mhurhangee/ep-ind-claims huggingface dataset:
A hernia repair system, comprising: a deployment device adapted to deploy a hernia repair patch within a body of a patient, a fixating component extending from the deployment device, the fixating component having an unretracted configuration adapted for at least one of attaching or detaching the hernia repair patch to the deployment device and a retracted configuration adapted to attach the hernia repair patch to the deployment device, the fixating component including a sharp end adapted for insertion through the hernia repair patch; wherein the deployment device has a reduced configuration for delivering the hernia repair patch to a placement site within the patient, and an expanded configuration for deploying the hernia repair patch characterised in that the deployment device is configured so that a hernia repair patch attached thereto by said fixating component assumes a reduced configuration as the deployment device assumes a reduced configuration for delivering the hernia repair patch to a placement site within the patient. a deployment device adapted to deploy a hernia repair patch within a body of a patient, a fixating component extending from the deployment device, the fixating component having an unretracted configuration adapted for at least one of attaching or detaching the hernia repair patch to the deployment device and a retracted configuration adapted to attach the hernia repair patch to the deployment device, the fixating component including a sharp end adapted for insertion through the hernia repair patch; wherein the deployment device has a reduced configuration for delivering the hernia repair patch to a placement site within the patient, and an expanded configuration for deploying the hernia repair patch characterised in that the deployment device is configured so that a hernia repair patch attached thereto by said fixating component assumes a reduced configuration as the deployment device assumes a reduced configuration for delivering the hernia repair patch to a placement site within the patient.
A method for use in a wireless network including a base station and a relay station for extending wireless coverage of the base station, the method comprising: communicating downlink data sent by the base station and relayed through the relay station to a mobile station wherein the downlink data is associated with control information that is sent directly from the base station to the mobile station; and adjusting a transmit power of the relay station for transmitting the downlink data from the relay station to the mobile station to reduce a difference between a first power level of the control information received at the mobile station and a second power level of the downlink data received at the mobile station. communicating downlink data sent by the base station and relayed through the relay station to a mobile station wherein the downlink data is associated with control information that is sent directly from the base station to the mobile station; and adjusting a transmit power of the relay station for transmitting the downlink data from the relay station to the mobile station to reduce a difference between a first power level of the control information received at the mobile station and a second power level of the downlink data received at the mobile station.
A method for managing communication like exchanging cooperative awareness messages, 'CAM', between a plurality of moving objects (EV, 10, 20, 30, 40) like vehicles, wherein - for communication one or more communication channels are used, - each moving object is operable to adjust its transmit power level for transmitting information via said one or more channels, - each moving object (EV, 10, 20, 30, 40) is operable to adjust its transmit rate for sending information via said one or more communication channels, comprising the steps, performed for each of said moving objects (EV, 10, 20, 30, 40), of a) Adjusting said transmit power level of each moving object (EV, 10, 20, 30, 40) independently of other moving objects (10, 20, 30, 40) such that a target cooperative awareness ratio is achieved, b) Adapting the transmit rate at each moving object independently such that a channel load of a respective communication channel is within a predefined load interval, wherein information about said transmit power level may be inserted into information to be transmitted by said moving object (EV, 10, 20, 30, 40) and may be used for determining said channel load by said moving object (EV, 10, 20, 30, 40). - for communication one or more communication channels are used, - each moving object is operable to adjust its transmit power level for transmitting information via said one or more channels, - each moving object (EV, 10, 20, 30, 40) is operable to adjust its transmit rate for sending information via said one or more communication channels, a) Adjusting said transmit power level of each moving object (EV, 10, 20, 30, 40) independently of other moving objects (10, 20, 30, 40) such that a target cooperative awareness ratio is achieved, b) Adapting the transmit rate at each moving object independently such that a channel load of a respective communication channel is within a predefined load interval,
A triangulation light sensor comprising a first light transmitter for emitting transmitted light into a detection zone, wherein a transmitting optical system, in particular a lens, is arranged upstream of the light transmitter, a first light receiver having an array of receiving elements for receiving light from the detection zone, which light is remitted by an object to be detected, with the receiving elements generating respective received signals, a receiving optical system arranged in the beam path between the detection zone and first light receiver for generating a light spot from the remitted light on the first light receiver, wherein the position of the light spot on the first light receiver in the triangulation direction is a result of the distance of the object, and a control and evaluation unit for generating a detection signal from the received signals on the basis of the position of the light spot on the first light receiver, wherein a further second light transmitter is provided as a reference light transmitter for safety-related self-testing; wherein a first mirror is arranged in order to direct the light beams of the reference light transmitter onto the first light receiver, characterized in that the first mirror is a concave mirror, with a further second light receiver being provided as a reference light receiver as a second receiving channel and for safety-related self-testing, with the first light receiver and the reference light transmitter being arranged in a first tube and the first light transmitter and the reference light receiver being arranged in a second tube.
A method for predicting liver toxicity of a drug, said method comprising steps of: a) obtaining metabolite profiles from untreated cells and drug-treated cells using techniques selected from a group consisting of biochemical assays, mass spectroscopy, NMR or any combinations thereof; b) comparing the metabolite profiles obtained from the untreated cells and the drug-treated cells to determine altered metabolites 1; c) performing Covariance Matrix Adaptive Evolutionary Strategy (CMA-ES) analysis to determine parameter set responsible for the altered metabolites 1, wherein the analysis comprises: i. providing a parameter set to a homeostatic liver model and obtaining altered metabolites 2; and ii. determining whether the parameter set is responsible for the altered metabolites 1 on the basis of predetermined fitness criterion; and c) providing the parameter set as an input to a homeostatic liver model and predicting the toxicity of the drug. a) obtaining metabolite profiles from untreated cells and drug-treated cells using techniques selected from a group consisting of biochemical assays, mass spectroscopy, NMR or any combinations thereof; b) comparing the metabolite profiles obtained from the untreated cells and the drug-treated cells to determine altered metabolites 1; c) performing Covariance Matrix Adaptive Evolutionary Strategy (CMA-ES) analysis to determine parameter set responsible for the altered metabolites 1, wherein the analysis comprises: i. providing a parameter set to a homeostatic liver model and obtaining altered metabolites 2; and ii. determining whether the parameter set is responsible for the altered metabolites 1 on the basis of predetermined fitness criterion; and i. providing a parameter set to a homeostatic liver model and obtaining altered metabolites 2; and ii. determining whether the parameter set is responsible for the altered metabolites 1 on the basis of predetermined fitness criterion; and c) providing the parameter set as an input to a homeostatic liver model and predicting the toxicity of the drug.
A glass-based article comprising: a first surface and a second surface opposing the first surface defining a thickness ( t) in a range of 0.1 mm and 2 mm; and a stress profile extending along the thickness ( t), wherein at least one point of the stress profile in a first thickness range from 0• t up to 0.020• t and greater than 0.98• t comprises a tangent with a slope of from -200 MPa/micrometer to -25 MPa/micrometer or 25 MPa/micrometer to 200 MPa/micrometer, wherein all points of the stress profile in a second thickness range from 0.035• t and less than 0.965• t comprise a tangent with a slope of from -15 MPa/micrometer to 15 MPa/micrometer, wherein the stress profile comprises a surface CS of from 200 MPa to 1100 MPa, and wherein the stress profile comprises a DOC ranging from 0.1• t to 0.25• t characterised in that the stress profile in the second thickness range forms a power-law profile having a power exponent, and in that the power exponent is between 1.2 to 3.2. a first surface and a second surface opposing the first surface defining a thickness ( t) in a range of 0.1 mm and 2 mm; and a stress profile extending along the thickness ( t), wherein at least one point of the stress profile in a first thickness range from 0• t up to 0.020• t and greater than 0.98• t comprises a tangent with a slope of from -200 MPa/micrometer to -25 MPa/micrometer or 25 MPa/micrometer to 200 MPa/micrometer, wherein all points of the stress profile in a second thickness range from 0.035• t and less than 0.965• t comprise a tangent with a slope of from -15 MPa/micrometer to 15 MPa/micrometer, wherein the stress profile comprises a surface CS of from 200 MPa to 1100 MPa, and wherein the stress profile comprises a DOC ranging from 0.1• t to 0.25• t characterised in that the stress profile in the second thickness range forms a power-law profile having a power exponent, and in that the power exponent is between 1.2 to 3.2.
A method for manufacturing a solid state light emitting device having a plurality of light sources, the method comprising the steps of: providing a substrate having a growth surface; providing a mask layer on said growth surface, said mask layer having a plurality of openings through which said growth surface is exposed, wherein a largest lateral dimension of each of said openings is less than 0.3 μm and wherein said mask layer comprises a first mask layer portion and a second mask layer portion, each comprising a plurality of openings exposing said growth surface, wherein said first mask layer portion exhibits a first ratio between an exposed area of said growth surface and an unexposed area of said growth surface, and wherein said second mask layer portion exhibits a second ratio between an exposed area of said growth surface and an unexposed area of said growth surface; growing a base structure on said growth surface in each of said openings of said mask layer; and growing at least one light-generating quantum well layer on the surface of each of said base structures, characterized in that said second ratio is different from said first radio. providing a substrate having a growth surface; providing a mask layer on said growth surface, said mask layer having a plurality of openings through which said growth surface is exposed, wherein a largest lateral dimension of each of said openings is less than 0.3 μm and wherein said mask layer comprises a first mask layer portion and a second mask layer portion, each comprising a plurality of openings exposing said growth surface, wherein said first mask layer portion exhibits a first ratio between an exposed area of said growth surface and an unexposed area of said growth surface, and wherein said second mask layer portion exhibits a second ratio between an exposed area of said growth surface and an unexposed area of said growth surface; growing a base structure on said growth surface in each of said openings of said mask layer; and growing at least one light-generating quantum well layer on the surface of each of said base structures, characterized in that said second ratio is different from said first radio.
A composition for application to skin comprising: (a) a component comprising an ethyl ester of fish oil that can produce, in situ, a product of oxidation, the ethyl ester of fish oil being a mixture of an ethyl ester of eicosapentaenoic acid, and an ethyl ester of docosahexaenoic acid in which the mixture contains 5 to 40% by weight more ethyl ester of eicosapentaenoic acid ethyl ester than of docosahexaneoic acid;. (b) a radical scavenger comprising pentaerythritol-tetrakis (3-(3,5-di-tertbutyl- 4- hydroxyphenyl)propionate, peroxide decomposer comprising didodecyl 3,3'- thiodipropionate and a hydroxylated fatty acid having at least one hydroxy group functionalization on its aliphatic backbone and/or a derivative of such hydroxylated fatty acid which is an alcohol, and/or an ester thereof with a C2-C6 aliphatic group; the hydroxylated fatty acid and/or a derivative thereof being selected from 12-hydroxystearic acid, hydroxystearyl alcohol, glycerol monohydroxystearate, hydroxystearyl glucoside, ethyleneglycol monohydroxystearate, glycerylmonoricinoleate, glyceryl dihydroxystearate, glyceryldiricinoleate and mixtures thereof. (c) caprylic/capric triglyceride, high oleic sunflower seed oil, octylhydroxystearate, mineral oil, or a mixture thereof as oil carrier; and (d) water, the composition being an emulsion comprising from 0.1 to 1.5% by weight based on the total weight of the composition of the ethyl ester of fish oil; from 0.05 to 0.2% by weight based on the total weight of the composition of the radical scavenger; from 0.03 to 0.07 % by weight based on the total weight of the composition of the peroxide decomposer and from 0.1 to 8% by weight based on the total weight of the composition of the hydroxylated fatty acid and/or derivative thereof. (a) a component comprising an ethyl ester of fish oil that can produce, in situ, a product of oxidation, the ethyl ester of fish oil being a mixture of an ethyl ester of eicosapentaenoic acid, and an ethyl ester of docosahexaenoic acid in which the mixture contains 5 to 40% by weight more ethyl ester of eicosapentaenoic acid ethyl ester than of docosahexaneoic acid;. (b) a radical scavenger comprising pentaerythritol-tetrakis (3-(3,5-di-tertbutyl- 4- hydroxyphenyl)propionate, peroxide decomposer comprising didodecyl 3,3'- thiodipropionate and a hydroxylated fatty acid having at least one hydroxy group functionalization on its aliphatic backbone and/or a derivative of such hydroxylated fatty acid which is an alcohol, and/or an ester thereof with a C2-C6 aliphatic group; the hydroxylated fatty acid and/or a derivative thereof being selected from 12-hydroxystearic acid, hydroxystearyl alcohol, glycerol monohydroxystearate, hydroxystearyl glucoside, ethyleneglycol monohydroxystearate, glycerylmonoricinoleate, glyceryl dihydroxystearate, glyceryldiricinoleate and mixtures thereof. (c) caprylic/capric triglyceride, high oleic sunflower seed oil, octylhydroxystearate, mineral oil, or a mixture thereof as oil carrier; and (d) water,
Fluidized bed reactor for producing granular polysilicon, which comprises a vessel having an inner reactor tube for a fluidized bed with granular polysilicon and a reactor base, a heating device for heating the fluidized bed in the inner reactor tube, at least one opening in the reactor base for feeding fluidizing gas, and at least one opening in the reactor base for feeding reaction gas, a device for removing reactor offgas, a feed appliance for feeding silicon particles, and also a withdrawal conduit for granular polysilicon, wherein a Laval nozzle is situated upstream of at least one of the openings in the reactor base outside the inner reactor tube, suitable for expanding supercritically at least one mass stream that is fed.
A method of image processing in group video communications between group communication members using a mobile communication terminal (1, 2), comprising: transmitting a video image captured via a camera provided to the mobile communication terminal (1,2) to at least one other terminal (1,2); receiving a video image from the at least one other terminal (1,2); displaying the captured video image and the received video image; and receiving a selection by the user of one of a plurality of icons; characterized by further comprising the steps of: displaying an image for selecting at least one target terminal; receiving a selection by the user of the at least one target terminal from the user mobile communication terminal (1,2) and the at least one other terminal (1, 2) on which the selected icon is to be displayed; receiving a selection by the user of a position for displaying the selected icon on the captured video image in response to an input by a user while performing the video communications with at least the other one terminal (1,2) using the mobile communication terminal (1,2); further displaying the selected icon on the captured video image at the selected position of the icon together with the received video image; generating an image control signal which includes information of the selected icon and the selected position of the icon; transmitting the image control signal to the at least one selected target terminal (1,2) while performing the video communications; receiving an input to select at least one of the group communication members; and sending the icon as an overlay image to the at least one of the selected group communication members. transmitting a video image captured via a camera provided to the mobile communication terminal (1,2) to at least one other terminal (1,2); receiving a video image from the at least one other terminal (1,2); displaying the captured video image and the received video image; and receiving a selection by the user of one of a plurality of icons; displaying an image for selecting at least one target terminal; receiving a selection by the user of the at least one target terminal from the user mobile communication terminal (1,2) and the at least one other terminal (1, 2) on which the selected icon is to be displayed; receiving a selection by the user of a position for displaying the selected icon on the captured video image in response to an input by a user while performing the video communications with at least the other one terminal (1,2) using the mobile communication terminal (1,2); further displaying the selected icon on the captured video image at the selected position of the icon together with the received video image; generating an image control signal which includes information of the selected icon and the selected position of the icon; transmitting the image control signal to the at least one selected target terminal (1,2) while performing the video communications; receiving an input to select at least one of the group communication members; and sending the icon as an overlay image to the at least one of the selected group communication members.
An article for use as a filter media comprising: a calendered nonwoven substrate having an average fiber size of 0.7 to 15 micrometers, and a void volume of 50 to 95%, and a polymer comprising cationic aminoalkyl (meth)acryloyl monomer units grafted to the surface of the nonwoven substrate wherein the grafted polymer comprises polymerized monomer units of: a) 80 to 98 wt.% of grafting aminoalkyl (meth)acryloyl monomers, b) 2 to 20 wt.% of grafting poly(alkylene oxide) monomers; c) 0 to 10 wt.% of second hydrophilic monomers. a calendered nonwoven substrate having an average fiber size of 0.7 to 15 micrometers, and a void volume of 50 to 95%, and a polymer comprising cationic aminoalkyl (meth)acryloyl monomer units grafted to the surface of the nonwoven substrate wherein the grafted polymer comprises polymerized monomer units of: a) 80 to 98 wt.% of grafting aminoalkyl (meth)acryloyl monomers, b) 2 to 20 wt.% of grafting poly(alkylene oxide) monomers; c) 0 to 10 wt.% of second hydrophilic monomers. a) 80 to 98 wt.% of grafting aminoalkyl (meth)acryloyl monomers, b) 2 to 20 wt.% of grafting poly(alkylene oxide) monomers; c) 0 to 10 wt.% of second hydrophilic monomers.
A printed seamless can that has at least a printed layer and a finishing varnish layer formed on at least a body portion on the outer surface of the seamless can, said printed layer having, in combination, an image formed by plate-type printing and an image formed by ink-jet printing, characterized in that: on part of said image formed by plate-type printing, a mark for positioning the can is formed for conducting said ink-jet printing, and both said image formed by plate-type printing and said image formed by ink-jet printing are covered with the finishing varnish layer.
An isolated or purified immunoglobulin single variable domain antibody, comprising a complementarity determining region 1 sequence of GGTVSPTA (SEQ ID NO:1); a CDR2 sequence of ITWSRGTT (SEQ ID NO:2); and a CDR3 sequence of AASTFLRILPEESAYTY (SEQ ID NO:3), wherein the antibody is specific for Insulin-Like Growth Factor 1 Receptor (IGF1R) and wherein the antibody transmigrates the blood-brain barrier.
A nacelle cooling system for a wind turbine including a nacelle which has a gearbox and a generator to perform wind power generation, a blade which is mechanically coupled to the gearbox, and a tower which is provided such that the nacelle is seated on a top thereof, the nacelle cooling system comprising: cooling blocks placed, respectively, to surround one or more heat generating devices which are provided in the nacelle; a passage pipe coupled to the cooling blocks so that coolant flows through the passage pipe; a primary heat exchanger coupled to the passage pipe, and disposed on an outer surface or a rear end of the nacelle; wherein the heat generating devices comprise at least one selected from a group including a generator, a gearbox, and an inverter; wherein the primary heat exchanger performs a heat exchange process between the coolant flowing through the passage pipe and external air, characterized in that the nacelle cooling system further comprises a secondary heat exchanger absorbing heat generated in the nacelle, and discharging the heat to an outside of the nacelle, wherein the primary heat exchanger and the secondary heat exchanger are constructed to seal the nacelle from the outside. cooling blocks placed, respectively, to surround one or more heat generating devices which are provided in the nacelle; a passage pipe coupled to the cooling blocks so that coolant flows through the passage pipe; a primary heat exchanger coupled to the passage pipe, and disposed on an outer surface or a rear end of the nacelle; wherein the heat generating devices comprise at least one selected from a group including a generator, a gearbox, and an inverter; wherein the primary heat exchanger performs a heat exchange process between the coolant flowing through the passage pipe and external air, characterized in that the nacelle cooling system further comprises a secondary heat exchanger absorbing heat generated in the nacelle, and discharging the heat to an outside of the nacelle, wherein the primary heat exchanger and the secondary heat exchanger are constructed to seal the nacelle from the outside.