mhurhangee/ep-ind-claims huggingface dataset:
Fixing apparatus comprising a transport rod, for fixing the transport rod in an opening of a laundry care appliance and for closing the opening, wherein the fixing apparatus comprises at least the following features: - a laundry care appliance component comprising the opening which is designed for the insertion of the transport rod; and - a fixing device which is non-releasably connected to the laundry care appliance component and is designed to fix the transport rod inserted into the opening in a fixed position of the fixing device and to close the opening in a closed position of the fixing device; and - the fixing device has at least one fixing element and a closing surface device, wherein the fixing element is designed to fix the transport rod received in the opening in the fixing position of the fixing device, and the closing surface device is designed to close the opening in the closed position of the fixing device. - a laundry care appliance component comprising the opening which is designed for the insertion of the transport rod; and - a fixing device which is non-releasably connected to the laundry care appliance component and is designed to fix the transport rod inserted into the opening in a fixed position of the fixing device and to close the opening in a closed position of the fixing device; and - the fixing device has at least one fixing element and a closing surface device, wherein the fixing element is designed to fix the transport rod received in the opening in the fixing position of the fixing device, and the closing surface device is designed to close the opening in the closed position of the fixing device.
A glass facade element comprising an inner glass element facing a building interior, an outer glass element disposed parallel to said inner glass element at a distance and facing an external environment and at least one holding frame connecting the glass elements (3, 4) together around the periphery at their edges and fixing said glass elements at a distance, wherein the glass elements (3, 4) and the holding frame enclose the element interior bounded by them in an at least substantially gas-tight manner apart from at least one pressure equalisation opening, and the element interior can be connected, via the pressure equalisation opening and a flow path connected thereto, to an air space located outside the element interior, in particular the building interior or the external environment, and a drying unit disposed in the flow path is provided for the at least partial dehumidification of the air contained in the element interior or flowing into the latter, wherein the distance between the glass elements (3, 4) is selected from a range with a lower limit of 60 mm, in particular 80 mm, preferably 100 mm and an upper limit of 200 mm, in particular 175 mm, preferably 150 mm, and a shading system comprising adjustable light-deflecting slats for influencing the passage of light is disposed in the element interior, characterised in that the light-deflecting slats have a slat width of at least 50 mm and the inner glass element is constituted by a multi-pane insulating glass element, in particular a triple-pane insulating glass element, and the drying unit comprises an air delivery device, in particular an air pump.
A method for wireless communication, comprising: receiving, at a user equipment, UE, a sounding reference signal, SRS, grant message from a base station, the SRS grant message based at least in part on an identified SRS configuration, the SRS grant message comprising an indication of SRS parameters; receiving, at the UE, downlink control information, DCI, wherein information in the DCI contradicts the indication of SRS parameters in the SRS grant message; determining to ignore information received at the UE based at least in part on the SRS grant message and the DCI; and transmitting, to the base station, one or more SRS transmissions based at least in part on the determination. receiving, at a user equipment, UE, a sounding reference signal, SRS, grant message from a base station, the SRS grant message based at least in part on an identified SRS configuration, the SRS grant message comprising an indication of SRS parameters; receiving, at the UE, downlink control information, DCI, wherein information in the DCI contradicts the indication of SRS parameters in the SRS grant message; determining to ignore information received at the UE based at least in part on the SRS grant message and the DCI; and transmitting, to the base station, one or more SRS transmissions based at least in part on the determination.
A composition comprising: (i) and and further comprising: (ii) - curcumin, turmeric crude extract or purified extract from turmeric crude extract, - at least one fatty acid or a pharmaceutically acceptable salt thereof, and/or, - an ester of at least one fatty acid. (i) and and further comprising: (ii) - curcumin, turmeric crude extract or purified extract from turmeric crude extract, - at least one fatty acid or a pharmaceutically acceptable salt thereof, and/or, - an ester of at least one fatty acid. - curcumin, turmeric crude extract or purified extract from turmeric crude extract, - at least one fatty acid or a pharmaceutically acceptable salt thereof, and/or, - an ester of at least one fatty acid.
A method of manufacturing a compostable container comprising the following steps: a) Shredding vegetable waste. b) Adding water to the shredded waste. c) Heating the mixture to obtain a plant slurry. d) Placing the vegetable slurry in a mould (1,2,3). e) Compression moulding of the vegetable slurry to obtain a container moulding. f) Coating a liquid flour paste onto the inner side of the container moulding. g) Re-moulding of the container moulding coated with the flour paste layer. h) Drying the container moulding and the flour paste layer. a) Shredding vegetable waste. b) Adding water to the shredded waste. c) Heating the mixture to obtain a plant slurry. d) Placing the vegetable slurry in a mould (1,2,3). e) Compression moulding of the vegetable slurry to obtain a container moulding. f) Coating a liquid flour paste onto the inner side of the container moulding. g) Re-moulding of the container moulding coated with the flour paste layer. h) Drying the container moulding and the flour paste layer.
Refrigerant circuit at least comprising a compressor with an upstream suction side and with a downstream pressure side, a condenser, a first evaporator and at least one second evaporator; wherein the compressor is an at least two-stage compressor which, at the suction side, has a first feed line to a first stage of the compressor with a first pressure level and has a second feed line to a second stage of the compressor with a second pressure level, wherein the second pressure level is higher than the first pressure level; wherein the first evaporator and the second evaporator are connectable to the compressor via mutually different feed lines (8, 10) at least at certain times; wherein the first evaporator is used for cooling a battery and the second evaporator is used for cooling air; characterized by a third evaporator which is used for further cooling of the air cooled by the second evaporator; wherein, in a first operating state of the refrigerant circuit, the first evaporator, via the second feed line, and the second evaporator, via the first feed line, are connected to the compressor; wherein, in a second operating state of the refrigerant circuit, only the second evaporator, via the second feed line, and the third evaporator, via the first feed line, are connected to the compressor; and wherein, in a third operating state of the refrigerant circuit, the first evaporator and the second evaporator, via the second feed line, and the third evaporator, via the first feed line, are connected to the compressor.
A microwave heating apparatus comprising: a tubular waveguide applicator (20, 70, 80, 104) having a first end and an opposite second end and a circular cross section and forming a heating chamber (34, 82) between the first and second ends with an axis along the centerline of the heating chamber; a microwave source; a waveguide feed (38, 88, 114) connected between the microwave source and the tubular waveguide applicator (20, 70, 80, 104) at the first end to propagate microwaves (37, 87) through the tubular waveguide applicator from the first end to the second end with a TM 01 field pattern in the heating chamber (34, 82); and characterised in that a first cylindrical microwave choke (46, 118, 119) connected in series with the tubular waveguide applicator (20, 70, 80, 104) at the first end and a second cylindrical microwave choke (46, 118, 119) connected in series with the tubular waveguide applicator (20, 70, 80, 104) at the second end, wherein the first and second cylindrical microwave chokes (46, 118, 119) have open ends (58, 59) for products to be heated to enter and exit the tubular waveguide applicator (20, 70, 80, 104) through the first and second cylindrical microwave chokes (46, 118, 119); microwave-transparent centering elements (30, 98) disposed along the length of the heating chamber (34, 82) to confine the product within proximity of the axis of the heating chamber. a tubular waveguide applicator (20, 70, 80, 104) having a first end and an opposite second end and a circular cross section and forming a heating chamber (34, 82) between the first and second ends with an axis along the centerline of the heating chamber; a microwave source; a waveguide feed (38, 88, 114) connected between the microwave source and the tubular waveguide applicator (20, 70, 80, 104) at the first end to propagate microwaves (37, 87) through the tubular waveguide applicator from the first end to the second end with a TM 01 field pattern in the heating chamber (34, 82); and characterised in that a first cylindrical microwave choke (46, 118, 119) connected in series with the tubular waveguide applicator (20, 70, 80, 104) at the first end and a second cylindrical microwave choke (46, 118, 119) connected in series with the tubular waveguide applicator (20, 70, 80, 104) at the second end, wherein the first and second cylindrical microwave chokes (46, 118, 119) have open ends (58, 59) for products to be heated to enter and exit the tubular waveguide applicator (20, 70, 80, 104) through the first and second cylindrical microwave chokes (46, 118, 119); microwave-transparent centering elements (30, 98) disposed along the length of the heating chamber (34, 82) to confine the product within proximity of the axis of the heating chamber.
Operating device for a single-track vehicle, in particular a man-machine interface of a pedelec, comprising a first planar operating region, in which an optical display device is arranged, a second operating region, in which an optical display device and / or at least one operating button are / is arranged and which is connected to the first operating region, a third operating region, in which an optical display device and / or at least one operating button are / is arranged and which is connected to the second operating region, wherein the first and second operating regions (2, 3) form a first angle with respect to each other which is not a right angle, and wherein the first and third operating regions (3, 4) form a second angle with respect to each other which is not a right angle, and wherein the three operating regions (2, 3, 4) form an L-shape when viewed perpendicularly with respect to the first operating region, characterized in that the angle between the planes of the first and second operating region (2, 3) is configured to be between 10 degrees and 45 degrees, in particular between 20 degrees and 35 degrees, in particular between 30 degrees and 35 degrees. a first planar operating region, in which an optical display device is arranged, a second operating region, in which an optical display device and / or at least one operating button are / is arranged and which is connected to the first operating region, a third operating region, in which an optical display device and / or at least one operating button are / is arranged and which is connected to the second operating region, wherein the first and second operating regions (2, 3) form a first angle with respect to each other which is not a right angle, and wherein the first and third operating regions (3, 4) form a second angle with respect to each other which is not a right angle, and wherein the three operating regions (2, 3, 4) form an L-shape when viewed perpendicularly with respect to the first operating region, characterized in that the angle between the planes of the first and second operating region (2, 3) is configured to be between 10 degrees and 45 degrees, in particular between 20 degrees and 35 degrees, in particular between 30 degrees and 35 degrees.
A display apparatus comprising: a display panel; a supporter; and a plurality of piezoelectric vibration units attached to the supporter, wherein the plurality of piezoelectric vibration units include a first piezoelectric vibration unit (50) and a second piezoelectric vibration unit (50), wherein each of the first and the second piezoelectric vibration units (50. 50) includes a fixing portion attached to the supporter and a cantilever portion overhanging from the supporter, wherein the fixing portion of each of the first and the second piezoelectric vibration units (50, 50) has a fixing length (L1, L2) defined as the length of the fixing portion in the direction in which the corresponding cantilever portion extends from the fixing portion, and the cantilever portion of each of the first and the second piezoelectric vibration units (50, 50) has a overhanging length (D1, D2) defined as the length of the cantilever portion in the direction in which the cantilever portion extends from the corresponding fixing portion and wherein the overhanging lengths (D1, D2) of the cantilever portions of the first and second piezoelectric vibration units are different from each other; characterised in that: the supporter is attached to a rear surface of the display panel; and the fixing lengths (L1, L2) of the fixing portions of the first and second piezoelectric vibration units (50, 50) are different from each other. a display panel; a supporter; and a plurality of piezoelectric vibration units attached to the supporter, wherein the plurality of piezoelectric vibration units include a first piezoelectric vibration unit (50) and a second piezoelectric vibration unit (50), wherein each of the first and the second piezoelectric vibration units (50. 50) includes a fixing portion attached to the supporter and a cantilever portion overhanging from the supporter, wherein the fixing portion of each of the first and the second piezoelectric vibration units (50, 50) has a fixing length (L1, L2) defined as the length of the fixing portion in the direction in which the corresponding cantilever portion extends from the fixing portion, and the cantilever portion of each of the first and the second piezoelectric vibration units (50, 50) has a overhanging length (D1, D2) defined as the length of the cantilever portion in the direction in which the cantilever portion extends from the corresponding fixing portion and wherein the overhanging lengths (D1, D2) of the cantilever portions of the first and second piezoelectric vibration units are different from each other; characterised in that: the supporter is attached to a rear surface of the display panel; and the fixing lengths (L1, L2) of the fixing portions of the first and second piezoelectric vibration units (50, 50) are different from each other.
Method for operating a hearing aid which has an auditory canal microphone for capturing sound in the auditory canal of the wearer and a control unit comprising an own voice recognition unit for carrying out an adaptive own voice recognition, - wherein sound in the auditory canal is captured by the auditory canal microphone and an auditory canal signal (S G) that corresponds to the sound is output by the auditory canal microphone, and - wherein training of the adaptive own voice recognition is started only on the basis of the signal (S G) output by the auditory canal microphone, characterized - in that the training is started automatically during normal operation, in which the auditory canal signal (S G) and/or a surround signal (S U) is processed by the control unit and a receiver signal (S H) is output to a receiver for compensating a hearing deficit of the wearer, - wherein no speech sequences and/or noise sequences defined in advance are included in normal operation for the purposes of training the own voice recognition. - wherein sound in the auditory canal is captured by the auditory canal microphone and an auditory canal signal (S G) that corresponds to the sound is output by the auditory canal microphone, and - wherein training of the adaptive own voice recognition is started only on the basis of the signal (S G) output by the auditory canal microphone, - in that the training is started automatically during normal operation, in which the auditory canal signal (S G) and/or a surround signal (S U) is processed by the control unit and a receiver signal (S H) is output to a receiver for compensating a hearing deficit of the wearer, - wherein no speech sequences and/or noise sequences defined in advance are included in normal operation for the purposes of training the own voice recognition.
A heater, comprising: a heater main body having a columnar shape, comprising a ceramic body, and a heat generating resistor embedded within the ceramic body, the heat generating resistor being drawn out at a rear end portion of the ceramic body to a side surface of the heater main body; a metal support member having a tubular shape and attached to the side surface of the heater main body, the metal support member comprising a first region joined via a bonding material to the heater main body and a second region spaced away from the heater main body, the metal support member being configured so as to open toward the rear end portion; and a lid body which is disposed between the heater main body and the second region to separate front end-side space and rear end-side space of the heater; characterized in that the lid body is disposed between the heater main body and the second region so as to leave a spacing from at least one of the heater main body and the second region. a heater main body having a columnar shape, comprising a ceramic body, and a heat generating resistor embedded within the ceramic body, the heat generating resistor being drawn out at a rear end portion of the ceramic body to a side surface of the heater main body; a metal support member having a tubular shape and attached to the side surface of the heater main body, the metal support member comprising a first region joined via a bonding material to the heater main body and a second region spaced away from the heater main body, the metal support member being configured so as to open toward the rear end portion; and a lid body which is disposed between the heater main body and the second region to separate front end-side space and rear end-side space of the heater; characterized in that the lid body is disposed between the heater main body and the second region so as to leave a spacing from at least one of the heater main body and the second region.
A composite ion exchange membrane comprising a cationically-charged membrane and an oppositely charged compound covalently bound thereto, the composite ion exchange membrane having: (i) a zeta-potential lower than -8mV as measured by the method in the description; and (ii) an effective charge lower than 20μmol/m 2 as measured by the method in the description. (i) a zeta-potential lower than -8mV as measured by the method in the description; and (ii) an effective charge lower than 20μmol/m 2 as measured by the method in the description.
A method for producing particulate ruthenium having a purity of ≥99.99 per cent by weight and a specific surface of 0.2 to 0.5 m 2 /g, comprising the steps of: providing a hydrochloric solution produced by RuO 4 being received in hydrochloric acid, the solution having a content of ruthenium within a range from 15 to 22 per cent by weight, the ruthenium being present as dissolved ruthenium species, providing an aqueous solution having a content of ammonium chloride within a range from 200 to 600 g/litre, forming a reaction mixture by adding the hydrochloric solution provided in step to the aqueous solution provided in step at a mol ratio of 1 mol of ruthenium: 3 to 6 mols of ammonium chloride at a temperature of 55 to 90 °C within 0.2 to 5 hours, with a pH value being adjusted and maintained within a range from -0.6 to 0, separating solids formed in step from the hydrochloric reaction mixture, and calcining the solids separated in step at an object temperature within a range from 350 to 1000 °C. providing a hydrochloric solution produced by RuO 4 being received in hydrochloric acid, the solution having a content of ruthenium within a range from 15 to 22 per cent by weight, the ruthenium being present as dissolved ruthenium species, providing an aqueous solution having a content of ammonium chloride within a range from 200 to 600 g/litre, forming a reaction mixture by adding the hydrochloric solution provided in step to the aqueous solution provided in step at a mol ratio of 1 mol of ruthenium: 3 to 6 mols of ammonium chloride at a temperature of 55 to 90 °C within 0.2 to 5 hours, with a pH value being adjusted and maintained within a range from -0.6 to 0, separating solids formed in step from the hydrochloric reaction mixture, and calcining the solids separated in step at an object temperature within a range from 350 to 1000 °C.
A gripper arm for a gripping device for gripping, holding and/or guiding in particular small and substantially rounded containers, wherein the gripping device comprises at least one bore for at least partially receiving a bearing bolt by means of which the gripper arm is pivotable in the gripping device, in particular pivotably mountable, wherein the gripping device comprises at least one rotatably mounted control cam, characterized in that the gripper arm can be moved from a gripping position to an open position and has at least one receiving element for a closing means comprising a magnet by means of which the gripper arm can be moved from the open position into the gripping position, wherein the receiving element is designed such that the closing means can be inserted into the receiving element from the outer side of the gripper arm, and wherein the magnet is magnetically polarized complementary to an opposing corresponding gripper arm in the gripping device.