mhurhangee/ep-ind-claims huggingface dataset:
A brake and accelerator robot, comprising: • a brake actuating lever, • an accelerator actuating lever, • a rotary actuator, for driving the respective levers for applying the brake and the accelerator, • means for connecting drive from the rotary actuator to the respective levers, characterised in that: the levers (9,10) are arranged at opposite ends of the rotary actuator with drive for one of the levers passing through the rotary actuator from an output member of the rotary actuator at one end to the lever at the other end, and the drive connection means includes a direction reverser whereby rotation of the rotary actuator in one direction moves the brake actuating lever for brake pedal depression and rotation of the actuator in another direction moves the accelerator actuating lever for accelerator pedal depression, and wherein the direction reverser is arranged to reverse the rotary actuator's direction for moving the accelerator actuating lever, and wherein it is the accelerator actuating lever that has its drive passing through the rotary actuator. • a brake actuating lever, • an accelerator actuating lever, • a rotary actuator, for driving the respective levers for applying the brake and the accelerator, • means for connecting drive from the rotary actuator to the respective levers, characterised in that: the levers (9,10) are arranged at opposite ends of the rotary actuator with drive for one of the levers passing through the rotary actuator from an output member of the rotary actuator at one end to the lever at the other end, and the drive connection means includes a direction reverser whereby rotation of the rotary actuator in one direction moves the brake actuating lever for brake pedal depression and rotation of the actuator in another direction moves the accelerator actuating lever for accelerator pedal depression, and the levers (9,10) are arranged at opposite ends of the rotary actuator with drive for one of the levers passing through the rotary actuator from an output member of the rotary actuator at one end to the lever at the other end, and the drive connection means includes a direction reverser whereby rotation of the rotary actuator in one direction moves the brake actuating lever for brake pedal depression and rotation of the actuator in another direction moves the accelerator actuating lever for accelerator pedal depression, and
A crystal form of the compound of formula: wherein n is 1, characterized by the following characteristic XRPD peaks: 7,48; 7,93; 10,15; 10,32; 12,72; 13,51; 16,18; 16,46; 18,08; 18,53; 18,94; 8,55; 17,79; 19,89; 19, 1; 20,2; 21,37; 22,96; 23,63; 24,87; 26,51; 28,09;28,61 and 25,82 ± 0.2 degrees /2 theta (CuKα2).
A cutting tooth (26,126) for a mulching tool for mulching or cutting organic matter, the cutting tooth comprising: a substrate having a cutting edge formed on the substrate; and a wear-resistant bead fused to the substrate, the wear-resistant bead extending parallel along the cutting edge and having a width and a thickness, the substrate and wear-resistant bead having different compositions, characterised by the wear -resistant bead being fused to the substrate by: activating a laser diode to generate heat and melt a wear-resistant material; moving at least one of the laser diode or substrate such that molten wear-resistant material is deposited parallel along the cutting edge; and solidifying the molten material to form a wear-resistant bead fused to the substrate parallel along the cutting edge, and wherein the ratio of bead width to thickness is at least about 5 to 1. a substrate having a cutting edge formed on the substrate; and a wear-resistant bead fused to the substrate, the wear-resistant bead extending parallel along the cutting edge and having a width and a thickness, the substrate and wear-resistant bead having different compositions, characterised by the wear -resistant bead being fused to the substrate by: activating a laser diode to generate heat and melt a wear-resistant material; moving at least one of the laser diode or substrate such that molten wear-resistant material is deposited parallel along the cutting edge; and solidifying the molten material to form a wear-resistant bead fused to the substrate parallel along the cutting edge, and wherein the ratio of bead width to thickness is at least about 5 to 1. activating a laser diode to generate heat and melt a wear-resistant material; moving at least one of the laser diode or substrate such that molten wear-resistant material is deposited parallel along the cutting edge; and solidifying the molten material to form a wear-resistant bead fused to the substrate parallel along the cutting edge, and wherein the ratio of bead width to thickness is at least about 5 to 1.
A method for computer-implemented determination of improved control parameters of a number of wind turbines (T1,...,Tn) of a wind park, comprising the steps of: S1) receiving, by an interface, one or more achieved parameters within a manufacturing tolerance range of characteristic values (AG, MP, MDM, TC, CR) for each of the number of wind turbines (T1,...,Tn); S2) determining, by a processing unit, for each of the number of wind turbines (T1,...,Tn) a power versus wind speed map which is calculated from a given turbine model with the one or more achieved parameters within the manufacturing tolerance range of the respective wind turbines (T1,...,Tn) as input parameters; S3) deriving, by the processing unit, the control parameters for each of the number of wind turbines (T1,...,Tn) from their associated power versus wind speed map.
A light diffusing fiber comprising: one or more segments (12a, 12b), and a thermochromic coating on at least a portion of the light diffusing fiber, wherein the thermochromic coating is opaque at a first temperature, and the thermochromic coating is transparent at a second temperature. one or more segments (12a, 12b), and a thermochromic coating on at least a portion of the light diffusing fiber, wherein the thermochromic coating is opaque at a first temperature, and the thermochromic coating is transparent at a second temperature.
Method for reducing noise in a tomogram and/or volume rendering of an object, wherein, in the method, at least one tomogram (Funcorr) afflicted by stray radiation and having stray radiation artifacts, and at least one preliminary tomogram (Fcorr) corrected in terms of stray radiation by means of a predetermined correction method are formed from a plurality of projection image data records (P1, P2, P3) afflicted by stray radiation, characterized in that the noise in the at least one tomogram (Fcorr) corrected in terms of stray radiation or in an artifact map describing the stray radiation artifacts is selectively smoothed by means of a filter on the basis of an edge profile of the object imaged in the tomogram (Funcorr) afflicted by stray radiation.
A sheet bonding method for a functional sheet to a bonding target object by sealing a periphery portion of the bonding target object after making the bonding target object and the functional sheet overlap each other, comprising: a preparation step of forming in advance an area-enlarged portion in which overlapping does not occur on the outside of a portion to be sealed of the bonding target object and the functional sheet, which is disposed on the upper side, out of the bonding target object and the functional sheet which overlap each other; an overlapping step of making the bonding target object and the functional sheet overlap each other while positioning the area-enlarged portion so as to be in a non-overlapping state; a gas substitution step of substituting air in a sealed space, which is formed between the bonding target object and the functional sheet, with gas by spraying the gas to the area-enlarged portion from the lower side, after the overlapping step; and a sealing step of sealing the periphery portion of the bonding target object while performing the gas substitution step. a preparation step of forming in advance an area-enlarged portion in which overlapping does not occur on the outside of a portion to be sealed of the bonding target object and the functional sheet, which is disposed on the upper side, out of the bonding target object and the functional sheet which overlap each other; an overlapping step of making the bonding target object and the functional sheet overlap each other while positioning the area-enlarged portion so as to be in a non-overlapping state; a gas substitution step of substituting air in a sealed space, which is formed between the bonding target object and the functional sheet, with gas by spraying the gas to the area-enlarged portion from the lower side, after the overlapping step; and a sealing step of sealing the periphery portion of the bonding target object while performing the gas substitution step.
A catheter device (410; 710), comprising: a needle; a septum (422; 722), the septum (422; 722) being adapted so that the needle may pass through the septum (422; 722) and the device (410; 710); a housing (426; 726) in which the septum (422; 722) is fitted, the septum (422; 722) being contained and enclosed within the housing (426; 726); a septum housing (424; 724) configured to engage the housing (426; 726) and secure the septum (422; 722) in position at least one receiving portion (434; 734) being a section of the septum housing (424; 724) and a needle shield (428; 728), the needle shield (428; 728) being configured to engage the at least one receiving portion (434; 734), the contact between the at least one receiving portion (434; 734) and the needle shield (428; 728) being configured to hold the needle shield (428; 728) in position, wherein the needle shield (428; 728) is configured to retain the needle if the needle is withdrawn from the housing (426; 726); wherein the needle shield comprises a front edge (438; 738) configured to engage with the at least one receiving portion (434; 734) wherein if the needle is withdrawn into the needle shield (428; 728) the needle is no longer pushing outwardly on the front edge (438; 738) of the needle shield (428; 728), the front edge (438; 738) of the needle shield (428; 728) contracting inwardly such that the needle shield (428; 728) may disengage from the septum housing (424; 724); wherein the needle shield (428; 728) comprises a protective sleeve to capture the needle tip after it is withdrawn from the patient.
A method, performed by a user equipment, for managing positioning reference signals, comprising: receiving, from a network node, a reception configuration of the positioning reference signals relating to a radio transmitter, wherein the reception configuration comprises a cell identity relating to the radio transmitter and an identifier for determining of the positioning reference signals, wherein the cell identity comprises a physical cell identity and the identifier has a different value from an identifier of a different cell with a same physical cell identity to ensure orthogonal positioning reference signal sequences for robust positioning, receiving, according to the reception configuration, the positioning reference signals from the radio transmitter, estimating, based on the positioning reference signals, signal characteristics relating to a position of the user equipment, and sending, to the network node, a report about the estimated signal characteristics. receiving, from a network node, a reception configuration of the positioning reference signals relating to a radio transmitter, wherein the reception configuration comprises a cell identity relating to the radio transmitter and an identifier for determining of the positioning reference signals, wherein the cell identity comprises a physical cell identity and the identifier has a different value from an identifier of a different cell with a same physical cell identity to ensure orthogonal positioning reference signal sequences for robust positioning, receiving, according to the reception configuration, the positioning reference signals from the radio transmitter, estimating, based on the positioning reference signals, signal characteristics relating to a position of the user equipment, and sending, to the network node, a report about the estimated signal characteristics.
A method for enabling a non-cognitive radio device to operate as a cognitive radio device, the method comprising the steps of: receiving, by said non-cognitive radio device, a spectrum map message which indicates channels which are locally available for use; selecting, by said non-cognitive radio device, a channel from the spectrum map message for use by said radio device; configuring, by said non-cognitive radio device, said non-cognitive radio device to transmit using said channel; and transmitting, by said non-cognitive radio device, a message on said channel; characterized by waiting, by said non-cognitive radio device, for a predetermined time to receive an acknowledgment to the sent message; if the acknowledgment is received then continuing, by said non-cognitive radio device, to transmit and receive using said selected channel; and if the acknowledgment is not received then retransmitting the message by said non-cognitive radio device, wherein retransmitting comprises selecting a second channel different from the previous selected channel from the spectrum map message, or waiting until a next spectrum map message is received before making a retransmission attempt. receiving, by said non-cognitive radio device, a spectrum map message which indicates channels which are locally available for use; selecting, by said non-cognitive radio device, a channel from the spectrum map message for use by said radio device; configuring, by said non-cognitive radio device, said non-cognitive radio device to transmit using said channel; and transmitting, by said non-cognitive radio device, a message on said channel; characterized by waiting, by said non-cognitive radio device, for a predetermined time to receive an acknowledgment to the sent message; if the acknowledgment is received then continuing, by said non-cognitive radio device, to transmit and receive using said selected channel; and if the acknowledgment is not received then retransmitting the message by said non-cognitive radio device, wherein retransmitting comprises selecting a second channel different from the previous selected channel from the spectrum map message, or waiting until a next spectrum map message is received before making a retransmission attempt.
A valve assembly comprising: a valve body having an inlet, an outlet, a passageway between the inlet and the outlet, and an annular body recess formed on a top portion of the valve body, the body recess including a body mating surface; a bonnet removably secured to the top portion of the valve body, the bonnet having an annular bonnet recess formed on a bottom portion of the bonnet, the bonnet recess including a bonnet mating surface; a valve cage disposed at least partially within the passageway, the valve cage having an elongated body portion extending along a longitudinal axis and having an outer surface, the valve cage also having a circumferential mating protrusion extending from the outer surface along a transverse plane that is normal to the longitudinal axis, the mating protrusion including an upper mating surface and a lower mating surface, wherein the upper mating surface of the mating protrusion is disposed within the bonnet recess such that the upper mating surface is aligned with and adjacent to the bonnet mating surface, wherein the lower mating surface of the mating protrusion is disposed within the body recess such that the lower mating surface is aligned with and adjacent to the body mating surface, and characterised in that either (a) the upper mating surface and the lower mating surface converge as the upper mating surface and the lower mating surface extend away from the longitudinal axis; or (b) the upper mating surface and the lower mating surface diverge as the upper mating surface and the lower mating surface extend away from the longitudinal axis. a valve body having an inlet, an outlet, a passageway between the inlet and the outlet, and an annular body recess formed on a top portion of the valve body, the body recess including a body mating surface; a bonnet removably secured to the top portion of the valve body, the bonnet having an annular bonnet recess formed on a bottom portion of the bonnet, the bonnet recess including a bonnet mating surface; a valve cage disposed at least partially within the passageway, the valve cage having an elongated body portion extending along a longitudinal axis and having an outer surface, the valve cage also having a circumferential mating protrusion extending from the outer surface along a transverse plane that is normal to the longitudinal axis, the mating protrusion including an upper mating surface and a lower mating surface, wherein the upper mating surface of the mating protrusion is disposed within the bonnet recess such that the upper mating surface is aligned with and adjacent to the bonnet mating surface, wherein the lower mating surface of the mating protrusion is disposed within the body recess such that the lower mating surface is aligned with and adjacent to the body mating surface, and characterised in that either (a) the upper mating surface and the lower mating surface converge as the upper mating surface and the lower mating surface extend away from the longitudinal axis; or (b) the upper mating surface and the lower mating surface diverge as the upper mating surface and the lower mating surface extend away from the longitudinal axis.
Method for correcting an influence of an interference effect on a gradient system of a magnetic resonance apparatus during a magnetic resonance scan, having the steps: • emitting a gradient pulse (g ref (t)) by means of an amplifier of the gradient system, • capturing a gradient sequence (g real (t)) which becomes established in an examination region of the magnetic resonance apparatus by way of the emission of the gradient pulse (g ref (t)), by means of a magnetic field measurement in the examination region, • capturing an output signal (i out (t)) of the amplifier for the gradient pulse (g ref (t)), • establishing a gradient system transfer function (GSTF, GIRF) dependent upon the captured gradient sequence (g real (t)) and the captured output signal (i out (t)) of the amplifier, characterised by the steps • establishing an output signal (i cor (t)) of the amplifier with which the gradient system provides an expected gradient sequence (g nom (t)), dependent upon the established gradient system transfer function (GSTF, GIRF) and • adjusting an input signal (i in (t)) of the amplifier dependent upon the established output signal (i cor (t)) of the amplifier and of the captured output signal (i out (t)) of the amplifier. • emitting a gradient pulse (g ref (t)) by means of an amplifier of the gradient system, • capturing a gradient sequence (g real (t)) which becomes established in an examination region of the magnetic resonance apparatus by way of the emission of the gradient pulse (g ref (t)), by means of a magnetic field measurement in the examination region, • capturing an output signal (i out (t)) of the amplifier for the gradient pulse (g ref (t)), • establishing a gradient system transfer function (GSTF, GIRF) dependent upon the captured gradient sequence (g real (t)) and the captured output signal (i out (t)) of the amplifier, characterised by the steps • establishing an output signal (i cor (t)) of the amplifier with which the gradient system provides an expected gradient sequence (g nom (t)), dependent upon the established gradient system transfer function (GSTF, GIRF) and • adjusting an input signal (i in (t)) of the amplifier dependent upon the established output signal (i cor (t)) of the amplifier and of the captured output signal (i out (t)) of the amplifier.
A method for receiving paper reels in papermaking industry (1; 1, 16), utilising in the receiving tight and elastic pressure elements in which by adjusting the outflow of compressed air or both the outflow and inflow of compressed air the motion speed of the paper reel (1; 1, 16) is decelerated wherein the actual receiving and deceleration of the paper reel occurs by controlling the amount of air being let out, characterized in that, inside the tight and elastic pressure elements is a self-restoring porous material; and in restoring the apparatus to receiving readiness due to self-restoring material.
A Radiometer containing, sequentially connected, an aerial applicator contacting a biological object, a selector (2"), a circulator (3, 4) installed after the selector (2"), a receiver containing an amplifier with bandpass filters, an amplitude detector, a narrowband low-frequency amplifier and an synchronous detector, an integrator, a direct current amplifier, a reference voltage generator connected to the selector (2") and synchronous detector, a Peltier element connected to the receiver inlet, the first and second microwave loads installed on the Peltier element and having thermal contact with it, at least one temperature sensor (13, 7) made with the faculty of measuring the temperature of microwave loads, wherein the first microwave load is made with the faculty of connection to the selector (2"), the selector (2") is made with the faculty of connecting to the first shoulder of the circulator (3, 4) either the aerial applicator or the first microwave load, the second shoulder of the circulator (3, 4) is connected to the receiver, and the third shoulder of the circulator (3, 4) is connected to the second microwave load.