mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a first user equipment, UE, to receive device-to-device, D2D, data transmissions from a second UE, the method comprising: receiving, from the second UE, a first data transmission; determining whether the first data transmission was correctly received; determining a first set of frequency-domain parameters to use for generating a time-domain sequence; and transmitting, to the second UE using a time-domain sequence generated from the first set of frequency-domain parameters and comprising a plurality of time-domain repetitions of the basic frequency-domain sequence, each repetition carrying first hybrid ARQ, HARQ, indicator of whether the first data transmission was correctly received; wherein the first set of frequency-domain parameters includes the following: the basic frequency-domain sequence; a width, X indicating a frequency-domain spacing between successive elements of the basic frequency-domain sequence; and an offset, Y indicating a frequency-domain position of the first element of the basic frequency-domain sequence; wherein determining the first set of frequency-domain parameters comprises obtaining, from a network node in a radio access network, RAN, or from a memory of the first UE, one or more criteria for selecting the first set of frequency-domain parameters; wherein the first data transmission is a groupcast transmission; and the one or more criteria include a relation for determining X as a function of the number of UEs targeted by the first data transmission. receiving, from the second UE, a first data transmission; determining whether the first data transmission was correctly received; determining a first set of frequency-domain parameters to use for generating a time-domain sequence; and transmitting, to the second UE using a time-domain sequence generated from the first set of frequency-domain parameters and comprising a plurality of time-domain repetitions of the basic frequency-domain sequence, each repetition carrying first hybrid ARQ, HARQ, indicator of whether the first data transmission was correctly received; wherein the first set of frequency-domain parameters includes the following: the basic frequency-domain sequence; a width, X indicating a frequency-domain spacing between successive elements of the basic frequency-domain sequence; and an offset, Y indicating a frequency-domain position of the first element of the basic frequency-domain sequence; wherein determining the first set of frequency-domain parameters comprises obtaining, from a network node in a radio access network, RAN, or from a memory of the first UE, one or more criteria for selecting the first set of frequency-domain parameters; wherein the first data transmission is a groupcast transmission; and the one or more criteria include a relation for determining X as a function of the number of UEs targeted by the first data transmission.
Apparatus for heating a road surface for repair, the apparatus comprising a combustion chamber containing a plate adapted to radiate infra-red radiation towards the road surface, the plate having a first plurality of through-holes formed in it which face towards the road surface, characterised by a radiant screen located a predetermined distance between the plate and the road surface, the radiant screen having a second plurality of through-holes in it and adapted to absorb infra-red radiation radiated from the plate and heat from combustion gases discharged from the first plurality of through-holes and to radiate heat in addition to that emitted from the plate towards the road surface.
Rail vehicle comprising at least one drive device which has at least one electric motor and one traction power converter for supplying the electric motor, comprising a brake device and comprising an apparatus for controlling the drive device and the brake device, wherein the apparatus has a computer unit and a memory unit in which at least one module of a drive control program is stored, wherein a traction power converter control function is executed by the computer unit by means of this module, and wherein at least one module (BS1, BS2) of a brake control program is further stored in the memory unit, wherein a compressed-air brake valve control function and/or a sliding-prevention function are/is executed by the computer unit by means of this module (BS1, BS2).
A method of receiving a signal by a user equipment, UE, in a wireless communication system, the method comprising: receiving, through higher layer signaling, information for enabling frequency hopping; receiving, through a physical downlink control channel, PDCCH, downlink control information, DCI, scheduling two transport blocks, TBs, from a base station, BS; obtaining information from the DCI based on a repetition number configured for the two TBs; and receiving, through a physical downlink shared channel, PDSCH, the two TBs, wherein obtaining information from the DCI comprises: processing, based on the repetition number, 2-bit information in the DCI, i) in a case of the repetition number being 1, each bit of the 2-bit information is only related to a redundancy version, RV, and frequency hopping information is not included in the DCI; characterized in that ii) in a case of the repetition number being larger than 1, a first bit of the 2-bit information is only related to a RV and a second bit of the 2-bit information is only related to the frequency hopping for the two TBs scheduled by the DCI. receiving, through higher layer signaling, information for enabling frequency hopping; receiving, through a physical downlink control channel, PDCCH, downlink control information, DCI, scheduling two transport blocks, TBs, from a base station, BS; obtaining information from the DCI based on a repetition number configured for the two TBs; and receiving, through a physical downlink shared channel, PDSCH, the two TBs, wherein obtaining information from the DCI comprises: processing, based on the repetition number, 2-bit information in the DCI, i) in a case of the repetition number being 1, each bit of the 2-bit information is only related to a redundancy version, RV, and frequency hopping information is not included in the DCI; characterized in that ii) in a case of the repetition number being larger than 1, a first bit of the 2-bit information is only related to a RV and a second bit of the 2-bit information is only related to the frequency hopping for the two TBs scheduled by the DCI. i) in a case of the repetition number being 1, each bit of the 2-bit information is only related to a redundancy version, RV, and frequency hopping information is not included in the DCI; characterized in that ii) in a case of the repetition number being larger than 1, a first bit of the 2-bit information is only related to a RV and a second bit of the 2-bit information is only related to the frequency hopping for the two TBs scheduled by the DCI.
A communication method executed by a head terminal (10, 110), the head terminal forming a group with a plurality of node terminals (20, 30, 40), wherein each of the terminal nodes include a high-data rate radio, HDR, and may selectively include a low data-rate radio, LDR, the method comprising: establishing an LDR link via at least one node terminal (20, 30, 40) included in the group that uses a low data-rate radio, wherein establishing the LDR link comprises receiving LDR information from the at least one node terminal; transmitting (230, 710) a data frame to each node terminal of the plurality of node terminals (20, 30, 40) included in the group; and transmitting (240, 720) acknowledgement, ACK, request frames to one or more of the nodes included in the group; receiving (250, 730) ACKs with respect to the transmitted data frame using multi-radio based on an availability of the LDR, wherein, when a node terminal (20, 30, 40) is able to use the LDR, the receiving the ACK comprises receiving the ACK using the LDR, and when the node terminal is not able to use the LDR, the receiving the ACK comprises receiving the ACK using HDR. establishing an LDR link via at least one node terminal (20, 30, 40) included in the group that uses a low data-rate radio, wherein establishing the LDR link comprises receiving LDR information from the at least one node terminal; transmitting (230, 710) a data frame to each node terminal of the plurality of node terminals (20, 30, 40) included in the group; and transmitting (240, 720) acknowledgement, ACK, request frames to one or more of the nodes included in the group; receiving (250, 730) ACKs with respect to the transmitted data frame using multi-radio based on an availability of the LDR, wherein, when a node terminal (20, 30, 40) is able to use the LDR, the receiving the ACK comprises receiving the ACK using the LDR, and when the node terminal is not able to use the LDR, the receiving the ACK comprises receiving the ACK using HDR.
A male anti-false thread fastener member comprising: a shank that has a lead end and a tool engagement end; a head formed at the tool engagement end of the shank; at least one male fastening thread formed on the exterior of the shank as a plurality of thread windings adapted to mate with a corresponding female fastening thread formed in an interior of a female fastener member; characterized by at least one male lead thread formed on the exterior of the shank at the lead end that is at least a half winding around the shank and comprises curved profile defined by an arc having a radius approximately equal to a radius of an arc that is tangent to both flanks of a thread profile of the at least one male fastening thread and below the pitch line of the at least one male fastener thread. a shank that has a lead end and a tool engagement end; a head formed at the tool engagement end of the shank; at least one male fastening thread formed on the exterior of the shank as a plurality of thread windings adapted to mate with a corresponding female fastening thread formed in an interior of a female fastener member; characterized by at least one male lead thread formed on the exterior of the shank at the lead end that is at least a half winding around the shank and comprises curved profile defined by an arc having a radius approximately equal to a radius of an arc that is tangent to both flanks of a thread profile of the at least one male fastening thread and below the pitch line of the at least one male fastener thread.
Machine for setting up bowling pins in predetermined positions, comprising: - a movable distributing arm, capable of supplying each pin, one by one, to one of the predetermined positions; - a main system for positioning the distributing arm relative to the predetermined positions, the main system being designed for an operation cycle that moves the distributing arm according to a fixed sequence; - a lifting wheel capable of feeding the pins and supplying them on the distributing arm; - driving means provided so as to move the distributing arm, the main system for positioning and the lifting wheel, - means for triggering/stopping the main system, - means for selecting allowing a user to define a position chosen from the predetermined positions for the setting up, by the machine of a pin at the chosen position, characterised in that it comprises a secondary system intended to interfere with the main system for positioning, the secondary system comprising: - means for controlling, the rotation of the lifting wheel so that it stops after each pin supplied on the distributing arm; - said means for triggering/stopping the main system to authorise the operating cycle of the main system until reaching the chosen position. - a movable distributing arm, capable of supplying each pin, one by one, to one of the predetermined positions; - a main system for positioning the distributing arm relative to the predetermined positions, the main system being designed for an operation cycle that moves the distributing arm according to a fixed sequence; - a lifting wheel capable of feeding the pins and supplying them on the distributing arm; - driving means provided so as to move the distributing arm, the main system for positioning and the lifting wheel, - means for triggering/stopping the main system, - means for selecting allowing a user to define a position chosen from the predetermined positions for the setting up, by the machine of a pin at the chosen position, - means for controlling, the rotation of the lifting wheel so that it stops after each pin supplied on the distributing arm; - said means for triggering/stopping the main system to authorise the operating cycle of the main system until reaching the chosen position.
Method for calibrating a rotary encoder for detecting a rotary angle position (21, 22) of a machine shaft, the rotary encoder comprising at least one exciter unit co-rotatably connected to the machine shaft and a static sensor unit functionally interacting with the exciter unit, comprising the following steps: - setting the machine shaft in rotary motion with a predefined rotary speed at a first sensor temperature, - detecting a first position measurement value (31.1, 32.1) at a predefined rotary angle position (21, 22) at the first sensor temperature, - local heating or cooling of the sensor unit, so that only individual regions or components of the sensor unit have a second sensor temperature which is higher or lower than the first sensor temperature, - detecting a second position measurement value (31.2, 32.2) at the rotary angle position (21, 22) at the second sensor temperature, - determining a deviation at least between the second position measurement value (31.2, 32.2) and a target position measurement value (31.0, 32.0), and - correcting an output signal of the rotary encoder by the determined deviation at the rotary angle position (21, 22) at the second sensor temperature. - setting the machine shaft in rotary motion with a predefined rotary speed at a first sensor temperature, - detecting a first position measurement value (31.1, 32.1) at a predefined rotary angle position (21, 22) at the first sensor temperature, - local heating or cooling of the sensor unit, so that only individual regions or components of the sensor unit have a second sensor temperature which is higher or lower than the first sensor temperature, - detecting a second position measurement value (31.2, 32.2) at the rotary angle position (21, 22) at the second sensor temperature, - determining a deviation at least between the second position measurement value (31.2, 32.2) and a target position measurement value (31.0, 32.0), and - correcting an output signal of the rotary encoder by the determined deviation at the rotary angle position (21, 22) at the second sensor temperature.
Internal combustion engine with at least one cylinder, - wherein an oil separator, in particular an oil mist separator, is arranged before the at least one cylinder in the air intake, - wherein at least one turbocharger is provided which supplies compressed charge air to the cylinder, and - wherein the oil separator, in particular the oil mist separator, is arranged between the turbocharger and the at least one cylinder in the air intake, characterised in that - an additional oil separator is arranged upstream of the turbocharger and downstream of the crankcase, - the additional oil separator is connected to an oil reservoir via a return line for returning separated oil. - wherein an oil separator, in particular an oil mist separator, is arranged before the at least one cylinder in the air intake, - wherein at least one turbocharger is provided which supplies compressed charge air to the cylinder, and - wherein the oil separator, in particular the oil mist separator, is arranged between the turbocharger and the at least one cylinder in the air intake, - an additional oil separator is arranged upstream of the turbocharger and downstream of the crankcase, - the additional oil separator is connected to an oil reservoir via a return line for returning separated oil.
A medical diagnostic system comprising: a primary component configured to perform a main function; and an auxiliary component configured to perform a first ancillary function and further configured to perform a second ancillary function separate and distinct from the first ancillary function, wherein the primary component is an electronic component, the first ancillary function is a mechanical function and the second ancillary function is an electrical function, wherein the auxiliary component includes a mechanical sub-component that performs the first ancillary function and an electrical sub-component (2a, 2b, 3) integrated in the mechanical sub-component that performs the second ancillary function and wherein the first ancillary function is to provide a hygienic barrier around the primary component surrounding the primary component protecting the primary component from contamination, wherein the second ancillary function is to convey electrical signals to and from the primary component, characterized in that the auxiliary component is a disposable sheath. a primary component configured to perform a main function; and an auxiliary component configured to perform a first ancillary function and further configured to perform a second ancillary function separate and distinct from the first ancillary function, wherein the primary component is an electronic component, the first ancillary function is a mechanical function and the second ancillary function is an electrical function, wherein the auxiliary component includes a mechanical sub-component that performs the first ancillary function and an electrical sub-component (2a, 2b, 3) integrated in the mechanical sub-component that performs the second ancillary function and wherein the first ancillary function is to provide a hygienic barrier around the primary component surrounding the primary component protecting the primary component from contamination, wherein the second ancillary function is to convey electrical signals to and from the primary component, characterized in that the auxiliary component is a disposable sheath.
A header for an electronic component, comprising a base with at least two electrical feedthroughs, each comprising a feedthrough pin extending through the base and being electrically isolated to the base within the feedthrough, the header further comprising two pedestals connected to the base, and two submounts, each submount comprising a carrier with a structured conductor plating, with the conductor plating comprising at least two conductor traces (130, 131, 132, 133), with one of the conductor traces (130, 131, 132, 133) of each submount being electrically connected to one of the feedthrough pins, each of the pedestals carrying one of the submounts, the pedestals being connected to the base with a gap in between, the gap serving to accommodate an assembly for carrying an electronic device, the conductor plating on the submounts being symmetrical such that, when mounted to the respective pedestals, ends of the conductor traces (130, 131, 132, 133) that are connected to the feedthrough pins and that are distal to the feedthrough pins face each other such that electrical connection to the electronic component from opposite directions is enabled, characterized in that the pattern of the structured conductor plating of the submount has a mirror symmetry, the submounts being identical and mounted in different orientations on respective ones on the provided pedestals.
A battery comprising a positive electrode comprising a lithium-cobalt composite oxide and a lithium-manganese composite oxide, a negative electrode comprising a lithium titanium composite oxide, and a nonaqueous electrolyte, wherein the lithium titanium composite oxide comprises at least one of spinel lithium titanate and ramsdellite lithium titanate, characterized in that the battery satisfies the following formula, and an open circuit voltage of the positive electrode being 3.6 V (Li v.s. Li +) or more when the battery is discharged to 1.8 V at 0.2 C: Qp / Qn > 1.1 wherein Qp is a charge capacity (mAh/m 2) of the positive electrode per unit area, Qn is a charge capacity (mAh/m 2) of the negative electrode per unit area, a charge and discharge range of the positive electrode is from 3.0 to 4.25 V (Li v.s. Li +), and a charge and discharge range of the negative electrode is from 1.4 to 2.0 V (Li v.s. Li +).
A motorcycle tire comprising a toroidal carcass, and a tread reinforcing layer arranged outside the carcass in a tire radial direction and inside of a tread portion, wherein the tread reinforcing layer includes a ply reinforcing portion in which belt-shaped plies are wound, each of the belt-shaped plies is formed by at least one reinforcing cord covered with a topping rubber, the ply reinforcing portion includes a plurality of first inclined portions, in which the belt-shaped plies are inclined to one side with respect to a tire circumferential direction, and a plurality of second inclined portions, in which the belt-shaped plies are inclined to a side opposite to the plurality of the first inclined portions with respect to the tire circumferential direction, the plurality of the first inclined portions are arranged such that side edges thereof are not in contact with each other, the plurality of the second inclined portions are arranged such that side edges thereof are not in contact with each other, the ply reinforcing portion includes a lattice-shaped portion in which the plurality of the first inclined portions and the plurality of the second inclined portions intersect with each other so as to have space portions between them, and in each of the first inclined portions and the second inclined portions, an angle (θ) thereof with respect to the tire circumferential direction is continuously decreased from an inner side in a tire axial direction to an outer side in the tire axial direction. the tread reinforcing layer includes a ply reinforcing portion in which belt-shaped plies are wound, each of the belt-shaped plies is formed by at least one reinforcing cord covered with a topping rubber, the ply reinforcing portion includes a plurality of first inclined portions, in which the belt-shaped plies are inclined to one side with respect to a tire circumferential direction, and a plurality of second inclined portions, in which the belt-shaped plies are inclined to a side opposite to the plurality of the first inclined portions with respect to the tire circumferential direction, the plurality of the first inclined portions are arranged such that side edges thereof are not in contact with each other, the plurality of the second inclined portions are arranged such that side edges thereof are not in contact with each other, the ply reinforcing portion includes a lattice-shaped portion in which the plurality of the first inclined portions and the plurality of the second inclined portions intersect with each other so as to have space portions between them, and in each of the first inclined portions and the second inclined portions, an angle (θ) thereof with respect to the tire circumferential direction is continuously decreased from an inner side in a tire axial direction to an outer side in the tire axial direction.