mhurhangee/patent-ind-claim-en huggingface dataset:
A retractor comprising: a first blade , a first rotation mechanism that is configured to rotate the first blade about a first axis , a second blade , a second rotation mechanism that is configured to rotate the second blade about a second axis , a first pivot mechanism that is configured to pivot the first blade about a fourth axis , wherein the fourth axis is skewed to the first axis , a second pivot mechanism that is configured to pivot the second blade about a fifth axis , wherein the fifth axis is skewed to the second axis , wherein the first and second blades are configured to couple to a body , and a third blade , characterised in that the first blade , the second blade , and the third blade have a stacked configuration in a closed position of the retractor. a first blade , a first rotation mechanism that is configured to rotate the first blade about a first axis , a second blade , a second rotation mechanism that is configured to rotate the second blade about a second axis , a first pivot mechanism that is configured to pivot the first blade about a fourth axis , wherein the fourth axis is skewed to the first axis , a second pivot mechanism that is configured to pivot the second blade about a fifth axis , wherein the fifth axis is skewed to the second axis , wherein the first and second blades are configured to couple to a body , and a third blade , characterised in that the first blade , the second blade , and the third blade have a stacked configuration in a closed position of the retractor.
- A fuze for a projectile intended to be fired by a cannon by ignition of a propellant charge using an electric ignition means , such as an electric igniter , wherein the fuze is allowed to pass from a safety position to an armed position, following the fire, by releasing at least two different safeties, such that the fuze comprises a capacitor which is intended to be connected to the electric ignition means for igniting the propellant charge , characterised in that said capacitor charges during the ignition of the propellant charge , the fuze also comprises a computer which detects the charge of the capacitor in order to allow the arming of the fuze when this charge is greater than or equal to a reference value, the charge of the capacitor constituting a first fire safety.
A system for an electrical neurostimulator coupled to a plurality of electrodes , comprising: a user-controlled input device configured for generating control signals; and control circuitry configured for defining at least one ideal multipole configuration relative to the plurality of electrodes in response to the control signals, each of the at least one ideal multipole configuration having at least two poles aligned along a pole axis , the control circuitry , for each of the at least one ideal multipole configuration, being further configured for, designating at least one of the electrodes as a reference electrode, estimating an effective electrode separation at each of the at least one reference electrode, defining a spacing between the at least two poles based on the estimated effective electrode separation at each of the at least one reference electrode, generating at least one stimulation parameter set respectively corresponding to the at least one ideal multipole configuration, each of the at least one stimulation parameter set defining relative amplitude values for the plurality of electrodes that emulate the respective ideal multipole configuration, and instructing the electrical neurostimulator to convey electrical energy to the plurality of electrodes in accordance with the at least one stimulation parameter set. a user-controlled input device configured for generating control signals; and control circuitry configured for defining at least one ideal multipole configuration relative to the plurality of electrodes in response to the control signals, each of the at least one ideal multipole configuration having at least two poles aligned along a pole axis , the control circuitry , for each of the at least one ideal multipole configuration, being further configured for, designating at least one of the electrodes as a reference electrode, estimating an effective electrode separation at each of the at least one reference electrode, defining a spacing between the at least two poles based on the estimated effective electrode separation at each of the at least one reference electrode, generating at least one stimulation parameter set respectively corresponding to the at least one ideal multipole configuration, each of the at least one stimulation parameter set defining relative amplitude values for the plurality of electrodes that emulate the respective ideal multipole configuration, and instructing the electrical neurostimulator to convey electrical energy to the plurality of electrodes in accordance with the at least one stimulation parameter set.
A communication method, the method comprising: receiving, by a user equipment, UE, a configuration of a first group of one or more downlink, DL, signals, and a configuration of a plurality of power control, PC, closed-loop adjustment states , wherein the configuration of the PC closed-loop adjustment states indicates a number of PC closed-loops, and each of the PC closed-loop adjustment states is associated with an index; receiving, by the UE, a PC configuration, wherein the PC configuration is associated with a subset of the first group and receiving, by the UE, one of indexes that the PC closed-loop adjustment states are associated with ; determining, by the UE, a transmit power level in accordance with a PC closed-loop adjustment state and a pathloss, wherein the pathloss is calculated in accordance with the DL signals in the subset of the first group, and the PC closed-loop adjustment state is determined by a transmit power control, TPC, command associated with the one of the indexes; and transmitting, by the UE, a signal on a set of uplink, UL, resources at the transmit power level . receiving, by a user equipment, UE, a configuration of a first group of one or more downlink, DL, signals, and a configuration of a plurality of power control, PC, closed-loop adjustment states , wherein the configuration of the PC closed-loop adjustment states indicates a number of PC closed-loops, and each of the PC closed-loop adjustment states is associated with an index; receiving, by the UE, a PC configuration, wherein the PC configuration is associated with a subset of the first group and receiving, by the UE, one of indexes that the PC closed-loop adjustment states are associated with ; determining, by the UE, a transmit power level in accordance with a PC closed-loop adjustment state and a pathloss, wherein the pathloss is calculated in accordance with the DL signals in the subset of the first group, and the PC closed-loop adjustment state is determined by a transmit power control, TPC, command associated with the one of the indexes; and transmitting, by the UE, a signal on a set of uplink, UL, resources at the transmit power level .
A knitting machine, in particular of the circular type for knitwear, hosiery or the like, comprising: - a bearing structure ; - at least a needle-bearing organ or needle cylinder rotatably mounted to the bearing structure; - a plurality of needles supported by the needle cylinder and mobile parallel to a rotation axis of the needle cylinder for producing a knitted fabric; - at least a command device comprising: - a body of the device configured for movably housing at least an actuator; - at least a command organ movably mounted and associated to the body and destined to interact with one or more organs of the knitting machine, for example one or more needles of the knitting machine; - at least an actuator, movably housed at least partially in the body and destined to controlledly move the command organ , the command device comprising a support frame , associated to the body , characterized in that the support frame at least partially crosses the body of the device, reaching, in the assembly configuration, the bearing structure of the knitting machine, and in that the support frame is configured for increasing the structural solidity of the body . - a bearing structure ; - at least a needle-bearing organ or needle cylinder rotatably mounted to the bearing structure; - a plurality of needles supported by the needle cylinder and mobile parallel to a rotation axis of the needle cylinder for producing a knitted fabric; - at least a command device comprising: - a body of the device configured for movably housing at least an actuator; - at least a command organ movably mounted and associated to the body and destined to interact with one or more organs of the knitting machine, for example one or more needles of the knitting machine; - at least an actuator, movably housed at least partially in the body and destined to controlledly move the command organ , - a body of the device configured for movably housing at least an actuator; - at least a command organ movably mounted and associated to the body and destined to interact with one or more organs of the knitting machine, for example one or more needles of the knitting machine; - at least an actuator, movably housed at least partially in the body and destined to controlledly move the command organ ,
A method for wireless communications performed by a user equipment, UE, comprising: identifying (805; 1705) a set of semi-persistent scheduled resources configured for uplink transmissions by the UE; receiving (810; 1710), from a base station, a resource grid that indicates scheduled uplink communications for one or more other UEs; determining (815; 1715) a set of uplink resources for the UE based at least in part on the set of semi-persistent scheduled resources and the resource grid, the set of uplink resources comprising at least a portion of the set of semi-persistent scheduled resources; and transmitting (820; 1720) an uplink message to the base station via the set of uplink resources. identifying (805; 1705) a set of semi-persistent scheduled resources configured for uplink transmissions by the UE; receiving (810; 1710), from a base station, a resource grid that indicates scheduled uplink communications for one or more other UEs; determining (815; 1715) a set of uplink resources for the UE based at least in part on the set of semi-persistent scheduled resources and the resource grid, the set of uplink resources comprising at least a portion of the set of semi-persistent scheduled resources; and transmitting (820; 1720) an uplink message to the base station via the set of uplink resources.
A hollow shaft assembly for an implantation device including:- a hollow shaft having a distal end and a proximal end and being configured to be mounted over the distal end of a fixed shaft and to be connected to a sliding element at its proximal end, the hollow shaft being configured to retain an implant within a portion thereof at its distal end, the hollow shaft being configured to be retracted over the fixed shaft by movement of the sliding element from its first position to second position to release an implant from within the distal end of the hollow shaft; the implant positioned in the distal end of the hollow shaft; and a fixing element to which the hollow shaft is connected, wherein the proximal end of the hollow shaft is fixed to the fixing element, the fixing element being configured for insertion into a housing over the fixed shaft and for engagement with the sliding element within the housing. a hollow shaft having a distal end and a proximal end and being configured to be mounted over the distal end of a fixed shaft and to be connected to a sliding element at its proximal end, the hollow shaft being configured to retain an implant within a portion thereof at its distal end, the hollow shaft being configured to be retracted over the fixed shaft by movement of the sliding element from its first position to second position to release an implant from within the distal end of the hollow shaft; the implant positioned in the distal end of the hollow shaft; and a fixing element to which the hollow shaft is connected, wherein the proximal end of the hollow shaft is fixed to the fixing element, the fixing element being configured for insertion into a housing over the fixed shaft and for engagement with the sliding element within the housing.
A digital cinema projector comprising a lens system having reduced susceptibility to thermally-induced stress birefringence for imaging an object plane to an image plane comprising; an aperture stop positioned between the object plane and the image plane ; and a plurality of lens elements (420-427) including lens elements fabricated using a glass having a negligible susceptibility to thermal stress birefringence and other lens elements (420-422, 425-427) fabricated using glasses having an at most moderate susceptibility to thermal stress birefringence as characterized by a thermal stress birefringence metric, wherein at least the lens element that experiences a highest optical power density from transiting light when the lens system is used to image the object plane to the image plane is fabricated using a glass having a negligible susceptibility to thermal stress birefringence as characterized by the thermal stress birefringence metric; and wherein the other lens elements (420-422, 425-427) are fabricated using glasses having an at most moderate susceptibility to thermal stress birefringence as characterized by the thermal stress birefringence metric; wherein the thermal stress birefringence metric is given by: M 1 = ρ κ α E / K ⋅ 1 − μ . where p is the coefficient of thermal expansion of the glass, κ is the stress optical coefficient of the glass, α is the light absorption coefficient of the glass at a wavelength of 460 nm, E is the modulus of elasticity of the glass, K is the thermal conductivity of the glass, and μ is Poisson's ratio of the glass, and wherein glasses having a negligible susceptibility to thermal stress birefringence satisfy the condition that M 1 ≤ 0.1x10 -6 W -1 and glasses having an at most moderate susceptibility to thermal stress birefringence satisfy the condition that 0.1x10 -6 W -1 ≤ M 1 ≤ 1.60x10 -6 W -1 .
A method of operating a wireless device in a wireless communication network, the method comprising: determining respective signal qualities of a plurality of cells of the wireless communication network; ranking the plurality of cells based on the respective signal qualities of the plurality of cells; logging measurement information for at least two of the plurality of cells in memory of the wireless device based on ranking the plurality of cells, wherein ranking comprises identifying a first one of the plurality of cells having a highest signal quality and identifying at least a second one of the plurality of cells having a signal quality within a defined range of the highest signal quality, and wherein the measurement information includes a respective cell identity and beam information for each of the first one of the plurality of the cells and the second one of the plurality of cells; and transmitting a report to the wireless communication network, wherein the report includes the measurement information. determining respective signal qualities of a plurality of cells of the wireless communication network; ranking the plurality of cells based on the respective signal qualities of the plurality of cells; logging measurement information for at least two of the plurality of cells in memory of the wireless device based on ranking the plurality of cells, wherein ranking comprises identifying a first one of the plurality of cells having a highest signal quality and identifying at least a second one of the plurality of cells having a signal quality within a defined range of the highest signal quality, and wherein the measurement information includes a respective cell identity and beam information for each of the first one of the plurality of the cells and the second one of the plurality of cells; and transmitting a report to the wireless communication network, wherein the report includes the measurement information.
A method executed in a user equipment, UE, in a wideband carrier, comprising: obtaining, by the UE, a frequency reference point; and determining, by the UE, a first frequency reference PRB index of a first frequency reference PRB according to the frequency reference point, characterized in that : wherein the frequency reference point is identified by a starting subcarrier of a reference synchronization signal block, SSB, and a relative frequency distance , and wherein the first frequency reference PRB is left-aligned with a second frequency reference PRB at the frequency reference point comprising that a starting subcarrier of the first frequency reference PRB associating with a first numerology is aligned with a starting subcarrier of the second frequency reference PRB associating with a second numerology. obtaining, by the UE, a frequency reference point; and determining, by the UE, a first frequency reference PRB index of a first frequency reference PRB according to the frequency reference point, characterized in that : wherein the frequency reference point is identified by a starting subcarrier of a reference synchronization signal block, SSB, and a relative frequency distance , and wherein the first frequency reference PRB is left-aligned with a second frequency reference PRB at the frequency reference point comprising that a starting subcarrier of the first frequency reference PRB associating with a first numerology is aligned with a starting subcarrier of the second frequency reference PRB associating with a second numerology. wherein the frequency reference point is identified by a starting subcarrier of a reference synchronization signal block, SSB, and a relative frequency distance , and wherein the first frequency reference PRB is left-aligned with a second frequency reference PRB at the frequency reference point comprising that a starting subcarrier of the first frequency reference PRB associating with a first numerology is aligned with a starting subcarrier of the second frequency reference PRB associating with a second numerology.
Method for slowing transfer of a heavy work machine on a sloping base , in which the work machine includes a body , a crawler chassis fitted beneath the body , and a set of booms pivoted at its one end to the work machine , at the other end of which is a selected auxiliary device , and a transportation device is equipped with wheels , in which method the work machine is transferred by supporting the work machine on the crawler chassis at least partly on top of the transportation device , and towing the work machine using a transfer vehicle with the aid of the transportation device and using friction to slow the transfer speed of the transportation device on the sloping base , characterized in that a brake surface is pressed against the sloping base by means of the auxiliary device in order to retard the transfer speed and the pressing of the brake surface taking place during transfer through the auxiliary device is adjusted using the set of booms while towing at the same time.
Method for operating a shunting hump yard , wherein, for the respective humping operations in the form of cut humped wagons or groups of wagons, - a plurality of arc phases (P1, P2, P3, P4, P5) are ascertained in relation to at least one track curve lying in the travel path of the respective humping operation , - at least one value for a curve resistance (w b ) in the at least one track curve is determined, wherein different calculation models are used for the ascertained arc phases (P1, P2, P3, P4, P5) as part of the determination of the at least one value for the curve resistance, and - at least one rail brake of the hump yard is controlled, taking into consideration the at least one determined value for the curve resistance (w b ). - a plurality of arc phases (P1, P2, P3, P4, P5) are ascertained in relation to at least one track curve lying in the travel path of the respective humping operation , - at least one value for a curve resistance (w b ) in the at least one track curve is determined, wherein different calculation models are used for the ascertained arc phases (P1, P2, P3, P4, P5) as part of the determination of the at least one value for the curve resistance, and - at least one rail brake of the hump yard is controlled, taking into consideration the at least one determined value for the curve resistance (w b ).
A method for controlling a transmission device of a vehicle, the device comprising a hydraulic transmission having n hydraulic motors , n being greater than or equal to 1, and a pump able to be driven by a drive for supplying the hydraulic motors with fluid, wherein the pump is set so that it delivers an outflow rate such that the theoretical output speed of said n hydraulic motors supplied at this outflow rate is a target speed, then the fluid pressure at the supply and/or the exhaust of the hydraulic motors is detected, then the displacement of the pump is modified according to a table of correction taking into account the volumetric efficiency of the hydraulic motors for different pressure values, so that the actual output speed of the hydraulic motors approaches the target speed.
Module for emitting at least one light beam along an optical axis (A) for automobile vehicles, said device comprising at least a first and at least a second light sources, at least a first and at least a second optical collectors designed to collect the light emitted by said at least a first and said at least a second light sources, respectively, and to redirect the light collected in convergent directions (D5, D6); where: • at least one of said at least a first and said at least a second light sources is oriented, in such a manner as to emit light in an overall direction of emission (D3, D4) moving away from the optical axis (A); and • the collector associated with the or with said oriented light sources have, at least partially, an asymmetrical configuration elongating the collector along the optical axis (A), the module being characterized in that : - said overall direction of emission (D3, D4) forms an angle of emission (α e3 , α e4 ; α e ) with the optical axis (A) in the range between 5° and 15°; - said at least a first and at least a second collectors are adapted for redirecting the light onto the same focal region; and - said at least a first and/or at least a second collectors comprise an exit surface forming an optical interface, said surface being configured for focusing the collimated light toward said focal region. • at least one of said at least a first and said at least a second light sources is oriented, in such a manner as to emit light in an overall direction of emission (D3, D4) moving away from the optical axis (A); and • the collector associated with the or with said oriented light sources have, at least partially, an asymmetrical configuration elongating the collector along the optical axis (A), - said overall direction of emission (D3, D4) forms an angle of emission (α e3 , α e4 ; α e ) with the optical axis (A) in the range between 5° and 15°; - said at least a first and at least a second collectors are adapted for redirecting the light onto the same focal region; and - said at least a first and/or at least a second collectors comprise an exit surface forming an optical interface, said surface being configured for focusing the collimated light toward said focal region.