mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting and receiving, by a terminal , a signal for location estimation in a wireless communication system, the method comprising: receiving a downlink, DL, positioning reference signal, PRS, from each of a serving base station and reference base stations; measuring a phase difference between sinusoidal components included in the DL PRS for each of the serving base station and the reference base stations; generating an uplink, UL, PRS based on the measured phase differences; and transmitting the UL PRS to the serving base station , wherein the terminal reports the phase difference measured for the serving base station and the phase differences measured for the reference base stations to the serving base station through the transmitting of the UL PRS. receiving a downlink, DL, positioning reference signal, PRS, from each of a serving base station and reference base stations; measuring a phase difference between sinusoidal components included in the DL PRS for each of the serving base station and the reference base stations; generating an uplink, UL, PRS based on the measured phase differences; and transmitting the UL PRS to the serving base station , wherein the terminal reports the phase difference measured for the serving base station and the phase differences measured for the reference base stations to the serving base station through the transmitting of the UL PRS.
A method for decoding a signal, wherein the method comprises: obtaining spectral coefficients of sub-bands from a received bitstream by means of decoding; obtaining an average quantity of allocated bits per spectral coefficient of each of the sub-bands, wherein an average quantity of allocated bits per spectral coefficient of one sub-band is a ratio of a quantity of bits allocated for the one sub-band to a quantity of spectral coefficients in the one sub-band; classifying sub-bands in which the spectral coefficients are located into a sub-band with saturated bit allocation and a sub-band with unsaturated bit allocation by comparing the average quantities of allocated bits per spectral coefficient of the sub-bands with a first threshold; wherein the sub-band with saturated bit allocation refers to a sub-band whose average quantity of allocated bits per spectral coefficient is greater than or equal to the first threshold, and the sub-band with unsaturated bit allocation refers to a sub-band whose average quantity of allocated bits per spectral coefficient is less than the first threshold; performing noise filling on a spectral coefficient that has not been obtained by means of decoding and is in the sub-band with unsaturated bit allocation, so as to reconstruct the spectral coefficient that has not been obtained by means of decoding; and obtaining a frequency domain signal according to the spectral coefficients obtained by means of decoding and the reconstructed spectral coefficient. obtaining spectral coefficients of sub-bands from a received bitstream by means of decoding; obtaining an average quantity of allocated bits per spectral coefficient of each of the sub-bands, wherein an average quantity of allocated bits per spectral coefficient of one sub-band is a ratio of a quantity of bits allocated for the one sub-band to a quantity of spectral coefficients in the one sub-band; classifying sub-bands in which the spectral coefficients are located into a sub-band with saturated bit allocation and a sub-band with unsaturated bit allocation by comparing the average quantities of allocated bits per spectral coefficient of the sub-bands with a first threshold; wherein the sub-band with saturated bit allocation refers to a sub-band whose average quantity of allocated bits per spectral coefficient is greater than or equal to the first threshold, and the sub-band with unsaturated bit allocation refers to a sub-band whose average quantity of allocated bits per spectral coefficient is less than the first threshold; performing noise filling on a spectral coefficient that has not been obtained by means of decoding and is in the sub-band with unsaturated bit allocation, so as to reconstruct the spectral coefficient that has not been obtained by means of decoding; and obtaining a frequency domain signal according to the spectral coefficients obtained by means of decoding and the reconstructed spectral coefficient.
A surgical fastener (232;432;532;632;1132) comprising: a first leg (254;454;554;654) including a distal end, a proximal end, and a first distal piercing point (256;456;556;656) at the distal end of said first leg; a second leg (258;458;558;658) including a distal end, a proximal end, and a second distal piercing point (260;460;560;660) at the distal end of said second leg; a bridge (262;462;662) connecting the proximal ends of said first and second legs for forming a closed end of said surgical fastener; said first distal piercing point having a first insertion tool seating surface (280;480;680); and said second distal piercing point having a second insertion tool seating surface (282;482;682), characterised in that each of said first and second legs has an outer wall (272,274;672,674), and wherein the distance between said first and second distal piercing points (D1) is greater than the distance between the outer walls of said first and second legs. a first leg (254;454;554;654) including a distal end, a proximal end, and a first distal piercing point (256;456;556;656) at the distal end of said first leg; a second leg (258;458;558;658) including a distal end, a proximal end, and a second distal piercing point (260;460;560;660) at the distal end of said second leg; a bridge (262;462;662) connecting the proximal ends of said first and second legs for forming a closed end of said surgical fastener; said first distal piercing point having a first insertion tool seating surface (280;480;680); and said second distal piercing point having a second insertion tool seating surface (282;482;682), characterised in that each of said first and second legs has an outer wall (272,274;672,674), and wherein the distance between said first and second distal piercing points (D1) is greater than the distance between the outer walls of said first and second legs.
A polymer composition comprising (a) a multimodal polymer of ethylene with at least two different comonomers selected from alpha-olefins having from 4 to 10 carbon atoms, - which has a) MFR 2 of 0.5 to 10 g/10 min (according to ISO 1133 at 190°C under 2.16 kg load), b) MFR 21 / MFR 2 of 13 to 30 (MFR 21 at 190°C under 21.6 kg load) and c) MWD of 5 or less; - which comprises at least - an ethylene polymer component (A) and - an ethylene polymer component (B), and wherein the MFR 2 of the ethylene polymer component (A) is different from the MFR 2 of the ethylene polymer component (B). (a) a multimodal polymer of ethylene with at least two different comonomers selected from alpha-olefins having from 4 to 10 carbon atoms, - which has a) MFR 2 of 0.5 to 10 g/10 min (according to ISO 1133 at 190°C under 2.16 kg load), b) MFR 21 / MFR 2 of 13 to 30 (MFR 21 at 190°C under 21.6 kg load) and c) MWD of 5 or less; - which comprises at least - an ethylene polymer component (A) and - an ethylene polymer component (B), and wherein the MFR 2 of the ethylene polymer component (A) is different from the MFR 2 of the ethylene polymer component (B). - which has a) MFR 2 of 0.5 to 10 g/10 min (according to ISO 1133 at 190°C under 2.16 kg load), b) MFR 21 / MFR 2 of 13 to 30 (MFR 21 at 190°C under 21.6 kg load) and c) MWD of 5 or less; a) MFR 2 of 0.5 to 10 g/10 min (according to ISO 1133 at 190°C under 2.16 kg load), b) MFR 21 / MFR 2 of 13 to 30 (MFR 21 at 190°C under 21.6 kg load) and c) MWD of 5 or less; - which comprises at least - an ethylene polymer component (A) and - an ethylene polymer component (B), and wherein the MFR 2 of the ethylene polymer component (A) is different from the MFR 2 of the ethylene polymer component (B). - an ethylene polymer component (A) and - an ethylene polymer component (B), and wherein the MFR 2 of the ethylene polymer component (A) is different from the MFR 2 of the ethylene polymer component (B).
Camshaft comprising a supporting shaft which is designed as a hollow shaft and in the interior of which an inner shaft is arranged concentrically with respect to the supporting shaft , wherein the inner shaft is rotatable relative to the supporting shaft and, on the supporting shaft , there is arranged a first cam segment with a first recess for receiving the supporting shaft , which first cam segment is rotatable relative to the supporting shaft and is connected rotationally conjointly and axially fixedly to the inner shaft with the aid of a connecting means , wherein, on the supporting shaft , there is arranged a second cam segment with a second recess for receiving the supporting shaft , wherein the second cam segment comprises at least two cam contours , and wherein the second cam segment is fastened to the supporting shaft such that the second cam segment is connected rotationally conjointly to the supporting shaft and the second cam segment is arranged axially displaceably on the supporting shaft , characterized in that the camshaft comprises a detent means for arresting the second cam segment at a multiplicity of axial positions, wherein the detent means is arranged at least partially within the inner shaft .
A flow rate measurement device , comprising: a heating unit configured to heat a fluid; temperature sensing units that are provided flanking the heating unit in the direction of fluid flow, and configured to sense the temperature of the heated fluid; a flow rate calculation unit configured to calculate the flow rate of the fluid on the basis of sensing signals outputted from the temperature sensing units ; an angle calculation unit configured to calculate the tilt angle of the temperature sensing units with respect to a specific reference plane; a storage unit configured to store the relation between the flow rate, the tilt angle, and a flow rate correction value; and a flow rate correction unit configured to correct the flow rate by using the flow rate correction value stored in the storage unit ; characterized in that the angle calculation unit is configured to calculate the tilt angle on the basis of the output of the temperature sensing units when no fluid is flowing. a heating unit configured to heat a fluid; temperature sensing units that are provided flanking the heating unit in the direction of fluid flow, and configured to sense the temperature of the heated fluid; a flow rate calculation unit configured to calculate the flow rate of the fluid on the basis of sensing signals outputted from the temperature sensing units ; an angle calculation unit configured to calculate the tilt angle of the temperature sensing units with respect to a specific reference plane; a storage unit configured to store the relation between the flow rate, the tilt angle, and a flow rate correction value; and a flow rate correction unit configured to correct the flow rate by using the flow rate correction value stored in the storage unit ; characterized in that the angle calculation unit is configured to calculate the tilt angle on the basis of the output of the temperature sensing units when no fluid is flowing.
A substrate coated with a stack of layers comprising, in order, at least: i. a transparent substrate (S); ii. a first dielectric layer which Is a high refractive index dielectric layer (H1); iii. a second dielectric layer which is a low refractive index dielectric layer (L1); and iv. a single chromium-based layer (C), characterized In that It has a light transmission of at most 2% i. a transparent substrate (S); ii. a first dielectric layer which Is a high refractive index dielectric layer (H1); iii. a second dielectric layer which is a low refractive index dielectric layer (L1); and iv. a single chromium-based layer (C),
A method for information determination, comprising: receiving , by a terminal device, first configuration information from a network device, characterized in that , the first configuration information is used for configuring a set of Channel State Information-Reference Signal, CSI-RS, resources and configuring a first indication parameter corresponding to the set of CSI-RS resources, wherein respective CSI-RS resources of the set are quasi co-located with respect to a first Quasi Co-Location, QCL, parameter, the first indication parameter is configured to indicate a usage of the set of CSI-RS resources, the usage indicates CSI-RS for tracking, and the first indication parameter is a parameter Tracking Reference Signal-Info, TRS-Info.
A computer desk comprising a desk top, a framework , at least two legs , and at least two leg supporting bases ; the framework joining with the underside of said desk top, and said legs connecting with said framework and being supported by said leg supporting bases , characterized in, - that the desk top comprises a desk top base and a desk cover ; - that the desk top base is comprised of at least two individual desk sections which fit together to create a flat surface, and - that said desk top base includes at least one hole such as to allow cords to pass through or a monitor stand to be mounted; and that the desk cover is fitted to sit completely over said desk top base, and in that said desk cover includes at least one slit such as to allow cords to pass through or a monitor stand to be mounted, said slit being aligned with said at least one hole in said desk top base. - that the desk top comprises a desk top base and a desk cover ; - that the desk top base is comprised of at least two individual desk sections which fit together to create a flat surface, and - that said desk top base includes at least one hole such as to allow cords to pass through or a monitor stand to be mounted; and that the desk cover is fitted to sit completely over said desk top base, and in that said desk cover includes at least one slit such as to allow cords to pass through or a monitor stand to be mounted, said slit being aligned with said at least one hole in said desk top base.
A method for providing a local traffic service, the method comprising: detecting a vehicle is transitioning from a first region of control of a first local traffic service to a second region of control of a second local traffic service; ; providing, to a second traffic management service associated with the second local traffic service, , priority information for the vehicle so as to maintain the priority information for the vehicle during transitioning, wherein the priority information includes at least one of: a vehicle type, a vehicle occupancy level, a service level purchased for the vehicle, and a routing information for the vehicle, wherein the priority information is provided to the second traffic management service at a time determined based on local area congestion and sending, by the second traffic management service, , traffic management communications to the vehicle for controlling a behavior of the vehicle based on the priority information. detecting a vehicle is transitioning from a first region of control of a first local traffic service to a second region of control of a second local traffic service; ; providing, to a second traffic management service associated with the second local traffic service, , priority information for the vehicle so as to maintain the priority information for the vehicle during transitioning, wherein the priority information includes at least one of: a vehicle type, a vehicle occupancy level, a service level purchased for the vehicle, and a routing information for the vehicle, wherein the priority information is provided to the second traffic management service at a time determined based on local area congestion and sending, by the second traffic management service, , traffic management communications to the vehicle for controlling a behavior of the vehicle based on the priority information.
A method for indicating a transmission opportunity, TXOP, duration in a wireless communication system, comprising: generating, by a TXOP holder, a physical layer protocol data unit, PPDU, wherein a High Efficiency Signal field A, HE-SIGA, in the PPDU carries a TXOP duration field, the TXOP duration field consists of 7 bits; wherein the TXOP duration field is used to indicate the TXOP duration which is remaining time for using a channel by the TXOP holder; wherein the TXOP duration field includes a first part which is used to indicate a granularity used to indicate the TXOP duration, and a second part which is used to indicate the TXOP duration using the granularity indicated by the first part; sending, by the TXOP holder, the generated PPDU. generating, by a TXOP holder, a physical layer protocol data unit, PPDU, wherein a High Efficiency Signal field A, HE-SIGA, in the PPDU carries a TXOP duration field, the TXOP duration field consists of 7 bits; wherein the TXOP duration field is used to indicate the TXOP duration which is remaining time for using a channel by the TXOP holder; wherein the TXOP duration field includes a first part which is used to indicate a granularity used to indicate the TXOP duration, and a second part which is used to indicate the TXOP duration using the granularity indicated by the first part; sending, by the TXOP holder, the generated PPDU.
A ball valve , comprising: a valve body including a first body member and a second body member , the valve body defining valve axis (A) and a fluid flow path; a ball element having a port and a ball stem , the ball element rotatable about a ball stem axis (B) between an open position providing fluid flow through the fluid flow path and a closed position inhibiting flow through the fluid flow path; a first body lining including a first body seal portion ; a second body lining including a second body seal portion , the first body seal portion engaging the second body seal portion between the first body member and the second body member , and defining a thickness that decreases as the body seal portions extend away from the valve axis (A); and a stem seal defining a substantially frusto-conical shape and arranged in the valve body , the ball stem extending through the stem seal to form a seal between the ball stem and the stem seal and between the stem seal and the valve body and the stem seal having a body sealing surface ; wherein the body sealing surface of the stem seal defines a convex sealing surface and the valve body defines a tapered wall portion engaged with the convex sealing surface to form a line contact seal such that the line contact seal is maintained in the presence of ball stem displacement. a valve body including a first body member and a second body member , the valve body defining valve axis (A) and a fluid flow path; a ball element having a port and a ball stem , the ball element rotatable about a ball stem axis (B) between an open position providing fluid flow through the fluid flow path and a closed position inhibiting flow through the fluid flow path; a first body lining including a first body seal portion ; a second body lining including a second body seal portion , the first body seal portion engaging the second body seal portion between the first body member and the second body member , and defining a thickness that decreases as the body seal portions extend away from the valve axis (A); and a stem seal defining a substantially frusto-conical shape and arranged in the valve body , the ball stem extending through the stem seal to form a seal between the ball stem and the stem seal and between the stem seal and the valve body and the stem seal having a body sealing surface ; wherein the body sealing surface of the stem seal defines a convex sealing surface and the valve body defines a tapered wall portion engaged with the convex sealing surface to form a line contact seal such that the line contact seal is maintained in the presence of ball stem displacement.
A disposable cutting tool comprising: an elongated molded body with a proximal end and a distal end ; a handle portion formed near the distal end and a support shaft formed near the proximal end; a rasp head having a height, a top side , a bottom side and a fluid connection ; the support shaft affixed to the rasp head via portions of the body co-molded within the rasp head; the portions of the body co-molded within the rasp head comprising a molded neck region formed within the fluid connection ; characterized in that the portions of the body co-molded within the rasp head further comprise a molded collar region connected to the neck region and formed within a passageway in the rasp head; said passageway being fluidly connected to the fluid connection and comprising a first side and a second side formed respectively on either side of the fluid connections . an elongated molded body with a proximal end and a distal end ; a handle portion formed near the distal end and a support shaft formed near the proximal end; a rasp head having a height, a top side , a bottom side and a fluid connection ; the support shaft affixed to the rasp head via portions of the body co-molded within the rasp head; the portions of the body co-molded within the rasp head comprising a molded neck region formed within the fluid connection ; characterized in that the portions of the body co-molded within the rasp head further comprise a molded collar region connected to the neck region and formed within a passageway in the rasp head; said passageway being fluidly connected to the fluid connection and comprising a first side and a second side formed respectively on either side of the fluid connections .
A distance sensing apparatus comprising: a light source arrangement configured to emit polarized light; and a light sensitive detector arrangement configured to detect light emitted by said light source arrangement and reflected from a target , wherein said light sensitive detector arrangement is configured to substantially prevent said polarized light reflected from a target with a relatively high reflectance from reaching said light sensitive detector arrangement , characterised in that the light sensitive detector arrangement comprises an array of light sensitive detectors, wherein said array of light sensitive detectors comprises at least one first light sensitive detector with a detector polarising arrangement, and at least one second light sensitive detector without a detector polarising arrangement, wherein the distance sensing apparatus is configured to compare information obtained from said at least one first light sensitive detector with information obtained from said at least one second light sensitive detector. a light source arrangement configured to emit polarized light; and a light sensitive detector arrangement configured to detect light emitted by said light source arrangement and reflected from a target , wherein said light sensitive detector arrangement is configured to substantially prevent said polarized light reflected from a target with a relatively high reflectance from reaching said light sensitive detector arrangement , characterised in that the light sensitive detector arrangement comprises an array of light sensitive detectors, wherein said array of light sensitive detectors comprises at least one first light sensitive detector with a detector polarising arrangement, and at least one second light sensitive detector without a detector polarising arrangement, wherein the distance sensing apparatus is configured to compare information obtained from said at least one first light sensitive detector with information obtained from said at least one second light sensitive detector.