mhurhangee/patent-ind-claim-en huggingface dataset:
Actuating drive for a high-lift system of an aircraft, comprising at least one integrated cone brake as a return stop, which comprises at least one brake block mounted on at least one shaft of the actuating drive for conjoint rotation and at least one brake shoe, the friction contact surface of the brake block and/or brake shoe being conical, characterised in that the actuating drive comprises exactly one brake block, in that at least one movable brake shoe can be brought into engagement with a friction contact surface of the brake block by means of at least one pneumatic, hydraulic or electrical adjustment mechanism, in that at least one stationary brake shoe is additionally provided and the brake block is movably mounted in the axial direction, such that another friction contact surface of the brake block can be brought into engagement with the stationary brake shoe, and in that the preferably one-piece brake block is disc-shaped and has a convex lateral face for forming the two conical friction contact surfaces assigned to the brake shoes.
A neuromodulation system, comprising: modulation output circuitry configured to deliver electrical energy in accordance with at least one modulation parameter; and characterised by control circuitry configured to control the modulation output circuitry in an automated manner that varies the at least one modulation parameter of the delivered electrical energy over a period of time to continually maintain the delivered electrical energy below a patient-perception threshold, the patient-perception threshold being a boundary below which a patient does not sense delivery of the electrical energy. modulation output circuitry configured to deliver electrical energy in accordance with at least one modulation parameter; and characterised by control circuitry configured to control the modulation output circuitry in an automated manner that varies the at least one modulation parameter of the delivered electrical energy over a period of time to continually maintain the delivered electrical energy below a patient-perception threshold, the patient-perception threshold being a boundary below which a patient does not sense delivery of the electrical energy.
A MEMS sensor , comprising: a first proof mass ; a third proof mass of equal size to the first proof mass ; and characterized by : a second proof mass of equal size to the combined sizes of the first proof mass and the third proof mass , wherein the first proof mass and the third proof mass are configured to be driven into motion along a drive axis , wherein the second proof mass is configured to be driven into anti-phase motion along the drive axis relative to the first proof mass and the third proof mass , wherein the first proof mass and the third proof mass are configured to move in anti-phase relative to the second proof mass along respective sense axes , and wherein the motion of the second proof mass is configured to balance the motions of the first proof mass and third proof mass such that there is zero total angular momentum in the motions along the sense axes. a first proof mass ; a third proof mass of equal size to the first proof mass ; and characterized by : a second proof mass of equal size to the combined sizes of the first proof mass and the third proof mass , wherein the first proof mass and the third proof mass are configured to be driven into motion along a drive axis , wherein the second proof mass is configured to be driven into anti-phase motion along the drive axis relative to the first proof mass and the third proof mass , wherein the first proof mass and the third proof mass are configured to move in anti-phase relative to the second proof mass along respective sense axes , and wherein the motion of the second proof mass is configured to balance the motions of the first proof mass and third proof mass such that there is zero total angular momentum in the motions along the sense axes. a second proof mass of equal size to the combined sizes of the first proof mass and the third proof mass , wherein the first proof mass and the third proof mass are configured to be driven into motion along a drive axis , wherein the second proof mass is configured to be driven into anti-phase motion along the drive axis relative to the first proof mass and the third proof mass , wherein the first proof mass and the third proof mass are configured to move in anti-phase relative to the second proof mass along respective sense axes , and wherein the motion of the second proof mass is configured to balance the motions of the first proof mass and third proof mass such that there is zero total angular momentum in the motions along the sense axes.
A method to be employed by a user equipment, UE , for handling in-device coexistence interference in wireless communication, the method comprising: detecting by the UE an in-device coexistence, IDC, interference between a first communication module of the UE operating over a first protocol and a second communication module of the UE operating over a second protocol; characterized by in response to the detection of the IDC interference, generating by the UE an IDC indication having a bit string comprising four bits, wherein the bit string corresponds to a subframe pattern composed of a group of four consecutive subframes in a long term evolution, LTE, frame, wherein each bit of the four bits of the bit string relates to a respective subframe of the subframe pattern, and wherein a value of each bit of the bit string indicates whether an evolved node B, eNB , is requested to abstain from using the respective subframe of the four subframes of the subframe pattern in a wireless transmission from the eNB to the UE ; and transmitting by the UE the IDC indication to the eNB via a wireless communication network . detecting by the UE an in-device coexistence, IDC, interference between a first communication module of the UE operating over a first protocol and a second communication module of the UE operating over a second protocol; characterized by in response to the detection of the IDC interference, generating by the UE an IDC indication having a bit string comprising four bits, wherein the bit string corresponds to a subframe pattern composed of a group of four consecutive subframes in a long term evolution, LTE, frame, wherein each bit of the four bits of the bit string relates to a respective subframe of the subframe pattern, and wherein a value of each bit of the bit string indicates whether an evolved node B, eNB , is requested to abstain from using the respective subframe of the four subframes of the subframe pattern in a wireless transmission from the eNB to the UE ; and transmitting by the UE the IDC indication to the eNB via a wireless communication network .
A grounding structure for a driving unit of a motor-driven vehicle, the driving unit comprising a dynamoelectric machine that outputs driving power to a rotating shaft (S o ) and a driving power transmission mechanism including a counter shaft (S c ) coupled to the rotating shaft (S o ), the dynamoelectric machine being connected to the driving power transmission mechanism , the grounding structure comprising: a coupling portion provided to a machine casing serving as an outer shell of the dynamoelectric machine and being coupled to a mechanism casing serving as an outer shell of the driving power transmission mechanism ; a coupling portion provided to the mechanism casing and being coupled to the coupling portion of the machine casing ; and a circumference wall that forms a space (R) by arranging the coupling portion of the machine casing and the coupling portion of the mechanism casing so as to face each other between the machine casing and the mechanism casing ; characterized by further comprising an oil seal (O C ) with which the counter shaft (S c ) is wrapped at a position where the counter shaft (S c ) penetrates the mechanism casing to avoid leak of oil and intrusion of foreign matter; a casing hole (H C1 ) through which the space (R) communicates with an inside of the mechanism casing ; a pressure release hole (H A ) that releases a pressure of the space (R) by causing the space (R) to communicate with an outside of the mechanism casing ; and a grounding object that is disposed in the space (R) and that grounds the counter shaft (S c ). a coupling portion provided to a machine casing serving as an outer shell of the dynamoelectric machine and being coupled to a mechanism casing serving as an outer shell of the driving power transmission mechanism ; a coupling portion provided to the mechanism casing and being coupled to the coupling portion of the machine casing ; and a circumference wall that forms a space (R) by arranging the coupling portion of the machine casing and the coupling portion of the mechanism casing so as to face each other between the machine casing and the mechanism casing ; characterized by further comprising an oil seal (O C ) with which the counter shaft (S c ) is wrapped at a position where the counter shaft (S c ) penetrates the mechanism casing to avoid leak of oil and intrusion of foreign matter; a casing hole (H C1 ) through which the space (R) communicates with an inside of the mechanism casing ; a pressure release hole (H A ) that releases a pressure of the space (R) by causing the space (R) to communicate with an outside of the mechanism casing ; and a grounding object that is disposed in the space (R) and that grounds the counter shaft (S c ).
Transmission arrangement which comprises a first idler wheel , a second idler wheel , a rotational abutment and a switchable freewheel , - wherein the freewheel in the axial direction is disposed on a rotatably mounted transmission shaft of the transmission arrangement, between the first idler wheel and the second idler wheel , and comprises the following: - a freewheel inner ring which is co-rotationally mounted on the first idler wheel ; - a freewheel outer ring which is co-axially mounted on the second idler wheel ; - a clamping element assembly which is disposed between the freewheel inner ring and the freewheel outer ring and in the circumferential direction comprises a multiplicity of clamping elements that are disposed so as to be mutually spaced apart, wherein the clamping elements are mounted in such a manner that in a first rotation direction, in a first functional state, a freewheel is able to be transmitted between the freewheel outer ring and the freewheel inner ring , and in an opposite second rotation direction, in a second functional state, a torque is able to be transmitted between the freewheel outer ring and the freewheel inner ring ; and - wherein the freewheel outer ring is mounted so as to be rotatable in relation to the second idler wheel , and this rotation is delimited to a freewheel angle by means of the rotational abutment, wherein the rotational abutment for transmitting a torque is formed between the freewheel outer ring and the second idler wheel . - wherein the freewheel in the axial direction is disposed on a rotatably mounted transmission shaft of the transmission arrangement, between the first idler wheel and the second idler wheel , and comprises the following: - a freewheel inner ring which is co-rotationally mounted on the first idler wheel ; - a freewheel outer ring which is co-axially mounted on the second idler wheel ; - a clamping element assembly which is disposed between the freewheel inner ring and the freewheel outer ring and in the circumferential direction comprises a multiplicity of clamping elements that are disposed so as to be mutually spaced apart, wherein the clamping elements are mounted in such a manner that in a first rotation direction, in a first functional state, a freewheel is able to be transmitted between the freewheel outer ring and the freewheel inner ring , and in an opposite second rotation direction, in a second functional state, a torque is able to be transmitted between the freewheel outer ring and the freewheel inner ring ; and - wherein the freewheel outer ring is mounted so as to be rotatable in relation to the second idler wheel , and this rotation is delimited to a freewheel angle by means of the rotational abutment, wherein the rotational abutment for transmitting a torque is formed between the freewheel outer ring and the second idler wheel .
A system for chromatic dispersion compensation comprising: an optical splitting element configured to split a beam of radiation to generate at least a first beam of radiation and a second beam of radiation characterized in that the system further comprises: a plurality of optical elements configured to direct the first beam of radiation to one or more optical paths amongst a plurality of optical paths; and a plurality of waveguides, wherein one waveguide of the plurality of waveguides disposed in one of the plurality of optical paths has group delay and dispersion coefficient properties per unit length that are different from group delay and dispersion coefficient properties per unit length of another waveguide of the plurality of waveguides disposed in another one of the plurality of optical paths, wherein the group delay and dispersion coefficient properties per unit length of the one waveguide or the other waveguide compensate for a chromatic dispersion associated with the second beam of radiation, and wherein each of the one and the other waveguide of the plurality of waveguides include a plurality of concatenated waveguide segments (2; 2'; 2") with different group delay and dispersion properties. a plurality of optical elements configured to direct the first beam of radiation to one or more optical paths amongst a plurality of optical paths; and a plurality of waveguides, wherein one waveguide of the plurality of waveguides disposed in one of the plurality of optical paths has group delay and dispersion coefficient properties per unit length that are different from group delay and dispersion coefficient properties per unit length of another waveguide of the plurality of waveguides disposed in another one of the plurality of optical paths, wherein the group delay and dispersion coefficient properties per unit length of the one waveguide or the other waveguide compensate for a chromatic dispersion associated with the second beam of radiation, and wherein each of the one and the other waveguide of the plurality of waveguides include a plurality of concatenated waveguide segments (2; 2'; 2") with different group delay and dispersion properties.
An apparatus comprising: a Physical layer, PHY, block comprising a plurality of PHY Physical Interface for PCI Express, PIPE, registers ; a Media Access Control layer, MAC, block comprising a plurality of MAC PIPE registers ; and a PHY/MAC interface configured to interface the PHY block and the MAC block , the PHY/MAC interface comprising: a first set of wires configured to transfer a plurality of register commands between the PHY block and the MAC block , at least some of the plurality of register commands comprising command, address and data to be transferred via the first set of wires over a plurality of clock cycles; and a second set of wires configured to transfer datapath signals between the PHY block and the MAC block , characterized in that the PHY block further comprises a clocking multiplexer, MUX, , the clocking MUX having a first input as the PCLK from the MAC block and has a second input as the recovered clock from received data, in a first mode, the PHY block is configured to send data, and a PCLK from an output of the clocking MUX , to the MAC block ; and in a second mode, the PHY block is configured to send data, and a recovered clock from the output of the clocking MUX , to to the MAC block , a Physical layer, PHY, block comprising a plurality of PHY Physical Interface for PCI Express, PIPE, registers ; a Media Access Control layer, MAC, block comprising a plurality of MAC PIPE registers ; and a PHY/MAC interface configured to interface the PHY block and the MAC block , the PHY/MAC interface comprising: a first set of wires configured to transfer a plurality of register commands between the PHY block and the MAC block , at least some of the plurality of register commands comprising command, address and data to be transferred via the first set of wires over a plurality of clock cycles; and a second set of wires configured to transfer datapath signals between the PHY block and the MAC block , a first set of wires configured to transfer a plurality of register commands between the PHY block and the MAC block , at least some of the plurality of register commands comprising command, address and data to be transferred via the first set of wires over a plurality of clock cycles; and a second set of wires configured to transfer datapath signals between the PHY block and the MAC block , characterized in that the PHY block further comprises a clocking multiplexer, MUX, , the clocking MUX having a first input as the PCLK from the MAC block and has a second input as the recovered clock from received data, in a first mode, the PHY block is configured to send data, and a PCLK from an output of the clocking MUX , to the MAC block ; and in a second mode, the PHY block is configured to send data, and a recovered clock from the output of the clocking MUX , to to the MAC block ,
Projectile , in particular a training projectile, comprising a projectile body , a projectile jacket , and a projectile head , wherein the projectile jacket is divided into three or more projectile jacket portions (7.1, 7.2, 7.3), wherein the projectile jacket portions (7.1, 7.2, 7.3) are tapered toward the relevant subsequent projectile jacket portion (7.2, 7.3) such that the projectile jacket portions (7.1, 7.2) taper from the caliber diameter (d1) toward the relevant subsequent projectile jacket portion (7.2, 7.3), and wherein the projectile jacket has a driving band which transmits the spin to the projectile .
A workhead assembly for use in rail applications, comprising: a frame having a front sub-frame portion on a first side of the frame and a back sub-frame portion on a second, opposed side of the frame ; a first and a second pair of tamping tools , each pair being disposed on said opposing sides of the frame ; a first and a second pair of hydraulic actuators , each pair of hydraulic actuators being disposed on said opposing sides of the frame ; each tamping tool of said first pair of tamping tools coupled to a tamping arm pivoting around a respective pivot point on the front sub-frame portion , which tamping arm is, in turn, coupled to a hydraulic actuator of said first pair of hydraulic actuators coupled to the front sub-frame portion; each tamping tool of said second pair of tamping tools coupled to a tamping arm pivoting around a respective pivot point on the back subframe portion, which tamping arm is, in turn, coupled to a hydraulic actuator of said second pair of hydraulic actuators coupled to the back sub-frame portion; wherein the first and second pair of hydraulic actuators are configured to be actuated to increase in length to thereby impart movement to the respective first and second pair of tamping arms to impart movement to the respective first and second pair of tamping tools , characterized in that an additional hydraulic actuator is associated with each tamping tool and configured to permit independent movement of the tamping tools. a frame having a front sub-frame portion on a first side of the frame and a back sub-frame portion on a second, opposed side of the frame ; a first and a second pair of tamping tools , each pair being disposed on said opposing sides of the frame ; a first and a second pair of hydraulic actuators , each pair of hydraulic actuators being disposed on said opposing sides of the frame ; each tamping tool of said first pair of tamping tools coupled to a tamping arm pivoting around a respective pivot point on the front sub-frame portion , which tamping arm is, in turn, coupled to a hydraulic actuator of said first pair of hydraulic actuators coupled to the front sub-frame portion; each tamping tool of said second pair of tamping tools coupled to a tamping arm pivoting around a respective pivot point on the back subframe portion, which tamping arm is, in turn, coupled to a hydraulic actuator of said second pair of hydraulic actuators coupled to the back sub-frame portion; wherein the first and second pair of hydraulic actuators are configured to be actuated to increase in length to thereby impart movement to the respective first and second pair of tamping arms to impart movement to the respective first and second pair of tamping tools , characterized in that an additional hydraulic actuator is associated with each tamping tool and configured to permit independent movement of the tamping tools.
Print head of a continuous ink jet printer comprising: - a cavity for the circulation of jets, delimited by a 1 st side wall and a 2 nd side wall , both at least partially parallel to a direction of flow of the jets in the cavity , - means (4, 4 1 , 4 x , 4 n ) for producing at least one ink jet or solvent in said cavity , - means for sorting drops or segments of one or several of said jets intended for printing from drops or segments that are not used for printing, - an outlet slot of the cavity, open onto the exterior of the cavity and allowing the exiting of the drops or segments of ink intended for printing, - a 1 st gutter for recovering drops or segments not intended for printing, - a 2 nd gutter for recovering drops or segments that are not deflected and not intended for printing, this 2 nd gutter being mobile and comprising an input slot and at least one suction channel, - means for actuating , in order to actuate the 2 nd gutter for recovering in movement between a retracted position, in which it does not close off the outlet slot of the cavity, and a closed position, in which its input slot faces the outlet slot of the cavity, in such a way that the drops or segments that are not deflected, produced by the means (4, 4 1 , 4 x , 4 n ) for producing a plurality of ink jets in said cavity , exits via the outlet slot and enters into the input slot of the 2 nd gutter for recovering; - means forming a seal between the print head and the 2 nd gutter for recovering in the closed position of the latter. - a cavity for the circulation of jets, delimited by a 1 st side wall and a 2 nd side wall , both at least partially parallel to a direction of flow of the jets in the cavity , - means (4, 4 1 , 4 x , 4 n ) for producing at least one ink jet or solvent in said cavity , - means for sorting drops or segments of one or several of said jets intended for printing from drops or segments that are not used for printing, - an outlet slot of the cavity, open onto the exterior of the cavity and allowing the exiting of the drops or segments of ink intended for printing, - a 1 st gutter for recovering drops or segments not intended for printing, - a 2 nd gutter for recovering drops or segments that are not deflected and not intended for printing, this 2 nd gutter being mobile and comprising an input slot and at least one suction channel, - means for actuating , in order to actuate the 2 nd gutter for recovering in movement between a retracted position, in which it does not close off the outlet slot of the cavity, and a closed position, in which its input slot faces the outlet slot of the cavity, in such a way that the drops or segments that are not deflected, produced by the means (4, 4 1 , 4 x , 4 n ) for producing a plurality of ink jets in said cavity , exits via the outlet slot and enters into the input slot of the 2 nd gutter for recovering; - means forming a seal between the print head and the 2 nd gutter for recovering in the closed position of the latter.