mhurhangee/ep-ind-claims huggingface dataset:
A navigation system comprising: a tracker (44, 46, 48, 49) including a radio frequency, RF, transmitter, an infrared, IR, receiver, one or more tracking markers, and one or more inertial sensors (60, 70) configured to generate inertial data; and a localization device including an RF receiver, an IR transmitter, and one or more tracking sensors, the localization device being configured to: detect a position of the one or more tracking markers of the tracker, with the one or more tracking sensors, using IR communication; communicate with the IR receiver of the tracker, using the IR transmitter, to manage an operating parameter of the tracker with respect to RF communication; and wirelessly receive, with the RF receiver, the inertial data generated by the tracker and transmitted by the RF transmitter of the tracker using RF communication in accordance with the operating parameter of the tracker managed using IR communication. a tracker (44, 46, 48, 49) including a radio frequency, RF, transmitter, an infrared, IR, receiver, one or more tracking markers, and one or more inertial sensors (60, 70) configured to generate inertial data; and a localization device including an RF receiver, an IR transmitter, and one or more tracking sensors, the localization device being configured to: detect a position of the one or more tracking markers of the tracker, with the one or more tracking sensors, using IR communication; communicate with the IR receiver of the tracker, using the IR transmitter, to manage an operating parameter of the tracker with respect to RF communication; and wirelessly receive, with the RF receiver, the inertial data generated by the tracker and transmitted by the RF transmitter of the tracker using RF communication in accordance with the operating parameter of the tracker managed using IR communication. detect a position of the one or more tracking markers of the tracker, with the one or more tracking sensors, using IR communication; communicate with the IR receiver of the tracker, using the IR transmitter, to manage an operating parameter of the tracker with respect to RF communication; and wirelessly receive, with the RF receiver, the inertial data generated by the tracker and transmitted by the RF transmitter of the tracker using RF communication in accordance with the operating parameter of the tracker managed using IR communication.
A composition comprising a monoacetyldiacylglycerol compound of Formula 1 as an active ingredient for use in inhibiting blood cancer, wherein the blood cancer is one selected from the group consisting of lymphoma, acute leukemia, chronic leukemia, and multiple myeloma. wherein R1 and R2 are independently a fatty acid group of 14 to 20 carbon atoms.
A method, comprising sending (21, 41), at a user device, a message addressed to a recipient user device via a first messaging service network element, receiving (22, 42), at said user device, from a messaging system, a notification of failure to deliver the message to the recipient user device, sending (23, 43), at said user device, said message to the recipient user device via a backup messaging service network element based on said notification of failure, and sending, at said user device, a message indicating the failed message need not be delivered offline and has been delivered by another messaging service network element, wherein said notification of failure comprises a query from the first messaging service network element for said message to be sent via the back-up messaging service network element when the recipient user device is unavailable, wherein said message sent via the backup messaging service network element is a message modified by the first messaging service network element, wherein the first messaging service network element and the backup messaging service network element are distinct from each other, and wherein the modified message comprises a message identifier to identify the message to be resent.
A valve, in particular for pressurized gas cylinder tap, comprising a body enclosing a gas passage, an obturator mobile in the gas passage along an upstream/downstream direction with respect to a seat, the obturator being mobile between a first and upstream position closing the gas passage and a second and downstream position opening the gas passage, the valve comprising a return organ urging the obturator toward the upstream first position, the obturator comprising an oblong shaped body, the return organ comprising a compression spring mounted on the obturator's body, the compression spring comprising an upstream end pressing on a supporting surface of the obturator and a downstream end pressing on a support ring sliding mounted around the obturator's body, the position of the support ring in the gas passage being blocked in the downstream direction by a fixed abutment located in the gas passage, wherein the valve comprises a deformable damping element located on the obturator's body between the support ring and the abutment characterised in that the damping element comprises an O-Ring made of at least one of the following material: plastic, rubber, and the abutment comprises a conical surface converging toward the downstream direction, the damping element being urged on said conical surface by the support ring pushed by the return organ.
A diene compound of the following Formula 1: wherein each R' is independently selected from C 1 -C 12 alkyl, C 6 -C 18 aryl, C 7 -C 18 alkylaryl, tri(C 1 -C 6 alkyl, C 6 -C 12 aryl or C 7 -C 18 alkylaryl)silyl and allyl, wherein two R' groups may be connected to form a ring and the ring may contain, further to the Si-bonded nitrogen atom, one or more of an oxygen atom, a nitrogen atom, an >N(C 1 -C 6 alkyl or C 7 -C 18 alkylaryl) group and a sulfur atom; each R" is independently selected from C 1 -C 6 hydrocarbyl; R a, R b, R c, R d and R e are independently selected from hydrogen, methyl and ethyl; x is an integer selected from 0, 1 and 2, y is an integer selected from 1, 2 and 3 and x + y = 3. each R' is independently selected from C 1 -C 12 alkyl, C 6 -C 18 aryl, C 7 -C 18 alkylaryl, tri(C 1 -C 6 alkyl, C 6 -C 12 aryl or C 7 -C 18 alkylaryl)silyl and allyl, wherein two R' groups may be connected to form a ring and the ring may contain, further to the Si-bonded nitrogen atom, one or more of an oxygen atom, a nitrogen atom, an >N(C 1 -C 6 alkyl or C 7 -C 18 alkylaryl) group and a sulfur atom; each R" is independently selected from C 1 -C 6 hydrocarbyl; R a, R b, R c, R d and R e are independently selected from hydrogen, methyl and ethyl; x is an integer selected from 0, 1 and 2, y is an integer selected from 1, 2 and 3 and x + y = 3.
A workpiece heating system for heating a workpiece supported on a mandrel, the system comprising: a mandrel; an outer shell configured to enclose the mandrel removably positionable within the outer shell, the mandrel having a mandrel proximal end, a mandrel distal end, a mandrel partside configured to support a workpiece, and a mandrel backside opposite the mandrel partside; a gas displacement device mounted within the outer shell and having an outer circumferential exit configured to discharge a gas toward the mandrel backside; at least one heat exchanger mounted within the outer shell upstream of the gas displacement device and configured to heat the gas prior to entering the gas displacement device; a hood system having a hood first wall and a hood second wall each configured to extend circumferentially in radially spaced relation to each other and in radially spaced relation respectively to the mandrel backside and the mandrel partside when the mandrel is positioned within the outer shell; the hood first wall and the mandrel backside collectively defining a first annular gap configured to receive the gas discharged from the gas displacement device and direct the gas in a generally axial direction along a first flow path segment from the mandrel proximal end to the mandrel distal end; and the hood second wall and the mandrel partside collectively defining a second annular gap configured to receive the gas from the first annular gap and direct the gas in a generally axial direction along a second flow path segment from the mandrel distal end to the mandrel proximal end. a mandrel; an outer shell configured to enclose the mandrel removably positionable within the outer shell, the mandrel having a mandrel proximal end, a mandrel distal end, a mandrel partside configured to support a workpiece, and a mandrel backside opposite the mandrel partside; a gas displacement device mounted within the outer shell and having an outer circumferential exit configured to discharge a gas toward the mandrel backside; at least one heat exchanger mounted within the outer shell upstream of the gas displacement device and configured to heat the gas prior to entering the gas displacement device; a hood system having a hood first wall and a hood second wall each configured to extend circumferentially in radially spaced relation to each other and in radially spaced relation respectively to the mandrel backside and the mandrel partside when the mandrel is positioned within the outer shell; the hood first wall and the mandrel backside collectively defining a first annular gap configured to receive the gas discharged from the gas displacement device and direct the gas in a generally axial direction along a first flow path segment from the mandrel proximal end to the mandrel distal end; and the hood second wall and the mandrel partside collectively defining a second annular gap configured to receive the gas from the first annular gap and direct the gas in a generally axial direction along a second flow path segment from the mandrel distal end to the mandrel proximal end.
A voltage source converter (30;130;230;330;430) comprising: first and second DC terminals (32,34) for connection to a DC electrical network; and a converter limb directly connected between the first and second DC terminals (32,34), the converter limb including: an AC terminal for connection to an AC electrical network; a first limb portion directly connected between the first DC terminal and the AC terminal; and a second limb portion directly connected between the second DC terminal and the AC terminal, characterised in that only one of the first and second limb portions (38,40) includes a multilevel converter block, the other of the first and second limb portions (38,40) including a switching block (48;72;74), the switching block (48;72;74) being switchable to selectively permit current flow in at least one direction in the corresponding limb portion and inhibit current flow in at least one direction in the corresponding limb portion, and at least one of the first and second limb portions (38,40) being controllable to control the configuration of an AC voltage waveform at the AC terminal. first and second DC terminals (32,34) for connection to a DC electrical network; and a converter limb directly connected between the first and second DC terminals (32,34), the converter limb including: an AC terminal for connection to an AC electrical network; a first limb portion directly connected between the first DC terminal and the AC terminal; and a second limb portion directly connected between the second DC terminal and the AC terminal, an AC terminal for connection to an AC electrical network; a first limb portion directly connected between the first DC terminal and the AC terminal; and a second limb portion directly connected between the second DC terminal and the AC terminal, characterised in that only one of the first and second limb portions (38,40) includes a multilevel converter block, the other of the first and second limb portions (38,40) including a switching block (48;72;74), the switching block (48;72;74) being switchable to selectively permit current flow in at least one direction in the corresponding limb portion and inhibit current flow in at least one direction in the corresponding limb portion, and at least one of the first and second limb portions (38,40) being controllable to control the configuration of an AC voltage waveform at the AC terminal.
A flow reactor comprising a tubular reaction line, wherein the flow reactor further comprises an internal temperature measurement unit provided at one or more locations of the tubular reaction line, the internal temperature measurement unit comprises a thermometer with a temperature sensor, the temperature sensor is inserted into the tubular reaction line, the tubular reaction line is helical and comprises a straight flow channel in part of the tubular reaction line, the straight flow channel is substantially parallel to a helical axis of the helical tubular reaction line, and the internal temperature measurement unit is positioned in the straight flow channel. wherein the flow reactor further comprises an internal temperature measurement unit provided at one or more locations of the tubular reaction line, the internal temperature measurement unit comprises a thermometer with a temperature sensor, the temperature sensor is inserted into the tubular reaction line, the tubular reaction line is helical and comprises a straight flow channel in part of the tubular reaction line, the straight flow channel is substantially parallel to a helical axis of the helical tubular reaction line, and the internal temperature measurement unit is positioned in the straight flow channel.
A solid-state image sensor comprising: a charge accumulation region of a first conductivity type formed in a semiconductor region; an isolating semiconductor region formed in the semiconductor region and formed from an impurity semiconductor region of a second conductivity type; a channel stop region formed from an impurity semiconductor region of the second conductivity type which is located in the semiconductor region and formed on the isolating semiconductor region; and an insulator arranged on the channel stop region, characterized in that the insulator includes a first insulating portion arranged on the channel stop region, a second insulating portion extending laterally from the first insulating portion, wherein a thickness of the second insulating potion decreases with an increase in distance from the first insulating portion, wherein a portion of the insulator, whose thickness gradually changes, consists of the second insulating portion, and a third insulating portion including a flat upper face, the third insulating portion being formed on the first insulating portion so as to protrude from a structure consisting of the first insulating portion and the second insulating portion such that a side face extending from the flat upper face of the third insulating portion to an upper face of the second insulating portion is formed as a part of an exposed surface of the insulator. a charge accumulation region of a first conductivity type formed in a semiconductor region; an isolating semiconductor region formed in the semiconductor region and formed from an impurity semiconductor region of a second conductivity type; a channel stop region formed from an impurity semiconductor region of the second conductivity type which is located in the semiconductor region and formed on the isolating semiconductor region; and an insulator arranged on the channel stop region, characterized in that the insulator includes a first insulating portion arranged on the channel stop region, a second insulating portion extending laterally from the first insulating portion, wherein a thickness of the second insulating potion decreases with an increase in distance from the first insulating portion, wherein a portion of the insulator, whose thickness gradually changes, consists of the second insulating portion, and a third insulating portion including a flat upper face, the third insulating portion being formed on the first insulating portion so as to protrude from a structure consisting of the first insulating portion and the second insulating portion such that a side face extending from the flat upper face of the third insulating portion to an upper face of the second insulating portion is formed as a part of an exposed surface of the insulator.
A manway cover assembly comprising: a frame defining an opening and comprising a flange, wherein the flange comprises a plurality of slots; a cover hingedly attached to the frame and thereby configured to move between a first position spaced away from the opening and a second position covering the opening; a strongback comprising a threaded opening and a plurality of arms, each arm comprising a ledge and a slot, the ledge forming a portion of the slot; and a ram having a threaded body and an end rotatingly connected to the cover, the threaded body positioned within the threaded opening of the strongback and configured to change the relationship between the strongback and the cover as the ram rotates; wherein, the manway cover assembly is configured such that the ledge of each arm is configured for positioning within a respective one of the plurality of slots of the flange when moving the cover between the first position and the second position, and when the cover is in the second position covering the opening, the strongback is configured to rotate such that each slot of each arm engages the flange and each ledge of each arm is configured to move to engage the flange to move the manway cover assembly to a locked position, as rotation of the ram forces the strongback away from the cover until each ledge engages the flange. a frame defining an opening and comprising a flange, wherein the flange comprises a plurality of slots; a cover hingedly attached to the frame and thereby configured to move between a first position spaced away from the opening and a second position covering the opening; a strongback comprising a threaded opening and a plurality of arms, each arm comprising a ledge and a slot, the ledge forming a portion of the slot; and a ram having a threaded body and an end rotatingly connected to the cover, the threaded body positioned within the threaded opening of the strongback and configured to change the relationship between the strongback and the cover as the ram rotates; wherein, the manway cover assembly is configured such that the ledge of each arm is configured for positioning within a respective one of the plurality of slots of the flange when moving the cover between the first position and the second position, and when the cover is in the second position covering the opening, the strongback is configured to rotate such that each slot of each arm engages the flange and each ledge of each arm is configured to move to engage the flange to move the manway cover assembly to a locked position, as rotation of the ram forces the strongback away from the cover until each ledge engages the flange.
A method of wireless communication, performed by a first user equipment, comprising: receiving data symbols for transmission over a wireless communication channel, the transmission using four antenna ports; the method being characterized in that it further comprises: generating a plurality of scrambling sequences, such that for any two of the four antenna ports the scrambling sequence differs; mapping, for each of the four antenna ports, a corresponding scrambled pilot signal to time and frequency transmission resources, the corresponding scrambled pilot signal generated by scrambling a corresponding pilot signal and a corresponding scrambling sequence; multiplexing, for each of the four antenna ports, respective data symbols and a respective scrambled pilot signal to generate an output signal; and transmitting the output signal over a wireless communication channel, wherein the generating the plurality of scrambling sequences comprises: using a pseudorandom number generator to generate a pseudorandom sequence, generating a plurality of circular shifts such that a linear phase modulation in a frequency domain is used for each of the four antenna ports, wherein the plurality of circular shifts are 0, N/4, N/2, and 3N/4 samples, and generating each of the plurality of scrambling sequences by performing a circular shift operation on the pseudorandom sequence using each of the plurality of circular shifts for each of the four antenna ports. generating a plurality of scrambling sequences, such that for any two of the four antenna ports the scrambling sequence differs; mapping, for each of the four antenna ports, a corresponding scrambled pilot signal to time and frequency transmission resources, the corresponding scrambled pilot signal generated by scrambling a corresponding pilot signal and a corresponding scrambling sequence; multiplexing, for each of the four antenna ports, respective data symbols and a respective scrambled pilot signal to generate an output signal; and transmitting the output signal over a wireless communication channel, wherein the generating the plurality of scrambling sequences comprises: using a pseudorandom number generator to generate a pseudorandom sequence, generating a plurality of circular shifts such that a linear phase modulation in a frequency domain is used for each of the four antenna ports, wherein the plurality of circular shifts are 0, N/4, N/2, and 3N/4 samples, and generating each of the plurality of scrambling sequences by performing a circular shift operation on the pseudorandom sequence using each of the plurality of circular shifts for each of the four antenna ports. using a pseudorandom number generator to generate a pseudorandom sequence, generating a plurality of circular shifts such that a linear phase modulation in a frequency domain is used for each of the four antenna ports, wherein the plurality of circular shifts are 0, N/4, N/2, and 3N/4 samples, and generating each of the plurality of scrambling sequences by performing a circular shift operation on the pseudorandom sequence using each of the plurality of circular shifts for each of the four antenna ports.
Vehicle powertrain, said power train comprising an electric motive machine suspended from a beam, said cross member comprises i) a main part made of a rigid plastic material and comprising two ends (Ej) opposed, characterized in that said cross member further comprises: ii) two inserts main (IPj) realized s in e metallic material, integrated respectively in said ends (Ej) and comprising each of first holes participating in synchr e of said cross-member to the structural elements (ES 1, ES2) of said vehicle and a central recess in which is fixedly installed a filter part which is coupled to a portion of said drive electric machine and filtering of es vibrations induced by the latter.
Use of a composition comprising a phosphodiesterase 5 inhibitor, wherein the PDE5 inhibitor is mirodenafil, or its pharmaceutically acceptable salt, solvate or hydrate, in a cosmetic method for reducing skin wrinkles.