mhurhangee/patent-ind-claim-en huggingface dataset:
A portable multi-functional system comprising: - a multi-functional apparatus customizable by way of devices arranged to respectively perform different functions , - a container comprising predetermined external dimensions and arranged to be transported by way of ground, naval or air transportation, said multi-functional apparatus being secured to said container , and arranged to take at least two types of layout: - a first layout or transport layout wherein the multi-functional apparatus is comprised inside said predetermined external dimensions of said container; - a second layout or lifting up layout wherein the multi-functional apparatus projects from said predetermined external dimensions of said container so as to realize a tower , wherein said multi-functional apparatus further comprises: - a cabin ; and - a plurality of telescopic elements among said cabin and said container ; characterized in that said multi-functional apparatus further comprises: - lifting devices connected to the cabin and arranged to lift the cabin , together with the telescopic elements , as regards said container so as to shape said tower comprising on top said cabin , said cabin comprising, on an upper wall, a platform customizable by way of devices arranged to provide different functions . - a multi-functional apparatus customizable by way of devices arranged to respectively perform different functions , - a container comprising predetermined external dimensions and arranged to be transported by way of ground, naval or air transportation, - a first layout or transport layout wherein the multi-functional apparatus is comprised inside said predetermined external dimensions of said container; - a second layout or lifting up layout wherein the multi-functional apparatus projects from said predetermined external dimensions of said container so as to realize a tower , - a cabin ; and - a plurality of telescopic elements among said cabin and said container ; characterized in that said multi-functional apparatus further comprises: - lifting devices connected to the cabin and arranged to lift the cabin , together with the telescopic elements , as regards said container so as to shape said tower comprising on top said cabin , - lifting devices connected to the cabin and arranged to lift the cabin , together with the telescopic elements , as regards said container so as to shape said tower comprising on top said cabin ,
An electrically heated smoking system for receiving an aerosol-forming substrate , the system comprising: a housing for receiving the aerosol-forming substrate; at least one heater for heating the aerosol-forming substrate to form an aerosol, a power supply for supplying power to the at least one heater, electronic circuitry arranged to control a supply of power from the power supply to the at least one heater, and a thermally insulating material provided as a separate element for insulating the at least one heater, wherein the at least one heater comprises one or more electrically conductive tracks on an electrically insulating substrate , wherein the one or more electrically conductive tracks comprise a plurality of portions, each portion being separately connectable to the power supply, wherein the electrically insulating substrate comprises polyimide and is rolled into a tube, and wherein the housing is designed to be grasped by a user and houses the at least one heater, the thermally insulating material, the power supply and the electronic circuitry. a housing for receiving the aerosol-forming substrate; at least one heater for heating the aerosol-forming substrate to form an aerosol, a power supply for supplying power to the at least one heater, electronic circuitry arranged to control a supply of power from the power supply to the at least one heater, and a thermally insulating material provided as a separate element for insulating the at least one heater, wherein the at least one heater comprises one or more electrically conductive tracks on an electrically insulating substrate , wherein the one or more electrically conductive tracks comprise a plurality of portions, each portion being separately connectable to the power supply, wherein the electrically insulating substrate comprises polyimide and is rolled into a tube, and wherein the housing is designed to be grasped by a user and houses the at least one heater, the thermally insulating material, the power supply and the electronic circuitry.
A fenestrated cuff for implantation in the aorta , the cuff comprising: at least one stent ring configured to expand into engagement with an inner wall of the aorta ; and a cylindrical graft comprising a fenestration and a scallop , the graft being sized to extend from the distal renal artery into but not all the way across a sac of an aneurysm in the aorta , characterized in that the fenestration and the scallop are arranged generally opposite one another in the graft and sized and shaped such that, when the fenestration is aligned with the distal renal artery, an orifice of the superior renal artery is within an opening in the graft defined by the scallop , wherein the distal renal artery is the more distal one of the two renal arteries, and wherein the superior renal artery is the other one of the two renal arteries. at least one stent ring configured to expand into engagement with an inner wall of the aorta ; and a cylindrical graft comprising a fenestration and a scallop , the graft being sized to extend from the distal renal artery into but not all the way across a sac of an aneurysm in the aorta , characterized in that the fenestration and the scallop are arranged generally opposite one another in the graft and sized and shaped such that, when the fenestration is aligned with the distal renal artery, an orifice of the superior renal artery is within an opening in the graft defined by the scallop , wherein the distal renal artery is the more distal one of the two renal arteries, and wherein the superior renal artery is the other one of the two renal arteries.
Method for manufacturing composite parts, wherein at least a first composite part is joined to a second composite part , characterised in that it comprises the following steps: - providing the first composite part preform into a resin transfer mould , - heating said first part into the resin transfer mould for performing a curing cycle of the first part, - cooling said first part by recirculating a fluid into the mould before the curing cycle is completed so that a semi-cured first part is obtained, - performing the cooling step in two stages, a first stage in which a first fluid is conducted through the mould until the temperature of the first composite part is decreased at room temperature and a second stage having an additional drop of the temperature, - joining the semi-cured first part to a cured prepreg second part for obtaining the final composite part. - providing the first composite part preform into a resin transfer mould , - heating said first part into the resin transfer mould for performing a curing cycle of the first part, - cooling said first part by recirculating a fluid into the mould before the curing cycle is completed so that a semi-cured first part is obtained, - performing the cooling step in two stages, a first stage in which a first fluid is conducted through the mould until the temperature of the first composite part is decreased at room temperature and a second stage having an additional drop of the temperature, - joining the semi-cured first part to a cured prepreg second part for obtaining the final composite part.
A high pressure compressor rotor stack comprising: a bore basket including a bore basket internal passage ; a first plurality of rotor stages at least partially defining a forward rotor bore with a forward hub structure and the bore basket ; and a second plurality of rotor stages at least partially defining an aft rotor bore with an aft hub structure and the bore basket ; and a fluid inlet to the forward rotor bore extending through the forward hub structure , characterised in that the bore basket internal passage includes an inlet downstream of an axially forward outlet . a bore basket including a bore basket internal passage ; a first plurality of rotor stages at least partially defining a forward rotor bore with a forward hub structure and the bore basket ; and a second plurality of rotor stages at least partially defining an aft rotor bore with an aft hub structure and the bore basket ; and a fluid inlet to the forward rotor bore extending through the forward hub structure , characterised in that the bore basket internal passage includes an inlet downstream of an axially forward outlet .
A process for producing moldings, where the mixture comprising (A) at least one lactam (B) at least one catalyst (C) at least one activator selected from the group of lactams N-substituted by electrophilic radicals, aliphatic diisocyanates, aromatic diisocyanates, polyisocyanates, aliphatic diacyl halides and aromatic diacyl halides (D) optionally at least one additional substance selected from fillers and/or fibers, polymers and further additives proceeds through treatments comprising a) mixing of (A), (B), (C), and optionally (D) b) metering of the mixture into an apparatus for producing mixture droplets comprising (A), (B), (C), and optionally (D) and producing mixture droplets, c) depositing the mixture droplets on a belt, and d) producing moldings where the steps a), b), and c) are conducted independently of one another at a temperature which is in the range from the melting point of the highest-melting-point lactam comprised in the mixture to 100°C above the melting point of the highest-melting-point lactam comprised in the mixture, and wherein the belt onto which the mixture droplets are deposited in step c) is cooled to a temperature in the range from 100°C below the melting point of (A), (B) and (C) and optionally (D) to 20°C below the melting point of (A), (B) and (C) and optionally (D) and wherein the belt is moved at a speed of 1 to 20 m/min and wherein the longest axis of the moldings is in the range from 0.05 to 15 mm and the shortest axis of the moldings is in the range from 0.05 to 15 mm, wherein the length of the axes is measured under the microscope on ten randomly selected particles. (A) at least one lactam (B) at least one catalyst (C) at least one activator selected from the group of lactams N-substituted by electrophilic radicals, aliphatic diisocyanates, aromatic diisocyanates, polyisocyanates, aliphatic diacyl halides and aromatic diacyl halides (D) optionally at least one additional substance selected from fillers and/or fibers, polymers and further additives a) mixing of (A), (B), (C), and optionally (D) b) metering of the mixture into an apparatus for producing mixture droplets comprising (A), (B), (C), and optionally (D) and producing mixture droplets, c) depositing the mixture droplets on a belt, and d) producing moldings
A measuring system for measuring the relative positions of a first rotary component and a second rotary component relative to each other, said components being arranged essentially along a common axis and being arranged in a horizontal or vertical direction or with arbitrary angles relative to the horizontal plane, comprising: - a first measuring unit adapted for mounting on the first rotary component ; and - a second measuring unit adapted for mounting on the second rotary component ; - wherein at least one of said measuring units comprises a light source and at least one of said measuring units comprises a detector unit for determining the positions of said rotary components ; wherein the first measuring unit comprises a first gyro and the second measuring unit comprises a second gyro for detecting the current angular position (a2) of each measuring unit at rotation of said rotary components when said rotary components are arranged with essentially vertical orientation, and wherein the first measuring unit comprises a first accelerometer and the second measuring unit comprises a second accelerometer for detecting the current angular position (α1) of each measuring unit at rotation of said rotary components when said rotary components are arranged with essentially horizontal orientation, characterized in that at least one of said accelerometers is adapted for detecting whether said rotary components are arranged with horizontal or vertical orientation. - a first measuring unit adapted for mounting on the first rotary component ; and - a second measuring unit adapted for mounting on the second rotary component ; - wherein at least one of said measuring units comprises a light source and at least one of said measuring units comprises a detector unit for determining the positions of said rotary components ;
Method for localizing objects enclosed in a medium , in which a measurement signal (U M ) correlated with the enclosed object is generated by means of at least one sensor, in particular having at least one receive wire loop system, from which a state signal (Z) for the purpose of transmission to a user is generated, which enables at least a distinction to be made between a first state (Z=a) "object detected", at least one second state (Z=b) "no object detected" and a third state (Z=c) "object in the vicinity", wherein the system changes from the third state "object in the vicinity" (Z=c) to the second state "no object detected" (Z=b) if the magnitude of the measurement signal (U M ) currently measured stays below a predeterminable first threshold value (U S1 ), characterized in that the system changes from the first state "object detected" (Z=a) to the third state "object in the vicinity" (Z=c) if the magnitude of the measurement signal (U M ) currently measured stays below a previously measured local maximum value (U Max,n ) of the measurement signal by a predetermined first percentage P 1 , and the first threshold value (U S1 ) is equal to the signal-to-noise ratio (U SR ) of the detection system.
An anti-inflammatory lipid nanoparticle comprising: a) a lipid phase; and b) at least one lipophilic anti-inflammatory agent; and c) a nucleic acid segment chosen from DNA, mRNAs, siRNAs, Cas9-guideRNA complex, and combinations thereof. a) a lipid phase; and b) at least one lipophilic anti-inflammatory agent; and c) a nucleic acid segment chosen from DNA, mRNAs, siRNAs, Cas9-guideRNA complex, and combinations thereof.
A method for reporting channel state information (CSI) by a user equipment (UE) in a wireless communication system, the method comprising: receiving a reference signal from a base station (BS); and reporting the CSI generated using the reference signal to the BS, wherein the CSI comprises information indicating a first precoding matrix for a first domain of a 2D antenna structure, and a second precoding matrix for a second domain of the 2D antenna structure, and wherein the first precoding matrix is determined based on a coefficient for determining an angle in the first domain, and wherein the angle in the first domain is determined based on an angle in the second domain, and wherein the first precoding matrix is expressed as W h = e j ⋅ 2 π ⋅ n ⋅ c ⋅ h / H / N , and the second precoding matrix is expressed as W v = e j ⋅ 2 π ⋅ m ⋅ k / K / M , and wherein N is the number of antennas in the first domain, n is an antenna index in the first domain, H is the number of beams in the first domain, h is a beam index in the first domain, and c is the coefficient, and wherein M is the number of antennas in the second domain, m is an antenna index in the second domain, K is the number of beams in the second domain, and k is a beam index in the second domain, wherein a direction perpendicular to an antenna array in the second domain corresponds to an angle θ=0° in the second domain, wherein, if -90°≤ θ ≤ 90°, k has a value between 0 and K; and wherein a value of the coefficient c is determined based on c = 1 − 2 k / K − 1 2 . receiving a reference signal from a base station (BS); and reporting the CSI generated using the reference signal to the BS, wherein the CSI comprises information indicating a first precoding matrix for a first domain of a 2D antenna structure, and a second precoding matrix for a second domain of the 2D antenna structure, and wherein the first precoding matrix is determined based on a coefficient for determining an angle in the first domain, and wherein the angle in the first domain is determined based on an angle in the second domain, and wherein the first precoding matrix is expressed as W h = e j ⋅ 2 π ⋅ n ⋅ c ⋅ h / H / N , and the second precoding matrix is expressed as W v = e j ⋅ 2 π ⋅ m ⋅ k / K / M , and wherein N is the number of antennas in the first domain, n is an antenna index in the first domain, H is the number of beams in the first domain, h is a beam index in the first domain, and c is the coefficient, and wherein M is the number of antennas in the second domain, m is an antenna index in the second domain, K is the number of beams in the second domain, and k is a beam index in the second domain, wherein a direction perpendicular to an antenna array in the second domain corresponds to an angle θ=0° in the second domain, wherein, if -90°≤ θ ≤ 90°, k has a value between 0 and K; and wherein a value of the coefficient c is determined based on c = 1 − 2 k / K − 1 2 .
Process for preparing N,N-dimethylglucamine by reacting an aqueous solution of N-methylglucamine first with an aqueous solution of formaldehyde at 15 - 40°C and subsequently, at a pressure of 20 - 120 bar and a temperature T = 30 - 68°C, with hydrogen under metal catalysis, wherein, after absorption of hydrogen has completed at 20 - 68°C, a further, after-hydrogenation is added at 70 - 120 bar and at 70 - 110°C.
A method for three-dimensional printing, comprising: patterning build material layers to form an intermediate structure, the patterning including: selectively applying a binding agent to define: a build material support structure and a patterned intermediate part; and selectively applying i) the binding agent and a separate agent including a gas precursor or ii) a combined agent including a binder and the gas precursor to define a patterned breakable connection between at least a portion of the build material support structure and at least a portion of the patterned intermediate part; wherein the gas precursor is selected from the group consisting of a transition metal hydride; an alkaline earth carbonate that releases carbon dioxide when activated, for example barium carbonate or strontium carbonate; and a solid state mixture of an oxidizable species and an oxidizing agent to produce an oxidation product in a gas state at a sintering temperature used during the heating, wherein the oxidizable species includes carbon particles and the oxidizing agent is a transition metal oxide selected from the group consisting of FezOa, Mn 2 O 3 , Cr 2 O 3 , and Co 3 O 4 ; and heating the intermediate structure to a temperature that activates the gas precursor to create gas pockets in the patterned breakable connection. selectively applying a binding agent to define: a build material support structure and a patterned intermediate part; and selectively applying i) the binding agent and a separate agent including a gas precursor or ii) a combined agent including a binder and the gas precursor to define a patterned breakable connection between at least a portion of the build material support structure and at least a portion of the patterned intermediate part; wherein the gas precursor is selected from the group consisting of a transition metal hydride; an alkaline earth carbonate that releases carbon dioxide when activated, for example barium carbonate or strontium carbonate; and a solid state mixture of an oxidizable species and an oxidizing agent to produce an oxidation product in a gas state at a sintering temperature used during the heating, wherein the oxidizable species includes carbon particles and the oxidizing agent is a transition metal oxide selected from the group consisting of FezOa, Mn 2 O 3 , Cr 2 O 3 , and Co 3 O 4 ; and heating the intermediate structure to a temperature that activates the gas precursor to create gas pockets in the patterned breakable connection.
End terminal for a safety guardrail, said end terminal comprising an elongated beam which is on opposite ends connected to a ground anchor and to the safety guardrail, respectively, and further comprising a collision catcher which is slidably mounted on the beam , wherein the collision catcher connects to a sliding block with an aperture through which the beam is guided, characterized in that the collision catcher has a hook part for catching behind a bumper of a colliding car.
An electrospray source comprising: an inlet for receiving a liquid flow from a liquid chromatography column; a waste outlet for directing a first portion of the liquid flow to a pressurized waste reservoir; and an electrospray ionization outlet configured to generate ions from a second portion of the liquid flow, wherein a flow rate of the second portion of the liquid flow is substantially determined by a pressure of the pressurized waste reservoir, means adapted to adjust the pressure of the pressurized waste reservoir to control the flow rate of the second portion of the liquid flow to the electrospray ionization outlet . an inlet for receiving a liquid flow from a liquid chromatography column; a waste outlet for directing a first portion of the liquid flow to a pressurized waste reservoir; and an electrospray ionization outlet configured to generate ions from a second portion of the liquid flow, wherein a flow rate of the second portion of the liquid flow is substantially determined by a pressure of the pressurized waste reservoir, means adapted to adjust the pressure of the pressurized waste reservoir to control the flow rate of the second portion of the liquid flow to the electrospray ionization outlet .
An identification document for identifying a person, comprising: a document body with a surface which comprises a surface area to which a biometric feature of the person can be applied; a physical structure which is embedded in the document body below the surface area , wherein the physical structure is a physically non-clonable function; a transceiver structure which is formed in the document body and configured to transmit a stimulation signal in the direction of the surface area in order to receive a response signal reflected at the biometric feature of the person, which depends on the physical structure , wherein the transceiver structure is configured to transmit the stimulation signal in the direction of the surface area through the physical structure , and/or wherein the transceiver structure is configured to receive the response signal transmitted through the physical structure ; and a processor which is configured to assign the person to the identification document on the basis of the reflected response signal. a document body with a surface which comprises a surface area to which a biometric feature of the person can be applied; a physical structure which is embedded in the document body below the surface area , wherein the physical structure is a physically non-clonable function; a transceiver structure which is formed in the document body and configured to transmit a stimulation signal in the direction of the surface area in order to receive a response signal reflected at the biometric feature of the person, which depends on the physical structure , wherein the transceiver structure is configured to transmit the stimulation signal in the direction of the surface area through the physical structure , and/or wherein the transceiver structure is configured to receive the response signal transmitted through the physical structure ; and a processor which is configured to assign the person to the identification document on the basis of the reflected response signal.