mhurhangee/ep-ind-claims huggingface dataset:
A RFID receiver for receiving a signal comprising transmission frames, each frame consisting of PSK symbols and beginning with a sequence of a,a,a*,a*,a,a,... type pilot symbols, the signal being modulated at a carrier frequency f =1/ T, the receiver comprising a quadrature digital demodulator for providing, at a sampling frequency f e = 4 f, in-phase samples and quadrature samples to a symbol synchronization module, a PSK demodulator for demodulating PSK symbols provided by the symbol synchronization module, said receiver comprising: a first demultiplexer receiving a sequence formed by the consecutive quadrature samples for providing four interleaved subsequences of these samples, each subsequence consisting of one sample out of four of said sequence of samples; a sign detector receiving the samples of one of these subsequences and providing a sign signal; a sign correlator for correlating the sign signal thus obtained with a signed sequence having a predetermined length; correlation means for correlating the different subsequences with said signed sequence respectively; a first decision module activated when the correlation result of the sign correlator exceeds a predetermined threshold, the decision module determining, when activated, the subsequence providing the highest correlation result and deducing a decimation point in time therefrom; at least one first and one second decimator (261, 262, 263, 264) receiving respectively, at the sampling frequency, the in-phase and quadrature samples of the quadrature digital demodulator, and decimating them at said decimation point in time for providing in-phase and quadrature components of the modulation symbols at the baud rate. a first demultiplexer receiving a sequence formed by the consecutive quadrature samples for providing four interleaved subsequences of these samples, each subsequence consisting of one sample out of four of said sequence of samples; a sign detector receiving the samples of one of these subsequences and providing a sign signal; a sign correlator for correlating the sign signal thus obtained with a signed sequence having a predetermined length; correlation means for correlating the different subsequences with said signed sequence respectively; a first decision module activated when the correlation result of the sign correlator exceeds a predetermined threshold, the decision module determining, when activated, the subsequence providing the highest correlation result and deducing a decimation point in time therefrom; at least one first and one second decimator (261, 262, 263, 264) receiving respectively, at the sampling frequency, the in-phase and quadrature samples of the quadrature digital demodulator, and decimating them at said decimation point in time for providing in-phase and quadrature components of the modulation symbols at the baud rate.
A recording apparatus comprising: a recording head configured to perform recording on a medium; a transport belt that has an adsorption surface configured to adsorb the medium, and transport the medium to a position facing the recording head; a first charging unit that is in contact with the transport belt to frictionally charge the adsorption surface; a second charging unit configured to apply a voltage to the transport belt to charge the adsorption surface; and a control unit, characterised in that the control unit is configured to switch between charging of the adsorption surface by the first charging unit and charging of the adsorption surface by the second charging unit, wherein the control unit is configured to switch between the charging of the adsorption surface by the first charging unit and the charging of the adsorption surface by the second charging unit according to a state of a surface (Sb) of the medium which is in contact with the adsorption surface. a recording head configured to perform recording on a medium; a transport belt that has an adsorption surface configured to adsorb the medium, and transport the medium to a position facing the recording head; a first charging unit that is in contact with the transport belt to frictionally charge the adsorption surface; a second charging unit configured to apply a voltage to the transport belt to charge the adsorption surface; and a control unit, characterised in that the control unit is configured to switch between charging of the adsorption surface by the first charging unit and charging of the adsorption surface by the second charging unit, wherein the control unit is configured to switch between the charging of the adsorption surface by the first charging unit and the charging of the adsorption surface by the second charging unit according to a state of a surface (Sb) of the medium which is in contact with the adsorption surface.
An electrochemical cell comprising: a first electrode comprising a layer of an active catalyst material, and graphene coating at least partially covering the layer of the active catalyst material; a second electrode comprising a conductor; an electrolyte medium in electrolytic communication with the first and second electrodes (13, 15); a chemical substance capable of undergoing an electrochemical reaction; and a voltage source in electrolytic communication with the first and second electrodes (13, 15). a first electrode comprising a layer of an active catalyst material, and graphene coating at least partially covering the layer of the active catalyst material; a second electrode comprising a conductor; an electrolyte medium in electrolytic communication with the first and second electrodes (13, 15); a chemical substance capable of undergoing an electrochemical reaction; and a voltage source in electrolytic communication with the first and second electrodes (13, 15).
An automatic machine for the removal of a nanocoating with a thickness of a few hundred angstroms from the perimetric margins of the face of glass plates having a rectangular or other than rectangular shape that are substantially flat and arranged vertically or almost vertically, comprising a machine body equipped with a resting surface with pseudovertical sliding and with a pseudohorizontal conveyor and at least one working head (200, 100), movable in relation to said glass plate along its perimeter, said working head comprising two tool bodies (201a, 201p, 101a, 101p) that are adjustable and floating in a direction that is substantially transverse to the plane of said glass plate, each tool body (201a, 201p, 101a, 101p) comprising a cylindrical abrasive tool (202a, 202p, 102a, 102p) which rotates with a cutting motion to carry out the grinding operation, characterized in that the two tool bodies (201a, 201p, 101a, 101p) of the at least one working head (200, 100) are arranged in series, i.e., in succession with respect to the direction of the relative motion between said head (200, 100) and the glass plate such that the two tool bodies (201a, 201p, 101a, 101p) perform in succession the grinding processes; the two tool bodies (201a, 201p) of the at least one working head being orientable by being rotatable simultaneously about an axis that is normal to the face of the glass plate and wherein by means of the combination of the synchronous motion of the conveyor of the sucker type and of the synchronous motions (V; J) of the working head, the grinding process can follow contours of the glass plate having a non-rectangular shape (1'; 1"; 1'").
A polymer compound for use as a polymerization agent in coatings, paints, or inks, the polymer compound comprising a metal-bearing urethanized polymer having the following formula: wherein M is a metal; R 1 is a first alkyl group; and R 2 is a second alkyl group, wherein the metal is cobalt or manganese, wherein the metal-bearing urethanized polymer has a metal content between 6 % and 8% by weight, and a water solubility according to OECD 105 below 20 mg/l and wherein the urethanized polymer is soluble in a low-volatile organic compound (low-VOC) solvent. M is a metal; R 1 is a first alkyl group; and R 2 is a second alkyl group,
Method for assigning an operating address to an operating device for lighting means, wherein the operating address is transmitted to the operating device digitally coded via an interface configured for being connected to a light sensor (light sensor), characterized in that the assignment of the operating address takes place by connecting to the interface an active plug (active smart plug) that is supplied by the operating device via the interface with voltage in order to operate a controller (control) in the plug, wherein the controller (control) issues an address that is interpreted by the operating device.
A system, comprising: a fuel nozzle, comprising: a central body; an outer tube disposed about the central body; an air path disposed between the central body and the outer tube; a vane disposed in the air path, wherein the vane comprises a fuel inlet, a fuel outlet, and a divider disposed in the vane; and a fuel path extending through the central body to the fuel inlet into the vane, wherein the fuel path extends through the vane in a non-straight direction about the divider from the fuel inlet to the fuel outlet, characterized in that the divider is disposed axially between a downstream cavity having the fuel inlet and an upstream cavity having the fuel outlet and in that the upstream cavity comprises a bypass adapted to channel fuel from the fuel path extending through the central body directly into the upstream cavity. a central body; an outer tube disposed about the central body; an air path disposed between the central body and the outer tube; a vane disposed in the air path, wherein the vane comprises a fuel inlet, a fuel outlet, and a divider disposed in the vane; and a fuel path extending through the central body to the fuel inlet into the vane, wherein the fuel path extends through the vane in a non-straight direction about the divider from the fuel inlet to the fuel outlet, characterized in that the divider is disposed axially between a downstream cavity having the fuel inlet and an upstream cavity having the fuel outlet and in that the upstream cavity comprises a bypass adapted to channel fuel from the fuel path extending through the central body directly into the upstream cavity.
Resilient support body for receiving a load in a container, consisting of a load-side, tub-shaped cover, a core which at least partially fills the interior of the cover, and a base plate which closes the cover together with the core, wherein • the cover consists of an elastomer or rubber-elastic polymer, • the core is made of a plastics material of which the Shore hardness is different from that of the cover material, and increases the compressive strength of the cover and • the cover is thermally welded to the base plate or is molded therearound in a form-fitting or integrally bonded manner, • the cover consists of an elastomer or rubber-elastic polymer, • the core is made of a plastics material of which the Shore hardness is different from that of the cover material, and increases the compressive strength of the cover and • the cover is thermally welded to the base plate or is molded therearound in a form-fitting or integrally bonded manner,
Pulverulent composition exhibiting: • at least 96% of sorbitol (w/w) as dry matter, • a ratio A of the sorbitol/(mannitol + arabitol) (w/w) of between 105 and 150, preferably from 110 to 149, and/or a Mechanical Stability Index D(v,0.1) (MSI D(v,0.1)) of less than 60%, preferably of less than 55%, the MSI D(v,0.1) being equal to: MSI D ν, 0.1 = D v,0.1 a − D v,0.1 b × 100 D v,0.1 a in which D(v,0.1)b corresponds to the D(v,0.1) of the said pulverulent composition measured after an impact test comprising three cycles of projecting the said pulverulent composition at 20 m/sec onto a smooth nondeformable surface and D(v,0.1)a corresponding to the D(v,0.1) of the said pulverulent composition measured before the impact test, • a bulk density of 630 to 700 g/l, • preferably, a specific surface of between 0.6 and 1.8 m 2 /g. • at least 96% of sorbitol (w/w) as dry matter, • a ratio A of the sorbitol/(mannitol + arabitol) (w/w) of between 105 and 150, preferably from 110 to 149, and/or a Mechanical Stability Index D(v,0.1) (MSI D(v,0.1)) of less than 60%, preferably of less than 55%, the MSI D(v,0.1) being equal to: MSI D ν, 0.1 = D v,0.1 a − D v,0.1 b × 100 D v,0.1 a in which D(v,0.1)b corresponds to the D(v,0.1) of the said pulverulent composition measured after an impact test comprising three cycles of projecting the said pulverulent composition at 20 m/sec onto a smooth nondeformable surface and D(v,0.1)a corresponding to the D(v,0.1) of the said pulverulent composition measured before the impact test, • a bulk density of 630 to 700 g/l, • preferably, a specific surface of between 0.6 and 1.8 m 2 /g.
A water heating system (1 to 9) comprising: a refrigerant circuit that has a compressor and in which a refrigerant flows; and a water circuit in which water flows, wherein the refrigerant circuit and the water circuit share a water heat exchanger that heats water by using the refrigerant discharged from the compressor, wherein the water heat exchanger includes a first heat-exchanging unit in which the refrigerant and water at a water outlet portion of the water heat exchanger exchange heat with each other, and wherein the refrigerant circuit further has a heat radiator that is disposed between the compressor and the first heat-exchanging unit characterized in that the heat radiator is configured to radiate heat of the refrigerant discharged from the compressor to water that flows on an upstream side of the water outlet portion. a refrigerant circuit that has a compressor and in which a refrigerant flows; and a water circuit in which water flows, wherein the refrigerant circuit and the water circuit share a water heat exchanger that heats water by using the refrigerant discharged from the compressor, wherein the water heat exchanger includes a first heat-exchanging unit in which the refrigerant and water at a water outlet portion of the water heat exchanger exchange heat with each other, and wherein the refrigerant circuit further has a heat radiator that is disposed between the compressor and the first heat-exchanging unit characterized in that the heat radiator is configured to radiate heat of the refrigerant discharged from the compressor to water that flows on an upstream side of the water outlet portion.
An engineered, non-naturally occurring Clustered Regularly Interspersed Short Palindromic Repeats (CRISPR)-CRISPR associated (Cas) (CRISPR-Cas) vector system comprising one or more vectors comprising: a) a first regulatory element operably linked to two or more nucleotide sequences, each encoding a CRISPR-Cas system guide RNA comprising a polynucleotide sequence comprising a guide sequence, a tracrRNA, and a tracr mate sequence, wherein each guide RNA hybridizes with a different target sequence in polynucleotide loci in a eukaryotic cell, b) a second regulatory element operably linked to a nucleotide sequence encoding a Type II Cas9 protein, wherein components (a) and (b) are located on same or different vectors of the system, wherein the system further comprises one or more nuclear localization signal(s) (NLS(s)) expressed with the nucleotide sequence encoding the Cas9 protein, and whereby the two or more guide RNAs target polynucleotide loci in the eukaryotic cell and the Cas9 protein cleaves the polynucleotide loci, whereby the sequences of the polynucleotide loci are modified. a) a first regulatory element operably linked to two or more nucleotide sequences, each encoding a CRISPR-Cas system guide RNA comprising a polynucleotide sequence comprising a guide sequence, a tracrRNA, and a tracr mate sequence, wherein each guide RNA hybridizes with a different target sequence in polynucleotide loci in a eukaryotic cell, b) a second regulatory element operably linked to a nucleotide sequence encoding a Type II Cas9 protein,
Synergistic composition comprising - propolis comprising polyphenols at a concentration between 70 and 90% by weight with respect to propolis and - carnosic acid, for use in preventing and/or treating infections caused by species of the opportunistic fungus Cryptococcus neoformans selected from the group consisting of cryptococcosis, meningitis and pneumonia in humans and/or in animals. - propolis comprising polyphenols at a concentration between 70 and 90% by weight with respect to propolis and - carnosic acid,
A non-transitory computer-readable medium storing instructions (122, 650) that, when executed by one or more processors, cause the one or more processors to: receive, at a producer server 106, a job specification for a construction composition, the job specification specifying one or more performance requirements for the construction composition; accessing a set of inputs affecting one or more properties of the construction composition; providing the job specification and set of inputs to a predictive model; programmatically determining, using the predictive model, a plurality of construction compositions that meet or approximate the performance requirements of the job specification given the set of inputs wherein each construction composition comprises a plurality of raw materials (114, 116) mixed in a determined ratio, the determining comprising eliminating from consideration at least one construction composition that does not meet or approximate the performance requirements of the job specification according to the predictive model; outputting the plurality of construction compositions approximating the performance requirements of the job specification; running a simulation on each of the plurality of compositions to predict an expected performance of each respective construction composition; and outputting the expected performance of each respective construction composition. receive, at a producer server 106, a job specification for a construction composition, the job specification specifying one or more performance requirements for the construction composition; accessing a set of inputs affecting one or more properties of the construction composition; providing the job specification and set of inputs to a predictive model; programmatically determining, using the predictive model, a plurality of construction compositions that meet or approximate the performance requirements of the job specification given the set of inputs wherein each construction composition comprises a plurality of raw materials (114, 116) mixed in a determined ratio, the determining comprising eliminating from consideration at least one construction composition that does not meet or approximate the performance requirements of the job specification according to the predictive model; outputting the plurality of construction compositions approximating the performance requirements of the job specification; running a simulation on each of the plurality of compositions to predict an expected performance of each respective construction composition; and outputting the expected performance of each respective construction composition.
Combination made up of a plurality of rectangular-outline storage containers which are open in the upward direction and of a rectangular moulding for accommodating and fixing the storage containers, wherein the accommodating surface area of the moulding is an even-numbered multiple of the container surface area and in each case two storage containers are arranged adjacent to one another such that their facing side walls are located symmetrically in relation to the shorter centre longitudinal axis of the moulding, wherein on the underside of the moulding, said underside being directed away from the accommodating surface, a crosspiece is formed along the centre longitudinal axis and the surface of the said crosspiece is provided with a groove which brings together, and encloses, the facing side walls of in each case two adjacent storage containers arranged beneath the moulding and of which the side edges extend into the respective storage container, wherein the channel which forms the groove is widened in a funnel-like manner at its ends such that, when the moulding is initially placed in position obliquely in a direction parallel to the shorter side walls of the containers, the side walls of the funnel-like widening form the guide for the adjacent side walls of the storage containers, said side walls penetrating into the groove, and wherein the moulding - is designed in the form of a pallet or - is designed in the form of a cover and has a surrounding edge, which encloses the container edges from above. - is designed in the form of a pallet or - is designed in the form of a cover and has a surrounding edge, which encloses the container edges from above.
A substantially tubular intraluminal scaffold comprising: a plurality of hoop components configured as the primary radial load bearing elements of the intraluminal scaffold; and one or more connector elements interconnecting the plurality of hoop components, wherein the plurality of hoop components and the one or more connector elements are a one-piece composite structure formed from a bioabsorbable metallic material core and a bioabsorbable polymeric material encapsulating the bioabsorbable metallic material core forming an outer structure; characterised in that the bioabsorbable metallic material core comprises a magnesium alloy comprising: greater than 90% magnesium; 4% to 5% yttrium; 1.5% to 4% neodymium and the remaining constituents are less than 1% and are formed for the major part by lithium or zirconium; and the bioabsorbable polymeric material comprises an acid releasing polymer. a plurality of hoop components configured as the primary radial load bearing elements of the intraluminal scaffold; and one or more connector elements interconnecting the plurality of hoop components, wherein the plurality of hoop components and the one or more connector elements are a one-piece composite structure formed from a bioabsorbable metallic material core and a bioabsorbable polymeric material encapsulating the bioabsorbable metallic material core forming an outer structure; characterised in that the bioabsorbable metallic material core comprises a magnesium alloy comprising: greater than 90% magnesium; 4% to 5% yttrium; 1.5% to 4% neodymium and the remaining constituents are less than 1% and are formed for the major part by lithium or zirconium; and the bioabsorbable polymeric material comprises an acid releasing polymer.