mhurhangee/patent-ind-claim-en huggingface dataset:
Thermoelectric device comprising: - a substrate comprising first and second faces that are opposite one another across a thickness (e) of said substrate , - at least one thermoelectric junction comprising a first element and a second element that are electrically connected to one another in order to generate a thermoelectric effect, the first and second elements being arranged in the substrate and being electrically connected at their ends that are located on the first-face side of the substrate , the first element taking the form of a layer, characterized in that it comprises at least one set of thermoelectric junctions that are electrically connected in series and each comprise a first element and a second element , said thermoelectric junctions of said set being arranged such that: - one of the thermoelectric junctions of said set is a first thermoelectric junction corresponding to said thermoelectric junction , the first element of which takes the form of a layer, - one of the thermoelectric junctions of said set is a second thermoelectric junction surrounded by the first thermoelectric junction . - a substrate comprising first and second faces that are opposite one another across a thickness (e) of said substrate , - at least one thermoelectric junction comprising a first element and a second element that are electrically connected to one another in order to generate a thermoelectric effect, - one of the thermoelectric junctions of said set is a first thermoelectric junction corresponding to said thermoelectric junction , the first element of which takes the form of a layer, - one of the thermoelectric junctions of said set is a second thermoelectric junction surrounded by the first thermoelectric junction .
Silo for bulk material, wherein the silo is cylindrical, wherein a conical hood is arranged in the interior of the silo , wherein a first storage region is arranged above the conical hood , wherein the silo has a fluidizing apparatus for fluidizing the bulk material in the first storage region , wherein the fluidizing apparatus has at least one first ventilation element , wherein the conical hood has at least one first lead-through , characterized in that the at least one first ventilation element is able to be inserted into and removed from the first storage region through the first lead-through , wherein, after removal of the first ventilation element, the first lead-through is in a closed-off state.
A method, comprising: - receiving sensor data indicative of operation of a generator (600; 610) at a controller for the generator (600; 610), wherein the controller rotates with a rotor of the generator (600; 610); - performing an analysis of the sensor data at the controller ; - generating a generator command at the controller based on the sensor data; and - sending, using a communication interface , the generator command to an external controller , characterized by providing a concentric arrangement of magnetic coils as the communication interface . - receiving sensor data indicative of operation of a generator (600; 610) at a controller for the generator (600; 610), wherein the controller rotates with a rotor of the generator (600; 610); - performing an analysis of the sensor data at the controller ; - generating a generator command at the controller based on the sensor data; and - sending, using a communication interface , the generator command to an external controller , characterized by providing a concentric arrangement of magnetic coils as the communication interface .
A display device comprising: a laser irradiation device comprising one laser light source configured to emit a laser beam having an emission color of a wavelength equal to or larger than 380 nm and equal to or smaller than 780nm and to irradiate the laser beam on an irradiation point in air to produce a plasma that scatters the laser beam at the irradiation point to a first angle range from 30° to 330° and emits a mixed color light to a second angle range outside the first angle range, wherein the first angle range is defined at the irradiation point with respect to an irradiation direction of the laser beam toward the irradiation point, and the mixed color light comprises plasma light mixed with the laser beam; characterized by a control device configured to control intensity of the laser beam irradiated from the laser light source to change intensity of scattered laser beam at the irradiation point in the first angle range, wherein the control device is configured to control intensity of the laser beam irradiated from the one laser light source so that a relationship between intensity of plasma light emitted from the plasma and intensity of the laser beam scattered by the plasma becomes a predetermined relationship to display a display pixel. a laser irradiation device comprising one laser light source configured to emit a laser beam having an emission color of a wavelength equal to or larger than 380 nm and equal to or smaller than 780nm and to irradiate the laser beam on an irradiation point in air to produce a plasma that scatters the laser beam at the irradiation point to a first angle range from 30° to 330° and emits a mixed color light to a second angle range outside the first angle range, wherein the first angle range is defined at the irradiation point with respect to an irradiation direction of the laser beam toward the irradiation point, and the mixed color light comprises plasma light mixed with the laser beam; characterized by a control device configured to control intensity of the laser beam irradiated from the laser light source to change intensity of scattered laser beam at the irradiation point in the first angle range, wherein the control device is configured to control intensity of the laser beam irradiated from the one laser light source so that a relationship between intensity of plasma light emitted from the plasma and intensity of the laser beam scattered by the plasma becomes a predetermined relationship to display a display pixel.
A signal processing apparatus (100; 200; 1700; 1800; 2700; 3000) for denoising an audio signal comprising: a transformer (101; 201) that is configured to transform an input signal into an amplitude component signal in a frequency domain; a stationary component estimator (102; 202) that estimates a stationary component signal having a frequency spectrum with a stationary characteristic based on the amplitude component signal in the frequency domain; a replacement unit (103; 203) that is configured to replace, using the amplitude component signal obtained by said transformer (101; 201) and the stationary component signal, the amplitude component signal obtained by said transformer (101; 201) by a new amplitude component signal which is a product of the stationary component signal and a coefficient at at least some frequencies; and an inverse transformer (104; 204) that is configured to inversely transform the new amplitude component signal into an enhanced signal, wherein said replacement unit (103; 203) is configured to generate the new amplitude component signal based on a multiple of the stationary component signal at a frequency at which the amplitude component signal is larger than a first threshold determined based on a multiplication of the stationary component signal with a coefficient. a transformer (101; 201) that is configured to transform an input signal into an amplitude component signal in a frequency domain; a stationary component estimator (102; 202) that estimates a stationary component signal having a frequency spectrum with a stationary characteristic based on the amplitude component signal in the frequency domain; a replacement unit (103; 203) that is configured to replace, using the amplitude component signal obtained by said transformer (101; 201) and the stationary component signal, the amplitude component signal obtained by said transformer (101; 201) by a new amplitude component signal which is a product of the stationary component signal and a coefficient at at least some frequencies; and an inverse transformer (104; 204) that is configured to inversely transform the new amplitude component signal into an enhanced signal, wherein said replacement unit (103; 203) is configured to generate the new amplitude component signal based on a multiple of the stationary component signal at a frequency at which the amplitude component signal is larger than a first threshold determined based on a multiplication of the stationary component signal with a coefficient.
A device for drying blood samples and preserving analytes in blood samples during storage and transportation comprising: at least one blood sample carrier comprising a sheet of absorbent paper and a bed of a desiccant , the sheet of absorbent paper being mounted on top of the bed of a desiccant , wherein said desiccant is a molecular sieve having adsorption properties of water molecules, said molecular sieve being a sodium aluminosilicate compound having a pore diameter of four Ångström, wherein said sheet of absorbent paper has a uniform pore size and is configured to absorb a predetermined amount of liquid per area, whereby a fixed amount of blood may be stored using a calculated size of absorbent paper, and wherein said sheet of absorbent paper is configured to be cut to collect a portion thereof so that multiple portions are used in separate tests; a box comprised of a top lid and a bottom lid , wherein said top lid and bottom lid are configured to lock to one another to provide an enclosure for receiving said at least one blood sample carrier ; and a plurality of holding areas within said enclosure for holding said at least one blood sample carrier , the plurality of holding areas being separated by ridges and further having channels for air circulation. at least one blood sample carrier comprising a sheet of absorbent paper and a bed of a desiccant , the sheet of absorbent paper being mounted on top of the bed of a desiccant , wherein said desiccant is a molecular sieve having adsorption properties of water molecules, said molecular sieve being a sodium aluminosilicate compound having a pore diameter of four Ångström, wherein said sheet of absorbent paper has a uniform pore size and is configured to absorb a predetermined amount of liquid per area, whereby a fixed amount of blood may be stored using a calculated size of absorbent paper, and wherein said sheet of absorbent paper is configured to be cut to collect a portion thereof so that multiple portions are used in separate tests; wherein said desiccant is a molecular sieve having adsorption properties of water molecules, said molecular sieve being a sodium aluminosilicate compound having a pore diameter of four Ångström, wherein said sheet of absorbent paper has a uniform pore size and is configured to absorb a predetermined amount of liquid per area, whereby a fixed amount of blood may be stored using a calculated size of absorbent paper, and wherein said sheet of absorbent paper is configured to be cut to collect a portion thereof so that multiple portions are used in separate tests; a box comprised of a top lid and a bottom lid , wherein said top lid and bottom lid are configured to lock to one another to provide an enclosure for receiving said at least one blood sample carrier ; and a plurality of holding areas within said enclosure for holding said at least one blood sample carrier , the plurality of holding areas being separated by ridges and further having channels for air circulation.
A method for a transmission point of a communication network area, the communication network area constituted by a plurality of transmission points configured for coordinated transmissions to at least one user equipment, the transmission point being identified by an individual identifier, the transmission point being configured to transmit common reference signals on common channels and dedicated reference signals on dedicated channels to the at least one user equipment, the method comprising: assigning the individual identifier of the transmission point to the common reference signals on the common channels of the transmission point; and allocating, to the dedicated reference signals on the dedicated channels of the transmission point, an identifier unrelated to the individual identifier. assigning the individual identifier of the transmission point to the common reference signals on the common channels of the transmission point; and allocating, to the dedicated reference signals on the dedicated channels of the transmission point, an identifier unrelated to the individual identifier.
A method for forming a composite tread for a tire, the method comprising the steps of: forming a coextruded strip of a first and second rubber compound, wherein the first rubber compound is a tread rubber compound and the second rubber compound is different from the first rubber compound; and forming the tread from winding the coextruded strip onto a tire building drum or a green tire carcass while varying the ratio of the first compound to the second compound in the coextruded strip , characterized in that the second rubber compound has a storage modulus G' when measured at 1% strain and 100°C according to ASTM D5289 in a range of from 15 to 60 MPa and in that said storage modulus G' when measured at 1% strain and 100°C according to ASTM D5289 of the second rubber compound is at least 5 MPa higher than the respective storage modulus G' of the first rubber composition. forming a coextruded strip of a first and second rubber compound, wherein the first rubber compound is a tread rubber compound and the second rubber compound is different from the first rubber compound; and forming the tread from winding the coextruded strip onto a tire building drum or a green tire carcass while varying the ratio of the first compound to the second compound in the coextruded strip , characterized in that the second rubber compound has a storage modulus G' when measured at 1% strain and 100°C according to ASTM D5289 in a range of from 15 to 60 MPa and in that said storage modulus G' when measured at 1% strain and 100°C according to ASTM D5289 of the second rubber compound is at least 5 MPa higher than the respective storage modulus G' of the first rubber composition.
A balloon catheter coating composition comprising paclitaxel and an excipient selected from the group comprising at least a triglyceride according to formula 1, at least a compound according to formula 2 or a mixture thereof, wherein the compound of formula 1 is as follows: wherein I, m and n are independently an integer from 4 to 12; and wherein the compound of formula 2 is as follows: wherein n is an integer from 5 to 11 and m is an integer from 5 to 7; and wherein the paclitaxel/excipient ratio in weight ranges from 60/40 to 90/10.
A fiber reinforced polymer composition comprising a reinforcing fiber and an adhesive composition having interlaminar shear strength of at least 90 MPa obtained by ASTM D-2344 of the cured fiber reinforced polymer composition, wherein the reinforcing fiber is a carbon fiber, and the carbon fibers occupy at least 30% by volume of the cured fiber reinforced polymer composition,wherein the adhesive composition comprises at least a thermosetting resin comprising an epoxy resin or a benzoxazine resin, a curing agent comprising an amidoamine or an aromatic diamine, and the curing agent(s) are employed in an amount up to 75 parts by weight per 100 parts by weight of total thermosetting resin, and a hard interfacial material, wherein a surface of the interfacial material comprises at least a functional group compatible with the reinforcing fiber, the reinforcing fiber is suitable for concentrating the interfacial material in an interfacial region between the reinforcing fiber and the adhesive composition, wherein the interfacial region comprises an adhesion layer and a hard layer, the adhesion layer is closer to the reinforcing fiber than the hard layer and has a composition different from the composition of the hard layer, and the hard layer comprises at least the interfacial material, wherein the interfacial material comprises at least one of nickel, copper, silver, zinc, gold, platinum, cobalt, tin, titanium, iron, chromium, aluminum, an aluminum alloy, a magnesium alloy, a lithium aluminum alloy, carbon nanotubes, carbon black, carbon nanofibers, graphite, graphene, graphene oxide, graphite nanoplatelets, diamond, an indium tin oxide, silica, alumina, a zinc oxide, titania, a ceramic, silicon carbide, polyhedral oligomeric silsesquioxanes, fibrous forms of these materials, or mixtures thereof, the amount of the interfacial materials is up to 50 parts by weight per 100 parts of the thermosetting resin, and wherein coverage of particles of interfacial material on the surface of the reinforcing fibers is at least 10% as determined by the method described in the specification.
A method for predicting an explosion pressure of a medium-large cell module, wherein the medium-large cell module includes one or more medium-large cells having a capacity of 20 Ah or more, and the medium-large cells are electrically connected to each other, the method comprising the steps of: deriving a profile (SOC-temperature profile) of a generated temperature according to a charge amount (SOC) of a medium-large cell module to be predicted (S100); mounting a small cell having a capacity of 1.0 Ah or less inside an explosion pressure measuring device (S200); heating the small cell in a same manner as the SOC-temperature profile derived in step S100 and overcharging the small cell under the same SOC-voltage conditions as derived from the medium-large cell module in step S100 until the small cell is exploded (S300); measuring a pressure when the small cell is exploded (S400); and converting the measured pressure of the small cell into a pressure of the medium-large cell module (S500). deriving a profile (SOC-temperature profile) of a generated temperature according to a charge amount (SOC) of a medium-large cell module to be predicted (S100); mounting a small cell having a capacity of 1.0 Ah or less inside an explosion pressure measuring device (S200); heating the small cell in a same manner as the SOC-temperature profile derived in step S100 and overcharging the small cell under the same SOC-voltage conditions as derived from the medium-large cell module in step S100 until the small cell is exploded (S300); measuring a pressure when the small cell is exploded (S400); and converting the measured pressure of the small cell into a pressure of the medium-large cell module (S500).
A composition [composition (C)] comprising : - at least one vinylidene fluoride (VDF) polymer [polymer (VDF)], and - at least one polymer [polymer (N-ZW)] comprising zwitterionic recurring units derived from at least one ethylenically unsaturated monomer having at least two ionic groups, at least one of them being a cationic group [group (C+)] and at least one of them being an anionic group [group (A-)], and further comprising at least one hydroxyl group [units (R ZW )]. - at least one vinylidene fluoride (VDF) polymer [polymer (VDF)], and - at least one polymer [polymer (N-ZW)] comprising zwitterionic recurring units derived from at least one ethylenically unsaturated monomer having at least two ionic groups, at least one of them being a cationic group [group (C+)] and at least one of them being an anionic group [group (A-)], and further comprising at least one hydroxyl group [units (R ZW )].
Connector device for connecting an electrical conductor , having a housing , which has a socket opening for plugging in an electrical conductor , a spring element arranged on the housing , which has a spring leg for locking the conductor plugged into the socket opening , and an adjusting element , which is arranged in an adjustable manner on the housing , wherein by adjusting the adjusting element , the spring leg can be moved between a clamping position, in which the conductor plugged into the socket opening can be locked in the socket opening , and a released position, in which the conductor can be plugged into the socket opening or the conductor plugged into the socket opening can be detached from the socket opening , wherein the spring element has an actuating section arranged on the spring leg , on which the adjusting element acts during an adjustment for moving the spring leg , characterized in that a support section , which is constructed to come into contact with the spring leg at a support point during a movement of the spring leg , is formed on the actuating section .
An implantable medical device system, comprising: a sensing circuit configured to sense atrial P-waves from a cardiac electrical signal received via sensing electrodes coupleable to the sensing circuit and produced by a patient's heart; a therapy delivery circuit configured to generate and deliver His bundle pacing pulses via a His pacing electrode vector coupleable to the therapy delivery circuit; and a control circuit configured to: control the therapy delivery circuit to deliver a His bundle pacing pulse; determine a timing of an atrial P-wave sensed by the sensing circuit relative to the His bundle pacing pulse; and determine a type of capture of the His bundle pacing pulse in response to the determined timing of the atrial P-wave. a sensing circuit configured to sense atrial P-waves from a cardiac electrical signal received via sensing electrodes coupleable to the sensing circuit and produced by a patient's heart; a therapy delivery circuit configured to generate and deliver His bundle pacing pulses via a His pacing electrode vector coupleable to the therapy delivery circuit; and a control circuit configured to: control the therapy delivery circuit to deliver a His bundle pacing pulse; determine a timing of an atrial P-wave sensed by the sensing circuit relative to the His bundle pacing pulse; and determine a type of capture of the His bundle pacing pulse in response to the determined timing of the atrial P-wave. control the therapy delivery circuit to deliver a His bundle pacing pulse; determine a timing of an atrial P-wave sensed by the sensing circuit relative to the His bundle pacing pulse; and determine a type of capture of the His bundle pacing pulse in response to the determined timing of the atrial P-wave.
A flexible abrasive product having a surface , the surface comprising repeating units (RU1, RU2, RU3, RU4, RU5, RU6, RU7) of abrasive zones surrounded by channel portions , wherein repeating unit (RU1, RU2, RU3, RU4, RU5, RU6, RU7) boundaries opposite to each other have congruent curvature to form a complementary pair to fit the repeating units (RU1, RU2, RU3, RU4, RU5, RU6, RU7) together in a pre-emptying manner, characterized in that the channel portions comprise first channel portions with a substantially constant first channel width (w1) and second channel portions with a substantially constant second channel width (w2) along the channel portion length.