mhurhangee/ep-ind-claims huggingface dataset:
A method for plasma coating an air-permeable filter media, comprising the steps of: a) ionizing a plasma gas at a temperature of 150°C or lower, and at about atmospheric pressure, thereby creating a plasma discharge; b) introducing a coating precursor into said plasma discharge, thereby obtaining a coating precursor-comprising plasma discharge; c) exposing the filter media to said coating precursor-comprising plasma discharge or to a plasma gas afterglow resulting therefrom, thereby forming a coating onto a surface of the filter media, wherein the coated filter media is air-permeable, wherein the coating precursor comprises citric acid as a biological pathogen inactivation compound, and wherein the filter media comprises a base weight of at least 50 g/m 2. a) ionizing a plasma gas at a temperature of 150°C or lower, and at about atmospheric pressure, thereby creating a plasma discharge; b) introducing a coating precursor into said plasma discharge, thereby obtaining a coating precursor-comprising plasma discharge; c) exposing the filter media to said coating precursor-comprising plasma discharge or to a plasma gas afterglow resulting therefrom, thereby forming a coating onto a surface of the filter media,
Method for fabricating a light-emitting diode, comprising the following steps: - obtaining a stack comprising: - a bottom electrode of a first kind deposited on a substrate, - an organic light-emitting layer deposited on said bottom electrode, - a top electrode of a second kind deposited on said organic light-emitting layer, the kinds of electrodes corresponding to anode and cathode, - and, deposited between said cathode and said organic light-emitting layer, a layer of organic material in contact with said cathode, the organic material being made from bathophenanthroline, the organic material being doped with a donor element with a controlled doping level during deposition of the layer of organic material, the donor element being chosen from the group formed by the elements presenting a work function lower than 4 eV, the donor element being chosen from the group formed by alkaline-earth elements and lanthanides, the method being characterised by the fact that it comprises the following step: - then subjecting the stack obtained to heat treatment, the temperature of the heat treatment being higher than or equal to 80° C. - obtaining a stack comprising: - a bottom electrode of a first kind deposited on a substrate, - an organic light-emitting layer deposited on said bottom electrode, - a top electrode of a second kind deposited on said organic light-emitting layer, the kinds of electrodes corresponding to anode and cathode, - and, deposited between said cathode and said organic light-emitting layer, a layer of organic material in contact with said cathode, the organic material being made from bathophenanthroline, the organic material being doped with a donor element with a controlled doping level during deposition of the layer of organic material, the donor element being chosen from the group formed by the elements presenting a work function lower than 4 eV, the donor element being chosen from the group formed by alkaline-earth elements and lanthanides, the method being characterised by the fact that it comprises the following step: - then subjecting the stack obtained to heat treatment, the temperature of the heat treatment being higher than or equal to 80° C. - a bottom electrode of a first kind deposited on a substrate, - an organic light-emitting layer deposited on said bottom electrode, - a top electrode of a second kind deposited on said organic light-emitting layer, the kinds of electrodes corresponding to anode and cathode, - and, deposited between said cathode and said organic light-emitting layer, a layer of organic material in contact with said cathode, the organic material being made from bathophenanthroline, the organic material being doped with a donor element with a controlled doping level during deposition of the layer of organic material, the donor element being chosen from the group formed by the elements presenting a work function lower than 4 eV, the donor element being chosen from the group formed by alkaline-earth elements and lanthanides, - then subjecting the stack obtained to heat treatment, the temperature of the heat treatment being higher than or equal to 80° C.
A method for manufacturing a fluid sensor device, the method comprising: bonding a silicon-on-insulator arrangement comprising a silicon wafer, a buried oxide, a silicon layer, and a first dielectric layer, to a CMOS arrangement comprising a metallization layer and a planarized dielectric layer, wherein the bonding is performed via the first dielectric layer and the planarized dielectric layer; removing the buried oxide and the silicon wafer; forming a fin-FET arrangement in the silicon layer, wherein the fin-FET arrangement is configured to function as a fluid sensitive fin-FET arrangement; forming a contact to the metallization layer and the fin-FET arrangement, wherein the contact comprises an interconnecting structure configured to interconnect the metallization layer and the fin-FET arrangement, wherein the contact comprises a vertical arrangement comprising a first vertical portion configured to be in contact with the fin-FET arrangement, and a second vertical portion configured to be in contact with the metallization layer, wherein the interconnecting structure is configured to connect the metallization layer and the fin-FET arrangement via the vertical arrangement; forming a channel comprising an inlet and an outlet, wherein the channel is configured to at least partially expose the fin-FET arrangement and to allow a fluid comprising an analyte to contact the fin-FET arrangement. bonding a silicon-on-insulator arrangement comprising a silicon wafer, a buried oxide, a silicon layer, and a first dielectric layer, to a CMOS arrangement comprising a metallization layer and a planarized dielectric layer, wherein the bonding is performed via the first dielectric layer and the planarized dielectric layer; removing the buried oxide and the silicon wafer; forming a fin-FET arrangement in the silicon layer, wherein the fin-FET arrangement is configured to function as a fluid sensitive fin-FET arrangement; forming a contact to the metallization layer and the fin-FET arrangement, wherein the contact comprises an interconnecting structure configured to interconnect the metallization layer and the fin-FET arrangement, wherein the contact comprises a vertical arrangement comprising a first vertical portion configured to be in contact with the fin-FET arrangement, and a second vertical portion configured to be in contact with the metallization layer, wherein the interconnecting structure is configured to connect the metallization layer and the fin-FET arrangement via the vertical arrangement; forming a channel comprising an inlet and an outlet, wherein the channel is configured to at least partially expose the fin-FET arrangement and to allow a fluid comprising an analyte to contact the fin-FET arrangement.
An electrical conductive member, comprising: a metal substrate; an intermediate layer formed on the metal substrate and having a thickness of 30 nm to 200 nm; and an electrical conductive layer formed on the intermediate layer, wherein the intermediate layer contains: a constituent of the metal substrate; a constituent of the electrical conductive layer; and at least one element selected from the group consisting of helium, argon, krypton, boron, phosphorous, silicon, carbon and germanium, and a content ratio of the at least one element in the intermediate layer is in a range from 3 to 5 atom%. a metal substrate; an intermediate layer formed on the metal substrate and having a thickness of 30 nm to 200 nm; and an electrical conductive layer formed on the intermediate layer, wherein the intermediate layer contains: a constituent of the metal substrate; a constituent of the electrical conductive layer; and at least one element selected from the group consisting of helium, argon, krypton, boron, phosphorous, silicon, carbon and germanium, and a content ratio of the at least one element in the intermediate layer is in a range from 3 to 5 atom%.
A method for changing a username for secure access to a resource in a network including the steps of: recording at a first location in a directory a first username identifying a user, the first username being an immutable username; receiving from the user a.first request associated with the first username to access a resource; in response to receipt of the first request, forwarding the request together with the first username to the resource; and thereafter: receiving a request from the user to record a new username, the new username being a modifiable username; in response to the received request, recording the new username at a second location linked to the first location; receiving from the user a second request comprising a username to access the resource; checking the received username against the new username; and if the received username matches the new username, modifying the second request by replacing the new username with the first username and forwarding the second request to the resource together with the first username. recording at a first location in a directory a first username identifying a user, the first username being an immutable username; receiving from the user a.first request associated with the first username to access a resource; in response to receipt of the first request, forwarding the request together with the first username to the resource; and thereafter: receiving a request from the user to record a new username, the new username being a modifiable username; in response to the received request, recording the new username at a second location linked to the first location; receiving from the user a second request comprising a username to access the resource; checking the received username against the new username; and if the received username matches the new username, modifying the second request by replacing the new username with the first username and forwarding the second request to the resource together with the first username. receiving a request from the user to record a new username, the new username being a modifiable username; in response to the received request, recording the new username at a second location linked to the first location; receiving from the user a second request comprising a username to access the resource; checking the received username against the new username; and if the received username matches the new username, modifying the second request by replacing the new username with the first username and forwarding the second request to the resource together with the first username.
Locking device and steering wheel column for a motor vehicle comprising: - a blocking bolt for locking the steering wheel shaft in the steering wheel column - wherein the blocking bolt is movable between a first and a second (2") position - wherein in the first position the blocking bolt is in blocking engagement with the steering wheel shaft and - wherein in the second position (2") the blocking bolt is disengaged from the steering wheel shaft - and wherein a return element is provided to return the blocking bolt to the first position, wherein - the return element is at least partially covered by at least one protection cover, wherein the return element is a torsion spring, which torsion spring is a coil spring with a coil body and a connection hook, wherein the hook of the coil spring has a hook extension projecting from the coil body to the blocking bolt and wherein the hook extension has a first end portion of the torsion spring inserted into an opening of the blocking bolt and covered at least partially by the blocking bolt, characterized in, that a second end portion of the torsion spring extends from the coil body into an opening of a central holding pin formed in the frame of the steering wheel column. - a blocking bolt for locking the steering wheel shaft in the steering wheel column - wherein the blocking bolt is movable between a first and a second (2") position - wherein in the first position the blocking bolt is in blocking engagement with the steering wheel shaft and - wherein in the second position (2") the blocking bolt is disengaged from the steering wheel shaft - and wherein a return element is provided to return the blocking bolt to the first position, wherein - the return element is at least partially covered by at least one protection cover, wherein the return element is a torsion spring, which torsion spring is a coil spring with a coil body and a connection hook,
A toner comprising: a toner particle containing a binder resin, and an external additive, wherein the external additive contains an organosilicon polymer fine particle, having an organosilicon polymer with a structure represented by at least one selected from the group consisting of R a SiO 3/2 and R b 2 SiO 2/2, wherein R a represents a C 1-6 alkyl group or phenyl group, and R b represent a C 1-6 alkyl group or phenyl group, and in the number particle size distribution of the toner as measured within a particle size range of from 2 μm to 60 μm as indicated in the description: (i) the number-average particle diameter T-D 50n at which the accumulation from the smallest diameter is 50% is from 6 μm to 12 μm, (ii) the number ratio of toner 4 μm or less in size is from 2% to 5% of the total toner, and (iii) the number ratio of toner 3 μm or less in size as a percentage of the total toner 4 μm or less in size is from 25% to 50%. a toner particle containing a binder resin, and an external additive, wherein the external additive contains an organosilicon polymer fine particle, having an organosilicon polymer with a structure represented by at least one selected from the group consisting of R a SiO 3/2 and R b 2 SiO 2/2, wherein R a represents a C 1-6 alkyl group or phenyl group, and R b represent a C 1-6 alkyl group or phenyl group, and in the number particle size distribution of the toner as measured within a particle size range of from 2 μm to 60 μm as indicated in the description: (i) the number-average particle diameter T-D 50n at which the accumulation from the smallest diameter is 50% is from 6 μm to 12 μm, (ii) the number ratio of toner 4 μm or less in size is from 2% to 5% of the total toner, and (iii) the number ratio of toner 3 μm or less in size as a percentage of the total toner 4 μm or less in size is from 25% to 50%. (i) the number-average particle diameter T-D 50n at which the accumulation from the smallest diameter is 50% is from 6 μm to 12 μm, (ii) the number ratio of toner 4 μm or less in size is from 2% to 5% of the total toner, and (iii) the number ratio of toner 3 μm or less in size as a percentage of the total toner 4 μm or less in size is from 25% to 50%.
A method performed by a base station of a cellular communication network, the method comprising: collecting handover data correlated with mobility data of a plurality of terminal devices; determining, based on the collected data, one or more trajectories associated with one or more handover anomalies; monitoring mobility and/or cellular connectivity of terminal devices by receiving measurement report from the terminal devices; detecting that a terminal device has or is going to have a trajectory previously determined to be associated with a handover anomaly, wherein the handover anomaly is a ping pong handover anomaly or a short stay handover anomaly; determining terminal device specific handover parameters for said terminal device to avoid said handover anomaly; causing the terminal device to utilize said terminal device specific handover parameters in one or more handovers associated with the terminal device; monitoring the one or more handovers performed on the basis of said terminal device specific handover parameters; and based on the monitoring, if said handover anomaly is avoided by utilizing said terminal device specific handover parameters, storing an indication about said terminal device specific handover parameters avoiding said handover anomaly with respect to said trajectory. collecting handover data correlated with mobility data of a plurality of terminal devices; determining, based on the collected data, one or more trajectories associated with one or more handover anomalies; monitoring mobility and/or cellular connectivity of terminal devices by receiving measurement report from the terminal devices; detecting that a terminal device has or is going to have a trajectory previously determined to be associated with a handover anomaly, wherein the handover anomaly is a ping pong handover anomaly or a short stay handover anomaly; determining terminal device specific handover parameters for said terminal device to avoid said handover anomaly; causing the terminal device to utilize said terminal device specific handover parameters in one or more handovers associated with the terminal device; monitoring the one or more handovers performed on the basis of said terminal device specific handover parameters; and based on the monitoring, if said handover anomaly is avoided by utilizing said terminal device specific handover parameters, storing an indication about said terminal device specific handover parameters avoiding said handover anomaly with respect to said trajectory.
A liquid pharmaceutical formulation for injection into the eye for the sustained release of a therapeutic protein comprising: a therapeutic protein; a liquid, biodegradable, biocompatible non-polymeric excipient selected from the group consisting of triethyl citrate and acetyl triethyl citrate; and a biodegradable, biocompatible poly(D,L-lactide-co-glycolide) (PLGA) polymer, wherein the PLGA polymer has a lactide:glycolide ratio of 50:50, MW range 7,000-17,000, and an alkyl ester end group; wherein the ratio of non-polymeric excipient:polymer is 90:10 to 99:1 wt%, inclusive; wherein upon and following injection of 5 μl to 100 μl, inclusive, of the formulation through a 25, 27, 28, 30 gauge, or smaller, needle, the formulation maintains its monolithic integrity and liquid state; and wherein the formulation releases the therapeutic protein for a period of at least 14 days. a therapeutic protein; a liquid, biodegradable, biocompatible non-polymeric excipient selected from the group consisting of triethyl citrate and acetyl triethyl citrate; and a biodegradable, biocompatible poly(D,L-lactide-co-glycolide) (PLGA) polymer, wherein the PLGA polymer has a lactide:glycolide ratio of 50:50, MW range 7,000-17,000, and an alkyl ester end group; wherein the ratio of non-polymeric excipient:polymer is 90:10 to 99:1 wt%, inclusive; wherein upon and following injection of 5 μl to 100 μl, inclusive, of the formulation through a 25, 27, 28, 30 gauge, or smaller, needle, the formulation maintains its monolithic integrity and liquid state; and wherein the formulation releases the therapeutic protein for a period of at least 14 days.
A sensor system comprising: - a magnetic field generator; and - a sensor device arranged at a distance (dz) from said magnetic field generator and adapted for measuring or determining at least one magnetic field component (Bx, By, Bz) and/or at least one magnetic field gradient component (dBx/dx, dBx/dy, dBy/dx, dBy/dy, dBz/dx, dBz/dy); said magnetic field generator comprising a multi-pole magnet having a number of pole pairs that are axially magnetized to generate a magnetic field that is substantially rotationally symmetric around an axis, said magnet comprising a plurality of grooves and/or elongate protrusions that are radially oriented and that are arranged in a rotationally symmetric manner around said axis and that are shaped and sized so as to provide a substantially constant magnetic field gradient in a central region around said axis. - a magnetic field generator; and - a sensor device arranged at a distance (dz) from said magnetic field generator and adapted for measuring or determining at least one magnetic field component (Bx, By, Bz) and/or at least one magnetic field gradient component (dBx/dx, dBx/dy, dBy/dx, dBy/dy, dBz/dx, dBz/dy); said magnetic field generator comprising a multi-pole magnet having a number of pole pairs that are axially magnetized to generate a magnetic field that is substantially rotationally symmetric around an axis, said magnet comprising a plurality of grooves and/or elongate protrusions that are radially oriented and that are arranged in a rotationally symmetric manner around said axis and that are shaped and sized so as to provide a substantially constant magnetic field gradient in a central region around said axis.
A catalytic process for preparing an α,β-ethylenicallyunsaturated carboxylic acid salt, comprising contacting an alkene and carbon dioxide with a carboxylation catalyst being a transition metal complex, an alkoxide, and an organic solvent, to obtain an α,β-ethylenicallyunsaturated carboxylic acid salt, the organic solvent being incompletely miscible with water at a pressure of 1 bar at at least one temperature T and selected from amides and ureas, T being a temperature in the range from 10°C to 90°C.
A pneumatic tire, comprising a tire component formed from a rubber composition, wherein the rubber composition comprises a rubber component and a short fibrous filler, the short fibrous filler having a fiber width of 3 to 200 nm, a fiber length of 0.2 to 10 μm, and a ratio of the fiber length to the fiber width (fiber length/fiber width) of 5 to 1,000, and the rubber composition has cured rubber properties satisfying relationship: 1.10 ≤ E ∗ a / E ∗ b ≤ 1.53 wherein the E*a is a complex modulus E*a in a circumferential direction of the tire determined by viscoelastic measurement at an initial strain of 10%, a dynamic strain of 1%, and a temperature of 50°C; and the E*b is a complex modulus E*b in a direction orthogonal to the circumferential direction of the tire determined by viscoelastic measurement at an initial strain of 10%, a dynamic strain of 1%, and a temperature of 50°C, characterized in that the cured rubber properties also satisfy relationships and: tan δ ≤ 0.11, and 0.072 ≤ E ∗ a / HS ≤ 0.140 wherein the tan δ is a tan δ determined by viscoelastic measurement at an initial strain of 10%, a dynamic strain of 1%, and a temperature of 50°C; and the HS is a hardness at 50°C determined in accordance with JIS K6253-1.
A method of producing a graft copolymer, the method comprising subjecting a radically polymerizable monomer to living radical graft polymerization with a rubber component formed of a natural rubber in an aqueous medium in the presence of a polymerization control agent.
A method of coding implemented by a decoding/encoding device for coding video data, comprising: for an affine coded block coded in affine mode determining control point motion vectors, CPMVs; determining a reference area in a reference picture corresponding to a sub-block of the affine coded block based on the determined CPMVs; setting a variable clipMVX equal to TRUE if a size of the reference area is greater than a predefined threshold, otherwise setting a variable clipMVX equal to FALSE; deriving a pixel-based motion vector field for the affine coded block by using the determined CPMVs, wherein, if the variable clipMVX is equal to TRUE, the deriving the pixel-based motion vector field further comprises motion vector clipping with a first motion vector range, wherein the first motion vector range is determined based on the determined CPMVs and a size of the affine coded block. determining a reference area in a reference picture corresponding to a sub-block of the affine coded block based on the determined CPMVs; setting a variable clipMVX equal to TRUE if a size of the reference area is greater than a predefined threshold, otherwise setting a variable clipMVX equal to FALSE; deriving a pixel-based motion vector field for the affine coded block by using the determined CPMVs, wherein, if the variable clipMVX is equal to TRUE, the deriving the pixel-based motion vector field further comprises motion vector clipping with a first motion vector range, wherein the first motion vector range is determined based on the determined CPMVs and a size of the affine coded block.