mhurhangee/patent-ind-claim-en huggingface dataset:
Tyre comprising a tread having a tread surface and a plurality of studs anchored in the tread and projecting out from the tread surface, characterized in that the mean surface density of studs on the tread surface is at least equal to 6.7 studs per dm 2 and the projecting height H s of each stud or of some of the studs of the plurality of studs is comprised between 0.8 mm and 1.2 mm.
Fastening means, in particular a chassis component, comprising at least one sensor (8, 8', 8") and at least one transmitter (4, 4', 4") of a monitoring device for monitoring at least one mechanical fastening parameter, wherein at least one power supply unit (5, 5', 5") is assigned to the transmitter (4, 4', 4"), wherein the transmitter (4, 4', 4") and the power supply unit (5, 5', 5") are connected to each other via a switching contact (3, 3', 3"), wherein an electrical connection can be closed via the switching contact (3, 3', 3"), wherein the switching contact (3, 3', 3") is designed in such a way, wherein the electrical connection is open when the fastening means is installed as intended and is closed only when the fastening means is detached, wherein the transmitter (4, 4', 4") is only supplied with power and transmits a signal when the electrical connection of the switching contact (3, 3', 3") is closed, wherein an actuating element (2, 2', 2") is assigned to the switching contact (3, 3', 3"). wherein the actuating element (2, 2', 2") comprises a preload; and wherein the actuating element (2, 2', 2") is designed in such a way that, when a force is applied against the preload, the electrical connection of the switching contact (3, 3', 3") is opened, characterized in that the actuating element (2") is a spring-loaded pin positioned at an angle to an rotational axis of a thread of the fastening means in such a way that the pin can be moved in the direction of the rotational axis. wherein an actuating element (2, 2', 2") is assigned to the switching contact (3, 3', 3"). wherein the actuating element (2, 2', 2") comprises a preload; and wherein the actuating element (2, 2', 2") is designed in such a way that, when a force is applied against the preload, the electrical connection of the switching contact (3, 3', 3") is opened, characterized in that the actuating element (2") is a spring-loaded pin positioned at an angle to an rotational axis of a thread of the fastening means in such a way that the pin can be moved in the direction of the rotational axis.
A securing means for a mobile vulcanizing press , comprising a tension bolt , which has an external thread at one of its two axial ends and at the opposite axial end of which a latching means is arranged, wherein said tension bolt has a through-bore , which is arranged between the two axial ends of said tension bolt and the axis of which is arranged perpendicularly to that of said tension bolt , and characterized in that a length by which said latching means projects beyond the axial end of said tension bolt is elastically variable.
Method for controlling a humanoid robot comprising two legs each ending in a foot that can be supported on the floor and that allows for its movement, characterised in that it is based on an equation for the conservation of total average energy during a current step to determine parameters necessary to carry out the next step.
Exercise apparatus having a frame, a pivoting member with a proximate end pivotally connected to the frame and a free distal end, and an elastic member having one end fastened to the pivoting member proximate to the distal end of the pivoting member , and an anchor device fastening a ring portion of a second end of the elastic member to the frame , the anchor device comprising: an elongated support member having a central axial portion , an upper mounting portion, and a lower mounting portion, the mounting portions being fastened to the frame , the central axial portion having a plurality of outwardly extending curved arms , wherein each curved arm has a distal end sized to receive and retain the ring portion of the second end of the elastic member ; characterised by a ring retaining device fastened to the central axial portion , the ring retaining device comprising: an elongated body fastened to the central axial portion , wherein the elongated body comprises: a central portion ; a first curved end portion ; and a semi-cylindrical connector portion joining the first curved end portion to one end of the central portion . an elongated support member having a central axial portion , an upper mounting portion, and a lower mounting portion, the mounting portions being fastened to the frame , the central axial portion having a plurality of outwardly extending curved arms , wherein each curved arm has a distal end sized to receive and retain the ring portion of the second end of the elastic member ; characterised by a ring retaining device fastened to the central axial portion , the ring retaining device comprising: an elongated body fastened to the central axial portion , wherein the elongated body comprises: a central portion ; a first curved end portion ; and a semi-cylindrical connector portion joining the first curved end portion to one end of the central portion . a central portion ; a first curved end portion ; and a semi-cylindrical connector portion joining the first curved end portion to one end of the central portion .
A computer-implemented method for generating a model of one or more geological structures, comprising: in an initial model (401; 501; 601; 600a; 701a; 701c) with cells having an initial resolution, computing a first function for a geological structure based on seismic data, wherein the first function includes a first iso-surface (505; 612; 612'; 705a; 705b) in a transformed coordinate space; detecting if the first iso-surface intersects a set of measured geological markers (605; 605'; 715; 715') within a threshold proximity; if the first iso-surface does not intersect the set of measured geological markers within the threshold proximity, correcting the initial model using an induced mesh (609; 717; 719) having an increased cell resolution for computing a second function for the geological structure, wherein the second function includes a second iso-surface (507a; 612'; 706; 706'; 711) in the transformed coordinate space that intersects the set of measured geological markers within the threshold proximity; generating a second model (501; 618; 600b; 600c; 701b; 717d; 719d) including the second iso-surface, wherein the second model has a locally increased resolution relative to the initial model caused by dividing cells in the second model along the second iso-surface; and for each new geological structure, repeating steps (a)-(d), using the second model (501; 618; 600b; 600c; 701b; 717d; 719d) as the initial model. in an initial model (401; 501; 601; 600a; 701a; 701c) with cells having an initial resolution, computing a first function for a geological structure based on seismic data, wherein the first function includes a first iso-surface (505; 612; 612'; 705a; 705b) in a transformed coordinate space; detecting if the first iso-surface intersects a set of measured geological markers (605; 605'; 715; 715') within a threshold proximity; if the first iso-surface does not intersect the set of measured geological markers within the threshold proximity, correcting the initial model using an induced mesh (609; 717; 719) having an increased cell resolution for computing a second function for the geological structure, wherein the second function includes a second iso-surface (507a; 612'; 706; 706'; 711) in the transformed coordinate space that intersects the set of measured geological markers within the threshold proximity; generating a second model (501; 618; 600b; 600c; 701b; 717d; 719d) including the second iso-surface, wherein the second model has a locally increased resolution relative to the initial model caused by dividing cells in the second model along the second iso-surface; and for each new geological structure, repeating steps (a)-(d), using the second model (501; 618; 600b; 600c; 701b; 717d; 719d) as the initial model.
An antenna arrangement with P polarization directions, the antenna arrangement comprising: M transmission, Tx, ports (Tx1, Tx2, Tx3, Tx4) and N reception, Rx, ports (Rx1, Rx2, ..., Rx8), where M≠N; and an antenna panel divided into S subpanels and the subpanels are stacked on top of each other, wherein a number S of the subpanels is equal to a maximum of a number of the Tx ports (Tx1, Tx2, Tx3, Tx4) and a number of the Rx ports (Rx1, Rx2,..., Rx8) divided by a number P of the polarization directions, where S = max (M, N)/P, and where S>1; wherein the subpanels , for each of the P polarization directions, are operatively connected to separate radio chains (10a, 10b, ..., 10h) for the N Rx ports(Rx1,Rx2,...Rx8), if N>M or for the M Tx ports (Tx1, Tx2, Tx3, Tx4) if M>N, wherein if N>M each Tx port of the Tx ports (Tx1, Tx2, Tx3, Tx4) is operatively connected to at least two of the subpanels for each of the P polarization directions, and wherein if M>N each Rx port of the Rx ports (Rx1, Rx2, ... , Rx8) is operatively connected to the at least two of the subpanels for each of the P polarization directions. M transmission, Tx, ports (Tx1, Tx2, Tx3, Tx4) and N reception, Rx, ports (Rx1, Rx2, ..., Rx8), where M≠N; and an antenna panel divided into S subpanels and the subpanels are stacked on top of each other, wherein a number S of the subpanels is equal to a maximum of a number of the Tx ports (Tx1, Tx2, Tx3, Tx4) and a number of the Rx ports (Rx1, Rx2,..., Rx8) divided by a number P of the polarization directions, where S = max (M, N)/P, and where S>1; wherein the subpanels , for each of the P polarization directions, are operatively connected to separate radio chains (10a, 10b, ..., 10h) for the N Rx ports(Rx1,Rx2,...Rx8), if N>M or for the M Tx ports (Tx1, Tx2, Tx3, Tx4) if M>N, wherein if N>M each Tx port of the Tx ports (Tx1, Tx2, Tx3, Tx4) is operatively connected to at least two of the subpanels for each of the P polarization directions, and wherein if M>N each Rx port of the Rx ports (Rx1, Rx2, ... , Rx8) is operatively connected to the at least two of the subpanels for each of the P polarization directions.
An analyzing device having one end of a supplying capillary channel opened at a spot application section formed so as to protrude from an analyzing device main body , the supplying capillary channel connected to a microchannel structure formed inside the analyzing device main body , wherein the analyzing device is configured such that a sample liquid applied to the spot application section is suctioned by a capillary force of the supplying capillary channel , and the analyzing device is used for reading in which a suctioned solution is accessed, characterised in that a leading end of the spot application section is formed as an inclined face , and the end of the supplying capillary channel that opens on the inclined face is configured to come into contact with a blood drop and the blood is configured to be suctioned from the supplying capillary channel by inclining the analyzing device and bringing the inclined face alongside a fingertip .
A method comprising: subscribing to a key distribution service by a plurality of Wi-Fi access points belonging to a same mobility domain comprising sending a respective subscription request message to an Authentication, Authorisation and Accounting AAA element ; managing by a server one or more neighbor relation tables NRTs for the plurality of Wi-Fi access points wherein each NRT comprises one or more Wi-Fi access points of the plurality of Wi-Fi access points that neighbor each other for the same mobility domain; and associating, by the server an R1 key holder identity R1KH-ID and a mobility domain identifier MDID of the same domain for each respective Wi-Fi access point within each NRT in which each respective Wi-Fi access point is included; receiving, at the AAA element, a request from a user equipment UE to connect to a first Wi-Fi access point of the plurality of Wi-Fi access points belonging to the same mobility domain; determining by the AAA element from the NRT using the R1KH-ID and MDID of the first Wi-Fi AP one or more second Wi-Fi access points of the plurality of Wi-Fi access points belonging to the same mobility domain that neighbor the first Wi-Fi access points wherein each of the one or more second Wi-Fi access points can serve as a potential handover target neighbor Wi-Fi AP of the first Wi-Fi AP; and distributing, by the AAA element, keying parameters to each of the one or more second Wi-Fi access points, wherein the keying parameters are used to establish a protected link between the UE and one of the one or more second Wi-Fi access points to which the UE is handed over. subscribing to a key distribution service by a plurality of Wi-Fi access points belonging to a same mobility domain comprising sending a respective subscription request message to an Authentication, Authorisation and Accounting AAA element ; managing by a server one or more neighbor relation tables NRTs for the plurality of Wi-Fi access points wherein each NRT comprises one or more Wi-Fi access points of the plurality of Wi-Fi access points that neighbor each other for the same mobility domain; and associating, by the server an R1 key holder identity R1KH-ID and a mobility domain identifier MDID of the same domain for each respective Wi-Fi access point within each NRT in which each respective Wi-Fi access point is included; receiving, at the AAA element, a request from a user equipment UE to connect to a first Wi-Fi access point of the plurality of Wi-Fi access points belonging to the same mobility domain; determining by the AAA element from the NRT using the R1KH-ID and MDID of the first Wi-Fi AP one or more second Wi-Fi access points of the plurality of Wi-Fi access points belonging to the same mobility domain that neighbor the first Wi-Fi access points wherein each of the one or more second Wi-Fi access points can serve as a potential handover target neighbor Wi-Fi AP of the first Wi-Fi AP; and distributing, by the AAA element, keying parameters to each of the one or more second Wi-Fi access points,
An electric power device comprising: a power source ; a working assembly powered by the power source via a power cable ; and a telescopic member extending at least in part between the power source and the working assembly , the telescopic member being extendable between an extended state and a non-extended state, the power cable being extendible and collapsible to at least some degree to accommodate extension and collapsing of the telescopic member between the extended state and the non-extended state, respectively, wherein the telescopic member comprises an outer tube and an inner tube in slidable engagement with each other to extend and collapse between the extended state and the non-extended state, respectively, wherein the power cable includes a transition region where the power cable transitions to a helix portion , wherein the telescopic member includes a cable centering assembly therein, the cable centering assembly being disposed proximate to the transition region to inhibit damage to the power cable responsive to the telescopic member collapsing to the non-extended state, characterised in that the cable centering assembly comprises a mechanical bush (200/300) having an outer diameter smaller than an inner diameter of the outer tube and an inner diameter larger than a diameter of the helix portion of the power cable . a power source ; a working assembly powered by the power source via a power cable ; and a telescopic member extending at least in part between the power source and the working assembly , the telescopic member being extendable between an extended state and a non-extended state, the power cable being extendible and collapsible to at least some degree to accommodate extension and collapsing of the telescopic member between the extended state and the non-extended state, respectively, wherein the telescopic member comprises an outer tube and an inner tube in slidable engagement with each other to extend and collapse between the extended state and the non-extended state, respectively, wherein the power cable includes a transition region where the power cable transitions to a helix portion , wherein the telescopic member includes a cable centering assembly therein, the cable centering assembly being disposed proximate to the transition region to inhibit damage to the power cable responsive to the telescopic member collapsing to the non-extended state, characterised in that the cable centering assembly comprises a mechanical bush (200/300) having an outer diameter smaller than an inner diameter of the outer tube and an inner diameter larger than a diameter of the helix portion of the power cable .
A method for communication performed by a vehicle-to-anything, V2X, wireless communication system user equipment, UE, comprising: providing , for transmission by the UE and at periodic time intervals, a plurality of data packets by a data source in the UE in association with a resource request for transmission resources; providing an initial periodic resource grant in response to the resource request; transmitting , during each of a first plurality of the periodic time intervals, each of the plurality of data packets in a corresponding one of a plurality of transport blocks using the initial periodic resource grant, the method characterized by further comprising: detecting , over the first plurality of the periodic time intervals, a pattern of sizes of the plurality of data packets; providing , in response to the detected pattern of data packet sizes, an increased periodic resource grant having a greater size than the initial periodic resource grant; and transmitting , during each of a second plurality of the periodic time intervals, the plurality of data packets aggregated together in a single transport block using the increased periodic resource grant. providing , for transmission by the UE and at periodic time intervals, a plurality of data packets by a data source in the UE in association with a resource request for transmission resources; providing an initial periodic resource grant in response to the resource request; transmitting , during each of a first plurality of the periodic time intervals, each of the plurality of data packets in a corresponding one of a plurality of transport blocks using the initial periodic resource grant, the method characterized by further comprising: detecting , over the first plurality of the periodic time intervals, a pattern of sizes of the plurality of data packets; providing , in response to the detected pattern of data packet sizes, an increased periodic resource grant having a greater size than the initial periodic resource grant; and transmitting , during each of a second plurality of the periodic time intervals, the plurality of data packets aggregated together in a single transport block using the increased periodic resource grant. detecting , over the first plurality of the periodic time intervals, a pattern of sizes of the plurality of data packets; providing , in response to the detected pattern of data packet sizes, an increased periodic resource grant having a greater size than the initial periodic resource grant; and transmitting , during each of a second plurality of the periodic time intervals, the plurality of data packets aggregated together in a single transport block using the increased periodic resource grant.
An electronic apparatus comprising a metal back cover , a metal peripheral frame and an antenna structure , • wherein the metal back cover is connected to the metal peripheral frame, wherein an extension of the metal back cover is limited by four sides, wherein adjacent sides among the four sides are perpendicular to each other, and a first pair of opposing sides among the four sides has a larger length than a second pair of opposing sides among the four sides, • wherein the antenna structure comprises an antenna main body , a matching circuit and a radio frequency transceiver circuit , and the matching circuit is located between the radio frequency transceiver circuit and the antenna main body , and is electrically connected to the radio frequency transceiver circuit and the antenna main body , • wherein the metal back cover comprises a micro gap set comprising multiple micro gaps each having a width less than 0.5 millimeter, wherein the micro gap set extends in its main extension direction, being a direction of a largest extension, perpendicular to the first pair of opposing sides between two opposing sides of the metal peripheral frame, so that the micro gap set divides the metal back cover into two independent metal regions , wherein the antenna main body is connected to a first metal region of the two metal regions , so that the first metal region serves as a radiating body of the antenna main body . • wherein the metal back cover is connected to the metal peripheral frame, wherein an extension of the metal back cover is limited by four sides, wherein adjacent sides among the four sides are perpendicular to each other, and a first pair of opposing sides among the four sides has a larger length than a second pair of opposing sides among the four sides, • wherein the antenna structure comprises an antenna main body , a matching circuit and a radio frequency transceiver circuit , and the matching circuit is located between the radio frequency transceiver circuit and the antenna main body , and is electrically connected to the radio frequency transceiver circuit and the antenna main body , • wherein the metal back cover comprises a micro gap set comprising multiple micro gaps each having a width less than 0.5 millimeter, wherein the micro gap set extends in its main extension direction, being a direction of a largest extension, perpendicular to the first pair of opposing sides between two opposing sides of the metal peripheral frame, so that the micro gap set divides the metal back cover into two independent metal regions , wherein the antenna main body is connected to a first metal region of the two metal regions , so that the first metal region serves as a radiating body of the antenna main body .
A compound represented by the following formula 1: in formula 1, Y is -CH 2 -; Z is -CH 2 -(CH 2 -O-CH 2 ) n -CH 2 -, wherein n is an integer of 0 to 2; R is hydrogen, (pyridin-4-yl)methyl, or 4-pyridinyl; and F is 18 F or 19 F. Y is -CH 2 -; Z is -CH 2 -(CH 2 -O-CH 2 ) n -CH 2 -, wherein n is an integer of 0 to 2; R is hydrogen, (pyridin-4-yl)methyl, or 4-pyridinyl; and F is 18 F or 19 F.
A computing device readable medium having instructions for causing a device to perform a method for tooth modeling, comprising: receiving a patient information file comprising data relating to the patient's teeth; analyzing the patient information file to determine if a tooth is abnormal because it is unerupted or partially erupted from the patient information file ; creating a model tooth shape based on the abnormal tooth shape; associating reference features from the model tooth shape with the abnormal tooth; and generating a treatment plan for one or more aligners based on the reference features of the model tooth shape . receiving a patient information file comprising data relating to the patient's teeth; analyzing the patient information file to determine if a tooth is abnormal because it is unerupted or partially erupted from the patient information file ; creating a model tooth shape based on the abnormal tooth shape; associating reference features from the model tooth shape with the abnormal tooth; and generating a treatment plan for one or more aligners based on the reference features of the model tooth shape .