mhurhangee/ep-ind-claims huggingface dataset:
A method for recovering a transaction on a plurality of resource managers, the method comprising: designating a resource manager in the plurality of resource managers (503, 504) to be a determiner resource, wherein the determiner resource is prepared after preparing all other resource managers in the plurality of resource managers and is committed after committing all other resource managers in the plurality of resource managers; receiving from the determiner resource a list of outstanding transactions to be committed; building/rebuilding a global transaction table from a list of in-doubt transactions returned from the determiner resource; retrieving a list of in-doubt transactions from each resource manager in the plurality of resource managers, wherein in-doubt transactions are transactions which have been prepared but not committed; comparing each in-doubt transaction with the global transaction table; committing (603, 604) one or more in-doubt transactions in the list of in-doubt transactions that match the global transaction table on at least one said resource manager in the plurality of resource managers, and rolling back one or more in-doubt transactions in the list of in-doubt transactions that do not match the global transaction table on at least one said resource manager in the plurality of resource managers; and committing the list of in-doubt transactions retrieved from the determiner resource after successfully committing or rolling back the one or more in-doubt transactions for all other resource managers in the plurality of resource managers. designating a resource manager in the plurality of resource managers (503, 504) to be a determiner resource, wherein the determiner resource is prepared after preparing all other resource managers in the plurality of resource managers and is committed after committing all other resource managers in the plurality of resource managers; receiving from the determiner resource a list of outstanding transactions to be committed; building/rebuilding a global transaction table from a list of in-doubt transactions returned from the determiner resource; retrieving a list of in-doubt transactions from each resource manager in the plurality of resource managers, wherein in-doubt transactions are transactions which have been prepared but not committed; comparing each in-doubt transaction with the global transaction table; committing (603, 604) one or more in-doubt transactions in the list of in-doubt transactions that match the global transaction table on at least one said resource manager in the plurality of resource managers, and rolling back one or more in-doubt transactions in the list of in-doubt transactions that do not match the global transaction table on at least one said resource manager in the plurality of resource managers; and committing the list of in-doubt transactions retrieved from the determiner resource after successfully committing or rolling back the one or more in-doubt transactions for all other resource managers in the plurality of resource managers.
A control channel receiving method in a radio communication system using an orthogonal frequency division multiple access, OFDMA, comprising: determining L physical resource block pairs that are used to transmit a control channel, wherein L is an integer greater than 0, and the control channel is formed by at least one enhanced control channel element, eCCE; wherein resource elements excluding a demodulation reference signal, DMRS, in each physical resource block pair of the L physical resource block pairs are grouped into N enhanced resource element groups, eREGs; and each of the at least one eCCE is mapped onto resource elements of M eREGs, the resource elements excluding other overheads in each eREG of the M eREGs, the other overheads comprise at least one of the following: a common reference signal, CRS, a physical downlink control channel, PDCCH, a physical broadcast channel, PBCH, a positioning reference signal, PRS, a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, wherein M is an integer greater than 0; and receiving the at least one eCCE by using the resource elements comprised in the M eREGs. determining L physical resource block pairs that are used to transmit a control channel, wherein L is an integer greater than 0, and the control channel is formed by at least one enhanced control channel element, eCCE; wherein resource elements excluding a demodulation reference signal, DMRS, in each physical resource block pair of the L physical resource block pairs are grouped into N enhanced resource element groups, eREGs; and each of the at least one eCCE is mapped onto resource elements of M eREGs, the resource elements excluding other overheads in each eREG of the M eREGs, the other overheads comprise at least one of the following: a common reference signal, CRS, a physical downlink control channel, PDCCH, a physical broadcast channel, PBCH, a positioning reference signal, PRS, a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, wherein M is an integer greater than 0; and receiving the at least one eCCE by using the resource elements comprised in the M eREGs.
An image sensor comprising a first layer (1, 12) and second layer (2, 18) arranged vertically with respect to each other, wherein: the first layer is a PMOS photodetection circuit comprising an array of pixel elements; each pixel element comprising: a pinned photodiode; and a Capacitive Trans-Impedance Amplifier (CTIA), the amplifier comprising P-FET transistors; and the second layer is a CMOS layer comprising supporting pixel circuitry, including a global shutter sample and hold circuit, the supporting pixel circuitry comprising N-FET transistors; wherein each pixel element in the PMOS layer is connected to supporting pixel circuitry in the CMOS layer. the first layer is a PMOS photodetection circuit comprising an array of pixel elements; each pixel element comprising: a pinned photodiode; and a Capacitive Trans-Impedance Amplifier (CTIA), the amplifier comprising P-FET transistors; and each pixel element comprising: a pinned photodiode; and a Capacitive Trans-Impedance Amplifier (CTIA), the amplifier comprising P-FET transistors; and the second layer is a CMOS layer comprising supporting pixel circuitry, including a global shutter sample and hold circuit, the supporting pixel circuitry comprising N-FET transistors;
A system, comprising: a lead including a distal electrode portion, the distal electrode portion being configured to at least partially encircle a sympathetic chain in a lumbar region or thoracic region, wherein: the distal electrode portion including at least one electrode oriented toward the sympathetic chain when the distal electrode portion at least partially encircles the sympathetic chain or is in close proximity to the sympathetic chain, the distal portion includes at least one anchoring site configured for use to mechanically secure the distal electrode portion to tissue proximate to the sympathetic chain, and the lead having a strain relief proximate to the distal electrode portion. the distal electrode portion including at least one electrode oriented toward the sympathetic chain when the distal electrode portion at least partially encircles the sympathetic chain or is in close proximity to the sympathetic chain, the distal portion includes at least one anchoring site configured for use to mechanically secure the distal electrode portion to tissue proximate to the sympathetic chain, and the lead having a strain relief proximate to the distal electrode portion.
An information processing device (100, 100a, 100b) comprising: an image acquisition unit that acquires a captured image of a real space (11a, 11b) from an image capture device, the image capture device having an optical axis; a setting unit that sets, in association with the real space (11a, 11b), an augmented reality space that virtually augments the real space (11a, 11b) depicted in the captured image, wherein the augmented reality space is a three-dimensional space including virtual objects, wherein one of the virtual objects is an avatar (A11, A12, A13, A21, A22); and a control unit (118, 146) that places the avatar (A11, A12, A13, A21, A22) within the augmented reality space and determines a target position for an action executed by the avatar (A11, A12, A13, A21, A22) within the augmented reality space, on a basis of a position of an intersection between a virtual object of the virtual objects within the augmented reality space and the optical axis of the image capture device, wherein placement within the augmented reality space of a real object (R11a, R11b, R12, R19, R19c, R19d, R19e, R21, R21a, R21b, R21c, R21d, R21e) depicted in the captured image is determined by discretizing the real object (R11a, R11b, R12, R19, R19c, R19d, R19e, R21, R21a, R21b, R21c, R21d, R21e) in units of voxels (VX1, VX2), and wherein the control unit (118, 146) determines the target position of the action in the units of voxels (VX1, VX2). an image acquisition unit that acquires a captured image of a real space (11a, 11b) from an image capture device, the image capture device having an optical axis; a setting unit that sets, in association with the real space (11a, 11b), an augmented reality space that virtually augments the real space (11a, 11b) depicted in the captured image, wherein the augmented reality space is a three-dimensional space including virtual objects, wherein one of the virtual objects is an avatar (A11, A12, A13, A21, A22); and a control unit (118, 146) that places the avatar (A11, A12, A13, A21, A22) within the augmented reality space and determines a target position for an action executed by the avatar (A11, A12, A13, A21, A22) within the augmented reality space, on a basis of a position of an intersection between a virtual object of the virtual objects within the augmented reality space and the optical axis of the image capture device,
Device for filling tanks with pressurized gas, in particular hydrogen gas tanks of motor vehicles, the device comprising at least one gas source, a transfer circuit comprising at least one upstream end connected to the source and at least one downstream end intended to be connected in removable fashion to a tank to be filled, the transfer circuit additionally comprising, between its upstream and downstream ends, a set of buffer storage container(s) (6 to 11) which is (are) connected in parallel to the transfer circuit via a set of respective connecting valve(s) (16 to 21), the transfer circuit comprising a portion of pipe(s) forming a loop, a plurality of the buffer storage container(s) (6 to 11) being connected in parallel to the said loop, characterized in that the transfer circuit comprises a plurality of separate downstream ends each intended to be connected in removable fashion to a respective tank to be filled, the said downstream ends being connected in parallel to the said loop and comprising a set of respective linking valve(s) (40, 140, 240, 340), so that control of the connecting valves and of the linking valves makes it possible to bring at least one first buffer storage container into fluidic communication, via the loop, with a first downstream end and, simultaneously, to bring at least one second buffer storage container into fluidic communication, via the loop, with a second downstream end and/or to bring two separate buffer storage containers into fluidic communication.
A lamp housing consisting of a U-shaped profile part in cross section the ends of which are closed by end parts, wherein at least one of the end parts is connected by means of a spring element with the profile part, wherein the spring element is produced from spring steel sheet or plastic and has a receiving slot, characterized in that at least one of the end parts has a T-piece, which cooperates with the receiving slot, in order to clamp end part and spring element with each other.
Device for sensing electrical conductivity of a liquid, particularly that of a washing bath in a washing machine, comprising an electrically insulating supporting casing through which first and second electrodes (A, B) intended to contact said liquid extend to the outside, electrical power supply and signal acquisition and processing circuit means capable of sensing electrical conductivity and housed at least in part in the supporting casing and coupled to said electrodes (A, B), and signal coupling and galvanic isolation means, interposed between said circuit means and said electrodes (A, B) and likewise housed in said casing; the sensing device being characterized in that said signal coupling and galvanic isolation means comprise at least a first and a second capacitor, each of which is interconnected in series between one of said electrodes (A, B) and a corresponding terminal (9, 10) of said circuit means.
A coupling assembly for coupling reinforcing bars or prestressing wires in end to end relationship, said assembly comprising a first coupling part adapted to be mounted on an end of a first reinforcing bar and a second coupling part adapted to be mounted on, or otherwise adapted to be coupled to, an end of a second reinforcing bar adjacent said end of said first reinforcing bar, said first and second coupling parts (114,140) comprising respective male and female members provided with co-operating retaining barbs or teeth (112,142), characterised in that said first coupling part can be engaged with said second coupling part to couple said first and second reinforcing bars (100,200) by relative axial displacement of said first and second reinforcing bars (100,200) without rotation thereof, said second coupling part comprising an elongate sleeve, said first coupling part comprises a tubular member adapted to be mounted over said end of said first reinforcing bar and to be secured thereto, for example by crimping, welding or adhesive, and wherein the or each end of the sleeve is provided with at least one axially extending slot to permit radial compression thereof to enable said first coupling part to be engaged with said second coupling part by respective axial displacement of said first and second coupling parts (114,140), at least a portion of said first coupling part being adapted to be received over said end of said first reinforcing bar to secure the first coupling part thereon, wherein retaining barbs or teeth are formed externally at one end of said sleeve defining said second coupling part, said retaining barbs or teeth being engageable with co-operating retaining barbs or teeth formed internally on an end of said tubular member defining said first coupling part.
Method for operating a steam turbine, wherein the steam turbine has at least two subturbines (2a, 2b, 2c, 5), wherein the steam turbine has an associated steam turbine controller that has one subturbine controller (3a, 3b, 3c) for each of the subturbines (2a, 2b, 2c, 5), and wherein each subturbine controller (3a, 3b, 3c) compares respective setpoint values with respective actual values of the respective subturbines (2a, 2b, 2c, 5) during operation in order to determine a respective control error for the respective subturbine (2a, 2b, 2c, 5), wherein the subturbine controllers (3a, 3b, 3c) operate the respective subturbines (2a, 2b, 2c, 5) according to different modes of operation, wherein a respective power value is set in one of the modes of operation using one of the subturbine controllers (3a, 3b, 3c), characterized in that the subturbine controllers (3a, 3b, 3c) actuate respective turbine valves (4a, 4b, 4c) that are associated with the respective subturbines (2a, 2b, 2c, 5), wherein the individual turbine valves (4a, 4b, 4c) control the individual process variables pressure of the respective subturbine (2a, 2b, 2c, 5), power of the subturbine (2a, 2b, 2c, 5), thermal stress or drop in temperature of the subturbine (2a, 2b, 2c, 5) independently of one another. wherein the steam turbine has at least two subturbines (2a, 2b, 2c, 5), wherein the steam turbine has an associated steam turbine controller that has one subturbine controller (3a, 3b, 3c) for each of the subturbines (2a, 2b, 2c, 5), and wherein each subturbine controller (3a, 3b, 3c) compares respective setpoint values with respective actual values of the respective subturbines (2a, 2b, 2c, 5) during operation in order to determine a respective control error for the respective subturbine (2a, 2b, 2c, 5), wherein the subturbine controllers (3a, 3b, 3c) operate the respective subturbines (2a, 2b, 2c, 5) according to different modes of operation, wherein a respective power value is set in one of the modes of operation using one of the subturbine controllers (3a, 3b, 3c), characterized in that the subturbine controllers (3a, 3b, 3c) actuate respective turbine valves (4a, 4b, 4c) that are associated with the respective subturbines (2a, 2b, 2c, 5), wherein the individual turbine valves (4a, 4b, 4c) control the individual process variables pressure of the respective subturbine (2a, 2b, 2c, 5), power of the subturbine (2a, 2b, 2c, 5), thermal stress or drop in temperature of the subturbine (2a, 2b, 2c, 5) independently of one another.
A pot cover, comprising: a cover body; a handle arranged on the cover body, wherein the handle comprises: a connecting part configured to connect the cover body; and a holding part configured to facilitate holding, wherein an end of the holding part is provided with a groove for insertion; wherein a first groove surface, a second groove surface and a third groove surface are formed at the end of the holding part, the first groove surface and the third groove surface are oppositely arranged and respectively connected with the second groove surface, characterized in that the third groove surface is convex toward the first groove surface and arranged in an arc shape. a cover body; a handle arranged on the cover body, wherein the handle comprises: a connecting part configured to connect the cover body; and a holding part configured to facilitate holding, wherein an end of the holding part is provided with a groove for insertion; wherein a first groove surface, a second groove surface and a third groove surface are formed at the end of the holding part, the first groove surface and the third groove surface are oppositely arranged and respectively connected with the second groove surface, characterized in that the third groove surface is convex toward the first groove surface and arranged in an arc shape. a connecting part configured to connect the cover body; and a holding part configured to facilitate holding, wherein an end of the holding part is provided with a groove for insertion; wherein a first groove surface, a second groove surface and a third groove surface are formed at the end of the holding part, the first groove surface and the third groove surface are oppositely arranged and respectively connected with the second groove surface, characterized in that the third groove surface is convex toward the first groove surface and arranged in an arc shape.
An ultrasound diagnostic apparatus which generates a tomographic image of a subject site in a living body by receiving as sound ray data a reflected wave of an ultrasound wave transmitted to the subject site and performing predetermined signal processing on the sound ray data, comprising: a region-of-interest setting section which sets a region-of-interest in the tomographic image; a data acquiring section which samples, from one piece of sound ray data within the region-of-interest, pieces of pixel data in at least two positions while switching between sampling intervals in order, starting with a minimum sampling interval and ending with a maximum sampling interval, in a depth direction of the sound ray data; and a blood flow data calculating section (35, 35 a-g) which calculates a plurality of pieces of blood flow data for each of the sampling intervals by performing spatial averaging on the pieces of pixel data sampled by the data acquiring section, wherein the blood flow data calculating section (35, 35 a-g) sets, on the basis of the pieces of blood flow data for the sampling intervals, the sampling interval for which the number of isolated blood flow data is at a minimum as the sampling interval at the time of calculation of blood flow data in the sound ray data. a region-of-interest setting section which sets a region-of-interest in the tomographic image; a data acquiring section which samples, from one piece of sound ray data within the region-of-interest, pieces of pixel data in at least two positions while switching between sampling intervals in order, starting with a minimum sampling interval and ending with a maximum sampling interval, in a depth direction of the sound ray data; and a blood flow data calculating section (35, 35 a-g) which calculates a plurality of pieces of blood flow data for each of the sampling intervals by performing spatial averaging on the pieces of pixel data sampled by the data acquiring section, wherein the blood flow data calculating section (35, 35 a-g) sets, on the basis of the pieces of blood flow data for the sampling intervals, the sampling interval for which the number of isolated blood flow data is at a minimum as the sampling interval at the time of calculation of blood flow data in the sound ray data.
A compound of Formula 5: wherein R 1 is selected from the group consisting of H, NH 2, and a straight chain or branched chain alkyl group having from 1 to 10 carbon atoms; and wherein R 2 is selected from the group consisting of H and a straight chain or branched chain alkyl group having from 1 to 10 carbon atoms; and wherein X is selected from the group consisting of NH, NCH 3, O, and S; and stereochemical conformations thereof; and a pharmaceutically acceptable salt thereof. wherein R 1 is selected from the group consisting of H, NH 2, and a straight chain or branched chain alkyl group having from 1 to 10 carbon atoms; and wherein R 2 is selected from the group consisting of H and a straight chain or branched chain alkyl group having from 1 to 10 carbon atoms; and wherein X is selected from the group consisting of NH, NCH 3, O, and S; and stereochemical conformations thereof; and a pharmaceutically acceptable salt thereof.
A system for modifying a timeout period at the request of a peer system, the system comprising a maintenance end point, MEP, configured at a node of a network of the system for modifying a timeout period used by the MEP in determining whether a timeout has occurred, wherein the system comprises another MEP in another node of the network, the MEP and the other MEP belong to a maintenance association, MA, for providing connectivity fault management, CFM, services, wherein the other node is adapted to receive a control signal indicating the presence of a condition and then to determine a timeout factor, which is a timeout multiplier, taking into account what condition prompted the need for the timeout multiplier, which is temporary, to be temporarily used by the MA, and to construct a CFM message, which is a continuity check message, CCM, carrying the indication that the new timeout multiplier is to be used, wherein the other MEP comprises a transmitter interface that is adapted to transmit the CFM message, wherein the node comprises: a receiver interface that is adapted to receive the CFM message from the peer system a CFM message receiver that is adapted to determine whether the CFM message includes an indication specifying a new value for the timeout factor used in determining the timeout period, and when the CFM message includes an indication specifying a new value for the timeout factor, to set the timeout factor equal to the new value included in the indication. a receiver interface that is adapted to receive the CFM message from the peer system a CFM message receiver that is adapted to determine whether the CFM message includes an indication specifying a new value for the timeout factor used in determining the timeout period, and when the CFM message includes an indication specifying a new value for the timeout factor, to set the timeout factor equal to the new value included in the indication.