mhurhangee/ep-ind-claims huggingface dataset:
A network device comprising: a memory device and a congestion monitor device (202, 214, 358) coupled to the memory device, the congestion monitor device (202, 214, 358) configured to: access a received congestion causing packet and based on the received congestion causing packet including a source queue-pair, QP, identifier identifying a queue-pair of a source transmitter: copy the source queue-pair identifier from the received congestion causing packet, form a congestion notification packet, CNP, that includes a copy of the source queue-pair identifier from the received congestion causing packet, and cause the CNP to be transmitted to a source transmitter of the received congestion causing packet to adjust a transmission rate of the source transmitter based on the copy of the source queue-pair identifier, wherein the CNP is compatible with RDMA over Converged Ethernet (RoCE) v2. a memory device and a congestion monitor device (202, 214, 358) coupled to the memory device, the congestion monitor device (202, 214, 358) configured to: access a received congestion causing packet and based on the received congestion causing packet including a source queue-pair, QP, access a received congestion causing packet and based on the received congestion causing packet including a source queue-pair, QP, identifier identifying a queue-pair of a source transmitter: copy the source queue-pair identifier from the received congestion causing packet, form a congestion notification packet, CNP, that includes a copy of the source queue-pair identifier from the received congestion causing packet, and cause the CNP to be transmitted to a source transmitter of the received congestion causing packet to adjust a transmission rate of the source transmitter based on the copy of the source queue-pair identifier, wherein the CNP is compatible with RDMA over Converged Ethernet (RoCE) v2. copy the source queue-pair identifier from the received congestion causing packet, form a congestion notification packet, CNP, that includes a copy of the source queue-pair identifier from the received congestion causing packet, and cause the CNP to be transmitted to a source transmitter of the received congestion causing packet to adjust a transmission rate of the source transmitter based on the copy of the source queue-pair identifier, wherein the CNP is compatible with RDMA over Converged Ethernet (RoCE) v2.
A system, comprising: a non-transitory memory storing instructions; and one or more hardware processors coupled to the non-transitory memory and configured to read the instructions from the non-transitory memory to cause the system to perform operations comprising: transmitting a server public key of a server public-private key pair to a computing device that requests a transaction; receiving a user public key that identifies a subset of credentials from a plurality of credentials stored on a blockchain; determining that the user public key was generated based on a user private key and the server public key; requesting, using a server private key of the server public-private key pair and the user public key, an identity token that indicates the subset of credentials; receiving the identity token that includes the subset of credentials; and processing the transaction using the subset of credentials in the identity token. a non-transitory memory storing instructions; and one or more hardware processors coupled to the non-transitory memory and configured to read the instructions from the non-transitory memory to cause the system to perform operations comprising: transmitting a server public key of a server public-private key pair to a computing device that requests a transaction; receiving a user public key that identifies a subset of credentials from a plurality of credentials stored on a blockchain; determining that the user public key was generated based on a user private key and the server public key; requesting, using a server private key of the server public-private key pair and the user public key, an identity token that indicates the subset of credentials; receiving the identity token that includes the subset of credentials; and processing the transaction using the subset of credentials in the identity token. transmitting a server public key of a server public-private key pair to a computing device that requests a transaction; receiving a user public key that identifies a subset of credentials from a plurality of credentials stored on a blockchain; determining that the user public key was generated based on a user private key and the server public key; requesting, using a server private key of the server public-private key pair and the user public key, an identity token that indicates the subset of credentials; receiving the identity token that includes the subset of credentials; and processing the transaction using the subset of credentials in the identity token.
Method for concurrently operating several optical data transmission links using different independent optical wavelengths via a common medium with a common receive side, wherein on occurrence of symptoms for failures of either of the transmission links it is checked, whether signal quality degradation by interfering optical wavelengths occurs, wherein on occurrence of such symptoms it is checked whether occurring errors are results of such interference and which are the interfering transmission links, and wherein with at least one of the interfering transmission links the operation parameters except for the wavelengths are changed, wherein such change includes - a reduction of transmit power to reach reduced receive power levels at the receive side, characterized by a reduced transfer rate to adapt to a resulting signal quality reduction. - a reduction of transmit power to reach reduced receive power levels at the receive side, characterized by a reduced transfer rate to adapt to a resulting signal quality reduction.
A self-wrapping protective textile sleeve (10; 110), comprising: a braided, tubular wall (12; 112; 212; 312; 412; 512; 612) having opposite free edges (13, 15) extending lengthwise between opposite ends (16, 18); said wall further including braided, heat-set yarns (20; 120; 220; 320; 420; 520; 620) imparting a bias on said wall (12; 112; 212; 312; 412; 512; 612), said bias bringing said opposite free edges (13, 15) into overlapped relation with one another; characterised in that said wall (12; 112; 212; 312; 412; 512; 612) is bi-stable in a first state with a decreased length, increased cross-sectional area, as viewed in cross-section taken generally transversely to a central longitudinal axis extending between said opposite ends (16, 18), and a second state with an increased length, decreased cross-sectional area, as viewed in cross-section taken generally transversely to said central longitudinal axis, and the bias causes said wall (12; 112; 212; 312; 412; 512; 612) to remain substantially in said first and second states absent some externally applied force; wherein at least some of said heat-set yarns (20; 120; 220; 320; 420; 520; 620) are braided as bundles (21; 221; 321'; 321"; 421; 521; 621), said bundles (21; 221; 321'; 321"; 421; 521; 621) including a plurality of yarns (20, 24; 120; 220, 224; 320, 324; 420, 424; 520, 524; 620, 624) twisted with one another; and wherein at least some said bundles (21; 221; 321'; 321"; 421; 521; 621; 921; 1021) have loops (22; 222; 322; 422; 522) interlinked with loops (22; 222; 322; 422; 522) of another bundle (21; 221; 321'; 321"; 421; 521; 621). a braided, tubular wall (12; 112; 212; 312; 412; 512; 612) having opposite free edges (13, 15) extending lengthwise between opposite ends (16, 18); said wall further including braided, heat-set yarns (20; 120; 220; 320; 420; 520; 620) imparting a bias on said wall (12; 112; 212; 312; 412; 512; 612), said bias bringing said opposite free edges (13, 15) into overlapped relation with one another; characterised in that said wall (12; 112; 212; 312; 412; 512; 612) is bi-stable in a first state with a decreased length, increased cross-sectional area, as viewed in cross-section taken generally transversely to a central longitudinal axis extending between said opposite ends (16, 18), and a second state with an increased length, decreased cross-sectional area, as viewed in cross-section taken generally transversely to said central longitudinal axis, and the bias causes said wall (12; 112; 212; 312; 412; 512; 612) to remain substantially in said first and second states absent some externally applied force; wherein at least some of said heat-set yarns (20; 120; 220; 320; 420; 520; 620) are braided as bundles (21; 221; 321'; 321"; 421; 521; 621), said bundles (21; 221; 321'; 321"; 421; 521; 621) including a plurality of yarns (20, 24; 120; 220, 224; 320, 324; 420, 424; 520, 524; 620, 624) twisted with one another; and wherein at least some said bundles (21; 221; 321'; 321"; 421; 521; 621; 921; 1021) have loops (22; 222; 322; 422; 522) interlinked with loops (22; 222; 322; 422; 522) of another bundle (21; 221; 321'; 321"; 421; 521; 621).
A pharmaceutical composition comprising a leukotoxin and a pharmaceutically acceptable carrier for use in a method of reducing lung inflammation in a subject in need thereof by reducing local cytokine levels in bronchoalveolar lavage fluid or lung tissue, wherein the lung inflammation is characterized by an infiltration in the lung tissue of white blood cells comprising cells with upregulated and activated LFA-1 on their surface to which the leukotoxin specifically binds and the lung inflammation is caused by a disease selected from the group consisting of cystic fibrosis, chronic obstructive pulmonary disease, allergies, and an infection, wherein the subject has been identified as having increased levels of activated white blood cells that express a greater level of LFA-1 compared to white blood cells from a normal healthy subject, and wherein the pharmaceutical composition is in a form suitable for administration by using an inhaler selected from the group consisting of a nebulizer, a metered-dose inhaler, and a dry powder inhaler.
A nucleic acid construct comprising polynucleotide sequences encoding a double-stranded RNA for reducing the expression of a target gene being flanked by two opposing Geminivirus intergenic region promoters, wherein said Geminivirus is a Begomovirus.
A wire harness, comprising: a harness body which includes a conduction path including a conductor body and connecting parts (28, 29) provided at one end and the other end of the conductor body; and a tolerance absorbing part which is provided in the conductor body, wherein the tolerance absorbing part is formed to allow a position of one connecting part provided at either of the one end and the other end of the conductor body to be displaced in X, Y and Z directions in a state where the other connecting part is fixed, and to hold a displaced state of the conduction path after a displacement, a central axis of a first mounting part provided at one end of the harness body and a central axis of a second mounting part provided at the other end of the harness body are not on the same straight line, and said central axes (L1, L3) and a central axis of the harness body become a crank form, characterized in that the tolerance absorbing part being provided at a portion of the central axis in the middle of the harness body, and the conductor body having a bus bar shape. a harness body which includes a conduction path including a conductor body and connecting parts (28, 29) provided at one end and the other end of the conductor body; and a tolerance absorbing part which is provided in the conductor body, wherein the tolerance absorbing part is formed to allow a position of one connecting part provided at either of the one end and the other end of the conductor body to be displaced in X, Y and Z directions in a state where the other connecting part is fixed, and to hold a displaced state of the conduction path after a displacement,
User Equipment comprising hardware processing circuitry configured to: initiate handover failure recovery by transmission of a random-access channel [RACH] 2 message, wherein the RACH 2 message is a message transmitted on a random-access channel for radio-resource control connection re-establishment, characterized in that the HO failure recovery is initiated when both a radio-link failure timer and a time-to trigger timer are concurrently running. initiate handover failure recovery by transmission of a random-access channel [RACH] 2 message, wherein the RACH 2 message is a message transmitted on a random-access channel for radio-resource control connection re-establishment, characterized in that the HO failure recovery is initiated when both a radio-link failure timer and a time-to trigger timer are concurrently running.
Dismountable aeronautical pod device with cryogenic storage capacity, for external transportation by an aircraft, the pod device characterized in that it comprises: a front cryogenic tank, a rear cryogenic tank and at least one central gasification and temporary storage tank (7,) for the rise in pressure of the gas supplied by the front cryogenic tank and the rear cryogenic tank.
A method, comprising: determining, by one or more processors (112, 122) based on sensor signals from a pair of earbuds (110, 112), whether the pair of earbuds (110, 112) are being worn by a same user (100, 200) or different users (100, 200); operating, by the one or more processors (112, 122) based on determining that the pair of earbuds (110, 112) are being worn by the same user (100, 200), the pair of earbuds (110, 112) in a first mode so that one or more functions of the pair of earbuds (110, 112) are controlled based on a first set of input settings; and operating, by the one or more processors (112, 122) based on determining that the pair of earbuds (110, 112) are being worn by different users (100, 200), the pair of earbuds (110, 112) in a second mode so that the one or more functions of the pair of earbuds (110, 112) are controlled based on a second set of input settings, the second set of input settings being different from the first set of input settings. determining, by one or more processors (112, 122) based on sensor signals from a pair of earbuds (110, 112), whether the pair of earbuds (110, 112) are being worn by a same user (100, 200) or different users (100, 200); operating, by the one or more processors (112, 122) based on determining that the pair of earbuds (110, 112) are being worn by the same user (100, 200), the pair of earbuds (110, 112) in a first mode so that one or more functions of the pair of earbuds (110, 112) are controlled based on a first set of input settings; and operating, by the one or more processors (112, 122) based on determining that the pair of earbuds (110, 112) are being worn by different users (100, 200), the pair of earbuds (110, 112) in a second mode so that the one or more functions of the pair of earbuds (110, 112) are controlled based on a second set of input settings, the second set of input settings being different from the first set of input settings.
A device for controlling the closed or open state of an article, such as a clothing article or a luggage article, the control device assuming the form of an electronic circuit comprising: - a button closure system comprising two rows of elements (11, 12, 13, 14, 21, 22, 23, 24), made from an electrically conductive material, each element of a row being able to be coupled and uncoupled with an element from the other row; - a detection and signaling device connected, on the one hand, to at least one of the elements, called first terminal, and on the other hand, to at least one of the other elements, called second terminal; the detection and signaling device being configured to detect the state of electrical continuity between the first and second terminals (21, 24), and to emit a signal as a function of said detected continuity state; characterized in that the first terminal and the second terminal are, in a direction parallel to the rows of elements in the coupled state of said elements, spaced apart from one another by at least one element (22, 23) of the button closure system, said at least one element (22, 23) having, in the uncoupled state of the elements of said button closure system, no electrical connection with said terminals (21, 24). - a button closure system comprising two rows of elements (11, 12, 13, 14, 21, 22, 23, 24), made from an electrically conductive material, each element of a row being able to be coupled and uncoupled with an element from the other row; - a detection and signaling device connected, on the one hand, to at least one of the elements, called first terminal, and on the other hand, to at least one of the other elements, called second terminal;
A fluid supply cartridge horizontally insertable, perpendicular to a gravitational direction, into a fluid-ejection device, comprising: a housing; a supply of fluid within the housing; a digital fluid level sensor within the housing, the digital fluid level sensor comprising a liquid level sensing interface, the liquid level sensing interface comprising: an elongate strip, a series of heaters and a series of sensors, the elongate strip in contact with a liquid of the fluid supply to measure a level of the liquid within the housing, wherein the elongate strip supports the series of heaters and the series of sensors such that differences between signals from the sensors indicate a level of liquid within the housing; and a horizontal interface at an end of the housing to connect the fluid supply cartridge to a fluid-ejection device, comprising: a first fluid interconnect septum to horizontally fluidically interconnect the supply of fluid to the fluid-ejection device and a second fluid interconnect septum to horizontally fluidically interconnect the supply of fluid to the fluid-ejection device; and an electrical interface to conductively connect the digital fluid level sensor to a corresponding electrical interface of the fluid-ejection device. a housing; a supply of fluid within the housing; a digital fluid level sensor within the housing, the digital fluid level sensor comprising a liquid level sensing interface, the liquid level sensing interface comprising: an elongate strip, a series of heaters and a series of sensors, the elongate strip in contact with a liquid of the fluid supply to measure a level of the liquid within the housing, wherein the elongate strip supports the series of heaters and the series of sensors such that differences between signals from the sensors indicate a level of liquid within the housing; and a horizontal interface at an end of the housing to connect the fluid supply cartridge to a fluid-ejection device, comprising: a first fluid interconnect septum to horizontally fluidically interconnect the supply of fluid to the fluid-ejection device and a second fluid interconnect septum to horizontally fluidically interconnect the supply of fluid to the fluid-ejection device; and an electrical interface to conductively connect the digital fluid level sensor to a corresponding electrical interface of the fluid-ejection device. a first fluid interconnect septum to horizontally fluidically interconnect the supply of fluid to the fluid-ejection device and a second fluid interconnect septum to horizontally fluidically interconnect the supply of fluid to the fluid-ejection device; and an electrical interface to conductively connect the digital fluid level sensor to a corresponding electrical interface of the fluid-ejection device.
A method for optimizing the use of power saving modes comprising: inputting, into a processor, an energy consumption profile for each of a plurality of different sleep modes available for a device; and inputting, into said processor, a probability distribution of interjob times for said device; automatically computing an optimal time-out period for each of said sleep modes using said processor based on said energy consumption profile of each of said sleep modes and said probability distribution of interjob times; automatically monitoring usage of said device to determine a current interjob time; characterized by the method further comprising: if the number of switches from a relatively higher power sleep mode to a relatively lower power sleep mode is below a predetermined limit, automatically switching, under control of said processor, between ones of said sleep modes to relatively lower power sleep modes as said current interjob time becomes larger, based on said optimal time-out period for each of said sleep modes; and if the number of switches from a relatively higher power sleep mode to a relatively lower power sleep mode is at the predetermined limit, switching to the lowest power sleep mode. inputting, into a processor, an energy consumption profile for each of a plurality of different sleep modes available for a device; and inputting, into said processor, a probability distribution of interjob times for said device; automatically computing an optimal time-out period for each of said sleep modes using said processor based on said energy consumption profile of each of said sleep modes and said probability distribution of interjob times; automatically monitoring usage of said device to determine a current interjob time; characterized by the method further comprising: if the number of switches from a relatively higher power sleep mode to a relatively lower power sleep mode is below a predetermined limit, automatically switching, under control of said processor, between ones of said sleep modes to relatively lower power sleep modes as said current interjob time becomes larger, based on said optimal time-out period for each of said sleep modes; and if the number of switches from a relatively higher power sleep mode to a relatively lower power sleep mode is at the predetermined limit, switching to the lowest power sleep mode. if the number of switches from a relatively higher power sleep mode to a relatively lower power sleep mode is below a predetermined limit, automatically switching, under control of said processor, between ones of said sleep modes to relatively lower power sleep modes as said current interjob time becomes larger, based on said optimal time-out period for each of said sleep modes; and if the number of switches from a relatively higher power sleep mode to a relatively lower power sleep mode is at the predetermined limit, switching to the lowest power sleep mode.
A method for determining optimal power cutback in a communication device comprising: determining gain G of the device for each one of a plurality of device power levels P; wherein the plurality of device power levels include a minimum power level P_min and a maximum power level P_max and the gain G is determined for each power level within this range in steps of P_step; determining noise power N[i,P] for each i tone of a plurality of downstream tones at each gain G; determining signal power S[j] for each j tone of a plurality of tones in a received signal; determining an optimal power for the device that maximize a utility function U P = sum _ k log 1 + S k * tss k, P * G P / N k, P where k is a set of all downstream tones and tss[k, P] represents a ceiling-based power cutback. determining gain G of the device for each one of a plurality of device power levels P; wherein the plurality of device power levels include a minimum power level P_min and a maximum power level P_max and the gain G is determined for each power level within this range in steps of P_step; determining noise power N[i,P] for each i tone of a plurality of downstream tones at each gain G; determining signal power S[j] for each j tone of a plurality of tones in a received signal; determining an optimal power for the device that maximize a utility function U P = sum _ k log 1 + S k * tss k, P * G P / N k, P where k is a set of all downstream tones and tss[k, P] represents a ceiling-based power cutback.