mhurhangee/patent-ind-claim-en huggingface dataset:
A method for generating and updating a remote instance of a screen view for at least one communication device during a communication session, with a system comprising a computer unit , at least one communication device , a first communication path between the computer unit and the least one communication device , a second communication path between the computer unit and the least one communication device , a security controller and a broker , wherein the remote instance of a screen view represents an image representation, which is displayed visibly for the communication partner at the communication device as remote device, and which at least partially corresponds to the screen view , wherein the screen view is displayed on a computer unit during a communication session and the remote instance is displayed on at least one communication device , wherein the screen view has a number of data elements (D) that are presented on the screen view in accordance with a defined static or dynamic display schema , which defines the display position and display form of data elements (D) and comprises no information about the actual value of data elements (D), wherein the method comprises following steps: - Transmission of the display schema of the screen view , which at least partially corresponds to a display schema (5 I , 5 II ), to the at least one communication device at least a first time via the first communication path , - Transmission of the values of at least one of the data elements (D) to at least one communication device via the second communication path during the communication session, in accordance with a protocol which functions in accordance with a subscriber/publisher model, whereas no direct end-to-end connection is established, but the communication is always effected via the interposed broker , wherein the broker receives data from a publisher and makes it available to one or more subscribers, - Combination of received values of the data elements (D) and the received display schema (5 I , 5 II ) through the at least one communication device , and - Display of the remote instance at this communication device . - Transmission of the display schema of the screen view , which at least partially corresponds to a display schema (5 I , 5 II ), to the at least one communication device at least a first time via the first communication path , - Transmission of the values of at least one of the data elements (D) to at least one communication device via the second communication path during the communication session, in accordance with a protocol which functions in accordance with a subscriber/publisher model, whereas no direct end-to-end connection is established, but the communication is always effected via the interposed broker , wherein the broker receives data from a publisher and makes it available to one or more subscribers, - Combination of received values of the data elements (D) and the received display schema (5 I , 5 II ) through the at least one communication device , and - Display of the remote instance at this communication device .
A communication resource management method, wherein the method comprises: receiving latency indication information of a terminal from the terminal , wherein the latency indication information is configured to indicate latency for processing a signal by the terminal ; and managing communication resources of the terminal according to the latency indication information; wherein the latency indication information comprises: an upper limit value of a processing capability of the terminal , a lower limit value of the latency for processing the signal by the terminal , and/or an offset between the latency for currently processing the signal by the terminal and the lower limit value of the latency for processing the signal by the terminal . receiving latency indication information of a terminal from the terminal , wherein the latency indication information is configured to indicate latency for processing a signal by the terminal ; and managing communication resources of the terminal according to the latency indication information; wherein the latency indication information comprises: an upper limit value of a processing capability of the terminal , a lower limit value of the latency for processing the signal by the terminal , and/or an offset between the latency for currently processing the signal by the terminal and the lower limit value of the latency for processing the signal by the terminal .
A monitor method, being adapted for an electronic computing apparatus, the electronic computing apparatus forming a blockchain system with at least one other electronic computing apparatus and storing a smart contract and a blockchain ledger of the blockchain system, the smart contract and the blockchain ledger also being stored in the at least one other electronic computing apparatus, the electronic apparatus and the at least one other electronic computing apparatus maintaining the blockchain ledger , the monitor method comprising the following steps: monitoring a first electronic apparatus periodically, comprising the following steps: a) obtaining a piece of behavior information (D1, D2) of the first electronic apparatus at a time point (T1, T2); b) retrieving, via the smart contract , a plurality of pieces of previous behavior information (A 1 , ..., A p ) within a time interval (L1, L2) from the blockchain ledger , wherein the time interval (L1, L2) is before the time point (T1, T2), the time interval (L1, L2) covers or nears the time point (T1, T2), and each of the pieces of previous behavior information (A 1 , ..., A p ) corresponds to one of a plurality of second electronic apparatuses and the first electronic apparatus ; c) determining a legality of the piece of behavior information (D1, D2) according to the plurality of pieces of previous behavior information (A 1 , ..., A p ); and d) writing the piece of behavior information (D1, D2) into the blockchain ledger . a) obtaining a piece of behavior information (D1, D2) of the first electronic apparatus at a time point (T1, T2); b) retrieving, via the smart contract , a plurality of pieces of previous behavior information (A 1 , ..., A p ) within a time interval (L1, L2) from the blockchain ledger , wherein the time interval (L1, L2) is before the time point (T1, T2), the time interval (L1, L2) covers or nears the time point (T1, T2), and each of the pieces of previous behavior information (A 1 , ..., A p ) corresponds to one of a plurality of second electronic apparatuses and the first electronic apparatus ; c) determining a legality of the piece of behavior information (D1, D2) according to the plurality of pieces of previous behavior information (A 1 , ..., A p ); and d) writing the piece of behavior information (D1, D2) into the blockchain ledger .
An explosion proof ultrasonic detector , comprising: a metal enclosure configured to face ultrasound pressure waves; a sense element , wherein the sense element is attached to the metal enclosure via solder ; a compression element , wherein the compression element is electrically conductive; and a printed circuit board (PCB) , wherein the metal enclosure is directly attached to the PCB , which contacts the compression element , thereby compressing the sense element via the compression element to connect electrically to the sense element and to provide explosion protection. a metal enclosure configured to face ultrasound pressure waves; a sense element , wherein the sense element is attached to the metal enclosure via solder ; a compression element , wherein the compression element is electrically conductive; and a printed circuit board (PCB) , wherein the metal enclosure is directly attached to the PCB , which contacts the compression element , thereby compressing the sense element via the compression element to connect electrically to the sense element and to provide explosion protection.
A method of estimating core temperatures of battery cells in a battery pack , the method comprising: a) dynamically receiving a surface temperature of less than all of the battery cells in the battery pack , a current of the less than all battery cells , an inlet temperature of coolant provided to the battery pack , and a flow rate or velocity of the coolant ; b) dynamically estimating a cell-lumped internal electrical resistance of the less than all battery cells , a cell-lumped conduction resistance between a core and a surface of the less than all battery cells , and a cell-lumped convection resistance between the surface of the less than all battery cells and the coolant , the estimations based upon the received values of step a); c) dynamically estimating a core temperature of the less than all battery cells based upon the received values of step a) and based upon the estimated values of step b); and d) using thermal energy transfer effects between the coolant and the battery cells , thermal energy transfer effects among the battery cells , and the estimated core temperature values of step c), in order to estimate the core temperatures for all of the battery cells in the battery pack , characterized in that step b) comprises dynamically estimating a heat capacity of the core of the less than all battery cells , and a heat capacity of the surface of the less than all battery cells , the estimations based upon the received values of step a), and wherein step c) comprises dynamically estimating a surface temperature of the less than all battery cells , and the method further preferably comprises comparing the received surface temperature values of step a) and the estimated surface temperature values of step c) in order to correct the estimation of the core temperatures of all of the battery cells in the battery pack . a) dynamically receiving a surface temperature of less than all of the battery cells in the battery pack , a current of the less than all battery cells , an inlet temperature of coolant provided to the battery pack , and a flow rate or velocity of the coolant ; b) dynamically estimating a cell-lumped internal electrical resistance of the less than all battery cells , a cell-lumped conduction resistance between a core and a surface of the less than all battery cells , and a cell-lumped convection resistance between the surface of the less than all battery cells and the coolant , the estimations based upon the received values of step a); c) dynamically estimating a core temperature of the less than all battery cells based upon the received values of step a) and based upon the estimated values of step b); and d) using thermal energy transfer effects between the coolant and the battery cells , thermal energy transfer effects among the battery cells , and the estimated core temperature values of step c), in order to estimate the core temperatures for all of the battery cells in the battery pack ,
A medical device tracking system comprising: a surgical screw having a distal end and a proximal portion proximal to the distal end ; a first component ; a second component coupled with the first component to capture the proximal portion of the surgical screw ; and a tracking device associated with the first component or the second component ; wherein a portion of the surgical screw , which portion extends from the first component to the distal end and which portion is provided with an external thread, is completely exposed when the proximal portion of the surgical screw is captured by the first and second components ; and wherein either or both of the first and second components are configured to be, at least in part, fractured or changed when the first and second components are decoupled so that separation between first and second components is detectable. a surgical screw having a distal end and a proximal portion proximal to the distal end ; a first component ; a second component coupled with the first component to capture the proximal portion of the surgical screw ; and a tracking device associated with the first component or the second component ; wherein a portion of the surgical screw , which portion extends from the first component to the distal end and which portion is provided with an external thread, is completely exposed when the proximal portion of the surgical screw is captured by the first and second components ; and wherein either or both of the first and second components are configured to be, at least in part, fractured or changed when the first and second components are decoupled so that separation between first and second components is detectable.
An apparatus for autoclave curing composite stiffeners against a composite skin, comprising: a tool having a tool surface on which a composite skin may be placed, and a plurality of channels each adapted to have a composite stiffener placed therein beneath the skin ; a plurality of pressurizable bladders adapted to be placed inside the channels for reacting autoclave pressure applied to the stiffener ; a vacuum bag adapted to be sealed over the tool for compacting the skin against the stiffener ; and a manifold system coupled with the bladders for pressurizing the bladders using autoclave pressure, the manifold system including a vent tube passing through the vacuum bag and exposed to autoclave pressure. a tool having a tool surface on which a composite skin may be placed, and a plurality of channels each adapted to have a composite stiffener placed therein beneath the skin ; a plurality of pressurizable bladders adapted to be placed inside the channels for reacting autoclave pressure applied to the stiffener ; a vacuum bag adapted to be sealed over the tool for compacting the skin against the stiffener ; and a manifold system coupled with the bladders for pressurizing the bladders using autoclave pressure, the manifold system including a vent tube passing through the vacuum bag and exposed to autoclave pressure.
A motor vehicle lock with a carrier element , a rotary latch which is rotatably mounted on the carrier element , which rotary latch is movable from an open position into a main latching position, with a pawl which is pivotably mounted on the carrier element , which pawl is movable into a locking position in engagement with the rotary latch arranged in its main latching position, and which has a latching hook , and with an immobilization lever , which is pivotably mounted on the carrier element into an immobilization position, in which the immobilization lever blocks a rotary movement of the rotary latch arranged in its main latching position, wherein an escape device , configured urging the immobilization lever in a direction pointing away from the rotary latch on a movement of the rotary latch in the direction of its main latching position, and wherein the escape device is coupled with the immobilization lever in such a way that the immobilization lever only pivots into its immobilization position when the rotary latch is arranged in its main latching position and the pawl is arranged in its locking position, characterized in that the rotary latch , rotatably mounted on a rotation axis , has an arcuate bearing surface , which is formed in a first radius from the rotation axis , wherein in the arcuate bearing surface a radial recess is formed, into which a latching pin , formed on the immobilization lever , engages blocking a rotary movement of the rotary latch , when the immobilization lever is arranged in its immobilization position.
A process for genetic transformation in Withania somnifera plants to increase secondary metabolite content in leaves of hardened plants of Withania somnifera, employing Agrobacterium tumefaciens harboring plasmid carrying cDNA sequence of squalene synthase ( WsSQS ) having SEQ ID NO.1, wherein the plasmid carrying cDNA sequence having SEQ ID NO. 1 is pCAMBIA1301 comprising: a) Immersing pre-cultured explants of W. somnifera in a bacterial suspension for 10-20 mins and co-cultivating the transformant cells for 24 - 48 h in dark; b) Transferring treated explants to a proliferation medium containing cefotaxime for 8- 10 days; c) Confirming expression of the inserted gene in transformed tissues by Gus assay followed by transferring Gus positive explants to hygromycin B selection medium; d) Maintaining hygromycin B-resistant Gus-positive shoots on selection pressure while reducing the concentration of cefotaxime; and e) Sub-culturing shoots of transformed explants on rooting medium and subjecting transformed plantlets to greenhouse conditions, wherein the secondary metabolites are withanolides selected from the group consisting of withaferin-A, withanolide A, wherein the cDNA sequence of Ws SQS having SEQ ID NO. 1 is positioned between the promoter and terminator in pCAMBIA1301, and wherein the promoter is CaMV 35S rRNA (Cauliflower Mosaic virus) and the terminator is Nopaline synthase (Nos). a) Immersing pre-cultured explants of W. somnifera in a bacterial suspension for 10-20 mins and co-cultivating the transformant cells for 24 - 48 h in dark; b) Transferring treated explants to a proliferation medium containing cefotaxime for 8- 10 days; c) Confirming expression of the inserted gene in transformed tissues by Gus assay followed by transferring Gus positive explants to hygromycin B selection medium; d) Maintaining hygromycin B-resistant Gus-positive shoots on selection pressure while reducing the concentration of cefotaxime; and e) Sub-culturing shoots of transformed explants on rooting medium and subjecting transformed plantlets to greenhouse conditions,
Contact bar for a switch, comprising a first contact bar region with a first contact bar material which extends from a first end section of the contact bar to a second end section of the contact bar, wherein the second end section of the contact bar adjoins a contact body or merges with the said contact body, wherein the first contact bar region with the first contact bar material is of hollow design and thereby forms a first cavity and a second contact bar material , which forms a second contact bar region, is inserted into the first cavity , wherein the second contact bar material is stiffer than the first contact bar material , characterized in that the second contact bar material has a second cavity in the second contact bar region.
An isolated peptide of less than 15 amino acids having cytotoxic T cell (CTL)-inducing ability, wherein the peptide comprises the amino acid sequence selected from the group consisting of SEQ ID NOs: 7, 3, 5, 6, 9, 12-14, 17, 21, 30, 35, 38-40, 45, 53, 56 and 58.
An oval gear set for use in a flow meter , the gear set comprising first and second gears identical to each other and configured to engage at a fixed center-to-center distance such that the first and second gears mesh at all angular positions, each gear of the oval gear set comprising: a hub comprising: an oval body having a major axis and a minor axis extending through a center of the hub; and a root profile wall circumscribing the major and minor axes; and a pluraltiy of gear teeth extending from the root profile wall, each gear tooth having a pair of contact surfaces with circular involute curve profiles, characterised in that : the circular involute curve profiles for each tooth on the first gear is generated from a base circle having a radius Rb1 derived from a modified elliptical pitch curve having a center and a pitch radius R1 at an angular position Θ, and wherein the modified elliptical pitch curve is defined by the following polar coordinate equation: R 1 Θ = S 1 − E 2 1 − E cos 2 Θ wherein S and E are constants representing the scale and the eccentricity, respectively, of the pitch curve, and wherein the pitch radius R1 and the base circle radius Rb1 extend radially from the center of the pitch curve. a hub comprising: an oval body having a major axis and a minor axis extending through a center of the hub; and a root profile wall circumscribing the major and minor axes; and a pluraltiy of gear teeth extending from the root profile wall, each gear tooth having a pair of contact surfaces with circular involute curve profiles, an oval body having a major axis and a minor axis extending through a center of the hub; and a root profile wall circumscribing the major and minor axes; and a pluraltiy of gear teeth extending from the root profile wall, each gear tooth having a pair of contact surfaces with circular involute curve profiles, characterised in that : the circular involute curve profiles for each tooth on the first gear is generated from a base circle having a radius Rb1 derived from a modified elliptical pitch curve having a center and a pitch radius R1 at an angular position Θ, and wherein the modified elliptical pitch curve is defined by the following polar coordinate equation: R 1 Θ = S 1 − E 2 1 − E cos 2 Θ the circular involute curve profiles for each tooth on the first gear is generated from a base circle having a radius Rb1 derived from a modified elliptical pitch curve having a center and a pitch radius R1 at an angular position Θ, and wherein the modified elliptical pitch curve is defined by the following polar coordinate equation: R 1 Θ = S 1 − E 2 1 − E cos 2 Θ wherein S and E are constants representing the scale and the eccentricity, respectively, of the pitch curve, and wherein the pitch radius R1 and the base circle radius Rb1 extend radially from the center of the pitch curve.
Method for positioning an output member of an electromotive drive , wherein the electromotive drive comprises at least one electric motor , a speed reduction gear coupled thereto, with which the output member is coupled in terms of drive and can be moved linearly and/or rotatably, and a power supply with a constant, highly stable DC voltage with a switched-mode power supply, wherein the output member actuates a limit switch and/or a reference switch and/or a switching means for an item of furniture when a predetermined position is reached, characterized by the following method steps: (S1) Determining a last stored position of the output member of the electromotive drive by reading a counter value and detecting a desired adjustment direction; (S2) Adjusting the counter value by adding or subtracting pulses which are processed from the back EMF of a commutation of the electromotive drive ; wherein the pulses from the back EMF of the commutation of the electromotive drive are conditioned by filtering, averaging and comparing by simultaneously supplying the pulses to a filter and an averaging block which are connected in parallel on the input side, and wherein the filtered output signal of the filter and the average output signal of the averaging block are then compared by a comparator , (S3) Determining a correction value when the electromotive drive is stopped on the basis of boundary conditions; and (S4) Correcting the last counter value obtained on the basis of the correction value determined and storing the counter value thus corrected as the current position of the output member of the electromotive drive . (S1) Determining a last stored position of the output member of the electromotive drive by reading a counter value and detecting a desired adjustment direction; (S2) Adjusting the counter value by adding or subtracting pulses which are processed from the back EMF of a commutation of the electromotive drive ; wherein the pulses from the back EMF of the commutation of the electromotive drive are conditioned by filtering, averaging and comparing by simultaneously supplying the pulses to a filter and an averaging block which are connected in parallel on the input side, and wherein the filtered output signal of the filter and the average output signal of the averaging block are then compared by a comparator , (S3) Determining a correction value when the electromotive drive is stopped on the basis of boundary conditions; and (S4) Correcting the last counter value obtained on the basis of the correction value determined and storing the counter value thus corrected as the current position of the output member of the electromotive drive .