mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication performed by an apparatus, comprising: receiving a plurality of downlink transmissions corresponding to a transport block in a plurality of transmission time intervals, TTIs, wherein at least two of the plurality of TTIs correspond to different TTI types, wherein the different TTI types comprise a first TTI which is a one subframe TTI and a second TTI which is one of a one slot short TTI, sTTI, or a two or three symbol sTTI; determining (420, 300-a, 300-b, 300-c, 2010) a first soft channel bit buffer size associated with the transport block for a first decoding operation of a respective plurality of decoding operations associated with a first downlink transmission of the plurality of downlink transmissions, wherein the first downlink transmission uses the first TTI for transmission; decoding the first downlink transmission according to the first soft channel bit buffer size; identifying that a second decoding operation of the plurality of decoding operations is associated with a second transmission of the plurality of downlink transmissions that uses the second TTI which is a shorter TTI than the first TTI; and selecting a plurality of soft channel bits for at least one of the plurality of downlink transmissions to skip storing in the first soft channel bit buffer based at least in part on the identifying, such that the aggregate buffer size for the first and second transmission is under the TTI soft channel bit maximum for a one subframe TTI. receiving a plurality of downlink transmissions corresponding to a transport block in a plurality of transmission time intervals, TTIs, wherein at least two of the plurality of TTIs correspond to different TTI types, wherein the different TTI types comprise a first TTI which is a one subframe TTI and a second TTI which is one of a one slot short TTI, sTTI, or a two or three symbol sTTI; determining (420, 300-a, 300-b, 300-c, 2010) a first soft channel bit buffer size associated with the transport block for a first decoding operation of a respective plurality of decoding operations associated with a first downlink transmission of the plurality of downlink transmissions, wherein the first downlink transmission uses the first TTI for transmission; decoding the first downlink transmission according to the first soft channel bit buffer size; identifying that a second decoding operation of the plurality of decoding operations is associated with a second transmission of the plurality of downlink transmissions that uses the second TTI which is a shorter TTI than the first TTI; and selecting a plurality of soft channel bits for at least one of the plurality of downlink transmissions to skip storing in the first soft channel bit buffer based at least in part on the identifying, such that the aggregate buffer size for the first and second transmission is under the TTI soft channel bit maximum for a one subframe TTI.
Luggage shell for a luggage case, having a base wall and upstanding sidewalls and at least one corner region , the luggage shell comprising a thermoplastic material selected from a self-reinforcing thermoplastic resin of oriented pre-tensioned strands surrounded by a matrix of substantially similar thermoplastic material which is generally not oriented, the luggage shell having a nominal thickness of between about 1 mm and about 2.5 mm, wherein the luggage shell has a three dimensional stiffening pattern impressed into an outer main shell face of the base wall so that the base wall has a repeating pattern of convex and concave shapes molded thereinto, the overall thickness of the base wall being substantially consistent among the convex shapes, the concave shapes and the rest of the base wall.
A histidine-sucrose formulation comprising T1h antibody in an amount from 25 mg/ml to 250 mg/ml antibody, 10 mM to 30 mM histidine buffer, 1 to 15% of sucrose, 0.001 % to 0.05 % surfactant and pH from 5 to 7.5.
A weighing device, configured to measure at least the weight of a person or an object, comprising: - a control unit , - a sensory plate , - a top plate , arranged parallel and at distance from the sensory plate, with no direct contact with sensory plate, - a plurality of spacer pads , interposed between the sensory plate and the top plate, - isolator feet under the sensory plate, wherein the sensory plate is fitted with at least an emission transducer (11,Tx) configured to generate, on a periodic basis, a burst of Lamb waves at the surface of the sensory plate, and wherein the sensory plate is fitted with at least a reception transducer (12;13,14), configured to receive Lamb waves propagated through the sensory plate, the temporal profile of the received Lamb waves being dependent on the weight (P) applied to the top plate and passed by the spacer pads to the sensory plate, wherein the control unit determines the weight applied to the top plate by analysis of the temporal profile of the received Lamb waves. - a control unit , - a sensory plate , - a top plate , arranged parallel and at distance from the sensory plate, with no direct contact with sensory plate, - a plurality of spacer pads , interposed between the sensory plate and the top plate, - isolator feet under the sensory plate, wherein the sensory plate is fitted with at least an emission transducer (11,Tx) configured to generate, on a periodic basis, a burst of Lamb waves at the surface of the sensory plate, and wherein the sensory plate is fitted with at least a reception transducer (12;13,14), configured to receive Lamb waves propagated through the sensory plate, the temporal profile of the received Lamb waves being dependent on the weight (P) applied to the top plate and passed by the spacer pads to the sensory plate, wherein the control unit determines the weight applied to the top plate by analysis of the temporal profile of the received Lamb waves.
A rotary electric shaver comprising: a main body in which a motor and a first transmission mechanism that transmits a driving power of the motor are built, and a connecting portion is disposed; a head unit in which a plurality of blade units each having an outer blade having a circular shaving surface on an outer side, an inner blade being in sliding contact with an inner surface of the outer blade , and a driven shaft rotating the inner blade are disposed, and a second transmission mechanism that transmits a driving power of the first transmission mechanism to rotate the driven shaft is built, and which is connected to the connecting portion ; and a drive shaft that transmits the driving power of the first transmission mechanism to the second transmission mechanism , wherein the head unit has a first magnet disposed at a position corresponding to each of the blade units , wherein the main body has a second magnet disposed at a position facing and repelling the first magnet , wherein the head unit further includes an outer blade frame that holds the blade unit such that the blade unit is capable of swing movement, and a blade setting base through which the driven shaft penetrates and which holds the outer blade frame ; wherein the main body further includes a blade setting base support plate through which the drive shaft penetrates and which supports the blade setting base ; and wherein the first magnet is disposed in the blade setting base and the second magnet is disposed in the blade setting base support plate . a main body in which a motor and a first transmission mechanism that transmits a driving power of the motor are built, and a connecting portion is disposed; a head unit in which a plurality of blade units each having an outer blade having a circular shaving surface on an outer side, an inner blade being in sliding contact with an inner surface of the outer blade , and a driven shaft rotating the inner blade are disposed, and a second transmission mechanism that transmits a driving power of the first transmission mechanism to rotate the driven shaft is built, and which is connected to the connecting portion ; and a drive shaft that transmits the driving power of the first transmission mechanism to the second transmission mechanism , wherein the head unit has a first magnet disposed at a position corresponding to each of the blade units , wherein the main body has a second magnet disposed at a position facing and repelling the first magnet , wherein the head unit further includes an outer blade frame that holds the blade unit such that the blade unit is capable of swing movement, and a blade setting base through which the driven shaft penetrates and which holds the outer blade frame ; wherein the main body further includes a blade setting base support plate through which the drive shaft penetrates and which supports the blade setting base ; and wherein the first magnet is disposed in the blade setting base and the second magnet is disposed in the blade setting base support plate .
A solar cell module comprising: a plurality of solar cells (C1, C2) each including a semiconductor substrate and first and second electrodes that are formed on a back surface of the semiconductor substrate, the first and second electrodes extending in a first direction, and having different polarities; and conductive lines disposed to extend in a second direction crossing the first direction on the back surface of the semiconductor substrate included in each solar cell, the conductive lines including first conductive lines connected to the first electrodes through a conductive adhesive and insulated from the second electrodes through an insulating layer , and second conductive lines connected to the second electrodes through the conductive adhesive and insulated from the first electrodes through the insulating layer , wherein a first direction length (L252) of the insulating layer in the first direction is greater than a linewidth (W200) of each conductive line and is less than a distance (D200) between the conductive lines , and wherein the first direction length (L252) of the insulating layer is greater than the first direction length (L251) of the conductive adhesive , and a first direction length (L251) of the conductive adhesive in the first direction is greater than a linewidth (W200) of each conductive line , is equal to or less than 1.25 times of the linewidth (W200) of each conductive line and is less than a distance (D200) between the conductive lines . a plurality of solar cells (C1, C2) each including a semiconductor substrate and first and second electrodes that are formed on a back surface of the semiconductor substrate, the first and second electrodes extending in a first direction, and having different polarities; and conductive lines disposed to extend in a second direction crossing the first direction on the back surface of the semiconductor substrate included in each solar cell, the conductive lines including first conductive lines connected to the first electrodes through a conductive adhesive and insulated from the second electrodes through an insulating layer , and second conductive lines connected to the second electrodes through the conductive adhesive and insulated from the first electrodes through the insulating layer , wherein a first direction length (L252) of the insulating layer in the first direction is greater than a linewidth (W200) of each conductive line and is less than a distance (D200) between the conductive lines , and wherein the first direction length (L252) of the insulating layer is greater than the first direction length (L251) of the conductive adhesive , and a first direction length (L251) of the conductive adhesive in the first direction is greater than a linewidth (W200) of each conductive line , is equal to or less than 1.25 times of the linewidth (W200) of each conductive line and is less than a distance (D200) between the conductive lines .
A wafer boat for supporting a plurality of semiconductor wafers in a furnace comprising: a vertical rod ; a set of fingers that extend radially inward from the vertical rod along a finger axis (A 36 ), each finger of the set comprising: an elongated segment that extends from the vertical rod; and a contact protuberance disposed on the elongated segment toward a distal end of the finger for contacting and supporting a semiconductor wafer, at least a portion of the contact protuberance being raised with respect to the elongated segment, the contact protuberance having a longitudinal contact protuberance axis (A 52 ), the longitudinal contact protuberance axis and the finger axis being angled relative to each other at an angle (λ 1 ) from 5° to about 75°, wherein the longitudinal contact protuberance axis is tangent to a circle (C 3 ) centered about a longitudinal central axis of the wafer boat, at a location where the contact protuberance intersects the circle. a vertical rod ; a set of fingers that extend radially inward from the vertical rod along a finger axis (A 36 ), each finger of the set comprising: an elongated segment that extends from the vertical rod; and a contact protuberance disposed on the elongated segment toward a distal end of the finger for contacting and supporting a semiconductor wafer, at least a portion of the contact protuberance being raised with respect to the elongated segment, the contact protuberance having a longitudinal contact protuberance axis (A 52 ), the longitudinal contact protuberance axis and the finger axis being angled relative to each other at an angle (λ 1 ) from 5° to about 75°, wherein the longitudinal contact protuberance axis is tangent to a circle (C 3 ) centered about a longitudinal central axis of the wafer boat, at a location where the contact protuberance intersects the circle.
Arrangement for tipping over prevention of a furniture , such as a chest of drawers or a cabinet comprising at least one drawer, the arrangement comprising a bar and an attachment adapted to anchor the furniture to a wall (W), wherein the attachment comprises a guiding bracket adapted to be fixedly mounted to a side wall of the furniture , the guiding bracket having a guiding means extending in parallel with the side wall , and an anchoring bracket adapted to be movable between a first position and a second position in view of the guiding bracket while being guided by the guiding means , said anchoring bracket having an anchoring portion adapted to anchor the furniture to the wall (W) by a fixing means whereby the anchoring bracket will be arranged in the second position, and a wedge shaped support member , and wherein the bar is adapted to be mounted to the side wall or rear wall of the furniture , and being movable between a restriction position and a clearance position, said bar having a projection being arranged to abut the wedge shaped support member of the anchoring bracket , and a stop member adapted to interact with a projection of a drawer of the furniture , whereby when the anchoring bracket is moved from the first position to the second position the wedge shaped support member forces the projection to move along the wedge shaped support member thereby moving the bar from the restriction position to the clearance position, in which clearance position the drawer is allowed to be pushed or pulled past the stop member .
A refrigerator appliance comprising: a cabinet having an outer wrapper , an inner liner and a trim breaker defining a joint between the outer wrapper and inner liner , wherein the outer wrapper , the inner liner and the trim breaker define an insulating cavity ; a vacuum insulated structure disposed within the insulating cavity ; a metallic frame in communication with the outer wrapper , wherein the metallic frame includes at least one upper hinge mount and at least one lower hinge mount that are connected by at least one vertical frame member , wherein the metallic frame is entirely disposed within the insulating cavity ; and at least one door rotationally mounted to the cabinet via an upper hinge mounted to the at least one upper hinge mount and a lower hinge mounted to the at least one lower hinge mount , wherein the metallic frame is engaged with the outer wrapper and includes an upper lateral frame member that defines the at least one upper hinge mount and a lower lateral frame member that defines the at least one lower hinge mount , and wherein the at least one vertical frame member extends from the upper lateral frame member and attaches to the lower lateral frame member and wherein the at least one vertical frame member includes left and right vertical frame members that are positioned within right and left sidewalls of the cabinet , respectively. a cabinet having an outer wrapper , an inner liner and a trim breaker defining a joint between the outer wrapper and inner liner , wherein the outer wrapper , the inner liner and the trim breaker define an insulating cavity ; a vacuum insulated structure disposed within the insulating cavity ; a metallic frame in communication with the outer wrapper , wherein the metallic frame includes at least one upper hinge mount and at least one lower hinge mount that are connected by at least one vertical frame member , wherein the metallic frame is entirely disposed within the insulating cavity ; and at least one door rotationally mounted to the cabinet via an upper hinge mounted to the at least one upper hinge mount and a lower hinge mounted to the at least one lower hinge mount , wherein the metallic frame is engaged with the outer wrapper and includes an upper lateral frame member that defines the at least one upper hinge mount and a lower lateral frame member that defines the at least one lower hinge mount , and wherein the at least one vertical frame member extends from the upper lateral frame member and attaches to the lower lateral frame member and wherein the at least one vertical frame member includes left and right vertical frame members that are positioned within right and left sidewalls of the cabinet , respectively.
A glass-ceramic article comprising: a major nepheline phase; and a minor phosphate phase, wherein the glass-ceramic article is colorless and has transmission or reflection color coordinates under the CIE L*, a*, b* colorimetry system of L* in the range from 80 to 100, a* in the range from -5 to 5, and b* in the range from -5 to 5, and exhibits a transmittance of 70% or greater across the visible spectrum, in the range from 390 nm to 700 nm. a major nepheline phase; and a minor phosphate phase,
A method of monitoring microseismic events, the monitoring comprising: receiving one or more seismic signals comprising P-wave and S-wave components with a plurality of seismic detectors at one or more locations ; applying detection transform to the received seismic signals ; recursively performing spatial mapping on the detection transform results using forward or reverse modeled travel times of the P-wave and S-wave components for multiple time steps to generate a time evolving map of seismic signals updated at each time step t = To, wherein the mapped spatial contribution of each seismic detector is given by : Map i j k = 1 − 1 T c ∗ Map i j k + 1 T c ∗ P _ SNR ∗ S _ SNR ∗ P _ Match where: T c is a time constant P_SNR = P Detection SNR at time T 0 + T p (i , j, k); S_SNR = S Detection SNR at time T 0 + T s (i , j, k); and P_Match = dot (Modeled P Vector (i, j, k), Waveform Vector (T 0 + T p (i , j, k)) 2 and where the spatial contributions of each seismic detector at each location at each time step are summed together ; identifying values on the time evolving spatial map that exceed a predetermined threshold ; determining the occurrence of a microseismic event at the time and location of an identified value . receiving one or more seismic signals comprising P-wave and S-wave components with a plurality of seismic detectors at one or more locations ; applying detection transform to the received seismic signals ; recursively performing spatial mapping on the detection transform results using forward or reverse modeled travel times of the P-wave and S-wave components for multiple time steps to generate a time evolving map of seismic signals updated at each time step t = To, wherein the mapped spatial contribution of each seismic detector is given by : Map i j k = 1 − 1 T c ∗ Map i j k + 1 T c ∗ P _ SNR ∗ S _ SNR ∗ P _ Match where: T c is a time constant P_SNR = P Detection SNR at time T 0 + T p (i , j, k); S_SNR = S Detection SNR at time T 0 + T s (i , j, k); and P_Match = dot (Modeled P Vector (i, j, k), Waveform Vector (T 0 + T p (i , j, k)) 2 and where the spatial contributions of each seismic detector at each location at each time step are summed together ; P_SNR = P Detection SNR at time T 0 + T p (i , j, k); S_SNR = S Detection SNR at time T 0 + T s (i , j, k); and P_Match = dot (Modeled P Vector (i, j, k), Waveform Vector (T 0 + T p (i , j, k)) 2 and where the spatial contributions of each seismic detector at each location at each time step are summed together ; identifying values on the time evolving spatial map that exceed a predetermined threshold ; determining the occurrence of a microseismic event at the time and location of an identified value .
A dispersible tablet comprising (a) (S) -Pyrrolidine-1,2-dicarboxylic acid 2-amide 1-({4-methyl-5-[2-(2,2,2-trifluoro-1,1-dimethyl-ethyl)-pyridin-4-yl]-thiazol-2-yl}-amide), or a pharmaceutically acceptable salt thereof, in an amount of about 35% to 45% in weight based on the total weight of the tablet, (b) sodium starch glycolate in an amount of about 5% to 10% in weight based on the total weight of the tablet, (c) low-substituted hydroxypropyl cellulose in an amount of about 1% to 3% in weight based on the total weight of the tablet, (d) sodium stearyl fumarate in an amount of about 3% to 5% in weight based on the total weight of the tablet, and (e) one or more additional pharmaceutically acceptable excipients, with the proviso that said additional pharmaceutically acceptable excipient is not calcium phosphate tribasic, calcium phosphate dibasic anhydrous, calcium phosphate dibasic dihydrate or sucralose.