the surrounding environment.
Switch pole of a circuit breaker having two pole shells (2, 3) between which are disposed, in the assembled state, at least one switching contact (6, 7), current-carrying elements and an arc quenching device having an arc runner plate and at least one splitter plate delimiting an arc chute, wherein at least one slot for accommodating the splitter and/or arc runner plate is provided between the pole shells, the at least one slot for accommodating the splitter and/or the arc runner plate being provided inside the lower and/or upper pole shell of the two pole shells (2, 3), characterised in that there is provided inside between the pole shells a functional component having at least one slot spaced apart from the pole shells which is used to accommodate the at least one splitter and/or arc runner plate.
A light emitting device, comprising: a glass substrate having a roughened surface to help promote light scattering; a planarization layer comprising amorphous indium-zinc oxide applied onto the roughened surface; and over the planarization layer: an emissive layer; a first electrode; and a second electrode, wherein at least one of the first and second electrodes (16, 20) comprises a compound TCO electrode comprising: a first layer (32, 52) comprising a crystalline oxide material; and a second layer (34, 56) comprising an amorphous oxide material, wherein the first layer (32, 52) includes a dopant material and the second layer (34, 56) is free of dopant material, wherein the material of the second layer (34, 56) is selected from zinc oxide, tin oxide, zinc stannate, and combinations thereof. a glass substrate having a roughened surface to help promote light scattering; a planarization layer comprising amorphous indium-zinc oxide applied onto the roughened surface; and over the planarization layer: an emissive layer; a first electrode; and a second electrode, wherein at least one of the first and second electrodes (16, 20) comprises a compound TCO electrode comprising: a first layer (32, 52) comprising a crystalline oxide material; and a second layer (34, 56) comprising an amorphous oxide material, wherein the first layer (32, 52) includes a dopant material and the second layer (34, 56) is free of dopant material, wherein the material of the second layer (34, 56) is selected from zinc oxide, tin oxide, zinc stannate, and combinations thereof. an emissive layer; a first electrode; and a second electrode, wherein at least one of the first and second electrodes (16, 20) comprises a compound TCO electrode comprising: a first layer (32, 52) comprising a crystalline oxide material; and a second layer (34, 56) comprising an amorphous oxide material, wherein the first layer (32, 52) includes a dopant material and the second layer (34, 56) is free of dopant material, wherein the material of the second layer (34, 56) is selected from zinc oxide, tin oxide, zinc stannate, and combinations thereof. a first layer (32, 52) comprising a crystalline oxide material; and a second layer (34, 56) comprising an amorphous oxide material, wherein the first layer (32, 52) includes a dopant material and the second layer (34, 56) is free of dopant material, wherein the material of the second layer (34, 56) is selected from zinc oxide, tin oxide, zinc stannate, and combinations thereof.