mhurhangee/ep-ind-claims huggingface dataset:
A method operable at a docking station for wireless communication with a dockee, the method comprising: determining an association with an environment (710,712), wherein the determination of the association with the environment is based on an address or an identifier accessible to the docking station; storing data that is configured to control a modality of the dockee according to settings corresponding to the environment, the data pertaining to at least one parameter, at least one function, or a combination thereof that characterizes a behavior of one or more components of the dockee; determining whether a condition is satisfied during a docking session with the dockee; and transmitting the data to the dockee if the condition is satisfied. determining an association with an environment (710,712), wherein the determination of the association with the environment is based on an address or an identifier accessible to the docking station; storing data that is configured to control a modality of the dockee according to settings corresponding to the environment, the data pertaining to at least one parameter, at least one function, or a combination thereof that characterizes a behavior of one or more components of the dockee; determining whether a condition is satisfied during a docking session with the dockee; and transmitting the data to the dockee if the condition is satisfied.
A vehicle lamp comprising: a semiconductor light emitting device; a thermally conductive portion (24, 26) which is in contact with the semiconductor light emitting device; a heatsink configured to dissipate a heat generated by the semiconductor light emitting device; and a housing in which the semiconductor light emitting device, the thermally conductive portion (24, 26) and the heatsink are accommodated, and wherein the heatsink comprises: a base which is in contact with the thermally conductive portion (24, 26); the heatsink further comprises: a plurality of plate fins which are arranged at intervals to protrude in parallel from the base, each of the plate fins comprising a plate surface which faces the plate surface of an adjacent one of the plate fins and which upwardly extends in a direction along the base, characterized in that: a direction, in which the plate fins extend, is set such that a plane parallel to the plate fins is oblique with respect to a vertical direction, such that a part of the air, that is warmed by the heat dissipated from the plate fins and rises through the gaps between adjacent plate fins, turns in the vertical direction and subsequently circulates inside the housing after colliding with the inner surface of a side wall of the housing. a semiconductor light emitting device; a thermally conductive portion (24, 26) which is in contact with the semiconductor light emitting device; a heatsink configured to dissipate a heat generated by the semiconductor light emitting device; and a housing in which the semiconductor light emitting device, the thermally conductive portion (24, 26) and the heatsink are accommodated, and a base which is in contact with the thermally conductive portion (24, 26); the heatsink further comprises: a plurality of plate fins which are arranged at intervals to protrude in parallel from the base, each of the plate fins comprising a plate surface which faces the plate surface of an adjacent one of the plate fins and which upwardly extends in a direction along the base, characterized in that: a direction, in which the plate fins extend, is set such that a plane parallel to the plate fins is oblique with respect to a vertical direction, such that a part of the air, that is warmed by the heat dissipated from the plate fins and rises through the gaps between adjacent plate fins, turns in the vertical direction and subsequently circulates inside the housing after colliding with the inner surface of a side wall of the housing.
A method for processing a control channel at a user agent to identify at least one of an uplink and a downlink resource allocated by a resource grant within a multi-carrier communication system wherein resource grants are specified by control channel element subsets, wherein each control channel element subset is a control channel candidate, the method comprising the steps of: associating a first subset of control channel candidates on a first carrier with the first carrier, wherein the first subset associated with the first carrier includes first carrier candidates; associating a second subset of control channel candidates on the first carrier with a second carrier, wherein the second subset associated with the second carrier includes second carrier candidates; receiving a control channel candidate on the first carrier; and attempting to decode the received control channel candidate to identify a resource grant for the second carrier, wherein there are first, second, fourth and eighth aggregation levels of control channel element subset candidates, and wherein the location of control channel elements corresponding to first carrier control channel candidates and second carrier control channel candidates at each aggregation level are each determined by pseudorandom number. associating a first subset of control channel candidates on a first carrier with the first carrier, wherein the first subset associated with the first carrier includes first carrier candidates; associating a second subset of control channel candidates on the first carrier with a second carrier, wherein the second subset associated with the second carrier includes second carrier candidates; receiving a control channel candidate on the first carrier; and attempting to decode the received control channel candidate to identify a resource grant for the second carrier, wherein there are first, second, fourth and eighth aggregation levels of control channel element subset candidates, and wherein the location of control channel elements corresponding to first carrier control channel candidates and second carrier control channel candidates at each aggregation level are each determined by pseudorandom number.
A method for determining the presence or absence of a fetal aneuploidy, the method comprising: From a mixed maternal blood sample comprising fetal and maternal cells; (a) enriching the mixed maternal blood sample for fetal cells; (b) binning the enriched sample to provide a pure fetal cell or several pure fetal cells; (c) quantifying a plurality of genomic DNA regions in each of two or more chromosomes from the enriched and binned maternal blood sample, wherein at least one of said chromosomes is a suspected aneuploid chromosome and at least one of said chromosomes is a control chromosome, and wherein the step of quantifying comprises amplification and uses a comparative genomic hybridization array without performing a single nucleotide polymorphism analysis or a short tandem repeat analysis; (d) inputting the data from the quantifying step into a predetermined data model for the association of genomic DNA quantity with maternal and non-maternal alleles; and (e) determining the presence or absence of said fetal aneuploidy from the data from (d) using a computer executable logic. From a mixed maternal blood sample comprising fetal and maternal cells; (a) enriching the mixed maternal blood sample for fetal cells; (b) binning the enriched sample to provide a pure fetal cell or several pure fetal cells; (c) quantifying a plurality of genomic DNA regions in each of two or more chromosomes from the enriched and binned maternal blood sample, wherein at least one of said chromosomes is a suspected aneuploid chromosome and at least one of said chromosomes is a control chromosome, and wherein the step of quantifying comprises amplification and uses a comparative genomic hybridization array without performing a single nucleotide polymorphism analysis or a short tandem repeat analysis; (d) inputting the data from the quantifying step into a predetermined data model for the association of genomic DNA quantity with maternal and non-maternal alleles; and (e) determining the presence or absence of said fetal aneuploidy from the data from (d) using a computer executable logic. (a) enriching the mixed maternal blood sample for fetal cells; (b) binning the enriched sample to provide a pure fetal cell or several pure fetal cells; (c) quantifying a plurality of genomic DNA regions in each of two or more chromosomes from the enriched and binned maternal blood sample, wherein at least one of said chromosomes is a suspected aneuploid chromosome and at least one of said chromosomes is a control chromosome, and wherein the step of quantifying comprises amplification and uses a comparative genomic hybridization array without performing a single nucleotide polymorphism analysis or a short tandem repeat analysis; (d) inputting the data from the quantifying step into a predetermined data model for the association of genomic DNA quantity with maternal and non-maternal alleles; and (e) determining the presence or absence of said fetal aneuploidy from the data from (d) using a computer executable logic.
A recombinant complement regulator protein, comprising: a) at least one complement interaction region operable to regulate complement through the alternative complement pathway and bind the complement regulator protein to at least one target, the complement interaction region comprising at least one Factor H fragment, wherein the at least one FH fragment comprises at least one FH complement control protein domain and at least one further FH CCP domain operable to bind the complement regulator protein to the at least one target and/or at least one further target; and b) at least one dimerization region operable to dimerize the complement regulator protein, wherein the dimerization region comprises two or more CCP domains and wherein the dimerization region comprises at least one Factor H Related protein CCP domain derived from or that are fragments of FHR1, FHR2 and/or FHR5. a) at least one complement interaction region operable to regulate complement through the alternative complement pathway and bind the complement regulator protein to at least one target, the complement interaction region comprising at least one Factor H fragment, wherein the at least one FH fragment comprises at least one FH complement control protein domain and at least one further FH CCP domain operable to bind the complement regulator protein to the at least one target and/or at least one further target; and b) at least one dimerization region operable to dimerize the complement regulator protein, wherein the dimerization region comprises two or more CCP domains and wherein the dimerization region comprises at least one Factor H Related protein CCP domain derived from or that are fragments of FHR1, FHR2 and/or FHR5.
Medical instrument having a shank, a tool which is arranged on the distal end of the shank and consists of two pivotable jaw parts (5, 6), wherein the pivotable jaw parts (5, 6) can additionally be angled in relation to a longitudinal axis of the shank, and having a handle which is arranged on the proximal end of the shank, wherein two separate drives (10, 11) are arranged on the handle, wherein a first drive for pivoting a first jaw part relative to the second jaw part is designed as a grip part which is mounted pivotable on the handle and is operatively connected to the first pivotable jaw part of the tool via a first pull/push rod which is mounted in an axially displaceable manner in the shank, wherein the pivoting of the two jaw parts (5 and 6) relative to one another and the angling of the jaw parts (5 and 6) in relation to the longitudinal axis of the shank are effected about the same pivot axis, wherein the pivot axis is arranged eccentrically with respect to the longitudinal axis of the shank characterized in that the second drive for angling the two jaw parts (5, 6) in relation to the longitudinal axis of the shank is operatively connected to the second jaw part of the tool via a second rod which is mounted in an axially displaceable manner in the shank, and wherein, the rod which is arranged in the shank is fixedly connected to the handle on its proximal end and provides a fixed pivot about which second jaw part may pivot on its distal end and in that the pull/push rod and rod are arranged parallel side by side in a hollow shank tube of the shank, and in that the two rods (15 and 19) arranged parallel side by side together comprise a circular cross section.
A rotary cutting head system for a vegetation cutting device comprising: a cutting filament insert having a cutting filament and an anchor mounted thereto, and a cap comprising: a base; and a peripheral wall having at least one through hole for receiving the cutting filament, characterised in that there is also provided a protruding element on the anchor and a slot mounted on the cap for retaining the protruding element of the anchor,wherein when the cutting filament insert is mounted in the cap, the protruding element of the anchor is configured to slide into the slot and to prevent lateral movement of the anchor towards the at least one through hole and to allow the anchor to slide along a path substantially parallel with the axis of rotation of the rotary cutting head. a cutting filament insert having a cutting filament and an anchor mounted thereto, and a cap comprising: a base; and a peripheral wall having at least one through hole for receiving the cutting filament, characterised in that there is also provided a protruding element on the anchor and a slot mounted on the cap for retaining the protruding element of the anchor,wherein when the cutting filament insert is mounted in the cap, the protruding element of the anchor is configured to slide into the slot and to prevent lateral movement of the anchor towards the at least one through hole and to allow the anchor to slide along a path substantially parallel with the axis of rotation of the rotary cutting head. a base; and a peripheral wall having at least one through hole for receiving the cutting filament, characterised in that there is also provided a protruding element on the anchor and a slot mounted on the cap for retaining the protruding element of the anchor,wherein when the cutting filament insert is mounted in the cap, the protruding element of the anchor is configured to slide into the slot and to prevent lateral movement of the anchor towards the at least one through hole and to allow the anchor to slide along a path substantially parallel with the axis of rotation of the rotary cutting head.
Transmitting means for communicating in water with a receiving means in an underwater radio communication system with electromagnetic waves, the transmitting means comprising: first distortion compensation means configured to apply, to a transmitting signal, a pre-distortion for compensating for a distortion resulting from propagation in seawater in accordance with a frequency of the electromagnetic waves due to an electrical conductivity of seawater, characterized in that the transmitting means further comprising distance determination means (32,47,57) configured to determine a transmission distance between the transmitting means and the receiving means, wherein the first compensation means is configured to determine an amplitude and a phase for the pre-distortion in accordance with a frequency of the transmitting signal and the transmission distance. first distortion compensation means configured to apply, to a transmitting signal, a pre-distortion for compensating for a distortion resulting from propagation in seawater in accordance with a frequency of the electromagnetic waves due to an electrical conductivity of seawater, characterized in that the transmitting means further comprising distance determination means (32,47,57) configured to determine a transmission distance between the transmitting means and the receiving means, wherein the first compensation means is configured to determine an amplitude and a phase for the pre-distortion in accordance with a frequency of the transmitting signal and the transmission distance.
An apparatus (100, 200), comprising: a first input device (106, 206) to receive a first input based on a setting; a second input device (108, 208) to receive a second input based on the setting; a third input device (110, 210) to receive a third input based on the setting; and a circuit (112, 212) coupled to the first input device, the second input device, and the third input device, wherein in response to the first input, the second input, and the third input, the circuit is to provide a first voltage to a first pin of a serial port and a second voltage to a second pin of the serial port, and wherein the first voltage and the second voltage are defined by the setting. a first input device (106, 206) to receive a first input based on a setting; a second input device (108, 208) to receive a second input based on the setting; a third input device (110, 210) to receive a third input based on the setting; and a circuit (112, 212) coupled to the first input device, the second input device, and the third input device, wherein in response to the first input, the second input, and the third input, the circuit is to provide a first voltage to a first pin of a serial port and a second voltage to a second pin of the serial port, and wherein the first voltage and the second voltage are defined by the setting. wherein in response to the first input, the second input, and the third input, the circuit is to provide a first voltage to a first pin of a serial port and a second voltage to a second pin of the serial port, and wherein the first voltage and the second voltage are defined by the setting.
A medical article comprising: a tube with an interior surface and an exterior surface, comprising a polymer composition containing one or more extractable components; and a vapor-deposited coating of a barrier polymer derived from at least one ethylenically unsaturated monomer covering at least a portion of at least the exterior surface of the tube, such that the vapor-deposited polymer coating barrier reduces the extraction of extractable component(s) from the tube, wherein the vapor-deposited barrier polymer comprises parylene, or a copolymer of parylene. a tube with an interior surface and an exterior surface, comprising a polymer composition containing one or more extractable components; and a vapor-deposited coating of a barrier polymer derived from at least one ethylenically unsaturated monomer covering at least a portion of at least the exterior surface of the tube, such that the vapor-deposited polymer coating barrier reduces the extraction of extractable component(s) from the tube, wherein the vapor-deposited barrier polymer comprises parylene, or a copolymer of parylene.
Method for detecting an implicit user ID of a received data packet, comprising the steps: - receiving a data packet composed of at least user data and an additional explicit address, - determining the explicit address of the received data packet, - determining at least one transmission parameter of the user data of the received data packet, - determining an implicit user ID of the data packet in dependence of the at least one determined transmission parameter, and - combining the implicit user ID and the explicit address to identify the origin of the data packet. - receiving a data packet composed of at least user data and an additional explicit address, - determining the explicit address of the received data packet, - determining at least one transmission parameter of the user data of the received data packet, - determining an implicit user ID of the data packet in dependence of the at least one determined transmission parameter, and - combining the implicit user ID and the explicit address to identify the origin of the data packet.
An image acquiring device comprising: voltage control means (30, 121,122) for generating first voltage information that identifies voltage applied to a first variable-focus lens which is included in first imaging means (20, 200A) installed in a position where a subject is photographed and whose focal length changes in accordance with an applied voltage, and generating second voltage information that identifies voltage applied to a second variable-focus lens which is included in second imaging means (21, 200B) installed in the position where the subject is photographed and whose focal length changes in accordance with an applied voltage; and image judgment means (40, 130) for inputting images from the first imaging means (20, 200A) and the second imaging means (21, 200B), and selecting one image taken at an in-focus position among input images, characterized in that the voltage control means (30, 121, 122) generates information, as the first voltage information, that identifies each voltage in a time series of voltages whose values change with time, and generates information, as the second voltage information, that identifies that each of the voltages identified by the first voltage information is applied to the second variable-focus lens after a predetermined period of delay, such that the second imaging means (21, 200B) captures images at the same focus positions as the first imaging means (20, 200A) but with the predetermined period of delay. voltage control means (30, 121,122) for generating first voltage information that identifies voltage applied to a first variable-focus lens which is included in first imaging means (20, 200A) installed in a position where a subject is photographed and whose focal length changes in accordance with an applied voltage, and generating second voltage information that identifies voltage applied to a second variable-focus lens which is included in second imaging means (21, 200B) installed in the position where the subject is photographed and whose focal length changes in accordance with an applied voltage; and image judgment means (40, 130) for inputting images from the first imaging means (20, 200A) and the second imaging means (21, 200B), and selecting one image taken at an in-focus position among input images, characterized in that the voltage control means (30, 121, 122) generates information, as the first voltage information, that identifies each voltage in a time series of voltages whose values change with time, and generates information, as the second voltage information, that identifies that each of the voltages identified by the first voltage information is applied to the second variable-focus lens after a predetermined period of delay, such that the second imaging means (21, 200B) captures images at the same focus positions as the first imaging means (20, 200A) but with the predetermined period of delay.