mhurhangee/ep-ind-claims huggingface dataset:
A communication device for communicating data over a low power wide area, LPWA, communication network, wherein the communication device comprises: a processor configured to implement a real-time execution environment based on a real-time operating system, wherein the real-time execution environment is configured to execute a first instance of an application; a memory (113, 115) configured to store data; a radio configured to transmit and/or receive data over the LPWA communication network; and a security system configured to operate one or more logically separated sets of security domains (111a-c, 113a-c, 115a-c), including a first set of security domains (111a, 113a, 115a), on the processor and the memory (113, 115), wherein each set of security domains comprises a processor security domain (111a-c) and a memory security domain (113a-c, 115a-c), wherein the security system is configured to operate the respective processor security domains (111a-c) of the one or more sets of security domains (111a-c, 113a-c, 115a-c) in parallel to the real-time execution environment and wherein the processor security domain of the first set of security domains (111a, 113a, 115a) is configured to execute a second instance of the application in response to the execution of the first instance of the application by the real-time execution environment. a processor configured to implement a real-time execution environment based on a real-time operating system, wherein the real-time execution environment is configured to execute a first instance of an application; a memory (113, 115) configured to store data; a radio configured to transmit and/or receive data over the LPWA communication network; and a security system configured to operate one or more logically separated sets of security domains (111a-c, 113a-c, 115a-c), including a first set of security domains (111a, 113a, 115a), on the processor and the memory (113, 115), wherein each set of security domains comprises a processor security domain (111a-c) and a memory security domain (113a-c, 115a-c), wherein the security system is configured to operate the respective processor security domains (111a-c) of the one or more sets of security domains (111a-c, 113a-c, 115a-c) in parallel to the real-time execution environment and wherein the processor security domain of the first set of security domains (111a, 113a, 115a) is configured to execute a second instance of the application in response to the execution of the first instance of the application by the real-time execution environment.
A valve block, in particular for actuating elements of a motor vehicle seat that can be filled with pressurized air, with a plurality of outlets for pneumatically connecting the valve block in each case to one element or to a plurality of elements that can be filled with pressurized air, with a plurality of control valves for the selective application of pressurized air to a respective outlet, with a plurality of discharge valves for connecting a respective outlet to the ambient air, wherein the control valves are supplied with pressurized air by a common pressurized air supply line, wherein the control valves and the discharge valves are designed in such a manner that valves of identical design can be used both for forming valve blocks with and also for forming valve blocks without pressure measurement device(s) for measuring the pressure in an element which is connected to the valve block and can be filled with pressurized air, wherein the valve block comprises pressure measurement devices, wherein the pressure measurement devices are designed as separate pressure measurement modules connected to the outlets, control valves and/or discharge valves and/or are arranged in a separate pressure measurement module connected to the control valves and/or discharge valves, characterized in that the pressure measurement module(s), the discharge valves and the control valves comprise connecting elements for connecting the pressure measurement module(s) to the discharge valves and the control valves, elements which are designed in such a manner that, by means of them, the pressure measurement module(s) can be selectively connected to the discharge valves and the control valves, or the discharge valves to the control valves.
An NFC reader adapted to determine the near-field free-space channel capacity between the reader and an NFC tag, the reader further comprising: a transmitter and a receiver each operatively connected to an antenna; a first peak detector adapted to measure an amplitude of a transmission current in the antenna as emitted by the transmitter; a second peak detector adapted to measure an amplitude of a reception current in the antenna as received by the receiver and a noise detector operatively coupled to the antenna for determining a level of noise in a signal in the antenna, the NFC reader further comprising a processor and a memory for storing transmission and/or reception parameters of the NFC reader, wherein the processor is adapted to determine the near-field free-space channel capacity from these measured and stored parameters by: calculating a value for Pa, antenna output power, being half of the square of the measured Pa peak value; calculating a value for Ps, delivered source power, being half of the square of the measured Ps peak value; calculating a value for N, the noise of the system, being the square of the measured noise level; substituting Pa, Ps, and N into the equation: Pt = Ps.Q 1. η 1 -Pa, to calculate Pt; the power transferred to the nearby tag, where Q 1 is the quality factor and where η 1 is the efficiency of the reader circuit; substituting the calculated value of Pt and the measured value of Pa into the equation: K 2 = Pt/Pa to determine K 2, K being the antenna to antenna coupling factor; calculating a value of Q 2 by substituting into the equation: P L ω = ω 0 = P s Q 1 Q 2 η 1 η 2 HK 2, the calculated P L, P S, and k 2 values, and memory-saved Q 1,η 1, η 2 values, Q 2 being the quality factor and η 2 being the efficiency of the tag circuit; substituting the memory-saved Q 1, and the calculated Q 2, values into the equation: B f = B f 0 = − Q 1 2 + Q 2 2 + Q 1 2 + Q 2 2 2 + 4 Q 1 2 Q 2 2 2 Q 1 Q 2, where f 0 is the resonance frequency and B the 3dB band width, to calculate B f; calculating P L using the equation: P L = Pt. η 2, where P L is the received power at a load and calculating the channel capacity C by substituting the calculated P L, B f, and N values into the equation: C = B f f 0 log 2 1 + P L N
Measuring steady rest for supporting and measuring central workpiece regions, in particular bearing points of shaft parts, in particular crankshafts, with integrated measuring device for direct placement on and measurement of the central workpiece regions before and/or during the machining of central and eccentric workpiece regions, which, for grinding, can be moved from a retracted position and, for supporting the central workpiece region, can be moved into a supporting position on the central workpiece region, and has at least two supporting parts which can be delivered to the central workpiece region, which support the central workpiece region in respective mutually spaced circumferential regions, characterized in that the supporting parts, forming an opening angle relative to each other on one side flank each of a prism, opening in the manner of a fork on a steady rest arm in a fixed position relative to each other and to the steady rest arm and, in the supporting position, below the centre relative to the longitudinal axis of the central workpiece region, are arranged in such a way that a bisector formed between the two supporting parts has a fixed acute angle to the perpendicular running through the longitudinal axis of the central workpiece region, and CNC-controlled delivery of the steady rest arm to the central workpiece region is carried out along this bisector, on which the measuring device is arranged with respect to its longitudinal axis.
A method for supporting short data burst services, the method comprising: receiving a radio resource control connection request message comprising a mobile originated short data burst indicator, at an evolved node from user equipment over a signaling radio bearer channel; transmitting a radio resource control connection set-up message from the evolved node to the user equipment in response to the radio resource control connection request message; receiving a radio resource control connection set-up complete message comprising an uplink, non-access stratum message that further comprises mobile originated short data burst content and the mobile originated short data burst indicator at the evolved node from the user equipment; forwarding the non-access stratum message with the mobile originated short data burst content and indicator and an initial user equipment message from the evolved node to a mobility management entity; receiving an initial context set-up request message containing an mobile originated short data burst indicator flag at the evolved node from the mobility management entity; sending a radio resource control connection release message from the evolved node to the user equipment; and sending a user equipment context release request message comprising an short data burst delivery indicator from the evolved node to the mobility management entity. receiving a radio resource control connection request message comprising a mobile originated short data burst indicator, at an evolved node from user equipment over a signaling radio bearer channel; transmitting a radio resource control connection set-up message from the evolved node to the user equipment in response to the radio resource control connection request message; receiving a radio resource control connection set-up complete message comprising an uplink, non-access stratum message that further comprises mobile originated short data burst content and the mobile originated short data burst indicator at the evolved node from the user equipment; forwarding the non-access stratum message with the mobile originated short data burst content and indicator and an initial user equipment message from the evolved node to a mobility management entity; receiving an initial context set-up request message containing an mobile originated short data burst indicator flag at the evolved node from the mobility management entity; sending a radio resource control connection release message from the evolved node to the user equipment; and sending a user equipment context release request message comprising an short data burst delivery indicator from the evolved node to the mobility management entity.
A solid phase extraction device comprising: a reservoir (16; 21) with an opening for receiving a fluid and a well in fluid communication with the reservoir (16; 21); the well comprising an internally tapered wall (15; 18, 19) defining a larger cross-sectional area at a first end close to the reservoir (16; 21) than at a second end close to an exit spout; a first filter which is substantially spherical, and within the tapered wall of the well; a second filter which is substantially spherical, and within the tapered wall of the well, the second filter having a smaller diameter than the first filter and being spaced from the first filter toward the exit spout; and a bed of sorbent particles within the tapered wall of the well and between the first filter and the second filter, wherein the bed of sorbent particles is spaced from the first filter, thereby providing a minimal internal void volume between the bed of sorbent particles and the first filter. a reservoir (16; 21) with an opening for receiving a fluid and a well in fluid communication with the reservoir (16; 21); the well comprising an internally tapered wall (15; 18, 19) defining a larger cross-sectional area at a first end close to the reservoir (16; 21) than at a second end close to an exit spout; a first filter which is substantially spherical, and within the tapered wall of the well; a second filter which is substantially spherical, and within the tapered wall of the well, the second filter having a smaller diameter than the first filter and being spaced from the first filter toward the exit spout; and a bed of sorbent particles within the tapered wall of the well and between the first filter and the second filter, wherein the bed of sorbent particles is spaced from the first filter, thereby providing a minimal internal void volume between the bed of sorbent particles and the first filter.
An active dosimeter system for detecting and communicating a radiation dose in real time, comprising: a peripheral detector configured to be worn on an extremity or a head region of a user comprising: a radiation sensor configured to detect ionizing radiation; a processor configured to determine a level of the ionizing radiation; and a wireless device configured to send a transmission comprising the detected level of the ionizing radiation; wherein the determination of the level of ionizing radiation and the transmission occur in real-time; and a receiver located in close proximity to the user and configured to receive the transmission, wherein the receiver comprises an interface that informs the user of the detected level of the ionizing radiation; characterized in that the receiver comprises a whole-body dosimeter associated with the user. a peripheral detector configured to be worn on an extremity or a head region of a user comprising: a radiation sensor configured to detect ionizing radiation; a processor configured to determine a level of the ionizing radiation; and a wireless device configured to send a transmission comprising the detected level of the ionizing radiation; wherein the determination of the level of ionizing radiation and the transmission occur in real-time; and a radiation sensor configured to detect ionizing radiation; a processor configured to determine a level of the ionizing radiation; and a wireless device configured to send a transmission comprising the detected level of the ionizing radiation; wherein the determination of the level of ionizing radiation and the transmission occur in real-time; and a receiver located in close proximity to the user and configured to receive the transmission, wherein the receiver comprises an interface that informs the user of the detected level of the ionizing radiation; characterized in that the receiver comprises a whole-body dosimeter associated with the user.
A long composite member comprising: a main member that has a curvature in a longitudinal direction thereof and a shape of whose cross-section perpendicular to the longitudinal direction is a shape protruding on an outer side of the curvature, and a reinforcing member that is made of fiber reinforced plastic and is disposed on an inner side of the curvature with respect to the main member and within the cross-section, wherein one end of the reinforcing member is adhered on a side of one end of the main member along the longitudinal direction, and the other end of the reinforcing member is adhered on a side of the other end of the main member along the longitudinal direction, and an intermediary portion of the reinforcing member between the one end and the other end is extended straight within the cross-section of the main member, characterized in that a clearance is formed between the main member and the intermediary portion of the reinforcing member. a main member that has a curvature in a longitudinal direction thereof and a shape of whose cross-section perpendicular to the longitudinal direction is a shape protruding on an outer side of the curvature, and a reinforcing member that is made of fiber reinforced plastic and is disposed on an inner side of the curvature with respect to the main member and within the cross-section, wherein one end of the reinforcing member is adhered on a side of one end of the main member along the longitudinal direction, and the other end of the reinforcing member is adhered on a side of the other end of the main member along the longitudinal direction, and an intermediary portion of the reinforcing member between the one end and the other end is extended straight within the cross-section of the main member, characterized in that a clearance is formed between the main member and the intermediary portion of the reinforcing member.
A sealing unit comprising: inner and outer pressurization structures (136, 138), the outer pressurization structure including a sleeve; sealant positioned between the inner and outer pressurization structures (136, 138); a shaft that is anchored to the inner pressurization structure and that extends through the outer pressurization structure and the sleeve, the shaft extending along an axis; a spring that surrounds the shaft and that is positioned within the sleeve characterized in that; an actuator handle is threaded onto the shaft to compress the spring and cause the sealant to be pressurized between the inner and outer pressurizations structures (136, 138); and a sealing member that surrounds the axis and forms a seal between the sleeve and the actuator handle. inner and outer pressurization structures (136, 138), the outer pressurization structure including a sleeve; sealant positioned between the inner and outer pressurization structures (136, 138); a shaft that is anchored to the inner pressurization structure and that extends through the outer pressurization structure and the sleeve, the shaft extending along an axis; a spring that surrounds the shaft and that is positioned within the sleeve characterized in that; an actuator handle is threaded onto the shaft to compress the spring and cause the sealant to be pressurized between the inner and outer pressurizations structures (136, 138); and a sealing member that surrounds the axis and forms a seal between the sleeve and the actuator handle.
Computer-implemented method for determining an ophthalmic lens adapted for correcting an abnormal refraction of an eye of a wearer, intended to be worn by a wearer, and comprising a plurality of at least three optical elements placed on at least one surface of said ophthalmic lens, at least one optical element having an optical function of not focusing an image on the retina of the eye of the wearer, the method comprising: - providing prescription data adapted at least for correcting the abnormal refraction of the eye of the wearer; - providing at least one abnormal refraction parameter relating to the abnormal refraction of an eye of the wearer; - providing at least one sensitivity parameter representing the variation of sensitivity of the wearer as a function of at least one parameter of the optical elements; - determining a value of the at least one parameter of the optical elements adapted for the wearer based on the abnormal refraction parameter and the sensitivity parameter; - determining an ophthalmic lens based at least on the prescription data and the value of the at least one parameter of the optical elements adapted for the wearer. - providing prescription data adapted at least for correcting the abnormal refraction of the eye of the wearer; - providing at least one abnormal refraction parameter relating to the abnormal refraction of an eye of the wearer; - providing at least one sensitivity parameter representing the variation of sensitivity of the wearer as a function of at least one parameter of the optical elements; - determining a value of the at least one parameter of the optical elements adapted for the wearer based on the abnormal refraction parameter and the sensitivity parameter; - determining an ophthalmic lens based at least on the prescription data and the value of the at least one parameter of the optical elements adapted for the wearer.
A polypeptide consisting of the amino acid sequence of any one of SEQ ID NOS: 3, 10 and 14, wherein the polypeptide is able to form a complex with a Major Histocompatibility Complex molecule.
Method for manufacturing a cellular structure having first and second faces (50.1, 50.2) and also rows of cells each alternatingly comprising first cells, which are open towards the first face (50.1), and second cells, which are open towards the second face (50.2), the cellular structure likewise comprising, between each row of cells, third cells, which are open towards the first and second faces (50.1, 50.2); the method for manufacturing a cellular structure comprising a step of shaping first and second strips of material (60, 62) by bending in order to obtain, for each first and second strip of material (60, 62), first and second recessed shapes (64, 66, 70, 72) and also joining zones (68, 74) separating the first and second recessed shapes (64, 66, 70, 72), the first and second strips of material (60, 62) being identical, and also a step of assembling the first and second strips of material (60, 62) so as to form the cellular structure by holding and connecting the joining zones of the first strips of material against the joining zones of the second strips of material, the first and second recessed shapes (64, 66, 70, 72) alternating and being arranged so as to form the first and second cells (56, 58) and also the third cells, characterized in that, during the step of shaping by bending the first and second strips of material (60, 62), each first strip of material is shaped by bending so as to also obtain a first channel and each second strip of material is shaped by bending so as to also obtain a second channel, the first and second channels (88, 90) forming the ducts (84, 86), each of which connects a pair of first and second cells (56, 58).
A method for enriching a target nucleic acid sequence, the method comprising: (a) introducing to a sample solution, comprising a plurality of sample nucleic acid molecules each comprising a universal adaptor nucleic acid sequence, a capture primer nucleic acid molecule complementary to or partially complementary to a target nucleic acid sequence of one or more sample nucleic acid molecules of the plurality of sample nucleic acid molecules; (b) enzymatically extending the capture primer nucleic acid molecule annealed to the target nucleic acid sequence of the one or more sample nucleic acid molecules; and (c) enzymatically degrading single-stranded sample nucleic acid molecules, to provide an enriched sample solution having a higher proportion of sample nucleic acid molecules comprising the target nucleic acid sequence than the sample solution. (a) introducing to a sample solution, comprising a plurality of sample nucleic acid molecules each comprising a universal adaptor nucleic acid sequence, a capture primer nucleic acid molecule complementary to or partially complementary to a target nucleic acid sequence of one or more sample nucleic acid molecules of the plurality of sample nucleic acid molecules; (b) enzymatically extending the capture primer nucleic acid molecule annealed to the target nucleic acid sequence of the one or more sample nucleic acid molecules; and (c) enzymatically degrading single-stranded sample nucleic acid molecules, to provide an enriched sample solution having a higher proportion of sample nucleic acid molecules comprising the target nucleic acid sequence than the sample solution.