mhurhangee/ep-ind-claims huggingface dataset:
RFID system, consisting of an RFID reader and at least one passive compatible RFID transponder, wherein the RFID transponder comprises an antenna arranged on a carrier and a chip module coupled to the antenna and requires a minimum read field strength for communication with the RFID reader, characterized in that the RFID system additionally comprises at least one read field indicator which, like the RFID transponder, likewise comprises an antenna arranged on a carrier, but the antenna is coupled to an indicator circuit (16, 18), which comprises and drives an optical and/or acoustic field strength indicator device, wherein the read field indicator has a minimum response sensitivity corresponding to the minimum read field strength of the RFID transponder.
Method for the cylindrical grinding of a one-piece workpiece, the contour of which is defined on the basis of a continuous longitudinal axis and, in addition to a first longitudinal region that is rotationally symmetrical with respect to this longitudinal axis and consists of a plurality of first longitudinal portions (2a, 2b, 2c), which are separated from one another in the longitudinal direction of the workpiece, has a second longitudinal region in which the radial mass distribution is non-uniform with regard to the longitudinal axis and which consists of a plurality of second longitudinal portions (3, 23) which are separated from one another in the longitudinal direction of the workpiece, wherein first longitudinal portions (2a, 2b, 2c) and second longitudinal portions (3, 23) alternate with one another and at least one second longitudinal portion is formed by a bridge portion which extends between two first longitudinal portions (2a, 2b, 2c) and at a radial distance from the longitudinal axis, having the method steps whereby, on the workpiece, a balancing body that forms a balancing mass is mounted on the bridge portion by way of a recess extending radially to the longitudinal axis and is secured in the mounted position, and subsequently the first longitudinal region is ground by cylindrical grinding at least in a first longitudinal portion, characterized in that the balancing body is mounted on the bridge portion, by way of the recess extending radially with respect to the longitudinal axis, in a mounting direction extending radially to the longitudinal axis, and the grinding takes place by way of centreless cylindrical grinding, wherein this first longitudinal portion (2a, 2b, 2c) is located in a grinding gap formed by a regulating wheel, a grinding wheel and a support rail.
A method for downloading content in a communication system comprising a first terminal, at least a second terminal, and a content server (5, 8), said method comprising, at the level of the first terminal: - downloading a content by blocks in a first mode, said mode belonging to a group of modes comprising a peer-to-peer pull mode for downloading said content from said content server or at least said second terminal and a push mode for downloading said content from said content server; and - switching to a second mode of said group of modes for continuing downloading said content according to meta-information provided by a peer of the peer-to-peer pull mode. - downloading a content by blocks in a first mode, said mode belonging to a group of modes comprising a peer-to-peer pull mode for downloading said content from said content server or at least said second terminal and a push mode for downloading said content from said content server; and - switching to a second mode of said group of modes for continuing downloading said content according to meta-information provided by a peer of the peer-to-peer pull mode.
A trust subsystem for a computer system that comprises a processor and a system trust module operable to verify platform specific firmware during a system boot, the trust subsystem comprising a subsystem trust module in communication with the system trust module, memory and a performance engine connected to the subsystem trust module by a private bus, and wherein the subsystem trust module is configured on a component card that is separate from the processor, is removable from the computer system and is configured to determine whether the system trust module verified the platform specific firmware as valid and, where the system trust module verified the platform specific firmware as valid, to subsequently verify software provisioned on the computer system by performing an integrity measurement of the software, wherein subsystem trust module is operable to use the performance engine to calculate a hash value for the software and compare the hash value to a reference value. to determine whether the system trust module verified the platform specific firmware as valid and, where the system trust module verified the platform specific firmware as valid, to subsequently verify software provisioned on the computer system by performing an integrity measurement of the software, wherein subsystem trust module is operable to use the performance engine to calculate a hash value for the software and compare the hash value to a reference value.
A sole structure for an article of footwear, the sole structure comprising: a cushioning element having a top surface, a bottom surface formed on an opposite side of the cushioning element from the top surface, a ramp surface spaced apart from the bottom surface in a heel region of the cushioning element, a heel pocket extending through the cushioning element from a top opening formed through the top surface to a bottom opening formed through the bottom surface, wherein the ramp surface is formed around the bottom opening, and a plurality of pillars (166a-166c) extending from the ramp surface and arranged around the bottom opening of the heel pocket; a plurality of cushioning particles disposed within the heel pocket; an outsole attached to the cushioning element and enclosing a first end of the heel pocket; and an upper barrier layer attached to the top surface of the cushioning element and covering a second end of the heel pocket, wherein the outsole includes an outsole element attached to an opposite side of the cushioning element from the upper barrier layer to enclose the cushioning particles, and wherein each of the pillars (166a-166c) extends from a first end (168a-168c) attached to the ramp surface to a terminal end (170a-170c) aligned with the bottom surface. a cushioning element having a top surface, a bottom surface formed on an opposite side of the cushioning element from the top surface, a ramp surface spaced apart from the bottom surface in a heel region of the cushioning element, a heel pocket extending through the cushioning element from a top opening formed through the top surface to a bottom opening formed through the bottom surface, wherein the ramp surface is formed around the bottom opening, and a plurality of pillars (166a-166c) extending from the ramp surface and arranged around the bottom opening of the heel pocket; a plurality of cushioning particles disposed within the heel pocket; an outsole attached to the cushioning element and enclosing a first end of the heel pocket; and an upper barrier layer attached to the top surface of the cushioning element and covering a second end of the heel pocket, wherein the outsole includes an outsole element attached to an opposite side of the cushioning element from the upper barrier layer to enclose the cushioning particles, and wherein each of the pillars (166a-166c) extends from a first end (168a-168c) attached to the ramp surface to a terminal end (170a-170c) aligned with the bottom surface.
An evaporation dryer for the drying of particles, comprising - a process chamber having at least one product inlet for the feeding of particles to be dried into the process chamber space and having a product outlet for the evacuation of dried particles from the process chamber, - a heat exchanger arranged within the process chamber, - comprising at least one inlet (21, 211) in the heat exchanger for highly pressurized steam as heating steam and at least one condensate outlet (22, 222) from the heat exchanger, wherein - the at least one condensate outlet (22, 222) is connected to an expansion tank, wherein to the expansion tank there is connected at least one pump, which pumps off flash steam from the expansion tank and supplies it to the heating steam, characterized in that the pump is configured as a steam jet pump having a motive steam port to which at least a partial flow of the heating steam is applied, and in which the flash steam is mixed with the heating steam and fed from it as mixed steam to the heat exchanger. - a process chamber having at least one product inlet for the feeding of particles to be dried into the process chamber space and having a product outlet for the evacuation of dried particles from the process chamber, - a heat exchanger arranged within the process chamber, - comprising at least one inlet (21, 211) in the heat exchanger for highly pressurized steam as heating steam and at least one condensate outlet (22, 222) from the heat exchanger, wherein - the at least one condensate outlet (22, 222) is connected to an expansion tank,
Cardan drive for connecting a power take-off of an agricultural vehicle to an input shaft of an agricultural implement, wherein the cardan drive comprises a primary shaft and a secondary shaft which are mutually connected via a double universal joint so as to thus obtain a homokinetic connection between the primary and the secondary shaft, characterised in that the double universal joint has an intermediate element formed substantially by two yokes (10, 11) of the double universal joint, wherein at least one of the two yokes (10, 11) is connected via bearings to a frame provided for attachment to the agricultural implement.
A method of manufacturing an optoelectronic sensor having at least one optical component (12, 16) in a predetermined adjustment, characterized in that in a first step the optical component (12, 16) is brought into the predetermined adjustment by means of a positioning device (24a-b) and is held in this adjustment by the positioning device (24a-b) and in that subsequently an optics holder which fixes the optical component (12, 16) in the predetermined adjustment is produced around the optical component (12, 16) in a 3D printing process, and in that the optical component (12, 16) is released by the positioning device (24a-b) once the material of the 3D printing process fixes the optical component (12, 16) in the adjustment.
A method of a User Equipment, in the following also referred to as UE, comprising: receiving a configuration of a first time alignment timer indicating a first length in a RRCConnectionRelease message, wherein the first time alignment timer is used to control validity of a first Timing Adjustment, in the following also referred to as TA, for a transmission using Preconfigured Uplink Resources, in the following also referred to as PUR, in RRC_IDLE state; starting or restarting the first time alignment timer by applying the first length during a state transition from RRC_CONNECTED state to the RRC_IDLE state; and performing a Media Access Control, in the following also referred to as MAC, reset in response to reception of the RRCConnectionRelease message, wherein the UE does not stop the first time alignment timer when performing the MAC reset. receiving a configuration of a first time alignment timer indicating a first length in a RRCConnectionRelease message, wherein the first time alignment timer is used to control validity of a first Timing Adjustment, in the following also referred to as TA, for a transmission using Preconfigured Uplink Resources, in the following also referred to as PUR, in RRC_IDLE state; starting or restarting the first time alignment timer by applying the first length during a state transition from RRC_CONNECTED state to the RRC_IDLE state; and performing a Media Access Control, in the following also referred to as MAC, reset in response to reception of the RRCConnectionRelease message, wherein the UE does not stop the first time alignment timer when performing the MAC reset.
A method for predicting protein yield for translation of a gene, and wherein at least one step of the method is performed on a computer, the method comprising: (a) determining ribosome wait time at each codon in a coding region of an mRNA encoding the protein, comprising determining a number of cycles at each codon, wherein the number of cycles is a function of tRNA abundance, ribosome displacement magnitude, and force from binding between the mRNA and a 3' terminal rRNA tail of the ribosome; and (b) determining a total cycle count across codons throughout the coding region; wherein the total cycle count across codons throughout the coding region is correlated with protein yield. (a) determining ribosome wait time at each codon in a coding region of an mRNA encoding the protein, comprising determining a number of cycles at each codon, wherein the number of cycles is a function of tRNA abundance, ribosome displacement magnitude, and force from binding between the mRNA and a 3' terminal rRNA tail of the ribosome; and (b) determining a total cycle count across codons throughout the coding region;
A process for release of hydrogen by dehydrogenating hydrogenated liquid organic compounds using a catalyst having general formula M/support wherein metal M is at least one metal selected from the group consisting of Pt, Pd, Rh, Ru, Ir, Os: dispersed on support, the support is a metal oxide being selected from Y 2 O 3 and V 2 O 5 or combinations thereof; the process comprising the steps of: a) feeding hydrogenated liquid organic compound through a flow pump and controller to a fixed bed reactor having the catalyst placed therein the reactor, b) reacting hydrogenated liquid organic compounds with the catalyst and heating the temperature of the catalyst in the reactor in the range of 120 to 400°C to obtain products, c) separating the products with a condenser by cooling to a temperature in the range of 2-50°C subsequent to removal of products from reactor by introducing a carrier gas in the reactor through a flowmeter to obtain liquid and gaseous hydrogen product, wherein the obtained liquid is stored in storage d) passing the gaseous hydrogen product as obtained in step (c) through an entrainment separator to release hydrogen, e) passing the hydrogen to a compressor. a) feeding hydrogenated liquid organic compound through a flow pump and controller to a fixed bed reactor having the catalyst placed therein the reactor, b) reacting hydrogenated liquid organic compounds with the catalyst and heating the temperature of the catalyst in the reactor in the range of 120 to 400°C to obtain products, c) separating the products with a condenser by cooling to a temperature in the range of 2-50°C subsequent to removal of products from reactor by introducing a carrier gas in the reactor through a flowmeter to obtain liquid and gaseous hydrogen product, wherein the obtained liquid is stored in storage d) passing the gaseous hydrogen product as obtained in step (c) through an entrainment separator to release hydrogen, e) passing the hydrogen to a compressor.
An information processing apparatus(16, 36), for use in association with motor-driven movable bodies of a discharge source and a discharge destination driven by using electric power of batteries (11, 31), comprising: a user input unit to input information about a requested discharge amount, a travelable information display unit that is adapted to display before a discharge, information about places to which the motor-driven movable body of the discharge source can move using electric power of the battery left after the discharge by assuming a case in which the requested discharge amount is discharged from the battery of the motor-driven movable body of the discharge source toward the motor-driven movable body of the discharge destination via a power line. a user input unit to input information about a requested discharge amount, a travelable information display unit that is adapted to display before a discharge, information about places to which the motor-driven movable body of the discharge source can move using electric power of the battery left after the discharge by assuming a case in which the requested discharge amount is discharged from the battery of the motor-driven movable body of the discharge source toward the motor-driven movable body of the discharge destination via a power line.
An electric wheel assembly with an integrated hub motor, comprising: a rim adapted to mount a tire and having a spoke plate at an axial end of the rim; a hub connected to the spoke plate; a steering knuckle assembly comprising a knuckle sleeve, the knuckle sleeve being fitted over a shaft section of the hub, the knuckle sleeve and the hub being provided with a hub bearing therebetween; an inner rotor motor provided inside the rim and comprising: a motor housing comprising a motor rotor holder fitted over an outside of the knuckle sleeve, a rotor having a hollow structure, fitted over and secured on the motor rotor holder, and a stator fitted in and secured on the motor housing, the stator being fitted over an outside of the rotor; a planetary reducer comprising: a sun gear connected to an end of the motor rotor holder close to the spoke plate and being an input end of the planetary reducer, and a planet carrier integrated with the hub and being an output end of the planetary reducer; and a braking system comprising a brake disc, characterised in that the brake disc is fitted over the motor rotor holder through a brake disc connection sleeve and located at an end of the motor rotor holder away from the spoke plate, and the braking system is configured to brake the electric wheel assembly by braking the motor rotor holder. a rim adapted to mount a tire and having a spoke plate at an axial end of the rim; a hub connected to the spoke plate; a steering knuckle assembly comprising a knuckle sleeve, the knuckle sleeve being fitted over a shaft section of the hub, the knuckle sleeve and the hub being provided with a hub bearing therebetween; an inner rotor motor provided inside the rim and comprising: a motor housing comprising a motor rotor holder fitted over an outside of the knuckle sleeve, a rotor having a hollow structure, fitted over and secured on the motor rotor holder, and a stator fitted in and secured on the motor housing, the stator being fitted over an outside of the rotor; a motor housing comprising a motor rotor holder fitted over an outside of the knuckle sleeve, a rotor having a hollow structure, fitted over and secured on the motor rotor holder, and a stator fitted in and secured on the motor housing, the stator being fitted over an outside of the rotor; a planetary reducer comprising: a sun gear connected to an end of the motor rotor holder close to the spoke plate and being an input end of the planetary reducer, and a planet carrier integrated with the hub and being an output end of the planetary reducer; and a sun gear connected to an end of the motor rotor holder close to the spoke plate and being an input end of the planetary reducer, and a planet carrier integrated with the hub and being an output end of the planetary reducer; and a braking system comprising a brake disc, characterised in that the brake disc is fitted over the motor rotor holder through a brake disc connection sleeve and located at an end of the motor rotor holder away from the spoke plate, and the braking system is configured to brake the electric wheel assembly by braking the motor rotor holder.
A communication patch panel device, comprising: a plurality of ports each operably connectable to a cable; and a connection unit connected to the plurality of ports, wherein the connection unit is transitionable between a first state in which the connection unit defines a first length along which the ports are positionable and a second state in which the connection unit defines a second length along which the ports are positionable, the second length exceeding the first length, wherein the connection unit comprises: a tray; and a plurality of arms including a first portion and a second portion, the first portion of each arm pivotably coupled to the tray, the second portion of each arm operatively coupled to one of the plurality of ports, wherein pivoting of the arms effects transitioning of the connection unit between the first and second states. a plurality of ports each operably connectable to a cable; and a connection unit connected to the plurality of ports, wherein the connection unit is transitionable between a first state in which the connection unit defines a first length along which the ports are positionable and a second state in which the connection unit defines a second length along which the ports are positionable, the second length exceeding the first length, wherein the connection unit comprises: a tray; and a plurality of arms including a first portion and a second portion, the first portion of each arm pivotably coupled to the tray, the second portion of each arm operatively coupled to one of the plurality of ports, wherein pivoting of the arms effects transitioning of the connection unit between the first and second states. a tray; and a plurality of arms including a first portion and a second portion, the first portion of each arm pivotably coupled to the tray, the second portion of each arm operatively coupled to one of the plurality of ports, wherein pivoting of the arms effects transitioning of the connection unit between the first and second states.
A small form factor device comprising: a power source; a force sensor for sensing forces applied to the small form factor device and generating force signals based thereon; a wireless communications module powered by the power source, and a processor powered by the power source, wherein the processor is configured to: implement a proximity monitoring process involving periodically operating the wireless communications module to transmit advertisements; determine whether device stationary criteria are satisfied based on force signals received from the force sensor or the absence of force signals received from the force sensor, and if the device stationary criteria are satisfied, the processor is further configured to: cause the wireless communications module to transmit a device stationary message; and cause the small form factor device to enter a power saving mode in which the proximity monitoring process is suspended. a power source; a force sensor for sensing forces applied to the small form factor device and generating force signals based thereon; a wireless communications module powered by the power source, and a processor powered by the power source, wherein the processor is configured to: implement a proximity monitoring process involving periodically operating the wireless communications module to transmit advertisements; determine whether device stationary criteria are satisfied based on force signals received from the force sensor or the absence of force signals received from the force sensor, and if the device stationary criteria are satisfied, the processor is further configured to: implement a proximity monitoring process involving periodically operating the wireless communications module to transmit advertisements; determine whether device stationary criteria are satisfied based on force signals received from the force sensor or the absence of force signals received from the force sensor, and if the device stationary criteria are satisfied, the processor is further configured to: cause the wireless communications module to transmit a device stationary message; and cause the small form factor device to enter a power saving mode in which the proximity monitoring process is suspended.