mhurhangee/ep-ind-claims huggingface dataset:
A method of forming an electrical device, comprising: receiving one of a substantially transparent and transparent substrate; and forming a graphene film on a portion of the substrate; the method being characterized in that it further comprises: forming on a portion of the graphene film a plurality of contacts (512, 514) from silver nanowires; the edges of the contacts having an enhanced conductivity, wherein said forming a plurality of contacts (502, 504; 512, 514) having edges of enhanced conductivity comprises embedding or adding thin strips of higher conductivity metal at the edges of said contacts; or selectively increasing the density of silver nanowires at the edges of said contacts. receiving one of a substantially transparent and transparent substrate; and forming a graphene film on a portion of the substrate; the method being characterized in that it further comprises: forming on a portion of the graphene film a plurality of contacts (512, 514) from silver nanowires; the edges of the contacts having an enhanced conductivity, wherein said forming a plurality of contacts (502, 504; 512, 514) having edges of enhanced conductivity comprises embedding or adding thin strips of higher conductivity metal at the edges of said contacts; or selectively increasing the density of silver nanowires at the edges of said contacts. forming on a portion of the graphene film a plurality of contacts (512, 514) from silver nanowires; the edges of the contacts having an enhanced conductivity, wherein said forming a plurality of contacts (502, 504; 512, 514) having edges of enhanced conductivity comprises embedding or adding thin strips of higher conductivity metal at the edges of said contacts; or selectively increasing the density of silver nanowires at the edges of said contacts.
A compound represented by formula to formula: wherein, in formula to formula, Ra and Rb are independently hydrogen, halogen or alkyl having 1 to 10 carbons, and in the alkyl, arbitrary -CH 2 - may be replaced by -O-, -S-, -CO- or -SiH 2 -, and arbitrary -(CH 2) 2 - may be replaced by -CH=CH- or -C=C-; A 11, A 21, A 32, A 41, A 42 and A 43 are independently 1,4-cyclohexylene, 1,4-phenylene, cyclohexenylene-1,4-diyl, cyclohexene-3,6-diyl, decahydronaphthalene-2,6-diyl, 1,2,3,4-tetrahydronaphthalene-2,5-diyl or naphthalene-2,6-diyl; and Z 11, Z 21, Z 32, Z 41, Z 42 and Z 43 are independently a single bond or alkylene having 1 to 4 carbons, and in the alkylene, arbitrary -CH 2 - may be replaced by -O-, -S- or -SiH 2 -, and arbitrary -(CH 2) 2 -may be replaced by -CH=CH- or -C=C-; wherein, in formula to formula, Ra and Rb are independently alkyl having 1 to 5 carbons, alkenyl having 2 to 5 carbons or alkoxy having 1 to 4 carbons; A 21, A 31, A 32 and A 42 are independently 1,4-cyclohexylene; and Z 21, Z 31, Z 32 and Z 41 are independently a single bond, -CH 2) 2 - or -CH=CH-. wherein, in formula to formula, Ra and Rb are independently hydrogen, halogen or alkyl having 1 to 10 carbons, and in the alkyl, arbitrary -CH 2 - may be replaced by -O-, -S-, -CO- or -SiH 2 -, and arbitrary -(CH 2) 2 - may be replaced by -CH=CH- or -C=C-; A 11, A 21, A 32, A 41, A 42 and A 43 are independently 1,4-cyclohexylene, 1,4-phenylene, cyclohexenylene-1,4-diyl, cyclohexene-3,6-diyl, decahydronaphthalene-2,6-diyl, 1,2,3,4-tetrahydronaphthalene-2,5-diyl or naphthalene-2,6-diyl; and Z 11, Z 21, Z 32, Z 41, Z 42 and Z 43 are independently a single bond or alkylene having 1 to 4 carbons, and in the alkylene, arbitrary -CH 2 - may be replaced by -O-, -S- or -SiH 2 -, and arbitrary -(CH 2) 2 -may be replaced by -CH=CH- or -C=C-; wherein, in formula to formula, Ra and Rb are independently alkyl having 1 to 5 carbons, alkenyl having 2 to 5 carbons or alkoxy having 1 to 4 carbons; A 21, A 31, A 32 and A 42 are independently 1,4-cyclohexylene; and Z 21, Z 31, Z 32 and Z 41 are independently a single bond, -CH 2) 2 - or -CH=CH-.
A cell culture article, comprising: a substrate comprising a polygalacturonic acid compound selected from at least one of: pectic acid; partially esterified pectic acid having a degree of esterification from 1 to 40 mol%, or salts thereof; and an adhesion polymer on the surface of the polygalacturonic acid compound. a substrate comprising a polygalacturonic acid compound selected from at least one of: pectic acid; partially esterified pectic acid having a degree of esterification from 1 to 40 mol%, or salts thereof; and an adhesion polymer on the surface of the polygalacturonic acid compound. pectic acid; partially esterified pectic acid having a degree of esterification from 1 to 40 mol%, or salts thereof; and an adhesion polymer on the surface of the polygalacturonic acid compound.
Refrigeration and/or freezer device, including a first cooled space for cooling to a first temperature level, and a second cooled space for cooling to a second temperature level, wherein the second temperature level is smaller than the first temperature level, wherein the second cooled space is separated from the first cooled space by a thermally-insulating insulating element, wherein first thermoelectric elements are provided for cooling the first cooled space, which are arranged in a region between the first cooled space and an outer wall of the device, and wherein a second thermoelectric element for cooling the second cooled space is arranged inside the insulating element that separates the first cooled space and the second cooled space from one another and that emits its dissipation heat into the first cooled space in a cooling operation of the second cooled space, wherein the first thermoelectric elements for cooling the first cooled space emit their cooling capacity to a heat exchanger that corresponds to an inner container of the first cooled space, and the second thermoelectric element for cooling the second cooled space emits its dissipation heat to this heat exchanger.
A method for producing a medical implement, in particular an injection needle, having a hard plastic component and a soft plastic component that adheres to the hard plastic component via at least one boundary surface, comprising the following steps: - injection molding of the soft component in an injection molding die, - injection molding of the hard component following the injection molding of the soft component, wherein prior to the injection molding of the soft component an insert component is inserted into the injection molding die that is coated by injection molding at least in some sections thereof and over at least part of the circumference thereof with the soft component. - injection molding of the soft component in an injection molding die, - injection molding of the hard component following the injection molding of the soft component, wherein prior to the injection molding of the soft component an insert component is inserted into the injection molding die that is coated by injection molding at least in some sections thereof and over at least part of the circumference thereof with the soft component.
A monoclonal antibody which specifically binds to MT4-MMP (Membrane-type 4 matrix metalloproteinase), which is any one selected from the following antibodies: (a) an antibody comprising (i) a heavy chain variable domain which comprises a CDR1 region shown in SEQ ID NO: 20, a CDR2 region shown in SEQ ID NO: 21 and a CDR3 region shown in SEQ ID NO: 22, and (ii) a light chain variable domain which comprises a CDR1 region shown in SEQ ID NO: 23, a CDR2 region shown in SEQ ID NO: 24 and a CDR3 region shown in SEQ ID NO: 25; (b) an antibody having the amino acid sequence shown in SEQ ID NO: 26 as the amino acid sequence of a H chain variable region, and having the amino acid sequence shown in SEQ ID NO: 27 as the amino acid sequence of a L chain variable region; (c) a scFv (single chain variable fragment) antibody comprising the amino acid sequence shown in SEQ ID NO: 28. (a) an antibody comprising (i) a heavy chain variable domain which comprises a CDR1 region shown in SEQ ID NO: 20, a CDR2 region shown in SEQ ID NO: 21 and a CDR3 region shown in SEQ ID NO: 22, and (ii) a light chain variable domain which comprises a CDR1 region shown in SEQ ID NO: 23, a CDR2 region shown in SEQ ID NO: 24 and a CDR3 region shown in SEQ ID NO: 25; (i) a heavy chain variable domain which comprises a CDR1 region shown in SEQ ID NO: 20, a CDR2 region shown in SEQ ID NO: 21 and a CDR3 region shown in SEQ ID NO: 22, and (ii) a light chain variable domain which comprises a CDR1 region shown in SEQ ID NO: 23, a CDR2 region shown in SEQ ID NO: 24 and a CDR3 region shown in SEQ ID NO: 25; (b) an antibody having the amino acid sequence shown in SEQ ID NO: 26 as the amino acid sequence of a H chain variable region, and having the amino acid sequence shown in SEQ ID NO: 27 as the amino acid sequence of a L chain variable region; (c) a scFv (single chain variable fragment) antibody comprising the amino acid sequence shown in SEQ ID NO: 28.
A pre-treatment coating, comprising: an evaporable solvent; a matrix coating including a binder and a fixer; and a wax including wax particles dispersed within the matrix, wherein at least a portion of the wax particles have a particle size that is greater than a thickness of the matrix when the pre-treatment coating is applied to a media substrate at a basis weight ranging from 0.5 gsm to 20 gsm and the evaporable solvent removed, and wherein the wax is present at a concentration ranging from 10 wt% to 20 wt% based on a total amount present in the pre-treatment coating after removal of the evaporable solvent. an evaporable solvent; a matrix coating including a binder and a fixer; and a wax including wax particles dispersed within the matrix, wherein at least a portion of the wax particles have a particle size that is greater than a thickness of the matrix when the pre-treatment coating is applied to a media substrate at a basis weight ranging from 0.5 gsm to 20 gsm and the evaporable solvent removed, and wherein the wax is present at a concentration ranging from 10 wt% to 20 wt% based on a total amount present in the pre-treatment coating after removal of the evaporable solvent.
A deep base paint composition comprising an aqueous dispersion of a) 10 to 60 weight percent, based on the weight of the deep base paint composition, of acrylic based polymer particles; b) a colorant at a concentration in the range of from 2 to 20 weight percent solids, based on the weight of the deep base paint composition; c) from 0.05 to 2 weight percent solids, based on the weight of the deep base paint composition, of an associative thickener with a hydrophobic portion having a calculated log P in the range of from 2.7 to 4.8, wherein the volume solids content of the composition is in the range of from 25 to 45 volume percent and comprising a polyether which is a hydrophobically modified ethylene oxide urethane polymer having hydrophobic portion that is represented by the following structure: wherein X is O or NR 2' with the proviso that X is O and R 1 is -H 12 MDI- when R 2 is CH 3 (CH 2) 3 - or CH 3 (CH 2) 2 -; or X is O and R 1 is -IPDI- when R 2 is CH 3 (CH 2) 5 - or CH 3 (CH 2) 4 - or CH 3 (CH 2) 3 or benzyl; or X is O and R 1 is -HDI- when R 2 is CH 3 (CH 2) 7 - or CH 3 (CH 2) 6 - or CH 3 (CH 2) 5 - or CH 3 (CH 2) 4 -; or (benzyl) 2 NCH 2 CH 2 -; or X is NR 2' and R 1 is -H 12 MDI- when R 2 is benzyl and R 2' is CH 3 -; or X is NR 2' and R 1 is -H 12 MDI- when R 2 is cyclohexyl and R 2' is H; or X is NR 2' and R 1 is -HDI- when R 2 and R 2' are each benzyl, cyclohexyl, CH 3 (CH 2) 3 -, or CH 3 (CH 2) 4 -; or X is NR 2' and R 1 is -HDI- when R 2 is CH 3 (CH 2) 5 -, CH 3 (CH 2) 6 -, or CH 3 (CH 2) 7 - and R 2' is H; or X is NR 2' and R 1 is -IPDI- when R 2 is CH 3 (CH 2) 5 - and R 2' is H; or X is NR 2' and R 1 is -IPDI- when R 2 and R 2' are CH 3 (CH 2) 3 -; and d) less than 10 PVC of extenders selected from the group consisting of TiO 2, BaSO 4, silica, silicates, alumino silicates, CaCO 3, nepheline, feldspar, wollastonite, kaolinite, dicalcium phosphate, and diatomaceous earth. wherein X is O or NR 2' with the proviso that X is O and R 1 is -H 12 MDI- when R 2 is CH 3 (CH 2) 3 - or CH 3 (CH 2) 2 -; or X is O and R 1 is -IPDI- when R 2 is CH 3 (CH 2) 5 - or CH 3 (CH 2) 4 - or CH 3 (CH 2) 3 or benzyl; or X is O and R 1 is -HDI- when R 2 is CH 3 (CH 2) 7 - or CH 3 (CH 2) 6 - or CH 3 (CH 2) 5 - or CH 3 (CH 2) 4 -; or (benzyl) 2 NCH 2 CH 2 -; or X is NR 2' and R 1 is -H 12 MDI- when R 2 is benzyl and R 2' is CH 3 -; or X is NR 2' and R 1 is -H 12 MDI- when R 2 is cyclohexyl and R 2' is H; or X is NR 2' and R 1 is -HDI- when R 2 and R 2' are each benzyl, cyclohexyl, CH 3 (CH 2) 3 -, or CH 3 (CH 2) 4 -; or X is NR 2' and R 1 is -HDI- when R 2 is CH 3 (CH 2) 5 -, CH 3 (CH 2) 6 -, or CH 3 (CH 2) 7 - and R 2' is H; or X is NR 2' and R 1 is -IPDI- when R 2 is CH 3 (CH 2) 5 - and R 2' is H; or X is NR 2' and R 1 is -IPDI- when R 2 and R 2' are CH 3 (CH 2) 3 -; and d) less than 10 PVC of extenders selected from the group consisting of TiO 2, BaSO 4, silica, silicates, alumino silicates, CaCO 3, nepheline, feldspar, wollastonite, kaolinite, dicalcium phosphate, and diatomaceous earth.
A housing for a detection unit for optically detecting smoke particles, said detection unit comprising a light source for emitting radiation to be scattered by smoke particles to be detected and a light detector for detecting the scattered radiation, wherein the housing comprises a cylindrical outer surface having smoke openings through which the smoke particles enter the housing and a radially symmetric light-guiding structure having guide members, wherein the guide members are so designed that adjacent guide members each form a guide channel through which the radiation emitted from the light source and not scattered by the smoke particles is guidable to the outside in the direction of the smoke openings by multiple reflection, wherein each guide member has a concave side surface and an opposite convex side surface and wherein the concave side surface has a larger radius of curvature than the convex side surface.
A multi-stage amplifier comprised in an apparatus for laser shock peening, the multi-stage amplifier comprising amplifier stages arranged in consecutive order, the amplifier stages comprising: a first stage having a first amplifier module configured to first amplify a pulsed laser beam having a first energy output generated within the apparatus, to output a first amplified beam having a second energy, wherein the first stage comprises arranged in a sequential consecutive order: a first optical isolator, a first vacuum relay imaging module VRIM and the first amplifier module, such that the laser beam passes sequentially consecutively through the optical isolator, the first VRIM, and the first amplifier module to output the first amplified beam, wherein prior to the first amplifying to the second energy, the laser beam is collimated by the first VRIM to yield a larger diameter first collimated beam, and a consecutive second stage having a second amplifier module configured to second amplify the first amplified beam having the second energy to output a second amplified beam having a third energy, wherein the second stage comprises arranged in a sequential consecutive order: a second VRIM and the second amplifier module, such that the first amplified beam passes sequentially consecutively through the second VRIM and the second amplifier module to output the second amplified beam, wherein prior to the consecutive second amplifying to the third energy, the first amplified beam is collimated by the second VRIM to yield a larger diameter second collimated beam. a first stage having a first amplifier module configured to first amplify a pulsed laser beam having a first energy output generated within the apparatus, to output a first amplified beam having a second energy, wherein the first stage comprises arranged in a sequential consecutive order: a first optical isolator, a first vacuum relay imaging module VRIM and the first amplifier module, such that the laser beam passes sequentially consecutively through the optical isolator, the first VRIM, and the first amplifier module to output the first amplified beam, wherein prior to the first amplifying to the second energy, the laser beam is collimated by the first VRIM to yield a larger diameter first collimated beam, and a consecutive second stage having a second amplifier module configured to second amplify the first amplified beam having the second energy to output a second amplified beam having a third energy, wherein the second stage comprises arranged in a sequential consecutive order: a second VRIM and the second amplifier module, such that the first amplified beam passes sequentially consecutively through the second VRIM and the second amplifier module to output the second amplified beam, wherein prior to the consecutive second amplifying to the third energy, the first amplified beam is collimated by the second VRIM to yield a larger diameter second collimated beam.
A method (800, 900, 1000) comprising: outputting first audio content by a speaker of an audio playback device; receiving an indication of the output first audio content by a microphone of the audio playback device; determining (904, 1002) a first acoustic response of a room comprising a microphone location response, wherein the audio playback device is located in the room, wherein the determination is based on the received indication of the output first audio content by the microphone; applying a mapping to the microphone location response to determine a second acoustic response of the room in which the audio playback device is located, wherein the mapping is determined based on a set of room responses and an associated set of microphone location responses, wherein each room response is an acoustic response of the room based on the indication of audio content detected at one or more spatial locations in the room, wherein the second acoustic response is indicative of an approximated acoustic response of the room at a spatial location different from a spatial location of the microphone; and adjusting, based on the second acoustic response, audio content output by the speaker. outputting first audio content by a speaker of an audio playback device; receiving an indication of the output first audio content by a microphone of the audio playback device; determining (904, 1002) a first acoustic response of a room comprising a microphone location response, wherein the audio playback device is located in the room, wherein the determination is based on the received indication of the output first audio content by the microphone; applying a mapping to the microphone location response to determine a second acoustic response of the room in which the audio playback device is located, wherein the mapping is determined based on a set of room responses and an associated set of microphone location responses, wherein each room response is an acoustic response of the room based on the indication of audio content detected at one or more spatial locations in the room, wherein the second acoustic response is indicative of an approximated acoustic response of the room at a spatial location different from a spatial location of the microphone; and adjusting, based on the second acoustic response, audio content output by the speaker.
An electronic device for use with a touch surface digitizer as defined in claim 7, the electronic device comprising: a sensor configured to receive uplink signals being ping uplink signals separate and different from any other signal transmitted from the digitizer to the electronic device and being emitted by a grid of antennas (104, 106, 208) in the digitizer; and a controller configured to detect the uplink signals (402, 404) via the sensor; wherein the controller is further configured to determine a speed of the electronic device based on a detected sequence of the uplink signals as received at the sensor from a plurality of junctions of the antenna grid relative to a predetermined spatial pattern of the uplink signals as emitted across the grid. a sensor configured to receive uplink signals being ping uplink signals separate and different from any other signal transmitted from the digitizer to the electronic device and being emitted by a grid of antennas (104, 106, 208) in the digitizer; and a controller configured to detect the uplink signals (402, 404) via the sensor; wherein the controller is further configured to determine a speed of the electronic device based on a detected sequence of the uplink signals as received at the sensor from a plurality of junctions of the antenna grid relative to a predetermined spatial pattern of the uplink signals as emitted across the grid.
A prepreg that is formed by impregnating a reinforced fiber with an epoxy resin composition so as to have a resin content within a range of 25 to 50 mass%, an elastic modulus of the reinforced fiber being 100 GPa or higher and 900 GPa or lower, wherein the elastic modulus is the flexural modulus as determined according to the method in the description; the epoxy resin composition comprising the following Components A to D: Component A: an epoxy resin having an oxazolidone ring structure in a molecule thereof; Component B: an epoxy resin that is liquid at 30°C; Component C: a diblock copolymer having a B-M structure, wherein block M is a block consisting of a homopolymer of methyl methacrylate, or a copolymer including at least 50 mass% of methyl methacrylate; block B is immiscible with the epoxy resins and the block M, a glass transition temperature Tg of the block B being 20°C or lower, wherein Tg is determined according to the method in the description; the blocks B and M being directly linked to, or being linked via a linker to each other; and Component D: an amine curing agent that is a dicyandiamide or a derivative thereof, wherein formulation in terms of mass ratio of Components A to D satisfies the following formulae: A / A + B = 0.05 to 0.25 C / A + B = 0.12 to 0.19 D / A + B = 0.01 to 0.10 where A to D each represent contents of Components A to D. Component A: an epoxy resin having an oxazolidone ring structure in a molecule thereof; Component B: an epoxy resin that is liquid at 30°C; Component C: a diblock copolymer having a B-M structure, wherein block M is a block consisting of a homopolymer of methyl methacrylate, or a copolymer including at least 50 mass% of methyl methacrylate; block B is immiscible with the epoxy resins and the block M, a glass transition temperature Tg of the block B being 20°C or lower, wherein Tg is determined according to the method in the description; the blocks B and M being directly linked to, or being linked via a linker to each other; and Component D: an amine curing agent that is a dicyandiamide or a derivative thereof, wherein