mhurhangee/ep-ind-claims huggingface dataset:
A device for cold therapy comprising means, such as a nozzle, for producing mist from liquid provided for the device, which mist stream is configured to be sprayed from said nozzle to a surface of a skin of a treated object in order to cool the skin of the treated object, characterized in that the Sauter mean diameter of the mist is about 30μm - 100μm, wherein the device for cold therapy comprises at least two arms whose direction is adjustable, each arm comprising at least one or more nozzles,which nozzles are said nozzles connectable to a liquid supply and configured to spray mist, wherein a first nozzle on a first arm is at the same level as a second nozzle on a second arm, the first and second nozzles being disposed so that at least two mist streams are arranged to collide to form a combined downwardly directed stream.
A heat-ray- and ultraviolet-absorbing glass plate that is a soda lime glass comprising, as represented by mass percentage based on oxides: total iron calculated as Fe 2 O 3: 0.05 to 0.32%, total tin calculated as SnO 2: 0.02 to 0.5%, total cerium calculated as CeO 2: 0.01 to 2.9%, and total sulfur calculated as SO 3: 0.003 to 0.1 %, and comprising substantially no coloring components except for iron, selenium, cobalt, and TiO 2; and having: a mass proportion of divalent iron calculated as Fe 2 O 3 to total iron calculated as Fe 2 O 3 being 50% or more, a visible light transmittance Tv (illuminant A, 2° visual field) as defined in JIS R 3106 being 66% or more as a value calculated as 4 mm thickness of the glass plate, a solar transmittance Te as defined in JIS R 3106 being 65% or less as a value calculated as 4 mm thickness of the glass plate, a ratio Tv/Te of the visible light transmittance Tv (illuminant A, 2° visual field) as defined in JIS R 3106 as a value calculated as 4 mm thickness of the glass plate to the solar transmittance Te as defined in JIS R 3106 as a value calculated as 4 mm thickness of the glass plate being 1.3 or more, an ultraviolet transmittance Tuv as defined in ISO 9050 being 50% or less as a value calculated as 4 mm thickness of the glass plate, and a dominant wavelength Dw of the transmitted light as defined in JIS Z 8701 being 400 nm or more and 550 nm or less as a value calculated as 4 mm thickness of the glass plate. a mass proportion of divalent iron calculated as Fe 2 O 3 to total iron calculated as Fe 2 O 3 being 50% or more, a visible light transmittance Tv (illuminant A, 2° visual field) as defined in JIS R 3106 being 66% or more as a value calculated as 4 mm thickness of the glass plate, a solar transmittance Te as defined in JIS R 3106 being 65% or less as a value calculated as 4 mm thickness of the glass plate, a ratio Tv/Te of the visible light transmittance Tv (illuminant A, 2° visual field) as defined in JIS R 3106 as a value calculated as 4 mm thickness of the glass plate to the solar transmittance Te as defined in JIS R 3106 as a value calculated as 4 mm thickness of the glass plate being 1.3 or more, an ultraviolet transmittance Tuv as defined in ISO 9050 being 50% or less as a value calculated as 4 mm thickness of the glass plate, and a dominant wavelength Dw of the transmitted light as defined in JIS Z 8701 being 400 nm or more and 550 nm or less as a value calculated as 4 mm thickness of the glass plate.
A base station comprising: at least one transceiver; and at least one processor operably coupled to the at least one transceiver, configured to: generate demodulation reference signals, DMRSs, associated with an enhanced physical downlink control channel, EPDCCH, based on a pseudo-random sequence; and control the at least one transceiver to transmit the DMRSs associated with the EPDCCH to at least one terminal, wherein the pseudo-random sequence is initialized by: a first scrambling initialization value in case of a first set of physical resource blocks, PRBs, for the EPDCCH; and a second scrambling initialization value in case of a second set of PRBs for the EPDCCH. at least one transceiver; and at least one processor operably coupled to the at least one transceiver, configured to: generate demodulation reference signals, DMRSs, associated with an enhanced physical downlink control channel, EPDCCH, based on a pseudo-random sequence; and control the at least one transceiver to transmit the DMRSs associated with the EPDCCH to at least one terminal, wherein the pseudo-random sequence is initialized by: a first scrambling initialization value in case of a first set of physical resource blocks, PRBs, for the EPDCCH; and a second scrambling initialization value in case of a second set of PRBs for the EPDCCH. generate demodulation reference signals, DMRSs, associated with an enhanced physical downlink control channel, EPDCCH, based on a pseudo-random sequence; and control the at least one transceiver to transmit the DMRSs associated with the EPDCCH to at least one terminal, wherein the pseudo-random sequence is initialized by: a first scrambling initialization value in case of a first set of physical resource blocks, PRBs, for the EPDCCH; and a second scrambling initialization value in case of a second set of PRBs for the EPDCCH. a first scrambling initialization value in case of a first set of physical resource blocks, PRBs, for the EPDCCH; and a second scrambling initialization value in case of a second set of PRBs for the EPDCCH.
An iron-based alloy, consisting of 3.0 - 7.0 % by weight Cr; 1.3 - 3.0 % by weight C; 0.3 - 2.0 % by weight B; 2.0 - 10.0 % by weight V; 0.1 - 1.5 % by weight Ni; optionally 1.5 % by weight or less Si; optionally 1.0 % by weight or less Mn, optionally 2.0 % by weight or less Mo; the balance being Fe and unavoidable impurities in the amount of 0.10 % by weight or less. 3.0 - 7.0 % by weight Cr; 1.3 - 3.0 % by weight C; 0.3 - 2.0 % by weight B; 2.0 - 10.0 % by weight V; 0.1 - 1.5 % by weight Ni; optionally 1.5 % by weight or less Si; optionally 1.0 % by weight or less Mn, optionally 2.0 % by weight or less Mo; the balance being Fe and unavoidable impurities in the amount of 0.10 % by weight or less.
An autoinjector comprising: a housing (56; 156) for receiving in use in a generally longitudinal loading direction a syringe assembly (12; 112) comprising a syringe carrier (38; 138) and a syringe (14; 114), the syringe including a syringe body (16; 116) having a slideable internal piston (18; 118) for expressing a dose contained in the body through a needle at a forward end thereof; a drive mechanism (10; 110) for providing drive for operation of the autoinjector and being disposed generally within said housing (56; 156) and including a mechanical energy source (60; 182); characterised by the drive mechanism further including a winder element (58; 78) for being rotated to charge the energy source (60; 182), and an input transmission train (46, 76, 68, 66, 62; 164, 170, 172, 176) operational between the syringe assembly (12; 112) and the winder element (58; 78) in use, wherein said input transmission train includes a screw element (70; 172) mounted for rotation and engaged by a complementary element (46; 164) that moves linearly in use upon insertion of said syringe assembly into said housing, whereby linear movement of said complementary element (46; 164) induces rotation of said screw element (70; 172) to thereby rotate said winder element (58; 78) to charge the energy source (60; 182). a housing (56; 156) for receiving in use in a generally longitudinal loading direction a syringe assembly (12; 112) comprising a syringe carrier (38; 138) and a syringe (14; 114), the syringe including a syringe body (16; 116) having a slideable internal piston (18; 118) for expressing a dose contained in the body through a needle at a forward end thereof; a drive mechanism (10; 110) for providing drive for operation of the autoinjector and being disposed generally within said housing (56; 156) and including a mechanical energy source (60; 182); characterised by the drive mechanism further including a winder element (58; 78) for being rotated to charge the energy source (60; 182), and an input transmission train (46, 76, 68, 66, 62; 164, 170, 172, 176) operational between the syringe assembly (12; 112) and the winder element (58; 78) in use, wherein said input transmission train includes a screw element (70; 172) mounted for rotation and engaged by a complementary element (46; 164) that moves linearly in use upon insertion of said syringe assembly into said housing, whereby linear movement of said complementary element (46; 164) induces rotation of said screw element (70; 172) to thereby rotate said winder element (58; 78) to charge the energy source (60; 182).
A semiconductor device, comprising: a plurality of hardware threads that each issues an independent instruction flow, each hardware thread being assigned to only one partition wherein one partition includes at least one hardware thread; an execution unit that executes an arithmetic instruction belonging to the instruction flow issued by any one of the plurality of hardware threads; and a scheduler that includes a plurality of registers defining a correspondence relationship between the hardware threads and the partitions, and generates a thread select signal on the basis of a partition schedule defining a rate of execution times of the respective partitions, and of a thread schedule defining a rate of execution times of the respective hardware threads within the execution time assigned to each of the partitions, characterized in that the scheduler outputs the thread select signal designating the hardware thread only according to a first occupation control signal output by the execution unit when the arithmetic instruction executed in the execution unit is the first occupation start instruction for occupying the execution time assigned to any one of the partitions. a plurality of hardware threads that each issues an independent instruction flow, each hardware thread being assigned to only one partition wherein one partition includes at least one hardware thread; an execution unit that executes an arithmetic instruction belonging to the instruction flow issued by any one of the plurality of hardware threads; and a scheduler that includes a plurality of registers defining a correspondence relationship between the hardware threads and the partitions, and generates a thread select signal on the basis of a partition schedule defining a rate of execution times of the respective partitions, and of a thread schedule defining a rate of execution times of the respective hardware threads within the execution time assigned to each of the partitions, characterized in that the scheduler outputs the thread select signal designating the hardware thread only according to a first occupation control signal output by the execution unit when the arithmetic instruction executed in the execution unit is the first occupation start instruction for occupying the execution time assigned to any one of the partitions.
A hot-melt pressure-sensitive adhesive comprising: an amorphous polystyrene resin having a weight-average molecular weight of 50,000 or more; and a thermoplastic block copolymer which is a copolymer of vinyl-based aromatic hydrocarbons and conjugated diene compounds. an amorphous polystyrene resin having a weight-average molecular weight of 50,000 or more; and a thermoplastic block copolymer which is a copolymer of vinyl-based aromatic hydrocarbons and conjugated diene compounds.
A radiation imaging device comprising: an electrical insulation layer having a top surface and a bottom surface; a top electrode on the top surface of the electrical insulation layer; and a plurality of pixel units electrically coupled to the electrical insulation layer, wherein each of the plurality of pixel units comprises a charge collection electrode, wherein the charge collection electrode is in direct contact with the bottom surface of the electrical insulation layer and within the electrical insulation layer, without a photoconductive layer formed therebetween, wherein when a bias voltage is applied to the top electrode and a radiation beam is directed at the top electrode, the electrical insulation layer is ionized, generating a charge signal in one or more of the plurality of pixel units. an electrical insulation layer having a top surface and a bottom surface; a top electrode on the top surface of the electrical insulation layer; and a plurality of pixel units electrically coupled to the electrical insulation layer, wherein each of the plurality of pixel units comprises a charge collection electrode, wherein the charge collection electrode is in direct contact with the bottom surface of the electrical insulation layer and within the electrical insulation layer, without a photoconductive layer formed therebetween, wherein when a bias voltage is applied to the top electrode and a radiation beam is directed at the top electrode, the electrical insulation layer is ionized, generating a charge signal in one or more of the plurality of pixel units.
Capsule for containing beverage ingredients, the capsule being designed for insertion in a beverage production device in which a liquid under pressure enters the capsule (202; 302; 302'; 502) in order to interact with the ingredients in the capsule to drain a beverage from the capsule, wherein the capsule comprises a circumferential first wall (210; 310; 510), a second wall closing the circumferential first wall at a first end, and a third wall (216; 316; 516) closing the circumferential first wall at a second, open end opposite the second wall, the first, second and third wall enclosing an inner space comprising the beverage ingredients, wherein the circumferential first wall includes a radial edge (238, 338, 538), i.e. an outwardly extending rim (238, 338, 538) at the second end, and characterized in that the capsule comprises a sealing member (216B; 319; 519) for achieving a sealing effect with a beverage production device, wherein at least an external surface of the sealing member (216B; 319; 519) comprises at least one sheet (216B; 319; 519) that is made of fibrous and/or paperlike material and that is circular, ring shaped, and covers an outer surface of the radial edge (238, 338, 538) to achieve the sealing effect, wherein the fibrous and/or paperlike sealing member (216B; 319; 519) is configured to absorb water during operation.
Furnishing item, comprising a corpus with at least one framing which is made from a plurality of structural profiles to form a frame, wherein a decorative panel can be attached to the at least one framing and can be connected to the framing and detached therefrom by means of a non-positive and/or positive connection, wherein the non-positive and/or positive connection has a first retaining element (5.1) and a second retaining element (5.2) of complementary design, wherein the first retaining element (5.1) is connected to the rear side of the decorative panel in a substance-locking manner or is formed by the latter and the second retaining element (5.2) is mounted on the framing in a non-positive and/or positive manner or is formed by the latter, wherein the structural profiles are provided on one or more of their sides with at least one longitudinal groove (6.1), into which a complementarily formed slot nut can be introduced, wherein preferably the slot nut comprises at least one threaded bore and into which a corresponding screw can be introduced in order to releasably clamp the slot nut within the longitudinal groove (6.1) against the boundary surfaces thereof, wherein for connecting two structural profiles lying directly opposite each other, correspondingly two part-slot nuts (7.1, 7.2) are provided which are separably connected to each other or are formed in one piece with each other, wherein one of said part-slot nuts (7.1) comprises a preferably rotationally symmetrical head (7.1.1), such as a mushroom head, and an adjoining shaft (7.1.2) with a smaller external diameter than that of the head (7.1.1), and the head is preferably designed in relation to the longitudinal groove (6.1) in which it is guided in such a manner that it is freely movable with play in the longitudinal groove (6.1) along the longitudinal axis of the structural profile, but the play against tilting in the direction away from the longitudinal axis of the structural profile between the contact surfaces of the one part-slot nut (7.1) and the boundary surfaces of the longitudinal groove (6.1) is between 0.01 and 0.1 mm, in order to prevent jamming of the one part-slot nut (7.1) during displacement along the longitudinal axis of the structural profile, characterized in that the one part-slot nut (7.1) has a spring-biased ball (7.1.3) at its head, the ball (7.1.3) being arranged on the side of the head (7.1.1) facing away from the shaft (7.1.2), so that when the head (7.1.1) is pushed into the longitudinal groove (6.1), the ball (7.1.3) runs on one of the boundary surfaces of the longitudinal groove (6.1) for ease of sliding, and preferably in that for adjusting the play against tilting, a spacer sleeve (7.1.4) is provided, which surrounds the shaft (7.1.2) and is arranged between the head (7.1.1) of the one part-slot nut (7.1) and the other part-slot nut (7.2) and is dimensioned in its length such that the corresponding play of the head (7.1.1) against tilting in relation to the boundary surfaces of the longitudinal groove (6.1) is adjusted accordingly.
A method for power headroom reporting in a mobile communication system, wherein a mobile station is connected via a first radio link to a master base station and at least to one secondary base station via a secondary radio link, the method comprising: calculating by the mobile station a first power headroom report for the first radio link between the mobile station and the master base station, the first power headroom report including a cell-specific maximum output power configured by the mobile station for uplink transmissions from the mobile station to the master base station (PCMAX,MeNB); transmitting the calculated first power headroom report together with information allowing the master base station to determine information on the pathloss of the secondary radio link between the mobile station and the secondary base station, from the mobile station to the master base station; and calculating by the mobile station a secondary power headroom report for the secondary radio link between the mobile station and the secondary base station, and transmitting the calculated secondary power headroom report from the mobile station to the secondary base station, the secondary power headroom report including a cell-specific maximum output power configured by the mobile station for uplink transmission from the mobile station to the secondary base station (PCMAX,SeNB). calculating by the mobile station a first power headroom report for the first radio link between the mobile station and the master base station, the first power headroom report including a cell-specific maximum output power configured by the mobile station for uplink transmissions from the mobile station to the master base station (PCMAX,MeNB); transmitting the calculated first power headroom report together with information allowing the master base station to determine information on the pathloss of the secondary radio link between the mobile station and the secondary base station, from the mobile station to the master base station; and calculating by the mobile station a secondary power headroom report for the secondary radio link between the mobile station and the secondary base station, and transmitting the calculated secondary power headroom report from the mobile station to the secondary base station, the secondary power headroom report including a cell-specific maximum output power configured by the mobile station for uplink transmission from the mobile station to the secondary base station (PCMAX,SeNB).
A composition comprising two, three or all four of: hsa-miR-1246 of SEQ ID No.21, hsa-miR-4492 of SEQ ID No. 34, hsa-miR-4488 of SEQ ID No.61, and hsa-miR-4532 of SEQ ID No.23.
A steel sheet inspection device, comprising: an inspection unit including a magnetooptic element that is able to detect, as an optical property, a magnetic domain structure of a steel sheet to be inspected; a light source for irradiating the magnetooptic element with linearly polarized light; and a detector for detecting the linearly polarized light with a polarization plane rotated according to the magnetic domain structure of the steel sheet transferred to the magnetooptic element; and characterized in that the steel sheet inspection device further comprises a drive mechanism (14, 15, 17) that is configured to drive the inspection unit such that the magnetooptic element comes into contact with the steel sheet, while the steel sheet is travelling. an inspection unit including a magnetooptic element that is able to detect, as an optical property, a magnetic domain structure of a steel sheet to be inspected; a light source for irradiating the magnetooptic element with linearly polarized light; and a detector for detecting the linearly polarized light with a polarization plane rotated according to the magnetic domain structure of the steel sheet transferred to the magnetooptic element; and characterized in that the steel sheet inspection device further comprises a magnetooptic element that is able to detect, as an optical property, a magnetic domain structure of a steel sheet to be inspected; a light source for irradiating the magnetooptic element with linearly polarized light; and a detector for detecting the linearly polarized light with a polarization plane rotated according to the magnetic domain structure of the steel sheet transferred to the magnetooptic element; and characterized in that the steel sheet inspection device further comprises a drive mechanism (14, 15, 17) that is configured to drive the inspection unit such that the magnetooptic element comes into contact with the steel sheet, while the steel sheet is travelling.
A method of operating an aerosol-generating device comprising: detecting puffs taken by a user; monitoring a time elapsed after each puff; counting the puffs in succession unless the time elapsed is greater than a first preset value; restarting counting the puffs when the time elapsed is greater than the first preset value; and providing a first indication to the user when a number of puffs reaches a first count, characterised in that the first indication is only provided when the puffs are counted while the device is being held in a first orientation. detecting puffs taken by a user; monitoring a time elapsed after each puff; counting the puffs in succession unless the time elapsed is greater than a first preset value; restarting counting the puffs when the time elapsed is greater than the first preset value; and providing a first indication to the user when a number of puffs reaches a first count, characterised in that the first indication is only provided when the puffs are counted while the device is being held in a first orientation.