mhurhangee/ep-ind-claims huggingface dataset:
An awl for use with a reciprocating device having a reciprocating portion, the awl comprises: - a mounting portion for operably engaging the reciprocating portion; - a shaft portion with an end for forming an awl feature on a sheet of material, and - a mass portion for increasing the inertia of the awl when the reciprocating portion is reciprocated toward the sheet of material, the shaft portion defines a longitudinal axis, and the end defines a substantially circular edge that is disposed in a plane, the plane being substantially perpendicular to the longitudinal axis, characterized in that the mass portion is located between the mounting portion and the shaft portion, the shaft portion includes a cavity therein that extends from the end along the shaft portion and that the mounting portion, the mass portion and the shaft portion are integrally attached so as to be monolithic. - a mounting portion for operably engaging the reciprocating portion; - a shaft portion with an end for forming an awl feature on a sheet of material, and - a mass portion for increasing the inertia of the awl when the reciprocating portion is reciprocated toward the sheet of material,
A method performed by a terminal device, the method comprising: • receiving first signaling from a network device, wherein the first signaling comprises first information, the first information is used to indicate a quantity N of transmitted precoding matrix indicators, TPMIs, in second signaling, and N is a positive integer (S 210); • receiving, based on the first signaling, the second signaling from the network device, wherein the second signaling is used to indicate resource scheduling information of the terminal device and the N TPMIs, the resource scheduling information is used to indicate n scheduled physical resource blocks PRBs of M PRBs comprised in a communication bandwidth, the N TPMIs are used to indicate a precoding matrix of the n PRBs, the n PRBs are classified into N PRB groups, each of the N PRB groups comprises x i PRBs, the i th TPMI of the N TPMIs is used to indicate a precoding matrix of the i th PRB group of the N PRB groups, i ∈ {1,···,N}, M, n, and x i are all positive integers, x 1 +... + x N =n, and n is less than or equal to M (S 220), wherein the first information is a value of N; or the first information comprises a quantity of bits in a TPMI field in the second signaling, and the quantity of bits in the TPMI field corresponds to the quantity N of TPMIs; or the first information comprises a bandwidth with m PRBs, and the m PRBs are associated with the N TPMIs, wherein m is a positive integer, and m is less than M. • receiving first signaling from a network device, wherein the first signaling comprises first information, the first information is used to indicate a quantity N of transmitted precoding matrix indicators, TPMIs, in second signaling, and N is a positive integer (S 210); • receiving, based on the first signaling, the second signaling from the network device, wherein the second signaling is used to indicate resource scheduling information of the terminal device and the N TPMIs, the resource scheduling information is used to indicate n scheduled physical resource blocks PRBs of M PRBs comprised in a communication bandwidth, the N TPMIs are used to indicate a precoding matrix of the n PRBs, the n PRBs are classified into N PRB groups, each of the N PRB groups comprises x i PRBs, the i th TPMI of the N TPMIs is used to indicate a precoding matrix of the i th PRB group of the N PRB groups, i ∈ {1,···,N}, M, n, and x i are all positive integers, x 1 +... + x N =n, and n is less than or equal to M (S 220), wherein the first information is a value of N; or the first information comprises a quantity of bits in a TPMI field in the second signaling, and the quantity of bits in the TPMI field corresponds to the quantity N of TPMIs; or the first information comprises a bandwidth with m PRBs, and the m PRBs are associated with the N TPMIs, wherein m is a positive integer, and m is less than M.
A sensor clip assembly for storing and dispensing analyte testing sensors, the sensor clip assembly comprising: a plurality of test sensors arranged in a stack, each of the test sensors being configured to assist in testing an analyte in a fluid sample; and a skeletal frame with a top, a bottom, and a plurality of sides, the top, bottom and sides being interconnected to define an internal chamber within which is stored the stack of test sensors, at least one of the sides including a plurality of elongated rails spaced from one another by structural gaps, wherein the bottom of the skeletal frame includes a pair of opposing flexible tabs and defines an aperture configured to receive therethrough the stack of test sensors, the flexible tabs being configured to retain the stack of test sensors inside the internal chamber and flex such that the stack of test sensors can pass through the bottom of the skeletal frame into the internal chamber. a plurality of test sensors arranged in a stack, each of the test sensors being configured to assist in testing an analyte in a fluid sample; and a skeletal frame with a top, a bottom, and a plurality of sides, the top, bottom and sides being interconnected to define an internal chamber within which is stored the stack of test sensors, at least one of the sides including a plurality of elongated rails spaced from one another by structural gaps, wherein the bottom of the skeletal frame includes a pair of opposing flexible tabs and defines an aperture configured to receive therethrough the stack of test sensors, the flexible tabs being configured to retain the stack of test sensors inside the internal chamber and flex such that the stack of test sensors can pass through the bottom of the skeletal frame into the internal chamber.
An instrumentation system for monitoring one or more valves of a sub-sea Xmas-tree in an oil and/or gas production assembly, wherein said system includes one or more sensors coupled to said one or more valves, and a data processing arrangement for processing sensor signals generated by said one or more sensors to provide an indication of operation of said one or more valves, wherein each valve includes a corresponding adjustable flow controlling element, and an actuator arrangement for actuating said flow controlling element, and characterised in that: said one or more sensors are operable to sense: 1) a torque generated by said actuator arrangement when actuating said element, and 2) a dynamic pressure difference across said element; a cavity pressure indicative of leakage of one or more seals of said element; and a pressure of actuating fluid supplied to said actuator arrangement, wherein said data processing arrangement are operable to compute one or more risk factors, based on the sensor signals from said one or more sensors of the measured torque 1) and pressures 2) in the valves of the sub-sea Xmas-tree, and compared against one or more threshold levels or values, which is indicative of operating reliability and/or safety of the valves. 1) a torque generated by said actuator arrangement when actuating said element, and 2) a dynamic pressure difference across said element; a cavity pressure indicative of leakage of one or more seals of said element; and a pressure of actuating fluid supplied to said actuator arrangement,
A kit for immobilization of a patient body part for radiotherapy applications comprising two moldable thermoplastic sheets (11, 11'), a lower sheet for covering the anatomical contours of a first area of said body part and an upper sheet for covering the anatomical contours of a second area of said body part which is not covered by the lower sheet thereby forming a double shell mask enclosing said body part, the sheets are suitable to be connected and retained by a fixation device; wherein said sheets (11, 11') have different physical properties characterised in that the yield strain ratio of the lower sheet to the upper sheet is of from 0.005 to 0.03 and the yield strain of the lower sheet is from 0.5 to 8%.
A method for performing handover by a User Equipment, UE, in a mobile communication system, the method comprising the steps of: transmitting Packet Data Convergence Protocol, PDCP, Packet Data Units, PDUs, correctly received from a source cell, together with a special indication requiring reordering of the PDCP PDUs, from a Radio Link Control, RLC, receiving buffer to a PDCP receiving entity when a handover command message from the source cell to a target cell is received; checking sequence numbers of the said PDCP PDUs and buffering (535;935) out-of-sequence PDCP PDUs from the said PDCP PDUs in a PDCP PDU reordering buffer by the PDCP receiving entity in response to the special indication; transmitting (540;940) a PDCP PDU reception status including sequence numbers of missing PDCP PDUs and received PDCP PDUs to the target cell; receiving a PDCP PDU, which was not correctly received by a UE from the source cell, through a new RLC receiving entity for the target cell; and outputting (555;955) PDCP PDUs up to a first missing PDCP PDU having a sequence number higher than that of the said PDCP PDU received from the target cell among the buffered out-of-sequence PDCP PDUs in the PDCP reordering buffer. transmitting Packet Data Convergence Protocol, PDCP, Packet Data Units, PDUs, correctly received from a source cell, together with a special indication requiring reordering of the PDCP PDUs, from a Radio Link Control, RLC, receiving buffer to a PDCP receiving entity when a handover command message from the source cell to a target cell is received; checking sequence numbers of the said PDCP PDUs and buffering (535;935) out-of-sequence PDCP PDUs from the said PDCP PDUs in a PDCP PDU reordering buffer by the PDCP receiving entity in response to the special indication; transmitting (540;940) a PDCP PDU reception status including sequence numbers of missing PDCP PDUs and received PDCP PDUs to the target cell; receiving a PDCP PDU, which was not correctly received by a UE from the source cell, through a new RLC receiving entity for the target cell; and outputting (555;955) PDCP PDUs up to a first missing PDCP PDU having a sequence number higher than that of the said PDCP PDU received from the target cell among the buffered out-of-sequence PDCP PDUs in the PDCP reordering buffer.
A sensor unit comprising: a magnetic sensor adapted to detect a magnetic field; a light source adapted to transmit a radiation having a signature; a reflecting member for reflecting radiation emitted by the light source; a radiation sensor adapted to detect radiation reflected by the reflecting member; and a controller adapted to receive a signal output from the magnetic sensor and a signal output from the radiation sensor, and to_generate a signal indicative of a security breach based on the signal output received from the magnetic sensor and the signal output received from the radiation sensor, when the magnetic field is detected by the magnetic sensor and the signature is not identified in the radiation received by the radiation sensor. a magnetic sensor adapted to detect a magnetic field; a light source adapted to transmit a radiation having a signature; a reflecting member for reflecting radiation emitted by the light source; a radiation sensor adapted to detect radiation reflected by the reflecting member; and a controller adapted to receive a signal output from the magnetic sensor and a signal output from the radiation sensor, and to_generate a signal indicative of a security breach based on the signal output received from the magnetic sensor and the signal output received from the radiation sensor, when the magnetic field is detected by the magnetic sensor and the signature is not identified in the radiation received by the radiation sensor.
A reed for a weaving machine with reed teeth, which are aligned next to each other by aggregation of their lower ends in a reed collar in a longitudinal direction of the reed in such a way that the upper ends of the reed teeth form comb gaps open upwards on one side, characterized in that there are several groups of reed teeth, wherein each reed tooth of a first group has an insertion bevel pointing in the longitudinal direction of the reed on its upper end, which is designed in such a way that it at least partially covers the opening pointing upwards of an adjacent reed gap and that there is a second group of reed teeth, which have no such insertion bevels.
A method for controlling the signal level of a signal (s(t)) at a predetermined location in a signal path of a receiver chain in a receiver, comprising the steps of: - measuring (STEP 100) the signal level (g(t)) of the signal (s(t)); - generating (STEP 102) an error signal (eg(t)) as the difference between the measured signal level (g(t)) and a target signal level (g ref); - controlling said signal level by controlling a gain of said receiver chain based on said error signal, wherein said method is characterized in that said step of controlling the gain comprises the steps of: - generating a modified alternative oscillator signal by modifying a local oscillator signal (LO in) having a first period and a first pulse width, wherein said modifying comprises modifying the period of the local oscillator signal or modifying the pulse width of said local oscillator signal, and wherein said modified alternative oscillator signal is comprised in a plurality of alternative oscillator signals (51:1 to 51:n); - selecting (STEP 104a), based on said error signal, an alternative oscillator signal from the plurality of alternative oscillator signals (51:1 to 51:n); and - providing (STEP 104b) the selected alternative oscillator signal to a signal mixer located in the receiver chain upstream of said predetermined location for frequency translation of an input signal to said signal mixer. - measuring (STEP 100) the signal level (g(t)) of the signal (s(t)); - generating (STEP 102) an error signal (eg(t)) as the difference between the measured signal level (g(t)) and a target signal level (g ref); - controlling said signal level by controlling a gain of said receiver chain based on said error signal, - generating a modified alternative oscillator signal by modifying a local oscillator signal (LO in) having a first period and a first pulse width, wherein said modifying comprises modifying the period of the local oscillator signal or modifying the pulse width of said local oscillator signal, and wherein said modified alternative oscillator signal is comprised in a plurality of alternative oscillator signals (51:1 to 51:n); - selecting (STEP 104a), based on said error signal, an alternative oscillator signal from the plurality of alternative oscillator signals (51:1 to 51:n); and - providing (STEP 104b) the selected alternative oscillator signal to a signal mixer located in the receiver chain upstream of said predetermined location for frequency translation of an input signal to said signal mixer.
A delta-sigma modulator comprising: a first summing point (310; 415) for subtracting a first feedback signal from an input signal and for forwarding a result to a transfer function (320; 420); a second summing point (330; 470) for adding an output signal from said transfer function (320; 420) to said input signal and for subtracting a second feedback signal; a first integrator (340; 475) for receiving an output signal from said second summing point (330; 470); a quantizer (350; 455) for receiving an output signal from said integrator (340; 475) and for generating an output bitstream; a charge-transfer digital-to-analog converter (360; 460, 480) for receiving said bitstream, characterized in that the first and second feedback signal are the output signal from said charge-transfer digital-to-analog converter (360; 460, 480), and in that the delta-sigma modulator (300, 400) is configured to operate with a charge phase followed by a transfer phase for each sample and further configured to perform quantization during a latch phase (ff) at the end of the transfer phase, wherein the charge-transfer digital-to analog converter (360; 460; 480) is configured to receive digital input value of the output bitstream from the quantizer at the end of the transfer phase and requires the next charge phase and the transfer phase to process the input signal thereby having a delay of one sample. a first summing point (310; 415) for subtracting a first feedback signal from an input signal and for forwarding a result to a transfer function (320; 420); a second summing point (330; 470) for adding an output signal from said transfer function (320; 420) to said input signal and for subtracting a second feedback signal; a first integrator (340; 475) for receiving an output signal from said second summing point (330; 470); a quantizer (350; 455) for receiving an output signal from said integrator (340; 475) and for generating an output bitstream; a charge-transfer digital-to-analog converter (360; 460, 480) for receiving said bitstream, characterized in that the first and second feedback signal are the output signal from said charge-transfer digital-to-analog converter (360; 460, 480), and in that the delta-sigma modulator (300, 400) is configured to operate with a charge phase followed by a transfer phase for each sample and further configured to perform quantization during a latch phase (ff) at the end of the transfer phase, wherein the charge-transfer digital-to analog converter (360; 460; 480) is configured to receive digital input value of the output bitstream from the quantizer at the end of the transfer phase and requires the next charge phase and the transfer phase to process the input signal thereby having a delay of one sample.
Laser device, in particular for ophthalmological laser surgery, comprising - a laser source for providing laser radiation, - controllable scanning components for setting a focal position of the laser radiation, - measuring components for capturing information which is representative of an actual position of the radiation focus, - a control arrangement which controls the laser source and the scanning components and which is configured to effectuate the carrying out of a test mode run of at least some of the scanning components in accordance with a predetermined test scanning pattern when the laser source is switched off, wherein the test scanning pattern defines at least one scanning path (32, 34) for the radiation focus and the control arrangement is configured to effectuate the capture of the actual focal position a number of times in succession during a scanning movement along the scanning path, without an interruption of the scanning movement, and ascertain an intended focal position assigned to each captured actual focal position, characterized in that the test scanning pattern defines at least one scanning path (32, 34) for the radiation focus which scanning path, at at least one point, extends along the boundary of a given maximum scanning field which is restricted by structural specifications. - a laser source for providing laser radiation, - controllable scanning components for setting a focal position of the laser radiation, - measuring components for capturing information which is representative of an actual position of the radiation focus, - a control arrangement which controls the laser source and the scanning components and which is configured to effectuate the carrying out of a test mode run of at least some of the scanning components in accordance with a predetermined test scanning pattern when the laser source is switched off, wherein the test scanning pattern defines at least one scanning path (32, 34) for the radiation focus and the control arrangement is configured to effectuate the capture of the actual focal position a number of times in succession during a scanning movement along the scanning path, without an interruption of the scanning movement, and ascertain an intended focal position assigned to each captured actual focal position,
A continuous method for forming a layered pack of glass fibers comprising: melting glass; processing the molten glass to form glass fibers; collecting the glass fibers in an accumulator to allow the glass fibers to cool; forming a binderless web from the glass fibers; lapping the binderless web of glass fibers to form a layered pack of glass fibers; mechanically entangling the fibers of the layered pack of glass fibers, wherein the glass fibers have a diameter range of in a range of from 2.3 micrometers to 8.9 micrometers (9 HT to 35 HT); wherein the glass fibers have a length range from about 0.64 cm (about 0.25 inches) to about 25.4 cm (about 10.0 inches); and wherein said layered pack of glass fibers has a density of 14.42 kg/m 3 to 67.28 kg/m 3 (0.9 lb/ft 3 to 4.2 lb/ft 3). melting glass; processing the molten glass to form glass fibers; collecting the glass fibers in an accumulator to allow the glass fibers to cool; forming a binderless web from the glass fibers; lapping the binderless web of glass fibers to form a layered pack of glass fibers; mechanically entangling the fibers of the layered pack of glass fibers, wherein the glass fibers have a diameter range of in a range of from 2.3 micrometers to 8.9 micrometers (9 HT to 35 HT); wherein the glass fibers have a length range from about 0.64 cm (about 0.25 inches) to about 25.4 cm (about 10.0 inches); and wherein said layered pack of glass fibers has a density of 14.42 kg/m 3 to 67.28 kg/m 3 (0.9 lb/ft 3 to 4.2 lb/ft 3).
A component comprising: a vertical Shockley diode comprising from top to bottom: - a first region of a first conductivity type, - a substrate of a second conductivity type, - a second region of the first conductivity type having a third region of the second conductivity type formed therein, the component comprising: - a first metallization in contact with the first region and linked to an anode electrode, - a second metallization in contact with the third region and linked to a cathode electrode, this component further comprising a first vertical transistor (T2'), this transistor comprising from top to bottom: - a portion of said substrate separated from the Shockley diode by a vertical wall, - a portion of the second region, - a fourth region of same nature as the third region, formed in said portion of the second region, the third region being connected to the fourth region, and the component comprising: - a third metallization linked to the cathode electrode and in contact with the fourth region, the metallizations being in contact neither with the substrate nor with the second region; - a fourth metallization linked to a third electrode (READ) in contact with said portion of said substrate via a highly doped region of the second conductivity type. - a first region of a first conductivity type, - a substrate of a second conductivity type, - a second region of the first conductivity type having a third region of the second conductivity type formed therein, the component comprising: - a first metallization in contact with the first region and linked to an anode electrode, - a second metallization in contact with the third region and linked to a cathode electrode, - a portion of said substrate separated from the Shockley diode by a vertical wall, - a portion of the second region, - a fourth region of same nature as the third region, formed in said portion of the second region, the third region being connected to the fourth region, and - a third metallization linked to the cathode electrode and in contact with the fourth region, the metallizations being in contact neither with the substrate nor with the second region; - a fourth metallization linked to a third electrode (READ) in contact with said portion of said substrate via a highly doped region of the second conductivity type.