mhurhangee/patent-ind-claim-en huggingface dataset:
A display substrate, comprising: a base substrate ; a color filter comprising a plurality of color filter blocks on the base substrate , each of the plurality of color filter blocks comprising a liquid crystal elastomer; and an actuator configured to actuate each of the plurality of color filter blocks thereby individually controlling a wavelength of light transmitted through each of the plurality of color filter blocks , wherein said actuator is configured to actuate each of the plurality of color filter blocks thereby individually controlling a wavelength of light transmitted through each of the plurality of color filter blocks comprises actuating each of the plurality of color filter blocks thereby changing a pitch of the liquid crystal elastomer in each of the plurality of color filter blocks so that the light transmitted through each of the plurality of color filter blocks is one of a red light, a green light and a blue light, or is one of a red light, a green light, a blue light, and a white light. a base substrate ; a color filter comprising a plurality of color filter blocks on the base substrate , each of the plurality of color filter blocks comprising a liquid crystal elastomer; and an actuator configured to actuate each of the plurality of color filter blocks thereby individually controlling a wavelength of light transmitted through each of the plurality of color filter blocks , wherein said actuator is configured to actuate each of the plurality of color filter blocks thereby individually controlling a wavelength of light transmitted through each of the plurality of color filter blocks comprises actuating each of the plurality of color filter blocks thereby changing a pitch of the liquid crystal elastomer in each of the plurality of color filter blocks so that the light transmitted through each of the plurality of color filter blocks is one of a red light, a green light and a blue light, or is one of a red light, a green light, a blue light, and a white light.
A method, performed by a user equipment, UE, in a wireless communication system, the method comprising: connecting with a Mobility Management Entity, MME, in order to communicate over a 3GPP access network and a first Access Management Function, AMF, entity in order to communicate over a non-3GPP access network; and triggering a registration procedure with a second AMF entity over the 3GPP access network; wherein the registration procedure comprises: transmitting, to the second AMF entity, a Registration request message comprising indication indicating the second AMF entity to obtain a non-3GPP access context from the first AMF entity; andreceiving, from the second AMF entity over the 3GPP access network, a registration accept message including information indicating a result of a registration procedure with the second AMF for the non-3GPP access network and/or the 3GPP access network. connecting with a Mobility Management Entity, MME, in order to communicate over a 3GPP access network and a first Access Management Function, AMF, entity in order to communicate over a non-3GPP access network; and triggering a registration procedure with a second AMF entity over the 3GPP access network; wherein the registration procedure comprises: transmitting, to the second AMF entity, a Registration request message comprising indication indicating the second AMF entity to obtain a non-3GPP access context from the first AMF entity; andreceiving, from the second AMF entity over the 3GPP access network, a registration accept message including information indicating a result of a registration procedure with the second AMF for the non-3GPP access network and/or the 3GPP access network.
A silicotitanate composition comprising a silicotitanate having a sitinakite structure and niobium, wherein the composition has at least two or more diffraction peaks at X-ray diffraction angles selected from the group consisting of 2θ = 8.8 ± 0.5°, 2θ = 10.0 ± 0.5°, and 2θ = 29.6 ± 0.5°, wherein the 2θ is a value of X-ray diffraction angle in a powder X-ray diffraction pattern measured using a general X-ray diffractometer and the measurement conditions are as follows: Radiation source: CuKα-ray (λ = 1.5405 Â) Measurement mode: step scan Scan condition: 0.04°/second Divergence slit: 1.00 deg. Scattering slit: 1.00 deg. Receiving slit: 0.30 mm Measurement time: 3.00 seconds Measurement range: 2θ = 5.0° to 60.0°, wherein the composition has at least X-ray diffraction angles 2θ and X-ray diffraction peak intensity ratios that are shown in Table 1 below: [Table 1] X-RAY DIFFRACTION ANGLE 2θ [° ] XRD PEAK INTENSITY RATIO 8.8 ± 0.5 5 OR MORE AND 20 OR LESS 10.0 ± 0.5 5 OR MORE AND 20 OR LESS 11.3 ± 0.5 100 29.6 ± 0.5 5 OR MORE AND 40 OR LESS , wherein the X-ray diffraction peak intensity ratio in table 1 is a relative value of XRD peak height at each 2θ relative to an XRD peak height when the peak height at 2θ =11.3± 0.5 is taken as 100. wherein the composition has at least two or more diffraction peaks at X-ray diffraction angles selected from the group consisting of 2θ = 8.8 ± 0.5°, 2θ = 10.0 ± 0.5°, and 2θ = 29.6 ± 0.5°, wherein the 2θ is a value of X-ray diffraction angle in a powder X-ray diffraction pattern measured using a general X-ray diffractometer and the measurement conditions are as follows: Radiation source: CuKα-ray (λ = 1.5405 Â) Measurement mode: step scan Scan condition: 0.04°/second Divergence slit: 1.00 deg. Scattering slit: 1.00 deg. Receiving slit: 0.30 mm Measurement time: 3.00 seconds Measurement range: 2θ = 5.0° to 60.0°, wherein the composition has at least X-ray diffraction angles 2θ and X-ray diffraction peak intensity ratios that are shown in Table 1 below: [Table 1] X-RAY DIFFRACTION ANGLE 2θ [° ] XRD PEAK INTENSITY RATIO 8.8 ± 0.5 5 OR MORE AND 20 OR LESS 10.0 ± 0.5 5 OR MORE AND 20 OR LESS 11.3 ± 0.5 100 29.6 ± 0.5 5 OR MORE AND 40 OR LESS , wherein the X-ray diffraction peak intensity ratio in table 1 is a relative value of XRD peak height at each 2θ relative to an XRD peak height when the peak height at 2θ =11.3± 0.5 is taken as 100. Radiation source: CuKα-ray (λ = 1.5405 Â) Measurement mode: step scan Scan condition: 0.04°/second Divergence slit: 1.00 deg. Scattering slit: 1.00 deg. Receiving slit: 0.30 mm Measurement time: 3.00 seconds Measurement range: 2θ = 5.0° to 60.0°, wherein the composition has at least X-ray diffraction angles 2θ and X-ray diffraction peak intensity ratios that are shown in Table 1 below: [Table 1] X-RAY DIFFRACTION ANGLE 2θ [° ] XRD PEAK INTENSITY RATIO 8.8 ± 0.5 5 OR MORE AND 20 OR LESS 10.0 ± 0.5 5 OR MORE AND 20 OR LESS 11.3 ± 0.5 100 29.6 ± 0.5 5 OR MORE AND 40 OR LESS , wherein the X-ray diffraction peak intensity ratio in table 1 is a relative value of XRD peak height at each 2θ relative to an XRD peak height when the peak height at 2θ =11.3± 0.5 is taken as 100.
Adjusting device for adjusting the position of a window pane associated with a vehicle window lifter, the adjusting device comprising a slider which is slidably mountable on a guide rail of the window, which slider comprises a base plate and a movable jaw opposite to the base plate , a gap being defined for accommodating a lower edge of said window pane (P), or of a support member thereof, between the base plate and the movable jaw , and adjustable clamping means of the slider being associated with the base plate and the movable jaw , which are adapted to allow the distance between the base plate and the movable jaw to be changed in order to release or clamp the window pane (P), or a respective support member , in said gap , which clamping means comprise a screw member crossing the base plate and said gap , which screw member engages a main nut screw on the side of the movable jaw , and a rotatable member associated with the main nut screw to change the distance between the latter and the movable jaw in order to adjust a clearance between the base plate , the movable jaw and the window pane (P), or a respective support member , characterized in that the main nut screw is formed on a bracket member which is interposed between said gap and the movable jaw , and in that said rotatable member is associated with a threaded element that engages a corresponding hole of the bracket member , formed in a position radially spaced from said main nut screw .
Heating medium or coolant circuit for an electric vehicle, having: a basic circuit for controlling the temperature of an electric motor and of a battery of the electric vehicle, wherein, in the basic circuit , provision is made of main pump for conveying a coolant through the basic circuit , a bypass line for allowing the coolant to flow past the battery , and a thermally insulated auxiliary circuit for the battery for controlling the temperature of the battery independently of the electric motor , characterized in that, in the thermally insulated auxiliary circuit , provision is made of an auxiliary pump for conveying the coolant through the thermally insulated auxiliary circuit , and/or in that an auxiliary pump is arranged in the thermally insulated auxiliary circuit downstream of the battery , as seen in the flow direction of the coolant, and wherein, in the basic circuit , provision is made a second bypass line , in which a charging unit for the battery is arranged, for allowing the coolant to flow past the electric motor . a basic circuit for controlling the temperature of an electric motor and of a battery of the electric vehicle, wherein, in the basic circuit , provision is made of main pump for conveying a coolant through the basic circuit , a bypass line for allowing the coolant to flow past the battery , and a thermally insulated auxiliary circuit for the battery for controlling the temperature of the battery independently of the electric motor , characterized in that, in the thermally insulated auxiliary circuit , provision is made of an auxiliary pump for conveying the coolant through the thermally insulated auxiliary circuit , and/or in that an auxiliary pump is arranged in the thermally insulated auxiliary circuit downstream of the battery , as seen in the flow direction of the coolant, and wherein, in the basic circuit , provision is made a second bypass line , in which a charging unit for the battery is arranged, for allowing the coolant to flow past the electric motor .
A cap remover for a medical injector , the cap remover comprising: a cylindrical portion , and a hemispherical member including a gripping component, wherein the cylindrical portion has an inner wall extending from a proximal end to a distal end, and the inner wall defines a cavity , the hemispherical member has a proximal end connected to the cylindrical portion and extends to a distal end , the cap remover is adapted to be positioned on the medical injector with the distal end of the cylindrical portion spaced farther from an injector housing of the medical injector than the proximal end of the cylindrical portion and the distal end of the hemispherical member spaced farther from the injector housing than the proximal end of the hemispherical member , and the cavity is sized and shaped to accommodate a cap disposed on the medical injector at least partially therein, and with the cap received within the cavity , the cap remover may remove the cap from the medical injector , wherein the proximal end of the hemispherical member has a first diameter and the distal end of the hemispherical member has a second diameter, the second diameter being larger than the first diameter. a cylindrical portion , and a hemispherical member including a gripping component, wherein the cylindrical portion has an inner wall extending from a proximal end to a distal end, and the inner wall defines a cavity , the hemispherical member has a proximal end connected to the cylindrical portion and extends to a distal end , the cap remover is adapted to be positioned on the medical injector with the distal end of the cylindrical portion spaced farther from an injector housing of the medical injector than the proximal end of the cylindrical portion and the distal end of the hemispherical member spaced farther from the injector housing than the proximal end of the hemispherical member , and the cavity is sized and shaped to accommodate a cap disposed on the medical injector at least partially therein, and with the cap received within the cavity , the cap remover may remove the cap from the medical injector , wherein the proximal end of the hemispherical member has a first diameter and the distal end of the hemispherical member has a second diameter, the second diameter being larger than the first diameter.
A single-exposure ptychography system comprising an optical unit defining a light input plane, a light output plane, and an object plane between the light input and output planes, wherein the optical unit comprises: an 4f optical setup, a front focal plane of the 4f optical setup defining a location of the light input plane and Fourier plane of the 4f setup defining the object plane; and an output microlens array (MLA) for transferring different Fourier images of illuminated spots onto different blocks of a pixel matrix in a real image plane; a light source unit comprising an array of apertures forming a diffraction arrangement at the light input plane, said light source unit being configured and operable for producing either coherent light or partially coherent light with a coherence length much larger than a dimension of the aperture and much smaller than a distance between the apertures, thereby forming an array of illuminating beams of said light defining a predetermined illumination pattern in the object plane, such that each of the illuminating beams creates an intensity pattern in a different known region at the light output plane. the optical unit comprises: an 4f optical setup, a front focal plane of the 4f optical setup defining a location of the light input plane and Fourier plane of the 4f setup defining the object plane; and an output microlens array (MLA) for transferring different Fourier images of illuminated spots onto different blocks of a pixel matrix in a real image plane; a light source unit comprising an array of apertures forming a diffraction arrangement at the light input plane, said light source unit being configured and operable for producing either coherent light or partially coherent light with a coherence length much larger than a dimension of the aperture and much smaller than a distance between the apertures, thereby forming an array of illuminating beams of said light defining a predetermined illumination pattern in the object plane, such that each of the illuminating beams creates an intensity pattern in a different known region at the light output plane.
A paramagnetic garnet-type transparent ceramic that is a sintered body of complex oxide represented by the following formula , the sintered body further comprising SiO 2 as a sintering aid in an amount of from more than 0% by weight to 0.1% by weight or less, and has a linear transmittance of 83.5% or more at a wavelength of 1,064 nm for an optical path length of 25 mm: (Tb 1-x-y Y x Sc y ) 3 (Al 1-z Sc z ) 5 O 12 wherein 0.05 ≤ x < 0.45, 0 < y < 0.1, 0.5 < 1-x-y < 0.95, and 0.004 < z < 0.2.
A method for calibrating a wind turbine sensor placed on a component of a wind turbine , the wind turbine having a rotor with at least one pitchable wind turbine blade , the method comprising the steps of: - pitching at time intervals the at least one blade according to a predetermined pitch movement , wherein the predetermined pitch movement induces a vibration of the at least one wind turbine blade; - detecting at time intervals a response signal from the wind turbine sensor at least partly caused by said predetermined pitch movement , wherein the wind turbine sensor is an accelerometer measuring an acceleration of the component of the wind turbine; - determining a characteristic sensor response value as a function of the at least one detected acceleration response signal ; - determining the difference between said characteristic sensor response value and a predetermined sensor calibration parameter ; and - calibrating the wind turbine sensor according to the determined characteristic sensor response value in case said difference is above a predefined tolerance parameter . - pitching at time intervals the at least one blade according to a predetermined pitch movement , wherein the predetermined pitch movement induces a vibration of the at least one wind turbine blade; - detecting at time intervals a response signal from the wind turbine sensor at least partly caused by said predetermined pitch movement , wherein the wind turbine sensor is an accelerometer measuring an acceleration of the component of the wind turbine; - determining a characteristic sensor response value as a function of the at least one detected acceleration response signal ; - determining the difference between said characteristic sensor response value and a predetermined sensor calibration parameter ; and - calibrating the wind turbine sensor according to the determined characteristic sensor response value in case said difference is above a predefined tolerance parameter .
A filter cartridge of a filter group of a fluid , wherein said filter group extends along a main axis (X-X) and comprises: i) a base assembly suitable for engaging, and preferably connecting fluidically, the filter cartridge along the main axis (X-X); ii) means of engagement comprising first engagement members comprised in the filter cartridge and second engagement members comprised in the base assembly , respectively specially designed to engage each other in a blocking configuration in which the filter cartridge and the base assembly are mutually axially blocked; wherein the filter cartridge extends along a cartridge axis (Z-Z) and comprises at an axial end an engagement plane on which said first engagement members are made, comprising at least two tooth elements diametrically opposite the cartridge axis (Z-Z); wherein each tooth element extends in height from the engagement plane parallel to the cartridge axis (Z-Z), comprising a stalk and a head , so that in the blocking configuration said head is engaged by the second engagement members ; wherein each tooth element is elastically yielding in a radial direction, so that said blocking configuration is achievable following the radial movement of the tooth element ; wherein the first engagement members comprise for each tooth element a command device which extends radially from the tooth element , wherein the actuation of the command device involves the radial movement of the tooth element ; characterized in that the command device is positioned at an intermediate distance between the engagement plane and the head of the tooth element . i) a base assembly suitable for engaging, and preferably connecting fluidically, the filter cartridge along the main axis (X-X); ii) means of engagement comprising first engagement members comprised in the filter cartridge and second engagement members comprised in the base assembly , respectively specially designed to engage each other in a blocking configuration in which the filter cartridge and the base assembly are mutually axially blocked; wherein the filter cartridge extends along a cartridge axis (Z-Z) and comprises at an axial end an engagement plane on which said first engagement members are made, comprising at least two tooth elements diametrically opposite the cartridge axis (Z-Z); wherein each tooth element extends in height from the engagement plane parallel to the cartridge axis (Z-Z), comprising a stalk and a head , so that in the blocking configuration said head is engaged by the second engagement members ; wherein each tooth element is elastically yielding in a radial direction, so that said blocking configuration is achievable following the radial movement of the tooth element ; wherein the first engagement members comprise for each tooth element a command device which extends radially from the tooth element , wherein the actuation of the command device involves the radial movement of the tooth element ; characterized in that the command device is positioned at an intermediate distance between the engagement plane and the head of the tooth element .
A mobile floor cleaning machine having an integrated floor cleaning tool , comprising an accessory retainer for cleaning accessories, which has at least one accommodating part , which is fastened to the floor cleaning machine , and at least one retaining part , which can be connected to the accommodating part, for retaining the cleaning accessories, characterised in that the at least one accommodating part is of elongate construction, and in that in the condition in which it is connected relative to the at least one accommodating part , the at least one retaining part is movable in relation to the at least one accommodating part and/or that a plurality of retaining parts are connectable to the at least one accommodating part .
A bioactive glass composition comprising one or more glasses comprising SiO 2 , P 2 O 5 and a fluoride, the SiO 2 content being less than 40 mole % and more than 25 mole %, the P 2 O 5 content being at least 4 mole % and less than 10 mole %, and the fluoride content being greater than 1 mole % and less than 25 mole %.
Microelectronic component assembly comprising a plurality of substrates, which has: a first substrate (C1), which is designed as a circuit substrate with a first degree of integration, wherein the degree of integration is a measure of the minimum structure size, wherein the higher the degree of integration, the smaller the minimum structure size; a second substrate (C2), which is designed as a circuit substrate with a second degree of integration and is bonded onto the first substrate (C1); a third substrate (C3), which is designed as a MEMS sensor substrate with a third degree of integration and is bonded onto the second substrate (C2); wherein the first degree of integration is substantially greater than the second degree of integration, characterized in that a fourth substrate (C4), which is designed with a fourth degree of integration, is bonded onto the first substrate (C1), wherein the fourth substrate (C4) has a magnetic field sensor component and/or a microprocessor component. a first substrate (C1), which is designed as a circuit substrate with a first degree of integration, wherein the degree of integration is a measure of the minimum structure size, wherein the higher the degree of integration, the smaller the minimum structure size; a second substrate (C2), which is designed as a circuit substrate with a second degree of integration and is bonded onto the first substrate (C1); a third substrate (C3), which is designed as a MEMS sensor substrate with a third degree of integration and is bonded onto the second substrate (C2); wherein the first degree of integration is substantially greater than the second degree of integration, characterized in that a fourth substrate (C4), which is designed with a fourth degree of integration, is bonded onto the first substrate (C1), wherein the fourth substrate (C4) has a magnetic field sensor component and/or a microprocessor component.