mhurhangee/ep-ind-claims huggingface dataset:
A method for implementing wireless communication using Medium Access Control, MAC, Protocol Data Units, PDUs, with encapsulated payloads, the method comprising: determining at least one characteristic of a service flow; selecting, from a plurality of MAC PDU header types, and based on the determined at least one characteristic a MAC PDU header type, where MAC PDU headers of the selected MAC PDU header type include a packing format field whose value indicates a location of zero, one, or two SDU fragments that are included within a payload of a MAC PDU to which a MAC PDU header of the selected MAC PDU header type will be assigned; encapsulating service flow data as SDU fragments into payloads of one or more MAC PDUs, where each of the one or more MAC PDUs includes a MAC PDU header of the selected MAC PDU header type, and the packing format field of the MAC PDU header is assigned a value based on how the SDU fragments are placed within the payload; and transmitting wirelessly the encapsulated service flow data using the one or more MAC PDUs. determining at least one characteristic of a service flow; selecting, from a plurality of MAC PDU header types, and based on the determined at least one characteristic a MAC PDU header type, where MAC PDU headers of the selected MAC PDU header type include a packing format field whose value indicates a location of zero, one, or two SDU fragments that are included within a payload of a MAC PDU to which a MAC PDU header of the selected MAC PDU header type will be assigned; encapsulating service flow data as SDU fragments into payloads of one or more MAC PDUs, where each of the one or more MAC PDUs includes a MAC PDU header of the selected MAC PDU header type, and the packing format field of the MAC PDU header is assigned a value based on how the SDU fragments are placed within the payload; and transmitting wirelessly the encapsulated service flow data using the one or more MAC PDUs.
Crawler track with a chassis and with a semitrailer coupling arranged on the chassis for accommodating a coupling device of a semitrailer, wherein the semitrailer coupling is arranged on the chassis to be pivotable alongside a transverse axis of the crawler track, characterized in that the crawler track comprises a sensor device, a control device connected in a data-transmitting manner with the sensor device, and a tilt-actuator device electrically connected with the control device, wherein tilt parameters of the crawler track and/or the semitrailer are detected by the control device, and are processed by the control device according to a predetermined control program, wherein control commands are determined by the control program and the tilt-actuator device is actuated by the control commands, so that a relative tilt between the crawler track and the semitrailer is counterbalanced.
Assembly for a combustion engine comprising an electric compressor and an air intake system, the air intake system comprising a double manifold at the inlet of which there is arranged a valve configured to allow the intake gases to circulate in the manifold and/or to allow the intake gases to bypass the electric compressor.
A printing apparatus comprising: an ink transfer element (100, 200) comprising: a surface (106, 206), the surface being an outside surface of a porous layer and being configured to, when an ink (102, 202) comprising pigment particles and a liquid vehicle is applied to the surface, at least partly separate the liquid vehicle from the pigment particles, through the surface, thereby providing a more solid ink on the surface; and a liquid collector arranged to collect liquid vehicle separated at the surface and having passed through at least one layer underlying the surface; an ink supply apparatus configured to supply the ink to the ink transfer element; and at least one further ink transfer element arranged to receive the more solid ink from the surface for applying the more solid ink to a print medium. an ink transfer element (100, 200) comprising: a surface (106, 206), the surface being an outside surface of a porous layer and being configured to, when an ink (102, 202) comprising pigment particles and a liquid vehicle is applied to the surface, at least partly separate the liquid vehicle from the pigment particles, through the surface, thereby providing a more solid ink on the surface; and a liquid collector arranged to collect liquid vehicle separated at the surface and having passed through at least one layer underlying the surface; a surface (106, 206), the surface being an outside surface of a porous layer and being configured to, when an ink (102, 202) comprising pigment particles and a liquid vehicle is applied to the surface, at least partly separate the liquid vehicle from the pigment particles, through the surface, thereby providing a more solid ink on the surface; and a liquid collector arranged to collect liquid vehicle separated at the surface and having passed through at least one layer underlying the surface; an ink supply apparatus configured to supply the ink to the ink transfer element; and at least one further ink transfer element arranged to receive the more solid ink from the surface for applying the more solid ink to a print medium.
A gas spring, comprising - a gas cylinder, - a piston rod which is movable in the axial direction in the gas cylinder, - a guide, wherein an axially outwardly open gap exists between a cylinder wall and the guide, - a protection, which is arranged so that it extends radially over the width of the gap, wherein the protection is fixed in the guide or in the cylinder wall and configured so that, when an axially compressing force is applied to the gas spring a part of the force is transmitted to the protection when the gas spring approaches overstroke viewed in the direction of compression, wherein a first part of the force which strikes the protection is transmitted to the guide and a second part of the force is transmitted to the cylinder wall, the protection is provided with a circumferential flange, which has an extent in the axial and the radial direction, characterized in that the flange is divided, viewed in the peripheral direction of the protection, into at least 2 separated circular segments, with a flange-free spacing in the peripheral direction of the protection therebetween. - a gas cylinder, - a piston rod which is movable in the axial direction in the gas cylinder, - a guide, wherein an axially outwardly open gap exists between a cylinder wall and the guide, - a protection, which is arranged so that it extends radially over the width of the gap,
A head-mounted display, HMD, (100; 510) comprising: an eye tracking system (175; 200; 300; 515) that includes: one or more illumination sources (176; 220) configured to periodically illuminate an eye (180; 320) of a user with light, and characterised by an optical detector comprising a plurality of polarization sensitive pixels, wherein each polarization sensitive pixel is configured to: capture one or more images of the eye (180; 320), and determine intensity and polarization information associated with the one or more images; and a controller (240; 308) configured to: determine a three-dimensional, 3D, shape of the eye (180; 320) based on the determined intensity and polarization information for each of the plurality of polarization sensitive pixels, update a model of the eye (180; 320) based on the determined 3D shape of the eye (180; 320), and determine eye tracking information associated with the updated model of the eye (180; 320), the eye tracking information including an eye orientation of the eye (180; 320). an eye tracking system (175; 200; 300; 515) that includes: one or more illumination sources (176; 220) configured to periodically illuminate an eye (180; 320) of a user with light, and characterised by an optical detector comprising a plurality of polarization sensitive pixels, wherein each polarization sensitive pixel is configured to: capture one or more images of the eye (180; 320), and determine intensity and polarization information associated with the one or more images; and one or more illumination sources (176; 220) configured to periodically illuminate an eye (180; 320) of a user with light, and characterised by an optical detector comprising a plurality of polarization sensitive pixels, wherein each polarization sensitive pixel is configured to: capture one or more images of the eye (180; 320), and determine intensity and polarization information associated with the one or more images; and capture one or more images of the eye (180; 320), and determine intensity and polarization information associated with the one or more images; and a controller (240; 308) configured to: determine a three-dimensional, 3D, shape of the eye (180; 320) based on the determined intensity and polarization information for each of the plurality of polarization sensitive pixels, update a model of the eye (180; 320) based on the determined 3D shape of the eye (180; 320), and determine eye tracking information associated with the updated model of the eye (180; 320), the eye tracking information including an eye orientation of the eye (180; 320). determine a three-dimensional, 3D, shape of the eye (180; 320) based on the determined intensity and polarization information for each of the plurality of polarization sensitive pixels, update a model of the eye (180; 320) based on the determined 3D shape of the eye (180; 320), and determine eye tracking information associated with the updated model of the eye (180; 320), the eye tracking information including an eye orientation of the eye (180; 320).
An instrument for removing an object or a foreign matter from a skin of a human or an animal, comprising a gripping plate at one end of which a curvature is provided to which a V-shaped fixing gap (2, 3) is connected, said curvature representing a pivot point by which the object or foreign matter can be pried out of the skin, characterised in that the V-shaped fixing gap (2, 3) comprises bias skids (4, 5) in order to pretension the skin and to reach a better fixation of the object or the foreign matter.
Sensor device, comprising: - a flexible printed circuit board having a fastening section (120, 121) for a chip structure (140, 141, 145); - a chip structure (140, 141, 145) arranged on the fastening section (120, 121) of the flexible printed circuit board; and - a damper element for damping the chip structure (140, 141, 145) from mechanical influences; wherein the fastening section (120, 121) of the flexible printed circuit board, the chip structure (140, 141, 145) and the damper element are arranged one over the other, wherein the flexible printed circuit board has in cross section a U-shaped form with a first leg and a second leg, which enclose an intermediate area, wherein the damper element is arranged in the intermediate area, and wherein the flexible printed circuit board has at the base of the U-shaped form a free area that is not connected to the damper element. - a flexible printed circuit board having a fastening section (120, 121) for a chip structure (140, 141, 145); - a chip structure (140, 141, 145) arranged on the fastening section (120, 121) of the flexible printed circuit board; and - a damper element for damping the chip structure (140, 141, 145) from mechanical influences; wherein the fastening section (120, 121) of the flexible printed circuit board, the chip structure (140, 141, 145) and the damper element are arranged one over the other, wherein the flexible printed circuit board has in cross section a U-shaped form with a first leg and a second leg, which enclose an intermediate area, wherein the damper element is arranged in the intermediate area, and wherein the flexible printed circuit board has at the base of the U-shaped form a free area that is not connected to the damper element.
A high-carbon steel sheet comprising: a chemical composition consisting of, in mass%: C: 0.60% to 0.90%; Si: 0.10% to 0.40%; Mn: 0.30% to 1.50%; N: 0.0010% to 0.0100%; Cr: 0.20% to 1.00%; P: 0.0001% to 0.0200%; S: 0.0001% to 0.0060%; Al: 0.001% to 0.050%; Mg: 0.000% to 0.010%; Ca: 0.000% to 0.010%; Y: 0.000% to 0.010%; Zr: 0.000% to 0.010%; La: 0.000% to 0.010%; Ce: 0.000% to 0.010%; and balance: Fe and impurities; and a structure represented by: a concentration of Mn contained in cementite: 2% or more and 8% or less, a concentration of Cr contained in cementite: 2% or more and 8% or less, an average grain diameter of ferrite: 10 μm or more and 50 μm or less, an average particle diameter of cementite: 0.3 μm or more and 1.5 μm or less, and a spheroidized ratio of cementite: 85% or more. a chemical composition consisting of, in mass%: C: 0.60% to 0.90%; Si: 0.10% to 0.40%; Mn: 0.30% to 1.50%; N: 0.0010% to 0.0100%; Cr: 0.20% to 1.00%; P: 0.0001% to 0.0200%; S: 0.0001% to 0.0060%; Al: 0.001% to 0.050%; Mg: 0.000% to 0.010%; Ca: 0.000% to 0.010%; Y: 0.000% to 0.010%; Zr: 0.000% to 0.010%; La: 0.000% to 0.010%; Ce: 0.000% to 0.010%; and balance: Fe and impurities; and C: 0.60% to 0.90%; Si: 0.10% to 0.40%; Mn: 0.30% to 1.50%; N: 0.0010% to 0.0100%; Cr: 0.20% to 1.00%; P: 0.0001% to 0.0200%; S: 0.0001% to 0.0060%; Al: 0.001% to 0.050%; Mg: 0.000% to 0.010%; Ca: 0.000% to 0.010%; Y: 0.000% to 0.010%; Zr: 0.000% to 0.010%; La: 0.000% to 0.010%; Ce: 0.000% to 0.010%; and balance: Fe and impurities; and a structure represented by: a concentration of Mn contained in cementite: 2% or more and 8% or less, a concentration of Cr contained in cementite: 2% or more and 8% or less, an average grain diameter of ferrite: 10 μm or more and 50 μm or less, an average particle diameter of cementite: 0.3 μm or more and 1.5 μm or less, and a spheroidized ratio of cementite: 85% or more. a concentration of Mn contained in cementite: 2% or more and 8% or less, a concentration of Cr contained in cementite: 2% or more and 8% or less, an average grain diameter of ferrite: 10 μm or more and 50 μm or less, an average particle diameter of cementite: 0.3 μm or more and 1.5 μm or less, and a spheroidized ratio of cementite: 85% or more.
An aerosol-generating device for heating an aerosol-forming substrate to form an inhalable aerosol, the aerosol-generating device comprising, a heating chamber for heating an aerosol-forming substrate, the heating chamber comprising a first end having an opening, a second end having a base, and a side wall extending between the opening and the base, in which a cavity is defined by inner surfaces of the base and side wall and a peripheral portion of the base is contoured to provide a chamfered or filleted intersection between the inner surfaces of the base and the side wall, wherein the device further comprises a heating assembly and a power supply. a heating chamber for heating an aerosol-forming substrate, the heating chamber comprising a first end having an opening, a second end having a base, and a side wall extending between the opening and the base, in which a cavity is defined by inner surfaces of the base and side wall and a peripheral portion of the base is contoured to provide a chamfered or filleted intersection between the inner surfaces of the base and the side wall, wherein the device further comprises a heating assembly and a power supply.
Conveying apparatus, comprising a conveying path (11, 12, 13, 14) and a plurality of transport units which can be conveyed in the conveying path (11, 12, 13, 14), at least two first guide rollers (2', 2.1-2.7) and a conveying chain (3, 3') which runs over the at least two first guide rollers (2', 2.1-2.7) and comprises drivers, via which the conveying chain (3, 3') can be brought releasably into engagement with the transport units in order to drive the transport units, the conveying apparatus comprising, furthermore, a belt (4, 4', 4", 4.1-4.5) which runs together with the conveying chain (3, 3') over the at least two first guide rollers (2', 2.1-2.7), the belt (4, 4', 4", 4.1-4.5) being arranged in the respective region of the first guide rollers (2', 2.1-2.7) in each case between the first guide roller (2', 2.1-2.7) and the conveying chain (3, 3') in such a way that the conveying chain (3, 3') lies against against the belt (4, 4', 4", 4.1-4.5), wherein the conveying apparatus is an overhead conveying apparatus.
A method of making a heat exchange component, comprising: forming a wafer having a pair of opposed outer major faces (5, 6) with interstices between them from a stack of wire mesh screens; and sealing the outer major faces of the wafer by depositing a metal coating (8, 9) thereon, the deposited metal coatings defining between them a flow path for a heat exchange fluid extending through the interstices of the wafer. forming a wafer having a pair of opposed outer major faces (5, 6) with interstices between them from a stack of wire mesh screens; and sealing the outer major faces of the wafer by depositing a metal coating (8, 9) thereon, the deposited metal coatings defining between them a flow path for a heat exchange fluid extending through the interstices of the wafer.
A sealing arrangement for an actuator, said sealing arrangement comprising: a sealing surface; and two or more seal recesses (20,21) for receiving seals, said two or more seal recesses provided at the sealing surface of the sealing arrangement; wherein the two or more seal recesses comprise of at least a first seal recess and a second seal recess, said first seal recess and said second seal recess having a length in a longitudinal direction and a depth in an annular direction; wherein the first seal recess is located at the sealing surface and wherein the length of the first seal recess is greater than the depth of the first seal recess; and wherein the second seal recess is located adjacent the first seal recess and wherein the second seal recess is located at the sealing surface and characterized by the depth of the second seal recess being greater than the length of the second seal recess. a sealing surface; and two or more seal recesses (20,21) for receiving seals, said two or more seal recesses provided at the sealing surface of the sealing arrangement; wherein the two or more seal recesses comprise of at least a first seal recess and a second seal recess, said first seal recess and said second seal recess having a length in a longitudinal direction and a depth in an annular direction; wherein the first seal recess is located at the sealing surface and wherein the length of the first seal recess is greater than the depth of the first seal recess; and wherein the second seal recess is located adjacent the first seal recess and wherein the second seal recess is located at the sealing surface and characterized by the depth of the second seal recess being greater than the length of the second seal recess.
A method of preparing amorphous calcium carbonate, comprising the steps of: i) combining an aqueous solution comprising a soluble calcium salt and a first stabilizer with an aqueous solution comprising a soluble carbonate so as to form an ACC suspension; and ii) adding a water miscible organic solvent and a solution comprising a second stabilizer, simultaneously or sequentially in any order so long as said second stabilizer and organic solvent contact said ACC suspension within 2 minutes of its formation, thereby obtaining a stabilized suspension of ACC; wherein the first stabilizer and the second stabilizer are the same or different; and wherein the total amount of the stabilizer constitutes up to 12 wt% of the stabilized ACC suspension, and the water miscible organic solvent constitutes at least 5 wt% of the stabilized ACC suspension. i) combining an aqueous solution comprising a soluble calcium salt and a first stabilizer with an aqueous solution comprising a soluble carbonate so as to form an ACC suspension; and ii) adding a water miscible organic solvent and a solution comprising a second stabilizer, simultaneously or sequentially in any order so long as said second stabilizer and organic solvent contact said ACC suspension within 2 minutes of its formation, thereby obtaining a stabilized suspension of ACC;
A beverage preparation machine (100, 200) comprising: a beverage dispenser; a cup holding region (110, 210) located below the beverage dispenser, a cup stand; a lifting mechanism; a light source (104, 204A, 204B, 204C) configured to transmit light across a portion of the cup holding region (110, 210); a receiver (108, 208A, 208B, 208C) configured to receive at least a portion the light transmitted by the light source (104, 204A, 204B, 204C); and a processor operably coupled to the receiver (108, 208A, 208B, 208C) and the beverage dispenser, the processor configured to determine both whether a transparent cup (120, 220) has been sufficiently inserted into the cup holding region (110, 210) on the cup stand as positioned by the lifting mechanism and whether the transparent cup (120, 220) is at a desired height by a detection of: a trough in a light level of the portion of the light received at the receiver (108, 208A, 208B, 208C); or an inverted trough in a light level of the light transmitted by the light source (104, 204A, 204B, 204C); wherein the processor is further configured to, upon making the determination that the transparent cup (120, 220) is not sufficiently inserted and at the desired height: prevent the beverage dispenser from dispensing a beverage; and detect whether the transparent cup (120, 220) has subsequently been lifted to the desired height. a beverage dispenser; a cup holding region (110, 210) located below the beverage dispenser, a cup stand; a lifting mechanism; a light source (104, 204A, 204B, 204C) configured to transmit light across a portion of the cup holding region (110, 210); a receiver (108, 208A, 208B, 208C) configured to receive at least a portion the light transmitted by the light source (104, 204A, 204B, 204C); and a processor operably coupled to the receiver (108, 208A, 208B, 208C) and the beverage dispenser, the processor configured to determine both whether a transparent cup (120, 220) has been sufficiently inserted into the cup holding region (110, 210) on the cup stand as positioned by the lifting mechanism and whether the transparent cup (120, 220) is at a desired height by a detection of: a trough in a light level of the portion of the light received at the receiver (108, 208A, 208B, 208C); or an inverted trough in a light level of the light transmitted by the light source (104, 204A, 204B, 204C); a trough in a light level of the portion of the light received at the receiver (108, 208A, 208B, 208C); or an inverted trough in a light level of the light transmitted by the light source (104, 204A, 204B, 204C); wherein the processor is further configured to, upon making the determination that the transparent cup (120, 220) is not sufficiently inserted and at the desired height: prevent the beverage dispenser from dispensing a beverage; and detect whether the transparent cup (120, 220) has subsequently been lifted to the desired height. prevent the beverage dispenser from dispensing a beverage; and detect whether the transparent cup (120, 220) has subsequently been lifted to the desired height.