mhurhangee/patent-ind-claim-en huggingface dataset:
A braking system for an aircraft wheel , comprising: first and second brake rotor discs axially spaced along an axis (A) and rotationally coupled to the wheel ; a stator disc arranged axially between the first and second rotor discs , wherein radially outer portions of the first and second rotor discs extend radially outwardly of the stator disc to define a gap between the radially outer portions of the first and second rotor discs ; and a heat shield mounted to at least one of the first and second rotor discs and extending at least partially over or into the gap , the heat shield comprising: a first heat shield mounted to the first rotor disc ; and a second heat shield mounted to the second rotor disc , the first heat shield and the second heat shield both extending at least partially over or into the gap , wherein the first and second heat shields each comprise at least one axially extending fin ; characterised in that : respective fins of the first and second heat shields are arranged at different radial distances from the axis (A) such that the fins may overlap axially during use of the braking system as the rotor discs and stator disc wear. first and second brake rotor discs axially spaced along an axis (A) and rotationally coupled to the wheel ; a stator disc arranged axially between the first and second rotor discs , wherein radially outer portions of the first and second rotor discs extend radially outwardly of the stator disc to define a gap between the radially outer portions of the first and second rotor discs ; and a heat shield mounted to at least one of the first and second rotor discs and extending at least partially over or into the gap , the heat shield comprising: a first heat shield mounted to the first rotor disc ; and a second heat shield mounted to the second rotor disc , the first heat shield and the second heat shield both extending at least partially over or into the gap , wherein the first and second heat shields each comprise at least one axially extending fin ; characterised in that : respective fins of the first and second heat shields are arranged at different radial distances from the axis (A) such that the fins may overlap axially during use of the braking system as the rotor discs and stator disc wear. a first heat shield mounted to the first rotor disc ; and a second heat shield mounted to the second rotor disc , the first heat shield and the second heat shield both extending at least partially over or into the gap , wherein the first and second heat shields each comprise at least one axially extending fin ;
A method for servicing a shock strut system comprising: providing a shock strut comprising a cylinder , a piston , and a sealed fluid chamber , wherein the sealed fluid chamber comprises a gas portion and a liquid portion ; determining a first servicing gas pressure; pressurizing the gas portion to the first servicing gas pressure; determining a second servicing gas pressure; and pressurizing the liquid portion until the second servicing gas pressure is achieved in the gas portion , and characterized by the step of determining the second servicing gas pressure comprising utilizing the equations: P gas , servicing , 2 = P gas , nom × T gas , servicing T nom × V tot − V oil , nom V tot − A p S − V oil @ T gas , servicing & P gas , servicing , 2 and V oil @ T gas , servicing & P gas , servicing , 2 = V oil , nom × 1 + a T gas , servicing − T nom × 1 − P gas , servicing , 2 − P gas , nom B , wherein Tnom is the nominal servicing temperature, T(gas,servicing) is the ambient temperature at which servicing is performed, V(oil,nom) is the nominal oil volume at Tnom, Vtot is the volume of sealed fluid chamber 110, Pgas,nom is the nominal pressure of the gas at Tnom, V(oil@Tgas,servicing&Pgas,servicing2) is the volume of oil at T(gas,servicing) and P(gas,servicing2), α is the thermal expansion coefficient of the oil, and B is the oil bulk modulus, A p is the surface area of the piston , and S is the stroke of the shock strut . providing a shock strut comprising a cylinder , a piston , and a sealed fluid chamber , wherein the sealed fluid chamber comprises a gas portion and a liquid portion ; determining a first servicing gas pressure; pressurizing the gas portion to the first servicing gas pressure; determining a second servicing gas pressure; and pressurizing the liquid portion until the second servicing gas pressure is achieved in the gas portion , and characterized by the step of determining the second servicing gas pressure comprising utilizing the equations: P gas , servicing , 2 = P gas , nom × T gas , servicing T nom × V tot − V oil , nom V tot − A p S − V oil @ T gas , servicing & P gas , servicing , 2 and V oil @ T gas , servicing & P gas , servicing , 2 = V oil , nom × 1 + a T gas , servicing − T nom × 1 − P gas , servicing , 2 − P gas , nom B , wherein Tnom is the nominal servicing temperature, T(gas,servicing) is the ambient temperature at which servicing is performed, V(oil,nom) is the nominal oil volume at Tnom, Vtot is the volume of sealed fluid chamber 110, Pgas,nom is the nominal pressure of the gas at Tnom, V(oil@Tgas,servicing&Pgas,servicing2) is the volume of oil at T(gas,servicing) and P(gas,servicing2), α is the thermal expansion coefficient of the oil, and B is the oil bulk modulus, A p is the surface area of the piston , and S is the stroke of the shock strut .
A system comprising: a light source configured to vary an intensity of output light; and a proximity sensor comprising: a quantity change detection unit configured to detect a change in a quantity of reflected light incident to a pixel of an image and output an on event when the quantity of the light incident to the pixel of the image is increased and output an off event when the quantity of light incident on the pixel of the image is decreased, wherein the reflected light incident to the pixel of the image is light output by the light source and which has been reflected by an object ; and a proximity determination unit configured for determining a proximity of the object to the quantity change detection unit based on a change in the intensity of the output light and an occurrence number of events, wherein each occurrence of an event is based on a detected change in the quantity of the reflected light during a predetermined time measured from a time when the change in intensity of the output light occurs. a light source configured to vary an intensity of output light; and a proximity sensor comprising: a quantity change detection unit configured to detect a change in a quantity of reflected light incident to a pixel of an image and output an on event when the quantity of the light incident to the pixel of the image is increased and output an off event when the quantity of light incident on the pixel of the image is decreased, wherein the reflected light incident to the pixel of the image is light output by the light source and which has been reflected by an object ; and a proximity determination unit configured for determining a proximity of the object to the quantity change detection unit based on a change in the intensity of the output light and an occurrence number of events, wherein each occurrence of an event is based on a detected change in the quantity of the reflected light during a predetermined time measured from a time when the change in intensity of the output light occurs. a quantity change detection unit configured to detect a change in a quantity of reflected light incident to a pixel of an image and output an on event when the quantity of the light incident to the pixel of the image is increased and output an off event when the quantity of light incident on the pixel of the image is decreased, wherein the reflected light incident to the pixel of the image is light output by the light source and which has been reflected by an object ; and a proximity determination unit configured for determining a proximity of the object to the quantity change detection unit based on a change in the intensity of the output light and an occurrence number of events, wherein each occurrence of an event is based on a detected change in the quantity of the reflected light during a predetermined time measured from a time when the change in intensity of the output light occurs.
Cooking appliance, which has a cooking compartment with cooking compartment housing walls and at least one lighting device provided at least partially in the cooking compartment , said lighting device comprising at least one light source, at least one lighting housing and at least one cover , wherein a receiving apparatus for receiving at least one part of the cover is formed on the front side of the lighting housing , the light source of the lighting apparatus is arranged outside of the lighting module formed by the lighting housing and the cover and at least one light guide in at least one lighting compartment , which is defined by the lighting housing and the cover , in which the lighting module is guided, characterised in that the lighting housing represents a longitudinally extending housing made from trough-shaped sheet metal, has at least one through opening for at least one light guide from the at least one light source and the at least one through opening is provided in at least one of the front faces of the lighting housing , and the lighting housing is received at least partially in a depression of one of the cooking compartment housing walls , wherein the length and width of the lighting module corresponds in each case to the length and width of the depression .
An emulsion type lotion having an average particle size of oil emulsion particles being from 30 nm to 200 nm, the average particle size being measured using a particle size measuring device according to dynamic light scattering, and said emulsion type lotion comprising at least one anionic surfactant, at least one monoalcohol having a carbon number of from 12 to 24, from 5% to 20% by mass of at least one polyol comprising from 2 to 6 carbon atoms and from 2 to 4 hydroxyl groups, from 5% to 30% by mass of at least one liquid oil agent, and 50% to 90% by mass of water, the percentages by mass being based on the total mass of the lotion, wherein the mass ratio of the liquid oil agent to the anionic surfactant is from 20 to 30.
Hybrid cord for use as a strength member in a belt bandage of a pneumatic vehicle tire comprising at least two high-modulus yarns and one to three low-modulus yarns end-twisted with one another, wherein the at least two high-modulus yarns are high-modulus yarns made of poly(p-phenylene-2,6-benzobisoxazole) filaments and wherein low-modulus yarns and high-modulus yarns are defined according to the following table 1, where the respective force which has to be applied to a yarn to achieve 1% elongation and 2% elongation normalized to yarn fineness in tex is determined according to ASTM D885, Table 1 Yarn/elongation 1% 2% Low-modulus < 150 mN/tex < 200 mN/tex High-modulus > 300 mN/tex > 500 mN/tex characterized in that the low-modulus yarn has a fineness of 350 to 1000 dtex and in that the hybrid cord is end-twisted with 200 to 700 tpm.
A compound represented by formula S p- 4: wherein the compound is crystalline and has XRPD 2θ-reflections (±0.2°) at: 5.0, 7.3, 9.4 and 18.1.
A frequency regulation method, applied to an insulation impedance detection apparatus in a direct current power system, wherein the method comprises: collecting sampling voltages at a sampling point at at least three time points; determining a voltage frequency regulation manner based on at least three sampling voltages obtained through sampling; and regulating a voltage frequency of a power supply in the insulation impedance detection apparatus according to the determined voltage frequency regulation manner. collecting sampling voltages at a sampling point at at least three time points; determining a voltage frequency regulation manner based on at least three sampling voltages obtained through sampling; and regulating a voltage frequency of a power supply in the insulation impedance detection apparatus according to the determined voltage frequency regulation manner.
A knee airbag arrangement for a vehicle , said knee airbag arrangement comprising an inflatable airbag and an external tether , said airbag being adapted to be inflated to a position between an instrument panel of said vehicle and a knee/shin region of a vehicle occupant , characterized in that said airbag is adapted to form a first deployment mode or a second deployment mode when in a deployed state, said external tether controlling deployment of said airbag to said second deployment mode, and wherein a depth (D 2 ) of said airbag in said second deployment mode, being greater than a depth (D 1 ) of said knee airbag in said first deployment mode, a depth (D 1 , D 2 ) of said airbag in a deployed state being a greatest extent of said airbag perpendicular to said instrument panel in said knee/shin region .
A method for allocating resources for vehicle-to-everything, V2X, message transmission by a multi-cell/multicast coordination entity, MCE, in a wireless communication system, the method characterized by : receiving a request for radio resource, which is based on an amount of V2X messages transmitted from vehicle user equipments, UEs , or road side unit, RSU, UEs , from an evolved node-B, eNB , supporting a V2X function or an eNB type RSU; and transmitting multimedia broadcast multicast services, MBMS, scheduling information to the eNB supporting the V2X function or the eNB type RSU as a response to the request for radio resource. receiving a request for radio resource, which is based on an amount of V2X messages transmitted from vehicle user equipments, UEs , or road side unit, RSU, UEs , from an evolved node-B, eNB , supporting a V2X function or an eNB type RSU; and transmitting multimedia broadcast multicast services, MBMS, scheduling information to the eNB supporting the V2X function or the eNB type RSU as a response to the request for radio resource.
A method for wireless communications by a user equipment, UE (120; 120y; 120x; 120a; 120r), comprising: Receiving information indicative of a modulation coding scheme, MCS, for use by the UE (120; 120y; 120x; 120a; 120r) to transmit uplink control information, UCI, comprising channel state information, CSI, -part1 on an uplink data channel; Determining a spectral efficiency for transmitting the UCI based at least in part on the MCS wherein the spectral efficiency is a bit per resource element, BPRE, with the BPRE either being calculated by BPRE = R ∗ Q m β offset where: R = a target code rate indicated by the MCS, Q m = a modulation order indicated by the MCS, and β offset = a rate offset between a rate for transmitting CSI-part 1 and a rate for transmitting uplink data on the uplink data channel; or by BPRE = O CSI Q ′ CSI − 1 where: O CSI = number of bits corresponding to a payload of CSI-part 1 and cyclic redundancy check, CRC, bits associated with CSI-part 1 Q' CSI -1 = actual allocated resource elements, REs, for CSI-part1; Performing uplink power control based at least in part on the determined spectral efficiency; and Transmitting the UCI without uplink data on the uplink data channel using an uplink power based at least in part on the performed uplink power control. Receiving information indicative of a modulation coding scheme, MCS, for use by the UE (120; 120y; 120x; 120a; 120r) to transmit uplink control information, UCI, comprising channel state information, CSI, -part1 on an uplink data channel; Determining a spectral efficiency for transmitting the UCI based at least in part on the MCS wherein the spectral efficiency is a bit per resource element, BPRE, with the BPRE either being calculated by BPRE = R ∗ Q m β offset where: R = a target code rate indicated by the MCS, Q m = a modulation order indicated by the MCS, and β offset = a rate offset between a rate for transmitting CSI-part 1 and a rate for transmitting uplink data on the uplink data channel; R = a target code rate indicated by the MCS, Q m = a modulation order indicated by the MCS, and β offset = a rate offset between a rate for transmitting CSI-part 1 and a rate for transmitting uplink data on the uplink data channel; O CSI = number of bits corresponding to a payload of CSI-part 1 and cyclic redundancy check, CRC, bits associated with CSI-part 1 Q' CSI -1 = actual allocated resource elements, REs, for CSI-part1; Performing uplink power control based at least in part on the determined spectral efficiency; and Transmitting the UCI without uplink data on the uplink data channel using an uplink power based at least in part on the performed uplink power control.
Building system for building a wall in masonry stone , whereby one departs from prefab building elements consisting of two or more layers of masonry stones bricked, joined, adhered or suchlike to each other, whereby the building elements have a stepped form on at least one side such that the building elements fit sideways with their stepped side against each other and on each other and can be handled and laid by one person or by two persons, characterised in that in an outer layer of masonry stones a groove is applied in the longitudinal direction of the masonry stones , whereby on the other outer layer of masonry stones a joining element is applied with an upward facing edge , whereby both outer layers of masonry stones are provided with a groove , whereby the joining element has a T- or cross-shaped cross-section, whereby the joining element is cemented or adhered with a flange in the groove and whereby the wall is built with these prefab building elements by fitting the groove and the upward edge of prefab building elements lying on top of each other, into each other without cement, adhesives or suchlike being used on the construction site, whereby the joining element is provided with one or more local breaks in one or more of its flanges , so the groove is freely accessible at the location of these breaks .
A fiber sheet, comprising: a plurality of fibers in a closely-adhered state, a portion of the fibers in the closely-adhered state having been melted and the fibers being fused in the melted portion, the fibers including not less than 10 wt% of at least one of collagen, laminin, gelatin, and chitin, the fibers extending in about the same direction, a maximum dimension of pores included in the fiber sheet being less than 0.5 μm, the maximum dimension of the pores being determined by imaging an electron micrograph of a surface of the fiber sheet and by measuring the dimensions of the pores confirmed using the electron micrograph, and all of the following to being satisfied, where F1 is a tensile strength in a first direction, and F2 is a tensile strength in a second direction orthogonal to the first direction: F2 > F1; F1 is 1 MPa or more; and F2/F1 is 2 or more, whereby the first direction is perpendicular to the direction in which the fibers extend, and the second direction is parallel to the direction in which the fibers extend, whereby the tensile strength is measured in accordance with JIS P8113, and wherein the fibers are fibers formed by electrospinning and the fibers have been fused in the melted portion by supplying a volatile liquid to the fibers and then drying the fibers. a plurality of fibers in a closely-adhered state, a portion of the fibers in the closely-adhered state having been melted and the fibers being fused in the melted portion, the fibers including not less than 10 wt% of at least one of collagen, laminin, gelatin, and chitin, the fibers extending in about the same direction, a maximum dimension of pores included in the fiber sheet being less than 0.5 μm, the maximum dimension of the pores being determined by imaging an electron micrograph of a surface of the fiber sheet and by measuring the dimensions of the pores confirmed using the electron micrograph, and all of the following to being satisfied, where F1 is a tensile strength in a first direction, and F2 is a tensile strength in a second direction orthogonal to the first direction: F2 > F1; F1 is 1 MPa or more; and F2/F1 is 2 or more, F2 > F1; F1 is 1 MPa or more; and F2/F1 is 2 or more, whereby the first direction is perpendicular to the direction in which the fibers extend, and the second direction is parallel to the direction in which the fibers extend, whereby the tensile strength is measured in accordance with JIS P8113, and wherein the fibers are fibers formed by electrospinning and the fibers have been fused in the melted portion by supplying a volatile liquid to the fibers and then drying the fibers.
A tablet printing apparatus , comprising: a conveyer configured to convey a tablet (T); a laser displacement meter configured to emit laser beams to the tablet (T) conveyed by the conveyer and receive the laser beams reflected by the tablet (T); a determination unit configured to determine orientation of a split line on the tablet (T) conveyed by the conveyer based on waveform shape of an output value from the laser displacement meter ; and a printing unit configured to perform printing on the tablet (T) conveyed by the conveyer based on a determination result obtained by the determination unit . a conveyer configured to convey a tablet (T); a laser displacement meter configured to emit laser beams to the tablet (T) conveyed by the conveyer and receive the laser beams reflected by the tablet (T); a determination unit configured to determine orientation of a split line on the tablet (T) conveyed by the conveyer based on waveform shape of an output value from the laser displacement meter ; and a printing unit configured to perform printing on the tablet (T) conveyed by the conveyer based on a determination result obtained by the determination unit .
A teletherapy patient support comprising: a pelvis support member exhibiting a first face and a second face opposing said first face ; a torso support member extending from said pelvis support member and facing said first face of said pelvis support member ; a first leg support extending from said pelvis support member and facing said second face of said pelvis support member ; characterized in that the teletherapy patient support further comprises: a second leg support exhibiting at least one connection member , wherein said pelvis support member exhibits at least one receptacle , said second leg support arranged to be alternately: attached to said pelvis support member by said at least one connection member being positioned within said at least one receptacle of said pelvis support member ; and detached from said pelvis support member by said at least one connection member not being positioned within said at least one receptacle of said pelvis support member . a pelvis support member exhibiting a first face and a second face opposing said first face ; a torso support member extending from said pelvis support member and facing said first face of said pelvis support member ; a first leg support extending from said pelvis support member and facing said second face of said pelvis support member ; a second leg support exhibiting at least one connection member , wherein said pelvis support member exhibits at least one receptacle , said second leg support arranged to be alternately: attached to said pelvis support member by said at least one connection member being positioned within said at least one receptacle of said pelvis support member ; and detached from said pelvis support member by said at least one connection member not being positioned within said at least one receptacle of said pelvis support member . attached to said pelvis support member by said at least one connection member being positioned within said at least one receptacle of said pelvis support member ; and detached from said pelvis support member by said at least one connection member not being positioned within said at least one receptacle of said pelvis support member .