mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a light detection and ranging, LiDAR, unit comprising an atmospheric characterization transceiver module , the LiDAR unit configured to transmit light into an external interaction air region , and collect scattered portions of the transmitted light from the external interaction air region; a robotic arm operatively coupled to the atmospheric characterization transceiver module; and a processor in operative communication with the robotic arm, the processor configured to control the robotic arm to position and point the atmospheric characterization transceiver module in a direction of interest to interrogate the external interaction air region; wherein the system is installed on a movable or unstable platform; wherein the platform includes an inertial measurement unit, IMU, operatively coupled to the processor. a light detection and ranging, LiDAR, unit comprising an atmospheric characterization transceiver module , the LiDAR unit configured to transmit light into an external interaction air region , and collect scattered portions of the transmitted light from the external interaction air region; a robotic arm operatively coupled to the atmospheric characterization transceiver module; and a processor in operative communication with the robotic arm, the processor configured to control the robotic arm to position and point the atmospheric characterization transceiver module in a direction of interest to interrogate the external interaction air region; wherein the system is installed on a movable or unstable platform; wherein the platform includes an inertial measurement unit, IMU, operatively coupled to the processor.
People transportation means comprising - a vehicle body with an inner space which is delimited by a vehicle floor , a vehicle ceiling and side walls , and - a ventilation device with an air-conditioning unit comprising a warm air outlet and a cold air outlet , a supply air duct system for supplying air into the inner space and with a central air interface , - wherein the supply air duct system comprises a ceiling duct arranged in the ceiling region of the vehicle ceiling and having at least one ceiling outlet , at least two branch ducts leading away from the ceiling duct and each having at least one floor outlet provided in a floor region of the vehicle floor , wherein the at least two branch ducts lead away from the ceiling duct on both sides with respect to a longitudinal direction , and at least one active manipulation device for each branch duct for manipulating an air flow of the branch duct , wherein the respective manipulation device comprises a ventilator unit configured for suppressing, tolerating and/or supporting an air flow through the branch duct , - wherein the central air interface brings together the warm air outlet and the cold air outlet of the air-conditioning unit and connects them to the ceiling duct , and - wherein the people transportation means , the ventilation device and/or the supply air duct system is/are configured such that in the ceiling region exclusively a single ceiling duct , in particular extending in a longitudinal direction , is provided for supplying air into the inner space . - a vehicle body with an inner space which is delimited by a vehicle floor , a vehicle ceiling and side walls , and - a ventilation device with an air-conditioning unit comprising a warm air outlet and a cold air outlet , a supply air duct system for supplying air into the inner space and with a central air interface , - wherein the supply air duct system comprises a ceiling duct arranged in the ceiling region of the vehicle ceiling and having at least one ceiling outlet , at least two branch ducts leading away from the ceiling duct and each having at least one floor outlet provided in a floor region of the vehicle floor , wherein the at least two branch ducts lead away from the ceiling duct on both sides with respect to a longitudinal direction , and at least one active manipulation device for each branch duct for manipulating an air flow of the branch duct , wherein the respective manipulation device comprises a ventilator unit configured for suppressing, tolerating and/or supporting an air flow through the branch duct , - wherein the central air interface brings together the warm air outlet and the cold air outlet of the air-conditioning unit and connects them to the ceiling duct , and - wherein the people transportation means , the ventilation device and/or the supply air duct system is/are configured such that in the ceiling region exclusively a single ceiling duct , in particular extending in a longitudinal direction , is provided for supplying air into the inner space .
A process for the production of composite materials comprising nano-fibrillar cellulose gels from recycled and/or deinked pulp, characterized by the steps of: a) providing cellulose fibres in the form of recycled and/or deinked pulp; b) providing at least one filler and/or pigment; c) combining the cellulose fibres of step a) and the at least one filler and/or pigment of step b); d) fibrillating the cellulose fibres in an aqueous environment in the presence of the at least one filler and/or pigment until a nano-fibrillar cellulose gel is formed, wherein the formation of the gel is verified by monitoring the viscosity of the mixture in dependence of the shearing rate, wherein the viscosity decrease of the mixture upon step-wise increase of the shearing rate is stronger than the corresponding viscosity increase upon subsequent step-wise reduction of the shearing rate over at least part of the shear rate range as shearing approaches zero; e) providing at least one further filler and/or pigment; f) combining the gel of step d) with the at least one further filler and/or pigment of step e). a) providing cellulose fibres in the form of recycled and/or deinked pulp; b) providing at least one filler and/or pigment; c) combining the cellulose fibres of step a) and the at least one filler and/or pigment of step b); d) fibrillating the cellulose fibres in an aqueous environment in the presence of the at least one filler and/or pigment until a nano-fibrillar cellulose gel is formed, wherein the formation of the gel is verified by monitoring the viscosity of the mixture in dependence of the shearing rate, wherein the viscosity decrease of the mixture upon step-wise increase of the shearing rate is stronger than the corresponding viscosity increase upon subsequent step-wise reduction of the shearing rate over at least part of the shear rate range as shearing approaches zero; e) providing at least one further filler and/or pigment; f) combining the gel of step d) with the at least one further filler and/or pigment of step e).
Rail vehicle , comprising a cubicle , the cubicle comprising - a framework comprising aluminium profile rods which are connected by connections , wherein multiple of said connections are each reinforced by a stiffening member , wherein each stiffening member is fixed to the connected profile rods in the region of the connection, wherein - the framework is grounded by electric connection to a vehicle body characterized in that - the cubicle further comprises mounting plates which are fixed to the framework and electrical components which are fixed to one or more of the mounting plates and which are located inside the framework - at least one electrical component is electrically contacted to one of the mounting plates , and the mounting plate is electrically contacted to the framework , so that electrical grounding is provided if the framework is earthed, - the connections are detachable connections, which directly interconnect the profile rods by conductive fastening means , the conductive fastening means comprising a combination of a conductive slot nut and a conductive screw . - a framework comprising aluminium profile rods which are connected by connections , wherein multiple of said connections are each reinforced by a stiffening member , wherein each stiffening member is fixed to the connected profile rods in the region of the connection, wherein - the framework is grounded by electric connection to a vehicle body characterized in that - the cubicle further comprises mounting plates which are fixed to the framework and electrical components which are fixed to one or more of the mounting plates and which are located inside the framework - at least one electrical component is electrically contacted to one of the mounting plates , and the mounting plate is electrically contacted to the framework , so that electrical grounding is provided if the framework is earthed, - the connections are detachable connections, which directly interconnect the profile rods by conductive fastening means , the conductive fastening means comprising a combination of a conductive slot nut and a conductive screw .
Braking joint with an upper part , a lower part mounted thereon so as to be pivotable about a pivot axis and a braking device which has at least one braking element which can be brought by means of a release mechanism from an activated state at least braking a flexion movement into a deactivated state permitting a flexion movement, wherein the braking device does not block an extension movement and the braking device is associated with an actuator which holds the at least one braking element in the deactivated state during the flexion movement, characterised in that the release mechanism has a release lever which is coupled to the at least one braking element .
A laminated glass plate comprising: a first plate being curved in a first curved shape; a second plate having a second shape, the second shape being different from the first curved shape; and an intermediate film bonding the first plate and the second plate ; said laminated glass plate being characterized in that a first corner edge of the laminated second plate does not include a fold, the fold being a deformation that occurs locally in a plate thickness direction, wherein a plate thickness of the first plate is greater than or equal to 1.5 mm and less than or equal to 4.0 mm, wherein a plate thickness of the second plate is greater than or equal to 0.2 mm and less than or equal to 1.0 mm; and wherein a standard deviation of a thickness of the laminated glass plate at the first corner edge is less than 0.038 mm, wherein the thickness is measured along the corner edge at each 5 mm interval at a position that is separated from the peripheral edge of the laminated glass plate by 5 mm toward inside the surface, thereby obtaining 11 measured points. a first plate being curved in a first curved shape; a second plate having a second shape, the second shape being different from the first curved shape; and an intermediate film bonding the first plate and the second plate ; said laminated glass plate being characterized in that a first corner edge of the laminated second plate does not include a fold, the fold being a deformation that occurs locally in a plate thickness direction, wherein a plate thickness of the first plate is greater than or equal to 1.5 mm and less than or equal to 4.0 mm, wherein a plate thickness of the second plate is greater than or equal to 0.2 mm and less than or equal to 1.0 mm; and wherein a standard deviation of a thickness of the laminated glass plate at the first corner edge is less than 0.038 mm, wherein the thickness is measured along the corner edge at each 5 mm interval at a position that is separated from the peripheral edge of the laminated glass plate by 5 mm toward inside the surface, thereby obtaining 11 measured points.
A potable water tank comprising: a compression molded tank shell, the tank shell including: a back panel ; a compression molded front panel ; and a side panel extending from the back panel to the compression molded front panel , the side panel defining an outer perimeter of the water tank; the compression molded front panel being secured to the side panel to enclose an interior of the water tank; characterized by one or more baffles disposed in the interior of the water tank, the one or more baffles extending between portions of the side panel from the back panel to the front panel. a compression molded tank shell, the tank shell including: a back panel ; a compression molded front panel ; and a side panel extending from the back panel to the compression molded front panel , the side panel defining an outer perimeter of the water tank; a back panel ; a compression molded front panel ; and a side panel extending from the back panel to the compression molded front panel , the side panel defining an outer perimeter of the water tank; the compression molded front panel being secured to the side panel to enclose an interior of the water tank; characterized by one or more baffles disposed in the interior of the water tank, the one or more baffles extending between portions of the side panel from the back panel to the front panel.
A food composition effective to increase growth rate, improve feed efficiency, reduce gastrointestinal inflammation, reduce a risk of gastrointestinal infection in an animal subject, or a combination thereof, said composition comprising a basal food composition, and greater than 0.1 mg/Kg of intestinal secretory IgA, wherein the intestinal secretory IgA is (i) provided as a pasteurised intestinal secretory IgA-containing intestinal luminal fluid preparation, wherein said intestinal luminal fluid preparation is prepared from the intestinal luminal fluid of a pig or a cow or a pasteurised intestinal secretory IgA-containing intestinal mucosa preparation, wherein said mucosa preparation is prepared from the intestinal mucosa of a pig or a cow, wherein greater than 10% of the proteinaceous material in the intestinal luminal fluid preparation or in the intestinal mucosa preparation is IgA, or (ii) provided as unhydrolysed dried intestinal mucosa of a pig or a cow. (i) provided as a pasteurised intestinal secretory IgA-containing intestinal luminal fluid preparation, wherein said intestinal luminal fluid preparation is prepared from the intestinal luminal fluid of a pig or a cow or a pasteurised intestinal secretory IgA-containing intestinal mucosa preparation, wherein said mucosa preparation is prepared from the intestinal mucosa of a pig or a cow, wherein greater than 10% of the proteinaceous material in the intestinal luminal fluid preparation or in the intestinal mucosa preparation is IgA, or (ii) provided as unhydrolysed dried intestinal mucosa of a pig or a cow.
A hydrophilization treatment agent for an aluminum-containing metal material, the hydrophilization treatment agent containing: organic-inorganic composite particles obtained by combining one or more selected from water-soluble resins (A) having a hydroxyl group, one or more selected from poorly water-soluble inorganic oxides (B), one or more selected from organoalkoxysilanes (C), and a surfactant (D) such that (C)/{(B) + (D)} and (A)/{(B) + (C) + (D)} are respectively 0.001 to 1.0 and 0.1 to 5.0 in solid content ratio by weight; and water, wherein the organic-inorganic composite particles are 40 to 100 mass% based on total solid content by mass, wherein the surfactant (D) is at least one selected from polyoxyethylenealkylethers; polyoxyethylene octylphenyl ethers; polyoxyethylene alkyl allyl ethers; polyoxyethylene derivatives; oxyethylene-oxypropylene block copolymers; sorbitan fatty acid esters; glycerin fatty acid esters; polyoxyethylene fatty acid esters; fluorochemical surfactants; fatty acid salts; alkyl sulfate esters; alkylbenzene sulfonates; alkylnaphthalene sulfonates; alkyl diphenyl ether disulfonates; alkylphosphates; polyoxyethylene alkyl sulfate esters; alkylamine salts; quaternary ammonium salts; alkyl betaines; amine oxides; imidazoline ampholytic surfactants; glycine ampholytic surfactants; and amine oxide ampholytic surfactants.
A method of filling feeding pans for poultry or other freely moving small animals comprising an act of using a feeding system according to claim 3, wherein the feed is conveyed to the feeding pan from the overlying horizontal transport channel , in which the feed is transported in a direction of transport and forwardly to one of several successive feeding pans along the transport channel, wherein the feed is conveyed either to an external side of a distribution cone in the feeding pan , out through the passage for initial feeding in the transport channel , or, alternatively, is conveyed out through the passage for regular feeding in the transport channel and through the opening in the top of the distribution cone to the inner side of the distribution cone , characterized in that the feed in the transport channel in the direction of transport passes past the passage for initial feeding , before the feed reaches the passage for regular feeding , so that the feed passes out through the passage for initial feeding with a speed component in the longitudinal direction of the transport channel corresponding to a feed speed of the feed in the transport channel and a speed component corresponding to free fall, as it is received by the upright dividing line, and, because of the speed component in the longitudinal direction of the transport channel, is sent in separate flows of material along the chute faces on the external face of the distribution cone and is distributed by skidding along the respective chute faces to a periphery of the feeding pan.
Method for producing a powder consisting of or comprising a plurality of capsules (K), which are enclosed in crystals and contain one or more ingredient(s), consisting of or comprising the following steps: (i) providing one or more solvent(s), providing one or more crystallisable material(s) and providing one or more capsule(s) (K) containing one or more ingredient(s), (ii) optionally: increasing the temperature of the solvent(s), (iii) adding (iii.1) the provided crystallisable material(s) and (iii.2) optionally: the provided capsules (K) before, after or simultaneously with the crystallisable material(s) to the solvent(s) and dissolving the provided crystallisable material(s) in the solvent(s) to obtain a mixture (M1), (iv) reducing the temperature of mixture (M1) to a temperature below or until the crystallization of the provided crystallisable material(s), (v) adding the provided capsules (K) or, respectively, further capsules (K), wherein step (v) is optional in case step (iii.2) is performed, (vi) further reducing the temperature of mixture (M1) to obtain a mixture (M2) comprising a plurality of capsules (K), which are enclosed in crystals and contain one or more ingredient(s), (vii) collecting crystals comprising capsules (K), which contain one or more ingredient(s). (i) providing one or more solvent(s), providing one or more crystallisable material(s) and providing one or more capsule(s) (K) containing one or more ingredient(s), (ii) optionally: increasing the temperature of the solvent(s), (iii) adding (iii.1) the provided crystallisable material(s) and (iii.2) optionally: the provided capsules (K) before, after or simultaneously with the crystallisable material(s) to the solvent(s) and dissolving the provided crystallisable material(s) in the solvent(s) to obtain a mixture (M1), (iii.1) the provided crystallisable material(s) and (iii.2) optionally: the provided capsules (K) before, after or simultaneously with the crystallisable material(s) (iv) reducing the temperature of mixture (M1) to a temperature below or until the crystallization of the provided crystallisable material(s), (v) adding the provided capsules (K) or, respectively, further capsules (K), wherein step (v) is optional in case step (iii.2) is performed, (vi) further reducing the temperature of mixture (M1) to obtain a mixture (M2) comprising a plurality of capsules (K), which are enclosed in crystals and contain one or more ingredient(s), (vii) collecting crystals comprising capsules (K), which contain one or more ingredient(s).
A vacuum pump , in particular a turbomolecular pump or a side channel pump, comprising a rotor which comprises a rotor shaft ; a stator ; and a magnetic bearing space which is provided in the region of the pump inlet and in which a magnetic bearing is arranged for rotatably supporting the rotor shaft , wherein means are provided to block the magnetic bearing space while using the rotor rotating relative to the stator , characterized in that a blocking stage is provided for blocking the magnetic bearing space , said blocking stage comprising a dynamic labyrinth seal or Siegbahn stage provided between the rotor and the stator .
A computer implemented method for exploring for hydrocarbons in a subsurface region, comprising: simulating a seismic waveform, using a computer and a model of velocity or other physical property in the subsurface region, wherein computations are performed on a finite computational grid representing a subsurface region, said finite computational grid using absorbing condition boundary conditions to minimize non-physical wave reflections at grid boundaries; using the simulated waveform in performing full waveform inversion or reverse time migration of seismic data, and using an updated model of velocity or other physical property from the inversion or a subsurface image from the migration to assess hydrocarbon potential of the subsurface region; and characterized in that , said absorbing condition boundary conditions being perfectly matched layers, PML, boundary conditions for the top surface of the finite computational grid, and Kosloff absorbing boundary conditions, ABC, for side surfaces of the finite computational grid. simulating a seismic waveform, using a computer and a model of velocity or other physical property in the subsurface region, wherein computations are performed on a finite computational grid representing a subsurface region, said finite computational grid using absorbing condition boundary conditions to minimize non-physical wave reflections at grid boundaries; using the simulated waveform in performing full waveform inversion or reverse time migration of seismic data, and using an updated model of velocity or other physical property from the inversion or a subsurface image from the migration to assess hydrocarbon potential of the subsurface region; and characterized in that , said absorbing condition boundary conditions being perfectly matched layers, PML, boundary conditions for the top surface of the finite computational grid, and Kosloff absorbing boundary conditions, ABC, for side surfaces of the finite computational grid.
A trap for catching or killing insects comprising a. a back housing ; b. an insect capture or killing means disposed in front of the back housing c. an insect attracting light source comprising light emitting diodes (LED's) which emit ultra violet (UV) radiation; and d. a cover , comprising openings allowing insects to enter the trap, through which insect attracting light is dispersed; characterized in that the light source is directed immediately inwardly through plus or minus 45 degrees towards the insect capture or killing means and is precluded from being directed immediately outwardly through the cover . a. a back housing ; b. an insect capture or killing means disposed in front of the back housing c. an insect attracting light source comprising light emitting diodes (LED's) which emit ultra violet (UV) radiation; and d. a cover , comprising openings allowing insects to enter the trap, through which insect attracting light is dispersed;