mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a frequency to be measured, comprising: receiving, by a terminal, frequency information about an inter-frequency measurement object and frequency priority information about the inter-frequency measurement object, wherein, receiving, by the terminal, the frequency priority information about the inter-frequency measurement object comprises: receiving, by the terminal, a system broadcast message or a dedicated control signaling, wherein the system broadcast message or the dedicated control signaling comprises the frequency priority information about the inter-frequency measurement object; determining, by the terminal, the number of frequencies for the inter-frequency measurement object according to the frequency information; and when the determined number of the frequencies for the inter-frequency measurement object is greater than the number of frequencies for an inter-frequency measurement object supported by the terminal, selecting, by the terminal, frequencies to be measured from the frequencies for the inter-frequency measurement object according to the frequency priority information, wherein the number of the frequencies to be measured is equal to the number of the frequencies for the inter-frequency measurement object supported by the terminal. receiving, by a terminal, frequency information about an inter-frequency measurement object and frequency priority information about the inter-frequency measurement object, wherein, receiving, by the terminal, the frequency priority information about the inter-frequency measurement object comprises: receiving, by the terminal, a system broadcast message or a dedicated control signaling, wherein the system broadcast message or the dedicated control signaling comprises the frequency priority information about the inter-frequency measurement object; determining, by the terminal, the number of frequencies for the inter-frequency measurement object according to the frequency information; and when the determined number of the frequencies for the inter-frequency measurement object is greater than the number of frequencies for an inter-frequency measurement object supported by the terminal, selecting, by the terminal, frequencies to be measured from the frequencies for the inter-frequency measurement object according to the frequency priority information, wherein the number of the frequencies to be measured is equal to the number of the frequencies for the inter-frequency measurement object supported by the terminal.
An endograft introducer assembly comprising: a pusher assembly comprising a guide wire catheter, a tip mounted to a proximal end of the guide wire catheter, a stent graft receiving portion distal of the tip and a pusher distal of the receiving portion; a transfer sheath extending distally over the stent graft receiving portion from a proximal position adjacent to the tip, the transfer sheath having a first length over the stent graft receiving portion; and a stopper disposed co-axially around the transfer sheath, the stopper having a proximal end terminating in a stopper surface and a distal portion, the distal portion removably engaged with the transfer sheath so as to prevent relative axial movement between the stopper and the transfer sheath in at least one direction, wherein the distal portion of the stopper comprises a transfer sheath receiving portion having a receiving outer diameter and wherein the stopper surface has a stopper outer diameter, the stopper outer diameter larger than the receiving outer diameter. a pusher assembly comprising a guide wire catheter, a tip mounted to a proximal end of the guide wire catheter, a stent graft receiving portion distal of the tip and a pusher distal of the receiving portion; a transfer sheath extending distally over the stent graft receiving portion from a proximal position adjacent to the tip, the transfer sheath having a first length over the stent graft receiving portion; and a stopper disposed co-axially around the transfer sheath, the stopper having a proximal end terminating in a stopper surface and a distal portion, the distal portion removably engaged with the transfer sheath so as to prevent relative axial movement between the stopper and the transfer sheath in at least one direction, wherein the distal portion of the stopper comprises a transfer sheath receiving portion having a receiving outer diameter and wherein the stopper surface has a stopper outer diameter, the stopper outer diameter larger than the receiving outer diameter.
A digital circuitry configured to perform calculations for an inclinometer device, the circuitry comprising: - an interface configured to receive detection signals (acc x, acc y, acc z) from an accelerometer device; and - a CORDIC unit configured to perform calculation of inclinometer output values (θ, A i+1) characterizing a resultant vector (g), the resultant vector representing the detection signals, wherein the CORDIC calculation unit is configured to perform a first calculation for resolving an angle between the resultant vector and a programmable reference value (one_g), characterized in that the first calculation comprises phases of: - determining a first intermediate result corresponding to a length of a projection (a x, a y, a z) of the resultant vector (g) on a reference axis (x, y, z) times a multiplier representing the change of the length of the vector by using a hyperbolic CORDIC arctangent function; - determining a second intermediate result corresponding to a length of a component of the resultant vector (g) orthogonal with the reference axis multiplied with a multiplier representing a change of the length of the vector using a hyperbolic CORDIC arctangent function; and - determining an angle (θ) between the resultant vector (g) and a calculated axis orthogonal to the reference axis based on the first and the second intermediate results using a circular CORDIC arctangent function. - an interface configured to receive detection signals (acc x, acc y, acc z) from an accelerometer device; and - a CORDIC unit configured to perform calculation of inclinometer output values (θ, A i+1) characterizing a resultant vector (g), the resultant vector representing the detection signals, - determining a first intermediate result corresponding to a length of a projection (a x, a y, a z) of the resultant vector (g) on a reference axis (x, y, z) times a multiplier representing the change of the length of the vector by using a hyperbolic CORDIC arctangent function; - determining a second intermediate result corresponding to a length of a component of the resultant vector (g) orthogonal with the reference axis multiplied with a multiplier representing a change of the length of the vector using a hyperbolic CORDIC arctangent function; and - determining an angle (θ) between the resultant vector (g) and a calculated axis orthogonal to the reference axis based on the first and the second intermediate results using a circular CORDIC arctangent function.
A method of wireless communication, comprising: monitoring, by a user equipment, UE, for a control signal from a serving base station, wherein the control signal identifies a current transmission opportunity, TXOP, of the serving base station; characterised by: obtaining, by the UE, an autonomous random access configuration for communications outside of the current TXOP, wherein the autonomous random access configuration identifies a random access slot that includes a plurality of random access occasions; and transmitting, by the UE, in response to a failure to detect the control signal an autonomous random access signal in a random access occasion of the plurality of random access occasions corresponding to a synchronization signal block, SSB, identified by the UE for transmission. monitoring, by a user equipment, UE, for a control signal from a serving base station, wherein the control signal identifies a current transmission opportunity, TXOP, of the serving base station; characterised by: obtaining, by the UE, an autonomous random access configuration for communications outside of the current TXOP, wherein the autonomous random access configuration identifies a random access slot that includes a plurality of random access occasions; and transmitting, by the UE, in response to a failure to detect the control signal an autonomous random access signal in a random access occasion of the plurality of random access occasions corresponding to a synchronization signal block, SSB, identified by the UE for transmission. obtaining, by the UE, an autonomous random access configuration for communications outside of the current TXOP, wherein the autonomous random access configuration identifies a random access slot that includes a plurality of random access occasions; and transmitting, by the UE, in response to a failure to detect the control signal an autonomous random access signal in a random access occasion of the plurality of random access occasions corresponding to a synchronization signal block, SSB, identified by the UE for transmission.
A pneumatic radial tire comprising a cap ply strip circumferentially wound on a belt package, said cap ply strip is made of parallel, two or three plied nylon 6,6 cords and two or three plied PET cords as the warps of a woven, characterized in that, the cable twist factor of the said two or three plied PET cord is at least 15% higher than the cable twist factor of the said two or three plied nylon 6,6 cord wherein said cable twist factors are determined according to the following formula; Twist factor= cord cable twist x (total cord linear density) 1/2, with cord cable twist in turns per meter, abbreviated tpm, and total cord linear density in dtex.
An uplink sounding reference signal triggering method performed by a user equipment, UE, apparatus, the method comprising: receiving a downlink control information, DCI, from a base station; wherein the DCI comprises sounding reference signal, SRS, control information of each UE of Y UEs in a cell managed by the base station, wherein Y is a positive integer not less than 2, a bit quantity of the SRS control information of each i th UE in the Y UEs is k i, 1≤i≤Y, and k i is a positive integer not less than 1, and wherein a cyclic redundancy check, CRC, of the DCI is scrambled by a radio network temporary identifier, RNTI, received from the base station; descrambling the CRC of the DCI; detecting, when the descrambling succeeds, whether the DCI comprises SRS control information of the UE; detecting the location of the SRS control information of the UE in the DCI; and triggering an SRS transmission according to the SRS control information of the UE with the detected location after detecting that the DCI comprises the SRS control information of the UE. receiving a downlink control information, DCI, from a base station; wherein the DCI comprises sounding reference signal, SRS, control information of each UE of Y UEs in a cell managed by the base station, wherein Y is a positive integer not less than 2, a bit quantity of the SRS control information of each i th UE in the Y UEs is k i, 1≤i≤Y, and k i is a positive integer not less than 1, and wherein a cyclic redundancy check, CRC, of the DCI is scrambled by a radio network temporary identifier, RNTI, received from the base station; descrambling the CRC of the DCI; detecting, when the descrambling succeeds, whether the DCI comprises SRS control information of the UE; detecting the location of the SRS control information of the UE in the DCI; and triggering an SRS transmission according to the SRS control information of the UE with the detected location after detecting that the DCI comprises the SRS control information of the UE.
Door lock device for an emergency exit door having a door leaf, comprising an actuation handle, a door lock and a transmission device that converts a movement of the actuation handle relative to the door leaf into a movement for actuating the door lock, wherein it is provided that the actuation handle is formed as a push bar that is arranged on a linear guide, wherein the guide axis of the linear guide is perpendicular on the door leaf, a connecting link gear is arranged between the push bar and the door lock, wherein the connecting link gear comprises a first connecting link arranged on the push bar, a two-armed lever and a second connecting link arranged on a slide bar, wherein the two-armed lever has a first end section having a first connecting link block that engages in a connecting link recess of the first connecting link and a second end section having a second connecting link block that engages in a connecting link recess of the second connecting link, and the two-armed lever is rotatably mounted on a guide rail of the linear guide.
An outlet connectable between the outlet opening at an underside of a wash-basin and a horizontal outlet pipe, comprising: - a housing (11, 12, 21, 22) having on the top side an opening for connection to the wash-basin and comprising a first housing part (11, 21) and a second housing part (12, 22) which can be screwed into each other such that the outlet opening of the wash basin is clamped between the two parts; - a valve for closing the opening of the housing, which valve comprises an operating pin extending downwardly in the housing, wherein the first housing part (11, 21) has a lateral outlet opening (15, 23) for lateral discharge of water to the outlet pipe; and wherein the operating pin extends downwardly into the first housing part (11, 21), characterized in that the outlet further comprises a horizontal outlet pipe (16, 24) connected to the lateral outlet opening. - a housing (11, 12, 21, 22) having on the top side an opening for connection to the wash-basin and comprising a first housing part (11, 21) and a second housing part (12, 22) which can be screwed into each other such that the outlet opening of the wash basin is clamped between the two parts; - a valve for closing the opening of the housing, which valve comprises an operating pin extending downwardly in the housing,
A method of controlling access to one or more media files by an end user attempting to access the media files from one or more end user processors, the method comprising: setting a permissible number of end user processors from which access to the media files by an end user is permissible; receiving one or more requests from the end user for access to a media file of the media files, each request made from one of the end user processors; storing a correspondence between an indicator of the requested media file and an indication of each end user processor from which the one or more received requests from the end user for access to the requested media file are made until the number of the stored end user processor indications for the end user is determined to equal the permissible number of end user processors; granting a received request to access the requested media file so long as the end user processor from which the received request is made corresponds to a stored indication for the end user and the requested media file; and denying the received request to access the requested media file if the end user processor from which the received request is made does not correspond to a stored indication for the end user and the requested media file. setting a permissible number of end user processors from which access to the media files by an end user is permissible; receiving one or more requests from the end user for access to a media file of the media files, each request made from one of the end user processors; storing a correspondence between an indicator of the requested media file and an indication of each end user processor from which the one or more received requests from the end user for access to the requested media file are made until the number of the stored end user processor indications for the end user is determined to equal the permissible number of end user processors; granting a received request to access the requested media file so long as the end user processor from which the received request is made corresponds to a stored indication for the end user and the requested media file; and denying the received request to access the requested media file if the end user processor from which the received request is made does not correspond to a stored indication for the end user and the requested media file.
Signaling horn to signal an alarm or operating condition of a technical apparatus such as a machine, a system, a vehicle or the like and/or to generate an attention-getting signal with at least one acoustic signal transmitter to generate an acoustic signal (17, 20), wherein a sensor unit is provided to detect the resonant oscillation ' of the signal transmitter, characterized in that a test unit is provided with means for exciting one or more test oscillations (6, 7) of the signal transmitter the test unit is designed to scan a frequency band, wherein the resonant frequency lies within the frequency band, and the sensor unit is designed to detect the amplitude of the signal transmitter, wherein the signal transmitter is so designed that it oscillates with its maximum amplitude when it is subjected to a test oscillation from the test unit that substantially corresponds to the resonant oscillation (6, 7).
A method for producing silicon-containing oxide-coated aluminum nitride particles comprising aluminum nitride particles and a silicon-containing oxide coating covering a surface of each of the aluminum nitride particles, the method comprising: a first step comprising mixing aluminum nitride particles and an organic silicone compound solution in which an organic silicone compound having a structure represented by formula below is dissolved in a solvent to form a mixture and then heating the mixture to remove the solvent and to obtain aluminum nitride particles coated with the organic silicone compound; and a second step comprising heating the aluminum nitride particles coated with the organic silicone compound at a temperature of 300°C or more and 1,000°C or less, wherein R is an alkyl group having 4 or less carbon atoms, wherein the organic silicone compound having the structure represented by formula comprises at least one of a compound represented by formula below and a compound represented by formula below, wherein R1 and R2 are each independently a hydrogen atom or a methyl group, provided that at least one of R1 and R2 is a hydrogen atom, and m is an integer from 0 to 10, wherein n is an integer from 3 to 6. a first step comprising mixing aluminum nitride particles and an organic silicone compound solution in which an organic silicone compound having a structure represented by formula below is dissolved in a solvent to form a mixture and then heating the mixture to remove the solvent and to obtain aluminum nitride particles coated with the organic silicone compound; and a second step comprising heating the aluminum nitride particles coated with the organic silicone compound at a temperature of 300°C or more and 1,000°C or less, wherein R is an alkyl group having 4 or less carbon atoms, wherein the organic silicone compound having the structure represented by formula comprises at least one of a compound represented by formula below and a compound represented by formula below, wherein R1 and R2 are each independently a hydrogen atom or a methyl group, provided that at least one of R1 and R2 is a hydrogen atom, and m is an integer from 0 to 10, wherein n is an integer from 3 to 6.
A semiconductor device (200, 410, 420, 430, 440) comprising: a dummy pillar (204, 412, 422, 432, 442) of semiconductor material that extends in a first lateral direction; a plurality of elongated racetrack pillars including the semiconductor material and surrounding the dummy pillar, wherein each of the plurality of elongated racetrack pillars has closed-loop racetrack shape and includes a first and a second linear section, that each extend in the first lateral direction, a first and a second rounded section to form the closed-loop racetrack shape, wherein the rounded sections have substantially a same radius of curvature, and wherein the plurality of elongated racetrack pillars includes: a first racetrack pillar disposed proximate to the dummy pillar; and a second racetrack pillar (212, 214, 216) surrounding the first racetrack pillar, wherein the first racetrack pillar is disposed between the dummy pillar and the second racetrack pillar; and a plurality of spacing regions including a first spacing region and a second spacing region (222, 224, 226, 228), wherein the first spacing region surrounds the dummy pillar and is disposed between the first racetrack pillar and the dummy pillar, and wherein the second spacing region surrounds the first racetrack pillar and is disposed between the first racetrack pillar and the second racetrack pillar. a dummy pillar (204, 412, 422, 432, 442) of semiconductor material that extends in a first lateral direction; a plurality of elongated racetrack pillars including the semiconductor material and surrounding the dummy pillar, wherein each of the plurality of elongated racetrack pillars has closed-loop racetrack shape and includes a first and a second linear section, that each extend in the first lateral direction, a first and a second rounded section to form the closed-loop racetrack shape, wherein the rounded sections have substantially a same radius of curvature, and wherein the plurality of elongated racetrack pillars includes: a first racetrack pillar disposed proximate to the dummy pillar; and a second racetrack pillar (212, 214, 216) surrounding the first racetrack pillar, wherein the first racetrack pillar is disposed between the dummy pillar and the second racetrack pillar; and a first racetrack pillar disposed proximate to the dummy pillar; and a second racetrack pillar (212, 214, 216) surrounding the first racetrack pillar, wherein the first racetrack pillar is disposed between the dummy pillar and the second racetrack pillar; and a plurality of spacing regions including a first spacing region and a second spacing region (222, 224, 226, 228), wherein the first spacing region surrounds the dummy pillar and is disposed between the first racetrack pillar and the dummy pillar, and wherein the second spacing region surrounds the first racetrack pillar and is disposed between the first racetrack pillar and the second racetrack pillar.
An animate surface cleaning composition comprising a non-ionic surfactant and a glycol ether, wherein the composition has a surface cleaning index of 1; wherein the composition has a pH of from 3 to 8; wherein the composition comprises less than 6% by weight non-ionic surfactant and the non-ionic surfactant is an alcohol ethoxylate; and wherein the glycol ether is dipropylene glycol n-butyl ether.