mhurhangee/patent-ind-claim-en huggingface dataset:
Method for estimating a friction coefficient of a roadway by means of a motor vehicle , wherein a control device of the motor vehicle - receives, from a slip control system , a first estimated value of a horizontal force that is maximally transmittable by a wheel of the motor vehicle to the roadway , characterized in that the control device - receives, from a damper control , a second estimated value of a wheel contact force of the wheel , and - calculates the friction coefficient as a vehicle-independent friction coefficient using the estimated values from the wheel contact force and the horizontal force , wherein - the friction coefficient is determined at a front wheel of the motor vehicle and is transmitted as a predicted friction coefficient to a control device for a rear wheel of the motor vehicle such that, at the rear wheel, the control device receives a predicted friction coefficient in advance. - receives, from a slip control system , a first estimated value of a horizontal force that is maximally transmittable by a wheel of the motor vehicle to the roadway , - receives, from a damper control , a second estimated value of a wheel contact force of the wheel , and - calculates the friction coefficient as a vehicle-independent friction coefficient using the estimated values from the wheel contact force and the horizontal force , wherein - the friction coefficient is determined at a front wheel of the motor vehicle and is transmitted as a predicted friction coefficient to a control device for a rear wheel of the motor vehicle such that, at the rear wheel, the control device receives a predicted friction coefficient in advance.
A sheet separation device configured to separate a non-bonding portion (B) of a two-ply sheet (PJ) in which two sheets (P1, P2) are overlapped and bonded together at one end (A) as a bonding portion (A) of the two-ply sheet (PJ), the sheet separation device comprising a separator configured to be inserted into a gap (C) formed between the two sheets (P1, P2) of the two-ply sheet (PJ), relatively move from the one end (A) of the two-ply sheet (PJ) to another end (B) of the two-ply sheet (PJ).
A process for depositing on a glazing substrate an essentially mineral functional layer or a stack of essentially mineral functional layers, characterized in that it comprises steps consisting in - depositing, in a pattern, on some but not all of the surface of the substrate, an essentially organic coating, in - depositing on the substrate thus coated an essentially mineral functional layer or a stack of essentially mineral functional layers, in - subjecting the result to a heat treatment so as to make the essentially organic coating combust, then in - removing the latter and the essentially mineral functional layer or the stack of essentially mineral functional layers that covers it by wiping such as with a cloth and/or under a flow of gas and/or by washing, so as to obtain an essentially mineral functional layer or a stack of essentially mineral functional layers having a pattern corresponding to the negative of that produced with the essentially organic coating. - depositing, in a pattern, on some but not all of the surface of the substrate, an essentially organic coating, in - depositing on the substrate thus coated an essentially mineral functional layer or a stack of essentially mineral functional layers, in - subjecting the result to a heat treatment so as to make the essentially organic coating combust, then in - removing the latter and the essentially mineral functional layer or the stack of essentially mineral functional layers that covers it by wiping such as with a cloth and/or under a flow of gas and/or by washing, so as to obtain an essentially mineral functional layer or a stack of essentially mineral functional layers having a pattern corresponding to the negative of that produced with the essentially organic coating.
A distributed fuel module , comprising: a fuel pressure vessel with a gas port and a fuel port ; a hydraulic circuit breaker connected to the fuel port, the hydraulic circuit breaker being configured to be connected to a fuel header ; and a gaseous circuit breaker connected to the gas port and fluidly coupled with the hydraulic circuit breaker through the fuel pressure vessel, the gaseous circuit breaker being configured to be connected to a compressed gas header ; wherein the hydraulic circuit breaker is cooperatively associated with the gaseous circuit breaker to isolate the fuel pressure vessel from the compressed gas header and the fuel header according to a pressure differential within the hydraulic circuit breaker and a pressure differential within the gaseous circuit breaker. a fuel pressure vessel with a gas port and a fuel port ; a hydraulic circuit breaker connected to the fuel port, the hydraulic circuit breaker being configured to be connected to a fuel header ; and a gaseous circuit breaker connected to the gas port and fluidly coupled with the hydraulic circuit breaker through the fuel pressure vessel, the gaseous circuit breaker being configured to be connected to a compressed gas header ; wherein the hydraulic circuit breaker is cooperatively associated with the gaseous circuit breaker to isolate the fuel pressure vessel from the compressed gas header and the fuel header according to a pressure differential within the hydraulic circuit breaker and a pressure differential within the gaseous circuit breaker.
A coating on a roughened metal surface of an implantable medical device, the coating comprising: a poly(ethylene glycol) disposed on at least a portion of the roughened metal surface, wherein the poly(ethylene glycol) is covalently bonded directly to the roughened metal surface by an inorganic ether bond, wherein the metal surface is a titanium metal surface, the poly(ethylene glycol) covalently bonded directly to the roughened metal surface is a monolayer, and an average molecular weight of the poly(ethylene glycol) is between 400 grams per mole and 4,000 grams per mole.
Inhalation device having a chamber for the intermediate storage of an aerosol , a first connection for a nebuliser that produces the aerosol and a second connection on the patient side for delivering the aerosol and a third connection for breathable air, wherein the chamber is fluidically connected in valve-free manner on the inlet side to the first connection at least when the nebuliser is attached and is connected to the third connection in parallel on the inlet side via an inlet valve so that breathable air from the third connection can flow into the chamber , and wherein the second connection is connected to the third connection via an outlet valve parallel to the chamber , so that breathable air can flow from the second connection past the chamber through the outlet valve to the third connection , characterised in that an annular chamber is formed between the chamber or a wall that forms the chamber , on the one hand, and a housing , on the other hand, said annular chamber allowing the breathable air to flow from the second port through the outlet valve to the third port .
A modular microwave generator for an ablation system, the generator comprising: a microwave signal generator configured to generate a microwave signal; a microwave generator controller in communication with the microwave signal generator ; one or more auxiliary modules each of which includes respective auxiliary controllers and memory that independently control circuitry of the one or more auxiliary modules and respective power isolation circuits that electrically isolate the one or more auxiliary modules from the microwave generator, a power supply electrically coupled to the microwave signal generator and the microwave generator controller, the power supply configured to receive input power and supply output power to the microwave signal generator and the microwave generator controller; one or more terminals, the respective auxiliary modules being removably connected to the terminals, the one or more terminals being configured to: provide power from the power supply to the one or more respective auxiliary modules, and provide first communication signals to and receive second communication signals from the one or more respective auxiliary modules; the one or more auxiliary modules each being configured to perform, independently of the microwave signal generator and power supply, at least one auxiliary operation. a microwave signal generator configured to generate a microwave signal; a microwave generator controller in communication with the microwave signal generator ; one or more auxiliary modules each of which includes respective auxiliary controllers and memory that independently control circuitry of the one or more auxiliary modules and respective power isolation circuits that electrically isolate the one or more auxiliary modules from the microwave generator, a power supply electrically coupled to the microwave signal generator and the microwave generator controller, the power supply configured to receive input power and supply output power to the microwave signal generator and the microwave generator controller; one or more terminals, the respective auxiliary modules being removably connected to the terminals, the one or more terminals being configured to: provide power from the power supply to the one or more respective auxiliary modules, and provide first communication signals to and receive second communication signals from the one or more respective auxiliary modules; the one or more auxiliary modules each being configured to perform, independently of the microwave signal generator and power supply, at least one auxiliary operation.
A recovery method for a soluble silica, comprising stirring a silica-containing plant body together with heated titanium oxide comprising titanium oxide granules, wherein the titanium oxide granules each have the following characteristics: a BET specific surface area in a range of from 30 m 2 /g to 70 m 2 /g; a tap density measured as described in the description in a range of from 1.00 g/mL to 1.80 g/mL; and a pore volume measured by a mercury intrusion method in a range of from 0.10 cc/g to 0.60 cc/g. a BET specific surface area in a range of from 30 m 2 /g to 70 m 2 /g; a tap density measured as described in the description in a range of from 1.00 g/mL to 1.80 g/mL; and a pore volume measured by a mercury intrusion method in a range of from 0.10 cc/g to 0.60 cc/g.
An apparatus , comprising: storage to store bounded pointers, each bounded pointer comprising a pointer value and associated attributes, the associated attributes including range information indicative of an allowable range of addresses when using said pointer value; and processing circuitry to perform a signing operation on an input bounded pointer in order to generate an output bounded pointer in which a signature generated by the signing operation is contained within the output bounded pointer in place of specified bits of the input bounded pointer; the associated attributes including signing information which is set by the processing circuitry within the output bounded pointer to identify that the output bounded pointer has been signed. storage to store bounded pointers, each bounded pointer comprising a pointer value and associated attributes, the associated attributes including range information indicative of an allowable range of addresses when using said pointer value; and processing circuitry to perform a signing operation on an input bounded pointer in order to generate an output bounded pointer in which a signature generated by the signing operation is contained within the output bounded pointer in place of specified bits of the input bounded pointer; the associated attributes including signing information which is set by the processing circuitry within the output bounded pointer to identify that the output bounded pointer has been signed.
A method of manufacturing a mould for a wind turbine blade shell, wherein the method comprises the steps of: providing a wind turbine blade mould geometry; dividing said wind turbine blade mould geometry into a plurality of separate geometrical slices; providing a plurality of mould blank elements, wherein said plurality of mould blank elements corresponds with said plurality of separate geometrical slices; cutting said plurality of mould blank elements to form a plurality of cut mould elements having cut surfaces, wherein said cutting is based on said plurality of separate geometrical slices; and assembling said plurality of cut mould elements, wherein the cut surfaces of said cut mould elements substantially form a consolidated wind turbine blade mould surface, characterised in that said mould blank elements are formed from a low-weight material, preferably a foam material, and wherein the method further comprises the step of applying a coating to said plurality of cut surfaces. providing a wind turbine blade mould geometry; dividing said wind turbine blade mould geometry into a plurality of separate geometrical slices; providing a plurality of mould blank elements, wherein said plurality of mould blank elements corresponds with said plurality of separate geometrical slices; cutting said plurality of mould blank elements to form a plurality of cut mould elements having cut surfaces, wherein said cutting is based on said plurality of separate geometrical slices; and assembling said plurality of cut mould elements, wherein the cut surfaces of said cut mould elements substantially form a consolidated wind turbine blade mould surface, characterised in that said mould blank elements are formed from a low-weight material, preferably a foam material, and wherein the method further comprises the step of applying a coating to said plurality of cut surfaces.
A sliding member comprising: a base material; a Ni-P plating film formed on the base material; and a Ni-P-Co plating film formed on the Ni-P plating film, wherein the base material is aluminum or an aluminum alloy, or is an Al-Si based alloy containing a transition metal element and having a Rockwell hardness of HRB 80 or higher, the Ni-P plating film has a thickness of 1 μm or more and 5 μm or less, and the Ni-P-Co plating film has a thickness of 3 μm or more and 30 μm or less and contains 3.4 mass% or more and less than 10.0 mass% Co and 0.05 mass% or more and 5.0 mass% or less P, with the balance being Ni and unavoidable impurities. the base material is aluminum or an aluminum alloy, or is an Al-Si based alloy containing a transition metal element and having a Rockwell hardness of HRB 80 or higher, the Ni-P plating film has a thickness of 1 μm or more and 5 μm or less, and the Ni-P-Co plating film has a thickness of 3 μm or more and 30 μm or less and contains 3.4 mass% or more and less than 10.0 mass% Co and 0.05 mass% or more and 5.0 mass% or less P, with the balance being Ni and unavoidable impurities.
A pass-through logistics cabinet for mounting in a wall of a room of a healthcare environment, the pass-through logistics cabinet comprising: an interior door comprising photochromic glass that provides access to supplies in the pass-through logistics cabinet from inside the room; an exterior door that provides access to supplies in the pass-through logistics cabinet from outside the room; one or more shelves , each of the one or more shelves comprising a locating sensor ; at least one set of one or more status indicator lights , wherein the at least one set of status indicator lights are visible when the interior or exterior door is opaque; and one or more electromagnetic locks. an interior door comprising photochromic glass that provides access to supplies in the pass-through logistics cabinet from inside the room; an exterior door that provides access to supplies in the pass-through logistics cabinet from outside the room; one or more shelves , each of the one or more shelves comprising a locating sensor ; at least one set of one or more status indicator lights , wherein the at least one set of status indicator lights are visible when the interior or exterior door is opaque; and one or more electromagnetic locks.
A method of adjusting a watt density distribution of a resistive heater comprising: (a) designing a baseline heater circuit ; characterized in that the method further comprises (b) designing a detection circuit having a constant trace watt density, wherein the detection circuit overlaps the baseline heater circuit and includes a margin; (c) manufacturing the detection circuit ; (d) applying power to the detection circuit and obtaining a baseline thermal map ; (e) manufacturing a baseline heater circuit from the detection circuit ; (f) applying power to the baseline heater circuit and obtaining a nominal thermal map ; (g) assembling the baseline heater circuit to a thermal device ; (h) applying power to the baseline heater circuit and obtaining a thermal map of a target surface ; repeating steps (a) through (h) to achieve a desired temperature profile along the target surface; (i) manufacturing a subsequent detection circuit ; (j) applying power to the subsequent detection circuit and obtaining an actual thermal map ; (k) creating a subtraction thermal image by subtracting the baseline thermal map from the actual thermal map ; and (l) modifying a subsequent baseline heater circuit according to the subtraction thermal image . (a) designing a baseline heater circuit ; characterized in that the method further comprises (b) designing a detection circuit having a constant trace watt density, wherein the detection circuit overlaps the baseline heater circuit and includes a margin; (c) manufacturing the detection circuit ; (d) applying power to the detection circuit and obtaining a baseline thermal map ; (e) manufacturing a baseline heater circuit from the detection circuit ; (f) applying power to the baseline heater circuit and obtaining a nominal thermal map ; (g) assembling the baseline heater circuit to a thermal device ; (h) applying power to the baseline heater circuit and obtaining a thermal map of a target surface ; repeating steps (a) through (h) to achieve a desired temperature profile along the target surface; (i) manufacturing a subsequent detection circuit ; (j) applying power to the subsequent detection circuit and obtaining an actual thermal map ; (k) creating a subtraction thermal image by subtracting the baseline thermal map from the actual thermal map ; and (l) modifying a subsequent baseline heater circuit according to the subtraction thermal image .
A work machine characterized by the work machine including a holding tool configured to hold a bulk component on a top surface of the bulk component; a reading device being disposed in a state facing a side surface of the bulk component different from the top surface and a bottom surface of the bulk component, and configured to: - read identification information , being attached to the side surface, from the side surface; - identify the bulk component, and - perform a reading operation of the identification information with the reading device. characterized by the work machine including a holding tool configured to hold a bulk component on a top surface of the bulk component; a reading device being disposed in a state facing a side surface of the bulk component different from the top surface and a bottom surface of the bulk component, and configured to: - read identification information , being attached to the side surface, from the side surface; - identify the bulk component, and - perform a reading operation of the identification information with the reading device. - read identification information , being attached to the side surface, from the side surface; - identify the bulk component, and - perform a reading operation of the identification information with the reading device.
A composition comprising Aldehyde dehydrogenase 2 for use in the treatment of aldehyde toxicity resulting from ethanol metabolism after a subject has consumed ethanol, wherein the composition is to be administered IV in a therapeutically effective dosage, wherein the dosage results in at least a 25% reduction of the systemic level of the toxic aldehyde in the subject.
Piston for an internal combustion engine, comprising • a skirt which defines an internal space of the piston and has a skirt bottom ; • a target ; the piston being characterized in that the target is arranged under the skirt bottom in order to cooperate with a passage detector arranged in the engine, the target being carried by a holding body held at least in part inside the internal space of the piston , the holding body comprising an arm having a recess which allows a connecting rod small end to pass. • a skirt which defines an internal space of the piston and has a skirt bottom ; • a target ; the piston being characterized in that the target is arranged under the skirt bottom in order to cooperate with a passage detector arranged in the engine, the target being carried by a holding body held at least in part inside the internal space of the piston , the holding body comprising an arm having a recess which allows a connecting rod small end to pass.
A method performed by an end node operating in a Mesh communications network , the method comprising: - monitoring , a first channel, for transmissions of first information from one or more relay nodes operating in the Mesh communications network , the first information indicating transmission, from the one or more relay nodes , of second information on a second channel associated with the first channel, the second information indicating transmission, from the one or more relay nodes , of third information on a third channel, the third channel being associated with the second channel and the first channel, - determining , based on the second information, one or more first time periods during which no transmission of the third information is predicted to be performed by the one or more relay nodes on the third channel, and - scheduling a transmission of fourth information in a fourth channel during the determined one or more first time periods. - monitoring , a first channel, for transmissions of first information from one or more relay nodes operating in the Mesh communications network , the first information indicating transmission, from the one or more relay nodes , of second information on a second channel associated with the first channel, the second information indicating transmission, from the one or more relay nodes , of third information on a third channel, the third channel being associated with the second channel and the first channel, - determining , based on the second information, one or more first time periods during which no transmission of the third information is predicted to be performed by the one or more relay nodes on the third channel, and - scheduling a transmission of fourth information in a fourth channel during the determined one or more first time periods.