mhurhangee/patent-ind-claim-en huggingface dataset:
A preparation method of a battery composite material, comprising steps of: (a) providing phosphoric acid, manganese carbonate, water and a first reactant, wherein the formula of the phosphoric acid is written by H 3 PO 4 , the first reactant is lithium carbonate, and the formula of the lithium carbonate is written by Li 2 CO 3 ; (b) processing a reaction of the phosphoric acid, the manganese carbonate and the water to produce a first product; (c) calcining the first product to produce a precursor, wherein the formula of the precursor is written by Mn 2 P 2 O 7 ; and (d) processing a reaction of the precursor and at least the first reactant to obtain a reaction mixture, and then calcining the reaction mixture to produce the battery composite material, wherein the step (d) further comprises steps of: (d1) mixing the precursor and at least the first reactant; (d2) adding water or solvent for grinding and drying to remove the water or the solvent; (d3) performing a high-temperature calcination, wherein the high-temperature calcination is performed at a temperature between 550°C and 750°C for at least 8 to 12 hours in nitrogen atmosphere; and (d4) producing the battery composite material. (a) providing phosphoric acid, manganese carbonate, water and a first reactant, wherein the formula of the phosphoric acid is written by H 3 PO 4 , the first reactant is lithium carbonate, and the formula of the lithium carbonate is written by Li 2 CO 3 ; (b) processing a reaction of the phosphoric acid, the manganese carbonate and the water to produce a first product; (c) calcining the first product to produce a precursor, wherein the formula of the precursor is written by Mn 2 P 2 O 7 ; and (d) processing a reaction of the precursor and at least the first reactant to obtain a reaction mixture, and then calcining the reaction mixture to produce the battery composite material, wherein the step (d) further comprises steps of: (d1) mixing the precursor and at least the first reactant; (d2) adding water or solvent for grinding and drying to remove the water or the solvent; (d3) performing a high-temperature calcination, wherein the high-temperature calcination is performed at a temperature between 550°C and 750°C for at least 8 to 12 hours in nitrogen atmosphere; and (d4) producing the battery composite material. (d1) mixing the precursor and at least the first reactant; (d2) adding water or solvent for grinding and drying to remove the water or the solvent; (d3) performing a high-temperature calcination, wherein the high-temperature calcination is performed at a temperature between 550°C and 750°C for at least 8 to 12 hours in nitrogen atmosphere; and (d4) producing the battery composite material.
Operating device for manually moving a robot arm of a medical workstation, comprising - a control device which is set up to generate a first signal intended for controlling a movement of a first robot arm (M2) provided for treating a living being (P), and which has an interface which is provided to be connected to a hospital data network , - a manual first input device (E2) coupled to the control device , wherein the control device generates the first signal on the basis of a manual movement of the first input device (E2), so that the first robot arm (M2) executes a movement corresponding to the manual movement, and - a screen , characterised in that the control device is configured to retrieve data via the interface and the hospital data network assigned to the living being (P) and created before a treatment of the living being (P) with the first robot arm (M2) and to represent informational content assigned to the data on the screen , and the control device and its first input device (E2) are configured to change the informational content shown on the screen by means of the first input device (E2). - a control device which is set up to generate a first signal intended for controlling a movement of a first robot arm (M2) provided for treating a living being (P), and which has an interface which is provided to be connected to a hospital data network , - a manual first input device (E2) coupled to the control device , wherein the control device generates the first signal on the basis of a manual movement of the first input device (E2), so that the first robot arm (M2) executes a movement corresponding to the manual movement, and - a screen , characterised in that the control device is configured to retrieve data via the interface and the hospital data network assigned to the living being (P) and created before a treatment of the living being (P) with the first robot arm (M2) and to represent informational content assigned to the data on the screen , and the control device and its first input device (E2) are configured to change the informational content shown on the screen by means of the first input device (E2).
A method of responding to a request of a session management function, SMF, by an access and mobility management function, AMF, in a network, the method being characterized by : receiving, from the SMF, a request associated with data notification to a user equipment, UE, that is not in a mode in which communication of mobile terminated data is restricted; detecting that the UE is in a non-allowed area in which a service is restricted; rejecting the request and sending, to the SMF, a message including information indicating that the service is restricted, unless the data notification is for a regulatory prioritized service, wherein the information is used for the SMF to instruct a user plane function, UPF, to stop sending the request associated with data notification or to stop buffering downlink data; storing, in at least one memory of the AMF, information indicating that the SMF has been informed that the service is restricted; and transmitting paging for the UE to a base station when the request is for the regulatory prioritized service. receiving, from the SMF, a request associated with data notification to a user equipment, UE, that is not in a mode in which communication of mobile terminated data is restricted; detecting that the UE is in a non-allowed area in which a service is restricted; rejecting the request and sending, to the SMF, a message including information indicating that the service is restricted, unless the data notification is for a regulatory prioritized service, wherein the information is used for the SMF to instruct a user plane function, UPF, to stop sending the request associated with data notification or to stop buffering downlink data; storing, in at least one memory of the AMF, information indicating that the SMF has been informed that the service is restricted; and transmitting paging for the UE to a base station when the request is for the regulatory prioritized service.
A computer-implemented method of seismic facies identification, comprising: a. receiving (10; 20; 40), at a computer processor, a seismic dataset representative of a subsurface volume of interest; b. performing (12; 24; 48) a machine learning algorithm on the seismic dataset to identify seismic facies and generate a classified seismic image; and c. identifying (16; 28) geologic features based on the classified seismic image, wherein step b comprises: determining local AVA/AVO responses for individual sample points from the seismic dataset; aggregating the local AVA/AVO responses into clusters based on the type of AVA/AVO response; and once the local AVA/AVO responses are clustered, calculating a global statistical AVA/AVO response for each cluster. a. receiving (10; 20; 40), at a computer processor, a seismic dataset representative of a subsurface volume of interest; b. performing (12; 24; 48) a machine learning algorithm on the seismic dataset to identify seismic facies and generate a classified seismic image; and c. identifying (16; 28) geologic features based on the classified seismic image, wherein step b comprises: determining local AVA/AVO responses for individual sample points from the seismic dataset; aggregating the local AVA/AVO responses into clusters based on the type of AVA/AVO response; and once the local AVA/AVO responses are clustered, calculating a global statistical AVA/AVO response for each cluster. determining local AVA/AVO responses for individual sample points from the seismic dataset; aggregating the local AVA/AVO responses into clusters based on the type of AVA/AVO response; and once the local AVA/AVO responses are clustered, calculating a global statistical AVA/AVO response for each cluster.
A ceramic feedstock comprising one or more ceramic precursors and temperature sensitive gelling agent, wherein the ceramic feedstock is dried or at least partially dried and has a solvent content from 0.1 to 7.5 wt.%, based on the total weight of the ceramic feedstock, wherein the temperature sensitive gelling agent is selected from one or more of a polysaccharide, gelatin, a polyoside, a poloxamer and mixtures thereof.
A method performed by a first terminal for pairing the first terminal with a second terminal using a sound wave signal comprising: determining whether a detected gesture on the first terminal is a predetermined gesture or detecting whether a geographic position of the first terminal is a predetermined geographic position; transmitting a sound wave signal to the second terminal through an output device of the first terminal when a predetermined gesture is detected or the first terminal is in a predetermined geographic position ; detecting a response signal from the second terminal; pairing the first terminal with the second terminal based on the received response signal corresponding to the transmitted sound wave signal; the method being characterised by : configuring a communication method between the first terminal and the second terminal wherein a desired communication method is indicated in the sound wave signal or response signal; and communicating between the first terminal and the second terminal through the configured communication method, wherein the communication method comprises one of Bluetooth, Near Field Communication, NFC, or Wi-Fi communications. determining whether a detected gesture on the first terminal is a predetermined gesture or detecting whether a geographic position of the first terminal is a predetermined geographic position; transmitting a sound wave signal to the second terminal through an output device of the first terminal when a predetermined gesture is detected or the first terminal is in a predetermined geographic position ; detecting a response signal from the second terminal; pairing the first terminal with the second terminal based on the received response signal corresponding to the transmitted sound wave signal; the method being characterised by : configuring a communication method between the first terminal and the second terminal wherein a desired communication method is indicated in the sound wave signal or response signal; and communicating between the first terminal and the second terminal through the configured communication method, wherein the communication method comprises one of Bluetooth, Near Field Communication, NFC, or Wi-Fi communications. configuring a communication method between the first terminal and the second terminal wherein a desired communication method is indicated in the sound wave signal or response signal; and communicating between the first terminal and the second terminal through the configured communication method, wherein the communication method comprises one of Bluetooth, Near Field Communication, NFC, or Wi-Fi communications.
Apparatus for replacing an exhausted transmission fluid of an automatic gear shift of a motor vehicle with a fresh transmission fluid, comprising: a first tube and a second tube , respectively connectable to two different access points of said automatic gear shift ; a first tank containing the fresh transmission fluid; a second tank configured to receive the exhausted transmission fluid; a first three-way electro valve configured to establish a selective communication between said first tube and said first tank or between said first tube and said second tank ; a second three-way electro valve configured to establish a selective communication between said second tube and said first tank or between said second tube and said second tank ; a first pressure gauge and a second pressure gauge which are operatively active respectively on the first tube and on the second tube so as to detect the pressure of the transmission fluid, the apparatus comprises an oleodynamic manifold in turn comprising a box-like casing housing said three-way electro valves and said pressure gauges , and a first calibrated throttling is present between said first gauge and said first three-way electro valve and a second calibrated throttling is present between said second gauge and said second three-way electro valve . a first tube and a second tube , respectively connectable to two different access points of said automatic gear shift ; a first tank containing the fresh transmission fluid; a second tank configured to receive the exhausted transmission fluid; a first three-way electro valve configured to establish a selective communication between said first tube and said first tank or between said first tube and said second tank ; a second three-way electro valve configured to establish a selective communication between said second tube and said first tank or between said second tube and said second tank ; a first pressure gauge and a second pressure gauge which are operatively active respectively on the first tube and on the second tube so as to detect the pressure of the transmission fluid, the apparatus comprises an oleodynamic manifold in turn comprising a box-like casing housing said three-way electro valves and said pressure gauges , and a first calibrated throttling is present between said first gauge and said first three-way electro valve and a second calibrated throttling is present between said second gauge and said second three-way electro valve .
Motion multiplication device for windows or doors comprising a plurality of balls recirculating along a ring path , said ring path being defined in a containment body adapted to move forward as a consequence of a thrust applied to it, said balls being configured to recirculate within said ring path following said advancement motion of said containment body, said recirculation movement of said balls within said ring path being adapted to transmit a further relative forward motion to a driven element, so that said driven element advances by an amount greater than the amount of advancement of said containment body.
Component for media-carrying gas or water pipes, in particular fitting or valve for drinking water pipes, wherein the component consists at least partially of a lead-free copper alloy, which has the following alloy components in % by weight: 3.5 % by weight ≤ Sn ≤ 4.8 % by weight; 1.5 % by weight ≤ Zn ≤ 3.5 % by weight; 0.25 % by weight ≤ S ≤ 0.65 % by weight; 0.04 % by weight ≤ P ≤ 0.1 % by weight; optionally no more than 0.09 % by weight lead; optionally no more than 0.4 % by weight nickel; optionally no more than 0.1 % by weight antimony; optionally no more than 0.3 % by weight iron, zirconium and/or boron alone or in combination of two or more of said elements; unavoidable impurities and to the remainder copper, wherein the component has a wall thickness at least in sections in the range of 0.5 mm to 6.0 mm. 3.5 % by weight ≤ Sn ≤ 4.8 % by weight; 1.5 % by weight ≤ Zn ≤ 3.5 % by weight; 0.25 % by weight ≤ S ≤ 0.65 % by weight; 0.04 % by weight ≤ P ≤ 0.1 % by weight; optionally no more than 0.09 % by weight lead; optionally no more than 0.4 % by weight nickel; optionally no more than 0.1 % by weight antimony; optionally no more than 0.3 % by weight iron, zirconium and/or boron alone or in combination of two or more of said elements; unavoidable impurities and to the remainder copper, wherein the component has a wall thickness at least in sections in the range of 0.5 mm to 6.0 mm.
An infusion solution composition comprising: glucose, galactose, mannose, L-fucose, xylose, N-acetylglucosamine, N-acetylgalactosamine and N-acetylneuraminic acid; and stabilizer which is aspartic acid.
A system for object detection within a monitored zone defining a perimeter around a vehicle , the system comprising: at least one processor ; and memory encoding instructions which, when executed by the processor, cause the system to: detect an object ; estimate a speed of the object; estimate a direction of the object; suppress an alert associated with detection of the object when a size of the detected object is below a lower size threshold value or above an upper size threshold value; suppress an alert associated with detection of the object when the estimated speed of the object is below a speed threshold value; and modify the speed threshold value when the estimated direction of the object is towards or away from the vehicle. at least one processor ; and memory encoding instructions which, when executed by the processor, cause the system to: detect an object ; estimate a speed of the object; estimate a direction of the object; suppress an alert associated with detection of the object when a size of the detected object is below a lower size threshold value or above an upper size threshold value; suppress an alert associated with detection of the object when the estimated speed of the object is below a speed threshold value; and modify the speed threshold value when the estimated direction of the object is towards or away from the vehicle. detect an object ; estimate a speed of the object; estimate a direction of the object; suppress an alert associated with detection of the object when a size of the detected object is below a lower size threshold value or above an upper size threshold value; suppress an alert associated with detection of the object when the estimated speed of the object is below a speed threshold value; and modify the speed threshold value when the estimated direction of the object is towards or away from the vehicle.
Transceiver coupled to at least one antenna (12a1) and configured to establish a communication link to a further transceiver , wherein a radio signal intended for establishing the communication link and transmitted and/or received by the at least one antenna (12a1) is a directional radio signal; and the transceiver further comprising a sensor configured to detect positional information (P) of an antenna of the further transceiver ; the transceiver being configured to drive the at least one antenna (12a1) of the transceiver such that the radio signal is directed into a direction that faces a position corresponding to the positional information of the antenna of the further transceiver ; the transceiver further including a computing unit coupled to the sensor and configured to detect the positional information of the antenna of the further transceiver by means of feature extraction of one or several features on the basis of a sensor signal of the sensor ; wherein the computing unit is configured to classify the further transceiver on the basis of the one or several features; wherein the computing unit is configured to draw conclusions, on the basis of the one or several features, to an MAC address or a part of the MAC address of the further transceiver . the transceiver further comprising a sensor configured to detect positional information (P) of an antenna of the further transceiver ; the transceiver being configured to drive the at least one antenna (12a1) of the transceiver such that the radio signal is directed into a direction that faces a position corresponding to the positional information of the antenna of the further transceiver ; the transceiver further including a computing unit coupled to the sensor and configured to detect the positional information of the antenna of the further transceiver by means of feature extraction of one or several features on the basis of a sensor signal of the sensor ; wherein the computing unit is configured to classify the further transceiver on the basis of the one or several features; wherein the computing unit is configured to draw conclusions, on the basis of the one or several features, to an MAC address or a part of the MAC address of the further transceiver .
A current collector for a battery, comprising: a metal plate having a plurality of through holes in a thickness direction; and a porous reinforcing material filled in at least one of the plurality of through holes, wherein the porous reinforcing material includes at least one of polyethylene (PE), polypropylene (PP), polymethyl methacrylate (PMMA), polyvinylidene fluoride (PVdF), carboxymethyl cellulose (CMC), epoxy resin and urethane resin, wherein the porous reinforcing material further comprises a lithium salt, and wherein the lithium salt contains Li+ as cations, and contains one or more anions selected from the group consisting of Cl - , Br - , I - , NO 3 - , N(CN) 2 - , BF 4 - , ClO 4 - , AlO 4 - , AlCl 4 - , PF 6 - , SbF 6 - , AsF 6 - , BF 2 C 2 O 4 - , BC 4 O 8 - , (CF 3 ) 2 PF 4 - , (CF 3 ) 3 PF 3 - , (CF 3 ) 4 PF 2 - , (CF 3 ) 5 PF - , (CF 3 ) 6 P - , CF 3 SO 3 - , C 4 F 9 SO 3 - , CF 3 CF 2 SO 3 - , (CF 3 SO 2 ) 2 N - , (FSO 2 ) 2 N - , CF 3 CF 2 (CF 3 ) 2 CO - , (CF 3 SO 2 ) 2 CH - , CF 3 (CF 2 ) 7 SO 3 - , CF 3 CO 2 - , CH 3 CO 2 - , SCN - and (CF 3 CF 2 SO 2 ) 2 N - , and wherein the porous reinforcing material has an ion conductivity of 1x10-10 S/cm or more at 20°C, said ion conductivity being calculated according to equation 1: σ = t / R b * A wherein, σ denotes the ion conductivity (S/cm) of the porous reinforcing material, t denotes the thickness of the porous reinforcing material, Rb denotes the bulk resistance of the porous reinforcing material obtained from the impedance spectrum, and A denotes the area of the porous reinforcing material. a metal plate having a plurality of through holes in a thickness direction; and a porous reinforcing material filled in at least one of the plurality of through holes, wherein the porous reinforcing material includes at least one of polyethylene (PE), polypropylene (PP), polymethyl methacrylate (PMMA), polyvinylidene fluoride (PVdF), carboxymethyl cellulose (CMC), epoxy resin and urethane resin, wherein the porous reinforcing material further comprises a lithium salt, and wherein the lithium salt contains Li+ as cations, and contains one or more anions selected from the group consisting of Cl - , Br - , I - , NO 3 - , N(CN) 2 - , BF 4 - , ClO 4 - , AlO 4 - , AlCl 4 - , PF 6 - , SbF 6 - , AsF 6 - , BF 2 C 2 O 4 - , BC 4 O 8 - , (CF 3 ) 2 PF 4 - , (CF 3 ) 3 PF 3 - , (CF 3 ) 4 PF 2 - , (CF 3 ) 5 PF - , (CF 3 ) 6 P - , CF 3 SO 3 - , C 4 F 9 SO 3 - , CF 3 CF 2 SO 3 - , (CF 3 SO 2 ) 2 N - , (FSO 2 ) 2 N - , CF 3 CF 2 (CF 3 ) 2 CO - , (CF 3 SO 2 ) 2 CH - , CF 3 (CF 2 ) 7 SO 3 - , CF 3 CO 2 - , CH 3 CO 2 - , SCN - and (CF 3 CF 2 SO 2 ) 2 N - , and wherein the porous reinforcing material has an ion conductivity of 1x10-10 S/cm or more at 20°C, said ion conductivity being calculated according to equation 1: σ = t / R b * A wherein, σ denotes the ion conductivity (S/cm) of the porous reinforcing material, t denotes the thickness of the porous reinforcing material, Rb denotes the bulk resistance of the porous reinforcing material obtained from the impedance spectrum, and A denotes the area of the porous reinforcing material.