mhurhangee/ep-ind-claims huggingface dataset:
A method for introducing elongated objects defining a longitudinal axis into a continuous flow of material, the method comprising the steps of: ∘ providing a reservoir for holding the elongated objects to be introduced into the continuous flow of material; ∘ introducing the elongated objects from the reservoir into a transfer chamber that is arranged such that the objects are aligned therein with their longitudinal axis parallel to each other; ∘ moving the elongated objects along a direction parallel to their longitudinal axis in a single line path from the transfer chamber to a delivery channel by a rotatable wheel, the rotatable wheel arranged adjacent the transfer chamber and adapted to move the elongated objects located in the transfer chamber by contacting the elongated objects with a peripheral surface of the rotatable wheel; ∘ inserting the elongated objects from the delivery channel to a location where the elongated objects are to be introduced into the continuous flow of material; and ∘ regulating an insertion speed of insertion of the elongated object from the delivery channel to a location where the elongated objects are to be introduced into the continuous flow of material on the basis of a speed of the continuous flow of material at the location in which the elongated object is to be introduced. ∘ providing a reservoir for holding the elongated objects to be introduced into the continuous flow of material; ∘ introducing the elongated objects from the reservoir into a transfer chamber that is arranged such that the objects are aligned therein with their longitudinal axis parallel to each other; ∘ moving the elongated objects along a direction parallel to their longitudinal axis in a single line path from the transfer chamber to a delivery channel by a rotatable wheel, the rotatable wheel arranged adjacent the transfer chamber and adapted to move the elongated objects located in the transfer chamber by contacting the elongated objects with a peripheral surface of the rotatable wheel; ∘ inserting the elongated objects from the delivery channel to a location where the elongated objects are to be introduced into the continuous flow of material; and ∘ regulating an insertion speed of insertion of the elongated object from the delivery channel to a location where the elongated objects are to be introduced into the continuous flow of material on the basis of a speed of the continuous flow of material at the location in which the elongated object is to be introduced.
A method of making a homogeneous mixture of polyolefin solids and a liquid additive without melting the polyolefin solids during the making, the method comprising applying acoustic energy at a frequency of from 20 to 100 hertz (Hz) to a first heterogeneous mixture comprising at least one liquid additive and polyolefin solids for a period of time and at an acoustic intensity effective to substantially intermix the at least one liquid additive and the polyolefin solids together while maintaining temperature of the first heterogeneous mixture above the freezing point of the at least one liquid additive and below the melting temperature of the polyolefin solids, thereby making a first homogeneous mixture comprising the polyolefin solids and the at least one liquid additive without melting the polyolefin solids, wherein the liquid additive is added to the polyolefin solids as a neat liquid and the heterogeneous mixture is free of any liquid solvent, wherein the polyolefin of the polyolefin solids is a polyethylene homopolymer; an ethylene/alpha-olefin copolymer; a (hydrolyzable silyl group)-functional polyethylene copolymer (HSG-FP Copolymer); an ethylene/unsaturated carboxylic ester copolymer; or a blend of any two or more thereof. wherein the liquid additive is added to the polyolefin solids as a neat liquid and the heterogeneous mixture is free of any liquid solvent, wherein the polyolefin of the polyolefin solids is a polyethylene homopolymer; an ethylene/alpha-olefin copolymer; a (hydrolyzable silyl group)-functional polyethylene copolymer (HSG-FP Copolymer); an ethylene/unsaturated carboxylic ester copolymer; or a blend of any two or more thereof.
A semiconductor device thermal connection comprising: a compressible carbon fiber solid material (60, 234, 264) between a semiconductor device (12, 212) and a heat sink (54, 214); and a flexible diaphragm (70, 230) enclosing the compressible carbon fiber solid material; wherein the carbon fiber material is in a pocket between the semiconductor device and the heat sink, which is at least partially defined by the diaphragm. a compressible carbon fiber solid material (60, 234, 264) between a semiconductor device (12, 212) and a heat sink (54, 214); and a flexible diaphragm (70, 230) enclosing the compressible carbon fiber solid material; wherein the carbon fiber material is in a pocket between the semiconductor device and the heat sink, which is at least partially defined by the diaphragm.
An absorber or desorber containing a first layer for a structured packaging, which layer has a first wave-like profile, wherein a plurality of open channels (12, 14, 16) is formed by the first wave-like profile, wherein the channels comprise a first wave trough, a first wave crest and a second wave crest, wherein the first wave crest and the second wave crest delimit the first wave trough, wherein the first and second wave crests have a first rounded vertex and a second rounded vertex, wherein an indentation extending in the direction of the first vertex is formed on the first vertex of the first wave crest, wherein the first wave trough has a rounded trough bottom, wherein the normal distance of at least one point of the indentation from the trough bottom of the wave trough is smaller than the normal distance of the first vertex from the trough bottom of the wave trough, wherein a second indentation is arranged on the second vertex and a third indentation is arranged on the trough bottom, wherein the first, second and third indentations (24, 34, 44) are designed as lenticular dents, wherein a second layer is provided which has a second wave-like profile, wherein the first layer and the second layer are arranged in such a way that the channels of the first layer intersect the channels of the second layer, wherein the first layer is in touching contact with the second layer, wherein the touching contact is interrupted in the region of the indentation (24, 34, 44), wherein the depth of each indentation (24, 34, 44) is in the range of from 10 to 30% of the layer height, resulting in gaps between the individual packaging layers of precisely this range of values.
A method of wireless communication by a user equipment, UE, comprising: determining (111, 402) an allocation of a set (202, 302) of tones (201, 301) in a symbol (204, 304) for conveying data (210, 310); selecting a subset of tones from the set of tones based on values of bits of the data; determining to use m-ary phase shift keying, MPSK, to modulate the data (210, 310) onto the subset (206, 306) of tones (207, 307a, 307b); and modulating (113, 406) the data onto the subset of tones based on a mapping, wherein the mapping maps pairs of data values with a largest Hamming distance from each other to pairs of constellation points with a maximum Euclidean distance from each other; wherein the set of tones includes D tones, the MPSK has M possible signal phases, k bits of data are modulated onto the subset of tones, and the mapping is between 2 k possible data values and 2 k constellation points of D*M constellation points. determining (111, 402) an allocation of a set (202, 302) of tones (201, 301) in a symbol (204, 304) for conveying data (210, 310); selecting a subset of tones from the set of tones based on values of bits of the data; determining to use m-ary phase shift keying, MPSK, to modulate the data (210, 310) onto the subset (206, 306) of tones (207, 307a, 307b); and modulating (113, 406) the data onto the subset of tones based on a mapping, wherein the mapping maps pairs of data values with a largest Hamming distance from each other to pairs of constellation points with a maximum Euclidean distance from each other; wherein the set of tones includes D tones, the MPSK has M possible signal phases, k bits of data are modulated onto the subset of tones, and the mapping is between 2 k possible data values and 2 k constellation points of D*M constellation points.
Spreader roller with a fixed axle mounted at both ends and extending in an arc shape and a roller shell supported on the axle, wherein the roller shell is rotatably mounted, consists of a flexible plastic, in particular of a polyurethane or of rubber, so that the roll shell can deform continuously during rotation about the arcuate axle, and is supported directly on the axle via a lubricating fluid film, the axle being made in one piece and non-rotatable, the lubricating fluid film being formed by lubricating oil and the lubricating fluid film having a thickness between 0.1 mm and 5 mm.
Wind energy system (2, 2.1), in particular offshore wind energy system (2, 2.1), comprising: - a plurality of wind turbines (6, 6.1,6.2, 6.3, 6.4, 6.5, 6.6) electrically connected to one another via a power cable network, - at least one monitoring device (18, 18.1) for monitoring the wind energy system (2, 2.1), and - at least one control device (20, 20.1) for setting at least one power generation setpoint for at least one wind turbine (6, 6.1, 6.2, 6.3, 6.4, 6.5, 6.6), characterized in that - the monitoring device (18,18.1) is configured to detect a network fault, - the monitoring device (18, 18.1) is configured to detect the position of the network fault in the power cable network in the event that a network fault is detected and - the control device (20, 20.1) is configured in such a way that, in the event that a network fault is detected, at least as a function of at least one power cable network parameter and as a function of the position of the network fault, the at least one power generation setpoint is reduced for at least one wind turbine (6, 6.1, 6.2, 6.3, 6.4, 6.5, 6.6), to such an extent that an overload of the power cable network is prevented. - a plurality of wind turbines (6, 6.1,6.2, 6.3, 6.4, 6.5, 6.6) electrically connected to one another via a power cable network, - at least one monitoring device (18, 18.1) for monitoring the wind energy system (2, 2.1), and - at least one control device (20, 20.1) for setting at least one power generation setpoint for at least one wind turbine (6, 6.1, 6.2, 6.3, 6.4, 6.5, 6.6), - the monitoring device (18,18.1) is configured to detect a network fault, - the monitoring device (18, 18.1) is configured to detect the position of the network fault in the power cable network in the event that a network fault is detected and - the control device (20, 20.1) is configured in such a way that, in the event that a network fault is detected, at least as a function of at least one power cable network parameter and as a function of the position of the network fault, the at least one power generation setpoint is reduced for at least one wind turbine (6, 6.1, 6.2, 6.3, 6.4, 6.5, 6.6), to such an extent that an overload of the power cable network is prevented.
A method for supporting data duplication, wherein a duplication is performed on a Packet Data Convergence Protocol, PDCP, Protocol Data Unit, PDU, to be sent in a PDCP layer to obtain two PDCP PDUs, and the two PDCP PDUs are respectively processed by two Radio Link Control, RLC, entities to obtain two RLC PDUs, the method comprising: sending, by a transmitting device, a plurality of RLC PDUs to a receiving device, wherein an RLC header of at least one RLC PDU in the plurality of RLC PDUs comprises an indication field and the indication field is to indicate a radio bearer corresponding to the at least one RLC PDU, and characterized in that the indication field comprises a Logical Channel Identity, LCID, and a reserved bit, and different values are assigned to the reserved bit to distinguish two different logical channels serving a same radio bearer. sending, by a transmitting device, a plurality of RLC PDUs to a receiving device, wherein an RLC header of at least one RLC PDU in the plurality of RLC PDUs comprises an indication field and the indication field is to indicate a radio bearer corresponding to the at least one RLC PDU, and characterized in that the indication field comprises a Logical Channel Identity, LCID, and a reserved bit, and different values are assigned to the reserved bit to distinguish two different logical channels serving a same radio bearer.
Tattooing machine for introducing tattooing ink into human skin by means of a tattooing needle, comprising: - a drive motor for driving the tattooing needle, - a transmission unit, which converts a driving movement of the drive motor into a puncturing movement of the tattooing needle, causing said needle to penetrate the human skin, and - a needle holder to accommodate the tattooing needle, wherein the transmission unit has a toggle lever, which performs a tilting movement in response to the driving movement of the drive motor and, wherein the tilting movement of the toggle lever actuates the tattooing needle into the puncturing movement and, wherein the toggle lever is connected via a bending spring to the needle holder, characterised in that the stiffness of the bending spring is adjustable so that the hardness of the puncturing movement is variable. - a drive motor for driving the tattooing needle, - a transmission unit, which converts a driving movement of the drive motor into a puncturing movement of the tattooing needle, causing said needle to penetrate the human skin, and - a needle holder to accommodate the tattooing needle,
A jointed member comprising: a first elongate section having a first surface defining a first oblong opening and a first abutment member; a second elongate section having a second surface defining a second oblong opening and a second abutment member; and a fastener passing through the first oblong opening and the second opening to connect the first elongate section and the second elongate section, where the first oblong opening and the second oblong opening move relative each other and the fastener as the jointed member transitions from a first predetermined state having a minimum overlap of the first oblong opening and the second oblong opening towards a second predetermined state having a maximum overlap of the first oblong opening and the second oblong opening relative the minimum overlap and where in the first predetermined state the first abutment member and the second abutment member are under a compressive force against each other while the first surface defining the first oblong opening and the second surface defining the second oblong opening apply a shearing stress to the fastener. a first elongate section having a first surface defining a first oblong opening and a first abutment member; a second elongate section having a second surface defining a second oblong opening and a second abutment member; and a fastener passing through the first oblong opening and the second opening to connect the first elongate section and the second elongate section, where the first oblong opening and the second oblong opening move relative each other and the fastener as the jointed member transitions from a first predetermined state having a minimum overlap of the first oblong opening and the second oblong opening towards a second predetermined state having a maximum overlap of the first oblong opening and the second oblong opening relative the minimum overlap and where in the first predetermined state the first abutment member and the second abutment member are under a compressive force against each other while the first surface defining the first oblong opening and the second surface defining the second oblong opening apply a shearing stress to the fastener.
An electronic device, comprising: a transparent cover; a light source comprising light emitting circuitry configured to emit a first light in a first direction; a first polarizer disposed between the light source and the cover and configured to linearly polarize the first light; a first phase retarder disposed between the first polarizer and the cover and configured to change a polarization of the first light from a linear polarization to a non-linear polarization, wherein the first phase retarder is configured to change a polarization of a second light that is a portion of the first light reflected from skin of a user having been transmitted through the cover, the change in the polarization of the second light being from a non-linear polarization to a linear polarization, so that the second light with changed polarization is at least partially blocked by the first polarizer; a fingerprint detecting device configured to detect a third light transmitted through the light source and forming a fingerprint image; and wherein the third light is a portion of the first light that is scattered from the skin. a transparent cover; a light source comprising light emitting circuitry configured to emit a first light in a first direction; a first polarizer disposed between the light source and the cover and configured to linearly polarize the first light; a first phase retarder disposed between the first polarizer and the cover and configured to change a polarization of the first light from a linear polarization to a non-linear polarization, wherein the first phase retarder is configured to change a polarization of a second light that is a portion of the first light reflected from skin of a user having been transmitted through the cover, the change in the polarization of the second light being from a non-linear polarization to a linear polarization, so that the second light with changed polarization is at least partially blocked by the first polarizer; a fingerprint detecting device configured to detect a third light transmitted through the light source and forming a fingerprint image; and wherein the third light is a portion of the first light that is scattered from the skin.
A wireless handheld microphone, comprising: a main body having a conductive housing and a tubular shape configured for handheld operation of the microphone; an opening included on a side surface of the conductive housing to provide access to one or more electronic components within the main body; a non-conductive cover coupled to the conductive housing for covering the opening, the non-conductive cover being curved to match a curvature of the conductive housing; characterized by an antenna positioned underneath the non-conductive cover and within the opening on the side surface, wherein an overall shape of the antenna is configured to conform to a curved shape of the non-conductive cover and to elevate the antenna above the one or more electronic components. a main body having a conductive housing and a tubular shape configured for handheld operation of the microphone; an opening included on a side surface of the conductive housing to provide access to one or more electronic components within the main body; a non-conductive cover coupled to the conductive housing for covering the opening, the non-conductive cover being curved to match a curvature of the conductive housing; characterized by an antenna positioned underneath the non-conductive cover and within the opening on the side surface, wherein an overall shape of the antenna is configured to conform to a curved shape of the non-conductive cover and to elevate the antenna above the one or more electronic components.
An apparatus, comprising: a device comprising a die and comprising a first input or output, I/O, port (314_1, 354_1), a second I/O port (317, 357), and a third I/O port (316_1, 356_1), a circuit board outside the device, the circuit board including at least a portion of a radio frequency, RF, chain, wherein the first, second, and third I/O ports are electrically coupled to the circuit board and are electrically coupled to the die, the second I/O port located between the first I/O port and the third I/O port, wherein the first, second, and third I/O ports are located along at least one geometric axis; and a variable capacitor electrically connected to the second I/O port and configurable to adjust isolation between the first I/O port and the third I/O port, wherein the variable capacitor is not electrically connected to an antenna contained in the circuit board, wherein the variable capacitor is electrically connected to ground on the circuit board or is electrically connected to passive elements on the circuit board which are connected to ground. a device comprising a die and comprising a first input or output, I/O, port (314_1, 354_1), a second I/O port (317, 357), and a third I/O port (316_1, 356_1), a circuit board outside the device, the circuit board including at least a portion of a radio frequency, RF, chain, wherein the first, second, and third I/O ports are electrically coupled to the circuit board and are electrically coupled to the die, the second I/O port located between the first I/O port and the third I/O port, wherein the first, second, and third I/O ports are located along at least one geometric axis; and a variable capacitor electrically connected to the second I/O port and configurable to adjust isolation between the first I/O port and the third I/O port, wherein the variable capacitor is not electrically connected to an antenna contained in the circuit board, wherein the variable capacitor is electrically connected to ground on the circuit board or is electrically connected to passive elements on the circuit board which are connected to ground.
A production system for fabricating data cards for security documents from a laminated composite consisting of at least two layers laminated together, said production system comprising at least one production line, including: - a transporting apparatus which comprises a plurality of workpiece supports that may be moved along a transport path of the transporting apparatus, - a placement station comprising a magazine for storing card blanks that have been cut to a finished size and comprising a handling device for placing a card blank picked from the magazine onto the workpiece support, - a printing station in which a card blank supplied by the workpiece support may undergo printing, - a subsequent output station by which at least one covering layer may be disposed on the printed card blank, - a lamination station for laminating together the printed card blank and the at least one covering layer, - a processing station in which the laminated card blank may be punched or cut to a finished size of the data card, - wherein the workpiece supports are moved along an endless transport path through all stations (26, 28, 33, 36, 41, 46) associated with said transport path, with the duration of time spent in each station being individually controlled. - a transporting apparatus which comprises a plurality of workpiece supports that may be moved along a transport path of the transporting apparatus, - a placement station comprising a magazine for storing card blanks that have been cut to a finished size and comprising a handling device for placing a card blank picked from the magazine onto the workpiece support, - a printing station in which a card blank supplied by the workpiece support may undergo printing, - a subsequent output station by which at least one covering layer may be disposed on the printed card blank, - a lamination station for laminating together the printed card blank and the at least one covering layer, - a processing station in which the laminated card blank may be punched or cut to a finished size of the data card, - wherein the workpiece supports are moved along an endless transport path through all stations (26, 28, 33, 36, 41, 46) associated with said transport path, with the duration of time spent in each station being individually controlled.