mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a coated substrate, wherein the substrate is made of glass or glass ceramic, comprising the steps of: - providing a sheet-like substrate; - applying a first layer-forming material onto a first side of the substrate, the first layer-forming material comprising at least one glass powder and particles, the particles causing elevations on the layer, wherein the softening temperature or melting temperature of the particles is greater than the softening temperature of the glass powder; - heating the coated substrate to obtain the first layer with elevations; - applying a second layer-forming material onto a second side of the substrate, the second side being opposite to the first side; - heating the coated substrate to obtain the second layer, wherein during the heating the substrate rests wholly or partially on the elevations of the first layer; wherein - the second layer also comprises a glass component and the layer materials on both sides of the substrate preferably consist of inorganic glass-based enamel; and wherein - the softening temperatures of the glass components on the two sides of the substrate differ by less than 200 K. - providing a sheet-like substrate; - applying a first layer-forming material onto a first side of the substrate, the first layer-forming material comprising at least one glass powder and particles, the particles causing elevations on the layer, wherein the softening temperature or melting temperature of the particles is greater than the softening temperature of the glass powder; - heating the coated substrate to obtain the first layer with elevations; - applying a second layer-forming material onto a second side of the substrate, the second side being opposite to the first side; - heating the coated substrate to obtain the second layer, wherein during the heating the substrate rests wholly or partially on the elevations of the first layer; wherein - the second layer also comprises a glass component and the layer materials on both sides of the substrate preferably consist of inorganic glass-based enamel; and wherein - the softening temperatures of the glass components on the two sides of the substrate differ by less than 200 K.
A method for producing a crystallized polylactic acid, which comprises a crystallization step of applying a shear and/or a pressure to a polylactic acid at a temperature of (Tm - 70°C) to (Tm + 20°C), where Tm is a melting point of the polylactic acid, thereby converting the polylactic acid into a state having a crystallinity of 10% or more and fluidity, wherein the state of having fluidity is a state having a melt viscosity of 1,000 Pa·s or less, wherein the polylactic acid subjected to the crystallization step has a crystallinity of less than 10%, the crystallinity being measured after freezing a crystal structure by cooling a polymer crystallized through the crystallization step while maintaining fluidity in an ice bath, wide angle x-ray diffraction measurement was performed and crystallinity was measured by an area ratio of a halo region of the amorphous portion to a diffraction peak region of the crystal portion, wherein the melt viscosity being measured by a parallel plate having a diameter of 25 mm at a gap distance of 1 mm using a rotation method and the flow rate at a predetermined temperature under a predetermined shear rate was confirmed for 3 minutes and the value was regarded as a melt viscosity.
A method for selecting a sequence set from a library of expressed nucleic acid sequences, wherein - a plurality of cells is provided, each cell comprising an expressed nucleic acid sequence expressed as a target protein in said cell, - said plurality of cells is encapsulated in an encapsulating step, comprising ∘ treating said plurality of cells with a cationic polysaccharide in a cationic treatment step, ∘ treating said plurality of cells with an anionic polysaccharide in an anionic treatment step, said encapsulating step giving rise to a plurality of encapsulated cells, - solubilizing the membrane of said encapsulated cells in a solubilization step, giving rise to a plurality of solubilized compartments, - contacting said plurality of solubilized compartments, in a labelling step, with ∘ a ligand to said target protein, said ligand bearing a detectable label, or with ∘ an indicator of an enzymatic activity of said target protein, said enzymatic activity converting said indicator to a detectable label, - selecting a subset of said plurality of solubilized compartments as a function of detectable label present in said solubilized compartments in a selection step, giving rise to a selection, and - isolating said expressed nucleic acid sequences from the selection as a selected sequence set in an isolation step. - a plurality of cells is provided, each cell comprising an expressed nucleic acid sequence expressed as a target protein in said cell, - said plurality of cells is encapsulated in an encapsulating step, comprising ∘ treating said plurality of cells with a cationic polysaccharide in a cationic treatment step, ∘ treating said plurality of cells with an anionic polysaccharide in an anionic treatment step, said encapsulating step giving rise to a plurality of encapsulated cells, ∘ treating said plurality of cells with a cationic polysaccharide in a cationic treatment step, ∘ treating said plurality of cells with an anionic polysaccharide in an anionic treatment step, - solubilizing the membrane of said encapsulated cells in a solubilization step, giving rise to a plurality of solubilized compartments, - contacting said plurality of solubilized compartments, in a labelling step, with ∘ a ligand to said target protein, said ligand bearing a detectable label, or with ∘ an indicator of an enzymatic activity of said target protein, said enzymatic activity converting said indicator to a detectable label, ∘ a ligand to said target protein, said ligand bearing a detectable label, or with ∘ an indicator of an enzymatic activity of said target protein, said enzymatic activity converting said indicator to a detectable label, - selecting a subset of said plurality of solubilized compartments as a function of detectable label present in said solubilized compartments in a selection step, giving rise to a selection, and - isolating said expressed nucleic acid sequences from the selection as a selected sequence set in an isolation step.
A method for receiving data by a of a user equipment, UE, operating in a wireless communication system using carrier aggregation and a coordinated multi-point transmission/reception, CoMP, scheme, the method comprising: receiving (600, 800, 900) downlink control information, DCI, including CoMP-related control information and indicating information related to starting position of a data channel, cell-specific reference signal, CRS, resource information and multicast broadcast single frequency network, MBSFN, subframe configuration information; determining (620, 830, 920) a resource for the data channel based on the information related to the starting position of the data channel, the CRS resource information, and the MBSFN subframe configuration information indicated by the DCI; and receiving data based on the determined resource for the data channel. receiving (600, 800, 900) downlink control information, DCI, including CoMP-related control information and indicating information related to starting position of a data channel, cell-specific reference signal, CRS, resource information and multicast broadcast single frequency network, MBSFN, subframe configuration information; determining (620, 830, 920) a resource for the data channel based on the information related to the starting position of the data channel, the CRS resource information, and the MBSFN subframe configuration information indicated by the DCI; and receiving data based on the determined resource for the data channel.
A system, comprising: a machine configured to traverse a field having windrows; a radar sensor mounted to the machine, the radar sensor arranged to transmit first signals to, and receive first reflected signals from, one of the windrows and the field adjacent the one of the windrows; a lidar sensor mounted to the machine, the lidar sensor arranged to transmit second signals to, and receive second reflected signals from, the one of the windrows and the field adjacent the one of the windrows; and a processing circuit configured to receive data corresponding to the first and second reflected signals and determine a mass profile of the one of the windrows based on the data; characterised in that the processing circuit is further configured to determine a geometric profile of the said one of the windrows based on the data. a machine configured to traverse a field having windrows; a radar sensor mounted to the machine, the radar sensor arranged to transmit first signals to, and receive first reflected signals from, one of the windrows and the field adjacent the one of the windrows; a lidar sensor mounted to the machine, the lidar sensor arranged to transmit second signals to, and receive second reflected signals from, the one of the windrows and the field adjacent the one of the windrows; and a processing circuit configured to receive data corresponding to the first and second reflected signals and determine a mass profile of the one of the windrows based on the data; characterised in that the processing circuit is further configured to determine a geometric profile of the said one of the windrows based on the data.
Door with a door leaf which is movable between an open position and a closed position closing a door opening and has a plurality of door leaf elements (22.1-22. 4), each of which has a panel and can be tilted relative to one another with respect to tilting axes running parallel to one another, and a pass door which is integrated in the door leaf and has a pass door leaf which, in its closed position, is accommodated in a door recess in the door leaf and can be pivoted relative to the door leaf elements (22.1-22.4) about a pivot axis running essentially perpendicular to the tilting axes, wherein a lower portion of the door recess in the closed position of the door leaf is bounded by a threshold, the upper edge of which, measured in the closed position of the door leaf, is at a distance SH in the range of 40 mm ≤ SH ≤ 120 mm from a lower boundary of the door opening, wherein the threshold, viewed in cross-section, is formed by a lower edge portion of the panel of the lowermost door leaf element (22.1), a reinforcing strip and a threshold cover strip, the reinforcing strip, which is designed as a one-piece profile strip, extending essentially over the entire lower edge portion of the panel of the lowermost door leaf element (22.1) and having a fastening profile portion for bearing against an inner side of the lower edge portion of the panel and for attachment thereto, an engagement profile portion for engaging a groove on the underside of the panel, and a reinforcing rib profile portion for stiffening extending away from the attachment profile portion, wherein the threshold cover strip, formed as a one-piece profile strip, is formed to cover an upper surface of the lower edge portion of the panel in the area of the threshold and is secured to the fastening profile portion.
Composition for controlling parasites on animals, comprising an N-arylpyrazole and a pyrethroid in a formulation comprising: - an aliphatic cyclic carbonate - an aliphatic cyclic or acyclic polyether and - one or more esters of a dihydric or trihydric alcohol having up to three carbon atoms with organic fatty acids having 6 to 18 carbon atoms. - an aliphatic cyclic carbonate - an aliphatic cyclic or acyclic polyether and - one or more esters of a dihydric or trihydric alcohol having up to three carbon atoms with organic fatty acids having 6 to 18 carbon atoms.
Motor vehicle light device intended to comprise a light source, said light device comprising: - an optical deflector arranged to deflect the light rays emitted by the light source, - at least one bearing element (60, 20), - a pinning element comprising a bracing element and at least one contact portion (31, 32) borne by the bracing element, the bracing element at least partially surrounding the optical deflector, said contact portion bearing against the optical deflector, the optical deflector, said bearing element and said pinning element being arranged so that the optical deflector is at least partially gripped between said bearing element (60, 20) and said contact portion (31, 32), and so that, in a direction passing through said contact portion, called direction of flexing, the bracing element is deformable, i.e. deforms or bends without breaking under a urging force along the direction of flexing, preferably elastically deformable, the pinning element is a mask placed in front of the bearing element (60, 20) in the direction of emission of the light beam by said light device characterized in that said contact portion is rigid, i.e. it does not bear any deformation when the same urging force than the one applied to the deformable bracing element is applied, and the bracing element is a trim of the mask, the trim being visible from the outside of said light device and having a central opening through which the light rays emitted by the light source passe, after or before deflection by the optical deflector. - an optical deflector arranged to deflect the light rays emitted by the light source, - at least one bearing element (60, 20), - a pinning element comprising a bracing element and at least one contact portion (31, 32) borne by the bracing element, the bracing element at least partially surrounding the optical deflector, said contact portion bearing against the optical deflector,
A combination for boring earth or other solid objects comprising (a) apparatus for moving a mass (10, 110, 210, 310, 410, 510, 610, 710) from one speed to a higher speed along an arcuate path including (i) means for moving a portion of said path where the mass is located substantially radially along a local radius of curvature and (ii) an outlet for ejecting said mass therefrom; and (b) a boring tool having (i) a leading end (522, 622, 752, 762) for contacting said earth or other solid objects and (ii) a trailing end (523, 623, 753, 763) extending from said leading end, said trailing end (523, 623, 753, 763) having an opening for receiving mass (10, 110, 210, 310, 410, 510, 610, 710) discharged from said apparatus. (a) apparatus for moving a mass (10, 110, 210, 310, 410, 510, 610, 710) from one speed to a higher speed along an arcuate path including (i) means for moving a portion of said path where the mass is located substantially radially along a local radius of curvature and (ii) an outlet for ejecting said mass therefrom; and (b) a boring tool having (i) a leading end (522, 622, 752, 762) for contacting said earth or other solid objects and (ii) a trailing end (523, 623, 753, 763) extending from said leading end, said trailing end (523, 623, 753, 763) having an opening for receiving mass (10, 110, 210, 310, 410, 510, 610, 710) discharged from said apparatus.
Chemical compound with general structure [A - R 3 - X - R 4] wherein A = [R 1 - R 2] or [R 1] R 1 = aryl with 6 to 20 C-atoms or heteroaryl with 2 to 20 C-atoms R 2 = C1-C5-alkyl, carbonyl, R 3 = O, S, X = closo - or nido-boron cluster wherein Z = OH, wherein R 5 is selected from H, akyl, aryl, heteroaryl, alkyl ether, alkyl thioether, and alkyl amin, and R 6 is selected from alkyl, aryl, heteroaryl, alkyl ether, alkyl thioether, and alkyl amin, or R 5 and R 6 form a tetrahydropyranyl unit, and wherein R 3 and R 4 are in meta or para positions in relation to one another. A = [R 1 - R 2] or [R 1] R 1 = aryl with 6 to 20 C-atoms or heteroaryl with 2 to 20 C-atoms R 2 = C1-C5-alkyl, carbonyl, R 3 = O, S, X = closo - or nido-boron cluster wherein Z = OH, wherein R 5 is selected from H, akyl, aryl, heteroaryl, alkyl ether, alkyl thioether, and alkyl amin, and R 6 is selected from alkyl, aryl, heteroaryl, alkyl ether, alkyl thioether, and alkyl amin, or R 5 and R 6 form a tetrahydropyranyl unit, and wherein R 3 and R 4 are in meta or para positions in relation to one another. wherein Z = OH, wherein R 5 is selected from H, akyl, aryl, heteroaryl, alkyl ether, alkyl thioether, and alkyl amin, and R 6 is selected from alkyl, aryl, heteroaryl, alkyl ether, alkyl thioether, and alkyl amin, or R 5 and R 6 form a tetrahydropyranyl unit, and wherein R 3 and R 4 are in meta or para positions in relation to one another.
A method of wireless communication using half duplex frequency division duplex "HD-FDD", comprising: receiving a plurality of consecutive subframes of a Physical Downlink Shared Channel "PDSCH"; and transmitting within a single subframe a Hybrid Automatic Repeat Request, HARQ, acknowledgement/negative acknowledgement, ACK/ NACK for the plurality of consecutive subframes, using ACK/NACK bundling when the plurality of consecutive subframes is below a first threshold and using ACK/NACK multiplexing when the plurality of consecutive subframes is above a second threshold. receiving a plurality of consecutive subframes of a Physical Downlink Shared Channel "PDSCH"; and transmitting within a single subframe a Hybrid Automatic Repeat Request, HARQ, acknowledgement/negative acknowledgement, ACK/ NACK for the plurality of consecutive subframes, using ACK/NACK bundling when the plurality of consecutive subframes is below a first threshold and using ACK/NACK multiplexing when the plurality of consecutive subframes is above a second threshold.
Method for detecting the position of a pan on an induction cooktop, wherein the pan is disposed above or in the region of an induction coil of a cooking zone of the induction cooktop, wherein at least one detection coil arranged exterior and adjacent to the induction coil or in a boundary region of the cooking zone is provided, wherein at least three detection coils are provided per induction coil and cooking zone, respectively, and each detection coil generates a distinct field which is attenuated by the pan as a function of its position, and the position of the pan on the cooking zone, or a shifting of the pot on the cooking zone is detected on the basis of the attenuation of all detection coils, wherein the induction coil operates with a frequency of 17 kHz to 80 kHz, characterized in that a frequency for the signals of the detection coils is 80 kHz to 1 MHz.
Device for aiding the location in real time, by electromagnetic radiation, of a self-powered mobile element, this device being characterized in that it comprises the following means, - reception means (505, 520, 605, 620, 705, 720, 805, 820) for receiving a radio signal comprising at least one synchronization data item, said means being configured to receive power from a received radio signal; - transmission means (515, 615, 715, 815) for transmitting an electromagnetic signal, said electromagnetic signal being transmitted in response to an activation signal; - controlling means (510, 610, 710, 810) connected to said reception means and to said transmission means for transmitting an electromagnetic signal, said controlling means being electrically powered by said reception means for receiving a radio signal and being configured to generate an activation signal in response to a synchronization data item, wherein said reception means for receiving a radio signal comprise a dual-port memory, said dual-port memory being configured to be readable and/or writable by a radio signal and by said controlling means; and wherein said controlling means comprise access means for accessing a value stored in said dual-port memory, a synchronization data item being identified as a function of a value stored in said dual-port memory. - reception means (505, 520, 605, 620, 705, 720, 805, 820) for receiving a radio signal comprising at least one synchronization data item, said means being configured to receive power from a received radio signal; - transmission means (515, 615, 715, 815) for transmitting an electromagnetic signal, said electromagnetic signal being transmitted in response to an activation signal; - controlling means (510, 610, 710, 810) connected to said reception means and to said transmission means for transmitting an electromagnetic signal, said controlling means being electrically powered by said reception means for receiving a radio signal and being configured to generate an activation signal in response to a synchronization data item,
A torque generating device comprising: a magnetic disk (120; 220) capable of rotational motion around a rotation axis (11; 201); a first yoke (30; 230) located on one side and a second yoke (40; 240) located on an other side across the magnetic disk (120; 220); a coil (50; 251; 252) disposed so as to overlap the magnetic disk (120; 220) when viewed in a direction along a direction in which the rotation axis (11; 201) extends; a magnetic viscous fluid filled between the magnetic disk (120; 220) and each of the first yoke (30; 230) and the second yoke (40; 240); a magnetic measurement portion (52; 261) for measuring magnetism caused by a magnetic field using the magnetic viscous fluid, the magnetic disk (120; 220), the first yoke (30; 230), and the second yoke (40; 240) as a magnetic path; and a control unit configured to acquire a measured value from the magnetic measurement portion (52; 261) and control a magnetic field that is generated by the coil (50; 251; 252) based on the measured value to change a viscosity of the magnetic viscous fluid; characterized in that the control unit is configured to control a magnetic field that is generated by the coil (50; 251; 252) based on magnetism measured by the magnetic measurement portion (52; 261) when no current is applied to the coil (50; 251; 252). a magnetic disk (120; 220) capable of rotational motion around a rotation axis (11; 201); a first yoke (30; 230) located on one side and a second yoke (40; 240) located on an other side across the magnetic disk (120; 220); a coil (50; 251; 252) disposed so as to overlap the magnetic disk (120; 220) when viewed in a direction along a direction in which the rotation axis (11; 201) extends; a magnetic viscous fluid filled between the magnetic disk (120; 220) and each of the first yoke (30; 230) and the second yoke (40; 240); a magnetic measurement portion (52; 261) for measuring magnetism caused by a magnetic field using the magnetic viscous fluid, the magnetic disk (120; 220), the first yoke (30; 230), and the second yoke (40; 240) as a magnetic path; and a control unit configured to acquire a measured value from the magnetic measurement portion (52; 261) and control a magnetic field that is generated by the coil (50; 251; 252) based on the measured value to change a viscosity of the magnetic viscous fluid; characterized in that the control unit is configured to control a magnetic field that is generated by the coil (50; 251; 252) based on magnetism measured by the magnetic measurement portion (52; 261) when no current is applied to the coil (50; 251; 252).