mhurhangee/ep-ind-claims huggingface dataset:
A microorganism, which is the bacterial strain IK7, accession No. NITE BP-271, belonging to species Enterobacter aerogenes, which has the ability to produce a deoxy polyol dehydrogenase which is involved in the conversion of L-rhamnitol to 1-deoxy-L-fructose, 1-deoxy D-allitol to 1-deoxy-D-psicose or the oxidation of a sugar alcohol having an alcohol group (H-C-OH) bound to the carbon at the position 2 in D-glycero coordination to a corresponding ketose and wherein this activity is never exerted for D-iditol, D-mannitol and D-talitol where the alcohol group bound to the carbon at the position 2 has L-glycero coordination.
Dorsokinetic backrest for a seating furnishing, in particular for an office swivel chair, comprising a rest support and comprising a baseplate on which a flexibly deformable dorsokinetic bearing is provided, comprising a backrest frame, which is connected to the dorsokinetic bearing and which is pivotable through all rotational degrees of freedom relative to the baseplate as a result of the flexibility of the dorsokinetic bearing, wherein a shared linear guide is provided between the rest support and the baseplate, and is formed in such a way that it allows a vertical displacement of the baseplate relative to the rest support as the sole degree of freedom, wherein a shared latching locking device is provided between the rest support and the baseplate and is formed to lock the baseplate relative to the rest support in various predetermined positions of the linear guide, and wherein the baseplate, in an unmounted or pre-mounting state, can be introduced into the linear guide and the latching locking device so as to take on a state mounted on the rest support, in such a way that it is locked by means of the latching locking device by vertically displacing the baseplate relative to the rest support.
An isolated human monoclonal antibody or an antigen-binding portion thereof that specifically binds to human C-C chemokine receptor type 2, comprising a heavy chain variable (V H) domain amino acid sequence comprising a V H CDR1 as set forth in SEQ ID NO:84, a V H CDR2 as set forth in SEQ ID NO:85, and a V H CDR3 as set forth in SEQ ID NO:86; and a light chain variable (V L) domain amino acid sequence comprising a V L CDR1 as set forth in SEQ ID NO:102, a V L CDR2 as set forth in SEQ ID NO:103, and a V L CDR3 as set forth in SEQ ID NO:104.
Multi-cellular polystyrene comprising: expanded polystyrene formed from expansion of an expandable polystyrene comprising an adsorbent comprising alumina, the content of alumina in said expandable polystyrene being less than 3 wt.%, wherein the multi-cellular polystyrene exhibits a multi-cellular size distribution, i.e. the polystyrene is bi-cellular and comprises small cells and large cells, wherein the large cells have an average cellular size of from 150 to 900 microns and the small cells have an average cellular size of from 5 to 50 microns, wherein the cell structure is evaluated using scanning electron microscopy. expanded polystyrene formed from expansion of an expandable polystyrene comprising an adsorbent comprising alumina, the content of alumina in said expandable polystyrene being less than 3 wt.%, wherein the multi-cellular polystyrene exhibits a multi-cellular size distribution, i.e. the polystyrene is bi-cellular and comprises small cells and large cells, wherein the large cells have an average cellular size of from 150 to 900 microns and the small cells have an average cellular size of from 5 to 50 microns, wherein the cell structure is evaluated using scanning electron microscopy.
A method for synchronizing a system including a plurality of redundant processing chains, the system including a global clock pacing the system, each processing chain including a first specific local clock (30A, 32A, 34A) pacing the respective processing chain, and a second local clock (30B, 32B, 34B) able to measure the time, the method including: - providing a first instant via the global clock for each processing chain, - converting the first instant into a first local instant for each processing chain, - implementing the same series of operations on the same input data on each processing chain from the first local instant, - incrementing the second local clock (30B, 32B, 34B) specific to each processing chain is next incremented as long as the series of operations is carried out, to obtain a second local instant, - calculating a local time interval defined as the difference between the second local instant and the first local instant, - comparing the calculated local time intervals to determine a local time interval shared by a majority of the processing chains, the comparison being carried out by a voting mechanism, wherein each processing chain includes a third local clock able to date the events, the method further including: - synchronizing the third local clocks of each processing chain on the common local time interval, each processing chain incrementing its third clock by a quantity equal to the common local time interval, the third local clock being synchronized on both processing chains. - providing a first instant via the global clock for each processing chain, - converting the first instant into a first local instant for each processing chain, - implementing the same series of operations on the same input data on each processing chain from the first local instant, - incrementing the second local clock (30B, 32B, 34B) specific to each processing chain is next incremented as long as the series of operations is carried out, to obtain a second local instant, - calculating a local time interval defined as the difference between the second local instant and the first local instant, - comparing the calculated local time intervals to determine a local time interval shared by a majority of the processing chains, the comparison being carried out by a voting mechanism, - synchronizing the third local clocks of each processing chain on the common local time interval, each processing chain incrementing its third clock by a quantity equal to the common local time interval, the third local clock being synchronized on both processing chains.
A method for controlling a turbocharger system fluidly connected to an exhaust manifold of a combustion engine in a vehicle, said turbocharger system comprising a turbocharger turbine operable by exhaust gases from said exhaust manifold, and a tank with pressurized gas, said tank being fluidly connectable to said turbocharger turbine, said method comprising the steps of: predicting the coming drive conditions of the vehicle, injecting pressurized gas from said tank to drive said turbocharger turbine such that the turbocharger turbine is at least partly driven by said pressurized gas, in response to the predicted drive conditions, wherein the predicted drive conditions are indicative of the need for injection of pressurized gas from said tank, where the step of injecting pressurized gas from the tank is dependent on a gear shifting operation, wherein said vehicle further comprises a gear box or transmission system coupled to the combustion engine, wherein said method comprises the step of: executing a first gear shifting operation, and subsequently executing a second gear shifting operation, and wherein the step of injecting pressurized gas from said tank to drive said turbocharger turbine is carried out between the step of executing a first gear shifting operation and the step of executing a second gear shifting operation. predicting the coming drive conditions of the vehicle, injecting pressurized gas from said tank to drive said turbocharger turbine such that the turbocharger turbine is at least partly driven by said pressurized gas, in response to the predicted drive conditions, wherein the predicted drive conditions are indicative of the need for injection of pressurized gas from said tank, where the step of injecting pressurized gas from the tank is dependent on a gear shifting operation, wherein said vehicle further comprises a gear box or transmission system coupled to the combustion engine, wherein said method comprises the step of: executing a first gear shifting operation, and subsequently executing a second gear shifting operation, and wherein the step of injecting pressurized gas from said tank to drive said turbocharger turbine is carried out between the step of executing a first gear shifting operation and the step of executing a second gear shifting operation. executing a first gear shifting operation, and subsequently executing a second gear shifting operation, and wherein the step of injecting pressurized gas from said tank to drive said turbocharger turbine is carried out between the step of executing a first gear shifting operation and the step of executing a second gear shifting operation.
Apparatus comprising: a surface configured to receive an arm of a patient; a first sensor operatively coupled to the surface and configured to (a) detect a parameter selected from the group consisting of: movement of the surface, pressure exerted upon the surface, and force exerted upon the surface, and (b) generate a first sensor signal in response thereto; and at least one computer processor configured to receive the first sensor signal, and to derive a respiratory rate of the patient at least partially based upon the received first sensor signal, characterised in that the surface is hingedly coupled to a supporting element, via a hinge, such that when the patient's arm is disposed upon the surface, the surface is configured to move as a result of movement of the patient's arm. a surface configured to receive an arm of a patient; a first sensor operatively coupled to the surface and configured to (a) detect a parameter selected from the group consisting of: movement of the surface, pressure exerted upon the surface, and force exerted upon the surface, and (b) generate a first sensor signal in response thereto; and at least one computer processor configured to receive the first sensor signal, and to derive a respiratory rate of the patient at least partially based upon the received first sensor signal, characterised in that the surface is hingedly coupled to a supporting element, via a hinge, such that when the patient's arm is disposed upon the surface, the surface is configured to move as a result of movement of the patient's arm.
An optical fiber comprising: a glass fiber comprising a core and a cladding; and a coating resin layer, wherein: the coating resin layer has a primary resin layer being in contact with the glass fiber and coating the glass fiber and a secondary resin layer coating the primary resin layer; the primary resin layer is formed by curing a resin composition comprising a base resin containing an oligomer comprising urethane (meth)acrylate, a monomer, a photopolymerization initiator, and a silane coupling agent, and inorganic oxide particles; the secondary resin layer is formed by curing a resin composition comprising a base resin containing an oligomer comprising urethane (meth)acrylate, a monomer, and a photopolymerization initiator, and hydrophobic inorganic oxide particles; the average primary particle size of the inorganic oxide particles contained in the primary resin layer is 20 nm or more and 70 nm or less; and the average particle size of the inorganic oxide particles contained in the secondary resin layer is 10 nm or more and 30 nm or less. a glass fiber comprising a core and a cladding; and a coating resin layer, wherein: the coating resin layer has a primary resin layer being in contact with the glass fiber and coating the glass fiber and a secondary resin layer coating the primary resin layer; the primary resin layer is formed by curing a resin composition comprising a base resin containing an oligomer comprising urethane (meth)acrylate, a monomer, a photopolymerization initiator, and a silane coupling agent, and inorganic oxide particles; the secondary resin layer is formed by curing a resin composition comprising a base resin containing an oligomer comprising urethane (meth)acrylate, a monomer, and a photopolymerization initiator, and hydrophobic inorganic oxide particles; the average primary particle size of the inorganic oxide particles contained in the primary resin layer is 20 nm or more and 70 nm or less; and the average particle size of the inorganic oxide particles contained in the secondary resin layer is 10 nm or more and 30 nm or less. the coating resin layer has a primary resin layer being in contact with the glass fiber and coating the glass fiber and a secondary resin layer coating the primary resin layer; the primary resin layer is formed by curing a resin composition comprising a base resin containing an oligomer comprising urethane (meth)acrylate, a monomer, a photopolymerization initiator, and a silane coupling agent, and inorganic oxide particles; the secondary resin layer is formed by curing a resin composition comprising a base resin containing an oligomer comprising urethane (meth)acrylate, a monomer, and a photopolymerization initiator, and hydrophobic inorganic oxide particles; the average primary particle size of the inorganic oxide particles contained in the primary resin layer is 20 nm or more and 70 nm or less; and the average particle size of the inorganic oxide particles contained in the secondary resin layer is 10 nm or more and 30 nm or less.
A coating composition, comprising: • a synthetic resin binder; • a multilayer carbon nanofiber subjected to surface treatment with a non-conductive substance; and • a dispersion medium, wherein the multilayer carbon nanofiber is imparted with appropriate non-conductivity by the surface treatment with the non-conductive substance, wherein the surface treatment is physical treatment with a cationic surfactant, and wherein the multilayer carbon nanofiber has a structure in which a plurality of tubular carbon network layers each having a different diameter are arranged coaxially. • a synthetic resin binder; • a multilayer carbon nanofiber subjected to surface treatment with a non-conductive substance; and • a dispersion medium,
A method for grinding a hydraulic binder, comprising: a) introducing: - a hydraulic binder, and - a composition B comprising at least one grinding aid B, into the first chamber of a horizontal grinder comprising several chambers (12, 14), including a first chamber and a last chamber, each chamber being separated from the adjacent chamber by a diaphragm, whereby a composition β comprising the hydraulic binder and composition B is obtained in the first chamber, b) grinding composition β in the horizontal grinder, whereby composition β moves from the first chamber to the last chamber and a ground composition C is obtained at the outlet of the last chamber, characterised in that, at the grinding step, it comprises introducing into the last chamber a composition A comprising at least one grinding aid A comprising an aminoalcohol, composition A differing from composition β. a) introducing: - a hydraulic binder, and - a composition B comprising at least one grinding aid B, into the first chamber of a horizontal grinder comprising several chambers (12, 14), including a first chamber and a last chamber, each chamber being separated from the adjacent chamber by a diaphragm, whereby a composition β comprising the hydraulic binder and composition B is obtained in the first chamber, - a hydraulic binder, and - a composition B comprising at least one grinding aid B, into the first chamber of a horizontal grinder comprising several chambers (12, 14), including a first chamber and a last chamber, each chamber being separated from the adjacent chamber by a diaphragm, whereby a composition β comprising the hydraulic binder and composition B is obtained in the first chamber, into the first chamber of a horizontal grinder comprising several chambers (12, 14), including a first chamber and a last chamber, each chamber being separated from the adjacent chamber by a diaphragm, whereby a composition β comprising the hydraulic binder and composition B is obtained in the first chamber, b) grinding composition β in the horizontal grinder, whereby composition β moves from the first chamber to the last chamber and a ground composition C is obtained at the outlet of the last chamber,
Method for producing a plastic item, which comprises the following steps, which are carried out in particular in the following order: a) providing at least one film comprising a carrier film and at least one decorative layer, b) forming at least one first region and at least one second region in the plane formed by the at least one film, in particular by the decorative layer, by means of a laser, wherein the at least one second region has a higher degree of transmission than the at least first region, c) arranging at least one lacquer layer in the at least one second region by means of a digital print, d) curing, in particular simultaneously curing, the at least one film, in particular the decorative layer, and/or the at least one lacquer layer, e) arranging the at least one film, in particular the decorative layer, on a substrate, f) receiving a plastic item comprising the at least one first region and the at least one second region. a) providing at least one film comprising a carrier film and at least one decorative layer, b) forming at least one first region and at least one second region in the plane formed by the at least one film, in particular by the decorative layer, by means of a laser, wherein the at least one second region has a higher degree of transmission than the at least first region, c) arranging at least one lacquer layer in the at least one second region by means of a digital print, d) curing, in particular simultaneously curing, the at least one film, in particular the decorative layer, and/or the at least one lacquer layer, e) arranging the at least one film, in particular the decorative layer, on a substrate, f) receiving a plastic item comprising the at least one first region and the at least one second region.
An environment cognition system for construction machinery, comprising: a first sensor installed on an upper surface of a cabin of the construction machinery to obtain shape information on a front ground; and a second sensor installed on a lower surface of a boom of the construction machinery to obtain shape information data in an excavation area, wherein the second sensor is installed in an installation region that does not overlap a trajectory (Cb) of a circle drawn by an end of a bucket, with an arm folded as far as possible, wherein the second sensor comprises a LiDAR (Light Detection And Ranging) sensor, the environment cognition system for construction machinery characterized in that if a thickness of the LiDAR sensor is determined, intersection points (c, d) at which the trajectory (Cb) crosses an installation space formed when the LiDAR sensor moves along an installation surface on which the LiDAR sensor is to be installed are determined, an interference space is obtained by finding positions of the intersection points (c, d) using an equation of a secant of the circle, and an interference-free region is determined as the installation region by excluding the interference space from the installation region. a first sensor installed on an upper surface of a cabin of the construction machinery to obtain shape information on a front ground; and a second sensor installed on a lower surface of a boom of the construction machinery to obtain shape information data in an excavation area, wherein the second sensor is installed in an installation region that does not overlap a trajectory (Cb) of a circle drawn by an end of a bucket, with an arm folded as far as possible, wherein the second sensor comprises a LiDAR (Light Detection And Ranging) sensor,
A method for determining the sequence of a target nucleic acid, comprising (a) providing a target nucleic acid having two strands; (b) contacting the target nucleic acid with a polymerase attached to a nanopore under conditions to sequentially remove nucleotides from a first strand of the two strands by pyrophosphorolysis, thereby sequentially producing single nucleotide triphosphates; and (c) distinguishing the sequentially produced single nucleotide triphosphates by detecting changes to the current flowing through the nanopore. (a) providing a target nucleic acid having two strands; (b) contacting the target nucleic acid with a polymerase attached to a nanopore under conditions to sequentially remove nucleotides from a first strand of the two strands by pyrophosphorolysis, thereby sequentially producing single nucleotide triphosphates; and (c) distinguishing the sequentially produced single nucleotide triphosphates by detecting changes to the current flowing through the nanopore.
A method comprising: receiving, by a wireless device, at least one message comprising configuration parameters of a plurality of cells comprising one or more licensed cells and one or more licensed assisted access, LAA, cells; transmitting, in a subframe via at least one of the one or more licensed cells, at least one physical uplink shared channel, PUSCH, signal; and transmitting, in the subframe via an LAA cell of the one or more LAA cells, at least one sounding reference signal, SRS, employing a sounding procedure for the one or more LAA cells; and wherein the sounding procedure: comprises a first procedure for transmitting the at least one SRS and a second procedure for dropping configured transmissions of at least one second SRS; and is independent of transmissions of the at least one PUSCH signal via the at least one of the one or more licensed cells. receiving, by a wireless device, at least one message comprising configuration parameters of a plurality of cells comprising one or more licensed cells and one or more licensed assisted access, LAA, cells; transmitting, in a subframe via at least one of the one or more licensed cells, at least one physical uplink shared channel, PUSCH, signal; and transmitting, in the subframe via an LAA cell of the one or more LAA cells, at least one sounding reference signal, SRS, employing a sounding procedure for the one or more LAA cells; and wherein the sounding procedure: comprises a first procedure for transmitting the at least one SRS and a second procedure for dropping configured transmissions of at least one second SRS; and is independent of transmissions of the at least one PUSCH signal via the at least one of the one or more licensed cells. comprises a first procedure for transmitting the at least one SRS and a second procedure for dropping configured transmissions of at least one second SRS; and is independent of transmissions of the at least one PUSCH signal via the at least one of the one or more licensed cells.
A disinfestation article, comprising: a base; external voids (810, 812, 814, 816), internal voids (820, 822, 824) and an isolated internal void formed in the base; a channel (830, 836, 838) formed in the base and connecting one of the internal voids (820, 822, 824) to one of the external voids (810, 812, 814, 816); pesticidal compound disposed in the external voids (810, 812, 814, 816), internal voids (820, 822, 824) and isolated internal void, wherein the pesticidal compound disposed in the external voids (810, 812, 814, 816) is exposed to a surface of the base. a base; external voids (810, 812, 814, 816), internal voids (820, 822, 824) and an isolated internal void formed in the base; a channel (830, 836, 838) formed in the base and connecting one of the internal voids (820, 822, 824) to one of the external voids (810, 812, 814, 816); pesticidal compound disposed in the external voids (810, 812, 814, 816), internal voids (820, 822, 824) and isolated internal void, wherein the pesticidal compound disposed in the external voids (810, 812, 814, 816) is exposed to a surface of the base.