mhurhangee/ep-ind-claims huggingface dataset:
A sensor comprising: a fixed structure comprising a substrate; a membrane electrode, which is deformable as a consequence of pressure and which is in contact with the structure; a counterelectrode mechanically connected to the fixed structure and separated from the membrane electrode by a gap; and at least one spring between, and mechanically connected to, the membrane electrode and the counterelectrode, so as to exert an elastic force between the membrane electrode and the counterelectrode, characterized in that the membrane electrode is in contact with the structure through a flexible membrane connection mechanically connecting the membrane electrode to the fixed structure, wherein the flexible membrane connection is configured to elastically deform at least as a partial consequence of the flexion or movement or deformation of the membrane electrode, wherein the flexible membrane connection comprises a cut or a hole in correspondence with a portion of the membrane electrode in contact with the fixed structure. a fixed structure comprising a substrate; a membrane electrode, which is deformable as a consequence of pressure and which is in contact with the structure; a counterelectrode mechanically connected to the fixed structure and separated from the membrane electrode by a gap; and at least one spring between, and mechanically connected to, the membrane electrode and the counterelectrode, so as to exert an elastic force between the membrane electrode and the counterelectrode, characterized in that the membrane electrode is in contact with the structure through a flexible membrane connection mechanically connecting the membrane electrode to the fixed structure, wherein the flexible membrane connection is configured to elastically deform at least as a partial consequence of the flexion or movement or deformation of the membrane electrode, wherein the flexible membrane connection comprises a cut or a hole in correspondence with a portion of the membrane electrode in contact with the fixed structure.
Radial turbo compressor comprising at least one impeller and at least one casing, wherein said impeller is rotatable about an axis, wherein said casing comprises an inlet upstream said impeller said inlet comprising an inlet flange to be mounted to a process gas pipe, wherein said casing comprises an outlet downstream said impeller comprising an outlet flange, wherein said casing comprises an outlet volute extending about said axis downstream said impeller and upstream said outlet, wherein said radial turbo compressor comprises a drive unit driving said impeller and being mounted to said casing, wherein when in use said casing is exclusively supported by said inlet flange and said outlet flange and wherein said casing comprises a drive unit flange, wherein said drive unit comprises a fixation flange, wherein said drive unit flange and said fixation flange are fixedly connected to each other by fixation elements, wherein said drive unit is exclusively supported by said fixation flange, characterised in that said casing comprises ribs in order to increase the bending stiffness of said casing, said ribs being distributed along the circumference of said casing, extending axially at least partly between said drive unit flange and said inlet flange, and extending in a radial direction along a rib's height.
Pneumatic vehicle tyre with a tread, which has at least one profile strip (1, 1'), which runs along the shoulder and on the inner side of the tread is separated from further profile elements by a circumferential groove running in the circumferential direction, wherein a multiplicity of transverse grooves that are spaced apart in the circumferential direction run in the profile strip (1, 1'), wherein water expulsion channels (4, 4'), which run in the circumferential direction and have a width (b 1) decreasing over their extent, open out at the end of the transverse grooves on the inner side of the tread, wherein they have their greatest width (b 1) where they begin at the transverse groove, characterized in that the transverse grooves run beyond the ground contact area and, within the profile strip (1, 1'), end at a distance (a) before the circumferential groove, wherein the distance (a) is 5.0 mm to 10.0 mm and wherein the water expulsion channels (4, 4') that run in the circumferential direction have at least over a large part of their extent a depth of 1.5 mm to 3 mm and the ground contact area is obtained in accordance with the E.T.R.T.O. standard from the load at 70% of the load-bearing capacity of the tyre at an internal pressure of 2.5 bar and an internal pressure of 85% of 2.5 bar.
Electromagnetic flowmeter with a measuring tube and at least one magnetic system arranged on the measuring tube, said magnetic system comprising a mountable pole piece, characterized in that the measuring tube has at least one planar surface and an otherwise cylindrical lateral surface which limits the measuring tube towards the environment, wherein the pole piece is formed in relation to the measuring tube that it touches the planar surface of the measuring tube and has a specified minimum distance to the otherwise cylindrical lateral surface of the measuring tube, wherein the pole piece surrounds the measuring tube in an arc angle of at least 10°, and wherein the planar surface of the measuring tube has two axial stops for the pole piece in the axial direction of the measuring tube, wherein the planar surface of the measuring tube has an axial length in relation to the measuring tube between two axial stops, wherein the pole piece has a planar surface which has a length that is complementary to the length of the planar surface of the measuring tube between the two axial stops such that the pole piece is axially aligned and fixed on the measuring tube.
A method, in a first radio node, for determining a bandwidth of a second radio node, the first and second radio nodes being configured for use in a communications network, the method comprising: receiving, from the second radio node, a radio signal; determining at least one known signal, said at least one known signal being transmittable on one or more known radio resources, wherein the at least one known signal is a plurality of known signals, and wherein said plurality of known signals is ranked according to a bandwidth of each respective known signal; calculating a correlation between the radio signal and at least a subset of the plurality of known signals, wherein the calculating of the correlation further comprises: calculating an ordered correlation by performing the correlation in order of bandwidth; comparing said ordered correlation with a threshold value, wherein said calculating the ordered correlation is performed until a respective ordered correlation surpasses said threshold value; and determining a bandwidth of the second radio node based on the calculating, wherein said determining the bandwidth further comprises determining the bandwidth of the second radio node to be a bandwidth of the known signal associated with the ordered correlation which surpasses said threshold value. receiving, from the second radio node, a radio signal; determining at least one known signal, said at least one known signal being transmittable on one or more known radio resources, wherein the at least one known signal is a plurality of known signals, and wherein said plurality of known signals is ranked according to a bandwidth of each respective known signal; calculating a correlation between the radio signal and at least a subset of the plurality of known signals, wherein the calculating of the correlation further comprises: calculating an ordered correlation by performing the correlation in order of bandwidth; comparing said ordered correlation with a threshold value, wherein said calculating the ordered correlation is performed until a respective ordered correlation surpasses said threshold value; and determining a bandwidth of the second radio node based on the calculating, wherein said determining the bandwidth further comprises determining the bandwidth of the second radio node to be a bandwidth of the known signal associated with the ordered correlation which surpasses said threshold value. calculating an ordered correlation by performing the correlation in order of bandwidth; comparing said ordered correlation with a threshold value, wherein said calculating the ordered correlation is performed until a respective ordered correlation surpasses said threshold value; and determining a bandwidth of the second radio node based on the calculating, wherein said determining the bandwidth further comprises determining the bandwidth of the second radio node to be a bandwidth of the known signal associated with the ordered correlation which surpasses said threshold value.
A method for producing modified boron nitride nanotubes (BNNTs) comprising pendant hydroxyl and pendant amino (NH 2) functional groups covalently bonded to a surface of the BNNTs, the method comprising treating BNNTs with a halogen in an aqueous solution.
A terminal, comprising: a reception section that is configured to receive a downlink control information, DCI, for scheduling a physical uplink shared channel, PUSCH; and a control section that is configured to perform transmission of the PUSCH corresponding to the DCI at a predetermined transmission time interval, TTI, and to perform the transmission of the PUSCH on a time period after a non-transmission period, which has a length between reception of the DCI for PUSCH and transmission of the PUSCH, which is determined based on a capability of the terminal for PUSCH, wherein the control section is configured to set the predetermined TTI to the same TTI as a TTI for when the reception section received the DCI. a reception section that is configured to receive a downlink control information, DCI, for scheduling a physical uplink shared channel, PUSCH; and a control section that is configured to perform transmission of the PUSCH corresponding to the DCI at a predetermined transmission time interval, TTI, and to perform the transmission of the PUSCH on a time period after a non-transmission period, which has a length between reception of the DCI for PUSCH and transmission of the PUSCH, which is determined based on a capability of the terminal for PUSCH, wherein the control section is configured to set the predetermined TTI to the same TTI as a TTI for when the reception section received the DCI.
A yarn monitoring device comprising: a sensor adapted to monitor a yarn that is being wound by a yarn winding machine; a determining section adapted to perform a determination based on first information acquired from the sensor and second information acquired from a status acquiring section (51; 64; 71) of the yarn winding machine, and to output a control signal based on the determination; and a cutter adapted to cut the yarn, wherein the determining section is adapted to output as the control signal a signal that causes the cutter to operate and cut the yarn, wherein the second information acquired by the determining section includes at least one of a position of an unwinding assisting member in an unwinding assisting device arranged in the yarn winding machine, and hairiness of the yarn, wherein the first information indicates a thickness of the yarn, wherein the determining section is adapted to output the control signal when the first information indicates a yarn defect, characterized in that a thickness threshold value for detecting a yarn defect is varied based on the second information. a sensor adapted to monitor a yarn that is being wound by a yarn winding machine; a determining section adapted to perform a determination based on first information acquired from the sensor and second information acquired from a status acquiring section (51; 64; 71) of the yarn winding machine, and to output a control signal based on the determination; and a cutter adapted to cut the yarn, wherein the determining section is adapted to output as the control signal a signal that causes the cutter to operate and cut the yarn, wherein the second information acquired by the determining section includes at least one of a position of an unwinding assisting member in an unwinding assisting device arranged in the yarn winding machine, and hairiness of the yarn, wherein the first information indicates a thickness of the yarn, wherein the determining section is adapted to output the control signal when the first information indicates a yarn defect, characterized in that a thickness threshold value for detecting a yarn defect is varied based on the second information.
An electrolyte comprising at least one lithium salt, at least one non-aqueous solvent and a ionic liquid comprising a compound of Formula 1: M 2 S y /M 2 (S m) y where M is an organic cation, m is an integer from 1 to 16 and y is the integer indicating the stoichiometry necessary to neutralize the positive charge of 2M; wherein the compound of Formula 1: M 2 S y /M 2 (S m) y contains a molar ratio of sulfide M 2 S y and added elemental sulfur from 1:1.01 to 1:15.
Chassis component for a commercial vehicle, in particular a trailer or semitrailer having an axis, a brake disc and an electrical component arranged near to the brake disc, whereby the electrical component has a shaft-shaped section and a connection section for connecting an electrical cable and whereby the shaft-shaped section is received in a sleeve-shaped section of a heat shield, characterised in that the heat shield has a collar-shaped section assigned to the connection section of the electrical component and in that the connection section is spaced from the collar-shaped section in the direction of the brake disc.
Foundation engineering method for producing a columnar structure in the ground, in which a foundation engineering tool is driven in a rotating manner about an axis of rotation and introduced with a feeding motion into a ground, wherein as columnar structure is produced in the ground, wherein a borehole is created by material-removing drilling or displacement drilling into which a curable suspension is introduced to form the columnar structure, characterized in that during the production of the columnar structure a rotating motion and a feeding motion of the foundation engineering tool are recorded over time and forwarded to an evaluation unit, in that by means of a sensor means at least one further processing parameter is recorded over time during the production of the columnar structure in the ground and is forwarded to the evaluation unit and in that by the evaluation unit a three-dimensional model of the columnar structure is produced and displayed.
A power control implementation method, applied to a first communication node, comprising: reporting the following information to a second communication node: power scaling factors for different codewords or different codeword groups; acquiring information about transmit precoding matrix indicator, TPMI; determining at least one precoding codeword in a preconfigured precoding codeword set according to the information about TPMI; and performing transmission to the second communication node according to the at least one precoding codeword. reporting the following information to a second communication node: power scaling factors for different codewords or different codeword groups; acquiring information about transmit precoding matrix indicator, TPMI; determining at least one precoding codeword in a preconfigured precoding codeword set according to the information about TPMI; and performing transmission to the second communication node according to the at least one precoding codeword.
A process for producing graphene comprising the steps of: providing a plurality of metallic particles comprise a transition metal or compound thereof as templates for graphene formation; providing a carbon source; reacting the metallic particles and carbon source under conditions suitable for graphene formation; and forming graphene particles on the metallic particles, wherein the graphene particles formed on the metallic particles are of a size and shape corresponding to the size and shape of the metallic particles; characterised in that the metallic particles are dispersed in a support; and the metallic particles comprise cobalt hydroxide. providing a plurality of metallic particles comprise a transition metal or compound thereof as templates for graphene formation; providing a carbon source; reacting the metallic particles and carbon source under conditions suitable for graphene formation; and forming graphene particles on the metallic particles, wherein the graphene particles formed on the metallic particles are of a size and shape corresponding to the size and shape of the metallic particles; characterised in that the metallic particles are dispersed in a support; and the metallic particles comprise cobalt hydroxide.
A method for monitoring a wind turbine (10, 11), comprising: defining at least one subsystem (12, 16, 56, 66, 92, 114, 118, 206, 210) of the wind turbine (10, 11); providing a simulation model for the at least one subsystem (12, 16, 56, 66, 92, 114, 118,206,210); receiving, during normal operation of the wind turbine (10, 1), an input signal and an actual output signal of the at least one subsystem (12, 16, 56, 66, 92, 114, 118, 206, 210); determining an expected output signal of the at least one subsystem (12, 16, 56, 66, 92, 114, 118, 206, 210) using the input signal as an input of the simulation model, and mapping the input signal with a first transfer function to the expected output signal; comparing the actual output signal and the expected output signal; determining, based on the comparison between the actual output signal and the expected output signal, if the first subsystem (12, 16, 56, 66, 92, 114, 118, 206, 210) operates within a given specification; and determining a second transfer function so that the output signal and the expected output signal substantially match, wherein comparing the actual output signal and the expected output signal comprises determining a distance between the first transfer function and the second transfer function in a function space. defining at least one subsystem (12, 16, 56, 66, 92, 114, 118, 206, 210) of the wind turbine (10, 11); providing a simulation model for the at least one subsystem (12, 16, 56, 66, 92, 114, 118,206,210); receiving, during normal operation of the wind turbine (10, 1), an input signal and an actual output signal of the at least one subsystem (12, 16, 56, 66, 92, 114, 118, 206, 210); determining an expected output signal of the at least one subsystem (12, 16, 56, 66, 92, 114, 118, 206, 210) using the input signal as an input of the simulation model, and mapping the input signal with a first transfer function to the expected output signal; comparing the actual output signal and the expected output signal; determining, based on the comparison between the actual output signal and the expected output signal, if the first subsystem (12, 16, 56, 66, 92, 114, 118, 206, 210) operates within a given specification; and determining a second transfer function so that the output signal and the expected output signal substantially match, wherein comparing the actual output signal and the expected output signal comprises determining a distance between the first transfer function and the second transfer function in a function space.
A process for the epoxidation of propene, comprising a) continuously reacting a propene feed with hydrogen peroxide in the presence of an epoxidation catalyst in a reaction step at a pressure of at least 1.9 MPa, using propene in excess to hydrogen peroxide, to provide a liquid reaction mixture comprising non-reacted propene; b) subjecting the liquid reaction mixture to a series of at least two sequential pressure reduction steps, the series comprising a first pressure reduction step and a last pressure reduction step, each pressure reduction step reducing the pressure from an initial pressure to a final pressure and providing a vapor phase, comprising non-reacted propene, and a liquid phase at the final pressure, the final pressure of the last pressure reduction step being less than 0.3 MPa; c) compressing for each pressure reduction step the vapor phase provided by said step in a compression step to provide a compressed vapor phase having at least the initial pressure of said pressure reduction step, combining for each pressure reduction step, except the last pressure reduction step, the vapor phase provided by said step with compressed vapor phase from the subsequent pressure reduction step before performing said compression step; d) condensing the compressed vapor phase from the first pressure reduction step in a condensing step to recover non-reacted propene and recycling at least part of the recovered non-reacted propene to the reaction step; and e) separating propene oxide from the liquid phase provided in the last pressure reduction step. a) continuously reacting a propene feed with hydrogen peroxide in the presence of an epoxidation catalyst in a reaction step at a pressure of at least 1.9 MPa, using propene in excess to hydrogen peroxide, to provide a liquid reaction mixture comprising non-reacted propene; b) subjecting the liquid reaction mixture to a series of at least two sequential pressure reduction steps, the series comprising a first pressure reduction step and a last pressure reduction step, each pressure reduction step reducing the pressure from an initial pressure to a final pressure and providing a vapor phase, comprising non-reacted propene, and a liquid phase at the final pressure, the final pressure of the last pressure reduction step being less than 0.3 MPa; c) compressing for each pressure reduction step the vapor phase provided by said step in a compression step to provide a compressed vapor phase having at least the initial pressure of said pressure reduction step, combining for each pressure reduction step, except the last pressure reduction step, the vapor phase provided by said step with compressed vapor phase from the subsequent pressure reduction step before performing said compression step; d) condensing the compressed vapor phase from the first pressure reduction step in a condensing step to recover non-reacted propene and recycling at least part of the recovered non-reacted propene to the reaction step; and e) separating propene oxide from the liquid phase provided in the last pressure reduction step.