mhurhangee/ep-ind-claims huggingface dataset:
A weft insertion device for a rapier loom that performs weaving by using a tape-shaped flat yarn as a weft, the weft insertion device being a single-rapier weft insertion device with which a rapier head (10, 10'), whose standby position is set on a side opposite to a weft supply side, advances toward the weft supply side, grips the flat yarn on the weft supply side, and inserts the flat yarn as a weft while retreating, the weft insertion device including a yarn guide mechanism that holds the flat yarn on the weft supply side so that the flat yarn before being gripped by the rapier head (10, 10') is guided from a position above a movement path of the rapier head (10, 10') to a position below the movement path with respect to an up-down direction, wherein the yarn guide mechanism includes a holding device that includes a holding body (51a-51d) that is disposed at a position of a gripping portion of the rapier head (10, 10') that has reached a most advanced position with respect to a weaving-width direction, the position being located below the movement path with respect to the up-down direction, the holding body (51a-51d) receiving and holding the flat yarn, and a guide member that guides the flat yarn at a position above the movement path, characterized in that the guide member is fixed in position with respect to the up-down direction, and the holding body (51a-51d) receives a tip portion of the flat yarn from above and holds the tip portion, wherein the yarn guide mechanism further includes a guide device that is disposed above the holding device and that guides the tip portion of the flat yarn to the holding device, wherein the guide device includes a guide plate that has a thin plate-like shape and that is disposed directly above the holding body (51a-51d) of the holding device in such a way that a plate surface thereof is perpendicular to the weaving width direction, and a guide-plate driving device that displaces the guide plate between two positions, which are an upper standby position that is above the movement path and a guide position where an end of the guide plate reaches the holding body (51a-51d).
Austenitic, low-density, high-strength steel strip or sheet having a high ductility, consisting of, in wt.%: • 0.65 -0.9% C; • 0 - 0.5% Si; • 5.0 - 20.0% Mn; • 5.5 -11.0% Al; • 0.001-0.05% N; • 0.02% or less P; • 0.02% or less S; optionally one or more of: • 0.001 - 0.01% Ca; • 0.01 - 0.2% Ti; • 0 - 5.0% Cr; • 0 - 2.0% Cu; • 0 - 1.0 % Mo; • 0 - 0.5% V; • 0 - 0.2% Nb; • 0 - 0.2% Zr; • 0 - 0.0050% B; • 0 - 0.2% Sb; the balance Fe with unavoidable impurities, having a microstructure comprising, in area%, 70% to 100% of austenite, 30 to 0% of ferrite, and 0 to 5% of a κ-(Fe,Mn) 3 AlC-carbide phase, the strip or sheet having a yield ratio YS/UTS of at least 0.60, and a ratio of Mn/Si > 40, the steel strip or sheet having a density of less than 7.3 g/cm 3, a tensile strength of at least 750 MPa and an elongation, for a gauge length of 50 mm, of at least 25%. • 0.65 -0.9% C; • 0 - 0.5% Si; • 5.0 - 20.0% Mn; • 5.5 -11.0% Al; • 0.001-0.05% N; • 0.02% or less P; • 0.02% or less S; • 0.001 - 0.01% Ca; • 0.01 - 0.2% Ti; • 0 - 5.0% Cr; • 0 - 2.0% Cu; • 0 - 1.0 % Mo; • 0 - 0.5% V; • 0 - 0.2% Nb; • 0 - 0.2% Zr; • 0 - 0.0050% B; • 0 - 0.2% Sb;
An implantable medical device comprising: a housing comprising an electrically conductive material; pulse generation circuitry disposed within the housing for generating electrical voltage pulses; a circuit protection diode (D 1) disposed in series with and between the housing and the pulse generation circuitry; and a first switch (Si) disposed in series with the circuit protection diode (D 1), the first switch (Si) configured to selectively isolate the housing from the pulse generation circuitry; a second switch (S m) for switching between a bipolar mode and a unipolar mode, wherein the second switch (S m) is configured to connect the housing to the pulse generator circuitry to select the unipolar mode. a housing comprising an electrically conductive material; pulse generation circuitry disposed within the housing for generating electrical voltage pulses; a circuit protection diode (D 1) disposed in series with and between the housing and the pulse generation circuitry; and a first switch (Si) disposed in series with the circuit protection diode (D 1), the first switch (Si) configured to selectively isolate the housing from the pulse generation circuitry; a second switch (S m) for switching between a bipolar mode and a unipolar mode, wherein the second switch (S m) is configured to connect the housing to the pulse generator circuitry to select the unipolar mode.
A computer-implemented method of power recovery in a modular food holding bin having a plurality of individually addressable and individually controllable food holding units (108, 110, 112, 114), the method comprising: upon power recovery from a power fault condition, determining, in a power recovery module (430, 800) of a master base controller, a time associated with the power recovery, the master base controller being a processing device coupled to control the plurality of food holding units (108, 110, 112, 114); determining, in the power recovery module (430, 800), a fault time indicating an amount of lost time between the power fault condition and the power recovery; in response, to the fault time determination, determining a timer status for each of the food holding units (108, 110, 112, 114); and for the food holding units determined to have an expired active timer status after the power recovery, the master controller sending a food expiration instruction to the food holding units; and for the food holding units determined to have an active time status after the power recovery, the master controller sending an updated operating instruction to the food holding units, the updated operating instruction including timing data for completing a recipe on the food holding units. upon power recovery from a power fault condition, determining, in a power recovery module (430, 800) of a master base controller, a time associated with the power recovery, the master base controller being a processing device coupled to control the plurality of food holding units (108, 110, 112, 114); determining, in the power recovery module (430, 800), a fault time indicating an amount of lost time between the power fault condition and the power recovery; in response, to the fault time determination, determining a timer status for each of the food holding units (108, 110, 112, 114); and for the food holding units determined to have an expired active timer status after the power recovery, the master controller sending a food expiration instruction to the food holding units; and for the food holding units determined to have an active time status after the power recovery, the master controller sending an updated operating instruction to the food holding units, the updated operating instruction including timing data for completing a recipe on the food holding units.
A multi-directional input device comprising: a rotating body that includes a sliding surface (151-3, 152-3) forming at least part of a virtual spherical surface and also includes a storage part recessed from an outside of the virtual spherical surface toward an inside; a support body that rotatably supports the rotating body by slidably supporting the sliding surface (151-3, 152-3); an actuator that is at least partially stored in the storage part; a cam part that abuts the actuator; an elastic member that urges the actuator between the rotating body and the actuator toward the cam part; and a manipulation lever that rotates together with the rotating body and is capable of being manipulated to shift to a plurality of shift positions; characterized in that the multi-directional input device further comprises a support axis extending from an inside of the storage part to an outside of the rotating body; the actuator has a through-hole; at least part of the support axis is slidably positioned in the through-hole; and the actuator is configured to travel along the support axis. a rotating body that includes a sliding surface (151-3, 152-3) forming at least part of a virtual spherical surface and also includes a storage part recessed from an outside of the virtual spherical surface toward an inside; a support body that rotatably supports the rotating body by slidably supporting the sliding surface (151-3, 152-3); an actuator that is at least partially stored in the storage part; a cam part that abuts the actuator; an elastic member that urges the actuator between the rotating body and the actuator toward the cam part; and a manipulation lever that rotates together with the rotating body and is capable of being manipulated to shift to a plurality of shift positions; characterized in that the multi-directional input device further comprises a support axis extending from an inside of the storage part to an outside of the rotating body; the actuator has a through-hole; at least part of the support axis is slidably positioned in the through-hole; and the actuator is configured to travel along the support axis.
A handheld power tool comprising - a movable element and a fixed element - a rotatable actuator having a first axis of rotation - a ball nut having a second axis of rotation - a ball screw having a first end connected to the movable element, the tool being characterized in that it also comprises: - a universal joint (10, 12, 14) configured to be driven by said rotatable actuator and to drive the ball nut in rotation on the ball screw so as to move said ball screw and thus said movable element relative to said fixed element. - a movable element and a fixed element - a rotatable actuator having a first axis of rotation - a ball nut having a second axis of rotation - a ball screw having a first end connected to the movable element, the tool being characterized in that it also comprises: - a universal joint (10, 12, 14) configured to be driven by said rotatable actuator and to drive the ball nut in rotation on the ball screw so as to move said ball screw and thus said movable element relative to said fixed element.
Circuit arrangement that is suitable to measure the respective voltages at the accumulators of an accumulator cascade, with ∘ a first accumulator whose negative terminal is at the ground potential, ∘ a second accumulator whose negative terminal is coupled with the positive terminal of the first accumulator, and ∘ a capacitor that is coupled on its first side via a resistor with the positive terminal of the first accumulator, characterized in that the ground potential can be applied to the capacitor with its second side via a first switch, wherein, via a second switch, the positive terminal of the second accumulator is coupled between the resistor and the first side of the capacitor. ∘ a first accumulator whose negative terminal is at the ground potential, ∘ a second accumulator whose negative terminal is coupled with the positive terminal of the first accumulator, and ∘ a capacitor that is coupled on its first side via a resistor with the positive terminal of the first accumulator,
A medical component comprising from 5 to 50 wt% of a polyurethane and from 50 to 95 wt% of a radiopacifier, based on the total weight of the medical component, wherein the medical component has a thickness of from 0.025 to 1 mm, and wherein the polyurethane comprises a backbone that comprises the reaction product of a diisocyanate, a polymeric aliphatic diol, and a chain extender, and wherein the polymeric aliphatic diol comprises a polysiloxane diol and a polycarbonate diol.
Method for defining a code to be executed by a programmable control device comprising: having a programming language; having a code written by using said programming language; compiling the code by using a machine language to obtain a machine language compiled code, divided into a core code and an application code, said application code being loadable into a program memory independently of the core code; generating an allocation table comprising the size, start location and end location of each module forming the application code; transferring said machine language compiled code onto the program memory to be executed by the control device; linking said core code and said application code during said transferring, on the basis of said allocation table, and of a symbol table communicated by the core code, said symbol table comprising the symbols of the core code and the position of said symbols in the core code. having a programming language; having a code written by using said programming language; compiling the code by using a machine language to obtain a machine language compiled code, divided into a core code and an application code, said application code being loadable into a program memory independently of the core code; generating an allocation table comprising the size, start location and end location of each module forming the application code; transferring said machine language compiled code onto the program memory to be executed by the control device; linking said core code and said application code during said transferring, on the basis of said allocation table, and of a symbol table communicated by the core code, said symbol table comprising the symbols of the core code and the position of said symbols in the core code.
Method for producing a coated aluminium strip, in which the aluminium strip is unwound from a coil and fed into a unilateral or bilateral extrusion coating arrangement, the aluminium strip is extrusion coated with a thermoplastic polymer and after being extrusion coated, the aluminium strip is reheated to a metal temperature above the melting point of the thermoplastic polymer, characterised in that the unilateral or bilateral plastics material coating of the aluminium strip, being still soft after being reheated, is textured using rolls which have a superficial structure.
Method for providing load reference data in a CDMA wireless communication system, comprising the steps of: measuring received total wideband power for a plurality of instances; measuring received scheduled enhanced uplink power for said plurality of instances; estimating a probability distribution for a first power quantity, being related to selected state variables of an estimation algorithm, from quantities representing said measured received total wideband power and quantities representing said measured received scheduled enhanced uplink power using selected measurement functions of said selected state variables of said estimation algorithm; said selected state variables correspond to cell power quantities; said selected measurement functions correspond to said quantities representing said measured received total wideband power and said quantities representing said measured received scheduled enhanced uplink power; computing a conditional probability distribution of a noise floor measure based on at least a number of said estimated probability distributions for said first power quantity; and providing load reference data based on said computed conditional probability distribution of said noise floor measure, wherein said first power quantity is a measure of the difference between received total wideband power and received scheduled enhanced uplink power. measuring received total wideband power for a plurality of instances; measuring received scheduled enhanced uplink power for said plurality of instances; estimating a probability distribution for a first power quantity, being related to selected state variables of an estimation algorithm, from quantities representing said measured received total wideband power and quantities representing said measured received scheduled enhanced uplink power using selected measurement functions of said selected state variables of said estimation algorithm; said selected state variables correspond to cell power quantities; said selected measurement functions correspond to said quantities representing said measured received total wideband power and said quantities representing said measured received scheduled enhanced uplink power; computing a conditional probability distribution of a noise floor measure based on at least a number of said estimated probability distributions for said first power quantity; and providing load reference data based on said computed conditional probability distribution of said noise floor measure, wherein said first power quantity is a measure of the difference between received total wideband power and received scheduled enhanced uplink power.
Method for controlling a suction device, the suction device comprising at least one electric motor for at least producing a suction function, comprising at least the method steps of - capturing vibration data at a suction hose of the suction device, - evaluating the vibration data by comparing them with comparison data and producing a comparison result, - controlling the electric motor on the basis of the comparison result, characterized in that one method step comprises filtering the vibration data at a frequency of at least one signal filter in order to filter out gravitational acceleration elements in the vibration data. - capturing vibration data at a suction hose of the suction device, - evaluating the vibration data by comparing them with comparison data and producing a comparison result, - controlling the electric motor on the basis of the comparison result,
A method for performing wireless communication by a first device, the method comprising: performing at least one sidelink transmission to a second device; receiving negative acknowledgment, NACK, information related to the at least one sidelink transmission from the second device; the method being characterized by the step of determining whether to transmit a message for requesting retransmission resources based on a pre-configured delay time threshold and a remaining latency budget related to the at least one sidelink transmission. performing at least one sidelink transmission to a second device; receiving negative acknowledgment, NACK, information related to the at least one sidelink transmission from the second device; the method being characterized by the step of determining whether to transmit a message for requesting retransmission resources based on a pre-configured delay time threshold and a remaining latency budget related to the at least one sidelink transmission.
A vehicle brake hydraulic pressure controller suitable for being mounted on a vehicle which is configured so that a driving torque transmitted to wheels during a stop of the vehicle reduces, the vehicle brake hydraulic pressure controller comprising: a vehicle holding controller configured to carry out a vehicle holding control to hold a brake hydraulic pressure applied to the wheels during the stop of the vehicle, wherein the vehicle holding controller is arranged to, in the case that an actual-pressure-equivalent hydraulic pressure (Pr) corresponding to a brake hydraulic pressure actually applied to the wheels is not more than a predetermined hydraulic pressure at a start time of the vehicle holding control, set a pressurization target pressure (Pd) and carry out a pressurization control to raise the brake hydraulic pressure to the pressurization target pressure (Pd), characterized in that: the vehicle holding controller is arranged to set the pressurization target pressure (Pd) using a specific driving torque applied at the start time of the vehicle holding control, the vehicle brake hydraulic pressure controller further comprises a road surface gradient estimator configured to estimate a road surface gradient (Hr), and the vehicle holding controller is arranged to correct the pressurization target pressure on the basis of the road surface gradient (Hr) estimated by the road surface gradient estimator. a vehicle holding controller configured to carry out a vehicle holding control to hold a brake hydraulic pressure applied to the wheels during the stop of the vehicle, wherein the vehicle holding controller is arranged to, in the case that an actual-pressure-equivalent hydraulic pressure (Pr) corresponding to a brake hydraulic pressure actually applied to the wheels is not more than a predetermined hydraulic pressure at a start time of the vehicle holding control, set a pressurization target pressure (Pd) and carry out a pressurization control to raise the brake hydraulic pressure to the pressurization target pressure (Pd), characterized in that: the vehicle holding controller is arranged to set the pressurization target pressure (Pd) using a specific driving torque applied at the start time of the vehicle holding control, the vehicle brake hydraulic pressure controller further comprises a road surface gradient estimator configured to estimate a road surface gradient (Hr), and the vehicle holding controller is arranged to correct the pressurization target pressure on the basis of the road surface gradient (Hr) estimated by the road surface gradient estimator. the vehicle holding controller is arranged to set the pressurization target pressure (Pd) using a specific driving torque applied at the start time of the vehicle holding control, the vehicle brake hydraulic pressure controller further comprises a road surface gradient estimator configured to estimate a road surface gradient (Hr), and the vehicle holding controller is arranged to correct the pressurization target pressure on the basis of the road surface gradient (Hr) estimated by the road surface gradient estimator.
An optical fiber cable comprising: (a) at least one optical fiber buffer encasement, the encasement comprising: i. at least two 50 micron multimode optical fibers encased in a polymer matrix, the polymer matrix comprising a UV cured acrylate having a tensile modulus in the range 0.5 to 10 MPa, ii. a UV cured acrylate polymer encasement, with a tensile modulus in the range of 200 MPa to 1000 MPa encasing the polymer matrix, the acrylate polymer encasement and the polymer matrix having a round cross section, (b) a yarn wrap strength layer surrounding optical fiber buffer encasements (12, 13), (c) a cable jacket surrounding the yarn wrap strength layer, the cable jacket consisting essentially of polymer material having: i. a round cross section, ii. a thickness of 0.7-3.0 mm, iii. a tensile modulus greater than 240 MPa, (d) sufficient flame retardant to meet one or more industry fire protection standards. (a) at least one optical fiber buffer encasement, the encasement comprising: i. at least two 50 micron multimode optical fibers encased in a polymer matrix, the polymer matrix comprising a UV cured acrylate having a tensile modulus in the range 0.5 to 10 MPa, ii. a UV cured acrylate polymer encasement, with a tensile modulus in the range of 200 MPa to 1000 MPa encasing the polymer matrix, the acrylate polymer encasement and the polymer matrix having a round cross section, i. at least two 50 micron multimode optical fibers encased in a polymer matrix, the polymer matrix comprising a UV cured acrylate having a tensile modulus in the range 0.5 to 10 MPa, ii. a UV cured acrylate polymer encasement, with a tensile modulus in the range of 200 MPa to 1000 MPa encasing the polymer matrix, the acrylate polymer encasement and the polymer matrix having a round cross section, (b) a yarn wrap strength layer surrounding optical fiber buffer encasements (12, 13), (c) a cable jacket surrounding the yarn wrap strength layer, the cable jacket consisting essentially of polymer material having: i. a round cross section, ii. a thickness of 0.7-3.0 mm, iii. a tensile modulus greater than 240 MPa, i. a round cross section, ii. a thickness of 0.7-3.0 mm, iii. a tensile modulus greater than 240 MPa, (d) sufficient flame retardant to meet one or more industry fire protection standards.