mhurhangee/ep-ind-claims huggingface dataset:
Peak-detector circuit, comprising: - a first input terminal for providing a first input voltage, - a first rectifying element with an anode connected to the first input terminal, - a first capacitor with a first electrode connected to a cathode of the first rectifying element, - a first terminal coupled to the first electrode of the first capacitor, - a second rectifying element with a cathode connected to the first input terminal, - a second capacitor, - a first switch coupling an anode of the second rectifying element to a first electrode of the second capacitor, - a second terminal coupled to the first electrode of the second capacitor, and - an evaluation circuit with an adding circuit including - a first input coupled to the first terminal, - a second input coupled to the second terminal, and - a first detector output for providing a first detector voltage which is a function of the sum of a first terminal voltage tapped at the first terminal and of a second terminal voltage tapped at the second terminal. - a first input terminal for providing a first input voltage, - a first rectifying element with an anode connected to the first input terminal, - a first capacitor with a first electrode connected to a cathode of the first rectifying element, - a first terminal coupled to the first electrode of the first capacitor, - a second rectifying element with a cathode connected to the first input terminal, - a second capacitor, - a first switch coupling an anode of the second rectifying element to a first electrode of the second capacitor, - a second terminal coupled to the first electrode of the second capacitor, and - an evaluation circuit with an adding circuit including - a first input coupled to the first terminal, - a second input coupled to the second terminal, and - a first detector output for providing a first detector voltage which is a function of the sum of a first terminal voltage tapped at the first terminal and of a second terminal voltage tapped at the second terminal. - a first input coupled to the first terminal, - a second input coupled to the second terminal, and - a first detector output for providing a first detector voltage which is a function of the sum of a first terminal voltage tapped at the first terminal and of a second terminal voltage tapped at the second terminal.
A method, comprising: receiving a data stream of a data transmission, wherein the data stream corresponds to a plurality of data symbols at a given symbol rate; generating a plurality of data samples corresponding to the data symbols, wherein the data samples are generated at a sampling rate that is higher than the symbol rate; and processing the data samples via multiple operations of a process performed in parallel, wherein each operation of the process comprises, generating a plurality of representative data samples based on a respective component of the data samples and associated timing control signals, dropping certain of the representative data samples based on drop control signals, determining phase error information based on the representative data samples, and adjusting one or more of the timing control signals and the drop control signals based on the determined phase error information. receiving a data stream of a data transmission, wherein the data stream corresponds to a plurality of data symbols at a given symbol rate; generating a plurality of data samples corresponding to the data symbols, wherein the data samples are generated at a sampling rate that is higher than the symbol rate; and processing the data samples via multiple operations of a process performed in parallel, wherein each operation of the process comprises, generating a plurality of representative data samples based on a respective component of the data samples and associated timing control signals, dropping certain of the representative data samples based on drop control signals, determining phase error information based on the representative data samples, and adjusting one or more of the timing control signals and the drop control signals based on the determined phase error information. wherein each operation of the process comprises, generating a plurality of representative data samples based on a respective component of the data samples and associated timing control signals, dropping certain of the representative data samples based on drop control signals, determining phase error information based on the representative data samples, and adjusting one or more of the timing control signals and the drop control signals based on the determined phase error information.
A conductive roller having a core, at least one elastic layer which is mainly formed of a conductive rubber body and provided on the core, and a coating layer provided on the elastic layer, characterized in that when a mean irregularity interval Sm along the circumferential direction of the elastic layer is defined as circumferential Sm1, and a mean irregularity interval Sm along the circumferential direction of the coating layer is defined as circumferential Sm2, circumferential Sm1 and circumferential Sm2 satisfy the following formulas and: 50 μ m ≤ circumferential Sm1 ≤ 120 μm circumferential Sm1 < circumferential Sm2 and the coating layer contains a base material, an electric conductivity-imparting agent, and a surface roughness-imparting agent, and when the total amount of the base material and the electric conductivity-imparting agent is 31 parts by mass to 130 parts by mass, the amount of the surface roughness-imparting agent is 4 parts by mass to 45 parts by mass. when a mean irregularity interval Sm along the circumferential direction of the elastic layer is defined as circumferential Sm1, and a mean irregularity interval Sm along the circumferential direction of the coating layer is defined as circumferential Sm2, circumferential Sm1 and circumferential Sm2 satisfy the following formulas and: 50 μ m ≤ circumferential Sm1 ≤ 120 μm circumferential Sm1 < circumferential Sm2 and the coating layer contains a base material, an electric conductivity-imparting agent, and a surface roughness-imparting agent, and when the total amount of the base material and the electric conductivity-imparting agent is 31 parts by mass to 130 parts by mass, the amount of the surface roughness-imparting agent is 4 parts by mass to 45 parts by mass.
System for limiting explosion hazard in a closed space, comprising a storage vessel in which an extinguishing agent is stored, the storage vessel being provided with an outlet connectable to the closed space, the system further compriseing: - at least one container in which an at least partially liquid propellant is stored under pressure; and - for each container, an activator configured to create after activation thereof a passage for fluid between the storage vessel and this container such that, following activation of the activator, the propellant propagates into the closed space together with the extinguishing agent; characterized in that the extinguishing agent is a powder. - at least one container in which an at least partially liquid propellant is stored under pressure; and - for each container, an activator configured to create after activation thereof a passage for fluid between the storage vessel and this container such that, following activation of the activator, the propellant propagates into the closed space together with the extinguishing agent;
An internal combustion engine provided with a variable compression ratio mechanism and an electronic control unit, the engine measuring a physical quantity which changes in accordance with at least one of the exhaust temperature and the exhaust pressure, and the electronic control unit being configured to: use a measured measurement value as the basis to estimate a current mechanical compression ratio, wherein the measurement value is a supercharging pressure at a downstream side of a compressor of a turbocharger, store an ideal supercharging pressure (PI') when a target mechanical compression ratio is realized, characterized in that the electronic control unit is configured to estimate the current mechanical compression ratio (Er) based on a supercharging pressure difference (ΔPI) between the current supercharging pressure and the ideal supercharging pressure (PI'). use a measured measurement value as the basis to estimate a current mechanical compression ratio, wherein the measurement value is a supercharging pressure at a downstream side of a compressor of a turbocharger, store an ideal supercharging pressure (PI') when a target mechanical compression ratio is realized, characterized in that the electronic control unit is configured to estimate the current mechanical compression ratio (Er) based on a supercharging pressure difference (ΔPI) between the current supercharging pressure and the ideal supercharging pressure (PI').
A prosthetic foot, comprising: a lower element; an upper element; and a resilient ankle member distinct from and sandwiched between the lower and upper elements; wherein a lateral side of the foot has a stiffness different from a stiffness of a medial side of the foot. a lower element; an upper element; and a resilient ankle member distinct from and sandwiched between the lower and upper elements; wherein a lateral side of the foot has a stiffness different from a stiffness of a medial side of the foot.
A method for generating semi-mature dendritic cells in which expression of NR4A2 and/or UBASH3B protein or a gene encoding NR4A2 and/or UBASH3B protein is increased at least 2-fold compared to immature dendritic cells, the method comprising the steps of: (a) treating immature dendritic cells in vitro with a self-antigen (autoantigen), a cytokine and prostaglandin E2; and (b) confirming that expression of NR4A2 protein and/or UBASH3B protein or a gene encoding the protein in the semi-mature dendritic cells is increased at least 2-fold compared to that in immature dendritic cells, or confirming that expression of PTGS2 and/or IDO protein or a gene encoding the protein in the semi-mature dendritic cells is further increased. (a) treating immature dendritic cells in vitro with a self-antigen (autoantigen), a cytokine and prostaglandin E2; and (b) confirming that expression of NR4A2 protein and/or UBASH3B protein or a gene encoding the protein in the semi-mature dendritic cells is increased at least 2-fold compared to that in immature dendritic cells, or confirming that expression of PTGS2 and/or IDO protein or a gene encoding the protein in the semi-mature dendritic cells is further increased.
A session processing method, comprising: receiving, by a first core network element, a session establishment request message, wherein the session establishment request message carries at least one of PDU session identification information, slice selection assistance information, SNSSAI, and DNN information; determining, by the first core network element, whether to perform a first type transmission on a Protocol Data Unit session, based on a first policy and at least one of the SNSSAI and DNN information in the session establishment request message; and notifying, by the first core network element, a base station of performing the first type transmission on the Protocol Data Unit session, wherein the first type transmission comprises: performing a data copy type transmission of a data packet through multiple paths between the base station and a terminal side, wherein, the first policy comprises at least one set of: a correspondence between the first indication information and the at least one S-NSSAI and the DNN; and Policy Control and Charging, PCC, policy information, wherein the first indication information is used to indicate whether to perform the first type transmission. receiving, by a first core network element, a session establishment request message, wherein the session establishment request message carries at least one of PDU session identification information, slice selection assistance information, SNSSAI, and DNN information; determining, by the first core network element, whether to perform a first type transmission on a Protocol Data Unit session, based on a first policy and at least one of the SNSSAI and DNN information in the session establishment request message; and notifying, by the first core network element, a base station of performing the first type transmission on the Protocol Data Unit session, wherein the first type transmission comprises: performing a data copy type transmission of a data packet through multiple paths between the base station and a terminal side, wherein, the first policy comprises at least one set of: a correspondence between the first indication information and the at least one S-NSSAI and the DNN; and Policy Control and Charging, PCC, policy information, wherein the first indication information is used to indicate whether to perform the first type transmission. a correspondence between the first indication information and the at least one S-NSSAI and the DNN; and Policy Control and Charging, PCC, policy information, wherein the first indication information is used to indicate whether to perform the first type transmission.
A display device comprising: a display area, DA, having a plurality of sub-pixels, PX; a plurality of pad electrodes in a peripheral area outside the display area; a first organic insulating layer comprising an opening overlapping the plurality of pad electrodes; and an integrated circuit overlapping the plurality of pad electrodes, and bonded and electrically connected to the plurality of pad electrodes, wherein an edge (211E1-211E4) of the first organic insulating layer defining the opening is outside the integrated circuit to be spaced apart from an edge (40E1-40E4) defining the integrated circuit, characterised in that a distance (d1-d4) between the edge (211E1-211E4) of the first organic insulating layer defining the opening and the edge (40E1-40E4) of the integrated circuit is 40 micrometres, μm, or more. a display area, DA, having a plurality of sub-pixels, PX; a plurality of pad electrodes in a peripheral area outside the display area; a first organic insulating layer comprising an opening overlapping the plurality of pad electrodes; and an integrated circuit overlapping the plurality of pad electrodes, and bonded and electrically connected to the plurality of pad electrodes, wherein an edge (211E1-211E4) of the first organic insulating layer defining the opening is outside the integrated circuit to be spaced apart from an edge (40E1-40E4) defining the integrated circuit, characterised in that a distance (d1-d4) between the edge (211E1-211E4) of the first organic insulating layer defining the opening and the edge (40E1-40E4) of the integrated circuit is 40 micrometres, μm, or more.
An optical receiver adapted for receiving via a transmission channel an orthogonal frequency-division multiplex optical signal via a plurality of subcarriers, the optical receiver comprising means for performing channel estimation and means for performing equalization on the basis of coefficients representative of the transmission channel, said coefficients being provided by said means for performing channel estimation, characterized in that said means for performing channel estimation comprise: - means (151, 152, 153) for processing a training sequence received via a first subset among said plurality of subcarriers; and - means for interpolating coefficients to obtain interpolated coefficients, the interpolated coefficients corresponding to subcarriers not processed by said means for processing the training sequence. - means (151, 152, 153) for processing a training sequence received via a first subset among said plurality of subcarriers; and - means for interpolating coefficients to obtain interpolated coefficients, the interpolated coefficients corresponding to subcarriers not processed by said means for processing the training sequence.
An exudate container, comprising: a casing that is fluid impermeable; an absorbent core disposed within the casing; a manifold disposed in the casing around the absorbent core, wherein the manifold comprises a distribution envelope, the manifold comprising a first side that is hydrophobic and a second side that is hydrophilic, wherein the first side is an internal side of the distribution envelope and the second side is an external side of the distribution envelope; an inlet port fluidly coupled to the manifold; and an outlet port fluidly coupled to the manifold. a casing that is fluid impermeable; an absorbent core disposed within the casing; a manifold disposed in the casing around the absorbent core, wherein the manifold comprises a distribution envelope, the manifold comprising a first side that is hydrophobic and a second side that is hydrophilic, wherein the first side is an internal side of the distribution envelope and the second side is an external side of the distribution envelope; an inlet port fluidly coupled to the manifold; and an outlet port fluidly coupled to the manifold.
Base section for an electrical switching device for mounting in a mounting plane of a mounting opening or of a supporting ring, comprising an upper base section (3a, 3b) and a lower base section (4a, 4b, 4c, 4d), at least two electrically conducting contact elements (11a, 11b, 11c), formed as plug-in terminals, for connecting in each case an end portion of an electrical conductor, at least one switching rocker (5a, 5b) for producing a mechanical switching movement and at least one contact rocker (19a, 19b) for electrically contacting the contact elements (11a, 11b, 11c), wherein the upper base section (3a, 3b) and the lower base section (4a, 4b, 4c, 4d) are detachably connected to one another, and wherein the contact rocker (19a, 19b) can be switched over by means of the switching rocker (5a, 5b) between a first switching state and a second switching state, wherein the switching rocker (5a, 5b) is arranged in the upper base section (3a, 3b), and wherein the contact rocker (19a, 19b) is pivotably mounted in the lower base section (4a, 4b, 4c, 4d) by means of a rocker bearing in such a way that its pivot axis runs in a plane extending perpendicular to the mounting direction (Z-Z') and parallel to the mounting plane, wherein contact receptacles in the lower base section (4a, 4b, 4c, 4d) are arranged in at least two rows running parallel to one another and in line with one another in a grid in a first contact plane extending perpendicular to the mounting direction (Z-Z'), and wherein the contact receptacles arranged in a row have a grid spacing which is dimensioned in such a way that three contact receptacles can be arranged in a row next to one another in the lower base section (4a, 4b, 4c, 4d), characterized in that the contact elements (11a, 11b, 11c) are formed and arranged in the lower base section (4a, 4b, 4c, 4d) in such a way that the end portions of the electrical conductors can be inserted into the contact elements (11a, 11b, 11c) with an insertion angle in the range from 0° to 45° in a direction opposite to a mounting direction Z-Z'.
A channel detection method, comprising: determining, by a sending device, a contention window size, CWS, for channel detection according to first information, wherein the first information comprises feedback information, from a receiving device, corresponding to a transmission in a reference physical channel performed by the sending device on an unlicensed carrier, the CWS is determined according to the feedback information, and the feedback information comprises at least one of transmission block-hybrid automatic repeat request, TB-HARQ, acknowledgment information and code block group-hybrid automatic repeat request, CBG-HARQ, information; and performing, by the sending device, channel detection on the unlicensed carrier according to the CWS, wherein at least part of time resources in transmission resources of the reference physical channel is located in a reference time unit, and the reference time unit is a first one slot in a latest transmission performed by the sending device on the unlicensed carrier before determining the CWS by the sending device, characterized in that: when the sending device fails to transmit a first CBG through the unlicensed carrier due to failure of channel preemption, first CBG-HARQ information corresponding to the first CBG received in the feedback information is not used by the sending device for determining the CWS. determining, by a sending device, a contention window size, CWS, for channel detection according to first information, wherein the first information comprises feedback information, from a receiving device, corresponding to a transmission in a reference physical channel performed by the sending device on an unlicensed carrier, the CWS is determined according to the feedback information, and the feedback information comprises at least one of transmission block-hybrid automatic repeat request, TB-HARQ, acknowledgment information and code block group-hybrid automatic repeat request, CBG-HARQ, information; and performing, by the sending device, channel detection on the unlicensed carrier according to the CWS, wherein at least part of time resources in transmission resources of the reference physical channel is located in a reference time unit, and the reference time unit is a first one slot in a latest transmission performed by the sending device on the unlicensed carrier before determining the CWS by the sending device, characterized in that: when the sending device fails to transmit a first CBG through the unlicensed carrier due to failure of channel preemption, first CBG-HARQ information corresponding to the first CBG received in the feedback information is not used by the sending device for determining the CWS.
An interventional device comprising - an needle structure (SL, I_S) arranged for being inserted into biological tissue, the needle structure having a cavity positioned to a side of the needle structure (SL, I_S) and - a plurality of optical fibers (DF1, DF2, SF1, SF2) externally accessible in one end and connected to optical ports (S1, S2, D1, D2) in their opposite end, characterized in that the optical ports (S1, S2, D1, D2) are spatially distributed on surface portions of the needle structure (SL, I_S) on opposite sides of the cavity, in order to allow optical probing of biological tissue present in the cavity, upon application of an optical signal to one of the plurality of optical fibers (SF1, SF2) at a first side of the cavity and detection of an optical response thereto at another one of the plurality of optical fibers (DF1, DF2) at the opposite side of the cavity. - an needle structure (SL, I_S) arranged for being inserted into biological tissue, the needle structure having a cavity positioned to a side of the needle structure (SL, I_S) and - a plurality of optical fibers (DF1, DF2, SF1, SF2) externally accessible in one end and connected to optical ports (S1, S2, D1, D2) in their opposite end, characterized in that the optical ports (S1, S2, D1, D2) are spatially distributed on surface portions of the needle structure (SL, I_S) on opposite sides of the cavity, in order to allow optical probing of biological tissue present in the cavity, upon application of an optical signal to one of the plurality of optical fibers (SF1, SF2) at a first side of the cavity and detection of an optical response thereto at another one of the plurality of optical fibers (DF1, DF2) at the opposite side of the cavity.