mhurhangee/ep-ind-claims huggingface dataset:
A boiler for a steam cleaning device comprising: a thermal heat store; an electrical heating element for heating the thermal heat store; a water cooling circuit comprising a water input for receiving water from a water tank and a steam output; wherein the electrical heating element and the water cooling circuit are embedded in the thermal heat store and an outer surface of the electrical heating element is closer to an outer surface of the thermal heat store than an outer surface of the water cooling circuit characterised in that: the water cooling circuit comprises a helical coil having a longitudinal axis parallel to a longitudinal axis of the thermal heat store. a thermal heat store; an electrical heating element for heating the thermal heat store; a water cooling circuit comprising a water input for receiving water from a water tank and a steam output; wherein the electrical heating element and the water cooling circuit are embedded in the thermal heat store and an outer surface of the electrical heating element is closer to an outer surface of the thermal heat store than an outer surface of the water cooling circuit characterised in that: the water cooling circuit comprises a helical coil having a longitudinal axis parallel to a longitudinal axis of the thermal heat store.
Tension spring, comprising a spring body having windings and spring ends in opposite locations on the spring body in the axial direction for connecting the tension spring to components to be joined together, wherein at least one spring end is configured as a connection piece, preferably in the shape of an eye, which comprises a transition portion, a suspension portion and a free end portion, wherein the transition portion of the connection piece is attached to the first winding (16_1) of the spring body adjacent to the connection piece in the axial direction of the spring body. wherein the transition portion merges into the suspension portion and the suspension portion into the free end portion, and wherein the free end portion of at least one connection piece has a force transmitting attachment to the first winding (16_1) of the spring body, in order to introduce forces acting on the tension spring to the transition portion and to the free end portion of the connection piece, characterised in that the first winding (16_1) has a smaller radius or diameter, or one becoming smaller, than an adjacent further winding of the spring body, and that the free end portion is configured so that it is located in the interior of the spring body in the unstressed state of the tension spring.
A method for producing a pharmaceutical aerosol for the delivery of an active compound to the mucosa of the nose, the osteomeatal complex or a paranasal sinus, said aerosol comprising a dispersed liquid phase and a continuous gas phase, said method comprising: (a) providing an aerosol generator adapted for emitting an aerosol at an effective flow rate of less than 5 litres/min; (b) providing a means for effecting a pressure pulsation of an aerosol having a frequency in the range from 10 to 90 Hz; (c) providing a liquid composition comprising said active compound, wherein a unit dose of the active compound is comprised in a volume of less than 5 ml of said liquid composition, and (d) simultaneously operating said aerosol generator for nebulising said liquid composition into an aerosol at an effective flow rate of less than 5 litres/min and operating said means to effect a pressure pulsation of the aerosol at a frequency in the range from 10 to 90 Hz; wherein the effective flow rate is the flow rate of the aerosol as it enters the respiratory system of the patient. (a) providing an aerosol generator adapted for emitting an aerosol at an effective flow rate of less than 5 litres/min; (b) providing a means for effecting a pressure pulsation of an aerosol having a frequency in the range from 10 to 90 Hz; (c) providing a liquid composition comprising said active compound, wherein a unit dose of the active compound is comprised in a volume of less than 5 ml of said liquid composition, and (d) simultaneously operating said aerosol generator for nebulising said liquid composition into an aerosol at an effective flow rate of less than 5 litres/min and operating said means to effect a pressure pulsation of the aerosol at a frequency in the range from 10 to 90 Hz;
Polypeptide comprising an amino acid sequence, said amino acid sequence exhibiting i) at least 90% sequence identity with the sequence of SEQ ID NO: 1, wherein residue X1 of SEQ ID NO: 1 may be absent or any amino acid, and each residue of residues X14, X23, X50, X82, X122, X149, X154, X160, X167, X179, X180, X186, X206, X212, X224, X230, and X232 of SEQ ID NO: 1 may be any amino acid; and ii) at least one of the residues corresponding to position X14, X23 and X50 of SEQ ID NO: 1 is S; wherein the polypeptide does neither comprise the amino acid sequence of SEQ ID NO: 2, nor SEQ ID NO:3 nor SEQ ID NO: 4, and wherein the polypeptide degrades the peptidoglycan of Pseudomonas and/or Campylobacter bacteria. i) at least 90% sequence identity with the sequence of SEQ ID NO: 1, wherein residue X1 of SEQ ID NO: 1 may be absent or any amino acid, and each residue of residues X14, X23, X50, X82, X122, X149, X154, X160, X167, X179, X180, X186, X206, X212, X224, X230, and X232 of SEQ ID NO: 1 may be any amino acid; and ii) at least one of the residues corresponding to position X14, X23 and X50 of SEQ ID NO: 1 is S;
Security gate for controlling the passage on a traffic lane, comprising a rail, a support assembly that carries the rail, said rail able to be displaced with respect to the support assembly when it undergoes, in the horizontal rest position, an impact greater than a threshold, in order to as such prevent the deterioration thereof, and elastic means (222, 224) for automatically setting the rail back in place on said support assembly, characterised by the fact that it comprises means (260, 160) for detecting the displacement of the rail with respect to the support assembly and means adapted for automatically positioning the support assembly in vertical position during a detection of an unhinging of the rail, in such a way that the rehinging of the latter on the support assembly occurs outside of the traffic lane.
A method for bidirectional communication between a first communicating unit and a second communicating unit which each comprise a transmission memory and a receiving memory which are intended to save digital samples, a "physical layer" communication protocol being used to control the series transmission of the digital samples between the two communicating units (101, 102), said "physical layer" communication protocol being selected from the protocols JESD204B and JESD204C, the method comprising the following steps which are carried out during a receiving time window by the second communicating unit in response to receiving a transmission activation signal from the first communicating unit: - if at least one digital sample is saved in the transmission memory of the second communicating unit, forming a first packet of digital samples, said first packet of digital samples comprising at least: a body and a start of packet marker, said body comprising at least one digital sample, said start of packet marker comprising a field which indicates the size, in terms of a number of transported digital samples, of a packet of digital samples; - transmitting to the first communicating unit a first digital data signal which transports the formed first packet of digital samples, the first packet of digital samples being transformed in accordance with said "physical layer" communication protocol, the first digital data signal being obtained by formatting in accordance with a first wave shape from the transformed first packet of digital samples; the first communicating unit transmitting said transmission activation signal as a function of the filling state of the transmission memory of the second unit and determining, in response to receiving the first digital data signal, the number of digital samples transported in the received packet of digital samples, from the start of packet marker. - if at least one digital sample is saved in the transmission memory of the second communicating unit, forming a first packet of digital samples, said first packet of digital samples comprising at least: a body and a start of packet marker, said body comprising at least one digital sample, said start of packet marker comprising a field which indicates the size, in terms of a number of transported digital samples, of a packet of digital samples; - transmitting to the first communicating unit a first digital data signal which transports the formed first packet of digital samples, the first packet of digital samples being transformed in accordance with said "physical layer" communication protocol, the first digital data signal being obtained by formatting in accordance with a first wave shape from the transformed first packet of digital samples;
A transport apparatus, in particular a vessel or a vehicle, wherein the transport apparatus is configured to receive an offshore structure and to form a slip joint with a slip joint section of a received offshore structure, wherein the transport apparatus comprises at least one slip joint section for forming a slip joint with a lower end of the offshore structure, by self-weight of the offshore structure and wherein during transport the slip joint is formed and/or maintained under influence of the weight of the offshore structure, wherein the slip joint section of the transport apparatus and the slip joint section of the off shore structure have complementary conical or frusto-conical surfaces (8A, 9A).
Steering column for a motor vehicle, with a steering shaft comprising a rear steering shaft segment, which extends in a straight line and is rotatable about a longitudinal centre axis and to which at a rear end a steering wheel is mountable, and at least one further steering shaft segment which is connected with the rear steering shaft segment via a universal joint which comprises a rear joint fork, a front joint fork and a joint cross connecting the rear joint fork and the front joint fork, wherein for damping vibrations transmitted via the steering shaft a damping device is provided comprising an inner damper part which, viewed in cross section through the damping device, has an outer circumferential contour deviating from the circular form, an outer damper part, encompassing the inner damper part and having an inner circumferential contour deviating, viewed in cross section through the damping device, from the circular form, and an elastomeric damping material disposed between the inner damper part and the outer damper part, characterised in that the damping device is integrated into the rear steering shaft segment, wherein the inner and the outer damper part (13, 14) are rotatable about the longitudinal centre axis of the rear steering shaft segment, and in that the outer damper part has an outer circumferential contour, deviating, viewed in cross section through the damping device, from the circular form, with which it is in engagement under form closure, with respect to the rotational direction about the longitudinal centre axis, with an inner circumferential contour, deviating, viewed in cross section through the damping device, from the circular form, of a sleeve-shaped segment of a first shaft part of the rear steering shaft segment.
A method for operating a terminal in a wireless communication system, the method comprising: determining one or more uplink transmission beam patterns and one or more uplink reception beam patterns, receiving, from a base station, a plurality of downlink reference signals; determining, based on the received plurality of downlink reference signals, at least one downlink transmission beam pattern, transmitting, to the base station, first index information relating to the at least one downlink transmission beam pattern, using the determined one or more uplink transmission beam patterns; and when the first index information relating to the at least one downlink transmission beam pattern is not received by the base station: transmitting, to the base station, a plurality of uplink reference signals; receiving, from the base station, second index information relating to an uplink transmission beam pattern, the method further comprising: transmitting, ACKnowledgement, ACK, information, if the second index information relating to the uplink transmission beam pattern is received from the base station; and transmitting, negative ACKnowledgement, NACK, information if the second index information relating to the uplink transmission beam pattern is not received from the base station. determining one or more uplink transmission beam patterns and one or more uplink reception beam patterns, receiving, from a base station, a plurality of downlink reference signals; determining, based on the received plurality of downlink reference signals, at least one downlink transmission beam pattern, transmitting, to the base station, first index information relating to the at least one downlink transmission beam pattern, using the determined one or more uplink transmission beam patterns; and when the first index information relating to the at least one downlink transmission beam pattern is not received by the base station: transmitting, to the base station, a plurality of uplink reference signals; receiving, from the base station, second index information relating to an uplink transmission beam pattern, transmitting, to the base station, a plurality of uplink reference signals; receiving, from the base station, second index information relating to an uplink transmission beam pattern, the method further comprising: transmitting, ACKnowledgement, ACK, information, if the second index information relating to the uplink transmission beam pattern is received from the base station; and transmitting, negative ACKnowledgement, NACK, information if the second index information relating to the uplink transmission beam pattern is not received from the base station. transmitting, ACKnowledgement, ACK, information, if the second index information relating to the uplink transmission beam pattern is received from the base station; and transmitting, negative ACKnowledgement, NACK, information if the second index information relating to the uplink transmission beam pattern is not received from the base station.
Process for isolating noble metal from noble metal-containing materials in aqueous solution, which comprises the steps A) contacting of the noble metal-containing materials with an oxidizing agent, B) contacting of the noble metal-containing material with a reducing agent, wherein the process steps A and B represent a reaction cycle which is repeated. A) contacting of the noble metal-containing materials with an oxidizing agent, B) contacting of the noble metal-containing material with a reducing agent,
A single-unit nose cone for a ram air turbine, comprising: a dome portion located at a forward end of the single unit nose cone; a dome stand portion adjacent to the dome portion, the dome stand portion having a diameter; a seat portion adjacent to the dome stand portion, the seat portion having a diameter; and a stem portion adjacent to the seat portion and located at an aft end of the single-unit nose cone, wherein the stem portion is configured to operably connect to a turbine shaft, characterized in that: the dome portion, the dome stand portion, the seat portion, and the stem portion are composed from a single piece of material having a density of about 7916 kilogram/cubic meter (0.286 pound/cubic inch), and wherein the diameter of the seat portion is greater than the diameter of the dome stand portion so as to secure the single-unit nose cone within a nose assembly by the seat portion and a snap ring, wherein the dome stand portion is interposed between the dome portion and the seat portion, and wherein the seat portion is interposed between the dome stand portion and the stem portion. a dome portion located at a forward end of the single unit nose cone; a dome stand portion adjacent to the dome portion, the dome stand portion having a diameter; a seat portion adjacent to the dome stand portion, the seat portion having a diameter; and a stem portion adjacent to the seat portion and located at an aft end of the single-unit nose cone, wherein the stem portion is configured to operably connect to a turbine shaft, characterized in that: the dome portion, the dome stand portion, the seat portion, and the stem portion are composed from a single piece of material having a density of about 7916 kilogram/cubic meter (0.286 pound/cubic inch), and wherein the diameter of the seat portion is greater than the diameter of the dome stand portion so as to secure the single-unit nose cone within a nose assembly by the seat portion and a snap ring, wherein the dome stand portion is interposed between the dome portion and the seat portion, and wherein the seat portion is interposed between the dome stand portion and the stem portion. the dome portion, the dome stand portion, the seat portion, and the stem portion are composed from a single piece of material having a density of about 7916 kilogram/cubic meter (0.286 pound/cubic inch), and wherein the diameter of the seat portion is greater than the diameter of the dome stand portion so as to secure the single-unit nose cone within a nose assembly by the seat portion and a snap ring, wherein the dome stand portion is interposed between the dome portion and the seat portion, and wherein the seat portion is interposed between the dome stand portion and the stem portion.
A resonator device comprising: a mechanical resonator; a closed feed-back loop including a first transducer (43, 44), a second transducer (45, 46) and a control element; the first transducer is configured to output a first electrical signal that corresponds to displacement of a reference point in the mechanical resonator with respect to an inertial frame of reference, the mechanical resonator having a first resonance frequency; the control element is electrically coupled to the first transducer and the second transducer; the control element is configured to receive from the first transducer the first electrical signal and generate a second electrical signal according to a specific response function, the response function defining correspondence between values of the first electrical signal and the second electrical signal; the control element is configured to feed the second electrical signal to the second transducer; characterized in that the second transducer is configured to exert to the mechanical resonator a damping force that corresponds to the second electrical signal; the control element is a signal processing filter, the response function of the signal processing filter has a resonant frequency peak that essentially coincides with the first resonance frequency, and the quality factor of the signal processing filter is more than 1. a mechanical resonator; a closed feed-back loop including a first transducer (43, 44), a second transducer (45, 46) and a control element; the first transducer is configured to output a first electrical signal that corresponds to displacement of a reference point in the mechanical resonator with respect to an inertial frame of reference, the mechanical resonator having a first resonance frequency; the control element is electrically coupled to the first transducer and the second transducer; the control element is configured to receive from the first transducer the first electrical signal and generate a second electrical signal according to a specific response function, the response function defining correspondence between values of the first electrical signal and the second electrical signal; the control element is configured to feed the second electrical signal to the second transducer; characterized in that the second transducer is configured to exert to the mechanical resonator a damping force that corresponds to the second electrical signal; the control element is a signal processing filter, the response function of the signal processing filter has a resonant frequency peak that essentially coincides with the first resonance frequency, and the quality factor of the signal processing filter is more than 1.
A brake device for a caster (4, 4a) comprising: a plurality of projecting parts formed concentrically on opposite side-surfaces of a roller, and levers set across the roller at opposite side-panels of a fork so as to be opposed to the projecting parts, and a claw formed at a tip of each of the levers so as to be opposed to each of the projecting parts, wherein the levers are operated, so that the claw is engaged with a concave part formed between the projecting parts, to lock the rotation of the roller, characterized in that a cable coupling unit having a slide body is set at an intermediate point of a cable (25, 26), and the cable on an operation lever side and the cable on the lever side are coupled via the slide body, wherein the cable coupling unit comprises at least one compression spring, wherein at least one tension spring (28, 30, 31, 33) is operatively interposed between the cable and the slide body and/or the cable and the lever.
An exhaust receiver arrangement for a large two-stroke engine having a plurality of cylinders, wherein the exhaust receiver arrangement comprises a tubular exhaust receiver for collecting exhaust gas from the cylinders, with the exhaust receiver extending from a first end in an axial direction to a second end and being designed for extending along the cylinders, and wherein the exhaust receiver comprises a plurality of inlet openings for receiving exhaust ducts of the cylinders, wherein a damping device is provided for reducing pressure pulsations in the exhaust receiver, wherein the damping device comprises at least one resonance absorber (4, 4'), wherein each resonance absorber (4, 4') is configured to dampen a resonance frequency of the exhaust receiver such that, by reducing the pressure pulsations in the exhaust receiver, an unbalance of a scavenging process for the cylinders is reduced, characterized in that the exhaust receiver comprises two tubular elements (25, 26), which are arranged in-line, and which are connected by a transition element arranged between the two tubular elements (25, 26).
A pneumatic tire comprising a tread portion provided with a plurality of blocks divided by a plurality of main grooves extending continuously in the tire circumferential direction, and a plurality of axial grooves (16, 17, 18) connecting between the main grooves, wherein the blocks include a siped block, the siped block has a first block side wall and a second block side wall respectively extending along the main grooves on both sides thereof, and is provided with a first sipe extending from the first block side wall to the second block side wall, in the top view of the siped block, the first block side wall and the second block side wall are substantially v-shaped to have a vertex (27a, 27b) protruding in the tire axial direction outwardly of the block, and one end of the first sipe is positioned on one side in the tire circumferential direction of the vertex of the first block side wall, whereas the other end of the first sipe is positioned on the other side in the tire circumferential direction of the vertex of the second block side wall, characterized in that the first sipe subdivides the siped block into two regions (35a, 35b), each region (35a, 35b) being provided with a second sipe which is connected with neither a groove nor a sipe and of which both ends are terminated within the region (35a, 35b).