mhurhangee/patent-ind-claim-en huggingface dataset:
A method for information processing in ultra-reliable low latency communication, URLLC, transmissions for new radio, NR, the method being executed by a terminal device and comprising: determining first information corresponding to first downlink control information, DCI, wherein the first information is used for multiplexing and transmitting acknowledgement/negative acknowledgement, ACK/NACK, information corresponding to physical channels in a target group through an uplink channel, wherein the target group is a group in which corresponding ACK/NACK information is triggered for transmission, and wherein a physical channel corresponding to the first DCI is associated with priority information, and wherein the physical channel corresponding to the first DCI comprises a physical downlink shared channel, PDSCH, scheduled by the first DCI; wherein the first DCI is DCI format 1_2; wherein the first information comprises triggering feedback group information; wherein the triggering feedback group information is determined according to a first correspondence and a fourth information field in the first DCI, wherein the first correspondence is a correspondence between indication results of an information field and group information, and the first correspondence is agreed according to a protocol. determining first information corresponding to first downlink control information, DCI, wherein the first information is used for multiplexing and transmitting acknowledgement/negative acknowledgement, ACK/NACK, information corresponding to physical channels in a target group through an uplink channel, wherein the target group is a group in which corresponding ACK/NACK information is triggered for transmission, and wherein a physical channel corresponding to the first DCI is associated with priority information, and wherein the physical channel corresponding to the first DCI comprises a physical downlink shared channel, PDSCH, scheduled by the first DCI; wherein the first DCI is DCI format 1_2; wherein the first information comprises triggering feedback group information; wherein the triggering feedback group information is determined according to a first correspondence and a fourth information field in the first DCI, wherein the first correspondence is a correspondence between indication results of an information field and group information, and the first correspondence is agreed according to a protocol.
An ophthalmologic apparatus comprising: an examination part configured to include an optical system for optically examining an eye; a moving mechanism configured to move the optical system; two or more imaging parts configured to obtain moving images of the eye from two or more different directions; an extracting part configured to extract a partial image from each of two or more images substantially simultaneously obtained by the two or more imaging parts; an analyzing part configured to analyze the two or more partial images extracted by the extracting part to obtain the displacement between the eye and the optical system; and a controller configured to control the moving mechanism based on the displacement obtained by the analyzing part ; wherein the analyzing part is configured to analyze each of the two or more partial images to specify a characteristic part in the partial image, and obtain the displacement based on the positional relationship between two or more characteristic parts specified, characterised in that the controller is further configured to control a display to display in parallel the extracted partial images. an examination part configured to include an optical system for optically examining an eye; a moving mechanism configured to move the optical system; two or more imaging parts configured to obtain moving images of the eye from two or more different directions; an extracting part configured to extract a partial image from each of two or more images substantially simultaneously obtained by the two or more imaging parts; an analyzing part configured to analyze the two or more partial images extracted by the extracting part to obtain the displacement between the eye and the optical system; and a controller configured to control the moving mechanism based on the displacement obtained by the analyzing part ; wherein the analyzing part is configured to analyze each of the two or more partial images to specify a characteristic part in the partial image, and obtain the displacement based on the positional relationship between two or more characteristic parts specified,
An apparatus, comprising: an encoder for encoding at least one picture for at least one view corresponding to multi-view video content in a resultant bitstream, wherein said encoder signals a view identifier indicating to which view the at least one picture belongs, and a view direction indicating one of a plurality of directions with an I-view as a center view, the center view being centrally positioned relative to four directions, the four directions comprising left, right, up, or down relative to the center view, the I-view referring to a view that is independently coded using prediction from reconstructed samples within a same view only and not depending on any other views, and a view level to indicate the level of view scalability for a particular NAL unit, wherein view level corresponds to picture type, wherein a flag indicates presence of said view identifier, said view direction and said view level, to support view scalability for the at least one view using a message, a field, a flag, or a syntax element.
A method of controlling an elevator situated in a hoistway of a building , the method comprising: detecting sway of the building ; determining characteristics of the detected sway including a plurality of frequencies and associated periods of the sway ; determining a relationship between the characteristics of the sway of the building and a configuration of components of the elevator system ; determining an expected sway of an elongated member of the elevator system based on the determined characteristics ; and controlling at least one of position and movement of an elevator car in the hoistway based on the expected sway and based on the determined relationship; characterized in that : determining the characteristics comprises determining sway movement along at least two axes ; and controlling the at least one of position and movement of the elevator car includes a first control strategy when the determined characteristics comprise a first set of characteristics or a second control strategy when the determined characteristics comprise a second set of characteristics; wherein the first set of characteristics is different than the second set of characteristics; and the first control strategy is different than the second control strategy. detecting sway of the building ; determining characteristics of the detected sway including a plurality of frequencies and associated periods of the sway ; determining a relationship between the characteristics of the sway of the building and a configuration of components of the elevator system ; determining an expected sway of an elongated member of the elevator system based on the determined characteristics ; and controlling at least one of position and movement of an elevator car in the hoistway based on the expected sway and based on the determined relationship; characterized in that : determining the characteristics comprises determining sway movement along at least two axes ; and controlling the at least one of position and movement of the elevator car includes a first control strategy when the determined characteristics comprise a first set of characteristics or a second control strategy when the determined characteristics comprise a second set of characteristics; wherein the first set of characteristics is different than the second set of characteristics; and the first control strategy is different than the second control strategy. determining the characteristics comprises determining sway movement along at least two axes ; and controlling the at least one of position and movement of the elevator car includes a first control strategy when the determined characteristics comprise a first set of characteristics or a second control strategy when the determined characteristics comprise a second set of characteristics; wherein the first set of characteristics is different than the second set of characteristics; and the first control strategy is different than the second control strategy.
A miss-detection determination method, applied to a terminal, characterized by comprising: sending a target sequence or signal to a network device in an uplink grant-free transmission occasion, wherein the target sequence or signal is used to test whether miss-detection occurs, and the target sequence or signal does not carry physical uplink shared channel, PUSCH, data that is to be sent; and determining that no miss-detection occurs in the network device in a case that indication information for indicating that no miss-detection occurs is received from the network device within a preset time period after sending the target sequence or signal, and determining that miss-detection occurs in the network device in a case that the indication information for indicating that no miss-detection occurs is not received from the network device within the preset time period after sending the target sequence or signal; wherein subsequent to the determining that no miss-detection occurs in the network device, the method further comprises: in an uplink grant-free transmission occasion, starting to send a physical uplink shared channel, PUSCH, or continuing sending a PUSCH. sending a target sequence or signal to a network device in an uplink grant-free transmission occasion, wherein the target sequence or signal is used to test whether miss-detection occurs, and the target sequence or signal does not carry physical uplink shared channel, PUSCH, data that is to be sent; and determining that no miss-detection occurs in the network device in a case that indication information for indicating that no miss-detection occurs is received from the network device within a preset time period after sending the target sequence or signal, and determining that miss-detection occurs in the network device in a case that the indication information for indicating that no miss-detection occurs is not received from the network device within the preset time period after sending the target sequence or signal; wherein subsequent to the determining that no miss-detection occurs in the network device, the method further comprises: in an uplink grant-free transmission occasion, starting to send a physical uplink shared channel, PUSCH, or continuing sending a PUSCH.
A composition for use in promoting fusion of bone at a desired site, wherein the composition comprises (i) a biocompatible matrix comprising: (a) particulate graft, bone block, or combinations thereof; and/or (b) a material selected from the group consisting of bone allograft, allogeneic bone, xenogenic bone, cortical bone, cancellous bone, and cortico-cancellous bone; and/or (c) deproteinized bone; and/or (d) a calcium phosphate or a plurality of calcium phosphates; and/or (e) β-tricalcium phosphate (β-TCP); or (f) combinations thereof, and (ii) a solution comprising platelet-derived growth factor (PDGF) at a concentration ranging from 0.1 mg/ml to 1.0 mg/ml, wherein the solution is disposed in the biocompatible matrix. (i) a biocompatible matrix comprising: (a) particulate graft, bone block, or combinations thereof; and/or (b) a material selected from the group consisting of bone allograft, allogeneic bone, xenogenic bone, cortical bone, cancellous bone, and cortico-cancellous bone; and/or (c) deproteinized bone; and/or (d) a calcium phosphate or a plurality of calcium phosphates; and/or (e) β-tricalcium phosphate (β-TCP); or (f) combinations thereof, and (a) particulate graft, bone block, or combinations thereof; and/or (b) a material selected from the group consisting of bone allograft, allogeneic bone, xenogenic bone, cortical bone, cancellous bone, and cortico-cancellous bone; and/or (c) deproteinized bone; and/or (d) a calcium phosphate or a plurality of calcium phosphates; and/or (e) β-tricalcium phosphate (β-TCP); or (f) combinations thereof, and (ii) a solution comprising platelet-derived growth factor (PDGF) at a concentration ranging from 0.1 mg/ml to 1.0 mg/ml, wherein the solution is disposed in the biocompatible matrix.
A bracket for securing a device to an elongate structure , the bracket comprising: a body configured to hold the device , and a securing element attached to the body, wherein the securing element comprises a pair of bosses , each boss comprising a slot , a core and an end surface , wherein the bosses are arranged on the securing element such that the end surfaces define a gap into which the elongate structure can be received when the securing element is in a first position relative to the elongate structure and the slots are configured to receive the elongate structure upon rotation of the securing element from the first position to a second position relative to the elongate structure , and whereby the bracket is secured to the elongate structure by a gripping interengagement of the elongate structure and the bosses of the securing element in said second position, wherein the body comprises a back plate and a pair of fingers extending therefrom, wherein the pair of fingers are configured to engage with a pair of opposed surfaces of the device so as to support the device, and wherein the back plate further comprises a raised section defining a cavity for receiving the securing element , wherein the securing element further comprises a base , and wherein, in an installed configuration, the base is secured in the cavity on one side of the back plate and the bosses protrude through the back plate and are disposed on an other side of the back plate . a body configured to hold the device , and a securing element attached to the body, wherein the securing element comprises a pair of bosses , each boss comprising a slot , a core and an end surface , wherein the bosses are arranged on the securing element such that the end surfaces define a gap into which the elongate structure can be received when the securing element is in a first position relative to the elongate structure and the slots are configured to receive the elongate structure upon rotation of the securing element from the first position to a second position relative to the elongate structure , and whereby the bracket is secured to the elongate structure by a gripping interengagement of the elongate structure and the bosses of the securing element in said second position, wherein the body comprises a back plate and a pair of fingers extending therefrom, wherein the pair of fingers are configured to engage with a pair of opposed surfaces of the device so as to support the device, and wherein the back plate further comprises a raised section defining a cavity for receiving the securing element , wherein the securing element further comprises a base , and wherein, in an installed configuration, the base is secured in the cavity on one side of the back plate and the bosses protrude through the back plate and are disposed on an other side of the back plate .
A brake fluid pressure control device for vehicles with bar handle which is configured to start a holding control of a fluid pressure of a wheel brake according to a wheel deceleration calculated based on a wheel speed of the vehicle, wherein the vehicle includes an acceleration sensor which is configured to detect acceleration in a front-rear direction of the vehicle, and wherein acceleration, detected by the acceleration sensor, which occurs in a rearward direction when the vehicle is decelerating is detected as a positive value, characterised in that the device is configured to start the holding control when it is judged that the acceleration in a front-rear direction of the vehicle detected by the acceleration sensor is larger than or equal to a detection acceleration threshold value and a wheel deceleration is smaller than or equal to a wheel deceleration threshold value. the vehicle includes an acceleration sensor which is configured to detect acceleration in a front-rear direction of the vehicle, and wherein acceleration, detected by the acceleration sensor, which occurs in a rearward direction when the vehicle is decelerating is detected as a positive value, characterised in that the device is configured to start the holding control when it is judged that the acceleration in a front-rear direction of the vehicle detected by the acceleration sensor is larger than or equal to a detection acceleration threshold value and a wheel deceleration is smaller than or equal to a wheel deceleration threshold value.
An expansion bolt that has a bolt shaft with an expansion body and an expansion sleeve , wherein the bolt shaft extends from a rear end in the insertion direction (E) forward along a longitudinal axis (L), wherein the expansion sleeve is arranged in an expansion region of the expansion bolt at the front of the bolt shaft and has a plurality of expansion segments which are separated from one another by slots in the circumferential direction, wherein at least one of the expansion segments has an end portion of reduced wall thickness, which in a non-expanded state faces the expansion body and which is delimited on the outside in the longitudinal direction by two of the slots and in the circumferential direction by a first edge and a second edge , wherein the two edges extend in the circumferential direction from a first of the slots to a second of the slots , characterized in that in an imaginary development of the expansion sleeve , the first edge extends in the form of an arc between the first of the slots and the second of the slots , and in that the second edge extends in the form of an arc between the first of the slots and the second of the slots . wherein the bolt shaft extends from a rear end in the insertion direction (E) forward along a longitudinal axis (L), wherein the expansion sleeve is arranged in an expansion region of the expansion bolt at the front of the bolt shaft and has a plurality of expansion segments which are separated from one another by slots in the circumferential direction, wherein at least one of the expansion segments has an end portion of reduced wall thickness, which in a non-expanded state faces the expansion body and which is delimited on the outside in the longitudinal direction by two of the slots and in the circumferential direction by a first edge and a second edge , wherein the two edges extend in the circumferential direction from a first of the slots to a second of the slots , characterized in that in an imaginary development of the expansion sleeve , the first edge extends in the form of an arc between the first of the slots and the second of the slots , and in that the second edge extends in the form of an arc between the first of the slots and the second of the slots .
Fusion Peptide comprising at least one peptide blocking the presynaptic release of glutamate, and at least one cell-permeable peptide; said cell-permeable peptide having sequence: SEQ ID NO 4: GRKKRRQRRRPP Said peptide blocking the presynaptic release of glutamate having sequence: SEQ ID NO 2:IEQEEGLNRS Or sequence: SEQ ID NO 3: MSEYNATQSDYRER Or sequence: SEQ ID NO 11: IEQSIEQEEGLNRS Said sequences SEQ ID NO 2, SEQ ID NO 3 and SEQ ID NO 11 being detectable in Syntaxin 1a, Said fusion peptide having sequence: SEQ ID NO 13: GRKKRRQRRRPPIEQEEGLNRS; Or sequence: SEQ ID NO 8: GRKKRRQRRRPPMSEYNATQSDYRER; Or sequence: SEQ ID NO 5: GRKKRRQRRRPPIEQSIEQEEGLNRS.
Method for activating a drive of a pedal-driven vehicle, in particular an electric bicycle, wherein the method • detects a rotational movement variable, which represents the rotational movement of the pedals by the cyclist, by means of at least one first sensor, and • activates the drive of the vehicle to generate propulsion if the current rotational movement variable exceeds a specified threshold value, characterized in that the method • detects a time-resolved rotational movement variable, which represents the rotational movement of the pedals by the cyclist during a detection period, by means of the at least one first sensor, and • depending on the time-resolved rotational movement variable identifies a driving situation in which the pedals are moved back and forth substantially about the horizontal position, and • continues to activate the drive depending on the identified driving situation to generate propulsion for a specifiable period of time if the current rotational movement variable reaches or falls below the specified threshold value. • detects a rotational movement variable, which represents the rotational movement of the pedals by the cyclist, by means of at least one first sensor, and • activates the drive of the vehicle to generate propulsion if the current rotational movement variable exceeds a specified threshold value, characterized in that the method • detects a time-resolved rotational movement variable, which represents the rotational movement of the pedals by the cyclist during a detection period, by means of the at least one first sensor, and • depending on the time-resolved rotational movement variable identifies a driving situation in which the pedals are moved back and forth substantially about the horizontal position, and • continues to activate the drive depending on the identified driving situation to generate propulsion for a specifiable period of time if the current rotational movement variable reaches or falls below the specified threshold value.
(i) Atomoxetine and (ii) substantially enantiomerically pure (R)-oxybutynin for use in a method of treating a subject having a condition associated with pharyngeal airway collapse, the method comprising administering to a subject in need thereof an effective amount of (i) the Atomoxetine and (ii) substantially enantiomerically pure (R)-oxybutynin, wherein the enantiomeric excess of the (R)-oxybutynin relative to its opposite enantiomer is greater than or equal to 90%, and wherein the condition associated with pharyngeal airway collapse is sleep apnea or simple snoring.