mhurhangee/ep-ind-claims huggingface dataset:
A method for separating a mixture of plastics of different densities and materials heavier than plastics by flotation in the pure water bath of a flotation tank, comprising the steps of: separating, in a first level, materials heavier than plastic which, due to their weight, settle on a sieve bottom which is mounted in the flotation tank so as to be horizontally displaceable, transferring the plastics still in the suspended state to a second level in which plastics of different density are separated, characterised by slowly moving the sieve bottom of the first level to a first end position, to reduce a gap between the sieve bottom and a wall of the flotation tank and then accelerating the sieve bottom to the other end position and abruptly stopping when the other end position is reached, and repeating the movement of the sieve bottom at intervals to clean the sieve bottom. separating, in a first level, materials heavier than plastic which, due to their weight, settle on a sieve bottom which is mounted in the flotation tank so as to be horizontally displaceable, transferring the plastics still in the suspended state to a second level in which plastics of different density are separated, characterised by slowly moving the sieve bottom of the first level to a first end position, to reduce a gap between the sieve bottom and a wall of the flotation tank and then accelerating the sieve bottom to the other end position and abruptly stopping when the other end position is reached, and repeating the movement of the sieve bottom at intervals to clean the sieve bottom.
A method for producing a vinylamine unit-containing polymer, the method comprising: preparing a mixture for polymerization (a) containing N-vinylformamide as a monomer component by using crude N-vinylformamide which contains the N-vinylformamide and formamide and has a content of the formamide of 1 to 20 parts by mass with respect to 100 parts by mass of the N-vinylformamide; obtaining a polymerization product (b) containing an N-vinylformamide unit-containing polymer and formamide by polymerizing the monomer component in the mixture for polymerization (a); drying and forming the polymerization product (b) into a powder before subjecting the polymerization product (b) to a hydrolysis treatment; and obtaining a hydrolysis product (c) containing a vinylamine unit-containing polymer through a hydrolysis treatment of the polymerization product (b) using an acid or a base. preparing a mixture for polymerization (a) containing N-vinylformamide as a monomer component by using crude N-vinylformamide which contains the N-vinylformamide and formamide and has a content of the formamide of 1 to 20 parts by mass with respect to 100 parts by mass of the N-vinylformamide; obtaining a polymerization product (b) containing an N-vinylformamide unit-containing polymer and formamide by polymerizing the monomer component in the mixture for polymerization (a); drying and forming the polymerization product (b) into a powder before subjecting the polymerization product (b) to a hydrolysis treatment; and obtaining a hydrolysis product (c) containing a vinylamine unit-containing polymer through a hydrolysis treatment of the polymerization product (b) using an acid or a base.
Method for recommending a communication stack composed of a plurality of communication protocols, which relates to a data session initiated between a terminal and a first server with a view to obtaining a content in a communications network comprising a second server in charge of the provision of the content, by delegation of the first server, to the terminal, the first server having detected an incompatibility of the stack used by the terminal with a communication parameter of the second server and having sent the terminal a redirection message identifying the second server that it must reach to obtain the desired content and comprising an information item relating to a recommendation of the stack to be used to obtain the content, the method being implemented by the second server and comprising: • a step of receiving from the terminal a message requesting obtainment of the content, • a step of selecting a stack recommended to be used to obtain the content as a function of a data item relating to the communication network or to the obtainment request message received, • a step of sending the terminal a recommendation message comprising the recommended stack, • a step of receiving a message transmitted by the terminal by using the recommended stack, and relating to the obtainment of the content. • a step of receiving from the terminal a message requesting obtainment of the content, • a step of selecting a stack recommended to be used to obtain the content as a function of a data item relating to the communication network or to the obtainment request message received, • a step of sending the terminal a recommendation message comprising the recommended stack, • a step of receiving a message transmitted by the terminal by using the recommended stack, and relating to the obtainment of the content.
A method of characterizing cells, comprising performing a reaction in at least one single vessel of a plurality of vessels, the reaction comprising attaching a first vessel barcoded polynucleotide, which comprises a vessel barcode sequence, to an oligonucleotide portion of an affinity-oligonucleotide conjugate, wherein an affinity portion of the affinity-oligonucleotide conjugate binds to a target antigen expressed by a single cell isolated in the at least one single vessel of the plurality of vessels, wherein the oligonucleotide portion comprises an antigen identification sequence, and optionally wherein the target antigen is an extracellular antigen.
A fuel cell formed by stacking a membrane electrode assembly and separators (14, 16), the membrane electrode assembly including an electrolyte membrane and a pair of gas diffusion layers (28a, 30a) provided on both sides of the electrolyte membrane, wherein, in the membrane electrode assembly, an end of the electrolyte membrane protrudes outward beyond ends of the gas diffusion layers (28a, 30a); and both surfaces at the end of the electrolyte membrane are sandwiched between a first protection film and a second protection film, and the thickness of the first protection film is smaller than the thickness of the second protection film, wherein an outer end of the first protection film is positioned inside an outer end of the electrolyte membrane, and one of outer marginal surfaces of the electrolyte membrane is exposed, characterized in that the fuel cell further comprises an inner seal member provided between the one of the outer marginal surfaces of the electrolyte membrane exposed outside the first protection film and one of the separators; and an outer seal member provided around the membrane electrode assembly, between a pair of the separators (14, 16).
A laundry detergent composition comprising a) 0.5 to 20, preferably 6, wt% hydroxamic acid or its corresponding hydroxamate of the structure: wherein R 1 is chosen from the group consisting of C 4, C 5, C 6, C 7, C 8, C 9, C 10, C 11, C 12 or C 14 alkyl group and R 2 is hydrogen, b) 3 to 80 wt% of detersive surfactant system comprising (i) anionic surfactant; and (ii) nonionic surfactant wherein the weight ratio of (i) to (ii) lies in the range 1:1.1 to 19:1, and the weight ratio a) to b) lies in the range 1:5 to 1:15 c) optionally, other ingredients to 100 wt% provided that zeolite and phosphate builders are present at less than 5 wt% and ethanol is present at a level of less than 5 wt%, whereby soap is not included in the calculation of anionic surfactant amounts and ratios. a) 0.5 to 20, preferably 6, wt% hydroxamic acid or its corresponding hydroxamate of the structure: wherein R 1 is chosen from the group consisting of C 4, C 5, C 6, C 7, C 8, C 9, C 10, C 11, C 12 or C 14 alkyl group and R 2 is hydrogen, wherein R 1 is chosen from the group consisting of C 4, C 5, C 6, C 7, C 8, C 9, C 10, C 11, C 12 or C 14 alkyl group and R 2 is hydrogen, b) 3 to 80 wt% of detersive surfactant system comprising (i) anionic surfactant; and (ii) nonionic surfactant wherein the weight ratio of (i) to (ii) lies in the range 1:1.1 to 19:1, and the weight ratio a) to b) lies in the range 1:5 to 1:15 (i) anionic surfactant; and (ii) nonionic surfactant c) optionally, other ingredients to 100 wt% provided that zeolite and phosphate builders are present at less than 5 wt% and ethanol is present at a level of less than 5 wt%, whereby soap is not included in the calculation of anionic surfactant amounts and ratios.
A method for transmitting and receiving information, comprising: sending, by a radio network controller, RNC, a message to a NodeB, wherein the message comprises parameters for setting up or reconfiguring a shared Enhanced Dedicated Channel, E-DCH, transmission channel; receiving, by the RNC, information about the established shared E-DCH transmission channel from the NodeB, wherein the information comprises a transmission layer address and/or a binding ID; wherein the method further comprises: receiving, by the RNC, a Frame Protocol, FP, frame carrying a User Equipment, UE, ID from the NodeB through an established shared E-DCH transmission bearer after the shared E-DCH transmission channel is set up or reconfigured by the NodeB according to the parameters in the message. sending, by a radio network controller, RNC, a message to a NodeB, wherein the message comprises parameters for setting up or reconfiguring a shared Enhanced Dedicated Channel, E-DCH, transmission channel; receiving, by the RNC, information about the established shared E-DCH transmission channel from the NodeB, wherein the information comprises a transmission layer address and/or a binding ID; wherein the method further comprises: receiving, by the RNC, a Frame Protocol, FP, frame carrying a User Equipment, UE, ID from the NodeB through an established shared E-DCH transmission bearer after the shared E-DCH transmission channel is set up or reconfigured by the NodeB according to the parameters in the message.
Method for providing map data by way of a central system to a motor vehicle, wherein the central system has a process computing device comprising one or more process computers, and a memory computing device comprising a plurality of memory computers, each serving to store partial route networks in the form of partial map data, each representing a geographical area section, comprising the following steps: - capturing vehicle data from moving motor vehicles and transmitting them to a process computing device of the central system, wherein the vehicle data are provided with a corresponding position stamp, which delivers a current vehicle position assigned to the respective vehicle data, - retrieving a driving situation from a memory computing device depending on the vehicle position assigned to the vehicle data by way of the process computing device, wherein the driving situation indicates the route topology before or in which a motor vehicle is located at the current vehicle position; - selecting at least one analysis algorithm according to the driving situation; - transmitting the analysis algorithm or a corresponding indication together with the vehicle data to the memory computing device, wherein one of a plurality of memory computers of the memory computing device is selected depending on the vehicle position and/or the driving situation; - implementing the analysis algorithm on the basis of the vehicle data in the selected memory computer of the memory computing device in order to update the map data. - capturing vehicle data from moving motor vehicles and transmitting them to a process computing device of the central system, wherein the vehicle data are provided with a corresponding position stamp, which delivers a current vehicle position assigned to the respective vehicle data, - retrieving a driving situation from a memory computing device depending on the vehicle position assigned to the vehicle data by way of the process computing device, wherein the driving situation indicates the route topology before or in which a motor vehicle is located at the current vehicle position; - selecting at least one analysis algorithm according to the driving situation; - transmitting the analysis algorithm or a corresponding indication together with the vehicle data to the memory computing device, wherein one of a plurality of memory computers of the memory computing device is selected depending on the vehicle position and/or the driving situation; - implementing the analysis algorithm on the basis of the vehicle data in the selected memory computer of the memory computing device in order to update the map data.
A joint compound composition comprising water, calcium carbonate, a foaming agent, and a rheology modification agent, wherein: the composition comprises a plurality of stable air bubbles; and the concentration of foaming agent in the composition is 0.01 weight percent to 10 weight percent; and the composition has a density of 0.48 kg/l (4 pounds per gallon) to 0.96 kg/l (8 pounds per gallon), wherein the rheology modification agent is poly(ethylene oxide), having a weight average molecular weight as determined by GPC of at least 200,000 grams per mole. the composition comprises a plurality of stable air bubbles; and the concentration of foaming agent in the composition is 0.01 weight percent to 10 weight percent; and the composition has a density of 0.48 kg/l (4 pounds per gallon) to 0.96 kg/l (8 pounds per gallon),
A capillary refill time, CRT, measurement device operative to measure CRT for a finger upon release of pressure applied to the finger, the CRT measurement device comprising: a mobile or wearable device (102, 200) including a camera, a display component, a camera light source offset laterally from the camera such that a finger can be placed over both the camera and the camera light source, a cuff clipped over the camera light source and the camera and configured to receive the finger and to shield the finger from environmental light, and an electronic processor programmed to perform a CRT measurement by operations including: operating the camera light source to illuminate a finger at least proximate to the point where the finger is pressing against the camera; operating the camera to measure an optical signal from the finger over a time interval encompassing the CRT, determining a CRT value based on analysis of the measured optical signal, and displaying the determined CRT value on the display component. operating the camera light source to illuminate a finger at least proximate to the point where the finger is pressing against the camera; operating the camera to measure an optical signal from the finger over a time interval encompassing the CRT, determining a CRT value based on analysis of the measured optical signal, and displaying the determined CRT value on the display component.
Method for controlling an electric drive system of a vehicle including an electric drive motor, a drive battery (Batt) and a drive inverter, said method including: - a step of detecting that a measurement of an insulation resistance (Ri) between said battery (Batt) and the chassis of the vehicle is below a preset threshold; and - a step of detecting the closed state of relays connecting said battery (Batt) to said inverter; characterized in that said detecting steps (E1, E2) are followed by a step (E4, E8) of activation of a cooling fan of said electric drive motor, until a step (E5, E9) of detection that a measurement of said insulation resistance (Ri) is above said preset threshold, within the limit of a first preset duration (T1, T2). - a step of detecting that a measurement of an insulation resistance (Ri) between said battery (Batt) and the chassis of the vehicle is below a preset threshold; and - a step of detecting the closed state of relays connecting said battery (Batt) to said inverter;
A shielding element for building and/or civil works, the shielding element comprising a fabric structure of interwoven thread-like elements, said fabric structure comprises at least a first subgroup of thread-like elements made of a first material having a first group of mechanical and/or optical identification parameters, and at least a second subgroup of thread-like elements made of a second material having a second group of mechanical and/or optical identification parameters, the mechanical and/or optical parameters of the second subgroup of thread-like elements differing in quantity from the corresponding mechanical and/or optical parameters of the first subgroup; wherein the thread-like elements belonging to the first subgroup have optical properties of at least partial attenuation and/or absorption of environmental light rays, the thread-like elements of the first subgroup being optically opaque to visible light radiation, and wherein the thread-like elements belonging to the second subgroup have optical properties of reflection and/or diffraction of environmental light rays, the thread-like elements of the second subgroup being optically reflective and/or non-absorptive of visible light radiation; characterised in that the shielding element is installable on the outside of the building and/ or civil works in order to protect the building and/or civil works from external environmental agents and/or weathering, wherein the thread-like elements of the first subgroup are made of a polymeric or composite material.
A clamping collar comprising a looped metal strap and a transverse buckle retained at the first end of the strap and forming, on the outer side of said first end, a passage through which the second end of the strap can be inserted over the first end, the second end of the strap as inserted in this way being suitable for being indented so as to co-operate with at least one of the elements comprising the transverse buckle and the first end of the strap, in order to be retained so that it is prevented from moving in the direction in which the diameter of the collar increases; said clamping collar being characterized in that the buckle carries at least one radially projecting outer tab (20, 22), the tab having the shape of a hook having a stem (20A, 22A) carrying a head (20B, 22B) under which a recess is formed.
A battery cell comprising: an electrode assembly; a case for receiving the electrode assembly; and a taping portion (130, 230, 330) enclosing an outer peripheral surface of the electrode assembly, wherein the taping portion (130, 230, 330) includes a first adhesive layer (133, 233, 333) positioned on the electrode assembly, a first base layer (132, 232, 332) positioned on the first adhesive layer (133, 233, 333), and a second base layer (131, 231, 331) positioned on the first base layer (132, 232, 332), characterized in that the first base layer (132, 232, 332) has an elongation higher than that of the second base layer (131, 231, 331), and the second base layer (131, 231, 331) has a tensile strength higher than that of the first base layer (132, 232, 332). an electrode assembly; a case for receiving the electrode assembly; and a taping portion (130, 230, 330) enclosing an outer peripheral surface of the electrode assembly, wherein the taping portion (130, 230, 330) includes a first adhesive layer (133, 233, 333) positioned on the electrode assembly, a first base layer (132, 232, 332) positioned on the first adhesive layer (133, 233, 333), and a second base layer (131, 231, 331) positioned on the first base layer (132, 232, 332), characterized in that the first base layer (132, 232, 332) has an elongation higher than that of the second base layer (131, 231, 331), and the second base layer (131, 231, 331) has a tensile strength higher than that of the first base layer (132, 232, 332).
A method for controlling a marine vessel having steerable propulsors (12,14) and trim deflectors (20,22), the steerable propulsors (12,14) comprising first and second steerable propulsors (12,14), the trim deflectors (20,22) comprising first and second trim deflectors (20,22), the method comprising: calculating an amount of rolling force to induce to the marine vessel; inducing the calculated amount of rolling force to the marine vessel by controlling at least one of the steerable propulsors (12,14) and at least one of the trim deflectors (20,22) to induce the calculated amount of rolling force to the marine vessel when the marine vessel is implementing a turning maneuver, wherein the steerable propulsors comprise waterjets with steering nozzles, outboard motors, inboard drives, outboard drives, stern drives, single-propeller type drives, dual-propeller type drives, or Arneson drives. calculating an amount of rolling force to induce to the marine vessel; inducing the calculated amount of rolling force to the marine vessel by controlling at least one of the steerable propulsors (12,14) and at least one of the trim deflectors (20,22) to induce the calculated amount of rolling force to the marine vessel when the marine vessel is implementing a turning maneuver, wherein the steerable propulsors comprise waterjets with steering nozzles, outboard motors, inboard drives, outboard drives, stern drives, single-propeller type drives, dual-propeller type drives, or Arneson drives.
A compound that is represented by the following formulae: Formula X Y1 Formula 1-1-1 Formula 1-1-3 Formula 1-1-19 Formula 1-1-21 Formula 4-1-1 Formula 3-1-1 Formula 3-1-21 Formula 3-2-1 Formula 9-1-1 Formula 9-1-21 Formula 14-1-1 Formula 3-2-21 Formula 3-22-1 Formula 3-22-21 Formula 9-21-3 Formula 14-21-1 Formula 1-41-1 Formula 1-42-1 Formula 1-61-1 Formula 3-61-1 Formula 1-11-42 Formula 1-32-40 Formula 1-32-42 Formula 1-1-25 Formula 5-1-1 Formula 5-1-21 Formula 5-21-21 Formula 5-21-3 Formula 11-1-1 Formula 12-1-85 Formula 12-21-1 Formula 12-21-3 Formula 12-21-21
A system for an aircraft, the system comprising: a heater comprising: a resistive heating element; and insulation surrounding the resistive heating element; wherein the resistive heating element is configured such that a first current (I 1) can flow into the resistive heating element to provide heat and a second current (I 2) can flow out of the resistive heating element; a leakage sensor configured to produce a leakage sensor signal (V L) representing a leakage current (I L) from the heater; and a prediction processor configured to predict heater failure based on the leakage sensor signal (V L); wherein the heater further comprises a metallic sheath surrounding the insulation such that the insulation is between the resistive heating element and the metallic sheath; and characterised in that the leakage sensor is connected between the metallic sheath and an electrical ground. a resistive heating element; and insulation surrounding the resistive heating element; wherein the resistive heating element is configured such that a first current (I 1) can flow into the resistive heating element to provide heat and a second current (I 2) can flow out of the resistive heating element; a leakage sensor configured to produce a leakage sensor signal (V L) representing a leakage current (I L) from the heater; and a prediction processor configured to predict heater failure based on the leakage sensor signal (V L); wherein the heater further comprises a metallic sheath surrounding the insulation such that the insulation is between the resistive heating element and the metallic sheath; and characterised in that the leakage sensor is connected between the metallic sheath and an electrical ground.