mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a terminal in a wireless communication system, the method comprising: selecting, among a first preamble group and a second preamble group, the second preamble group, in case that the second preamble group is configured, a media access control, MAC, service data unit, SDU, is associated with a common control channel, CCCH, and a size of the MAC SDU plus a MAC subheader corresponding to the MAC SDU is greater than a predetermined value associated with the first preamble group; transmitting, to a base station, a random access preamble based on the second preamble group; receiving, from the base station, a random access response as a response to the random access preamble, the random access response including an uplink grant; identifying a logical channel identifier, LCID, for the MAC SDU based on a size of the MAC SDU,; generating a MAC protocol data unit, PDU, including the MAC subheader and the MAC SDU, the identified LCID being included in a LCID field of the MAC subheader; and transmitting, to the base station, the MAC PDU based on the uplink grant, wherein a size of the MAC subheader is 1 byte, wherein the MAC subheader includes two reserved, R, bits and the LCID field of which a size is 6 bits, wherein the LCID is identified to a first predetermined value, in case that the size of the MAC SDU is 48 bits, and wherein the LCID is identified to a second predetermined value, in case that the size of the MAC SDU is 64 bits. selecting, among a first preamble group and a second preamble group, the second preamble group, in case that the second preamble group is configured, a media access control, MAC, service data unit, SDU, is associated with a common control channel, CCCH, and a size of the MAC SDU plus a MAC subheader corresponding to the MAC SDU is greater than a predetermined value associated with the first preamble group; transmitting, to a base station, a random access preamble based on the second preamble group; receiving, from the base station, a random access response as a response to the random access preamble, the random access response including an uplink grant; identifying a logical channel identifier, LCID, for the MAC SDU based on a size of the MAC SDU,; generating a MAC protocol data unit, PDU, including the MAC subheader and the MAC SDU, the identified LCID being included in a LCID field of the MAC subheader; and wherein a size of the MAC subheader is 1 byte, wherein the MAC subheader includes two reserved, R, bits and the LCID field of which a size is 6 bits, wherein the LCID is identified to a first predetermined value, in case that the size of the MAC SDU is 48 bits, and wherein the LCID is identified to a second predetermined value, in case that the size of the MAC SDU is 64 bits.
A method of wireless communication performed by a user equipment, UE, comprising: receiving an indication of a demodulation reference signal, DMRS, port to be used by the UE for transmitting a DMRS communication, the indication enabling the UE to determine a base sequence for transmitting the DMRS communication if pi over two binary phase shift keying, BPSK, modulation is used; determining the base sequence based at least in part on performing a modulo two operation on a DMRS port index of the DMRS port; generating a DMRS sequence for the DMRS port based at least in part on the base sequence; and transmitting the DMRS communication including the DMRS sequence via the DMRS port in an uplink transmission that is modulated using the pi over two BPSK modulation. receiving an indication of a demodulation reference signal, DMRS, port to be used by the UE for transmitting a DMRS communication, the indication enabling the UE to determine a base sequence for transmitting the DMRS communication if pi over two binary phase shift keying, BPSK, modulation is used; determining the base sequence based at least in part on performing a modulo two operation on a DMRS port index of the DMRS port; generating a DMRS sequence for the DMRS port based at least in part on the base sequence; and transmitting the DMRS communication including the DMRS sequence via the DMRS port in an uplink transmission that is modulated using the pi over two BPSK modulation.
A flexible track switchgear for equipping a crossing for a track for carrying rubber-tired trains, which track comprises two parallel rails, each having an upper running surface for the tires and an inner side surface for supporting a continuous strip for guiding the train, the track switchgear comprising - two parallel chains of switch elements, each switch element having at least one hinge providing the longitudinal link to an adjacent switch element of the same chain, and a set of longitudinal abutments (12, 13) which engage with said hinge in order to adjust the relative angular orientation of said element and engage with a pivoting bottom rod providing the connection to and the parallelism with an identical switch element of the other chain, which identical switch element is arranged symmetrically on the opposite side of the switch, - two end sections which are hinged, respectively, on the switch elements located at the ends of the two chains and which ensure the alignment and locking of the two chains with the guard rails of the crossing and ensure the link to devices for controlling the pivoting of the two chains mounted on the outer edges of the track, and characterised in that the track switchgear comprises - a central switch rail rotatively mounted in the axial extension of the core of the crossing and having a spatulated end branch alternately aligned with the respective end sections of the two chains. - two parallel chains of switch elements, each switch element having at least one hinge providing the longitudinal link to an adjacent switch element of the same chain, and a set of longitudinal abutments (12, 13) which engage with said hinge in order to adjust the relative angular orientation of said element and engage with a pivoting bottom rod providing the connection to and the parallelism with an identical switch element of the other chain, which identical switch element is arranged symmetrically on the opposite side of the switch, - two end sections which are hinged, respectively, on the switch elements located at the ends of the two chains and which ensure the alignment and locking of the two chains with the guard rails of the crossing and ensure the link to devices for controlling the pivoting of the two chains mounted on the outer edges of the track, and characterised in that the track switchgear comprises - a central switch rail rotatively mounted in the axial extension of the core of the crossing and having a spatulated end branch alternately aligned with the respective end sections of the two chains.
A method for forming a metal oxide thin film pattern using nanoimprinting, wherein the method comprises the steps of: coating a photosensitive metal-organic material precursor solution on a substrate; preparing a mold patterned to have a protrusion and depression structure; pressurizing the photosensitive metal-organic material precursor coating layer with the patterned mold; forming a cured metal oxide thin film pattern (31; 35) by irradiating ultraviolet rays to the pressurized photosensitive metal-organic material precursor coating layer while heating the pressurized photosensitive metal-organic material precursor coating layer additionally so that the pressurized photosensitive metal-organic material precursor coating layer is submitted to a pyrolysis reaction and a photolysis reaction at the same time; and removing the patterned mold from the metal oxide thin film pattern (31; 35). coating a photosensitive metal-organic material precursor solution on a substrate; preparing a mold patterned to have a protrusion and depression structure; pressurizing the photosensitive metal-organic material precursor coating layer with the patterned mold; forming a cured metal oxide thin film pattern (31; 35) by irradiating ultraviolet rays to the pressurized photosensitive metal-organic material precursor coating layer while heating the pressurized photosensitive metal-organic material precursor coating layer additionally so that the pressurized photosensitive metal-organic material precursor coating layer is submitted to a pyrolysis reaction and a photolysis reaction at the same time; and removing the patterned mold from the metal oxide thin film pattern (31; 35).
Filtering device (50, 50a, 50b) for filtering cut-off gases for an electric current cut-off apparatus having separable contacts and comprising an electric arc extinction chamber, the filtering device (50, 50a, 50b) being characterised in that it comprises, assembled together: - an inlet part for the cut-off gases, the inlet part being made of metal material and comprising: • an inlet orifice which is to be fluidically connected to a cut-off gas outlet of an electric current cut-off apparatus, • an outlet orifice, and • at least one flared wall (62, 64, 72) extending between the inlet and outlet orifices; - a gas diffuser which covers the outlet orifice of the inlet part, the gas diffuser having a planar form and comprising through-orifices; characterised by - a filter made of porous metal foam, placed at the outlet of the gas diffuser. - an inlet part for the cut-off gases, the inlet part being made of metal material and comprising: • an inlet orifice which is to be fluidically connected to a cut-off gas outlet of an electric current cut-off apparatus, • an outlet orifice, and • at least one flared wall (62, 64, 72) extending between the inlet and outlet orifices; • an inlet orifice which is to be fluidically connected to a cut-off gas outlet of an electric current cut-off apparatus, • an outlet orifice, and • at least one flared wall (62, 64, 72) extending between the inlet and outlet orifices; - a gas diffuser which covers the outlet orifice of the inlet part, the gas diffuser having a planar form and comprising through-orifices; characterised by - a filter made of porous metal foam, placed at the outlet of the gas diffuser.
A crimp comprising a cylindrical tube of material, characterised in that the material is an alloy comprising copper, iron, nickel, manganese and lead including: nickel present in quantities of 9 to 11 %wt; iron present in quantities of 1 to 2 %wt; manganese present in quantities of 0.3 to 1 %wt; and lead present in quantities of up to 0.1 %wt. nickel present in quantities of 9 to 11 %wt; iron present in quantities of 1 to 2 %wt; manganese present in quantities of 0.3 to 1 %wt; and lead present in quantities of up to 0.1 %wt.
A linear turning-in/folding machine, especially suitable for the processing of leather, comprising: a support structure and a processing unit comprising a front part with a support surface, a tilting presser with a first profile stabilised to it and a second profile which can be activated by an actuator, a first fixed metal plate stabilised with fixing means to said processing unit and provided with heating means and a projection having a cusp-shaped section and formed on its exposed surface, said first fixed metal plate cooperating with a second movable metal plate in combination with movement means of the same in the vertical direction and for its horizontal translation in the direction of said support surface; characterised in that said first fixed plate comprises an insulating portion made of heat-insulating material positioned and stabilised in a housing formed on the exposed surface of the same first fixed plates on the side disposed towards said support surface, said insulating portion being coplanar and contiguous with the exposed surface of said first fixed plate.
A vehicle safety illumination arrangement, comprising an automatic head light control unit for modulating an intensity of at least one head light of a hosting vehicle between at least a low beam mode and a high beam mode, the automatic head light control unit being arranged to, in an activated state, switch between said low beam mode and said high beam mode on the basis of at least one input from at least one sensor (41, 42), the input being indicative of at least one of a traffic situation and an illumination condition, the arrangement comprises means for activating said automatic head light control unit, and means (91, 92) to detect an object in front of said hosting vehicle, hosting said arrangement, the arrangement comprising processing means arranged to determine if an object detected constitutes a potential collision threat to said hosting vehicle, characterized in that the arrangement is arranged to activate said automatic head light control unit if a detected object in front of said hosting vehicle is determined to constitute said potential collision threat to said vehicle, wherein the automatic head light control unit in the activated state is arranged to activate said high beam mode if a detected object in front of said vehicle is determined to constitute a potential collision threat to said hosting vehicle.
Clutch pedal arrangement for a clutch of a motor vehicle having a rotatably mounted clutch pedal and means for generating a predetermined profile of the pedal force plotted against the pedal travel, which means comprise a pedal arm which is connected in a rotationally fixed fashion to the clutch pedal and can move counter to a spring force, wherein the pedal arm acts on a rotatably mounted lever arm to which an opposing force is applied, and when the clutch pedal is actuated said pedal arm is moved on a contour of the lever arm, wherein at least one restoring spring is provided which acts in a restoring fashion on the clutch pedal, wherein the opposing force is generated by a lever spring, acting on the lever arm, or an actuator.
A system for reinforcing lighter-than-air aircrafts, such as aerostats, comprising: - a modular buoyancy platform made up of flotation segments, wherein said flotation segments comprise one or more gas cells; - a smart control network configured to dynamically control a buoyancy level of said lighter-than-air aircraft, said smart control network comprising: ∘ an on-board computer, ∘ a microcontroller in each of said one or more gas cells, ∘ a plurality of sensors, and ∘ a communication network, characterised in that it further comprises a reinforcement and integration structure comprising a prismatic modular structure; wherein: - the reinforcement and integration structure is made of a material including nano-structured metal alloys, a carbon fiber, an aerogel or a light weight material; - the plurality of sensors are arranged throughout the reinforcement and integration structure; - the flotation segments are integrated in the reinforcement and integration structure in a honeycomb configuration; and - the one or more gas cells are connected by means of channels forming a grid in order to exchange and distribute a floating gas from cell to cell, wherein the floating gas is hydrogen. - a modular buoyancy platform made up of flotation segments, wherein said flotation segments comprise one or more gas cells; - a smart control network configured to dynamically control a buoyancy level of said lighter-than-air aircraft, said smart control network comprising: ∘ an on-board computer, ∘ a microcontroller in each of said one or more gas cells, ∘ a plurality of sensors, and ∘ a communication network, ∘ an on-board computer, ∘ a microcontroller in each of said one or more gas cells, ∘ a plurality of sensors, and ∘ a communication network, - the reinforcement and integration structure is made of a material including nano-structured metal alloys, a carbon fiber, an aerogel or a light weight material; - the plurality of sensors are arranged throughout the reinforcement and integration structure; - the flotation segments are integrated in the reinforcement and integration structure in a honeycomb configuration; and - the one or more gas cells are connected by means of channels forming a grid in order to exchange and distribute a floating gas from cell to cell, wherein the floating gas is hydrogen.
Method for inspecting a container body adapted and configured to hold substrates, comprising the steps of - directing light from a light source onto a reflector element positioned within an interior space of the container body, such that the light is reflected to illuminate at least one interior surface (21a, 22a) of the container body, wherein the light is reflected by the reflector element in a diffuse manner - generating at least one image of the at least one interior surface by means of at least one camera, and - evaluating the state of the container body on the basis of the at least one image. - directing light from a light source onto a reflector element positioned within an interior space of the container body, such that the light is reflected to illuminate at least one interior surface (21a, 22a) of the container body, wherein the light is reflected by the reflector element in a diffuse manner - generating at least one image of the at least one interior surface by means of at least one camera, and - evaluating the state of the container body on the basis of the at least one image.
A method for generating a unique identifier, the method comprising: providing a multi-branched dendritic structure; reading the multi-branched dendritic structure to provide a signal; and generating a unique identifier from the signal, characterized in that the multi-branched dendritic structure is obtainable by a stochastic electrodeposition process. providing a multi-branched dendritic structure; reading the multi-branched dendritic structure to provide a signal; and generating a unique identifier from the signal, characterized in that the multi-branched dendritic structure is obtainable by a stochastic electrodeposition process.
Flue gas cleaning installation with a fluidized bed reactor comprising a flue gas inlet unit, a reactor chamber and a nozzle unit, wherein the nozzle unit is arranged between the flue gas inlet unit and the reactor chamber, wherein the nozzle unit comprises nozzles of a first type for the introduction of the gas to be cleaned and a solid into the reactor chamber and wherein the nozzle unit comprises nozzles of a second type for the introduction of liquid into the reactor chamber, wherein the number of nozzles of the first type substantially corresponds to the number of nozzles of the second type, wherein the nozzles of the first type and the nozzles of the second type are arranged relative to one another in such a way that their outlets on the reactor chamber side are at an angle of between 100° and 130° relative to one another, wherein the nozzles of the second type are designed as atomizer nozzles, wherein the nozzles of the first type are designed as Venturi nozzles.
A composition comprising a semicrystalline polyketone powder having a bimodal melt peak determined by an initial differential scanning calorimetry scan at 20 °C/min and a D 90 particle size of at most 300 micrometers and average particle size D 50 of 1 micrometer to 150 micrometers equivalent spherical diameter determined by laser diffraction, wherein the semicrystalline polyketone powder is a copolymer of ethylene, carbon monoxide and at least one other alkene monomer.
A rapid charging system (10, 82, 94, 98) for electrically driven vehicles, in particular electric buses or the like, the rapid charging system comprising a contact apparatus (11, 99) and a mounting device for mounting the contact apparatus, wherein the contact apparatus serves to form an electrical conductive connection between a vehicle and a stationary charging station comprising a charging contact unit (12, 89, 100), wherein the contact apparatus and the mounting device can be arranged on a vehicle, wherein the contact apparatus comprises a contact device (14, 83, 114), wherein the contact device can make contact with the charging contact unit, wherein the contact apparatus comprises a positioning device (15, 113), wherein the contact device can be positioned relative to the charging contact unit and to the vehicle in the vertical and horizontal direction and can be brought from a contact position on the charging contact unit into a mounting position on the mounting device on the vehicle by means of the positioning device, wherein the contact device can be moved toward the mounting device in the vertical direction by means of the positioning device, characterized in that the positioning device has a pantograph or a swing arm for positioning the contact device in the vertical direction relative to the charging contact unit and/or to the vehicle, wherein the mounting device forms a receiving opening comprising a guiding device, by means of which the contact device can be positioned in the mounting position in the vertical direction and in the horizontal direction as the contact device moves vertically downward, wherein the guiding device is designed to guide the contact device into the mounting position.
An inverter stack, comprising: an enclosure on which an inlet port is formed at a lower end thereof and an outlet port is formed at an upper end thereof, the enclosure defining an internal space; a heat sink having a switching element, disposed within an upper region of the internal space; and a plurality of DC-link capacitors disposed within the internal space and below the heat sink, wherein the heat sink comprises a heat-dissipating plate and a plurality of heat-dissipating fins protruded from one side surface of the heat-dissipating plate and separately disposed in parallel to one another, wherein the inverter stack comprises a bus plate, the bus plate disposes below the heat-dissipating plate of the heat sink, and a lower end of the bus plate contacts a bottom plate of the enclosure, wherein the heat-dissipating plate and the bus plate partition an internal space of the enclosure into two spaces in a frontward and rearward direction, wherein a front space of the two spaces partitioned by the heat-dissipating plate and the bus plate is a circuit element chamber and a rear space thereof is an air passage through which the air drawn in from the inlet port flows to the outlet port, characterized in that the bus plate of the inverter stack is disposed at a front side of the DC-link capacitors and in that the plurality of DC-link capacitors is disposed in the air passage. an enclosure on which an inlet port is formed at a lower end thereof and an outlet port is formed at an upper end thereof, the enclosure defining an internal space; a heat sink having a switching element, disposed within an upper region of the internal space; and a plurality of DC-link capacitors disposed within the internal space and below the heat sink, wherein the heat sink comprises a heat-dissipating plate and a plurality of heat-dissipating fins protruded from one side surface of the heat-dissipating plate and separately disposed in parallel to one another, wherein the inverter stack comprises a bus plate, the bus plate disposes below the heat-dissipating plate of the heat sink, and a lower end of the bus plate contacts a bottom plate of the enclosure, wherein the heat-dissipating plate and the bus plate partition an internal space of the enclosure into two spaces in a frontward and rearward direction, wherein a front space of the two spaces partitioned by the heat-dissipating plate and the bus plate is a circuit element chamber and a rear space thereof is an air passage through which the air drawn in from the inlet port flows to the outlet port, characterized in that the bus plate of the inverter stack is disposed at a front side of the DC-link capacitors and in that the plurality of DC-link capacitors is disposed in the air passage.