mhurhangee/ep-ind-claims huggingface dataset:
Hearing system comprising a hearing device having an output transducer for stimulation of a user's hearing, an audio signal transmitter (24, 25), an audio signal source for providing audio signals to the audio signal transmitter, an audio signal receiver unit adapted to establish a wireless link for transmission of the audio signals from the audio signal transmitter to the audio signal receiver unit which is connected to or integrated within the hearing device for providing the audio signals received from the audio signal transmitter as input to the hearing device, means (24, 28, 30, 40, 42, 52) for generating and wirelessly transmitting a polling signal to the audio signal receiver unit, means (26, 28, 30, 44, 54, 56, 58) for receiving the polling signal at the audio signal receiver unit, means (26, 28, 30, 44, 48, 54, 56, 58) for generating and wirelessly transmitting, when the polling signal has been received, a status information signal containing data regarding the status of the wireless audio signal link and/or the receiver unit, and means (24, 28, 30, 38, 42, 52) for receiving the status information signal and displaying status information derived from the status information signal to a person other than said user of the hearing device, wherein the means (24, 28, 30, 40, 42, 52) for generating and transmitting the polling signal comprise an activation element which is manually operable by said person other than said user.
Use of at least one compound as an additive in a battery electrolyte operating by ion circulation, wherein the compound comprises at least one 1,1-dicyanovinyl group, characterized in that the compound is selected from a compound A, a compound B, and a mixture thereof, wherein the compound A is represented by the following formula: wherein R is a group selected from among an optionally substituted alkylene group; an optionally substituted alkenylene group; an optionally substituted haloalkylene group; and an optionally substituted haloalkenylene group; while X is selected from an oxygen atom, a nitrogen group, and an alkylene group; wherein the compound B is represented by the following formula: wherein R 1 and R 2 are the same or different groups selected from linear or branched alkyl groups; linear or branched alkenyl groups; linear or branched haloalkyl groups; and linear or branched haloalkenyl groups; while X is selected from an oxygen atom, a nitrogen group, and an alkylene group.
A radar sensing and communications system (100, 300) for a vehicle, the system comprising: a transmitter (104a-104d, 206, 400) configured for installation and use on a vehicle, wherein the transmitter (104a-104d, 206, 400) is configured to modulate the radio signal based upon a first plurality of information bits; wherein the transmitter (104a-104d, 206, 400) is configured to transmit a modulated radio signal; a control unit (102, 210) configured to select the first plurality of information bits used to modulate the radio signal; a receiver (104a-104d, 208, 450) configured for installation and use on the vehicle, wherein the receiver (104a-104d, 208, 450) is configured to receive a first radio signal that is the transmitted modulated radio signal reflected from objects in the environment; characterized in that the receiver (104a-104d 208, 450) is configured to receive a second radio signal transmitted from another system, wherein the second radio signal carries second radio signal information bits; wherein the receiver (104a-104d, 208, 450) comprises correlators configured to process received radio signals; and wherein the receiver (104a-104d, 208, 450) is configured by the control unit to process the first received radio signal to detect objects in the environment, and to also process the second received radio signal to determine a second plurality of information bits carried by the second received radio signal, wherein the correlators of the receiver (104a-104d, 208, 450) are configured to process both the first received radio signal and the second received radio signal. a transmitter (104a-104d, 206, 400) configured for installation and use on a vehicle, wherein the transmitter (104a-104d, 206, 400) is configured to modulate the radio signal based upon a first plurality of information bits; wherein the transmitter (104a-104d, 206, 400) is configured to transmit a modulated radio signal; a control unit (102, 210) configured to select the first plurality of information bits used to modulate the radio signal; a receiver (104a-104d, 208, 450) configured for installation and use on the vehicle, wherein the receiver (104a-104d, 208, 450) is configured to receive a first radio signal that is the transmitted modulated radio signal reflected from objects in the environment; characterized in that the receiver (104a-104d 208, 450) is configured to receive a second radio signal transmitted from another system, wherein the second radio signal carries second radio signal information bits; wherein the receiver (104a-104d, 208, 450) comprises correlators configured to process received radio signals; and wherein the receiver (104a-104d, 208, 450) is configured by the control unit to process the first received radio signal to detect objects in the environment, and to also process the second received radio signal to determine a second plurality of information bits carried by the second received radio signal, wherein the correlators of the receiver (104a-104d, 208, 450) are configured to process both the first received radio signal and the second received radio signal.
A method for producing leather having a textile / nonwoven layer, wherein the following process steps are carried out: producing a leather layer having a grain side from an animal skin; applying and, in particular, adhesively bonding the textile / nonwoven layer onto the grain side of the leather layer; spraying on a finishing, optionally in part permeating the textile / nonwoven layer, onto the textile / nonwoven layer, wherein in the case of a lower quality of the grain side, there is chosen a higher weight by unit area of the textile / nonwoven layer. producing a leather layer having a grain side from an animal skin; applying and, in particular, adhesively bonding the textile / nonwoven layer onto the grain side of the leather layer; spraying on a finishing, optionally in part permeating the textile / nonwoven layer, onto the textile / nonwoven layer, wherein in the case of a lower quality of the grain side, there is chosen a higher weight by unit area of the textile / nonwoven layer.
A method for handover in an LTE and/or LTE-A wireless communication system (100, 200, 600), the method comprising: receiving a handover command from a serving base station (102, 202, 602) by a user equipment, in the following also referred to as UE, (101, 201, 601), wherein the UE (101, 201, 601) is served in a serving cell of the serving base station (102, 202, 602); performing downlink synchronization with a target base station (103, 203, 603), wherein the UE (101, 201, 601) determines a radio frame boundary of a target cell of the target base station (103, 203, 603); obtaining a system frame number, in the following also referred to as SFN, of the target cell based on the radio frame boundary by deducing the SFN of the target cell from a time difference between a radio frame of the serving cell and a radio frame of the target cell; and performing a handover procedure with the target cell based on the obtained system frame number before reading SFN information in a broadcast channel broadcasted by the target base station (103, 203, 603). receiving a handover command from a serving base station (102, 202, 602) by a user equipment, in the following also referred to as UE, (101, 201, 601), wherein the UE (101, 201, 601) is served in a serving cell of the serving base station (102, 202, 602); performing downlink synchronization with a target base station (103, 203, 603), wherein the UE (101, 201, 601) determines a radio frame boundary of a target cell of the target base station (103, 203, 603); obtaining a system frame number, in the following also referred to as SFN, of the target cell based on the radio frame boundary by deducing the SFN of the target cell from a time difference between a radio frame of the serving cell and a radio frame of the target cell; and performing a handover procedure with the target cell based on the obtained system frame number before reading SFN information in a broadcast channel broadcasted by the target base station (103, 203, 603).
A cooker appliance comprising a body, a cooking chamber provided in the body, in which materials to be cooked are placed, a chassis surrounding the cooking chamber, shaped as a box open on the front side, a heater provided in the cooking chamber, enabling cooking food products, and a baking stone made of refractory material, placed in the cooking chamber, characterized in that the baking stone has a first surface and a second surface forming its upper and lower surfaces, and a plate removably inserted in between the first surface and the second surface, wherein the baking stone has a closed position in which the first surface and the second surface are parallel to each other and an open position in which at least one edge of each of the first surface and the second surface move away from each other, wherein a plurality of channels are arranged on the first surface and the second surface in determined distances, and a plurality of ribs are provided on the plate, fitting into the channels when the baking stone is in the closed position, such that the baking stone can be used as a grate when the plate is removed and when the plate is placed in between the first surface the second surface, the ribs fit onto the channels, providing a gap free structure.
Hole saw with a holding member which can be brought into rotation about an axis by rotating a clamping shank and which has on its side pointing away from the clamping shank fastening pockets (6, 7) which extend in the radial direction with respect to the axis and are arranged in a uniform circumferential distribution about the axis, wherein a sawing element is associated with at least one of the fastening pockets (6, 7), wherein the sawing element has a fastening element which rests on a bottom surface (6") of the fastening pocket (6, 7), wherein two side surfaces of the fastening element each rest against a side flank (6', 7") of the fastening pocket (6, 7) and the fastening element can be fastened to the retaining member by means of a screw, the threaded shank of which is screwed through a fastening opening of the bottom surface (6', 7') designed as an elongated hole, into an internal thread in such a way that a saw toothing arranged at the end of a saw shank projecting from the fastening element in the axial direction lies at a defined distance from the axis, wherein the screw is screwed from the fastening element into a sliding block forming the internal thread, which is guided by guide surfaces so as to be displaceable in the radial direction, characterised in that the fastening pockets (6, 7) have, in addition to the fastening openings (15, 15') designed as elongated holes, fastening openings (15, 15') designed as round bores, wherein edges of the fastening openings (15, 15') form stops for the threaded shafts and are arranged in such a way that the saw teeth of at least three saw elements can be arranged together on circular arc lines with different diameters about the axis.
A device (100, 200, 300; 400, 500, 600) for generating an inhalable aerosol comprising: a. a mouthpiece (110, 310; 410, 510); b. a body; c. an electronic heater (105, 104, 210; 524) comprising a heating chamber, wherein the electronic heater (105, 104, 210; 524) is within said body and is configured to heat a vaporisable material and generate an inhalable aerosol; and d. a temperature regulator; characterised in that the device (100, 200, 300; 400, 500, 600) further comprises an aerogel insulation; and the electronic heater (105, 104, 210; 524) is sealed by a dust seal configured to prevent dust from the aerogel insulation from entering the heating chamber. a. a mouthpiece (110, 310; 410, 510); b. a body; c. an electronic heater (105, 104, 210; 524) comprising a heating chamber, wherein the electronic heater (105, 104, 210; 524) is within said body and is configured to heat a vaporisable material and generate an inhalable aerosol; and d. a temperature regulator;
An extract of fish embryos in selected stages of stem cell differentiation, characterised in that it is a mixture of extracts from zebrafish embryos in the mid-blastula-gastrula stage, tail bud stage, 5-somite stage, 20-somite stage and pharyngula stage.
A cycling detection method performed by an electronic device, comprising: obtaining an acceleration signal and an angular velocity signal collected by a wearable device on a user's foot, and analyzing a time-domain feature of the acceleration signal, a frequency-domain feature of the acceleration signal, a time-domain feature of the angular velocity signal, and a frequency-domain feature of the angular velocity signal; filtering (S 102) the acceleration signal and the angular velocity signal to obtain a target acceleration signal and a target angular velocity signal of the user's cycling if it is determined, based on an analysis result of the time-domain feature of the acceleration signal, the frequency-domain feature of the acceleration signal, the time-domain feature of the angular velocity signal, and the frequency-domain feature of the angular velocity signal, that a current status of the user is a cycling state; and determining a behavior feature of the user's cycling based on the target acceleration signal and the target angular velocity signal, wherein the behavior feature comprises a cadence feature and a foot posture feature. obtaining an acceleration signal and an angular velocity signal collected by a wearable device on a user's foot, and analyzing a time-domain feature of the acceleration signal, a frequency-domain feature of the acceleration signal, a time-domain feature of the angular velocity signal, and a frequency-domain feature of the angular velocity signal; filtering (S 102) the acceleration signal and the angular velocity signal to obtain a target acceleration signal and a target angular velocity signal of the user's cycling if it is determined, based on an analysis result of the time-domain feature of the acceleration signal, the frequency-domain feature of the acceleration signal, the time-domain feature of the angular velocity signal, and the frequency-domain feature of the angular velocity signal, that a current status of the user is a cycling state; and determining a behavior feature of the user's cycling based on the target acceleration signal and the target angular velocity signal, wherein the behavior feature comprises a cadence feature and a foot posture feature.
A method performed by a gNB Central Unit, gNB-CU, the method comprising: receiving a first message from a target gNB Distributed Unit, gNB-DU, the first message indicating an execution of a conditional mobility of a User Equipment, UE, from a source gNB-DU to a target cell managed by the target gNB-DU within the gNB-CU, the target cell being one of conditional mobility candidate target cells; detecting the execution of the conditional mobility by receiving said first message; and in response to the detection of the execution of the conditional mobility, transmitting a UE Context Release Command message to a target gNB-DU within the gNB-CU which manages a candidate target cell different from the target cell of the target gNB-DU to which the UE is moving, the UE Context Release Command message including a cause value and requesting the target gNB-DU managing the candidate target cell to release resources of said candidate target cell managed by the target gNB-DU that are reserved for the conditional mobility, wherein the first message is different from a second message that indicates a completion of the conditional mobility. receiving a first message from a target gNB Distributed Unit, gNB-DU, the first message indicating an execution of a conditional mobility of a User Equipment, UE, from a source gNB-DU to a target cell managed by the target gNB-DU within the gNB-CU, the target cell being one of conditional mobility candidate target cells; detecting the execution of the conditional mobility by receiving said first message; and in response to the detection of the execution of the conditional mobility, transmitting a UE Context Release Command message to a target gNB-DU within the gNB-CU which manages a candidate target cell different from the target cell of the target gNB-DU to which the UE is moving, the UE Context Release Command message including a cause value and requesting the target gNB-DU managing the candidate target cell to release resources of said candidate target cell managed by the target gNB-DU that are reserved for the conditional mobility, wherein the first message is different from a second message that indicates a completion of the conditional mobility.
An electrophotographic toner containing an ethylene copolymer which (i) has an intrinsic viscosity [η] of 0.01-0.50 dl/g as measured according to the description, (ii) has a crystallinity of 50-90 %, as measured according to the description, and comprises 80-99.5 mol-% of constituent units (a) derived from ethylene, and 0.5-20 mol-% of constituent units (b) derived from a cyclic olefin of 8 or more carbon atoms contains 2 or more double bonds, wherein [(a)+(b)=100 mol-%]. (i) has an intrinsic viscosity [η] of 0.01-0.50 dl/g as measured according to the description, (ii) has a crystallinity of 50-90 %, as measured according to the description, and comprises 80-99.5 mol-% of constituent units (a) derived from ethylene, and 0.5-20 mol-% of constituent units (b) derived from a cyclic olefin of 8 or more carbon atoms contains 2 or more double bonds, wherein [(a)+(b)=100 mol-%].
An OLED driver (10, 20, 30) for driving at least one organic electroluminescence element (1, 2, 3), comprising: a direct-current power source (100, 11, 12, 200, 21, 22, 300, 31, 32) that alternately applies first voltage and second voltage to the element (1, 2, 3), said first voltage being approximately equal to drive voltage of the element (1, 2, 3), said second voltage being lower than the first voltage and higher than barrier voltage of the element (1, 2, 3); and a dimmer (13, 23, 33) that controls the source so as to change a ratio of a first term (Ton) to a second term (Toff) to dimm the element (1, 2, 3), said first term (Ton) being a period of time for which the first voltage is applied to the element (1, 2, 3), said second term (Toff) being a period of time for which the second voltage is applied to the element (1, 2, 3), characterized in that the OLED driver (10, 20, 30) further comprises a means that calculates the second voltage based on a detected voltage that correspond to a minimum barrier voltage that is gradually increased till the moment a certain current flows through the element (1, 2, 3). a direct-current power source (100, 11, 12, 200, 21, 22, 300, 31, 32) that alternately applies first voltage and second voltage to the element (1, 2, 3), said first voltage being approximately equal to drive voltage of the element (1, 2, 3), said second voltage being lower than the first voltage and higher than barrier voltage of the element (1, 2, 3); and a dimmer (13, 23, 33) that controls the source so as to change a ratio of a first term (Ton) to a second term (Toff) to dimm the element (1, 2, 3), said first term (Ton) being a period of time for which the first voltage is applied to the element (1, 2, 3), said second term (Toff) being a period of time for which the second voltage is applied to the element (1, 2, 3), characterized in that the OLED driver (10, 20, 30) further comprises a means that calculates the second voltage based on a detected voltage that correspond to a minimum barrier voltage that is gradually increased till the moment a certain current flows through the element (1, 2, 3).
Casting mold for sand casting for producing a brake caliper of a disk brake with a reception space and two bearing points (4, 5), which are arranged in parallel and at a spacing to one another and respectively have a bearing bore for receiving a sliding sleeve and from which one arranged on the right-hand side or left-hand side projects in the axial direction with respect to the other, wherein the casting mold has a multipart molding box, a model for molding in the sand bed as well as a core for forming bearing points (4, 5) and the reception space, characterized by the following features: - the regions of the model which represent the two bearing points (4, 5) are formed identically in form and dimensions, - both bearing points of the model correspond to the longer bearing point of the brake caliper, - the core has two bore cores (6, 7), wherein the bore core corresponds in terms of its length to the length of the longer bearing point and the other bore core corresponds to the length of the shorter bearing point which is adjoined by a cuff which corresponds in terms of dimension and configuration to the protruding part of a bearing point of the model, - the cuff corresponds to the difference between the length of the shorter bearing point and the longer bearing point, - the cuff fills out the assigned sand impression introduced by the bearing points of the model. - the regions of the model which represent the two bearing points (4, 5) are formed identically in form and dimensions, - both bearing points of the model correspond to the longer bearing point of the brake caliper, - the core has two bore cores (6, 7), wherein the bore core corresponds in terms of its length to the length of the longer bearing point and the other bore core corresponds to the length of the shorter bearing point which is adjoined by a cuff which corresponds in terms of dimension and configuration to the protruding part of a bearing point of the model, - the cuff corresponds to the difference between the length of the shorter bearing point and the longer bearing point, - the cuff fills out the assigned sand impression introduced by the bearing points of the model.