mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications performed by a transmitter user equipment, UE, the method comprising: transmitting a first repetition of a physical sidelink shared channel, PSSCH, transmission to a receiver UE prior to entering an inactive state, while the transmitter UE is operating in a sidelink discontinuous reception, DRX, mode; returning to an active state to monitor for acknowledgment feedback from the receiver UE, wherein the return is based on a first timer relative to an end of the first repetition of the PSSCH; remaining in the active state for a duration defined by a second timer; and taking one or more actions depending on whether the transmitter UE receives acknowledgment feedback during the duration indicating failed reception of the first repetition of the PSSCH by the receiver UE; characterized in that the method further comprises: pausing at least one of the first or second timers during a common OFF period during which both the transmitter UE and the receiver UE are in a DRX OFF state; and resuming at least one of the first or second timers during a subsequent common ON period during which at least one of the transmitter UE or the receiver UE is in a DRX ON state. transmitting a first repetition of a physical sidelink shared channel, PSSCH, transmission to a receiver UE prior to entering an inactive state, while the transmitter UE is operating in a sidelink discontinuous reception, DRX, mode; returning to an active state to monitor for acknowledgment feedback from the receiver UE, wherein the return is based on a first timer relative to an end of the first repetition of the PSSCH; remaining in the active state for a duration defined by a second timer; and taking one or more actions depending on whether the transmitter UE receives acknowledgment feedback during the duration indicating failed reception of the first repetition of the PSSCH by the receiver UE; characterized in that the method further comprises: pausing at least one of the first or second timers during a common OFF period during which both the transmitter UE and the receiver UE are in a DRX OFF state; and resuming at least one of the first or second timers during a subsequent common ON period during which at least one of the transmitter UE or the receiver UE is in a DRX ON state. pausing at least one of the first or second timers during a common OFF period during which both the transmitter UE and the receiver UE are in a DRX OFF state; and resuming at least one of the first or second timers during a subsequent common ON period during which at least one of the transmitter UE or the receiver UE is in a DRX ON state.
A composite comprising: a layer formed from epoxy material; a porous layer partially disposed within said layer formed from epoxy material; and a UHMWPE thermoplastic layer, having a coefficient of friction of less than about 0.25 at 23°C and a thickness of between 0.2 mm and 10 cm, which is in contact with said porous layer; whereby upon joining said layers a portion of said UHMWPE thermoplastic layer penetrates said porous layer to become directly coupled to the layer of said substrate formed from epoxy material. a layer formed from epoxy material; a porous layer partially disposed within said layer formed from epoxy material; and a UHMWPE thermoplastic layer, having a coefficient of friction of less than about 0.25 at 23°C and a thickness of between 0.2 mm and 10 cm, which is in contact with said porous layer; whereby upon joining said layers a portion of said UHMWPE thermoplastic layer penetrates said porous layer to become directly coupled to the layer of said substrate formed from epoxy material.
A method performed by a user equipment, UE, in a 3GPP New Radio, NR, wireless communication system, the method comprising: receiving downlink control information, DCI, through a physical downlink control channel, PDCCH; and transmitting a hybrid automatic repeat request, HARQ,-acknowledgement, ACK, report based on the DCI, wherein, in transmitting the HARQ-ACK report, even though spatial bundling for transport block, TB,-based ACK/negative-ACK, NACK, bits is configured, based on the DCI indicating a specific type codebook-based HARQ-ACK report for one-shot-based transmission of ACK/NACKs for all HARQ processes of one or more serving cells configured for the UE and the UE being configured to report each new data indicator, NDI, bit through the specific type codebook-based HARQ-ACK report, the UE reports each NDI bit and each TB-based ACK/NACK bit without performing the spatial bundling, and wherein the specific type codebook is a type-3 codebook, and the spatial bundling is not performed, as an exception to the spatial bundling, for a type-3 codebook-based HARQ-ACK report configured to include each NDI bit. receiving downlink control information, DCI, through a physical downlink control channel, PDCCH; and transmitting a hybrid automatic repeat request, HARQ,-acknowledgement, ACK, report based on the DCI, wherein, in transmitting the HARQ-ACK report, even though spatial bundling for transport block, TB,-based ACK/negative-ACK, NACK, bits is configured, based on the DCI indicating a specific type codebook-based HARQ-ACK report for one-shot-based transmission of ACK/NACKs for all HARQ processes of one or more serving cells configured for the UE and the UE being configured to report each new data indicator, NDI, bit through the specific type codebook-based HARQ-ACK report, the UE reports each NDI bit and each TB-based ACK/NACK bit without performing the spatial bundling, and wherein the specific type codebook is a type-3 codebook, and the spatial bundling is not performed, as an exception to the spatial bundling, for a type-3 codebook-based HARQ-ACK report configured to include each NDI bit.
A laser system port adaptor (150, 250) comprising: a first port arm for coupling with a laser source, wherein the first port arm contains an optical element for collimating a laser light beam having a wavelength contained within at least one of two narrow bands of an electromagnetic spectrum of light; a second port arm for coupling with an illumination system; a third port arm for coupling with a fiber optic cable of a laser probe; and a multiplexing intersection region where the first port arm, the second port arm, and the third port arm intersect, the multiplexing intersection region containing: a diffractive optical element, DOE, configured to receive a collimated laser light beam from the optical element and to create a multi-spot laser pattern of laser light beams; and a beamsplitter configured to reflect the at least two narrow bands of the electromagnetic spectrum of light, receive the multi-spot pattern of laser light beams, reflect the multi-spot laser pattern of laser light beams towards the third port arm, receive an illumination beam from the illumination system, and transmit portions of the illumination beam not contained within the at least two narrow bands of the electromagnetic spectrum towards the third port arm. a first port arm for coupling with a laser source, wherein the first port arm contains an optical element for collimating a laser light beam having a wavelength contained within at least one of two narrow bands of an electromagnetic spectrum of light; a second port arm for coupling with an illumination system; a third port arm for coupling with a fiber optic cable of a laser probe; and a multiplexing intersection region where the first port arm, the second port arm, and the third port arm intersect, the multiplexing intersection region containing: a diffractive optical element, DOE, configured to receive a collimated laser light beam from the optical element and to create a multi-spot laser pattern of laser light beams; and a beamsplitter configured to reflect the at least two narrow bands of the electromagnetic spectrum of light, receive the multi-spot pattern of laser light beams, reflect the multi-spot laser pattern of laser light beams towards the third port arm, receive an illumination beam from the illumination system, and transmit portions of the illumination beam not contained within the at least two narrow bands of the electromagnetic spectrum towards the third port arm. a diffractive optical element, DOE, configured to receive a collimated laser light beam from the optical element and to create a multi-spot laser pattern of laser light beams; and a beamsplitter configured to reflect the at least two narrow bands of the electromagnetic spectrum of light, receive the multi-spot pattern of laser light beams, reflect the multi-spot laser pattern of laser light beams towards the third port arm, receive an illumination beam from the illumination system, and transmit portions of the illumination beam not contained within the at least two narrow bands of the electromagnetic spectrum towards the third port arm.
Method for detection of drowsiness of a person, based on a relationship between distal temperature (Td) and heart rate, wherein - a distal temperature (Td) in a predetermined distal region of the person is measured and monitored as a measure for body heat loss, and - a heart rate of the person is measured and monitored as a measure for body heat production, characterized in that a change in balance between body heat loss and body heat production is evaluated by comparing a change of the distal temperature (dTdm/dt, ΔTdm) with a first threshold (Tr1, TR3) and, after passing said first threshold (Tr1, Tr3), comparing a change of the heart rate (dHR/dt) with a second threshold or with the change of the distal temperature (dTdm/dt), wherein drowsiness in the immediate future is concluded when the change of distal temperature (dTdm/dt, ΔTdm) passes said first threshold (Tr1, Tr3) and, subsequently, the change of the heart rate (dHR/dt) passes said second threshold or, subsequently, the change of the distal temperature (dTdm/dt) is larger than the change of the heart rate (dHRm/dt). - a distal temperature (Td) in a predetermined distal region of the person is measured and monitored as a measure for body heat loss, and - a heart rate of the person is measured and monitored as a measure for body heat production, characterized in that a change in balance between body heat loss and body heat production is evaluated by comparing a change of the distal temperature (dTdm/dt, ΔTdm) with a first threshold (Tr1, TR3) and, after passing said first threshold (Tr1, Tr3), comparing a change of the heart rate (dHR/dt) with a second threshold or with the change of the distal temperature (dTdm/dt),
A power adaptor for a lighting unit (50,250) having a solid state light source (50a,50b,50c), the power adaptor comprising an input for connection to a mains power supply (L,N), a power transfer module that is coupled to the input and is adapted to provide an output suitable for driving the solid state light source (50a,50b,50c) and said power transfer module comprises switches, and a controller that receives a voltage signal from the input and is able to deliver a control signal to the power transfer module, characterised in that the power transfer module includes an LCL series-parallel resonant circuit and, with a profiled open loop control of switching times of the switches for controlling the LCL series-parallel resonant circuit by the controller, the power adaptor is adapted to draw current from the input as a function of the voltage at the input in order that the power adaptor appears as a variable resistor to the mains supply, and in response to the voltage at the input being determined by an external power reducing device, the current drawn from the input is controlled to a desired shape and magnitude, such that the intensity of light output from the solid state light source (50a,50b,50c) is controllable.
A method of operating a wireless device in a wireless network, the wireless device comprising a receiver, the method comprising: determining a subchannel within a system bandwidth of the wireless network, wherein the subchannel is an off-center subchannel with respect to the system bandwidth, and the subchannel includes a plurality of consecutive subcarriers taken from one or more contiguous physical resource blocks, PRBs; mapping the subchannel's center frequency to a lowest or highest frequency subcarrier of a PRB included in the subchannel, wherein the center frequency corresponds to a direct current, DC, subcarrier at the receiver; and allocating, by a wireless network node, the subchannel to the wireless device. determining a subchannel within a system bandwidth of the wireless network, wherein the subchannel is an off-center subchannel with respect to the system bandwidth, and the subchannel includes a plurality of consecutive subcarriers taken from one or more contiguous physical resource blocks, PRBs; the subchannel is an off-center subchannel with respect to the system bandwidth, and the subchannel includes a plurality of consecutive subcarriers taken from one or more contiguous physical resource blocks, PRBs; mapping the subchannel's center frequency to a lowest or highest frequency subcarrier of a PRB included in the subchannel, wherein the center frequency corresponds to a direct current, DC, subcarrier at the receiver; and allocating, by a wireless network node, the subchannel to the wireless device.
Wash apparatus for a vehicle wash installation, which wash apparatus comprises a shaft drivable in rotation about a rotation axis and wash elements operatively connected thereto, for cleaning a vehicle, wherein the wash apparatus is divided axially in two or more wash apparatus segments and at least one wash apparatus segment comprises a wash element holding body having wash elements held thereto, said wash element holding body defining a wash apparatus segment axis which is different from the rotation axis, and a gear device which couples the shaft to the wash element holding body in order to rotate same about the wash apparatus segment axis, wherein the wash element holding body is configured for pivotal movement relative to the shaft about the rotation axis via the gear device, wherein the gear device comprises a drive element that is connected to the shaft in rotationally fixed relation therewith and a rotary body to which the wash element holding body is held in rotationally fixed relation or which forms the wash element holding body, wherein the rotary body is in engagement with the drive element, wherein the rotary body is a ring gear and the drive element is a roller that rolls on the inside of the ring gear, or wherein the rotary body is an internally toothed ring gear and the drive element is a toothed wheel meshing with the ring gear, wherein the gear device comprises at least one engagement element configured as a toothed wheel or roller which rolls on the ring gear, characterized in that the gear device comprises two coupling bodies on which is rotatably supported at least one engagement element and which are respectively supported for rotary movement on the shaft, the two coupling bodies being axially arranged on sides of the rotary body and the at least one engagement element facing away from each other.
Cyclic peptide meeting the following formula: wherein: - S 1 is a first target peptide sequence of a protease enzyme E 1 of MMP type; - S 2 is a second target peptide sequence of a protease enzyme E 2 of MMP type, S 1 and S 2 possibly being the same or different, said first peptide sequence S 1 and said second peptide sequence S 2 comprising 4 to 14 amino acids, E 1 and E 2 possibly corresponding to the same protease enzyme or to two different protease enzymes; - X 1 is a probe carrying a fluorescent donor group; - X 2 is a probe carrying a fluorescent or non-fluorescent acceptor group; - R 1 and R 2 independently correspond to a simple bond, an amino acid residue or a peptide sequence; - Y corresponds to a -CONH- or -NHCO- group, the MMP protease enzyme being chosen from among MMP-1, MMP-2, MMP-3, MMP-5, MMP-7, MMP-8, MMP-9, MMP-10, MMP-11, MMP-12, MMP-13, MMP-14, MMP-15, MMP-16, MMP-17, MMP-19, MMP-23, MMP-25 and MMP-26 and mixtures thereof. - S 1 is a first target peptide sequence of a protease enzyme E 1 of MMP type; - S 2 is a second target peptide sequence of a protease enzyme E 2 of MMP type, S 1 and S 2 possibly being the same or different, said first peptide sequence S 1 and said second peptide sequence S 2 comprising 4 to 14 amino acids, E 1 and E 2 possibly corresponding to the same protease enzyme or to two different protease enzymes; - X 1 is a probe carrying a fluorescent donor group; - X 2 is a probe carrying a fluorescent or non-fluorescent acceptor group; - R 1 and R 2 independently correspond to a simple bond, an amino acid residue or a peptide sequence; - Y corresponds to a -CONH- or -NHCO- group,
Method for treating a liquid, wherein a feed stream is separated into a permeate stream and a retentate stream by means of a membrane arrangement, and at least a portion of the retentate stream is discharged as a defined displacement volume from the membrane arrangement via a first displacement arrangement, wherein the feed stream is divided into a portion which is fed as a defined displacement volume to the membrane arrangement via a second displacement arrangement and into a portion which is fed to the membrane arrangement by means of a delivery unit, wherein the two displacement arrangements (7, 8) are operated at the same rotational speed, wherein the yield is varied by changing the ratio of the rotational speed of the delivery unit to the rotational speed of the second displacement arrangement, characterized in that parameters of the membrane arrangement, in particular permeability, effective surface area and stage of consumption, are determined, in that parameters of the feed stream, in particular salinity, temperature and pressure, are determined, in that the mode of operation of the system is predefined, wherein the control system adapts the ratio of the rotational speed of the delivery unit to the rotational speed of the displacement arrangement by way of the mode of operation, wherein the yield of the liquid treatment system varies by changing the ratio of the rotational speed of the displacement pump to the rotational speed of the delivery unit connected in parallel therewith, wherein an optimum yield is set, without relatively large energy losses, via the ratio of the rotational speed of the delivery unit to the rotational speed of the displacement unit connected in parallel therewith, wherein, subsequently, the absolute rotational speed is predefined by the desired permeate stream which is varied by increasing or reducing the rotational speeds of the delivery unit and the second displacement unit while keeping constant the ratio of the rotational speeds with respect to one another.
A low-resistance connection body for a high-temperature superconducting wire, in which a high-temperature superconducting bulk body and a high-temperature superconducting wire (10a, 10b) including a high-temperature superconducting layer are connected to each other, wherein a melting point of the high-temperature superconducting layer is higher than a melting point of the high-temperature superconducting bulk body; the high-temperature superconducting layer and the high-temperature superconducting bulk body are in contact at a connection site (21a, 21b) of the high-temperature superconducting wire and the high-temperature superconducting bulk body; and a surface of the high-temperature superconducting bulk body that is in contact with the high-temperature superconducting layer is crystallized into single crystal, and other portions of the high-temperature superconducting bulk body is crystallized into polycrystal due to crystal growth.
A structural wideband multifunctional aperture comprising: a ground plane operable to ground radio frequency and direct current electrical fields; a structural egg crate circuit board comprising a grid of circuit board planes coupled to the ground plane and configured substantially perpendicular to the ground plane around a plurality of open boxes (114,116); a signal feed-line coupled to the structural egg crate circuit board, the signal feed-line arranged to couple to a signal transmission line; a driven feed layer (720,722) configured substantially parallel to the ground plane and coupled to the signal feed-line and to a side of the structural egg crate circuit board opposite to the ground plane; a grounded shorting-line (314,316) coupled to the structural egg crate circuit board and the ground plane; a grounded feed layer (716,718) configured parallel to the ground plane and coupled to the grounded shorting-line and to the structural egg crate circuit board opposite to the ground plane; driven antenna elements (302, 306) configured to electromagnetically couple to the driven feed layer; and grounded antenna elements (304, 308) configured to electromagnetically couple to the grounded feed layer, wherein the driven antenna elements and the grounded antenna elements comprise first (302, 304) and second (306, 308) bow-tie antenna elements; and in which the first and second bow-tie antenna elements are capacitively coupled in an overlap region (310,704). a ground plane operable to ground radio frequency and direct current electrical fields; a structural egg crate circuit board comprising a grid of circuit board planes coupled to the ground plane and configured substantially perpendicular to the ground plane around a plurality of open boxes (114,116); a signal feed-line coupled to the structural egg crate circuit board, the signal feed-line arranged to couple to a signal transmission line; a driven feed layer (720,722) configured substantially parallel to the ground plane and coupled to the signal feed-line and to a side of the structural egg crate circuit board opposite to the ground plane; a grounded shorting-line (314,316) coupled to the structural egg crate circuit board and the ground plane; a grounded feed layer (716,718) configured parallel to the ground plane and coupled to the grounded shorting-line and to the structural egg crate circuit board opposite to the ground plane; driven antenna elements (302, 306) configured to electromagnetically couple to the driven feed layer; and grounded antenna elements (304, 308) configured to electromagnetically couple to the grounded feed layer, wherein the driven antenna elements and the grounded antenna elements comprise first (302, 304) and second (306, 308) bow-tie antenna elements; and in which the first and second bow-tie antenna elements are capacitively coupled in an overlap region (310,704).