mhurhangee/ep-ind-claims huggingface dataset:
A resin composition comprising a synthetic resin and a flaked graphite that is a laminate of graphene sheets the number of which is 150 or less and that has an aspect ratio of 20 or more, wherein the resin composition contains 0.5 to 30 party by weight of the flaked graphite relative to 100 parts by weight of the synthetic resin, wherein the flaked graphite has a maximum dimension in the plane direction of the graphene sheet in the flaked graphite of 1 to 100 μm, and wherein the flaked graphite is obtained by exfoliating a graphite between graphene sheets, wherein the aspect ratio of the flaked graphite means the arithmetic mean value of the aspect ratios of respective flaked graphites calculated for each flaked graphite by dividing the maximum dimension in the plane direction of a graphene sheet by the thickness, the maximum dimension in the plane direction of a graphene sheet in a flaked graphite means the maximum dimension of the flaked graphite when the flaked graphite is viewed from a direction in which the flaked graphite looks largest in its area, and the thickness of the flaked graphite means the maximum dimension of the flaked graphite in a direction perpendicular to the surface of the flaked graphite when the flaked graphite is viewed from a direction in which the flaked graphite looks largest in its area, wherein the number of graphene sheets laminated in the flaked graphite is measured by using a transmission electron microscope and it means the arithmetic mean value of the numbers of graphene sheets laminated in respective flaked graphites, the maximum dimension in the plane direction of a graphene sheet in a flaked graphite is measured by using an FE-SEM, and the thickness of a flaked graphite is measured by using a transmission electron microscope or an FE-SEM.
A method of attenuating porcine pseudorabies virus, comprising: a step of cultivating the pseudorabies virus adapted to cell culture, wherein the pseudorabies virus is inoculated into subcultured mammalian cells, and then subcultured for more than five passages so as to obtain the porcine pseudorabies virus strain adapted to the subcultured mammalian cells; and a step of attenuating the porcine pseudorabies virus, wherein the porcine pseudorabies virus strain adapted to the subcultured mammalian cells is inoculated into subcultured avian cells and then subcultured for more than one passage so as to obtain the attenuated strain of the porcine pseudorabies virus, wherein the genomic sequence of the attenuated strain of porcine pseudorabies virus has a serial deletion of 3455bp started from the 890th nucleotide of gl genomic sequence, of which the deleted sequence is as shown in SEQ.ID.NO.1. a step of cultivating the pseudorabies virus adapted to cell culture, wherein the pseudorabies virus is inoculated into subcultured mammalian cells, and then subcultured for more than five passages so as to obtain the porcine pseudorabies virus strain adapted to the subcultured mammalian cells; and a step of attenuating the porcine pseudorabies virus, wherein the porcine pseudorabies virus strain adapted to the subcultured mammalian cells is inoculated into subcultured avian cells and then subcultured for more than one passage so as to obtain the attenuated strain of the porcine pseudorabies virus, wherein the genomic sequence of the attenuated strain of porcine pseudorabies virus has a serial deletion of 3455bp started from the 890th nucleotide of gl genomic sequence, of which the deleted sequence is as shown in SEQ.ID.NO.1.
A method of forming solid beads, the method comprising: Providing a first liquid comprising a solute, a solvent and a target material which is desired to be encapsulated within the solid beads, the solute comprising a polymer; Providing a liquid droplet generator operable to generate liquid droplets; Causing the liquid droplet generator to form liquid droplets of the first liquid; Passing the liquid droplets through a gas into contact with a second liquid so as to cause the solvent to exit the droplets, thus forming solid beads; the solubility of the solvent in the second liquid being at least 5g of solvent per 100ml of second liquid, the solvent being substantially miscible with the second liquid; wherein the second liquid is provided as a flow and the method comprises contacting the liquid droplets with the flow of second liquid; characterised in that: the concentration of polymer in the first liquid is at least 10% w/v, 'w' being the weight of the polymer and 'v' being the volume of the solvent, the target material comprises a pharmaceutically active agent, or is a precursor of a pharmaceutically active agent, and the liquid droplet generator comprises a piezoelectric component operable to generate liquid droplets. Providing a first liquid comprising a solute, a solvent and a target material which is desired to be encapsulated within the solid beads, the solute comprising a polymer; Providing a liquid droplet generator operable to generate liquid droplets; Causing the liquid droplet generator to form liquid droplets of the first liquid; Passing the liquid droplets through a gas into contact with a second liquid so as to cause the solvent to exit the droplets, thus forming solid beads; the solubility of the solvent in the second liquid being at least 5g of solvent per 100ml of second liquid, the solvent being substantially miscible with the second liquid; wherein the second liquid is provided as a flow and the method comprises contacting the liquid droplets with the flow of second liquid; characterised in that: the concentration of polymer in the first liquid is at least 10% w/v, 'w' being the weight of the polymer and 'v' being the volume of the solvent, the target material comprises a pharmaceutically active agent, or is a precursor of a pharmaceutically active agent, and the liquid droplet generator comprises a piezoelectric component operable to generate liquid droplets. the concentration of polymer in the first liquid is at least 10% w/v, 'w' being the weight of the polymer and 'v' being the volume of the solvent, the target material comprises a pharmaceutically active agent, or is a precursor of a pharmaceutically active agent, and the liquid droplet generator comprises a piezoelectric component operable to generate liquid droplets.
A method of attaching nano-objects (306, 604, 606, 608, 906) to a sample substrate (302, 602, 902, 1018) at precise locations comprising: providing a deposition precursor at the surface of the substrate located within the vacuum chamber of a focused charged particle beam apparatus; focusing a charged particle beam (1016, 1052) on the substrate, the beam decomposing the deposition precursor to form a pattern of deposits (202, 204) on the surface of the substrate at the precise locations impacted by the beam; and processing the sample to provide linker groups on the surface of the deposit; and processing the sample to chemically bond nano-objects to the linker groups at the precise locations impacted by the beam. providing a deposition precursor at the surface of the substrate located within the vacuum chamber of a focused charged particle beam apparatus; focusing a charged particle beam (1016, 1052) on the substrate, the beam decomposing the deposition precursor to form a pattern of deposits (202, 204) on the surface of the substrate at the precise locations impacted by the beam; and processing the sample to provide linker groups on the surface of the deposit; and processing the sample to chemically bond nano-objects to the linker groups at the precise locations impacted by the beam.
Hob apparatus with at least one shielding element (10a-b, 12a-b, 14a-b, 16a-b) and with a cover unit (18a-b) and with a hob plate (20a-b), by means of which the shielding element (10a-b, 12a-b, 14a-b, 16a-b) is retained in at least one cooking operating state, and with at least one latching element (22a-b, 24a-b), by means of which the shielding element (10a-b, 12a-b) is retained in at least one cooking operating state on the hob plate (20a-b), wherein the cover unit (18a-b) is retained by the shielding element (10a-b, 12a-b, 14a-b, 16a-b) in at least one cooking operating state.
A process for manufacturing glazing comprising a substrate, in particular a glass substrate, provided with a coating comprising at least one layer consisting of a porous material, in particular for which the refractive index is thus reduced thereby, comprising the following steps: - depositing on the substrate, via a physical vapor deposition process in a vacuum chamber, a coating comprising a layer of a material comprising at least one element selected from Si, Ti, Sn, Al, Zr, In or a mixture of at least two of these elements, oxygen and carbon, said layer in addition optionally comprising hydrogen, - heat treatment of the layer thus deposited, under conditions that enable at least one portion of the carbon to be removed and said layer of porous material to be obtained, said process being characterized in that said deposition is carried out, on the substrate passing through said chamber, by the sputtering of a carbon target, under a reactive, preferably oxidizing, plasma atmosphere comprising at least one precursor of the element or elements. - depositing on the substrate, via a physical vapor deposition process in a vacuum chamber, a coating comprising a layer of a material comprising at least one element selected from Si, Ti, Sn, Al, Zr, In or a mixture of at least two of these elements, oxygen and carbon, said layer in addition optionally comprising hydrogen, - heat treatment of the layer thus deposited, under conditions that enable at least one portion of the carbon to be removed and said layer of porous material to be obtained,
An avalanche photodiode (150, 160), comprising: a first layer (108; 662; 812) comprising passive material; a second layer (102; 660; 810) comprising an absorbing material, the second layer (102; 660; 810) being on the first layer (108; 662; 812); a plateau structure comprising a diffusion region (654; 188) having an active region, the active region comprising a buried p-n junction and at least a first portion of the second layer (102; 660; 810); wherein the passive material has no electric field and the active region has an electric field greater than zero, further to applying voltage across the photodiode, wherein the plateau structure is based on an absence of a second portion of the second layer (102; 660; 810), said second portion of the second layer (102; 660; 810) being removed at a distance greater than zero from the buried p-n junction; characterized in that the distance is such that the second portion of the second layer which is removed comprises a part of the active region which has an electric field greater than zero. a first layer (108; 662; 812) comprising passive material; a second layer (102; 660; 810) comprising an absorbing material, the second layer (102; 660; 810) being on the first layer (108; 662; 812); a plateau structure comprising a diffusion region (654; 188) having an active region, the active region comprising a buried p-n junction and at least a first portion of the second layer (102; 660; 810); wherein the passive material has no electric field and the active region has an electric field greater than zero, further to applying voltage across the photodiode, wherein the plateau structure is based on an absence of a second portion of the second layer (102; 660; 810), said second portion of the second layer (102; 660; 810) being removed at a distance greater than zero from the buried p-n junction; characterized in that the distance is such that the second portion of the second layer which is removed comprises a part of the active region which has an electric field greater than zero.
A method of manufacturing a valve device, said valve device comprising: a poppet that is formed in a hollow shaft shape except for a leading end, has a tapered closure part at the leading end and a side hole passing through a wall of the hollow shaft-shaped part, and rotates around the shaft center thereof during opening and closing actions; and a valve seat having a sloped seat surface with which the closure part of the poppet comes into contact when closing the valve device, the closure part of the poppet having a higher hardness than the seat surface of the valve seat, said method comprising: forming a cut mark in a spiral shape in the closure part of the poppet by means of a cutting tool, characterized by checking a direction of rotation of the poppet around the shaft center that occurs during the valve closing action, wherein after the direction of rotation of the poppet is confirmed, the cut mark is formed in the opposite direction from the direction of rotation, the direction of the cut mark referring to the direction in which the spiral extends from the center toward the outside. forming a cut mark in a spiral shape in the closure part of the poppet by means of a cutting tool, characterized by checking a direction of rotation of the poppet around the shaft center that occurs during the valve closing action, wherein after the direction of rotation of the poppet is confirmed, the cut mark is formed in the opposite direction from the direction of rotation, the direction of the cut mark referring to the direction in which the spiral extends from the center toward the outside.
A composition comprising a mixture containing fluorinated hydrocarbons, the mixture comprising ≥ 99.5 wt.-% of a total of difluoromethane, pentafluoroethane and 1,1,1,2-tetrafluoroethane (R134a), and the composition ratio of R32, R125 and R134a in the mixture falls within a triangle having the points A, F and G as vertices in a ternary composition diagram in which the sum of R32, R125 and R134a is 100 wt.-%: A: R32/R125/R134a = 37.3/17.0/45.7 wt% F: R32/R125/R134a = 30.7/10.9/58.4 wt% G: R32/R125/R134a = 29.4/14.1/56.5 wt%. A: R32/R125/R134a = 37.3/17.0/45.7 wt% F: R32/R125/R134a = 30.7/10.9/58.4 wt% G: R32/R125/R134a = 29.4/14.1/56.5 wt%.
A method, comprising: under control of one or more processors configured with executable instructions: calculating voltages at a secondary of each of a plurality of transformers; comparing the calculated voltages associated with each of the plurality of transformers to identify at least one transformer having calculated voltages that are lower than a first threshold, or having calculated voltages that have variance greater than a second threshold, based at least in part on calculated voltages of other transformers; determining that load changes measured by one or more meters (122, 124, 126) associated with the identified transformer fail to justify the calculated voltages being less than the first threshold or having variance that is greater than the second threshold; and indicating a possibility of power diversion based at least in part on the failure of the load changes measured by the one or more meters (122, 124, 126) associated with the identified transformer to justify the calculated voltages being lower than the first threshold or the calculated voltages having variance that is greater than the second threshold. calculating voltages at a secondary of each of a plurality of transformers; comparing the calculated voltages associated with each of the plurality of transformers to identify at least one transformer having calculated voltages that are lower than a first threshold, or having calculated voltages that have variance greater than a second threshold, based at least in part on calculated voltages of other transformers; determining that load changes measured by one or more meters (122, 124, 126) associated with the identified transformer fail to justify the calculated voltages being less than the first threshold or having variance that is greater than the second threshold; and indicating a possibility of power diversion based at least in part on the failure of the load changes measured by the one or more meters (122, 124, 126) associated with the identified transformer to justify the calculated voltages being lower than the first threshold or the calculated voltages having variance that is greater than the second threshold.
An information processing apparatus configured to communicate with a communications apparatus, the information processing apparatus comprising: a storage unit configured to store therein one or more application sets configured by information of one or more applications, and identification information of a predetermined state associated with the one or more application sets; and a control unit configured to use a communications unit that is configured to communicate with the communications apparatus and, in response to the communications unit receiving the identification information of the predetermined state from the communications apparatus, is further configured to transmit to the communications apparatus the one or more application sets determined to be associated with the identification information of the predetermined state by operation control data of the one or more application sets and stored in the storage unit, wherein each of the one or more application sets stored in the storage unit includes: the operation control data. a storage unit configured to store therein one or more application sets configured by information of one or more applications, and identification information of a predetermined state associated with the one or more application sets; and a control unit configured to use a communications unit that is configured to communicate with the communications apparatus and, in response to the communications unit receiving the identification information of the predetermined state from the communications apparatus, is further configured to transmit to the communications apparatus the one or more application sets determined to be associated with the identification information of the predetermined state by operation control data of the one or more application sets and stored in the storage unit, wherein each of the one or more application sets stored in the storage unit includes: the operation control data.
A suturing device for minimally invasive surgery, comprising: at least one ferrule holder; a latch spring comprising at least one latch having at least one latch arm biased towards the at least one ferrule holder; a needle comprising one or more curved needle arms; and a needle control wire coupled to the needle for moving the one or more curved needle arms on an arcuate path through a tissue gap towards the at least one ferrule holder; a cam coupled to the needle control wire for selective engagement with a follower region on the latch spring; wherein the selective engagement comprises alternately contacting the follower region with the cam on every other movement of the needle control wire in a first direction; and wherein the at least one latch arm is pushed away from the at least one ferrule holder when the cam contacts the follower region such that the at least one latch no longer prevents the ferrule from being removed by a needle tip of the needle. at least one ferrule holder; a latch spring comprising at least one latch having at least one latch arm biased towards the at least one ferrule holder; a needle comprising one or more curved needle arms; and a needle control wire coupled to the needle for moving the one or more curved needle arms on an arcuate path through a tissue gap towards the at least one ferrule holder; a cam coupled to the needle control wire for selective engagement with a follower region on the latch spring; wherein the selective engagement comprises alternately contacting the follower region with the cam on every other movement of the needle control wire in a first direction; and wherein the at least one latch arm is pushed away from the at least one ferrule holder when the cam contacts the follower region such that the at least one latch no longer prevents the ferrule from being removed by a needle tip of the needle.
Microdrive, preferably an electrical microdrive for automotive latches such as lateral door latches, tailgate latches or closure aids with a motor housing, a motor axis and a housing accommodating the motor housing and the motor axis and a worm gearbox, consisting of a housing case and a housing lid, characterized in that the motor axis is braced by means of a bearing bore on the housing case and is secured there by means of an axial stop, and that the axial stop assigned to the bearing bore is produced by the housing lid and the bearing bore from the outside of the housing case.
Transport system of mobile platforms comprising a front frame, rear frame, central beam for the connection between front frame and the rear frame, roller bearings, platforms' locking system, additional security locking system, hook and eye, mounted on wheels, characterized in that the central beam comprises means to avoid an excessive bending and being reinforced with angle plates, cover plates and side plates.
A tricycle comprising a front body, a rear body and a vehicle tilting system, wherein the front body comprises a front wheel, the rear body comprises two rear wheels, a stability triangle being formed by connecting a plurality of touchdown points of the front wheel and the two rear wheels, and the front body and the rear body being connected with the vehicle tilting system, characterized in that the stability triangle has a longitudinal centerline which passes through the touchdown point of the front wheel, wherein the vehicle tilting system comprises a track assembly, which is arcuate in shape, comprising two arcuate tracks, each of the arcuate tracks having an upper contact surface and a lower contact surface, the upper contact surface and the lower contact surface having a common axis as an axis of tilting of the track assembly, wherein the axis of tilting of the track assembly is close to a ground and is substantially parallel with the longitudinal centerline of the stability triangle; and a sliding base assembly, which is slidably disposed on the track assembly, wherein the sliding base assembly comprises a sliding base body and two roller sets, the sliding base body comprises a pair of sliding carriages, the two roller sets are rotatably disposed on the sliding base body and each slidably abut against one of the two arcuate tracks, respectively, one of said two roller sets being allocated to each of said sliding carriages, each of said two roller sets comprising at least one upper roller and at least one lower roller, each of said upper rollers being in rolling contact with the upper contact surface of the corresponding arcuate track on the same side, and each of said lower rollers being in rolling contact with the lower contact surface of the corresponding arcuate track on the same side. a track assembly, which is arcuate in shape, comprising two arcuate tracks, each of the arcuate tracks having an upper contact surface and a lower contact surface, the upper contact surface and the lower contact surface having a common axis as an axis of tilting of the track assembly, wherein the axis of tilting of the track assembly is close to a ground and is substantially parallel with the longitudinal centerline of the stability triangle; and a sliding base assembly, which is slidably disposed on the track assembly, wherein the sliding base assembly comprises a sliding base body and two roller sets, the sliding base body comprises a pair of sliding carriages, the two roller sets are rotatably disposed on the sliding base body and each slidably abut against one of the two arcuate tracks, respectively, one of said two roller sets being allocated to each of said sliding carriages, each of said two roller sets comprising at least one upper roller and at least one lower roller, each of said upper rollers being in rolling contact with the upper contact surface of the corresponding arcuate track on the same side, and each of said lower rollers being in rolling contact with the lower contact surface of the corresponding arcuate track on the same side.