mhurhangee/patent-ind-claim-en huggingface dataset:
Adaptive blade for a laryngoscope , comprising: a proximal end , which is mechanically connectable or connected to a handle in order to form an adaptive laryngoscope ; a first flexible bar , which extends from the proximal end of the adaptive blade to the distal end thereof; a second flexible bar , which extends from the proximal end of the adaptive blade to the distal end thereof, wherein, at the distal end of the adaptive blade , the flexible bars are connected to each other mechanically rigidly or in an articulated manner, wherein, in the proximal direction from the distal end of the adaptive blade , the flexible bars are mechanically connected to each other in such a way that they are movable relative to each other substantially in their longitudinal directions characterised in that a strut which, in a proximal direction from the distal end of the adaptive blade , mechanically connects the first flexible bar and the second flexible bar to each other; wherein at least one of the entire strut is made elastic or the ends of the strut are connected to the flexible bars by flexure bearings or by other hinges. a proximal end , which is mechanically connectable or connected to a handle in order to form an adaptive laryngoscope ; a first flexible bar , which extends from the proximal end of the adaptive blade to the distal end thereof; a second flexible bar , which extends from the proximal end of the adaptive blade to the distal end thereof, wherein, at the distal end of the adaptive blade , the flexible bars are connected to each other mechanically rigidly or in an articulated manner, wherein, in the proximal direction from the distal end of the adaptive blade , the flexible bars are mechanically connected to each other in such a way that they are movable relative to each other substantially in their longitudinal directions characterised in that a strut which, in a proximal direction from the distal end of the adaptive blade , mechanically connects the first flexible bar and the second flexible bar to each other; wherein at least one of the entire strut is made elastic or the ends of the strut are connected to the flexible bars by flexure bearings or by other hinges.
A composite wheel structure comprising: a wheel body having an axial width extending between an inner end and an outer end; an inner flange portion of the wheel body disposed at the inner end; an outer flange portion of the wheel body disposed at the outer end; a first intermediate portion of the wheel body disposed between the inner flange portion and the outer flange portion; a second intermediate portion of the wheel body disposed between the first intermediate portion and the outer flange portion; a first reinforcement layer of material extending between the inner and outer ends and extending through the inner flange portion, the outer flange portion, the first intermediate portion, and the second intermediate portion; wherein the first reinforcement layer is in the form of a single continuous fiber layer ; a first matrix material integrated with the first reinforcement layer along the inner flange portion; a second matrix material integrated with the first reinforcement layer along the first intermediate portion; and a third matrix material integrated with the first reinforcement layer along the second intermediate portion, characterized in that the first matrix material, the second matrix material and the third matrix material are different. a wheel body having an axial width extending between an inner end and an outer end; an inner flange portion of the wheel body disposed at the inner end; an outer flange portion of the wheel body disposed at the outer end; a first intermediate portion of the wheel body disposed between the inner flange portion and the outer flange portion; a second intermediate portion of the wheel body disposed between the first intermediate portion and the outer flange portion; a first reinforcement layer of material extending between the inner and outer ends and extending through the inner flange portion, the outer flange portion, the first intermediate portion, and the second intermediate portion; wherein the first reinforcement layer is in the form of a single continuous fiber layer ; a first matrix material integrated with the first reinforcement layer along the inner flange portion; a second matrix material integrated with the first reinforcement layer along the first intermediate portion; and a third matrix material integrated with the first reinforcement layer along the second intermediate portion, characterized in that the first matrix material, the second matrix material and the third matrix material are different.
A vehicle control system comprising: at least one radar sensor mounted to a host vehicle to have a sensing area for an outside of the host vehicle ; and a controller configured to follow an ultimate target vehicle in a driving route of the host vehicle based on the processed sensing data by the radar sensor , wherein the controller selects a target vehicle based on object information obtained from a result of processing the sensing data, generates a first driving route (110; 410) of the host vehicle based on road information about a road on which the host vehicle runs, obtained from the result of processing the sensing data, generates a second driving route (120; 420) obtained by correcting the first driving route (110; 410) based on road structure information comprised in the road information, determines a lateral offset based on the selected target vehicle and the second driving route (120; 420), and selects the target vehicle as the ultimate target vehicle based on the lateral offset, characterised in that if a road structure is detected, the controller determines a lateral width between the road structure and the first driving route (110; 410) and thereby generates the second driving route (120; 420). at least one radar sensor mounted to a host vehicle to have a sensing area for an outside of the host vehicle ; and a controller configured to follow an ultimate target vehicle in a driving route of the host vehicle based on the processed sensing data by the radar sensor , wherein the controller selects a target vehicle based on object information obtained from a result of processing the sensing data, generates a first driving route (110; 410) of the host vehicle based on road information about a road on which the host vehicle runs, obtained from the result of processing the sensing data, generates a second driving route (120; 420) obtained by correcting the first driving route (110; 410) based on road structure information comprised in the road information, determines a lateral offset based on the selected target vehicle and the second driving route (120; 420), and selects the target vehicle as the ultimate target vehicle based on the lateral offset, characterised in that if a road structure is detected, the controller determines a lateral width between the road structure and the first driving route (110; 410) and thereby generates the second driving route (120; 420).
A method of wireless communication by an apparatus (no), comprising: communicating with a base station using fewer wireless chains than supported by the apparatus ; determining at least a first wireless chain of the wireless chains supported by the apparatus is available for communicating; and transmitting, via device-to-device communications, to another apparatus using one of the at least a first wireless chain while communicating with the base station while the apparatus is in a connected mode discontinuous reception, CDRX, on period. communicating with a base station using fewer wireless chains than supported by the apparatus ; determining at least a first wireless chain of the wireless chains supported by the apparatus is available for communicating; and transmitting, via device-to-device communications, to another apparatus using one of the at least a first wireless chain while communicating with the base station while the apparatus is in a connected mode discontinuous reception, CDRX, on period.
A method for drilling a wellbore, comprising: generating an optimal cluster using historical drilling data; drilling an interval of the wellbore; and while drilling the wellbore interval: generating a working cluster using data collected while drilling the wellbore interval; identifying a plurality of data points proximate to a centroid of the working cluster; selecting one of the data points that converges toward a centroid of the optimal cluster; and adjusting one or more drilling control parameters using the convergent data point. generating an optimal cluster using historical drilling data; drilling an interval of the wellbore; and while drilling the wellbore interval: generating a working cluster using data collected while drilling the wellbore interval; identifying a plurality of data points proximate to a centroid of the working cluster; selecting one of the data points that converges toward a centroid of the optimal cluster; and adjusting one or more drilling control parameters using the convergent data point. generating a working cluster using data collected while drilling the wellbore interval; identifying a plurality of data points proximate to a centroid of the working cluster; selecting one of the data points that converges toward a centroid of the optimal cluster; and adjusting one or more drilling control parameters using the convergent data point.
A power storage device packaging material having a structure in which at least a substrate layer, a first adhesive layer, a metal foil layer having an anticorrosion treatment layer on one or both sides thereof, and a sealant layer are laminated in this order, wherein: the sealant layer includes two or more layers and a layer farthest from the metal foil layer among the two or more layers is made of a resin composition containing 50 mass % or more of propylene-ethylene random copolymer, wherein: the resin composition contains 0.005 mass% to 10 mass% of a crystal nucleating agent relative to the mass of the resin composition, and the sealant layer has at least one crystallization temperature peak in a temperature range of 100°C to 120°C, calculated based on differential scanning calorimetry in accordance with JIS K 7121. the resin composition contains 0.005 mass% to 10 mass% of a crystal nucleating agent relative to the mass of the resin composition, and the sealant layer has at least one crystallization temperature peak in a temperature range of 100°C to 120°C, calculated based on differential scanning calorimetry in accordance with JIS K 7121.
A pneumatic tire having a tread block protruding from an outer surface, wherein the tread block comprises: a sipe formed across the surface of the tread block , wherein the sipe comprises: a pair of walls facing each other having periodically repeating corners and depressions, wherein periodic corners and depression forms tapered sides of variant angle along the lateral extension of sipe ; a sinusoidal connecting portion extending laterally along the length of the walls, wherein the sinusoidal connecting portion is in close contact with both walls by extending through the thickness of the sipe ; characterized in that said sipe further comprises: a plurality of semicircular connecting portion positioned periodically above and below the sinusoidal connecting portion on adjacent tapered sides of the walls. a pair of walls facing each other having periodically repeating corners and depressions, wherein periodic corners and depression forms tapered sides of variant angle along the lateral extension of sipe ; a sinusoidal connecting portion extending laterally along the length of the walls, wherein the sinusoidal connecting portion is in close contact with both walls by extending through the thickness of the sipe ;
A method of wireless communication carried out by a user equipment, UE, that supports new radio-new radio, NR-NR, dual connectivity, the method comprising: forming one or more groups of overlapping uplink transmissions among two or more component carriers, CCs, each overlapping uplink transmission associated with a respective transmission grant, and wherein the one or more groups are formed by considering all uplink transmissions confined within a window corresponding to a slot formed by a smallest subcarrier spacing, SCS, across the CCs; moving in time all uplink transmissions within a group of the one or more groups except an earliest transmission of the group, to align leading edges of the uplink transmissions; determining, for each of the overlapping uplink transmissions within the group, a processing time between receiving a transmission grant and a beginning of an associated uplink transmission; identifying an offset window for a joint timeline referenced from an end of a latest transmission grant of the respective transmission grants and a start of a first uplink transmission; determining , for each overlapping uplink transmissions of the group if the joint timeline is satisfied, the joint timeline being satisfied when the processing time is less than the offset window; allocating total transmission power among the overlapping uplink transmissions of the at least one group based at least in part on determining that the joint timeline is satisfied. forming one or more groups of overlapping uplink transmissions among two or more component carriers, CCs, each overlapping uplink transmission associated with a respective transmission grant, and wherein the one or more groups are formed by considering all uplink transmissions confined within a window corresponding to a slot formed by a smallest subcarrier spacing, SCS, across the CCs; moving in time all uplink transmissions within a group of the one or more groups except an earliest transmission of the group, to align leading edges of the uplink transmissions; determining, for each of the overlapping uplink transmissions within the group, a processing time between receiving a transmission grant and a beginning of an associated uplink transmission; identifying an offset window for a joint timeline referenced from an end of a latest transmission grant of the respective transmission grants and a start of a first uplink transmission; determining , for each overlapping uplink transmissions of the group if the joint timeline is satisfied, the joint timeline being satisfied when the processing time is less than the offset window; allocating total transmission power among the overlapping uplink transmissions of the at least one group based at least in part on determining that the joint timeline is satisfied.
A positive electrode material for a lithium ion secondary battery, the positive electrode material comprising: core particles represented by General Formula Li x A y D z PO 4 (here, A represents at least one element selected from the group consisting of Co, Mn, Ni, Fe, Cu, and Cr, D represents at least one element selected from the group consisting of Mg, Ca, Sr, Ba, Ti, Zn, B, Al, Ga, In, Si, Ge, Sc, and Y, 0.9 < x < 1.1, 0 < y ≤ 1, 0 ≤ z < 1, and 0.9 < y + z < 1.1); and a carbonaceous film coating a surface of the core particles, wherein in a Raman spectrum analysis of the carbonaceous film, in a case where a peak intensity of a spectrum in a wave number band of 1,200 to 1,400 cm -1 is set as a D value, a minimum intensity of the spectrum in a wave number band of 1,400 to 1,550 cm -1 is set as a V value, and a peak intensity of the spectrum in a wave number band of 1,550 to 1,700 cm -1 is set as a G value, an average value of D/G is 0.77 or more and 0.98 or less and an average value of V/G is 0.54 or more and 0.66 or less, and in a case where the average value of D/G is set as a and the average value of V/G is set as b, X falls within a range of -0.1 ≤ X ≤ 0.1 in Expression X = a - 1.47b, wherein the Raman spectrum is measured and analyzed in accordance with the method described in the description. core particles represented by General Formula Li x A y D z PO 4 (here, A represents at least one element selected from the group consisting of Co, Mn, Ni, Fe, Cu, and Cr, D represents at least one element selected from the group consisting of Mg, Ca, Sr, Ba, Ti, Zn, B, Al, Ga, In, Si, Ge, Sc, and Y, 0.9 < x < 1.1, 0 < y ≤ 1, 0 ≤ z < 1, and 0.9 < y + z < 1.1); and a carbonaceous film coating a surface of the core particles, wherein in a Raman spectrum analysis of the carbonaceous film, in a case where a peak intensity of a spectrum in a wave number band of 1,200 to 1,400 cm -1 is set as a D value, a minimum intensity of the spectrum in a wave number band of 1,400 to 1,550 cm -1 is set as a V value, and a peak intensity of the spectrum in a wave number band of 1,550 to 1,700 cm -1 is set as a G value, an average value of D/G is 0.77 or more and 0.98 or less and an average value of V/G is 0.54 or more and 0.66 or less, and in a case where the average value of D/G is set as a and the average value of V/G is set as b, X falls within a range of -0.1 ≤ X ≤ 0.1 in Expression X = a - 1.47b, wherein the Raman spectrum is measured and analyzed in accordance with the method described in the description.
A method for inspecting an intermittent connection type optical fiber ribbon comprising: accumulating one-dimensional images in a width direction of an intermittent connection type optical fiber ribbon arranged intermittently with connection parts that connect adjacent optical fibers , by repeating capturing an image of an intermittent connection type optical fiber ribbon along the width direction, while making the intermittent connection type optical fiber ribbon move in a longitudinal direction; and creating a two-dimensional image of the optical fiber ribbon by aligning a plurality of the one-dimensional images that have been accumulated in a second direction orthogonal to a first direction in which pixels configuring the one-dimensional image are aligned, wherein a parallel light is irradiated to the optical fiber ribbon , and a light quantity distribution in the width direction of leakage light from the optical fiber ribbon through the optical fiber ribbon via a telecentric optical system is detected, to obtain the one-dimensional image. accumulating one-dimensional images in a width direction of an intermittent connection type optical fiber ribbon arranged intermittently with connection parts that connect adjacent optical fibers , by repeating capturing an image of an intermittent connection type optical fiber ribbon along the width direction, while making the intermittent connection type optical fiber ribbon move in a longitudinal direction; and creating a two-dimensional image of the optical fiber ribbon by aligning a plurality of the one-dimensional images that have been accumulated in a second direction orthogonal to a first direction in which pixels configuring the one-dimensional image are aligned, wherein a parallel light is irradiated to the optical fiber ribbon , and a light quantity distribution in the width direction of leakage light from the optical fiber ribbon through the optical fiber ribbon via a telecentric optical system is detected, to obtain the one-dimensional image.
Control system for controlling and/or monitoring devices, comprising: - a first determining module for determining execution requirements for an execution of control instructions by the devices, wherein - device-specific requirements and/or presupposed control instructions are stored in the execution requirements; - a distributed database system (BC) or a distributed communication system; - a first assigning module for assigning the respective execution requirements to the control instructions; - a first memory module for storing the respective control instructions with the assigned execution requirements in control transactions, wherein - the control transactions are stored in the distributed database system (BC) or in the distributed communication system; - the control transactions are transmitted to devices (300, D, BCN_D). - a first determining module for determining execution requirements for an execution of control instructions by the devices, wherein - device-specific requirements and/or presupposed control instructions are stored in the execution requirements; - device-specific requirements and/or presupposed control instructions are stored in the execution requirements; - a distributed database system (BC) or a distributed communication system; - a first assigning module for assigning the respective execution requirements to the control instructions; - a first memory module for storing the respective control instructions with the assigned execution requirements in control transactions, wherein - the control transactions are stored in the distributed database system (BC) or in the distributed communication system; - the control transactions are transmitted to devices (300, D, BCN_D). - the control transactions are stored in the distributed database system (BC) or in the distributed communication system; - the control transactions are transmitted to devices (300, D, BCN_D).
A catheter articulation system for use by a user having a hand so as to treat or diagnose a patient, the catheter articulation system comprising: an elongate catheter body having a proximal portion and a distal portion with an axis therebetween, the distal portion of the catheter body being configured for insertion into a patient through an aperture; a plurality of actuators operatively coupled with the distal portion of the catheter body; an input comprising a housing configured to facilitate reorientation by the hand of the user toward alignment with the inserted distal portion of the catheter body and/or with the patient; a sensor contained within the housing to receive a movement command having a command orientation; and a processor configured for coupling the sensor to the actuators so that, during use, the distal portion of the catheter body moves, in response to the movement command, with a catheter movement having a movement orientation corresponding to the command orientation based on the reoriented input, the movement command comprising a movement of the housing containing the sensor , characterized in that the sensor comprises an image capture device . an elongate catheter body having a proximal portion and a distal portion with an axis therebetween, the distal portion of the catheter body being configured for insertion into a patient through an aperture; a plurality of actuators operatively coupled with the distal portion of the catheter body; an input comprising a housing configured to facilitate reorientation by the hand of the user toward alignment with the inserted distal portion of the catheter body and/or with the patient; a sensor contained within the housing to receive a movement command having a command orientation; and a processor configured for coupling the sensor to the actuators so that, during use, the distal portion of the catheter body moves, in response to the movement command, with a catheter movement having a movement orientation corresponding to the command orientation based on the reoriented input, the movement command comprising a movement of the housing containing the sensor , characterized in that the sensor comprises an image capture device .