mhurhangee/patent-ind-claim-en huggingface dataset:
A drive sub-assembly for driving a shaft , the drive sub-assembly comprising: a hub extending from a first end face to a second end face along a longitudinal axis (A), the hub having an outer circumferential surface and first inner circumferential surface; a first bearing assembly comprising a first inner race , first rollers and a first outer race ; a second bearing assembly comprising a second inner race ; second rollers and a second outer race ; a gear attached to the second end face of the hub , the gear having a second inner circumferential surface that is arranged to engage said second outer race , and a housing assembly wherein the outer circumferential surface defines: a first recess proximate to the first end face , and a shoulder between the first recess and the second end face along the longitudinal axis, wherein the first inner race and the first rollers are mounted on the shoulder , and wherein the first outer race and second inner race are attached to said housing assembly; wherein the first inner circumferential surface defines a second recess proximate to the second end face . a hub extending from a first end face to a second end face along a longitudinal axis (A), the hub having an outer circumferential surface and first inner circumferential surface; a first bearing assembly comprising a first inner race , first rollers and a first outer race ; a second bearing assembly comprising a second inner race ; second rollers and a second outer race ; a gear attached to the second end face of the hub , the gear having a second inner circumferential surface that is arranged to engage said second outer race , and a housing assembly wherein the outer circumferential surface defines: a first recess proximate to the first end face , and a shoulder between the first recess and the second end face along the longitudinal axis, a first recess proximate to the first end face , and a shoulder between the first recess and the second end face along the longitudinal axis, wherein the first inner race and the first rollers are mounted on the shoulder , and wherein the first outer race and second inner race are attached to said housing assembly; wherein the first inner circumferential surface defines a second recess proximate to the second end face .
Method for producing a fibre body, which comprises building up the fibre body layer by layer by alternately applying a fibre matrix material to a respective layer base and fusing a respectively applied layer of the fibre matrix material onto the layer base , wherein the fibre body has a plurality of structures which are crosslinked with one another, and wherein the fibre matrix material contains a matrix material and a plurality of short fibres and/or fibre particles.
A method for forming porous fibers, the method comprising: supplying a bundle of fibers to a drawing system that includes at least one draw bar in contact with a fluidic medium having a temperature that is lower than the melting temperature of a matrix polymer, wherein at least a portion of the fibers are formed from a thermoplastic composition containing a continuous phase that includes the matrix polymer and a nanoinclusion additive dispersed within the continuous phase in the form of discrete domains; and traversing the bundle of fibers over the draw bar, thereby forming a porous network in the fibers that includes a plurality of nanopores, optionally having an average cross-sectional dimension of about 800 nanometers or less; wherein the draw bar is submerged within the fluidic medium; and wherein the draw bar is provided with at least one groove that is oriented in a direction generally parallel with a longitudinal direction of the fiber bundle. supplying a bundle of fibers to a drawing system that includes at least one draw bar in contact with a fluidic medium having a temperature that is lower than the melting temperature of a matrix polymer, wherein at least a portion of the fibers are formed from a thermoplastic composition containing a continuous phase that includes the matrix polymer and a nanoinclusion additive dispersed within the continuous phase in the form of discrete domains; and traversing the bundle of fibers over the draw bar, thereby forming a porous network in the fibers that includes a plurality of nanopores, optionally having an average cross-sectional dimension of about 800 nanometers or less; wherein the draw bar is submerged within the fluidic medium; and wherein the draw bar is provided with at least one groove that is oriented in a direction generally parallel with a longitudinal direction of the fiber bundle.
A detecting means for detecting a signal that is indicative of the activity of the respiratory muscles of a person to be examined said detecting means comprising a band means which is passed around a torso region which widens and narrows in response to the respiration of a person to be examined, characterized in that the detecting means further comprises a tube portion , a buckle means which is included in the band means and is loaded by said band means in accordance with the narrowing and widening of the torso region, wherein said buckle means is adapted to squeeze said tube portion in accordance with the tensile loading of said band means, such that the buckle means causes a change in the volume of the tube portion when loaded in accordance with the narrowing and widening of the torso region, and wherein a bypass throttle bore is provided in the tube portion or in a plug or connector of the detecting means.
A multi-engine aircraft , comprising: first and second gas turbine engines (10', 10") for providing motive power to the aircraft , each of the first and second engines comprising an air system ; an air pressure line extending between and fluidly connecting the air systems of the first and second engines (10', 10"); and, characterised by a pressure wave damper communicating with the air pressure line extending between the first and second engines (10', 10"), and one or more pressure wave dampers communicating with one or more air pressure lines that are part of the air systems of the first and second engines (10', 10"), each of the one or more pressure wave dampers being disposed at a location corresponding to a pressure wave maximum of each air pressure line of the one or more air pressure lines corresponding to that pressure wave damper . first and second gas turbine engines (10', 10") for providing motive power to the aircraft , each of the first and second engines comprising an air system ; an air pressure line extending between and fluidly connecting the air systems of the first and second engines (10', 10"); and, characterised by a pressure wave damper communicating with the air pressure line extending between the first and second engines (10', 10"), and one or more pressure wave dampers communicating with one or more air pressure lines that are part of the air systems of the first and second engines (10', 10"), each of the one or more pressure wave dampers being disposed at a location corresponding to a pressure wave maximum of each air pressure line of the one or more air pressure lines corresponding to that pressure wave damper .
A laminated security document with a securing element located locally or on the whole surface of the security document , at least one coating layer being deposited onto the securing element , the securing element comprising a marking region composed of at least one printing ink layer containing optically variable interference pigments, the printing ink layer further containing fluorescent pigments and/or fluorescent dyes and being free of additives changing the absorption spectrum of the printing ink layer, the marking region comprising at least one laser marking applied by laser radiation, the laser marking being visually recognizable basing on an irreversible change of interference properties of the printing ink layer containing optically variable interference pigments and fluorescent pigments and/or dyes, and on a transformation, within the laser marking , of an original color demonstrating a change dependent on the observation angle into another color demonstrating no change dependent on the observation angle, wherein the laser marking is recognizable basing on a change of the intensity of light emission from the fluorescent pigments and/or fluorescent dyes when illuminating the laser marking with ultraviolet light.
A method of processing a user-generated input command, the method being executable at a computing apparatus and comprising: for each one of a plurality of machine-executable instructions : - receiving a plurality of example expressions for the machine-executable instruction by a training module; - generating a respective set of features for each of the plurality of example expressions by the training module, wherein the respective set of features are assigned to a word in the example expression based on a morphological and lexicological analysis of the word, and taking into account neighboring words in the example expression; and - analyzing a plurality of sets of features associated with the plurality of example expressions to determine a plurality of feature patterns by the training module, the plurality of sets of features comprising the sets of features for each of the plurality of example expressions , wherein analyzing the plurality of sets of features associated with the plurality of example expressions comprises using a Charm Bitset algorithm; the plurality of feature patterns determined by the training module being used to convert a user-generated input command included in user-generated speech received by a natural language processing module into a machine executable output instruction by the natural language processing module, the machine executable output instruction being one of the plurality of machine-executable instructions , wherein the user-generated speech is converted into text data, the text data is analyzed, wherein the analysis of the text data comprises assigning features to each word in the text data, and wherein an intersection between features assigned to a word and the feature patterns provided by the training module is determined. - receiving a plurality of example expressions for the machine-executable instruction by a training module; - generating a respective set of features for each of the plurality of example expressions by the training module, wherein the respective set of features are assigned to a word in the example expression based on a morphological and lexicological analysis of the word, and taking into account neighboring words in the example expression; and - analyzing a plurality of sets of features associated with the plurality of example expressions to determine a plurality of feature patterns by the training module, the plurality of sets of features comprising the sets of features for each of the plurality of example expressions , wherein analyzing the plurality of sets of features associated with the plurality of example expressions comprises using a Charm Bitset algorithm;
An isolated crystalline form of Compound 3: wherein: - said crystalline form is Form A and is characterized by a powder X-ray diffraction (PXRD) pattern comprising at least one 2theta values selected from 2.6±0.4°, 3.6±0.4°,and 3.8±0.4°; or - said crystalline form is Form B and is characterized by a powder X-ray diffraction (PXRD) pattern comprising at least three 2theta values selected from 16.2+0.4°, 15.7±0.4°, 4.5±0.4°, 22.6±0.4°, 17.4±0.4°, 22.0±0.4°, 8.3±0.4°, 16.1±0.4°, 21.1±0.4°, 18.7±0.4°, 18.3±0.4°, 23.9+0.4°, and 27.5±0.4°; or - said crystalline form is Form M and is characterized by a powder X-ray diffraction (PXRD) pattern comprising at least three 2theta values selected from 15.0±0.4°, 7.5±0.4°, 23.8±0.4°, 7.2±0.4°, 19.1±0.4°, 5.2±0.4°, 8.3+0.4°, 26.2±0.4°, 22.8±0.4°, 21.7±0.4°, and 24.9±0.4°. - said crystalline form is Form A and is characterized by a powder X-ray diffraction (PXRD) pattern comprising at least one 2theta values selected from 2.6±0.4°, 3.6±0.4°,and 3.8±0.4°; or - said crystalline form is Form B and is characterized by a powder X-ray diffraction (PXRD) pattern comprising at least three 2theta values selected from 16.2+0.4°, 15.7±0.4°, 4.5±0.4°, 22.6±0.4°, 17.4±0.4°, 22.0±0.4°, 8.3±0.4°, 16.1±0.4°, 21.1±0.4°, 18.7±0.4°, 18.3±0.4°, 23.9+0.4°, and 27.5±0.4°; or - said crystalline form is Form M and is characterized by a powder X-ray diffraction (PXRD) pattern comprising at least three 2theta values selected from 15.0±0.4°, 7.5±0.4°, 23.8±0.4°, 7.2±0.4°, 19.1±0.4°, 5.2±0.4°, 8.3+0.4°, 26.2±0.4°, 22.8±0.4°, 21.7±0.4°, and 24.9±0.4°.
An aircraft brake signal lamp , comprising: a housing ; a navigation light disposed within the housing; and a brake light disposed within the housing, wherein the brake light is configured to illuminate in response to a brake signal; a strobe light contained in the housing ; a controller disposed within the housing ; a power conditioning module in electronic communication with the controller and configured to send power to the brake light ; a tangible, non-transitory memory configured to communicate with the controller, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the controller, cause the controller to perform operations comprising: receiving, by the controller, the brake signal; commanding, by the controller, a power conditioning module to send power to the brake light in response to the brake signal; receiving, by the controller, a strobe power sense signal, the strobe power sense signal being generated in response to power being supplied to the strobe light ; and inhibiting, by the controller, illumination of the brake light in response to the strobe power sense signal. a housing ; a navigation light disposed within the housing; and a brake light disposed within the housing, wherein the brake light is configured to illuminate in response to a brake signal; a strobe light contained in the housing ; a controller disposed within the housing ; a power conditioning module in electronic communication with the controller and configured to send power to the brake light ; a tangible, non-transitory memory configured to communicate with the controller, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the controller, cause the controller to perform operations comprising: receiving, by the controller, the brake signal; commanding, by the controller, a power conditioning module to send power to the brake light in response to the brake signal; receiving, by the controller, a strobe power sense signal, the strobe power sense signal being generated in response to power being supplied to the strobe light ; and inhibiting, by the controller, illumination of the brake light in response to the strobe power sense signal. receiving, by the controller, the brake signal; commanding, by the controller, a power conditioning module to send power to the brake light in response to the brake signal; receiving, by the controller, a strobe power sense signal, the strobe power sense signal being generated in response to power being supplied to the strobe light ; and inhibiting, by the controller, illumination of the brake light in response to the strobe power sense signal.
A key box with a housing and a cooperating door which, in combination, form a secured space when the door is closed, wherein the door is locked by means of an electric locking system, which locking system comprises an electric locking mechanism , an electronic control unit and a wireless communication unit , wherein the electronic control unit is configured to communicate wirelessly with a mobile unit by means of the wireless communication unit to verify access rights relative to the mobile unit and, if the access rights are authenticated, to cancel the locking effect of the locking mechanism , wherein the control unit and the wireless communication unit are accommodated within the secured space, characterised in that the transition between the housing and the door made of an electrically conductive material, in the closed state thereof, is configured for transferring a wireless signal between the interior and the exterior of the key box, wherein the transition comprises means for electrical insulation between the housing and the door .
A method of fabricating a visible spectrum optical component, comprising: providing a substrate; forming a resist layer over a surface of the substrate; patterning the resist layer to form a patterned resist layer defining openings exposing portions of the surface of the substrate; performing atomic layer deposition to form a conformal dielectric film over the patterned resist layer and over the exposed portions of the surface of the substrate, wherein a top surface of the conformal dielectric film is above a top surface of the patterned resist layer, wherein both the top and sidewall surfaces of the patterned resist layer and the exposed portions of the surface of the substrate are conformally coated by the conformal dielectric film, and wherein the conformal dielectric film occupies the entire openings; removing a top portion of the conformal dielectric film to expose the top surface of the patterned resist layer and top surfaces of dielectric units within the openings of the patterned resist layer; and removing the patterned resist layer to expose metasurfaces comprising a plurality of dielectric units formed by the conformal dielectric film. providing a substrate; forming a resist layer over a surface of the substrate; patterning the resist layer to form a patterned resist layer defining openings exposing portions of the surface of the substrate; performing atomic layer deposition to form a conformal dielectric film over the patterned resist layer and over the exposed portions of the surface of the substrate, wherein a top surface of the conformal dielectric film is above a top surface of the patterned resist layer, wherein both the top and sidewall surfaces of the patterned resist layer and the exposed portions of the surface of the substrate are conformally coated by the conformal dielectric film, and wherein the conformal dielectric film occupies the entire openings; removing a top portion of the conformal dielectric film to expose the top surface of the patterned resist layer and top surfaces of dielectric units within the openings of the patterned resist layer; and removing the patterned resist layer to expose metasurfaces comprising a plurality of dielectric units formed by the conformal dielectric film.
An audio system (AS) for an ear mountable playback device (HP), the audio system (AS) being configured to perform active noise cancellation, ANC, and comprising - a speaker (SP); - an error microphone (FB_MIC) configured to sense sound being output from the speaker and ambient sound (SP) and generate an error signal; - a further microphone (FF_MIC) configured to predominantly sense ambient sound; - a feedforward type first noise filter (FNF) coupling the further microphone (FF_MIC) to the speaker (SP) and being configured to generate an anti-noise signal; - a feedback type second noise filter (SNF) coupling the error microphone (FB_MIC) to the speaker (SP) and being configured to generate a further anti-noise signal; and - an adaptation engine (ADP) configured to - adapt a response of the first noise filter (FNF) depending on at least the error signal; characterized in that the adaptation engine (ADP) is configured to - estimate a leakage condition by determining a leakage value from the response of the first noise filter (FNF) by comparing the adapted response of the first noise filter (FNF) to a predetermined minimum and/or maximum response; and - adapt a response of the second noise filter (SNF) depending on the determined leakage value. - a speaker (SP); - an error microphone (FB_MIC) configured to sense sound being output from the speaker and ambient sound (SP) and generate an error signal; - a further microphone (FF_MIC) configured to predominantly sense ambient sound; - a feedforward type first noise filter (FNF) coupling the further microphone (FF_MIC) to the speaker (SP) and being configured to generate an anti-noise signal; - a feedback type second noise filter (SNF) coupling the error microphone (FB_MIC) to the speaker (SP) and being configured to generate a further anti-noise signal; and - an adaptation engine (ADP) configured to - adapt a response of the first noise filter (FNF) depending on at least the error signal; characterized in that the adaptation engine (ADP) is configured to - estimate a leakage condition by determining a leakage value from the response of the first noise filter (FNF) by comparing the adapted response of the first noise filter (FNF) to a predetermined minimum and/or maximum response; and - estimate a leakage condition by determining a leakage value from the response of the first noise filter (FNF) by comparing the adapted response of the first noise filter (FNF) to a predetermined minimum and/or maximum response; and - adapt a response of the second noise filter (SNF) depending on the determined leakage value.
A collection of adsorbent particles, the particles comprising an adsorbent and a silica binder formed by a method comprising the steps of: mixing, agglomeration and calcination, wherein the silica binder is employed in the form of a colloidal solution in the mixing and/or agglomeration stages of the forming method and wherein the binder content in the adsorbent particles is not greater than about 15 wt% as determined by: (binder (dry wt) /(adsorbent) (dry wt) + binder (dry wt) ) × 100) on a dry weight basis; wherein the collection of particles has a SCRR/ε p (size compensated relative rate/porosity) (mmol mm 2 /g s) of greater than or equal to 4.0 as determined for a Li form of the collection of particles in which at least 90% of the exchangeable cations of the collection of adsorbents have been exchanged with Li where the degree of exchange is expressed as a ratio between the number of Li cations and number of aluminum atoms of the adsorbent present in tetrahedral positions and wherein the particles have an average crush strength as measured by the single bead crush strength method of at least 4.00 N (0.9 Ibf) when such adsorbent has an average particle size of at least about 1.0 mm; wherein the collection of particles are subjected to ion exchange and activation such that at least 90% of the exchangeable cations of the collection of adsorbent particles have been exchanged with Li and the silica binder content does not exceed about 18 wt% of the ion-exchanged collection of particles; and wherein ε p is the porosity and SCRR is determined by: SCRR p = RR p * d particle 2 ; where d particle is the average diameter derived from the particle size distribution, (p) is total pressure of the system, and Relative Rate defined as: RR p = Δ N 2 Y F , Y O / t 2 − t 1 ; Δ N 2 is nitrogen loading for Y O to Y F ; Y F is composition of feed which has a mole fraction of oxygen equal to 0.209, Y O is composition of regeneration gas which has a mole fraction of oxygen equal to 0.9999, t 2 is the time when mole fraction of oxygen, Y 2 , has a specified value and t 1 is the time when mole fraction of oxygen Y 1 has a specified value; and wherein the particle size (d particle ) is the average particle size, as determined for example by screen analysis using a series of screens of appropriate mesh sizes.