mhurhangee/patent-ind-claim-en huggingface dataset:
A thermal reduction system for an autonomous vehicle (AV) comprising: a cooling rack housing a data processing system of the AV; a fluid pump to pump cooling fluid through the cooling rack to cool the data processing system ; a cabin radiator to receive the cooling fluid and force cabin air from an interior passenger cabin of the AV though the cabin radiator to cool the cooling fluid ; and a main radiator to receive the cooling fluid and force outside air through the main radiator to further cool the cooling fluid . a cooling rack housing a data processing system of the AV; a fluid pump to pump cooling fluid through the cooling rack to cool the data processing system ; a cabin radiator to receive the cooling fluid and force cabin air from an interior passenger cabin of the AV though the cabin radiator to cool the cooling fluid ; and a main radiator to receive the cooling fluid and force outside air through the main radiator to further cool the cooling fluid .
A conical mixer comprising: - a conical mixing container , with a lower outlet mouth for the mixed product, which is internally provided with an endless screw , arranged with the lower end thereof at the centre of the container and with the upper end thereof eccentrically in said container, so that said endless screw is located at all times near the side wall of the conical container , - a lid on which a motor-reducer is fixed that moves a vertical axis located on the axis of the container , the axis of which provides a rotational movement to a horizontal arm at the free end of which, close to the inner wall of the container , a transmission is mounted for actuating the endless screw during rotation, while said arm rotates around the axis generating a vertical flow in the product to achieve a homogeneous mixture; - a perimeter ring , located horizontally inside the container under the lid , on which the end of the horizontal arm rests on at least one bearing , characterised in that the perimeter ring is fixed to the lid of the mixer by means of adjustable bolts. - a conical mixing container , with a lower outlet mouth for the mixed product, which is internally provided with an endless screw , arranged with the lower end thereof at the centre of the container and with the upper end thereof eccentrically in said container, so that said endless screw is located at all times near the side wall of the conical container , - a lid on which a motor-reducer is fixed that moves a vertical axis located on the axis of the container , the axis of which provides a rotational movement to a horizontal arm at the free end of which, close to the inner wall of the container , a transmission is mounted for actuating the endless screw during rotation, while said arm rotates around the axis generating a vertical flow in the product to achieve a homogeneous mixture; - a perimeter ring , located horizontally inside the container under the lid , on which the end of the horizontal arm rests on at least one bearing , characterised in that the perimeter ring is fixed to the lid of the mixer by means of adjustable bolts.
A carbon blade for a wind turbine, comprising: a carbon spar cap disposed at the center of a width of the blade and extending in a longitudinal direction of the blade ; a carbon skin extending from a tip of the blade to a root of the blade to cover an outer surface of the blade ; a first down conductor disposed on a surface of the blade and partially covering the carbon spar cap in parallel with the carbon spar cap ; a second down conductor disposed on an inner surface of the blade , wherein the first down conductor and the second down conductor are disposed in parallel with each other with the surface of the carbon blade arranged therebetween and a coupling member that connects the first down conductor and the second down conductor . a carbon spar cap disposed at the center of a width of the blade and extending in a longitudinal direction of the blade ; a carbon skin extending from a tip of the blade to a root of the blade to cover an outer surface of the blade ; a first down conductor disposed on a surface of the blade and partially covering the carbon spar cap in parallel with the carbon spar cap ; a second down conductor disposed on an inner surface of the blade , wherein the first down conductor and the second down conductor are disposed in parallel with each other with the surface of the carbon blade arranged therebetween and a coupling member that connects the first down conductor and the second down conductor .
A vehicle display mirror system, comprising: a display device operable to display image data on a display surface as display light; a reflecting polarizer comprising a light receiving surface disposed proximate the display surface , the reflecting polarizer configured to output the display light in a first polarization from an emitting surface, wherein the reflecting polarizer is angled from the display surface at a first angle a; a liquid crystal element comprising a liquid crystal material and forming a first surface and a second surface, the first surface disposed proximate the emitting surface, wherein the liquid crystal element is angled from the reflecting polarizer at a second angle β; a polarizing layer forming a third surface and a fourth surface, the third surface disposed proximate the second surface of the liquid crystal element ; and a controller in communication with the liquid crystal element , wherein the controller is configured to selectively control the liquid crystal material to: in a display state , align the liquid crystal material to pass the display light through the liquid crystal element in the first polarization and outward from the fourth surface; and in a mirror state , deactivate the liquid crystal element to adjust a received light from the first polarization to a second polarization and reflect the second polarization from the emitting surface. a display device operable to display image data on a display surface as display light; a reflecting polarizer comprising a light receiving surface disposed proximate the display surface , the reflecting polarizer configured to output the display light in a first polarization from an emitting surface, wherein the reflecting polarizer is angled from the display surface at a first angle a; a liquid crystal element comprising a liquid crystal material and forming a first surface and a second surface, the first surface disposed proximate the emitting surface, wherein the liquid crystal element is angled from the reflecting polarizer at a second angle β; a polarizing layer forming a third surface and a fourth surface, the third surface disposed proximate the second surface of the liquid crystal element ; and a controller in communication with the liquid crystal element , wherein the controller is configured to selectively control the liquid crystal material to: in a display state , align the liquid crystal material to pass the display light through the liquid crystal element in the first polarization and outward from the fourth surface; and in a mirror state , deactivate the liquid crystal element to adjust a received light from the first polarization to a second polarization and reflect the second polarization from the emitting surface. in a display state , align the liquid crystal material to pass the display light through the liquid crystal element in the first polarization and outward from the fourth surface; and in a mirror state , deactivate the liquid crystal element to adjust a received light from the first polarization to a second polarization and reflect the second polarization from the emitting surface.
A multi-layer breathable film, comprising : a) at least one thinner layer (A) comprising a blend of: 1) from 10 to 90 weight percent of one or more breathable resins 2) from 10 to 90 weight percent of one or more soft polymers having a Tg of less than 0°C; and b) at least on thicker layer (B) comprising one or more breathable resins, and one or more soft polymers having a Tg of less than 0°C, wherein : - layer A comprises at least 10 weight percent less breathable resin than layer (B), - the soft polymer is one or more polyolefins, and - the breathable resin is selected from the group consisting of a polyether-block-amide, a polyester block amide, a copolyester thermoplastic elastomer, or a thermoplastic urethane elastomer (TPU), or mixtures thereof. a) at least one thinner layer (A) comprising a blend of: 1) from 10 to 90 weight percent of one or more breathable resins 2) from 10 to 90 weight percent of one or more soft polymers having a Tg of less than 0°C; and 1) from 10 to 90 weight percent of one or more breathable resins 2) from 10 to 90 weight percent of one or more soft polymers having a Tg of less than 0°C; and b) at least on thicker layer (B) comprising one or more breathable resins, and one or more soft polymers having a Tg of less than 0°C, - layer A comprises at least 10 weight percent less breathable resin than layer (B), - the soft polymer is one or more polyolefins, and - the breathable resin is selected from the group consisting of a polyether-block-amide, a polyester block amide, a copolyester thermoplastic elastomer, or a thermoplastic urethane elastomer (TPU), or mixtures thereof.
Method for manufacturing a three-phase heavy-duty laundry detergent wipe consisting of a dispersion comprising a liquid continuous phase with solid content and a solid substrate, wherein a dispersion is applied to a carrier material which is solid at ambient temperature, comprising the following steps: (a) providing a liquid laundry detergent solution with exothermic saponified components or soap and a water content of 10 - 30 weight-%; (b) adding solid additives to the liquid laundry detergent solution with a disperser to obtain a dispersion with a solid content of 1 -10 weight-%; wherein steps (a) and (b) are performed at ambient temperature; characterized by the following further steps: (c) providing a carrier material consisting of a finite needled fiber; (d) applying the dispersion to the carrier material with a moistening device such that the carrier material statistically fixes the dispersion; wherein steps (c) and (d) are performed at ambient temperature. (a) providing a liquid laundry detergent solution with exothermic saponified components or soap and a water content of 10 - 30 weight-%; (b) adding solid additives to the liquid laundry detergent solution with a disperser to obtain a dispersion with a solid content of 1 -10 weight-%; wherein steps (a) and (b) are performed at ambient temperature; characterized by the following further steps: wherein steps (a) and (b) are performed at ambient temperature; characterized by the following further steps: (c) providing a carrier material consisting of a finite needled fiber; (d) applying the dispersion to the carrier material with a moistening device such that the carrier material statistically fixes the dispersion;
A consumer product composition comprising a surfactant and a nucleic acid aptamer comprising at least one oligonucleotide comprising: deoxyribonucleotides, ribonucleotides, derivatives of deoxyribonucleotides, derivatives of ribonucleotides, and mixtures thereof, wherein said oligonucleotide comprises oligonucleotide with at least 90% nucleotide sequence identity to sequences selected from the group consisting of SEQ ID NO 1 to SEQ ID NO 222, wherein said nucleic acid aptamer has a binding affinity for an epitope of a surface, and wherein said surface is teeth.
A method of constructing a sliding subsea foundation, the method comprising: embedding at least one mass of rocks in seabed soil ; and placing a sliding mudmat on the seabed over the or each mass of rocks . embedding at least one mass of rocks in seabed soil ; and placing a sliding mudmat on the seabed over the or each mass of rocks .
A communications system comprising: a) an optical source configured to generate an optical carrier signal; b) a first electro-optic (EO) modulator coupled to the optical source and configured to modulate the optical carrier signal based upon a radio frequency (RF) input; c) a plurality of photonic mixers (36a-36n) each associated with a different respective frequency across a frequency spectrum and coupled to the optical source and the first EO modulator ; d) at least one first opto-electronic (OE) detector (66a-66n) coupled to the plurality of photonic mixers (36a-36n); and e) an analog-to-digital converter (ADC) coupled to the at least one OE detector (66a-66n) and configured to generate a digital output signal based upon receiving an RF signal via the RF input; characterized in that each photonic mixer (36a-36n) comprises: f) a first path coupled to the first EO modulator and comprising a first optical bandpass filter (BPF) and an optical power meter coupled to the first optical BPF ; g) a second path coupled to the optical source and comprising an optoelectronic oscillator (OEO) and a second optical BPF coupled to the OEO ; and h) an optical coupler coupled to the first and second paths. a) an optical source configured to generate an optical carrier signal; b) a first electro-optic (EO) modulator coupled to the optical source and configured to modulate the optical carrier signal based upon a radio frequency (RF) input; c) a plurality of photonic mixers (36a-36n) each associated with a different respective frequency across a frequency spectrum and coupled to the optical source and the first EO modulator ; d) at least one first opto-electronic (OE) detector (66a-66n) coupled to the plurality of photonic mixers (36a-36n); and e) an analog-to-digital converter (ADC) coupled to the at least one OE detector (66a-66n) and configured to generate a digital output signal based upon receiving an RF signal via the RF input; f) a first path coupled to the first EO modulator and comprising a first optical bandpass filter (BPF) and an optical power meter coupled to the first optical BPF ; g) a second path coupled to the optical source and comprising an optoelectronic oscillator (OEO) and a second optical BPF coupled to the OEO ; and h) an optical coupler coupled to the first and second paths.
A traction system for an ambulatory support , the traction system comprising: a sole plate couplable to a distal end of the ambulatory support to extend under a bottom side of the ambulatory support ; a latch assembly including: a front catch and a rear catch both fixable at a top side of the ambulatory support with the front catch nearer to the distal end of the ambulatory support than the rear catch , and a lever having a front end and a rear end , the front end releasably latchable to the front catch and the rear end releasably latchable to the rear catch when the lever is pivoted about the latched front end ; and a strap secured to the lever and to the sole plate and placed in tension when the sole plate is coupled to the distal end of the ambulatory support and the lever is latched at the front end and the rear end , the strap pulling the sole plate against the distal end and the bottom side of the ambulatory support . a sole plate couplable to a distal end of the ambulatory support to extend under a bottom side of the ambulatory support ; a latch assembly including: a front catch and a rear catch both fixable at a top side of the ambulatory support with the front catch nearer to the distal end of the ambulatory support than the rear catch , and a lever having a front end and a rear end , the front end releasably latchable to the front catch and the rear end releasably latchable to the rear catch when the lever is pivoted about the latched front end ; and a front catch and a rear catch both fixable at a top side of the ambulatory support with the front catch nearer to the distal end of the ambulatory support than the rear catch , and a lever having a front end and a rear end , the front end releasably latchable to the front catch and the rear end releasably latchable to the rear catch when the lever is pivoted about the latched front end ; and a strap secured to the lever and to the sole plate and placed in tension when the sole plate is coupled to the distal end of the ambulatory support and the lever is latched at the front end and the rear end , the strap pulling the sole plate against the distal end and the bottom side of the ambulatory support .
A vehicle front passenger seat airbag device , comprising: a plurality of inflators each comprising a squib ; an airbag including: a front passenger seat airbag that is inflated and deployed on receipt of gas supplied from the plurality of the inflators , and that is inflated and deployed at a vehicle front side of an occupant (P) seated in a front passenger seat, and a center airbag that is inflated and deployed at a vehicle width direction center side of the front passenger seat airbag , and that includes a vehicle-rear-side end that projects out further toward a vehicle rear side when inflated and deployed than a rear end of the front passenger seat airbag when inflated and deployed; and a controller ; characterized in that the controller is configured to control timings for igniting each squib included in the plurality of inflators such that a peak internal pressure of the airbag inflated and deployed when an oblique collision or small overlap collision has occurred is delayed, compared to a peak internal pressure of the airbag inflated and deployed when a head-on collision has occurred. a plurality of inflators each comprising a squib ; an airbag including: a front passenger seat airbag that is inflated and deployed on receipt of gas supplied from the plurality of the inflators , and that is inflated and deployed at a vehicle front side of an occupant (P) seated in a front passenger seat, and a center airbag that is inflated and deployed at a vehicle width direction center side of the front passenger seat airbag , and that includes a vehicle-rear-side end that projects out further toward a vehicle rear side when inflated and deployed than a rear end of the front passenger seat airbag when inflated and deployed; and a front passenger seat airbag that is inflated and deployed on receipt of gas supplied from the plurality of the inflators , and that is inflated and deployed at a vehicle front side of an occupant (P) seated in a front passenger seat, and a center airbag that is inflated and deployed at a vehicle width direction center side of the front passenger seat airbag , and that includes a vehicle-rear-side end that projects out further toward a vehicle rear side when inflated and deployed than a rear end of the front passenger seat airbag when inflated and deployed; and a controller ; characterized in that the controller is configured to control timings for igniting each squib included in the plurality of inflators such that a peak internal pressure of the airbag inflated and deployed when an oblique collision or small overlap collision has occurred is delayed, compared to a peak internal pressure of the airbag inflated and deployed when a head-on collision has occurred.
A material comprising a transparent conductive coating and a substrate on which the coating is supported, the coating comprising a fused metal nanowire network comprising fused metal nanowires, wherein the coating has a transmittance for visible light of at least 85% and a sheet resistance of no more than 100 Ohms/square or a transmittance for visible light of at least 90% and a sheet resistance of no more than 250 Ohms/square, wherein the metal nanowires have an average diameter of no more than 250 nm.
Input device of an elevator installation for generating a control signal for controlling the elevator installation, comprising - a control panel which is formed by a planar element of the elevator installation and has a front face (2.1) and a rear face (2.2), - an input zone on the front face (2.1) of the control panel , wherein the position of the input zone is marked by means of a marking on the front face (2.1) of the control panel , and wherein the control panel is arranged so as to be deflectable, at least in the region of the input zone , and - a piezo bending sensor or as a strain gauge bending sensor which is attached to a region of the rear face (2.2) of the control panel that is opposite the input zone in such a way that said sensor detects a deflection in the region of the input zone of the control panel . - a control panel which is formed by a planar element of the elevator installation and has a front face (2.1) and a rear face (2.2), - an input zone on the front face (2.1) of the control panel , wherein the position of the input zone is marked by means of a marking on the front face (2.1) of the control panel , and wherein the control panel is arranged so as to be deflectable, at least in the region of the input zone , and - a piezo bending sensor or as a strain gauge bending sensor which is attached to a region of the rear face (2.2) of the control panel that is opposite the input zone in such a way that said sensor detects a deflection in the region of the input zone of the control panel .
Active implantable medical device (AIMD) for implantation in a body of a patient, said AIMD comprising an encapsulation defining an inner space of volume (Vi) sealingly separated from an outer environment by walls defined by an inner surface defining the boundaries of the inner space and by an outer surface in contact with the outer environment, the outer surface being defined by a length (Lo) measured along a first axis (X), a width (Wo) measured along a second axis (Y), and a height (Ho) measured along a third axis (Z) with X ⊥ Y ⊥ Z, wherein (a) the walls comprise a first main wall and a second main wall (1 b) facing one another and separated from one another by an inner height (Hi) of the inner space measured along the third axis (Z), wherein the first and second main walls are defined as any wall portion which outer surface is planar or has a single or double curvature of radius of curvature (R) of at least 100 mm, (b)the encapsulation comprises a housing formed by a first component and a second component both made of a single transparent ceramic material and hermetically joined to one another along a single interface to define the inner space hermetically sealed by the walls from the outer environment, (c) the inner space contains an electronic circuit board including a main source of light of a given wavelength range and/or a first photodetector for detecting a light of the given wavelength range, wherein the given wavelength range is comprised between 380 and 2200 nm, Characterized in that, the interface between the first and second components is formed by welding without addition of a third material, in that, the volume (Vi) of the inner space is at least 2 cm 3 , in that, the first and second main walls have a mean thickness (t1a, t1b) comprised between 400 and 1200 μm, in that, the main source of light and/or the first photodetector face a light wall portion (1 Lt) of the first main wall , and in that, the light wall portion has a transmittance to a wavelength of 850 nm at room temperature of at least 75%, measured according to ASTM D1003-7. (a) the walls comprise a first main wall and a second main wall (1 b) facing one another and separated from one another by an inner height (Hi) of the inner space measured along the third axis (Z), wherein the first and second main walls are defined as any wall portion which outer surface is planar or has a single or double curvature of radius of curvature (R) of at least 100 mm, (b)the encapsulation comprises a housing formed by a first component and a second component both made of a single transparent ceramic material and hermetically joined to one another along a single interface to define the inner space hermetically sealed by the walls from the outer environment, (c) the inner space contains an electronic circuit board including a main source of light of a given wavelength range and/or a first photodetector for detecting a light of the given wavelength range, wherein the given wavelength range is comprised between 380 and 2200 nm,