mhurhangee/ep-ind-claims huggingface dataset:
A flat bed trailer for transporting an item of heavy machinery having a moveable arm attached to a bucket or a breaker, the flat bed trailer comprising: a floor, a plurality of wheels for travel over roads; a coupling mechanism for coupling the trailer to a towing vehicle; at least two restraining bars (30, 40) each having a restraining position in which the respective restraining bar is disposed substantially laterally across the trailer to restrain the item of heavy machinery when positioned on the flat bed trailer; a first bar retainer (26, 28) for retaining one of the restraining bars in its restraining position; and a second bar retainer (36, 38) for releasably retaining the other restraining bar in its restraining position; characterised in that the flat bed trailer comprises a breaker housing for receiving and restraining the breaker of the item of heavy machinery, and a support prop, the breaker housing being mounted to the floor of the trailer via said support prop. a floor, a plurality of wheels for travel over roads; a coupling mechanism for coupling the trailer to a towing vehicle; at least two restraining bars (30, 40) each having a restraining position in which the respective restraining bar is disposed substantially laterally across the trailer to restrain the item of heavy machinery when positioned on the flat bed trailer; a first bar retainer (26, 28) for retaining one of the restraining bars in its restraining position; and a second bar retainer (36, 38) for releasably retaining the other restraining bar in its restraining position; characterised in that the flat bed trailer comprises a breaker housing for receiving and restraining the breaker of the item of heavy machinery, and a support prop, the breaker housing being mounted to the floor of the trailer via said support prop.
Lipopeptide building block consisting of a peptide chain comprising a parallel coiled-coil domain which, as a self-standing lipid-free peptide, forms a parallel dimeric, trimeric or higher order oligomeric helical bundle, a proline-rich peptide antigen comprising at least one negatively and at least one positively charged amino acid, and wherein at least 15% of the amino acids are proline, optionally linked to a further antigen, and wherein said proline-rich peptide antigen consist of 8-80 amino acids, and wherein said proline-rich peptide antigen comprises a peptide of SEQ ID NO:27 to 112 or a peptide of SEQ ID NO:27 to 112 in which one, two or three amino acids are replaced by other amino acids; a lipid moiety comprising two or three long hydrocarbyl chains, wherein each of said long hydrocarbyl chains is a straight alkyl or alkenyl group of at least 7 carbon atoms, wherein the peptide chain is covalently linked at one end to the proline-rich peptide antigen and at the other end to the lipid moiety, either directly or through a linker, and wherein said lipopeptide building blocks are able to aggregate to a synthetic virus-like particle (SVLP). a peptide chain comprising a parallel coiled-coil domain which, as a self-standing lipid-free peptide, forms a parallel dimeric, trimeric or higher order oligomeric helical bundle, a proline-rich peptide antigen comprising at least one negatively and at least one positively charged amino acid, and wherein at least 15% of the amino acids are proline, optionally linked to a further antigen, and wherein said proline-rich peptide antigen consist of 8-80 amino acids, and wherein said proline-rich peptide antigen comprises a peptide of SEQ ID NO:27 to 112 or a peptide of SEQ ID NO:27 to 112 in which one, two or three amino acids are replaced by other amino acids; a lipid moiety comprising two or three long hydrocarbyl chains, wherein each of said long hydrocarbyl chains is a straight alkyl or alkenyl group of at least 7 carbon atoms,
A propeller blade comprising: a foam core; a structural layer that surrounds at least a portion of the foam core and includes a face side and a camber side; and an insert disposed in the foam core in operable contact with the face side and the camber side of the structural layer, characterised in that a void exists between an end of the root and an end of the foam core. a foam core; a structural layer that surrounds at least a portion of the foam core and includes a face side and a camber side; and an insert disposed in the foam core in operable contact with the face side and the camber side of the structural layer, characterised in that a void exists between an end of the root and an end of the foam core.
A method for wireless communication executed by a user equipment UE configured for carrier aggregation or dual-connectivity in a long term evolution-new radio LTE-NR interworking architecture with dual connectivity including a first network node associated with a LTE system and a second network node associated with a NR system, the method comprising: receiving system information from the first network node during a RRC idle mode or a RRC inactive mode, the system information comprising an inter-frequency configuration and a measurement reporting configuration, the system information indicating to the UE to measure one or more frequencies associated with the LTE system and one or more frequencies associated with the NR system; performing, during a RRC idle mode or a RRC inactive mode, a measurement of frequencies associated with the inter-frequency configuration including the one or more frequencies associated with the LTE system and the one or more frequencies associated with the NR system; transmitting, based at least in part on the measurement reporting configuration, a report of the measurement of the one or more frequencies associated with the LTE system and the one or more frequencies associated with the NR system to the first network node during a radio resource control RRC connection procedure for setting up a connection to the first network node; receiving, from the first network node in response to the RRC connection procedure, a secondary cell group SCG configuration based at least in part on the first network node configuring the second network node using the transmitted report; and establishing a connection to the second network node based at least in part on the SCG configuration. receiving system information from the first network node during a RRC idle mode or a RRC inactive mode, the system information comprising an inter-frequency configuration and a measurement reporting configuration, the system information indicating to the UE to measure one or more frequencies associated with the LTE system and one or more frequencies associated with the NR system; performing, during a RRC idle mode or a RRC inactive mode, a measurement of frequencies associated with the inter-frequency configuration including the one or more frequencies associated with the LTE system and the one or more frequencies associated with the NR system; transmitting, based at least in part on the measurement reporting configuration, a report of the measurement of the one or more frequencies associated with the LTE system and the one or more frequencies associated with the NR system to the first network node during a radio resource control RRC connection procedure for setting up a connection to the first network node; receiving, from the first network node in response to the RRC connection procedure, a secondary cell group SCG configuration based at least in part on the first network node configuring the second network node using the transmitted report; and establishing a connection to the second network node based at least in part on the SCG configuration.
Anti-roll stabilizer device for boats comprising: - a container adapted to be mounted on a suspension so as to be able to oscillate around a first axis;- a mass rotatably supported inside said container so as to form a rotor which rotates around a second axis, transverse to the first axis; - a rotor cooling system by cooling fluid, characterized by that the cooling system includes: - a hollow shaft being stationary with respect to the container around which said rotor rotates by means of rolling bearings, said hollow shaft being housed in a cylindrical cavity formed in the rotor, said cylindrical cavity and said hollow shaft being arranged along said second axis; - a first and a second cooling chamber sealed with respect to the container of the rotor and towards the outside, arranged at the ends of the hollow shaft and communicating through the hollow shaft, the first chamber having an inlet and the second chamber an outlet, said inlet and said outlet being connected to a forced circulation circuit of the cooling fluid, so that the cooling fluid can circulate from the first chamber to the second chamber through the hollow shaft, and from the second chamber to the first chamber through the circulation circuit. - a container adapted to be mounted on a suspension so as to be able to oscillate around a first axis;- a mass rotatably supported inside said container so as to form a rotor which rotates around a second axis, transverse to the first axis; - a rotor cooling system by cooling fluid, - a hollow shaft being stationary with respect to the container around which said rotor rotates by means of rolling bearings, said hollow shaft being housed in a cylindrical cavity formed in the rotor, said cylindrical cavity and said hollow shaft being arranged along said second axis; - a first and a second cooling chamber sealed with respect to the container of the rotor and towards the outside, arranged at the ends of the hollow shaft and communicating through the hollow shaft, the first chamber having an inlet and the second chamber an outlet, said inlet and said outlet being connected to a forced circulation circuit of the cooling fluid, so that the cooling fluid can circulate from the first chamber to the second chamber through the hollow shaft, and from the second chamber to the first chamber through the circulation circuit.
A method of operation of a second node connected to a first node (12, 50) in a wireless communication network for reporting multi-beam Channel State Information, CSI, on a physical uplink control channel, PUCCH, Format 2, comprising: reporting a rank indicator and a beam count indicator in a first transmission to the first node (12, 50); reporting a cophasing indicator in a second transmission to the first node (12, 50), the cophasing indicator identifying a selected entry of a codebook of cophasing coefficients wherein a number of bits in the cophasing Indicator is identified by at least one of the beam count indicator and the rank indicator; and reporting a beam index in a third transmission to the first node (12, 50), wherein the transmissions are sequenced in time in the order of their numbering. reporting a rank indicator and a beam count indicator in a first transmission to the first node (12, 50); reporting a cophasing indicator in a second transmission to the first node (12, 50), the cophasing indicator identifying a selected entry of a codebook of cophasing coefficients wherein a number of bits in the cophasing Indicator is identified by at least one of the beam count indicator and the rank indicator; and reporting a beam index in a third transmission to the first node (12, 50), wherein the transmissions are sequenced in time in the order of their numbering.
A process for the production of a luminescent material comprising particles having a porous inorganic material core with pores which are at least partly filled with a polymeric material with luminescent quantum dots embedded therein, wherein the process comprises: - impregnating the particles of the particulate porous inorganic material with pores with a first liquid comprising the luminescent quantum dots and a curable or polymerizable precursor of the polymeric material, to provide pores that are at least partly filled with said luminescent quantum dots and curable or polymerizable precursor; and - curing or polymerizing the curable or polymerizable precursor within pores of the porous material. - impregnating the particles of the particulate porous inorganic material with pores with a first liquid comprising the luminescent quantum dots and a curable or polymerizable precursor of the polymeric material, to provide pores that are at least partly filled with said luminescent quantum dots and curable or polymerizable precursor; and - curing or polymerizing the curable or polymerizable precursor within pores of the porous material.
A consumer product composition comprising: a non-porous dissolvable solid structure comprising a carrier material; a hydrophobic conditioning agent disposed within said carrier material, wherein said hydrophobic conditioning agent has a mean particle size of from 1 μm to 500 μm as measured according to the method disclosed in the description; and a particulate spacer material disposed within said carrier material, wherein said particulate spacer material has a mean particle size expressed as volume-weighted median of from 55 μm to 750 μm as measured according to the method disclosed in the description; wherein said non-porous dissolvable solid structure of said consumer product composition comprises a volume fraction of said particulate spacer material of from 0.05 to 0.50; wherein said particulate spacer material is water-insoluble or a ratio of dissolution rate of said carrier material to dissolution rate of said particulate spacer material is at least 2 wherein the dissolution rate is measured according to the method disclosed in the description and wherein the hydrophobic conditioning agent does not encompass perfumes or perfume materials. a non-porous dissolvable solid structure comprising a carrier material; a hydrophobic conditioning agent disposed within said carrier material, wherein said hydrophobic conditioning agent has a mean particle size of from 1 μm to 500 μm as measured according to the method disclosed in the description; and a particulate spacer material disposed within said carrier material, wherein said particulate spacer material has a mean particle size expressed as volume-weighted median of from 55 μm to 750 μm as measured according to the method disclosed in the description; a hydrophobic conditioning agent disposed within said carrier material, wherein said hydrophobic conditioning agent has a mean particle size of from 1 μm to 500 μm as measured according to the method disclosed in the description; and a particulate spacer material disposed within said carrier material, wherein said particulate spacer material has a mean particle size expressed as volume-weighted median of from 55 μm to 750 μm as measured according to the method disclosed in the description; wherein said non-porous dissolvable solid structure of said consumer product composition comprises a volume fraction of said particulate spacer material of from 0.05 to 0.50; wherein said particulate spacer material is water-insoluble or a ratio of dissolution rate of said carrier material to dissolution rate of said particulate spacer material is at least 2 wherein the dissolution rate is measured according to the method disclosed in the description and wherein the hydrophobic conditioning agent does not encompass perfumes or perfume materials.
A method for coupling a semiconductor device to a target substrate, wherein the semiconductor device includes a first surface and a first contact disposed on the first surface, the target substrate includes a second surface and a second contact disposed on the second surface, and the method comprises: depositing uncured underfill, UF, material on the second surface, wherein the uncured UF material substantially covers the second surface and substantially encapsulates the second contact; removing an excess portion of the uncured UF material to form an exposed layer of the uncured UF material that at least partially exposes a distal portion of the second contact; positioning the semiconductor device proximate to the target substrate to form a spatial alignment of the first contact with the second contact, wherein the first and the second surfaces are opposed surfaces, a void is disposed between the first surface and the exposed layer of the uncured UF material, and the at least partially exposed distal portion of the second contact is adjacent a distal portion of the first contact; and providing thermal energy to cure the uncured UF material, wherein the thermal energy increases a volume of the uncured UF material and decreases a volume of the void disposed between the first surface and the exposed layer of the uncured UF material, and the cured UF material stabilizes the spatial alignment of the first contact with the second contact. depositing uncured underfill, UF, material on the second surface, wherein the uncured UF material substantially covers the second surface and substantially encapsulates the second contact; removing an excess portion of the uncured UF material to form an exposed layer of the uncured UF material that at least partially exposes a distal portion of the second contact; positioning the semiconductor device proximate to the target substrate to form a spatial alignment of the first contact with the second contact, wherein the first and the second surfaces are opposed surfaces, a void is disposed between the first surface and the exposed layer of the uncured UF material, and the at least partially exposed distal portion of the second contact is adjacent a distal portion of the first contact; and providing thermal energy to cure the uncured UF material, wherein the thermal energy increases a volume of the uncured UF material and decreases a volume of the void disposed between the first surface and the exposed layer of the uncured UF material, and the cured UF material stabilizes the spatial alignment of the first contact with the second contact.
A mobile station, comprising: a receiver configured to receive control information on a control channel element, CCE; and a transmitter configured to transmit a CQI signal using a cyclic shift value of a set of cyclic shift values for spreading CQI signals; and the transmitter being further configured to transmit an ACK/NACK signal using a cyclic shift value of a set of cyclic shift values for spreading ACK/NACK signals, characterized in that the CCE is associated with a physical uplink control channel, PUCCH, and the PUCCH is determinative of a cyclic shift value among a plurality of cyclic shift values comprising the set of cyclic shift values for spreading CQI signals and the set of cyclic shift values for spreading ACK/NACK signals, with one or more unused cyclic shift values separating the set of cyclic shift values for spreading CQI signals and the set of cyclic shift values for spreading ACK/NACK signals. a receiver configured to receive control information on a control channel element, CCE; and a transmitter configured to transmit a CQI signal using a cyclic shift value of a set of cyclic shift values for spreading CQI signals; and the transmitter being further configured to transmit an ACK/NACK signal using a cyclic shift value of a set of cyclic shift values for spreading ACK/NACK signals, characterized in that the CCE is associated with a physical uplink control channel, PUCCH, and the PUCCH is determinative of a cyclic shift value among a plurality of cyclic shift values comprising the set of cyclic shift values for spreading CQI signals and the set of cyclic shift values for spreading ACK/NACK signals, with one or more unused cyclic shift values separating the set of cyclic shift values for spreading CQI signals and the set of cyclic shift values for spreading ACK/NACK signals.
Method for treatment of a stone floor surface resulting in increased slip resistance of the surface, comprising step (a) comprising contacting the surface during a sufficient time period with a composition, which composition is an aqueous composition comprising at least a suitable inorganic fluoride-containing compound, wherein the composition comprises ammonium bifluoride, hydrochloric acid and phosphoric acid wherein the composition comprises ammonium bifluoride in a range from 2.6 % (w/w) to 4.6 % (w/w), hydrochloric acid in a range from 0.1 % (w/w) to 0.25 % (w/w), and phosphoric acid in a range from 4 % (w/w) to 6 % (w/w).
An iron alloy sheet comprising: α-Fe, γ-Fe and complex borocarbide phases; wherein said alloy - has a melting point in the range of 960 to 1500° C, - has a critical cooling rate for metallic glass formation of less than 10 5 K/s, - comprises 50 % by vol. or greater of structural units In the range of about 150 nm to 1000 nm, - has a hardness HV 300 of 100 kg/mm 2 to 3,000 kg/mm 2. - has tensile strength in the range of 0.69 GPa to 6.56 GPa (100,000 lb/in 2 to 950,000 lb/in 2), - has a tensile elongation at room temperature in the range of 1 to 40%, wherein said sheet had a thickness of 0.1 mm to 30 mm. α-Fe, γ-Fe and complex borocarbide phases; wherein said alloy - has a melting point in the range of 960 to 1500° C, - has a critical cooling rate for metallic glass formation of less than 10 5 K/s, - comprises 50 % by vol. or greater of structural units In the range of about 150 nm to 1000 nm, - has a hardness HV 300 of 100 kg/mm 2 to 3,000 kg/mm 2. - has tensile strength in the range of 0.69 GPa to 6.56 GPa (100,000 lb/in 2 to 950,000 lb/in 2), - has a tensile elongation at room temperature in the range of 1 to 40%, - has a melting point in the range of 960 to 1500° C, - has a critical cooling rate for metallic glass formation of less than 10 5 K/s, - comprises 50 % by vol. or greater of structural units In the range of about 150 nm to 1000 nm, - has a hardness HV 300 of 100 kg/mm 2 to 3,000 kg/mm 2. - has tensile strength in the range of 0.69 GPa to 6.56 GPa (100,000 lb/in 2 to 950,000 lb/in 2), - has a tensile elongation at room temperature in the range of 1 to 40%, wherein said sheet had a thickness of 0.1 mm to 30 mm.
A sanitizing head comprising: a housing that retains an ultraviolet UV lamp, wherein UV light emitted from the UV lamp exits through a front end of the housing, said housing including a shroud that defines a front opening; a bumper secured to an exposed perimeter edge of the shroud; and multiple range light sources secured to the housing and arranged in one or more pairs, the range light sources in each pair of the one or more pairs oriented relative to each other to emit respective light beams that converge at a predetermined distance in front of the UV lamp, wherein the bumper is transparent to transmit the emitted light beams from the range light sources; wherein the range light sources are spaced apart along the exposed perimeter edge of the shroud at the front opening. a housing that retains an ultraviolet UV lamp, wherein UV light emitted from the UV lamp exits through a front end of the housing, said housing including a shroud that defines a front opening; a bumper secured to an exposed perimeter edge of the shroud; and multiple range light sources secured to the housing and arranged in one or more pairs, the range light sources in each pair of the one or more pairs oriented relative to each other to emit respective light beams that converge at a predetermined distance in front of the UV lamp, wherein the bumper is transparent to transmit the emitted light beams from the range light sources; wherein the range light sources are spaced apart along the exposed perimeter edge of the shroud at the front opening.