mhurhangee/ep-ind-claims huggingface dataset:
A hearing device, comprising - a housing, which surrounds a housing interior, - a loudspeaker for generating acoustic signals, and - a damping element formed by a damping mat, which is mounted between the loudspeaker and a wall of the housing or a loudspeaker box, wherein the damping mat has at least one fluid-filled damper chamber, wherein the damping mat comprises a support layer formed from a first elastomer, which forms at least one damper chamber filled with a fluid between the loudspeaker and the loudspeaker box, characterized in that the damping mat comprises a cover layer, and the support layer comprises a number of column-like support elements, which support the damper chamber against the cover layer. - a housing, which surrounds a housing interior, - a loudspeaker for generating acoustic signals, and - a damping element formed by a damping mat, which is mounted between the loudspeaker and a wall of the housing or a loudspeaker box, wherein the damping mat has at least one fluid-filled damper chamber, wherein the damping mat comprises a support layer formed from a first elastomer, which forms at least one damper chamber filled with a fluid between the loudspeaker and the loudspeaker box, characterized in that the damping mat comprises a cover layer, and the support layer comprises a number of column-like support elements, which support the damper chamber against the cover layer.
A lancet structure for a lancet housing assembly of a portable handheld medical diagnostic device for sampling bodily fluids from a skin site of a patient, wherein the lancet structure is adapted to be located in a lancet compartment, the lancet structure comprising a skin penetrating end and a blood transport portion adjacent the skin penetrating end, wherein the skin penetrating end, when extended through an opening of the lancet compartment, is shaped and sized to penetrate the patient's skin at the skin site to provide an amount of blood, the blood transport portion arranged and configured to receive the amount of blood from the skin penetrating end and to carry the amount of blood away from the skin site and to a reagent material located on a floor (70, 84) of the lancet compartment and within the lancet compartment, wherein the lancet structure includes an outwardly extending spring finger that extends upwardly at an upwardly extending portion and longitudinally at a longitudinally extending portion, wherein a bend connects the upwardly extending portion and longitudinally extending portion, characterized in that the longitudinally extending portion includes a hump-shaped portion that is adapted to be received within a notch of the lancet compartment thereby providing securing structure for the lancet structure within the lancet compartment.
Apparatus for weighing a wheelchair, the apparatus comprising: a first platform (110, 210) and a second platform (120, 220), wherein the first platform (110, 210) is connected to the second platform (120, 220), and wherein each of the first and second platforms (110, 120, 210, 220) comprises a scale for weighing the wheelchair, said first platform (110, 210) being moveable relative to the second platform (120, 220) between a folded position and a weighing position, wherein the first platform (110, 210) pivots towards the second platform (120, 220) about a first fixed axis of rotation to move from the weighing position to the folded position and the second platform (120, 220) pivots towards the first platform (110, 210) about a second fixed axis of rotation to move from the weighing position to the folded position; wherein in the weighing position, the first and second platforms (110, 120, 210, 220) are configured to support all of the wheels of the wheelchair simultaneously; a connecting member (130, 230) connecting the first platform (110, 210) to the second platform (120, 220), wherein the first and second axes of rotation are spaced along or across the connecting member (130, 230) and a base portion (146, 246) is provided between the first and second axis of rotation, characterized in that the base portion (146, 246) provides a stand for the apparatus in the folded position. a first platform (110, 210) and a second platform (120, 220), wherein the first platform (110, 210) is connected to the second platform (120, 220), and wherein each of the first and second platforms (110, 120, 210, 220) comprises a scale for weighing the wheelchair, said first platform (110, 210) being moveable relative to the second platform (120, 220) between a folded position and a weighing position, wherein the first platform (110, 210) pivots towards the second platform (120, 220) about a first fixed axis of rotation to move from the weighing position to the folded position and the second platform (120, 220) pivots towards the first platform (110, 210) about a second fixed axis of rotation to move from the weighing position to the folded position; wherein in the weighing position, the first and second platforms (110, 120, 210, 220) are configured to support all of the wheels of the wheelchair simultaneously; a connecting member (130, 230) connecting the first platform (110, 210) to the second platform (120, 220), wherein the first and second axes of rotation are spaced along or across the connecting member (130, 230) and a base portion (146, 246) is provided between the first and second axis of rotation, characterized in that the base portion (146, 246) provides a stand for the apparatus in the folded position.
A steel wire rod for high-strength springs, as a steel wire rod having been hot-rolled and exhibiting excellent wire drawability, the steel wire rod having a wire size of 5.5 to 8.0 mm in diameter, the steel wire rod having a critical reduction of area in wire drawing of more than 60%, and the steel wire rod consisting of, in mass percent, C in a content of 0.4% to 0.8%; Si in a content of 0.5% to 2.5%; Mn in a content of 0.3% to 2.0%; Cr in a content of 0.4% to 3.0%; at least one element selected from the group consisting of V in a content of 0.05% to 0.5%, Nb in a content of 0.05% to 0.5%, Ni in a content of 0.1% to 2.0%, and Mo in a content of 0.1% to 0.5%; optionally, Cu in a content of more than 0% and less than or equal to 0.7%; optionally, Ti in a content of more than 0% and less than or equal to 0.5%; optionally, B in a content of more than 0% and less than or equal to 0.01%; and the remainder being iron and inevitable impurities, wherein the steel wire rod has a structure mainly including pearlite, namely in a content of 60% by area or more, the steel wire rod has an average Pave and a standard deviation Pσ of pearlite nodule size numbers, and Pave and Pσ respectively satisfy conditions specified by following Expressions and: 9.5 ≤ Pave ≤ 12.0 0.2 ≤ Pσ ≤ 0. ⁢ 7
A user device that performs handover between a first radio communication network according to 4G and a second radio communication network according to 5G, comprising: an association information holding unit configured to hold association information indicative of an association between a type of a bearer set in the first radio communication network and a type of a flow that is set in the second radio communication network and that depends on a quality of service; a filter holding unit configured to hold a filter of a traffic flow associated with the bearer set for the user device in the first radio communication network; a rule deriving unit configured to derive, based on a bearer identifier for recognizing the type of the bearer and the filter held by the filter holding unit, a quality-of-service rule associated with the flow; and a handover executing unit configured to perform the handover from the first radio communication network to the second radio communication network; wherein the rule deriving unit is configured to derive the quality-of-service rule when the handover is performed by the handover executing unit. an association information holding unit configured to hold association information indicative of an association between a type of a bearer set in the first radio communication network and a type of a flow that is set in the second radio communication network and that depends on a quality of service; a filter holding unit configured to hold a filter of a traffic flow associated with the bearer set for the user device in the first radio communication network; a rule deriving unit configured to derive, based on a bearer identifier for recognizing the type of the bearer and the filter held by the filter holding unit, a quality-of-service rule associated with the flow; and a handover executing unit configured to perform the handover from the first radio communication network to the second radio communication network; wherein the rule deriving unit is configured to derive the quality-of-service rule when the handover is performed by the handover executing unit.
An occupancy detection system, the system comprising: - an antenna arrangement, comprising at least one antenna; - a control device adapted to apply a radio-frequency transmission signal to the antenna arrangement and to receive a response signal from antenna arrangement; and - a transmit array comprising a plurality of structured metallic layers (4, 5, 6) disposed above each other and extending laterally, each two neighbouring metallic layers (4, 5, 6) isolated from each other by an intermediate dielectric layer, wherein the antenna arrangement is adapted to transmit a radio-frequency transmission field through the transmit array in response to the transmission signal and to receive a radio-frequency response field (41, 42) through the transmit array to generate the response signal, and the transmit array is adapted to refract at least one of the transmission field and the response field (41, 42), and characterized in that said occupancy detection system is configured for occupancy detection for at least one vehicle seat (50, 51), in that said antenna arrangement comprises at least one transmit antenna and at least one receive antenna (R1, R2), said antenna arrangement being adapted to transmit a radio-frequency transmission field onto the at least one vehicle seat (50, 51), and in that the transmit array comprises at least one receive section (3.2) adapted to focus a response field (41, 42) from a position of a vehicle seat (50, 51) to a position of a receive antenna (R1, R2). - an antenna arrangement, comprising at least one antenna; - a control device adapted to apply a radio-frequency transmission signal to the antenna arrangement and to receive a response signal from antenna arrangement; and - a transmit array comprising a plurality of structured metallic layers (4, 5, 6) disposed above each other and extending laterally, each two neighbouring metallic layers (4, 5, 6) isolated from each other by an intermediate dielectric layer, wherein the antenna arrangement is adapted to transmit a radio-frequency transmission field through the transmit array in response to the transmission signal and to receive a radio-frequency response field (41, 42) through the transmit array to generate the response signal, and the transmit array is adapted to refract at least one of the transmission field and the response field (41, 42), and characterized in that said occupancy detection system is configured for occupancy detection for at least one vehicle seat (50, 51), in that said antenna arrangement comprises at least one transmit antenna and at least one receive antenna (R1, R2), said antenna arrangement being adapted to transmit a radio-frequency transmission field onto the at least one vehicle seat (50, 51), and in that the transmit array comprises at least one receive section (3.2) adapted to focus a response field (41, 42) from a position of a vehicle seat (50, 51) to a position of a receive antenna (R1, R2).
A system comprising: at least one treatment energy source (104, 204) for generating a treatment beam (108, 208); at least one treatment beam (108, 208) deflecting mechanism (112, 212) configured to direct the treatment beam (108, 208) to a treated skin area; at least one video camera configured to capture a treated skin area and communicate captured treated skin area image to a processor; and a processor configured to construct, based on a captured treated skin area a three-dimensional representation of the captured treated skin area and wherein the processor is further configured to control a treatment beam deflecting mechanism (112, 212) to deflect the treatment beam (108, 208) to follow the three-dimensional representation of the captured skin area, characterized in that the system further comprises: a treatment beam (108, 208) intensity roll-off look-up table, wherein the processor is configured to adjust a deflected treatment beam (108, 208) intensity based on the treatment beam intensity roll-off look-up table. at least one treatment energy source (104, 204) for generating a treatment beam (108, 208); at least one treatment beam (108, 208) deflecting mechanism (112, 212) configured to direct the treatment beam (108, 208) to a treated skin area; at least one video camera configured to capture a treated skin area and communicate captured treated skin area image to a processor; and a processor configured to construct, based on a captured treated skin area a three-dimensional representation of the captured treated skin area and wherein the processor is further configured to control a treatment beam deflecting mechanism (112, 212) to deflect the treatment beam (108, 208) to follow the three-dimensional representation of the captured skin area,
A washing or cleaning agent containing an odorant composition, in quantities between 0.0001 and 10wt.%, preferably between 0.001 and 5wt.%, more advantageously between 0.01 and 3wt.%, in particular between 0.1 and 2 wt.%, in each case relative to the entire agent, and containing an odorant precursor, which is an allyl ether of the formula, R 1 R 2 C=CR 3 -CR 4 R 5 -O-CHR 6 R 7, wherein the residues R 1, R 2, R 3, R 4, R 5, R 6 and R 7 mutually independently in each case denote H or a hydrocarbon residue which may be acyclic or cyclic, substituted or unsubstituted, branched or unbranched, as well as saturated or unsaturated, and wherein individual residues R 1, R 2, R 3, R 4, R 5, R 6, R 7 may form a ring system with one another, with the proviso that R 1, R 2, R 3, R 4 and R 5 denote residues which, in a compound of the general formula R 1 R 2 CH-CR 3 =CR 4 R 5, give rise to an odorant, and/or with the proviso that R 6 and R 7 denote residues which, in a compound of the general formula R 6 R 7 C=O, give rise to an odorant.
A cathode active material comprising a lithium transition metal oxide, wherein at least one hetero element selected from the group consisting of Ti and Al is located at a surface portion of and inside the lithium transition metal oxide, wherein the surface portion of the lithium transition metal oxide is a portion that is less than 1% from the outermost portion based on a diameter of the lithium transition metal oxide particle, wherein the amount of the at least one hetero element is different between the surface portion and the inside of the lithium transition metal oxide, wherein the lithium transition metal oxide is a cathode active material represented by Formula 1 below: Li 1+a Ni b M e Mn 2-(b+c) O 4-z-d A 2d/n wherein M is at least one selected from the group consisting of Ti and Al; A is at least one selected from the group consisting of OH, SO 4, NO 3, and F; 0 ≤ a ≤ 0.1; 0.3 ≤ b ≤ 0.6; 0.005 ≤ c ≤ 0.1; 0 ≤ z ≤ 0.1; 0.005 ≤ d ≤ 0.1; and n is an oxidation number of A. wherein M is at least one selected from the group consisting of Ti and Al; A is at least one selected from the group consisting of OH, SO 4, NO 3, and F; 0 ≤ a ≤ 0.1; 0.3 ≤ b ≤ 0.6; 0.005 ≤ c ≤ 0.1; 0 ≤ z ≤ 0.1; 0.005 ≤ d ≤ 0.1; and n is an oxidation number of A.
A process for the encapsulation of pumpkin products in hard gelatin capsules wherein: a liquid formulation comprising pumpkin seed oil is provided in a vessel, the liquid formulation in the vessel is agitated so as to maintain any particulate matter therein in suspension, whilst the liquid formulation within the vessel is agitated the formulation is fed to a capsule filling station via a filling flow line, a unit dose volume of the liquid formulation is introduced into a hard gelatin part capsule via the capsule filling station, excess liquid formulation which has not been introduced into the hard gelatin part capsule at the capsule filling station is returned back to the vessel, so that whilst liquid formulation is introduced into the hard gelatin part capsule, the formulation is circulated between the vessel and the capsule filling station, then the part capsule is closed to form a closed capsule after introduction of the formulation into the part capsule.
A wheel loader, comprising: a forward or speed stage clutch (51 to 55); an accelerator pedal; a brake pedal configured to operate a hydraulic brake; and a controller configured to control hydraulic pressure of hydraulic oil supplied to the clutch (51 to 55), characterized in that the controller is configured to perform clutch hydraulic pressure control for continuously reducing the hydraulic pressure of the hydraulic oil supplied to the clutch (51 to 55) according to one of an operation amount of the brake pedal and pressure of the hydraulic oil of the brake on condition that the brake pedal is operated while at least the accelerator pedal is being operated, and is configured to continue the clutch hydraulic pressure control even after the clutch (51 to 55) shifts from a complete engagement state to a semi-engagement state by the clutch hydraulic pressure control. a forward or speed stage clutch (51 to 55); an accelerator pedal; a brake pedal configured to operate a hydraulic brake; and a controller configured to control hydraulic pressure of hydraulic oil supplied to the clutch (51 to 55), characterized in that the controller is configured to perform clutch hydraulic pressure control for continuously reducing the hydraulic pressure of the hydraulic oil supplied to the clutch (51 to 55) according to one of an operation amount of the brake pedal and pressure of the hydraulic oil of the brake on condition that the brake pedal is operated while at least the accelerator pedal is being operated, and is configured to continue the clutch hydraulic pressure control even after the clutch (51 to 55) shifts from a complete engagement state to a semi-engagement state by the clutch hydraulic pressure control.
A method of manufacturing a composition containing nobiletin and tangeretin, comprising the following Steps to, and Steps and: a step of treating citrus fruit with hot water maintained at a temperature of 50°C or higher to obtain a hot water-treated product; a step of drying the hot water-treated product to obtain a dried product; a step of treating the dried product with a solvent that is capable of dissolving nobiletin and tangeretin to obtain a nobiletin and tangeretin solution; a step of concentrating and/or drying the nobiletin and tangeretin solution to obtain a nobiletin and tangeretin concentrate; and a step of treating the nobiletin and tangeretin concentrate with a dilute alkali to obtain a composition containing nobiletin and tangeretin as an insoluble component, wherein the citrus fruit is at least one plant selected from the group consisting of Citrus depressa, C. unshiu, C. tachibana, C. leiocarpa, C. tardiva, C. succosa, C. kinokuni, C. erythrosa, C. sunki, C. deliciosa, C. nobilis, C. retuculata, C. tangerina, C. hanayu, C. reticulata, C. nippokoreana, shiranuhi, and kiyomi. a step of treating citrus fruit with hot water maintained at a temperature of 50°C or higher to obtain a hot water-treated product; a step of drying the hot water-treated product to obtain a dried product; a step of treating the dried product with a solvent that is capable of dissolving nobiletin and tangeretin to obtain a nobiletin and tangeretin solution; a step of concentrating and/or drying the nobiletin and tangeretin solution to obtain a nobiletin and tangeretin concentrate; and a step of treating the nobiletin and tangeretin concentrate with a dilute alkali to obtain a composition containing nobiletin and tangeretin as an insoluble component,
A device for sorting objects immersed in a flowing medium, the device comprising: - a holographic imaging unit comprising a plurality of holographic imaging elements for providing a plurality of holographic diffraction images, - a fluid handling unit comprising a plurality of microfluidic channels, the microfluidic channels comprising an imaging region for conducting flowing medium along a corresponding holographic imaging element for imaging objects immersed in said flowing medium, the microfluidic channels furthermore comprising a microfluidic switch arranged downstream of said imaging region for controllably directing each object in the flowing medium into a selected one of a plurality of outlets, and the device further comprising - a processing unit adapted for real-time characterization of the holographic diffraction image obtained for each of said objects when passing through any of said imaging regions, said characterization taking into account at least one predetermined object type signature, the processing unit furthermore being adapted for controlling the microfluidic switch downstream of said imaging region in response to said characterization, wherein said holographic imaging unit comprises a CMOS or CCD image sensor divided in active pixel arrays, each pixel array being related to the imaging region of a corresponding microfluidic channel, - wherein said image sensor is furthermore adapted for parallel readout of said pixel arrays such as to provide said holographic diffraction images simultaneously and independently from each other. - a holographic imaging unit comprising a plurality of holographic imaging elements for providing a plurality of holographic diffraction images, - a fluid handling unit comprising a plurality of microfluidic channels, the microfluidic channels comprising an imaging region for conducting flowing medium along a corresponding holographic imaging element for imaging objects immersed in said flowing medium, the microfluidic channels furthermore comprising a microfluidic switch arranged downstream of said imaging region for controllably directing each object in the flowing medium into a selected one of a plurality of outlets, and the device further comprising - a processing unit adapted for real-time characterization of the holographic diffraction image obtained for each of said objects when passing through any of said imaging regions, said characterization taking into account at least one predetermined object type signature, the processing unit furthermore being adapted for controlling the microfluidic switch downstream of said imaging region in response to said characterization, wherein said holographic imaging unit comprises a CMOS or CCD image sensor divided in active pixel arrays, each pixel array being related to the imaging region of a corresponding microfluidic channel, - wherein said image sensor is furthermore adapted for parallel readout of said pixel arrays such as to provide said holographic diffraction images simultaneously and independently from each other.
An agricultural vehicle having at least one electrical consumer, an electrical power storage device and a switch switchable between a switched-on condition (Z ein) in which the power storage device supplies the consumer with power and a switched-off condition (Z aus) in which the power supply to the consumer is interrupted, characterised by an on-board communication device operable to receive signals from a vehicle-independent communication device and in dependence on the received signals to produce a control signal for actuation of the switch, wherein the switch is a main switch of the power storage device, more specifically a battery disconnection switch, wherein the on-board communication device has its own power supply.