mhurhangee/patent-ind-claim-en huggingface dataset:
A bioadhesive formulation comprising: a) gelatin; b) alginate; c) a coupling agent that promotes crosslinking between gelatin and alginate; and d) water, wherein a concentration of said gelatin in the formulation ranges from 200 mg/ml to 300 mg/ml, a concentration of said alginate ranges from 20 mg/ml to 40 mg/ml and a concentration of said coupling agent ranges from 10 mg/ml to 30 mg/ml, the formulation being characterized by a room temperature viscosity that ranges from 1 Pa-sec to 50 Pa-sec. a) gelatin; b) alginate; c) a coupling agent that promotes crosslinking between gelatin and alginate; and d) water,
A method by a terminal, the method comprising: receiving a counter check request message including a data radio bearer, DRB, count most significant bit, MSB, information list from a base station; in case that a first DRB is included in the DRB count MSB information list, identifying whether a MSB value of the terminal for the first DRB is different from a MSB value of the base station for the first DRB indicated by the DRB count MSB information list; and transmitting a counter check response message to the base station, wherein the counter check response message includes first DRB count information associated with the first DRB in case that the MSB value of the terminal for the first DRB being different from the MSB value of the base station for the first DRB, wherein the counter check response message includes second DRB count information for a second DRB of a cell group of the terminal in case that the second DRB is not included in the DRB count MSB information list, and wherein the MSB value of the terminal for the first DRB is determined based on a count value of a packet data convergence protocol, PDCP, service data unit, SDU, to be received minus one. receiving a counter check request message including a data radio bearer, DRB, count most significant bit, MSB, information list from a base station; in case that a first DRB is included in the DRB count MSB information list, identifying whether a MSB value of the terminal for the first DRB is different from a MSB value of the base station for the first DRB indicated by the DRB count MSB information list; and transmitting a counter check response message to the base station, wherein the counter check response message includes first DRB count information associated with the first DRB in case that the MSB value of the terminal for the first DRB being different from the MSB value of the base station for the first DRB, wherein the counter check response message includes second DRB count information for a second DRB of a cell group of the terminal in case that the second DRB is not included in the DRB count MSB information list, and wherein the MSB value of the terminal for the first DRB is determined based on a count value of a packet data convergence protocol, PDCP, service data unit, SDU, to be received minus one.
A grass trimmer comprising: a grass trimmer head ; a brushless motor configured to drive the grass trimmer head to rotate to cut vegetation; a drive circuit connected to the brushless motor and configured to drive the brushless motor to output power; and a controller connected to the drive circuit and configured to control the drive circuit, wherein the grass trimmer head comprises a spool and a head housing , wherein the spool is configured to wind a grass trimmer rope , and the head housing is configured to accommodate the spool; wherein the grass trimmer has an automatic winding mode, wherein in the automatic winding mode, the brushless motor is configured to drive at least one of the spool and the head housing so that the spool and the head housing rotate relatively and the grass trimmer rope is automatically wound onto the spool; wherein the controller is configured to: in the automatic winding mode, output a control signal to the drive circuit according to at least one of a given voltage and a given current so that a rotation speed of the brushless motor is constant; characterized in that in the automatic winding mode, the spool and the head housing are configured to be subjected to varying resistances, wherein the varying resistances are configured to fluctuate periodically; and the at least one of the given voltage and the given current is configured to enable the controller to output a control signal so that the at least one of the spool and the head housing overcomes a resistance with a maximum resistance value among the varying resistances. a grass trimmer head ; a brushless motor configured to drive the grass trimmer head to rotate to cut vegetation; a drive circuit connected to the brushless motor and configured to drive the brushless motor to output power; and a controller connected to the drive circuit and configured to control the drive circuit, wherein the grass trimmer head comprises a spool and a head housing , wherein the spool is configured to wind a grass trimmer rope , and the head housing is configured to accommodate the spool; wherein the grass trimmer has an automatic winding mode, wherein in the automatic winding mode, the brushless motor is configured to drive at least one of the spool and the head housing so that the spool and the head housing rotate relatively and the grass trimmer rope is automatically wound onto the spool; wherein the controller is configured to: in the automatic winding mode, output a control signal to the drive circuit according to at least one of a given voltage and a given current so that a rotation speed of the brushless motor is constant; characterized in that in the automatic winding mode, the spool and the head housing are configured to be subjected to varying resistances, wherein the varying resistances are configured to fluctuate periodically; and the at least one of the given voltage and the given current is configured to enable the controller to output a control signal so that the at least one of the spool and the head housing overcomes a resistance with a maximum resistance value among the varying resistances.
A LED filament lamp comprising: - an envelope enclosing a chamber sealed with a stem , wherein the stem extends into said chamber ; - a LED filament structure with at least two individually controllable segments; - a controller configured to receive a control signal and control each of the at least two individually controllable segments based on said control signal, wherein the LED filament structure and the controller are arranged within the chamber; - a driver circuit arranged outside the chamber , wherein the driver circuit comprises two powerlines extending through the stem or the envelope for powering the LED filament structure and the controller , wherein the driver circuit is configured to convey said control signal to the controller via a control line extending through the stem or the envelope . - an envelope enclosing a chamber sealed with a stem , wherein the stem extends into said chamber ; - a LED filament structure with at least two individually controllable segments; - a controller configured to receive a control signal and control each of the at least two individually controllable segments based on said control signal, wherein the LED filament structure and the controller are arranged within the chamber; - a driver circuit arranged outside the chamber , wherein the driver circuit comprises two powerlines extending through the stem or the envelope for powering the LED filament structure and the controller , wherein the driver circuit is configured to convey said control signal to the controller via a control line extending through the stem or the envelope .
Device for inspecting flat objects and for detecting boundary layers (g1, g2) of these objects, with: an optical measuring system according to the spectral interference (SCI) method for measuring distances with a sensor, the measuring system provides peak signals whose position in a one-dimensional signal space corresponds to the distance between the sensor and a boundary layer or between boundary layers; - an evaluation unit which is designed to evaluate the peak signals in a tracking process and to assign a predetermined peak type to a peak signal; - wherein - the evaluation unit assigns peak signals detected in a measurement to different tracks (T1, T2, T3); - tracks are each updated with the assigned new peak signal; - the assignment of a peak signal to a track is based on the position or the change of position of the peak signal in the one-dimensional signal space; - all peak signals of a track are assigned to the same peak type; and - the change of a peak signal is estimated for the next measurement by means of an estimator. an optical measuring system according to the spectral interference (SCI) method for measuring distances with a sensor, the measuring system provides peak signals whose position in a one-dimensional signal space corresponds to the distance between the sensor and a boundary layer or between boundary layers; - an evaluation unit which is designed to evaluate the peak signals in a tracking process and to assign a predetermined peak type to a peak signal; - wherein - the evaluation unit assigns peak signals detected in a measurement to different tracks (T1, T2, T3); - tracks are each updated with the assigned new peak signal; - the assignment of a peak signal to a track is based on the position or the change of position of the peak signal in the one-dimensional signal space; - all peak signals of a track are assigned to the same peak type; and - the change of a peak signal is estimated for the next measurement by means of an estimator. - an evaluation unit which is designed to evaluate the peak signals in a tracking process and to assign a predetermined peak type to a peak signal; - wherein - the evaluation unit assigns peak signals detected in a measurement to different tracks (T1, T2, T3); - tracks are each updated with the assigned new peak signal; - the assignment of a peak signal to a track is based on the position or the change of position of the peak signal in the one-dimensional signal space; - all peak signals of a track are assigned to the same peak type; and - the change of a peak signal is estimated for the next measurement by means of an estimator.
A Nickel-based superalloy, characterised in that its composition comprises, in percent by weight of the total composition: Chromium: 10.0-11.25, advantageously 10.0-11.0; Cobalt: 11.2-13.7, advantageously 12.0-13.0; Molybdenum: 3.1-3.8, advantageously 3.3-3.7; Tungsten: 3.1-3.8, advantageously 3.1-3.5; Aluminium: 2.9-3.5, advantageously 3.2-3.5; Titanium: 4.6-5.6, advantageously 4.6-5.0; Niobium: 1.9-2.3, advantageously 1.9-2.0; Hafnium: 0.25-0.35, advantageously 0.25-3.0; Zirconium: 0.040-0.060, advantageously 0.050-0.060; Carbon: 0.010-0.030, advantageously 0.015-0.025; Boron: 0.01-0.030, advantageously 0.01-0.02; Nickel: remainder as well as unavoidable impurities; the composition being free of tantalum. Chromium: 10.0-11.25, advantageously 10.0-11.0; Cobalt: 11.2-13.7, advantageously 12.0-13.0; Molybdenum: 3.1-3.8, advantageously 3.3-3.7; Tungsten: 3.1-3.8, advantageously 3.1-3.5; Aluminium: 2.9-3.5, advantageously 3.2-3.5; Titanium: 4.6-5.6, advantageously 4.6-5.0; Niobium: 1.9-2.3, advantageously 1.9-2.0; Hafnium: 0.25-0.35, advantageously 0.25-3.0; Zirconium: 0.040-0.060, advantageously 0.050-0.060; Carbon: 0.010-0.030, advantageously 0.015-0.025; Boron: 0.01-0.030, advantageously 0.01-0.02; Nickel: remainder as well as unavoidable impurities; the composition being free of tantalum.
A bonding material that is used to form a wire bonding structure, the bonding material comprising: a copper foil ; and a sinterable bonding film formed on one surface of the copper foil , wherein the bonding film contains a copper powder and a solid reducing agent, wherein the copper powder is constituted by copper particles made of copper and the balance consisting of unavoidable impurities, the copper particles containing copper in an amount of 50 mass% or more, or wherein the copper powder is an assemblage of copper alloy particles containing 50 mass% or more of copper and containing another metal, wherein the copper powder contains spherical copper particles, and a volume-based cumulative particle size D SEM50 at a cumulative volume of 50 vol% as measured using a scanning electron microscope of the metal particles is from 30 nm to 200 nm, wherein the copper powder contains also flat copper particles, wherein the solid reducing agent has a chemical structure having at least one amino group and a plurality of hydroxyl groups, wherein the melting point of the solid reducing agent is higher than 25°C, wherein the bonding film contains the solid reducing agent in an amount of 0.1 parts by mass to 10 parts by mass with respect to 100 parts by mass of the copper powder, wherein the thickness of the copper foil is from 0.5 μm to 1000 μm, with the exception of 500 μm wherein the bonding film comprising 9 parts or less, with respect to 100 parts by mass of the copper powder, of a liquid medium having a boiling point of less than 300°C. wherein the bonding film contains a copper powder and a solid reducing agent, wherein the copper powder is constituted by copper particles made of copper and the balance consisting of unavoidable impurities, the copper particles containing copper in an amount of 50 mass% or more, or wherein the copper powder is an assemblage of copper alloy particles containing 50 mass% or more of copper and containing another metal, wherein the copper powder contains spherical copper particles, and a volume-based cumulative particle size D SEM50 at a cumulative volume of 50 vol% as measured using a scanning electron microscope of the metal particles is from 30 nm to 200 nm, wherein the copper powder contains also flat copper particles, wherein the solid reducing agent has a chemical structure having at least one amino group and a plurality of hydroxyl groups, wherein the melting point of the solid reducing agent is higher than 25°C, wherein the bonding film contains the solid reducing agent in an amount of 0.1 parts by mass to 10 parts by mass with respect to 100 parts by mass of the copper powder, wherein the thickness of the copper foil is from 0.5 μm to 1000 μm, with the exception of 500 μm wherein the bonding film comprising 9 parts or less, with respect to 100 parts by mass of the copper powder, of a liquid medium having a boiling point of less than 300°C.
A flexible display apparatus comprising: a display that is deformable, the display for displaying a multi-viewpoint image of an object having three-dimensional, 3D, configuration, the multi-viewpoint image comprising a plurality of images of the object as viewed from a plurality of viewpoints around the object; a sensor for sensing deformation of the display, wherein the deformation of the display comprises bending of the display; and a controller configured to: in response to bending of the display being sensed, determine an arrangement state of a plurality of sub-areas divided by the bending of the display, based on an angle of rotation and direction of bending of the sub-areas of the display, determine, based on the arrangement state, a respective viewpoint corresponding to each of the plurality of sub-areas from the plurality of viewpoints on the object, and control the display to display, for each of the plurality of sub-areas, an image of the object corresponding to the determined respective viewpoint on the object, from among the plurality of images of the object, wherein the plurality of sub-areas each correspond to at least one from among the images of the object. a display that is deformable, the display for displaying a multi-viewpoint image of an object having three-dimensional, 3D, configuration, the multi-viewpoint image comprising a plurality of images of the object as viewed from a plurality of viewpoints around the object; a sensor for sensing deformation of the display, wherein the deformation of the display comprises bending of the display; and a controller configured to: in response to bending of the display being sensed, determine an arrangement state of a plurality of sub-areas divided by the bending of the display, based on an angle of rotation and direction of bending of the sub-areas of the display, determine, based on the arrangement state, a respective viewpoint corresponding to each of the plurality of sub-areas from the plurality of viewpoints on the object, and control the display to display, for each of the plurality of sub-areas, an image of the object corresponding to the determined respective viewpoint on the object, from among the plurality of images of the object, wherein the plurality of sub-areas each correspond to at least one from among the images of the object. in response to bending of the display being sensed, determine an arrangement state of a plurality of sub-areas divided by the bending of the display, based on an angle of rotation and direction of bending of the sub-areas of the display, determine, based on the arrangement state, a respective viewpoint corresponding to each of the plurality of sub-areas from the plurality of viewpoints on the object, and control the display to display, for each of the plurality of sub-areas, an image of the object corresponding to the determined respective viewpoint on the object, from among the plurality of images of the object, wherein the plurality of sub-areas each correspond to at least one from among the images of the object.
A kit for capturing exosomes and detecting a disease-associated biomarker, comprising: an anti-ALG6 antibody attached to a solid substrate for capturing exosomes in situ; and at least one disease-associated biomarker binding agent suitable for detecting at least one disease-associated biomarkers present in the exosomes. an anti-ALG6 antibody attached to a solid substrate for capturing exosomes in situ; and at least one disease-associated biomarker binding agent suitable for detecting at least one disease-associated biomarkers present in the exosomes.
An organic electroluminescence module having a touch function of detecting contact or proximity of an operation body, comprising: a touch detection circuit unit comprising a capacitance touch detection circuit section ; and a light emitting element drive circuit unit comprising a light emitting element drive circuit section configured to drive an organic electroluminescence panel , wherein the organic electroluminescence panel comprises light emitting areas and a pair of at least two plate electrodes that are internally and mutually opposed, the pair of electrodes is connected to the light emitting element drive circuit unit , one of the pair of electrodes is a touch detection electrode, both or either one of the pair of electrodes is connected to the touch detection circuit unit , a first electrode of the pair of electrodes is divided into portions characterized in that a second electrode of the pair of electrodes is a single piece, and the organic electroluminescence module is configured so that a same potential is applied to the divided portions of the first electrode during a touch detection period (LT) while the second electrode of the pair of electrodes is floating or having the same potential applied thereto. a touch detection circuit unit comprising a capacitance touch detection circuit section ; and a light emitting element drive circuit unit comprising a light emitting element drive circuit section configured to drive an organic electroluminescence panel , wherein the organic electroluminescence panel comprises light emitting areas and a pair of at least two plate electrodes that are internally and mutually opposed, the pair of electrodes is connected to the light emitting element drive circuit unit , one of the pair of electrodes is a touch detection electrode, both or either one of the pair of electrodes is connected to the touch detection circuit unit , a first electrode of the pair of electrodes is divided into portions characterized in that a second electrode of the pair of electrodes is a single piece, and the organic electroluminescence module is configured so that a same potential is applied to the divided portions of the first electrode during a touch detection period (LT) while the second electrode of the pair of electrodes is floating or having the same potential applied thereto.
A lubricant composition comprising an oil of lubricating viscosity and 0.01 wt % to 15 wt % of a protic acid salt of an N-hydrocarbyl-substituted gamma- (γ-) or delta-(δ-) aminoester or an N-hydrocarbyl-substituted gamma- (γ-) or delta-(δ-) aminothioester.
A system for suppressing undesirable vibration modes, the system comprising: a micro-electrical mechanical system (MEMS) resonator , the MEMS resonator comprising: two or more proof masses ; a plurality of anchors , wherein proof masses in the two or more proof masses are connected to the plurality of anchors through a plurality of flexures ; a substrate , wherein the MEMS resonator is mounted to the substrate through the plurality of anchors ; and one or more tuned mass dampers configured to counter-act the undesirable vibration modes in the substrate and the MEMS resonator , characterized in that the one or more tuned mass dampers comprise a first mass coupled to a first proof mass in the two or more proof masses through a first flexure that extends between the first mass and the first proof mass and to a second proof mass in the two or more proof masses through a second flexure that extends between the first mass and the second proof mass, wherein the first mass is placed between the first proof mass and the second proof mass, and the first proof mass and the second proof mass are connected to opposite sides of the first mass. a micro-electrical mechanical system (MEMS) resonator , the MEMS resonator comprising: two or more proof masses ; a plurality of anchors , wherein proof masses in the two or more proof masses are connected to the plurality of anchors through a plurality of flexures ; two or more proof masses ; a plurality of anchors , wherein proof masses in the two or more proof masses are connected to the plurality of anchors through a plurality of flexures ; a substrate , wherein the MEMS resonator is mounted to the substrate through the plurality of anchors ; and one or more tuned mass dampers configured to counter-act the undesirable vibration modes in the substrate and the MEMS resonator , characterized in that the one or more tuned mass dampers comprise a first mass coupled to a first proof mass in the two or more proof masses through a first flexure that extends between the first mass and the first proof mass and to a second proof mass in the two or more proof masses through a second flexure that extends between the first mass and the second proof mass, wherein the first mass is placed between the first proof mass and the second proof mass, and the first proof mass and the second proof mass are connected to opposite sides of the first mass.
An energy system comprising: a biomass fuelled electrical power generating plant; a carbon capture system for capturing carbon containing flue gases from consuming the biomass as fuel; and a plant for producing carbon based fuel by reaction of the captured carbon containing flue gases and a source of hydrogen; wherein the electrical power generating plant comprises: a) a biomass pyrolising plant for pyrolising biomass to a charcoal; and b) a direct carbon fuel cell plant for generating electricity from the charcoal. a biomass fuelled electrical power generating plant; a carbon capture system for capturing carbon containing flue gases from consuming the biomass as fuel; and a plant for producing carbon based fuel by reaction of the captured carbon containing flue gases and a source of hydrogen; wherein the electrical power generating plant comprises: a) a biomass pyrolising plant for pyrolising biomass to a charcoal; and b) a direct carbon fuel cell plant for generating electricity from the charcoal. a) a biomass pyrolising plant for pyrolising biomass to a charcoal; and b) a direct carbon fuel cell plant for generating electricity from the charcoal.