mhurhangee/patent-ind-claim-en huggingface dataset:
A transmission mechanism for a base station antenna, including: a worm gear unit, which includes a worm driven by a motor and a worm gear meshed and connected with the worm; the transmission mechanism characterised by comprising: a plurality of gear pairs, each gear pair including a small gear and a large gear that mesh with each other, the small gear and the worm gear being mounted on a common first drive shaft so that the small gear and the worm gear rotate synchronously, the small gears being spaced apart from each other, each of the large gears being mounted spaced apart from each other on a second drive shaft ; and a plurality of connecting rods arranged in parallel, each connecting rod including a first rack element fixedly mounted thereon, wherein the large gear of each gear pair is meshed and connected with the first rack element on a corresponding connecting rod so as to axially move the connecting rod via the first rack element when the large gear of each gear pair rotates. a worm gear unit, which includes a worm driven by a motor and a worm gear meshed and connected with the worm; the transmission mechanism characterised by comprising: a plurality of gear pairs, each gear pair including a small gear and a large gear that mesh with each other, the small gear and the worm gear being mounted on a common first drive shaft so that the small gear and the worm gear rotate synchronously, the small gears being spaced apart from each other, each of the large gears being mounted spaced apart from each other on a second drive shaft ; and a plurality of connecting rods arranged in parallel, each connecting rod including a first rack element fixedly mounted thereon, wherein the large gear of each gear pair is meshed and connected with the first rack element on a corresponding connecting rod so as to axially move the connecting rod via the first rack element when the large gear of each gear pair rotates. a plurality of gear pairs, each gear pair including a small gear and a large gear that mesh with each other, the small gear and the worm gear being mounted on a common first drive shaft so that the small gear and the worm gear rotate synchronously, the small gears being spaced apart from each other, each of the large gears being mounted spaced apart from each other on a second drive shaft ; and a plurality of connecting rods arranged in parallel, each connecting rod including a first rack element fixedly mounted thereon, wherein the large gear of each gear pair is meshed and connected with the first rack element on a corresponding connecting rod so as to axially move the connecting rod via the first rack element when the large gear of each gear pair rotates.
A laboratory container storage system comprising: - one or more laboratory container storage devices , wherein each laboratory container storage device comprises: - a frame - a housing for protecting laboratory containers from environmental factors - a storage element comprising a holding means adapted for receiving and releasing a laboratory container along a horizontal direction and for holding the laboratory container in a suspended position above a horizontal surface , wherein the storage element is mounted movably on the frame and adapted to be moved between a first transfer position and a storage position and between the storage position and a second transfer position , wherein in the first and second transfer position the holding means is positioned to receive or release the laboratory container along a horizontal direction, wherein the storage position is located between the first and second transfer position and located within the housing . - one or more laboratory container storage devices , wherein each laboratory container storage device comprises: - a frame - a housing for protecting laboratory containers from environmental factors - a storage element comprising a holding means adapted for receiving and releasing a laboratory container along a horizontal direction and for holding the laboratory container in a suspended position above a horizontal surface , wherein the storage element is mounted movably on the frame and adapted to be moved between a first transfer position and a storage position and between the storage position and a second transfer position , wherein in the first and second transfer position the holding means is positioned to receive or release the laboratory container along a horizontal direction, wherein the storage position is located between the first and second transfer position and located within the housing .
A method for controlling the driving of a vehicle, which vehicle can be run in at least one mode focused on operability and at least one mode focused on economical operation and can be switched between said modes, characterised by the steps of determining (S1) a torque outtake pattern continually over a given period of time (t 1 - t 2 ), of determining (S2) a proportion (Q) of said period during which the vehicle runs with a torque outtake which is either above a predetermined value (M max ) or below a predetermined value (M min ), and of using said proportion as a basis for deciding (S3) whether the current mode is the most appropriate.
A controller node for a wireless communication system , the controller node including a processor configured for operating the controller node in a configuration test context, wherein the processor is configured to: transmit at least one configuration test message to at least one first radio node and at least one second radio node , the configuration test message including at least one configuration test setting and at least one operational setting, wherein the at least one operational setting comprises a clock setting, the configuration test message configured to enable the configuration test context for operation of one or more of at least one radio resource, at least one network element, at least one communication function, a protocol associated with the at least one first radio node and the at least one second radio node ; receive a test report from the at least one first radio node and the at least one second radio node indicating at least one result of at least one configuration test of the configuration test context, wherein the at least one configuration test comprises testing a clock stability or a clock drift of the at least one first radio node ; determine from the test report a capability of the at least one first radio node to operate as an authorized and verified radio node in the wireless communication system ; and transmit an authorization message to the at least one first radio node that the at least one first radio node is an authorized and verified radio node, wherein an authorized and verified radio node is a node that is configured and enabled to operate as an access node. transmit at least one configuration test message to at least one first radio node and at least one second radio node , the configuration test message including at least one configuration test setting and at least one operational setting, wherein the at least one operational setting comprises a clock setting, the configuration test message configured to enable the configuration test context for operation of one or more of at least one radio resource, at least one network element, at least one communication function, a protocol associated with the at least one first radio node and the at least one second radio node ; receive a test report from the at least one first radio node and the at least one second radio node indicating at least one result of at least one configuration test of the configuration test context, wherein the at least one configuration test comprises testing a clock stability or a clock drift of the at least one first radio node ; determine from the test report a capability of the at least one first radio node to operate as an authorized and verified radio node in the wireless communication system ; and transmit an authorization message to the at least one first radio node that the at least one first radio node is an authorized and verified radio node, wherein an authorized and verified radio node is a node that is configured and enabled to operate as an access node.
A method for controlling a reaction in a continuous production process of a diester-based composition in which a dicarboxylic acid and an alcohol are reacted to produce a diester-based composition, the method comprising: (S1) monitoring a feed flow rate of the dicarboxylic acid and the alcohol which are introduced into a reactor and a flow rate of product water which is generated in the reactor; (S2) using the feed flow rate and the product water flow rate obtained as a result of the monitoring and pressure in the reactor to calculate a predicted conversion rate in the reactor; and (S3) controlling the temperature and the pressure of the reactor such that the calculated predicted conversion rate becomes closer to a target conversion rate; wherein the dicarboxylic acid is one or more selected from the group consisting of phthalic acid, isophthalic acid, terephthalic acid, and cyclohexane-1,4-dicarboxylic acid; the alcohol is a C4 to C12 alcohol; and the predicted conversion rate is calculated through Equations 1 to 4 below: EC = A*FR 2 + B*FR + C A = 7.365 P + 10.415 B = − 1.3163 P + 10.461 C = 0.0609 P + 0.0435 wherein, in Equation 1 to Equation 4 above, EC is the predicted conversion rate, FR is a ratio (product water flow rate (kg/hr)/feed feed (kg/hr)) of the flow rate of the product water to the feed flow rate of a dicarboxylic acid and the alcohol, and P is the pressure (kg/cm 2 g) in the reactor. (S1) monitoring a feed flow rate of the dicarboxylic acid and the alcohol which are introduced into a reactor and a flow rate of product water which is generated in the reactor; (S2) using the feed flow rate and the product water flow rate obtained as a result of the monitoring and pressure in the reactor to calculate a predicted conversion rate in the reactor; and (S3) controlling the temperature and the pressure of the reactor such that the calculated predicted conversion rate becomes closer to a target conversion rate; wherein the dicarboxylic acid is one or more selected from the group consisting of phthalic acid, isophthalic acid, terephthalic acid, and cyclohexane-1,4-dicarboxylic acid; the alcohol is a C4 to C12 alcohol; and the predicted conversion rate is calculated through Equations 1 to 4 below: EC = A*FR 2 + B*FR + C A = 7.365 P + 10.415 B = − 1.3163 P + 10.461 C = 0.0609 P + 0.0435 wherein, in Equation 1 to Equation 4 above, EC is the predicted conversion rate, FR is a ratio (product water flow rate (kg/hr)/feed feed (kg/hr)) of the flow rate of the product water to the feed flow rate of a dicarboxylic acid and the alcohol, and P is the pressure (kg/cm 2 g) in the reactor. wherein, in Equation 1 to Equation 4 above, EC is the predicted conversion rate, FR is a ratio (product water flow rate (kg/hr)/feed feed (kg/hr)) of the flow rate of the product water to the feed flow rate of a dicarboxylic acid and the alcohol, and P is the pressure (kg/cm 2 g) in the reactor.
A device management method, comprising: receiving , by a device, an instruction message sent by a device management controller; obtaining, by the device, a current device management information according to the instruction message, and comparing the current device management information with a device management information obtained in a previous query period; generating a feedback message, wherein the feedback message includes content of changed information according to the comparing, and a number is added in the feedback message so that the device management controller recognizes a status type of the changed information, wherein the content of the changed information includes changed information in the device management information, the device management information comprises at least one piece of the following information: an in-position status, a temperature, a power status, a working status, storage space, or software configuration information of the device; and sending , by the device, the feedback message to the device management controller, so that the device management controller manages the device according to the feedback message. receiving , by a device, an instruction message sent by a device management controller; obtaining, by the device, a current device management information according to the instruction message, and comparing the current device management information with a device management information obtained in a previous query period; generating a feedback message, wherein the feedback message includes content of changed information according to the comparing, and a number is added in the feedback message so that the device management controller recognizes a status type of the changed information, wherein the content of the changed information includes changed information in the device management information, the device management information comprises at least one piece of the following information: an in-position status, a temperature, a power status, a working status, storage space, or software configuration information of the device; and an in-position status, a temperature, a power status, a working status, storage space, or software configuration information of the device; and sending , by the device, the feedback message to the device management controller, so that the device management controller manages the device according to the feedback message.
An incubator for embryos supported on embryo slides , the incubator comprising: an incubation chamber defined by an incubation chamber housing ; and a slide carrier comprising a plurality of compartment walls that define compartments for holding embryo slides within the incubation chamber for incubation, wherein the slide carrier is moveable relative to the incubation chamber housing to allow a selected compartment to be moved to a loading position defined at least in part by a loading port wall associated with the incubation chamber housing, and wherein the loading port wall is arranged to cooperate with the wall of a compartment in the loading position to restrict the extent to which the environment of the compartment in the loading position is in fluid communication with the environments of other compartments in the incubation chamber. an incubation chamber defined by an incubation chamber housing ; and a slide carrier comprising a plurality of compartment walls that define compartments for holding embryo slides within the incubation chamber for incubation, wherein the slide carrier is moveable relative to the incubation chamber housing to allow a selected compartment to be moved to a loading position defined at least in part by a loading port wall associated with the incubation chamber housing, and wherein the loading port wall is arranged to cooperate with the wall of a compartment in the loading position to restrict the extent to which the environment of the compartment in the loading position is in fluid communication with the environments of other compartments in the incubation chamber.
A fan section for a gas turbine engine comprising: a rotor hub defining an axis (A); an array of airfoils circumferentially spaced about the rotor hub , each of the airfoils including pressure and suction sides (P,S) between a leading edge and a trailing edge and extending in a radial direction (R) from a 0% span position at an inner flow path location to a 100% span position at an airfoil tip , facing pressure and suction sides of adjacent airfoils defining a channel in a chordwise direction having a width between the facing pressure and suction sides at a given span position of the adjacent airfoils , wherein the width at each pressure side location along the channel is defined as a minimum distance to a location along the suction side (S), characterised by : the width diverging without converging along the channel for at least some of the span positions, the channel width diverging without converging at 100% span, and a region with the width converging and diverging along the channel extends from 0% span to greater than 5% span and less than half of the span positions; and a stagger angle (α) of each of the array of airfoils relative to the axis (A) is less than or equal to about 16 degrees at each of the span positions in which the width converges and diverges along the channel . a rotor hub defining an axis (A); an array of airfoils circumferentially spaced about the rotor hub , each of the airfoils including pressure and suction sides (P,S) between a leading edge and a trailing edge and extending in a radial direction (R) from a 0% span position at an inner flow path location to a 100% span position at an airfoil tip , facing pressure and suction sides of adjacent airfoils defining a channel in a chordwise direction having a width between the facing pressure and suction sides at a given span position of the adjacent airfoils , wherein the width at each pressure side location along the channel is defined as a minimum distance to a location along the suction side (S), the width diverging without converging along the channel for at least some of the span positions, the channel width diverging without converging at 100% span, and a region with the width converging and diverging along the channel extends from 0% span to greater than 5% span and less than half of the span positions; and a stagger angle (α) of each of the array of airfoils relative to the axis (A) is less than or equal to about 16 degrees at each of the span positions in which the width converges and diverges along the channel .
A genetic construct with a structure of the following formula: 5 ' − A + B + C + D + E − 3 ' , wherein, A represents a promoter; B represents a coding sequence for a fusion protein consisting of a target protein and a first marker protein; C represents a coding sequence for a linker peptide; D represents a coding sequence for a second marker protein; and E represents a terminator; wherein B and D can be interchanged; B, from 5' to 3', comprises a coding sequence for the target protein and a coding sequence for the first marker protein; the coding sequence of the target protein is any gene selected from human genomic library human ORFeome V5.1; the linker peptide is ubiquitin, or ubiquitin with K(R) saturation mutation; the first marker protein and the second marker protein are fluorescent proteins; and wherein the target protein, first marker protein, linker peptide and second marker protein are co-expressed under the same promoter; and and wherein the genetic construct encodes a polypeptide comprising successively the target protein, the first marker protein, linker peptide and the second marker protein, or the second marker protein, the linker peptide, the target protein and the first marker protein. A represents a promoter; B represents a coding sequence for a fusion protein consisting of a target protein and a first marker protein; C represents a coding sequence for a linker peptide; D represents a coding sequence for a second marker protein; and E represents a terminator; wherein B and D can be interchanged; B, from 5' to 3', comprises a coding sequence for the target protein and a coding sequence for the first marker protein; the coding sequence of the target protein is any gene selected from human genomic library human ORFeome V5.1; the linker peptide is ubiquitin, or ubiquitin with K(R) saturation mutation; the first marker protein and the second marker protein are fluorescent proteins; and wherein the target protein, first marker protein, linker peptide and second marker protein are co-expressed under the same promoter; and and wherein the genetic construct encodes a polypeptide comprising successively the target protein, the first marker protein, linker peptide and the second marker protein, or the second marker protein, the linker peptide, the target protein and the first marker protein.
A screw-clamp apparatus comprising: a first clamp component comprising a first attachment end and at least one hook on a first hook end ; a second clamp component comprising a second attachment end and at least one hook on a second hook end , wherein the first attachment end and the second attachment end are configured to attach the first clamp component and the second clamp component together, wherein the first clamp component and the second clamp component are pivotable relative to each other; a bone-screw hole located in one of the first clamp component and the second clamp component ; a bone screw configured to be inserted through the bone-screw hole and to be inserted into bone; a spacer-receiver located on one of the first clamp component or the second clamp component , wherein the spacer-receiver is configured to secure a spacer ; and a length-adjusting mechanism configured to adjust a longitudinal length of the screw-clamp apparatus such that a distance between the first clamp component and the second clamp component is adjustable. a first clamp component comprising a first attachment end and at least one hook on a first hook end ; a second clamp component comprising a second attachment end and at least one hook on a second hook end , wherein the first attachment end and the second attachment end are configured to attach the first clamp component and the second clamp component together, wherein the first clamp component and the second clamp component are pivotable relative to each other; a bone-screw hole located in one of the first clamp component and the second clamp component ; a bone screw configured to be inserted through the bone-screw hole and to be inserted into bone; a spacer-receiver located on one of the first clamp component or the second clamp component , wherein the spacer-receiver is configured to secure a spacer ; and a length-adjusting mechanism configured to adjust a longitudinal length of the screw-clamp apparatus such that a distance between the first clamp component and the second clamp component is adjustable.
A wireless power transmitter , comprising: a plurality of patch antennas; a communication circuit; and a processor configured to: control the wireless power transmitter to form an RF wave of a first beam width via the plurality of patch antennas, and characterized in that the processor is configured to: receive sensing data about a posture of an electronic device associated with rotation of the electronic device via the communication circuit from the electronic device , and adjust a beam width of the RF wave formed by the plurality of patch antennas from the first beam width to a second beam width based on, at least, the received sensing data. a plurality of patch antennas; a communication circuit; and a processor configured to: control the wireless power transmitter to form an RF wave of a first beam width via the plurality of patch antennas, and characterized in that the processor is configured to: receive sensing data about a posture of an electronic device associated with rotation of the electronic device via the communication circuit from the electronic device , and adjust a beam width of the RF wave formed by the plurality of patch antennas from the first beam width to a second beam width based on, at least, the received sensing data. control the wireless power transmitter to form an RF wave of a first beam width via the plurality of patch antennas, and characterized in that the processor is configured to: receive sensing data about a posture of an electronic device associated with rotation of the electronic device via the communication circuit from the electronic device , and adjust a beam width of the RF wave formed by the plurality of patch antennas from the first beam width to a second beam width based on, at least, the received sensing data. receive sensing data about a posture of an electronic device associated with rotation of the electronic device via the communication circuit from the electronic device , and adjust a beam width of the RF wave formed by the plurality of patch antennas from the first beam width to a second beam width based on, at least, the received sensing data.