mhurhangee/patent-ind-claim-en huggingface dataset:
A method of providing augmented control of a power machine (100; 200; 300; 600), the method comprising: identifying a localized positioning system environment using a localization controller in communication with a tag device on the power machine, wherein identifying the localized positioning system environment further comprises identifying whether the power machine has entered into, or is entering into, the localized positioning system environment and automatically stopping use of a global positioning system for navigation while both satellite positioning signals and localized positioning signals are simultaneously available; identifying a current relative position of the power machine within the localized positioning system environment using the localization controller; identifying a desired destination position within the localized positioning system environment; identifying obstacles (620; 622; 624) within the localized positioning system environment; creating a power machine path from the current relative position to the desired destination position based in part upon the identified obstacles; and using an augmented operation controller to at least partially autonomously control the power machine to drive along the created power machine path from the current relative position to the desired destination position. identifying a localized positioning system environment using a localization controller in communication with a tag device on the power machine, wherein identifying the localized positioning system environment further comprises identifying whether the power machine has entered into, or is entering into, the localized positioning system environment and automatically stopping use of a global positioning system for navigation while both satellite positioning signals and localized positioning signals are simultaneously available; identifying a current relative position of the power machine within the localized positioning system environment using the localization controller; identifying a desired destination position within the localized positioning system environment; identifying obstacles (620; 622; 624) within the localized positioning system environment; creating a power machine path from the current relative position to the desired destination position based in part upon the identified obstacles; and using an augmented operation controller to at least partially autonomously control the power machine to drive along the created power machine path from the current relative position to the desired destination position.
A guidewire or catheter shaft management device, the device comprising: an upper plate ; and a lower plate having at least one lower groove disposed therein, the at least one lower groove in the lower plate sized to receive the guidewire or catheter, wherein the upper plate is releasably coupled to the lower plate and wherein the guidewire or catheter is captured between the upper plate and the lower plate, wherein the upper plate further comprises at least one upper groove disposed therein, the at least one upper groove sized to receive the guidewire or catheter shaft, wherein the at least one lower groove in the lower plate cooperates with the at least one upper groove in the upper plate to form a channel configured to hold the guidewire or catheter shaft, wherein the upper plate and the lower plate are configured such that the upper plate may be lifted off of the lower plate to allow access to a guidewire or catheter shaft received in a said channel , wherein the at least one lower groove comprises a first lower groove and a second lower groove disposed in the lower plate, wherein the first and second lower grooves extend from a first edge of the lower plate to a second edge of the lower plate opposite the first edge, and wherein adjacent the first edge the first and second lower grooves are substantially parallel with one another, and wherein adjacent the second edge the first and second lower grooves flare away from one another. an upper plate ; and a lower plate having at least one lower groove disposed therein, the at least one lower groove in the lower plate sized to receive the guidewire or catheter, wherein the upper plate is releasably coupled to the lower plate and wherein the guidewire or catheter is captured between the upper plate and the lower plate, wherein the upper plate further comprises at least one upper groove disposed therein, the at least one upper groove sized to receive the guidewire or catheter shaft, wherein the at least one lower groove in the lower plate cooperates with the at least one upper groove in the upper plate to form a channel configured to hold the guidewire or catheter shaft, wherein the upper plate and the lower plate are configured such that the upper plate may be lifted off of the lower plate to allow access to a guidewire or catheter shaft received in a said channel , wherein the at least one lower groove comprises a first lower groove and a second lower groove disposed in the lower plate, wherein the first and second lower grooves extend from a first edge of the lower plate to a second edge of the lower plate opposite the first edge, and wherein adjacent the first edge the first and second lower grooves are substantially parallel with one another, and wherein adjacent the second edge the first and second lower grooves flare away from one another.
A method of broadcasting a content by streaming in a peer-to-peer network of client devices which is connected to a content server , said content consisting of a sequence of segments stored in data storage means of the content server , each client device comprising a buffer storing in a temporary manner at least one segment of said content, the method being characterised in that each client device is associated with a level, the client devices being classified in L levels, each level k ∈ 〚 1 , L 〛 defining a minimum list of segments of the content corresponding to a minimum duration t k of the content, that have to be stored by the buffer of the device , the minimum lists increasing with the level k, the method comprising steps of: (a) connecting a new client device to the peer-to-peer network ; (b) assigning a level to the new client device as a function of the number of client devices associated with each level; (c) transmitting to said new client device from the server at least each segment of the content which is absent from the buffer of the new client device , which belongs to said list of segments of the content corresponding to the level assigned to the new client device . (a) connecting a new client device to the peer-to-peer network ; (b) assigning a level to the new client device as a function of the number of client devices associated with each level; (c) transmitting to said new client device from the server at least each segment of the content which is absent from the buffer of the new client device , which belongs to said list of segments of the content corresponding to the level assigned to the new client device .
A method for receiving a signal, by a terminal, comprising: receiving synchronizing signal and physical broadcast channel, SS/PBCH, from a base station; determining a resource set for a physical downlink control channel, PDCCH, based on an indication related to an offset obtained via the PBCH wherein the offset is defined based on a resource of the SS/PBCH, and a number of resource blocks, RBs, for the determined resource set; receiving the PDCCH from the base station, based on the determined resource set; receiving one or more zero power-channel state information-reference signal, ZP-CSI-RS configurations indicating resource configured for ZP-CSI-RS, from the base station , wherein each of the one or more ZP-CSI-RS configurations include subcarrier occupancy information, periodicity information and time offset information for the ZP-CSI-RS, wherein the resource configured for ZP-CSI-RS is used as resource to be avoided in identifying mapping of a physical downlink control shared channel, PDSCH; receiving medium access control, MAC, layer signaling that activates the ZP-CSI-RS; and identifying the mapping of the PDSCH by avoiding the resource configured for ZP-CSI-RS. receiving synchronizing signal and physical broadcast channel, SS/PBCH, from a base station; determining a resource set for a physical downlink control channel, PDCCH, based on an indication related to an offset obtained via the PBCH wherein the offset is defined based on a resource of the SS/PBCH, and a number of resource blocks, RBs, for the determined resource set; receiving the PDCCH from the base station, based on the determined resource set; receiving one or more zero power-channel state information-reference signal, ZP-CSI-RS configurations indicating resource configured for ZP-CSI-RS, from the base station , wherein each of the one or more ZP-CSI-RS configurations include subcarrier occupancy information, periodicity information and time offset information for the ZP-CSI-RS, wherein the resource configured for ZP-CSI-RS is used as resource to be avoided in identifying mapping of a physical downlink control shared channel, PDSCH; receiving medium access control, MAC, layer signaling that activates the ZP-CSI-RS; and identifying the mapping of the PDSCH by avoiding the resource configured for ZP-CSI-RS.
A pivotal screw assembly for securing a fixation rod to patient bone via a locking cap , the pivotal screw assembly comprising: a screw having a longitudinal axis , a proximal end with a head portion , and a distal end with a threaded shaft portion ; an insert operably coupled with the head portion , the insert having a pair of extensions projecting radially away from an exterior surface of the insert ; and a body member operably coupled with the insert , the body member comprising side walls having two slots at an upper end that define a transverse channel sized to receive the fixation rod , the sidewalls having upper interior surfaces with threaded portions formed therein and an interior distal surface including a pair of pockets configured to receive a respective extension of the pair of extensions, wherein the body member and insert are together independently rotatable relative to the screw about the longitudinal axis when the head portion of the screw and the insert are disposed within the body member , with the pair of extensions operably engaging the pair of pockets so as to allow the body member to pivot relative to the insert and the screw together only about a transverse axis defined by a line extending between the pair of extensions, prior to the assembly being locked by the locking cap . a screw having a longitudinal axis , a proximal end with a head portion , and a distal end with a threaded shaft portion ; an insert operably coupled with the head portion , the insert having a pair of extensions projecting radially away from an exterior surface of the insert ; and a body member operably coupled with the insert , the body member comprising side walls having two slots at an upper end that define a transverse channel sized to receive the fixation rod , the sidewalls having upper interior surfaces with threaded portions formed therein and an interior distal surface including a pair of pockets configured to receive a respective extension of the pair of extensions, wherein the body member and insert are together independently rotatable relative to the screw about the longitudinal axis when the head portion of the screw and the insert are disposed within the body member , with the pair of extensions operably engaging the pair of pockets so as to allow the body member to pivot relative to the insert and the screw together only about a transverse axis defined by a line extending between the pair of extensions, prior to the assembly being locked by the locking cap .
A data processing system comprising: a first data processing apparatus configured to execute first processing on input data acquired from a data line at an interval in accordance with a sampling rate; and a second data processing apparatus configured to migrate the first processing from the first data processing apparatus and execute the first processing, wherein the second data processing apparatus is adapted to migrate the first processing by snooping the input data input to the first data processing apparatus , and when snooping, the second data processing apparatus is adapted to monitor the data line at the interval in accordance with the sampling rate, to acquire the input data that is the same as that which the first data processing apparatus has acquired. a first data processing apparatus configured to execute first processing on input data acquired from a data line at an interval in accordance with a sampling rate; and a second data processing apparatus configured to migrate the first processing from the first data processing apparatus and execute the first processing, wherein the second data processing apparatus is adapted to migrate the first processing by snooping the input data input to the first data processing apparatus , and when snooping, the second data processing apparatus is adapted to monitor the data line at the interval in accordance with the sampling rate, to acquire the input data that is the same as that which the first data processing apparatus has acquired.
Topical pharmaceutical compositions containing as active ingredients 4,6-dimethyl-N-(3,4,5-trimethoxyphenyl)pyrimidin-2-amine (I) or a pharmaceutically acceptable salt thereof and 2,4-O-(2-furanylmethylene)-1,3,5,6-tetra-O-methyl-D-glucitol (II), in combination with suitable excipients and/or diluents.
A compound according to Formula I: or a pharmaceutically acceptable salt, solvate, tautomeric form or polymorphic form thereof, wherein R A is hydroxyl, halo, or alkylcarbonyloxy; R B1 is C 2 -C 6 alkenyl, C 2 -C 6 alkynyl, hydroxyl, fluoro, CN, benzyloxycarbonyloxy, or alkylcarbonyloxy; R B2 is hydrogen or methyl; R C is hydrogen, alkyl, alkenyl, alkynyl, or azido; Base is a nucleobase; PD is W is sulfur or oxygen; each of X and Y is independently hydrogen, -OR 1 , -SR 1 , -NR 1 R 2 , or an N-linked or O-linked amino acid residue, or derivative thereof; Z is hydrogen, methyl, cyano or fluoro; or, in the alternative, Y and Z, together with the atoms to which they are attached, combine to form a seven-membered heterocyclic ring wherein Y and Z together represent a single divalent -O-, and X is -OR 1 , -SR 1 , -NR 1 R 2 , or an N-linked or O-linked amino acid residue, or derivative thereof; or Z , R B1 and R B2 combine to form C 2-6 alkenylene or C 2-6 alkynylene; each R 1 is independently hydrogen, alkyl, aryl, arylalkyl, cycloalkyl, heterocycloalkyl, alkoxylcarbonylalkyl, alkoxycarbonyloxyalkyl, or alkylcarbonylthioalkyl; and each R 2 is independently hydrogen, alkyl, cycloalkyl, aryl, or arylalkyl; with the proviso that when PD is R A is hydroxyl; R B1 is fluoro; R B2 is hydrogen; R C is hydrogen; and Z is hydrogen; then Base is other than guanine. R A is hydroxyl, halo, or alkylcarbonyloxy; R B1 is C 2 -C 6 alkenyl, C 2 -C 6 alkynyl, hydroxyl, fluoro, CN, benzyloxycarbonyloxy, or alkylcarbonyloxy; R B2 is hydrogen or methyl; R C is hydrogen, alkyl, alkenyl, alkynyl, or azido; Base is a nucleobase; PD is W is sulfur or oxygen; each of X and Y is independently hydrogen, -OR 1 , -SR 1 , -NR 1 R 2 , or an N-linked or O-linked amino acid residue, or derivative thereof; Z is hydrogen, methyl, cyano or fluoro; or, in the alternative, Y and Z, together with the atoms to which they are attached, combine to form a seven-membered heterocyclic ring wherein Y and Z together represent a single divalent -O-, and X is -OR 1 , -SR 1 , -NR 1 R 2 , or an N-linked or O-linked amino acid residue, or derivative thereof; or Z , R B1 and R B2 combine to form C 2-6 alkenylene or C 2-6 alkynylene; each R 1 is independently hydrogen, alkyl, aryl, arylalkyl, cycloalkyl, heterocycloalkyl, alkoxylcarbonylalkyl, alkoxycarbonyloxyalkyl, or alkylcarbonylthioalkyl; and each R 2 is independently hydrogen, alkyl, cycloalkyl, aryl, or arylalkyl; with the proviso that when PD is R A is hydroxyl; R B1 is fluoro; R B2 is hydrogen; R C is hydrogen; and Z is hydrogen; then Base is other than guanine.
Method for inspecting surface and detecting defects of long products (P) while they are advancing along a running direction, said method comprising the steps of: - lighting an annular portion of the long product (P) surface by a plurality of illuminators, each one projecting light with a set angle with respect to line perpendicular to lightened surface; - detecting reflexed images by a plurality of detectors (T) having their main axis inclined with respect to said line with a second set angle; - acquiring and processing said images by a computerized unit (C); - using a combination of images of the same region of the long product (P), said images being taken under different lighting conditions, in order to rebuilt shape of surface and thus obtaining information about presence of defects, wherein point defects generating an angle along the product (P) running direction are made evident using an assembly of cameras (T) which are transverse with respect to the product (P), and two or more lighting groups (G), some of which are provided upstream and others downstream of said cameras (T) in the running direction, the lighting groups (G) emitting white light or light dedicated to a set of wavelengths, and wherein defects are individuated comparing images obtained for the same product (P) region under the different lighting conditions, shooting of the same region with different lighting conditions being taken at the same time exploiting color cameras and using illuminators with different wavelengths. - lighting an annular portion of the long product (P) surface by a plurality of illuminators, each one projecting light with a set angle with respect to line perpendicular to lightened surface; - detecting reflexed images by a plurality of detectors (T) having their main axis inclined with respect to said line with a second set angle; - acquiring and processing said images by a computerized unit (C); - using a combination of images of the same region of the long product (P), said images being taken under different lighting conditions, in order to rebuilt shape of surface and thus obtaining information about presence of defects,
A bandwidth configuration method, comprising: configuring a first channel bandwidth, CB, of a first carrier (S101); configuring a first subcarrier and a first transmission bandwidth configuration, TBC, corresponding to the first CB of the first carrier, wherein the first CB of the first carrier and the first TBC are associated with a first predefined relationship (S102); configuring a first guard band and a second guard band in the first CB of the first carrier that are located on different sides of the first TBC, respectively, wherein the first and second guard bands are asymmetric to each other with respect to a center frequency of the first CB of the first carrier (S105); and transmitting data using a frequency bandwidth according to the first TBC, wherein the first CB of the first carrier is greater than a preset bandwidth (S102), wherein the first predefined relationship indicates a first percentage that the first TBC occupies the first CB of the first carrier, the first percentage greater than 90% and less than 100% (S102), and wherein the first percentage monotonically increases as the first CB of the first carrier increases. configuring a first channel bandwidth, CB, of a first carrier (S101); configuring a first subcarrier and a first transmission bandwidth configuration, TBC, corresponding to the first CB of the first carrier, wherein the first CB of the first carrier and the first TBC are associated with a first predefined relationship (S102); configuring a first guard band and a second guard band in the first CB of the first carrier that are located on different sides of the first TBC, respectively, wherein the first and second guard bands are asymmetric to each other with respect to a center frequency of the first CB of the first carrier (S105); and transmitting data using a frequency bandwidth according to the first TBC, wherein the first CB of the first carrier is greater than a preset bandwidth (S102), wherein the first predefined relationship indicates a first percentage that the first TBC occupies the first CB of the first carrier, the first percentage greater than 90% and less than 100% (S102), and wherein the first percentage monotonically increases as the first CB of the first carrier increases.
A negative electrode, comprising: a negative electrode current collector ; a first active material layer close to the negative electrode current collector , the first active material layer comprising a first active material; and a second active material layer disposed on a surface of the first active material layer away from the negative electrode current collector , the second active material layer comprising a second active material; characterized in that the first active material and the second active material are independently oval-like particles with through holes and/or blind holes, and the first active material has an average pore size greater than that of the second active material; wherein the first active material has an average pore size from 70 to 140 nm, and wherein the second active material has an average pore size from 10 to 30 nm, measured according to the methods as described in the description; wherein a ratio of short diameter to long diameter of the first active material is from 0.5 to less than 1, measured according to the methods as described in the description, and a ratio of short diameter to long diameter of the second active material is from 0.3 to less than 1, measured according to the methods as described in the description; wherein the second active material and the first active material independently comprise one or more of soft carbon, hard carbon, artificial graphite, natural graphite, silicon, silicon oxides, silicon-carbon composites, lithium titanate, and metals capable of forming alloys with lithium. a negative electrode current collector ; a first active material layer close to the negative electrode current collector , the first active material layer comprising a first active material; and a second active material layer disposed on a surface of the first active material layer away from the negative electrode current collector , the second active material layer comprising a second active material; characterized in that the first active material and the second active material are independently oval-like particles with through holes and/or blind holes, and the first active material has an average pore size greater than that of the second active material; wherein the first active material has an average pore size from 70 to 140 nm, and wherein the second active material has an average pore size from 10 to 30 nm, measured according to the methods as described in the description; wherein a ratio of short diameter to long diameter of the first active material is from 0.5 to less than 1, measured according to the methods as described in the description, and a ratio of short diameter to long diameter of the second active material is from 0.3 to less than 1, measured according to the methods as described in the description; wherein the second active material and the first active material independently comprise one or more of soft carbon, hard carbon, artificial graphite, natural graphite, silicon, silicon oxides, silicon-carbon composites, lithium titanate, and metals capable of forming alloys with lithium.