mhurhangee/ep-ind-claims huggingface dataset:
An operating method of a first user equipment, UE, in a wireless communication system, the operating method comprising: receiving downlink control information, DCI, for sidelink communication, from a base station; transmitting a physical sidelink control channel, PSCCH, or a physical sidelink shared channel, PSSCH, to a second UE, based on the DCI for the sidelink communication; receiving hybrid automatic repeat and request, HARQ, feedback information through a physical sidelink feedback channel, PSFCH, from the second UE; in case that a transmission power control, TPC, command field is not included in the DCI for the sidelink communication, determining a TPC command value as a configured value for a physical uplink control channel, PUCCH; determining transmission power for transmitting the HARQ feedback information to the base station, based on the determined TPC command value; and transmitting the HARQ feedback information through the PUCCH to the base station, based on the determined transmission power. receiving downlink control information, DCI, for sidelink communication, from a base station; transmitting a physical sidelink control channel, PSCCH, or a physical sidelink shared channel, PSSCH, to a second UE, based on the DCI for the sidelink communication; receiving hybrid automatic repeat and request, HARQ, feedback information through a physical sidelink feedback channel, PSFCH, from the second UE; in case that a transmission power control, TPC, command field is not included in the DCI for the sidelink communication, determining a TPC command value as a configured value for a physical uplink control channel, PUCCH; determining transmission power for transmitting the HARQ feedback information to the base station, based on the determined TPC command value; and transmitting the HARQ feedback information through the PUCCH to the base station, based on the determined transmission power.
A machine for three-dimensional measurement of an imperfect graphite cylindrical part of between 3000 kg and 4000 kg for electrodes, with two bases or faces and an outer surface therebetween, characterised in that it comprises: - transport and positioning means that is adapted to act on the outer surface of the part - clamping means that is adapted to act on the two bases or faces of the part - three-dimensional scanning means for 3D scanning of the outer surface of the part, and - a processor connected to the transport, positioning and clamping means for the control thereof, as well as to the scanning means to perform a three-dimensional measurement of the outer surface of the clamped part, determining the Cartesian and angular axes at the ends of the part on the basis of the 3D measurement, in order to calculate the axis of revolution of the cylinder with the largest possible dimensions that can be inscribed in said part in order to subsequently obtain it by the machining thereof. - transport and positioning means that is adapted to act on the outer surface of the part - clamping means that is adapted to act on the two bases or faces of the part - three-dimensional scanning means for 3D scanning of the outer surface of the part, and - a processor connected to the transport, positioning and clamping means for the control thereof, as well as to the scanning means to perform a three-dimensional measurement of the outer surface of the clamped part, determining the Cartesian and angular axes at the ends of the part on the basis of the 3D measurement, in order to calculate the axis of revolution of the cylinder with the largest possible dimensions that can be inscribed in said part in order to subsequently obtain it by the machining thereof.
An engine assembly for an aircraft, the engine assembly comprising a combustion engine (10; 110) including a coolant circuit in heat exchange relationship with a heat sink, the heat sink including a heat exchanger and at least one further component of the engine assembly, the at least one further component having a main function that differs from thermal exchange, wherein the coolant circuit comprises a conduit in heat exchange relationship with the at least one further component, characterised in that: the conduit is wrapped around the at least one further component; and the conduit is selectively connectable to a remainder of the coolant circuit via a valve located on the coolant circuit, the valve having a first mode in which the valve allows the liquid coolant to circulate within the conduit and a second mode in which the valve prevents the liquid coolant to flow within the conduit, the valve configured to selectively use the at least one further component to help the heat exchanger in dissipating the heat generated by the combustion engine (10, 110) when needed. the conduit is wrapped around the at least one further component; and the conduit is selectively connectable to a remainder of the coolant circuit via a valve located on the coolant circuit, the valve having a first mode in which the valve allows the liquid coolant to circulate within the conduit and a second mode in which the valve prevents the liquid coolant to flow within the conduit, the valve configured to selectively use the at least one further component to help the heat exchanger in dissipating the heat generated by the combustion engine (10, 110) when needed.
Unit for moulding preforms made of plastic material, each preform having a body and a neck in continuation of the body, this unit comprising: - a structure; - a mould carrier that is secured to the structure and integrates at least one mould body having the imprint of an outer face of the body of the preform, this mould body extending about a moulding axis; - a movable assembly including a carriage and a core carrier mounted on the carriage, this core carrier carrying at least one oblong core having the imprint of an inner face of the preform, the carriage being mounted such that it can be moved in translation with respect to the structure between: o a moulding position in which the core is inserted into the mould body, and o a demoulding position in which the core is moved axially away from the mould body, this moulding unit being characterized in that the movable assembly comprises a guiding shaft that is secured to the carriage, and in that it comprises a frame that includes a pair of uprights and a pair of crossmembers (26, 27) which rigidly connect the uprights, one of the crossmembers (26, 27) having pierced in it a bore that accommodates the guiding shaft, the frame being provided with a lock that can be moved between a locking position in which it extends in line with the bore to immobilize the shaft in translation, and an unlocking position in which the lock is moved away from the bore so as to free the shaft, this frame being movable in translation with respect to the frame between: - a lower position in which the lock, in the locking position, immobilizes the carriage in its moulding position, and - an upper position in which the lock, in the locking position, immobilizes the carriage in a retracted position which is intermediate between the moulding position and the demoulding position and in which the core is partially accommodated in the mould body. - a structure; - a mould carrier that is secured to the structure and integrates at least one mould body having the imprint of an outer face of the body of the preform, this mould body extending about a moulding axis; - a movable assembly including a carriage and a core carrier mounted on the carriage, this core carrier carrying at least one oblong core having the imprint of an inner face of the preform, the carriage being mounted such that it can be moved in translation with respect to the structure between: o a moulding position in which the core is inserted into the mould body, and o a demoulding position in which the core is moved axially away from the mould body, o a moulding position in which the core is inserted into the mould body, and o a demoulding position in which the core is moved axially away from the mould body, - a lower position in which the lock, in the locking position, immobilizes the carriage in its moulding position, and - an upper position in which the lock, in the locking position, immobilizes the carriage in a retracted position which is intermediate between the moulding position and the demoulding position and in which the core is partially accommodated in the mould body.
A method of operating a communications device which supports multiple peer discovery modes including a first transmit peer discovery mode during which peer discovery signals are transmitted at a first rate and a second transmit peer discovery mode during which peer discovery signals are transmitted at a second rate, said second rate being higher than the first rate, the method comprising: communicating to a server the location of said communications device; downloading a list of locations of interest from a server, a location of interest being a location in said list of downloaded locations of interest; receiving from the server information indicating a preferred mode of operation for the communications device; while operating in said first transmit peer discovery mode, determining as a function of proximity to the location of interest if a change condition used to trigger a change from the first mode to the second mode occurred; and upon detecting that said change condition used to trigger a change from the first mode to the second mode has occurred, transitioning from the first mode to the second mode. communicating to a server the location of said communications device; downloading a list of locations of interest from a server, a location of interest being a location in said list of downloaded locations of interest; receiving from the server information indicating a preferred mode of operation for the communications device; while operating in said first transmit peer discovery mode, determining as a function of proximity to the location of interest if a change condition used to trigger a change from the first mode to the second mode occurred; and
Pyranometer with a housing, a thermo-electric sensor in said housing, an inner window and an outer dome-shaped window both windows (6,7) overlying the sensor, an air inlet duct and an air outlet duct extending in the housing and ending in a space that is bounded by the outer window for passing air through said space, from the inlet duct to the outlet duct, characterized in that the housing is substantially closed such that no outside air flows are allowed into the housing that comprises a ventilator, the inlet duct being in fluid communication with a high pressure side of the ventilator, the outlet duct being in fluid communication with a low pressure side of the ventilator, wherein the air blown into the space below the outer window is heated by the ventilator power.
An acoustic imaging instrument connectable to an acoustic probe having an array of acoustic transducer elements, the acoustic imaging instrument, when connected to the acoustic probe, configured to provide transmit signals to at least some of the acoustic transducer elements to cause the array of acoustic transducer elements to transmit an acoustic probe signal to an area of interest, and further configured to produce acoustic images of the area of interest in response to acoustic echoes received from the area of interest in response to the acoustic probe signal, the acoustic imaging instrument including: - a receiver interface connectable to an intervention device and configured to receive one or more sensor signals from at least one passive sensor disposed on a surface of the intervention device when the intervention device is connected to the receiver interface and the at least one passive sensor is disposed in the area of interest, the one or more sensor signals having been produced in response to the acoustic probe signal; and - a processor configured to ascertain, from the one or more sensor signals from the passive sensor, an estimated location of the passive sensor in the area of interest, by: - identifying one or more candidate locations for the passive sensor based on localized intensity peaks in sensor data produced in response to the one or more sensor signals from the passive sensor, and - using intra-procedural context-specific information to identify the candidate location of the one or more candidate locations which best matches the intra-procedural context-specific information as the estimated location of the passive sensor, wherein the processor is further configured to cause a display device to display acoustic images of the area of interest and a marker in the acoustic images to indicate the estimated location of the passive sensor. - a receiver interface connectable to an intervention device and configured to receive one or more sensor signals from at least one passive sensor disposed on a surface of the intervention device when the intervention device is connected to the receiver interface and the at least one passive sensor is disposed in the area of interest, the one or more sensor signals having been produced in response to the acoustic probe signal; and - a processor configured to ascertain, from the one or more sensor signals from the passive sensor, an estimated location of the passive sensor in the area of interest, by: - identifying one or more candidate locations for the passive sensor based on localized intensity peaks in sensor data produced in response to the one or more sensor signals from the passive sensor, and - using intra-procedural context-specific information to identify the candidate location of the one or more candidate locations which best matches the intra-procedural context-specific information as the estimated location of the passive sensor, wherein the processor is further configured to cause a display device to display acoustic images of the area of interest and a marker in the acoustic images to indicate the estimated location of the passive sensor.
A rodent trapping system comprising: multiple rodent traps (251a-j), each of the rodent traps being configured: to activate in order to detect, kill or trap a rodent; and transmit local wireless communications signals to a portable electronic device; and a portable electronic device (201, 301) comprising a receiver to receive local wireless communications signals (256a,b,d) from the rodent traps within a range (251 a-d), wherein the portable electronic device comprises a controller having a processor and memory, the controller being configured, in response to receiving the local wireless communications signals, to identify at least one of the multiple traps in range which have been activated; the rodent trapping system being characterized in that the portable electronic device is configured, based on the received local wireless communications signals, to determine the relative location of at least one of the identified activated traps and to provide an indication (257a, b, d) to the user of the determined relative location, the determined relative location comprising information relating to one or more of: the proximity of the trap to the portable electronic device; and the direction of the trap relative to the portable electronic device. multiple rodent traps (251a-j), each of the rodent traps being configured: to activate in order to detect, kill or trap a rodent; and transmit local wireless communications signals to a portable electronic device; and to activate in order to detect, kill or trap a rodent; and transmit local wireless communications signals to a portable electronic device; a portable electronic device (201, 301) comprising a receiver to receive local wireless communications signals (256a,b,d) from the rodent traps within a range (251 a-d), wherein the portable electronic device comprises a controller having a processor and memory, the controller being configured, in response to receiving the local wireless communications signals, to identify at least one of the multiple traps in range which have been activated; the rodent trapping system being characterized in that the portable electronic device is configured, based on the received local wireless communications signals, to determine the relative location of at least one of the identified activated traps and to provide an indication (257a, b, d) to the user of the determined relative location, the determined relative location comprising information relating to one or more of: the proximity of the trap to the portable electronic device; and the direction of the trap relative to the portable electronic device.
Method for the in vitro selection of at least one therapeutic highly migrative cell subpopulation from an original cell population of mammalian cells, wherein the therapeutic cell subpopulation can be used for the treatment of diseases of tissues or organs, and wherein the method has the following consecutive steps: a) Addition of an original cell population to a first starting reservoir, which is connected via at least one selection means having at least one opening to at least one second selection reservoir, wherein the at least one opening of the at least one selection means has a diameter of 3 μm to 500 μm; b) Addition of at least one cell culture medium to the at least one selection reservoir to which the therapeutic cell subpopulation migrates; c) Culturing of the original cell population for a period of 15 min to 48 hours, within which period a cell subpopulation migrates through the at least one opening of the selection means towards the at least one selection reservoir; d) Selection and obtaining of a cell, which is selected from at least one of the cells that migrated as the first to the one hundred thousandth cell through the at least one opening of the selection means into the at least one selection reservoir, in order to obtain a cell subpopulation with an elevated migration potential or tropism to a certain cell type compared to the original cell population; and e) selection of a highly migrative cell subpopulation from the cell subpopulation obtained in step d) using at least one agent binding to a cell marker selected from podoplanin, Sca1, CD146 and CD44, thereby isolating a highly migrative therapeutic subpopulation. a) Addition of an original cell population to a first starting reservoir, which is connected via at least one selection means having at least one opening to at least one second selection reservoir, wherein the at least one opening of the at least one selection means has a diameter of 3 μm to 500 μm; b) Addition of at least one cell culture medium to the at least one selection reservoir to which the therapeutic cell subpopulation migrates; c) Culturing of the original cell population for a period of 15 min to 48 hours, within which period a cell subpopulation migrates through the at least one opening of the selection means towards the at least one selection reservoir; d) Selection and obtaining of a cell, which is selected from at least one of the cells that migrated as the first to the one hundred thousandth cell through the at least one opening of the selection means into the at least one selection reservoir, in order to obtain a cell subpopulation with an elevated migration potential or tropism to a certain cell type compared to the original cell population; and e) selection of a highly migrative cell subpopulation from the cell subpopulation obtained in step d) using at least one agent binding to a cell marker selected from podoplanin, Sca1, CD146 and CD44, thereby isolating a highly migrative therapeutic subpopulation.
A bispecific binding protein capable of binding CD40 and capable of binding mesothelin, comprising two polypeptides of formula: scFv X -H-Fc-L-scFv Y, wherein L is a polypeptide linker, H is a hinge region, Fc comprises CH2 and CH3 regions of an immunoglobulin, scFv X and scFv Y are each independently a single chain variable fragment, scFv X specifically binds a first antigen, scFv Y specifically binds a second antigen, and one of the two antigens is CD40 and the other is mesothelin; wherein the scFv that binds CD40 comprises a V H having a CDR-H1 according to SEQ ID NO:25, a CDR-H2 according to SEQ ID NO:26, and a CDR-H3 according to SEQ ID NO:27, and a V L having a CDR-L1 according to SEQ ID NO:55, a CDR-L2 according to SEQ ID NO:56, and a CDR-L3 according to SEQ ID NO:57; and wherein the scFv that binds mesothelin comprises a VH having a CDR-H1 according to SEQ ID NO:241, a CDR-H2 according to SEQ ID NO:242, and a CDR-H3 according to SEQ ID NO:243, and a VL having a CDR-L1 according to SEQ ID NO:244, a CDR-L2 according to SEQ ID NO:245, and a CDR-L3 according to SEQ ID NO:246. L is a polypeptide linker, H is a hinge region, Fc comprises CH2 and CH3 regions of an immunoglobulin, scFv X and scFv Y are each independently a single chain variable fragment, scFv X specifically binds a first antigen, scFv Y specifically binds a second antigen, and one of the two antigens is CD40 and the other is mesothelin; wherein the scFv that binds CD40 comprises a V H having a CDR-H1 according to SEQ ID NO:25, a CDR-H2 according to SEQ ID NO:26, and a CDR-H3 according to SEQ ID NO:27, and a V L having a CDR-L1 according to SEQ ID NO:55, a CDR-L2 according to SEQ ID NO:56, and a CDR-L3 according to SEQ ID NO:57; and wherein the scFv that binds mesothelin comprises a VH having a CDR-H1 according to SEQ ID NO:241, a CDR-H2 according to SEQ ID NO:242, and a CDR-H3 according to SEQ ID NO:243, and a VL having a CDR-L1 according to SEQ ID NO:244, a CDR-L2 according to SEQ ID NO:245, and a CDR-L3 according to SEQ ID NO:246.
An armature coil comprising a plurality of unit coils to be stored in slots of an armature, wherein each unit coil includes a plurality of strands each of which is transposed, and the strands, when the corresponding coil is arranged in the slots of the armature, extend out from one of said slots at both ends in an axial direction of the slot and are electrically connected to form coil end portions (D, E), wherein each of the strands forming each unit coil is configured such that a transposition by a transposition angle of 540 degrees is made between both ends of the slot in the axial direction within the slot, wherein the strand is divided into a first section having a first width in the axial direction, a second section having a second width in the axial direction, and a third section having a third width in the axial direction, said three sections being continuously arranged in the slot in the axial direction from one end side to another end side of the slot, wherein a transposition by a transposition angle of 180 degrees is made in each of the first section, the second section, and the third section, and a transposition by a first transposition angle θ is made at the coil end portions (D, E), wherein each strand has, in each section in the slot, a change portion in which the change rate of transposition of the strand is changed, wherein an axial-direction middle point of the change portion in each section of a first strand which is at least one of the strands of each unit coil is located between a position at transposition angle 90 degrees and a position obtained by adding the first transposition angle θ of the first strand to the transposition angle 90 degrees, in each section.
A buccal pharmaceutical, veterinary or cosmetic composition which comprises an effective amount of: a) octenidine or a pharmaceutically, veterinary or cosmetically acceptable salt thereof, b) a zinc ion source, and c) a fluoride ion source, together with one or more appropriate oral pharmaceutically, veterinary or cosmetically acceptable excipients or carriers. a) octenidine or a pharmaceutically, veterinary or cosmetically acceptable salt thereof, b) a zinc ion source, and c) a fluoride ion source,