mhurhangee/ep-ind-claims huggingface dataset:
A mobile terminal comprising: a housing, a processor, at least two antennas and at least two pressure sensors arranged at two sides of the mobile terminal, wherein the at least two antennas and the at least two pressure sensors are connected with the processor respectively; whereby sensing elements of one or more first side pressure sensors among the at least two pressure sensors are arranged on a surface of a first side frame of the housing, and sensing elements of one or more second side pressure sensors among the at least two pressure sensors are arranged on a surface of a second side frame of the housing, the second side frame opposing the first side frame; the at least two pressure sensors are configured to acquire values of pressures applied to a surface of the housing and send the acquired pressure values to the processor; and the processor is configured to receive pressure values sent by the pressure sensors, to determine multiple contact positions between a user and the mobile terminal based on pressure values sent by at least one of the first side pressure sensors and at least one of the second side pressure sensors, and to determine an antenna to receive or send signals from the at least two antennas based on the multiple contact positions so as to receive or send signals using the determined antenna, wherein the processor is configured to statistically process the multiple contact positions to obtain a central contact position of the multiple contact positions, and to determine the furthest antenna from the central contact position among the at least two antennas as the antenna to receive or send signals. sensing elements of one or more first side pressure sensors among the at least two pressure sensors are arranged on a surface of a first side frame of the housing, and sensing elements of one or more second side pressure sensors among the at least two pressure sensors are arranged on a surface of a second side frame of the housing, the second side frame opposing the first side frame; the at least two pressure sensors are configured to acquire values of pressures applied to a surface of the housing and send the acquired pressure values to the processor; and the processor is configured to receive pressure values sent by the pressure sensors, to determine multiple contact positions between a user and the mobile terminal based on pressure values sent by at least one of the first side pressure sensors and at least one of the second side pressure sensors, and to determine an antenna to receive or send signals from the at least two antennas based on the multiple contact positions so as to receive or send signals using the determined antenna, wherein the processor is configured to statistically process the multiple contact positions to obtain a central contact position of the multiple contact positions, and to determine the furthest antenna from the central contact position among the at least two antennas as the antenna to receive or send signals.
A method for controlling a call audio channel on a communications terminal comprising an internal audio device and one external audio device, wherein the method comprises: • detecting a first voice signal received by a microphone of the internal audio device of the communications terminal and detecting a second voice signal received by a microphone of the external audio device of the communications terminal; wherein either the first internal audio device or the external audio device is set as a default audio device for a call audio channel; • comparing a first voice signal strength value and a second voice signal strength value; • when a proportion of an absolute value of a strength difference between the first and second voice signal strength values to the strength value of either the first or second voice signal having the smallest strength value is greater than a preset value, selecting the audio device with the greatest received voice signal strength value as a target audio device (S 102); • when the proportion of the absolute value of the strength difference between the first and second voice signal strength values to either the first or the second voice signal having the smallest strength value is less than or equal to the preset value, maintaining the default audio device as the target audio device (S 102); • setting the target audio device as a current call audio channel (S 103). • detecting a first voice signal received by a microphone of the internal audio device of the communications terminal and detecting a second voice signal received by a microphone of the external audio device of the communications terminal; wherein either the first internal audio device or the external audio device is set as a default audio device for a call audio channel; • comparing a first voice signal strength value and a second voice signal strength value; • when a proportion of an absolute value of a strength difference between the first and second voice signal strength values to the strength value of either the first or second voice signal having the smallest strength value is greater than a preset value, selecting the audio device with the greatest received voice signal strength value as a target audio device (S 102); • when the proportion of the absolute value of the strength difference between the first and second voice signal strength values to either the first or the second voice signal having the smallest strength value is less than or equal to the preset value, maintaining the default audio device as the target audio device (S 102); • setting the target audio device as a current call audio channel (S 103).
A chiral transition metal catalyst, characterized in that at least two structurally different monophosphorus ligands are bonded to the metal selected from Rh, Ir, Ru, Ni, Pd or Pt, at least one monophosphorus ligand being chiral which is selected from mono-P-compounds of the B, C or D type: where W is carbon, nitrogen, oxygen, sulfur or halogen (F, Cl, Br, I), and further atoms or groups of atoms are bonded to W according to its number of free valences, and where the radicals R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 1', R 2', R 3', R 4', R 5', R 6', R 7' and R 8' are each independently selected from the group of hydrogen, halogen, saturated and unsaturated, linear and branched C 1 -C 50 alkyl, C 6 -C 50 aryl, C 1 -C 50 heteroaryl, alkynyl silyl, nitro, nitrile, ester, carboxyl, carbonyl, amide, amine, hydroxyl, alkoxy, sulfide and selenide groups, where R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 1', R 2', R 3', R 4', R 5', R 6', R 7' and R 8' in turn bear further substituents or may be functionalized.
Method for the operation of a driver assistance system which is formed for automatic driving by engaging with the engine control, with a gearbox and a braking system of a motor vehicle, wherein a sleep mode is activated by a driver in which at least the steering wheel is retracted or moved into a rest position such that it enables a comfortable rest or sleep break of the driver, characterised in that the steering wheel is deactivated in sleep mode.
A bacteriocin composition comprising at least one pharmaceutically acceptable excipient; and at least one isolated peptide, or a combination of isolated peptides, wherein: (i) the at least one isolated peptide, or combination of isolated peptides, has selective bactericidal activity against L. iners; (ii) the at least one isolated peptide is selected from the group consisting of SEQ ID NO:1, SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO:4, and an isolated peptide having 90% to 99% sequence identity to one of SEQ ID NOs: 1, 2, 3, or 4; and (iii) the bacteriocin composition is a formulation suitable for intravaginal applications, and wherein the at least one isolated peptide, or combination of isolated peptides, is present in an amount sufficient to exhibit bactericidal properties of the bacteriocin composition. (i) the at least one isolated peptide, or combination of isolated peptides, has selective bactericidal activity against L. iners; (ii) the at least one isolated peptide is selected from the group consisting of SEQ ID NO:1, SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO:4, and an isolated peptide having 90% to 99% sequence identity to one of SEQ ID NOs: 1, 2, 3, or 4; and (iii) the bacteriocin composition is a formulation suitable for intravaginal applications, and wherein the at least one isolated peptide, or combination of isolated peptides, is present in an amount sufficient to exhibit bactericidal properties of the bacteriocin composition.
System comprising a hyperspectral imaging system, the hyperspectral imaging system comprising: - a camera for recording a hyperspectral image of a patient, and - a display device for displaying the hyperspectral image in visible light, wherein the camera is a light field capturing camera and the display device is a light field projector, wherein the camera and projector share a coaxial optical path, and wherein the camera is arranged to capture a light field in a spectral range of radiation at least including one of UV, IR and Terahertz radiation, thereby obtaining the hyperspectral image of the patient, and wherein the light field capturing camera comprises an output for sending data on the captured light field to an input of the light field projector, and the light field projector is arranged to project a light field in visible light over the patient based on the data received from the light field capturing camera; the system further comprising: - a secondary imaging system for providing secondary image data on a three-dimensional internal image of the patient, where the secondary imaging system is one of an X-ray, MRI, CT, PET-CT or Ultrasound system; and - a processor to provide depth information based on data of the captured light field and to format, based on the depth information, the secondary image data into an image for projection on the patient using the light field projector. - a camera for recording a hyperspectral image of a patient, and - a display device for displaying the hyperspectral image in visible light, - a secondary imaging system for providing secondary image data on a three-dimensional internal image of the patient, where the secondary imaging system is one of an X-ray, MRI, CT, PET-CT or Ultrasound system; and - a processor to provide depth information based on data of the captured light field and to format, based on the depth information, the secondary image data into an image for projection on the patient using the light field projector.
Construction machine, comprising: a material hopper for receiving bulk material, a material conveying system for conveying bulk material, the material conveying system comprising at least one conveying screw in the area of the hopper, wherein a gap extends underneath the conveying screw, the gap having a cross section which varies in a conveying direction of the conveying screw, characterized in that a) the gap is downwardly open and a downstream conveying system which facilitates the further transportation of the bulk material extends underneath the gap or b) the gap is downwardly closed and comprises an inclined plane on its bottom side sloping towards a rear wall of the material hopper, wherein the gap is open towards the rear wall so as to pass material on to a downstream conveying system at this opening at the latest. a material hopper for receiving bulk material, a material conveying system for conveying bulk material, the material conveying system comprising at least one conveying screw in the area of the hopper, wherein a gap extends underneath the conveying screw, the gap having a cross section which varies in a conveying direction of the conveying screw, a) the gap is downwardly open and a downstream conveying system which facilitates the further transportation of the bulk material extends underneath the gap or b) the gap is downwardly closed and comprises an inclined plane on its bottom side sloping towards a rear wall of the material hopper, wherein the gap is open towards the rear wall so as to pass material on to a downstream conveying system at this opening at the latest.
A method for combusting a fuel in a gas turbine engine, the method comprising providing an oxidizer mass flow, providing a first oxidizer partial mass flow, combusting a fuel in the first oxidizer partial mass flow in a first combustion stage thus providing a mass flow of combustion products, providing the mass flow of combustion products to a duct, and ducting the mass flow of combustion products through said duct in a flow direction, discharging a mass flow of a first supplementary fluid into said duct, discharging the mass flow of the first supplementary fluid in a discharge direction essentially aligned with the flow direction such as to provide a flow of the first supplementary fluid essentially aligned with the flow of combustion products, wherein the first supplementary fluid is selectively provided as one of an oxidizer and a premixed fuel/oxidizer mixture; discharging further mass flows of a second supplementary fluid and of a third supplementary fluid into the duct, wherein the second supplementary fluid and the third supplementary fluid are selectively provided as one of an oxidizer and a premixed fuel/oxidizer mixture, discharging the second supplementary fluid and the third supplementary fluid essentially aligned with the flow direction, wherein the second supplementary fluid and the third supplementary fluid are discharged laterally offset with respect to the discharged mass flow of first supplementary fluid and across the flow cross section of the duct, such as to provide the mass flows of supplementary fluids as laterally stratified layers (114, 115, 116) of the respective supplementary fluids, characterized in that at a threshold load, fuel is provided to the first supplementary fluid, while a fuel/air ratio (FAR 11) of the first combustion stage is gradually reduced and further is maintained constant over the load, at approximately 10% and up to 20% relative load, a fuel/air ratio (FAR 104) of the first supplementary fluid is increased and is gradually decreased and maintained constant at higher loads, at 20% relative load, an increasing fuel mass flow is added to the mass flow of the second supplementary fluid and the a fuel/air ratio (FAR 105) of the mass flow of the second supplementary fluid is increased and to further increase load, fuel is provided to the mass flow of the third supplementary fluid and a fuel/air ratio (FAR 106) of the third supplementary fluid is increased up to the gas turbine engine rated power.
A laundry detergent composition comprising: (i) detersive surfactant; and (ii) polyalpha-1,3-glucan ester compound comprising poly alpha-1,3 glucan backbone and ester group modification, wherein the poly alpha-1,3 glucan backbone: (a) is preferably linear, (b) has less than 10% branching point, and (c) contains 6 or more glucose units, wherein the ester group modification being one or more independently selected from: (a) an acetyl; (b) an aryl ester group; (c) an acyl group wherein a is independently 6-24; and (d) an acyl group wherein R 3 can be independently selected from H atoms, linear alkyl groups, branched alkyl groups, cyclic alkyl groups, and aryl groups comprising from one to 24 carbon atoms, and wherein (d) is different from (a) and (c); (e) an acyl group comprising -CO-C x -COOR 3, wherein the -C x - portion of the second acyl group comprises a chain of 2 to 24 carbon atoms, and R 3 comprises a chain of 1 to 24 carbon, with the proviso that if (a) is present, then at least one other ester group (b), (c) (d) and/or (e) are present, and wherein the degree of substitution of the ester group modification is from 0.001 to 3. (i) detersive surfactant; and (ii) polyalpha-1,3-glucan ester compound comprising poly alpha-1,3 glucan backbone and ester group modification, wherein the poly alpha-1,3 glucan backbone: (a) is preferably linear, (b) has less than 10% branching point, and (c) contains 6 or more glucose units, (a) is preferably linear, (b) has less than 10% branching point, and (c) contains 6 or more glucose units, wherein the ester group modification being one or more independently selected from: (a) an acetyl; (b) an aryl ester group; (c) an acyl group wherein a is independently 6-24; and (d) an acyl group wherein R 3 can be independently selected from H atoms, linear alkyl groups, branched alkyl groups, cyclic alkyl groups, and aryl groups comprising from one to 24 carbon atoms, and wherein (d) is different from (a) and (c); (e) an acyl group comprising -CO-C x -COOR 3, wherein the -C x - portion of the second acyl group comprises a chain of 2 to 24 carbon atoms, and R 3 comprises a chain of 1 to 24 carbon, (a) an acetyl; (b) an aryl ester group; (c) an acyl group wherein a is independently 6-24; and (d) an acyl group wherein R 3 can be independently selected from H atoms, linear alkyl groups, branched alkyl groups, cyclic alkyl groups, and aryl groups comprising from one to 24 carbon atoms, and wherein (d) is different from (a) and (c); (e) an acyl group comprising -CO-C x -COOR 3, wherein the -C x - portion of the second acyl group comprises a chain of 2 to 24 carbon atoms, and R 3 comprises a chain of 1 to 24 carbon, with the proviso that if (a) is present, then at least one other ester group (b), (c) (d) and/or (e) are present, and wherein the degree of substitution of the ester group modification is from 0.001 to 3.
Structural aircraft component, comprising: a substantially planar core panel having a space frame structure of load bearing space frame rods; and a cover panel mounted to a front face of the core panel, the cover panel comprising: a protection cover having an outer shape corresponding to the outer shape of the core panel characterised in that said protection cover includes at least one cutout aperture; and at least one fabric panel mounted to the protection cover and covering the at least one cutout aperture, with the at least one fabric panel sandwiched between the core panel and the protection cover. a substantially planar core panel having a space frame structure of load bearing space frame rods; and a cover panel mounted to a front face of the core panel, the cover panel comprising: a protection cover having an outer shape corresponding to the outer shape of the core panel characterised in that said protection cover includes at least one cutout aperture; and at least one fabric panel mounted to the protection cover and covering the at least one cutout aperture, with the at least one fabric panel sandwiched between the core panel and the protection cover. a protection cover having an outer shape corresponding to the outer shape of the core panel characterised in that said protection cover includes at least one cutout aperture; and at least one fabric panel mounted to the protection cover and covering the at least one cutout aperture, with the at least one fabric panel sandwiched between the core panel and the protection cover.
Process for bending a glass sheet by gravity, in which the sheets, positioned on a frame intended to confer the final peripheral shape on them, are in a first step brought to a temperature in the vicinity of the softening point by passing through a tunnel furnace, during which the glass sheets undergo, if appropriate, a first bending or a partial bending, and, in a second step, if appropriate simultaneously with the completion of the bending involved during the first step, the sheets are subjected to the localized and controlled application of microwaves in order to increase the temperature and to facilitate the bending in the regions exposed, the heating by microwaves creating a temperature gradient between the treated regions and the neighbouring regions, the scale of which is at least 3 and preferably 5°C/cm.
A method for a wearable electronic device (40, 60), comprising: receiving input data indicative of biometric input; attempting to authenticate the input data based, at least in part, on at least one biometric credential of an authorized user; establishing a wireless connection to a smart device (20, 71, 72 -72); determining whether the smart device (20, 71, 72 -72) is included in a trust group of one or more smart devices (20, 71, 72 -72) when information uniquely identifying the smart device (20, 71, 72 -72) is stored in a trust group table in the wearable electronic device (40, 60) associated with the trust group, wherein the trust group table includes a mapping between a device identifier of the smart device (20, 71, 72 -72) and a unique shared secret used to secure the wireless connection to the smart device (20, 71, 72 -72) corresponding to that device identifier; sending a communication to unlock the smart device (20, 71, 72 -72) when the input data is successfully authenticated and when the trust group includes the smart device (20, 71, 72 -72). receiving input data indicative of biometric input; attempting to authenticate the input data based, at least in part, on at least one biometric credential of an authorized user; establishing a wireless connection to a smart device (20, 71, 72 -72); determining whether the smart device (20, 71, 72 -72) is included in a trust group of one or more smart devices (20, 71, 72 -72) when information uniquely identifying the smart device (20, 71, 72 -72) is stored in a trust group table in the wearable electronic device (40, 60) associated with the trust group, wherein the trust group table includes a mapping between a device identifier of the smart device (20, 71, 72 -72) and a unique shared secret used to secure the wireless connection to the smart device (20, 71, 72 -72) corresponding to that device identifier; sending a communication to unlock the smart device (20, 71, 72 -72) when the input data is successfully authenticated and when the trust group includes the smart device (20, 71, 72 -72).
Device for use in the detection of binding affinities, the device comprising a planar waveguide arranged on a substrate, and further comprising an optical coupler for coupling coherent light of a predetermined wavelength into the planar waveguide such that the coherent light propagates through the planar waveguide with an evanescent field of the coherent light propagating along an outer surface of the planar waveguide, the outer surface of the planar waveguide comprises binding sites thereon capable of binding target samples to the binding sites such that light of the evanescent field is scattered by target samples bound to the binding sites, the device being characterized in that the binding sites are arranged along a plurality of predetermined lines, the predetermined lines being arranged such that the light scattered by the target samples bound to the binding sites interferes at a predetermined detection location with a difference in optical path length which is an integer multiple of the predetermined wavelength of the light.
A protein standard, said protein standard comprising a plurality of purified proteins having differing molecular weights; and at least a first portion of the purified proteins is covalently labeled with a catalytic moiety that is a mono microperoxidase N-hydroxy succinimidyl ester of Formula I: wherein R 1, and R 2, are each members independently selected from the group consisting of hydrogen, and an amine protecting group; wherein R 3, and R 4 are each members independently selected from the group consisting of hydrogen, and a NHS ester, wherein at least one of R 3 and R 4 is a NHS ester; a visible dye, wherein the catalytic moiety and the visible dye are conjugated to the plurality of proteins, and wherein at least a second portion of the purified proteins of the protein standard is labeled with the visible dye. wherein R 1, and R 2, are each members independently selected from the group consisting of hydrogen, and an amine protecting group; wherein R 3, and R 4 are each members independently selected from the group consisting of hydrogen, and a NHS ester, wherein at least one of R 3 and R 4 is a NHS ester; a visible dye, wherein the catalytic moiety and the visible dye are conjugated to the plurality of proteins, and wherein at least a second portion of the purified proteins of the protein standard is labeled with the visible dye.