mhurhangee/patent-ind-claim-en huggingface dataset:
An objective lens comprising, in order from an object side: a first meniscus lens ; a first lens group comprising a first doublet and a second meniscus lens , wherein the first doublet comprises a first high dispersion lens element having a positive power and a first low dispersion lens element having a negative power, and wherein the second meniscus lens comprises a low dispersion material; a second lens group comprising a second doublet; a positive lens ; an aperture stop ; a third lens group comprising a pair of lens elements , the pair of lens elements comprising one second low dispersion lens element and one second high dispersion lens element; a fourth lens group comprising three low dispersion optical elements , the fourth lens group having a positive power. a first meniscus lens ; a first lens group comprising a first doublet and a second meniscus lens , wherein the first doublet comprises a first high dispersion lens element having a positive power and a first low dispersion lens element having a negative power, and wherein the second meniscus lens comprises a low dispersion material; a second lens group comprising a second doublet; a positive lens ; an aperture stop ; a third lens group comprising a pair of lens elements , the pair of lens elements comprising one second low dispersion lens element and one second high dispersion lens element; a fourth lens group comprising three low dispersion optical elements , the fourth lens group having a positive power.
A terminal , comprising: a reception unit configured to receive configuration information with respect to a number of available random access preamble indexes, the configuration information including a number of random access preamble indexes that are available for both one synchronization signal block and a resource for transmitting one random access preamble; a control unit configured to select, based on the configuration information, a resource for transmitting a random access preamble associated with one synchronization signal block including a primary synchronization signal, a secondary synchronization signal and a physical broadcast channel, the one synchronization signal block being selected from a synchronization block set including one or more synchronization signal blocks, and to determine a range of available random access preamble indexes in the selected resource; and a transmission unit configured to transmit the random access preamble within the determined range, wherein after the selected synchronization signal block is associated with the selected resource a plurality of times within a period, when there is an unused resource within the period, the transmission unit is configured not to transmit the random access preamble in the unused resource. a reception unit configured to receive configuration information with respect to a number of available random access preamble indexes, the configuration information including a number of random access preamble indexes that are available for both one synchronization signal block and a resource for transmitting one random access preamble; a control unit configured to select, based on the configuration information, a resource for transmitting a random access preamble associated with one synchronization signal block including a primary synchronization signal, a secondary synchronization signal and a physical broadcast channel, the one synchronization signal block being selected from a synchronization block set including one or more synchronization signal blocks, and to determine a range of available random access preamble indexes in the selected resource; and a transmission unit configured to transmit the random access preamble within the determined range, wherein after the selected synchronization signal block is associated with the selected resource a plurality of times within a period, when there is an unused resource within the period, the transmission unit is configured not to transmit the random access preamble in the unused resource.
Hydrostatic lifting unit for a mobile working machine , having at least one actuator , in particular hydraulic cylinder, on which is articulated a load-bearing capacity as a function of a lifting requirement (s soll ); and having at least one pressure detection unit by way of which a respective load pressure (p 1 , p 2 ) of the assigned actuator is able to be detected; and a control unit by way of which a received load (m) is able to be determined as a function of the at least one load pressure (p 1 , p 2 ) and of a position or an attitude of the lifting unit , characterized by an estimation device by way of which the position is able to be estimated, characterized in that the position is able to be estimated by way of the estimation device as a function of a profile (p 1ist ) of the load pressure (p 1 ) detected as a function of the lifting requirement (s soll ).
A clock delay detection method, comprising, transmitting a first synchronous clock to a slave clock module through a first physical link (S101); receiving a feedback clock transmitted by the slave clock module through a second physical link (S102), wherein the feedback clock is a clock generated by adjusting a phase of a current clock of the slave clock module, to be the same as a phase of the first synchronous clock; and determining a delay related to the slave clock module (S103), wherein the delay is determined based on the feedback clock, a self-loop back clock, and delay parameters, wherein the delay parameters include a delay parameter corresponding to the first physical link, and a delay parameter corresponding to the second physical link; wherein determining the delay related to the slave clock module comprises, acquiring a phase relationship between the feedback clock and the self-loop back clock; determining a corresponding delay value based on the phase relationship; acquiring the delay parameters, wherein the delay parameters are determined based on a routing distance and a physical board parameter of each of the first physical link and the second physical link; and determining the delay based on the delay value and the delay parameters. transmitting a first synchronous clock to a slave clock module through a first physical link (S101); receiving a feedback clock transmitted by the slave clock module through a second physical link (S102), wherein the feedback clock is a clock generated by adjusting a phase of a current clock of the slave clock module, to be the same as a phase of the first synchronous clock; and determining a delay related to the slave clock module (S103), wherein the delay is determined based on the feedback clock, a self-loop back clock, and delay parameters, wherein the delay parameters include a delay parameter corresponding to the first physical link, and a delay parameter corresponding to the second physical link; wherein determining the delay related to the slave clock module comprises, acquiring a phase relationship between the feedback clock and the self-loop back clock; determining a corresponding delay value based on the phase relationship; acquiring the delay parameters, wherein the delay parameters are determined based on a routing distance and a physical board parameter of each of the first physical link and the second physical link; and determining the delay based on the delay value and the delay parameters.
A topology discovery method, comprising: acquiring , by a controller, a topology among all N routers in a network, where N is an integer greater than or equal to 1; and generating , by the controller, routing tables corresponding to the respective routers based on the topology; and transmitting the routing tables to the respective routers, wherein the routing table comprises routing information between a corresponding router and other N-1 routers and routing information between the corresponding router and the controller. acquiring , by a controller, a topology among all N routers in a network, where N is an integer greater than or equal to 1; and generating , by the controller, routing tables corresponding to the respective routers based on the topology; and transmitting the routing tables to the respective routers, wherein the routing table comprises routing information between a corresponding router and other N-1 routers and routing information between the corresponding router and the controller.
A recombinant nucleic acid, comprising a heterologous promoter operably linked to a polynucleotide encoding a CRISPR enzyme with an amino acid sequence of SEQ ID NO: 73.
An electromechanical actuator comprising: a screw rotatable about a screw axis ; a nut mounted on the screw , the nut having an external toothed surface ; a spline member rotatable about a spline member axis , the spline member including a splined surface engaging the external toothed surface of the nut ; an actuator rod coupled to the nut for linear movement with the nut ; a first motor connected to the screw , the first motor being operable to rotate the screw about the screw axis relative to the nut to cause the nut to travel linearly along the screw ; and a second motor connected to the spline member , the second motor being operable to rotate the spline member about the spline member axis to cause the nut to rotate about the screw axis relative to the screw such that the nut travels linearly along the screw ; wherein the actuator rod moves linearly by operation of the first motor alone and by operation of the second motor alone, and characterised in that the actuator rod moves linearly by simultaneous operation of the first motor and the second motor , and further comprises a no-back mechanism, wherein the first motor is connected to the screw by way of the no-back mechanism. a screw rotatable about a screw axis ; a nut mounted on the screw , the nut having an external toothed surface ; a spline member rotatable about a spline member axis , the spline member including a splined surface engaging the external toothed surface of the nut ; an actuator rod coupled to the nut for linear movement with the nut ; a first motor connected to the screw , the first motor being operable to rotate the screw about the screw axis relative to the nut to cause the nut to travel linearly along the screw ; and a second motor connected to the spline member , the second motor being operable to rotate the spline member about the spline member axis to cause the nut to rotate about the screw axis relative to the screw such that the nut travels linearly along the screw ; wherein the actuator rod moves linearly by operation of the first motor alone and by operation of the second motor alone, and characterised in that the actuator rod moves linearly by simultaneous operation of the first motor and the second motor , and further comprises a no-back mechanism, wherein the first motor is connected to the screw by way of the no-back mechanism.
Pipeline for conveying fluids or solids, having a metallic pipe on which a tubular lining made of plastic is arranged on an inner wall, whereby the wall structure with the lining and the metallic pipe is designed to be electrically conductive and characterized in that the lining has a contact resistance R v according to DIN 54345-1:1992 at a measuring voltage of 1,000 V according to IEC 60079-32-2:2015 between 0.5 ×10 7 Ω and 15 ×10 7 Ω .
Device for hydraulic control of a clutch for a motor vehicle , comprising a master cylinder controlled by a clutch pedal , means for supplying the master cylinder with hydraulic fluid , a slave cylinder for actuation of the clutch , the master cylinder being linked to the actuating slave cylinder by means of a hydraulic pipe , the slave cylinder for actuation of the clutch being able to be positioned in the rear of the vehicle and the pedal and the master cylinder being able to be placed at the front of the vehicle and characterized in that the hydraulic pipe able to link the rear to the front of the vehicle comprises a plurality of pipe offset devices along its length, each of said pipe offset devices being designed to trap the air bubbles present in the hydraulic pipe, each offset device being composed of an upstream tubular portion and a downstream tubular portion , which are successive and in communication, each tubular portion having a radius (R1, R2) and a separate central axis (A1, A2) in the same direction, the distance (K) between the two central axes of the tubular portions being less than the sum (S) of the radii (R1, R2) of the successive upstream and downstream tubular portions so that the outer surfaces of the tubular portions have an overlapping area and said plurality of pipe offset devices being designed to promote the rising of air bubbles as far as the means for supplying the master cylinder with hydraulic fluid .
An electronic device with a device base for mounting the electronic device on a support, wherein at least one pivot arm is partially received in a receptacle of the device base and partially protrudes from the device base , which pivot arm is adjustable about a pivot axis (x) parallel to a contact side of the device base , wherein in a first setting position of the pivot arm a first attachment means is arranged outside the receptacle , and wherein in a second setting position of the pivot arm a second attachment means differing from the first attachment means is arranged outside the receptacle , characterized in that a recess opening into the receptacle is formed on a side wall of the device base , into which a locking piece is inserted, which is adjustable parallel to the pivot axis (x) between a release position, in which it releases the pivot arm , and a locking position, in which it fixes the pivot arm optionally in the first or the second setting position.
A method for fabricating a semiconductor structure, comprising: providing a substrate including a first region for forming a first transistor and a second region for forming a second transistor, the substrate further including an isolation structure in the substrate between the first region and the second region ; forming (S101) a first stress introducing layer in the substrate in the first region and a second stress introducing layer in the substrate in the second region , wherein top surfaces of the first stress introducing layer and the second stress introducing layer are above a surface of the substrate ; forming (S102) a cover layer on each of the first stress introducing layer and the second stress introducing layer ; the method characterised in that after completely forming the cover layer , portions of the cover layer formed on adjacent side surfaces of the first stress introducing layer and the second stress introducing layer 122), are removed (S103). providing a substrate including a first region for forming a first transistor and a second region for forming a second transistor, the substrate further including an isolation structure in the substrate between the first region and the second region ; forming (S101) a first stress introducing layer in the substrate in the first region and a second stress introducing layer in the substrate in the second region , wherein top surfaces of the first stress introducing layer and the second stress introducing layer are above a surface of the substrate ; forming (S102) a cover layer on each of the first stress introducing layer and the second stress introducing layer ; the method characterised in that after completely forming the cover layer , portions of the cover layer formed on adjacent side surfaces of the first stress introducing layer and the second stress introducing layer 122), are removed (S103).
A base station comprising: a transmit path circuitry configured to generate a masking sequence to mask a cyclic redundancy check of a control channel information element, the masking sequence comprising a 4-bit prefix and a 12-bit station identifier associated with the message type, wherein the three least significant bits of the 4-bit prefix indicate a message type of the control channel information element, wherein the 12-bit station identifier is set as one of a first identifier related to a unicast, a second identifier related to a group resource allocation, and a third identifier related to an enhanced multicast broadcast services, E-MBS, according to a value of the three least significant bits. a transmit path circuitry configured to generate a masking sequence to mask a cyclic redundancy check of a control channel information element, the masking sequence comprising a 4-bit prefix and a 12-bit station identifier associated with the message type, wherein the three least significant bits of the 4-bit prefix indicate a message type of the control channel information element, wherein the 12-bit station identifier is set as one of a first identifier related to a unicast, a second identifier related to a group resource allocation, and a third identifier related to an enhanced multicast broadcast services, E-MBS, according to a value of the three least significant bits.
A method for evaluating a user Quality of Experience (QoE) score in a wireless network , comprising: capturing data packets from network interfaces in the wireless network ; identifying video sessions associated with the captured data packets; monitoring key parameters for the video sessions within the captured data packets; and determining an effective throughput per video session based upon the key parameters; characterized by calculating a QoE score for one or more users associated with the video sessions based upon the effective throughput per video session; transcoding video data in a video transcoding device ; inserting a header extension into transcoded video data packets associated with the video sessions, the header extension comprising summary data comprising a codec, bit-rate or resolution for original data received at the video transcoding device from a video source and a codec, bit-rate or resolution of the transcoded video data; evaluating an impact of video transcoding on the QoE score using the summary data in the header extension; and sending updates to a transcoding policy engine, the updates identifying the impact of video transcoding on the QoE score. capturing data packets from network interfaces in the wireless network ; identifying video sessions associated with the captured data packets; monitoring key parameters for the video sessions within the captured data packets; and determining an effective throughput per video session based upon the key parameters; calculating a QoE score for one or more users associated with the video sessions based upon the effective throughput per video session; transcoding video data in a video transcoding device ; inserting a header extension into transcoded video data packets associated with the video sessions, the header extension comprising summary data comprising a codec, bit-rate or resolution for original data received at the video transcoding device from a video source and a codec, bit-rate or resolution of the transcoded video data; evaluating an impact of video transcoding on the QoE score using the summary data in the header extension; and sending updates to a transcoding policy engine, the updates identifying the impact of video transcoding on the QoE score.
A method for vehicle-to-vehicle communication, comprising: receiving sensor data from one or more sensors ; categorizing the sensor data into common information and detailed information; broadcasting the common information to at least one vehicle in a vehicle-to-vehicle (V2V) network, the common information indicating the availability of the detailed information; determining that at least one portion of the detailed information is desired by the at least one vehicle; and transmitting the at least one portion of the detailed information to the at least one vehicle. receiving sensor data from one or more sensors ; categorizing the sensor data into common information and detailed information; broadcasting the common information to at least one vehicle in a vehicle-to-vehicle (V2V) network, the common information indicating the availability of the detailed information; determining that at least one portion of the detailed information is desired by the at least one vehicle; and transmitting the at least one portion of the detailed information to the at least one vehicle.
Overvoltage protection device for signal and control lines, in particular for a signaling device, for being arranged between an external system and an internal system , comprising: at least two terminal blocks which are each part of a signal path , wherein the terminal blocks comprise connection contacts for connecting to the internal and external system , a base terminal having a connection for a discharge to ground, and at least one overvoltage protection apparatus which is electrically connected to the terminal blocks, wherein a plug housing is provided, in which the overvoltage protection apparatus is installed, wherein the terminal blocks and the base terminal each have a contact slot for plugging on the plug housing of the overvoltage protection apparatus , and wherein the terminal blocks each have a captive isolating blade for temporarily separating the signal paths , wherein the overvoltage protection apparatus comprises at least two discharge paths , wherein each discharge path comprises a series circuit of an overvoltage arrester and a varistor , and wherein a barrier device is arranged between the discharge paths . at least two terminal blocks which are each part of a signal path , wherein the terminal blocks comprise connection contacts for connecting to the internal and external system , a base terminal having a connection for a discharge to ground, and at least one overvoltage protection apparatus which is electrically connected to the terminal blocks, wherein a plug housing is provided, in which the overvoltage protection apparatus is installed, wherein the terminal blocks and the base terminal each have a contact slot for plugging on the plug housing of the overvoltage protection apparatus , and wherein the terminal blocks each have a captive isolating blade for temporarily separating the signal paths , wherein the overvoltage protection apparatus comprises at least two discharge paths , wherein each discharge path comprises a series circuit of an overvoltage arrester and a varistor , and wherein a barrier device is arranged between the discharge paths .
A supporting assembly for a hollow tank body, comprising a supporting body and supporting ends provided at two ends of the supporting body , wherein each supporting end is provided with a stepped transition assembly connected to the supporting body wherein the supporting body is configured with a hollow structure; wherein the supporting body further comprises a supporting main body and a base , wherein the supporting main body is configured with a cylindrical structure or a cylindrical structure with a corrugated structure in a middle; wherein the base is configured with a round shape, an elliptical shape, or a square shape, and the base is provided with base holes ; wherein each supporting end comprises an end surface of a round shape, an elliptical shape, or a square shape, the end surface is provided with a convex structure, characerised in that a connecting portion of the end surface and the supporting body is provided with a supporting end stepped structure ; wherein connecting portions between two ends of the supporting main body and the supporting ends are each provided with a supporting body stepped structure , and the supporting body stepped structure is matched with the supporting end stepped structure to form the stepped transition assembly.