mhurhangee/ep-ind-claims huggingface dataset:
A downhole drilling vibration analysis method, comprising: measuring acceleration data in three orthogonal axes downhole while drilling with a drilling assembly; characterised by calculating impulse in at least one direction using the measured acceleration data over an acquisition period; determining whether the calculated impulse exceeds a predetermined threshold for the acquisition period; correlating the calculated impulse to efficiency of the drilling assembly based on the determination; and determining whether to pull the drilling assembly for repair or replacement based on the correlation. measuring acceleration data in three orthogonal axes downhole while drilling with a drilling assembly; characterised by calculating impulse in at least one direction using the measured acceleration data over an acquisition period; determining whether the calculated impulse exceeds a predetermined threshold for the acquisition period; correlating the calculated impulse to efficiency of the drilling assembly based on the determination; and determining whether to pull the drilling assembly for repair or replacement based on the correlation.
A card comprising: a display portion; an electronic component (3, 4) that causes the display portion to display; and a surface layer that is disposed on a topmost layer of the card and is formed of a transparent material, characterized in that: when a front surface of the card is viewed from a normal direction, the surface layer includes a mirror-surface portion that is provided in a portion overlapping the display portion, and a matte portion that is provided in a portion outside the mirror-surface portion and has a coarser average roughness than that of the mirror-surface portion. a display portion; an electronic component (3, 4) that causes the display portion to display; and a surface layer that is disposed on a topmost layer of the card and is formed of a transparent material, when a front surface of the card is viewed from a normal direction, the surface layer includes a mirror-surface portion that is provided in a portion overlapping the display portion, and a matte portion that is provided in a portion outside the mirror-surface portion and has a coarser average roughness than that of the mirror-surface portion.
An in vitro method for measuring a glycemic index GI of food of a multicomponent composition consumed by a human, the method comprising: non-invasively measuring a blood glucose concentration in the human (G(t) from an onset of increase of a blood glucose concentration caused by the food intake until the blood glucose concentration reaches its peak; determining (i) a time interval Δ t from the onset to the peak of the blood glucose concentration (ii) a maximum increase of a blood glucose concentration Δ G max over the time period Δ t, and (iii) a carbohydrate content C sum = K · Δ t · Δ G max wherein a proportionality factor K is selected within a 0.35 g/min·mmol/l to 0.6 g/min·mmol/l range, wherein the amount of carbohydrates C sum of the food is measured in grams, said time period Δt is measured in minutes, and said maximum increase of blood glucose concentration ΔGmax is measured in mmol/l; and determining the glycemic index GI of the food as a ratio Δ G max /ΔG (gl) max, wherein ΔG max is a maximum increase of a blood glucose concentration upon intake of pure glucose in an amount equal to the carbohydrate content C sum. non-invasively measuring a blood glucose concentration in the human (G(t) from an onset of increase of a blood glucose concentration caused by the food intake until the blood glucose concentration reaches its peak; determining (i) a time interval Δ t from the onset to the peak of the blood glucose concentration (ii) a maximum increase of a blood glucose concentration Δ G max over the time period Δ t, and (iii) a carbohydrate content C sum = K · Δ t · Δ G max wherein a proportionality factor K is selected within a 0.35 g/min·mmol/l to 0.6 g/min·mmol/l range, wherein the amount of carbohydrates C sum of the food is measured in grams, said time period Δt is measured in minutes, and said maximum increase of blood glucose concentration ΔGmax is measured in mmol/l; and determining the glycemic index GI of the food as a ratio Δ G max /ΔG (gl) max, wherein ΔG max is a maximum increase of a blood glucose concentration upon intake of pure glucose in an amount equal to the carbohydrate content C sum.
A glazing for fire protection wall elements, windows, doors or the like, comprising at least two glass panes (2a, 2b) which are spaced in parallel from each other and a spacer arranged between these glass panes (2a, 2b), wherein the spacer comprises a sleeve and at least two stop surfaces (8a, 8b) which are firmly connected to the sleeve and spaced in parallel from each other, and wherein the sleeve rises above both stop surfaces (8a, 8b) in the longitudinal direction of the sleeve, characterized in that a pressure sleeve is arranged in the sleeve, which pressure sleeve rises above the outer surfaces of the glass panes (2a, 2b).
An implantable medical device, comprising: a sensing module configured to receive a raw cardiac electrical signal via electrodes (162, 164) coupled to the sensing module, the raw cardiac electrical signal comprising first cardiac events, second cardiac events different than the first cardiac events, and third cardiac events different than the first cardiac events and the second cardiac events, the sensing module configured to: filter the raw cardiac electrical signal according to first filtering properties to produce a filtered cardiac electrical signal; detect a first crossing of a first threshold by the filtered cardiac electrical signal; identify one of the second cardiac events after the first crossing; detect a second crossing of the first threshold by the filtered cardiac electrical signal after the identified one of the second cardiac events; analyze the first crossing and the second crossing of the filtered cardiac electrical signal; establish cardiac event sensing criteria that discriminate the first cardiac events from the third cardiac events based on the analyzing of the first crossing and the second crossing; and sense the first cardiac events from the filtered cardiac electrical signal when the established cardiac event sensing criteria are met. filter the raw cardiac electrical signal according to first filtering properties to produce a filtered cardiac electrical signal; detect a first crossing of a first threshold by the filtered cardiac electrical signal; identify one of the second cardiac events after the first crossing; detect a second crossing of the first threshold by the filtered cardiac electrical signal after the identified one of the second cardiac events; analyze the first crossing and the second crossing of the filtered cardiac electrical signal; establish cardiac event sensing criteria that discriminate the first cardiac events from the third cardiac events based on the analyzing of the first crossing and the second crossing; and sense the first cardiac events from the filtered cardiac electrical signal when the established cardiac event sensing criteria are met.
An authorization method, comprising: receiving a request to authorize an action to be performed with respect to a vehicle, the request comprising: user identification information pertaining to a user of the vehicle and yielded from a mobile device associated with the user, and vehicle identification information pertaining to the vehicle and yielded from the vehicle; authorizing the action in response to receiving the request when the user as identified by the user identification information and the vehicle as identified by the vehicle identification information are, in combination, authorized to perform the action; and communicating an authorization generated in response to authorizing the action to a mechanism configured to perform the action and distant from the vehicle, communicating the authorization to the mechanism comprising at least one of: communicating the authorization to the vehicle and the vehicle configured to communicate the authorization to the mechanism, or communicating the authorization to the mobile device and the mobile device configured to communicate the authorization to the mechanism. receiving a request to authorize an action to be performed with respect to a vehicle, the request comprising: user identification information pertaining to a user of the vehicle and yielded from a mobile device associated with the user, and vehicle identification information pertaining to the vehicle and yielded from the vehicle; user identification information pertaining to a user of the vehicle and yielded from a mobile device associated with the user, and vehicle identification information pertaining to the vehicle and yielded from the vehicle; authorizing the action in response to receiving the request when the user as identified by the user identification information and the vehicle as identified by the vehicle identification information are, in combination, authorized to perform the action; and communicating an authorization generated in response to authorizing the action to a mechanism configured to perform the action and distant from the vehicle, communicating the authorization to the mechanism comprising at least one of: communicating the authorization to the vehicle and the vehicle configured to communicate the authorization to the mechanism, or communicating the authorization to the mobile device and the mobile device configured to communicate the authorization to the mechanism. communicating the authorization to the vehicle and the vehicle configured to communicate the authorization to the mechanism, or communicating the authorization to the mobile device and the mobile device configured to communicate the authorization to the mechanism.
Canister for pumpable media, in particular for colour pigment preparations, having a delivery device assigned to the canister, a pumpable medium held in the canister being extractable in a controlled manner via a valve device by means of said delivery device, wherein the valve device is additionally configured and controllable such that at least a part of a quantity of pumpable medium extracted from the canister is able to be delivered back into the canister, wherein the delivery device is formed by a pump, arranged on the canister, having a pump housing, wherein the valve device, which is configured as a multi-way valve, is connected to the pump housing, wherein the multi-way valve has a plurality of mouth openings (28, 29, 30) assigned to different flow paths, characterized in that the multi-way valve has a perforated disc that covers and/or closes the mouth openings (28, 29, 30) and is rotatable relative thereto, said perforated disc having at least one, preferably a single, disc opening which leads into the pump housing such that the at least one disc opening is able to be aligned with one of the mouth openings (28, 29, 30) when the perforated disc is rotated, and thus a flow connection between the pump housing and the flow path assigned to the respective mouth opening (28, 29, 30) is establishable, in that the rotatable perforated disc has a driving pin projecting therefrom or is coupled and/or connected to such a driving pin, in that the driving pin is guided through the valve housing towards the outside and is coupled there to a valve actuating device, and in that the rotatable perforated disc is formed in two parts and has a first component carrying the driving pin, said first component facing the pump housing, and a second component that is lower with respect thereto, faces the mouth openings (28, 29, 30) and has the driving pin passing through it, said second component being connected to the first component for conjoint rotation.
A vacuum adiabatic body comprising: a first plate defining at least one portion of a first side of a wall adjacent to a first space having a first temperature; a second plate defining at least one portion of a second side of the wall adjacent to a second space having a second temperature different than the first temperature; a seal that seals the first plate and the second plate to provide a third space that has a third temperature between the first and second temperatures and is in a vacuum state; a support provided in the third space to maintain a gap in the third space; a thermal insulator that reduces heat transfer between the first plate and the second plate; and an exhaust port through which a gas in the third space is ejected, characterized in that the thermal insulator includes a conductive resistance sheet that resists surface heat conduction along the wall adjacent the third space, and a side frame connected to the conductive resistance sheet to define at least a portion of the wall adjacent to the third space, wherein one surface of the conductive resistance sheet is thermally insulated by the third space and wherein the conductive resistance sheet and the first and the second plates are made of same material. a first plate defining at least one portion of a first side of a wall adjacent to a first space having a first temperature; a second plate defining at least one portion of a second side of the wall adjacent to a second space having a second temperature different than the first temperature; a seal that seals the first plate and the second plate to provide a third space that has a third temperature between the first and second temperatures and is in a vacuum state; a support provided in the third space to maintain a gap in the third space; a thermal insulator that reduces heat transfer between the first plate and the second plate; and an exhaust port through which a gas in the third space is ejected, characterized in that the thermal insulator includes a conductive resistance sheet that resists surface heat conduction along the wall adjacent the third space, and a side frame connected to the conductive resistance sheet to define at least a portion of the wall adjacent to the third space, wherein one surface of the conductive resistance sheet is thermally insulated by the third space and wherein the conductive resistance sheet and the first and the second plates are made of same material.
Mobile teaching robot for a poultry farm comprising at least one egg-laying area, said robot comprising a main frame carrying: - means for moving the robot on the ground, - means of at least two distinct types for prompting mobility in order to push the poultry birds present on the ground towards at least one egg-laying area, - means for controlling said means for prompting mobility, the main frame of said robot being able to be detachably connected to a towed secondary frame carrying mechanical means for levelling and aerating the ground, said robot being characterised in that the control means are programmed to actuate the means for prompting mobility of the poultry birds according to successive activation sequences that are not identical so as to avoid the poultry birds becoming accustomed to the presence of the robot. - means for moving the robot on the ground, - means of at least two distinct types for prompting mobility in order to push the poultry birds present on the ground towards at least one egg-laying area, - means for controlling said means for prompting mobility, the main frame of said robot being able to be detachably connected to a towed secondary frame carrying mechanical means for levelling and aerating the ground, said robot being characterised in that the control means are programmed to actuate the means for prompting mobility of the poultry birds according to successive activation sequences that are not identical so as to avoid the poultry birds becoming accustomed to the presence of the robot.
Method for collecting blood and transforming it into a hydrolyzed protein using slaughter animal blood, such as to obtain hydrolyzed blood protein, characterized in that it comprises the steps of collection, separation, treatment in plasma reactor, treatment in hemoglobin reactor, treatment in a further reactor with gentle shaking, filtration, pasteurization, drying and grinding of the blood collected from the animal, wherein the blood as drained from the neck of the animal is added with a specially developed additive (metabisulfite) to stabilize the product for up to seven months without the use of refrigeration.
A method for producing ethylene glycol using ethylene carbonate and methanol as raw materials comprising following steps: a) performing pre-reaction of heated reactants to obtain a pre-treatment material, the reactants comprising ethylene carbonate and methanol; b) subjecting the pre-treatment material to a catalytic rectification reaction to obtain a material stream I; c) separating methanol from the material stream I to obtain a material stream II; d) subjecting the material stream II to rectification to obtain a target product, the target product comprising ethylene glycol; wherein, the catalytic rectification reaction is performed in the presence of a catalyst I; the catalyst I comprising a solid catalyst. a) performing pre-reaction of heated reactants to obtain a pre-treatment material, the reactants comprising ethylene carbonate and methanol; b) subjecting the pre-treatment material to a catalytic rectification reaction to obtain a material stream I; c) separating methanol from the material stream I to obtain a material stream II; d) subjecting the material stream II to rectification to obtain a target product, the target product comprising ethylene glycol; wherein, the catalytic rectification reaction is performed in the presence of a catalyst I; the catalyst I comprising a solid catalyst.
A method comprising: receiving, by a wireless device from a configurator device, a managed object that includes information indicating which of different provisioning techniques is to be used to provision the wireless device; determining, by the wireless device based on the information, a particular provisioning technique of the different provisioning techniques to use; and performing, by the wireless device, provisioning according to the particular provisioning technique; wherein the method is characterised by: receiving by the wireless device from the configurator device a Device Provisioning Protocol, DPP, authentication request and in response to the authentication request, sending by the wireless device to the configurator device a DPP authentication response to perform a DPP authentication which allows the configurator device and the wireless device to validate each other prior to performing the provisioning according to the particular provisioning technique. receiving, by a wireless device from a configurator device, a managed object that includes information indicating which of different provisioning techniques is to be used to provision the wireless device; determining, by the wireless device based on the information, a particular provisioning technique of the different provisioning techniques to use; and performing, by the wireless device, provisioning according to the particular provisioning technique; wherein the method is characterised by: receiving by the wireless device from the configurator device a Device Provisioning Protocol, DPP, authentication request and in response to the authentication request, sending by the wireless device to the configurator device a DPP authentication response to perform a DPP authentication which allows the configurator device and the wireless device to validate each other prior to performing the provisioning according to the particular provisioning technique.
Modular unit for adaptive greenhouse capable to adjust its height following the growth of the nursery crops housed in a cultivable volume, said modular unit comprising: • a frame comprising vertical columns containing, in their metal profile, a worm screw connected to an electric motor controlled by an electronic control unit; • a movable roof connected to said worm screws, made of transparent material and composed by an upper surface and a lower surface, said surfaces (13, 14) enclosing a gap; said gap comprising vents for the conditioning of the underlying cultivable volume; • bellows side walls consisting of transparent and thermally insulating material; said bellows side walls extending below the movable roof and enclosing the cultivable volume; said bellows side walls sliding along the vertical columns; said modular unit being characterised by: • a laser lever-based detection system positioned under the movable roof and connected to the electronic control unit; • electrical interconnection means and data connection means with further adjacent modular units; • hydraulic interconnection means with further adjacent modular units. • a frame comprising vertical columns containing, in their metal profile, a worm screw connected to an electric motor controlled by an electronic control unit; • a movable roof connected to said worm screws, made of transparent material and composed by an upper surface and a lower surface, said surfaces (13, 14) enclosing a gap; said gap comprising vents for the conditioning of the underlying cultivable volume; • bellows side walls consisting of transparent and thermally insulating material; said bellows side walls extending below the movable roof and enclosing the cultivable volume; said bellows side walls sliding along the vertical columns; said modular unit being characterised by: • a laser lever-based detection system positioned under the movable roof and connected to the electronic control unit; • electrical interconnection means and data connection means with further adjacent modular units; • hydraulic interconnection means with further adjacent modular units.
A method for producing a quantum device comprising the following steps: - Providing a substrate having a front face and carrying at least one transistor pattern on its front face, Said transistor pattern comprising, in a stack: • a gate dielectric on the front face of the substrate, • a gate on the gate dielectric, said gate having a top and sides, - Forming a protective layer (111, 112) at the front face of the substrate, said protective layer (111, 112) being configured to prevent diffusion of at least one metal species into the substrate, - Forming a metal layer based on at least one metal species at least on the sides of the gate, - Forming a superconducting region in the gate, by lateral diffusion of the at least one metal species from the sides of said gate. - Providing a substrate having a front face and carrying at least one transistor pattern on its front face, • a gate dielectric on the front face of the substrate, • a gate on the gate dielectric, said gate having a top and sides, - Forming a protective layer (111, 112) at the front face of the substrate, said protective layer (111, 112) being configured to prevent diffusion of at least one metal species into the substrate, - Forming a metal layer based on at least one metal species at least on the sides of the gate, - Forming a superconducting region in the gate, by lateral diffusion of the at least one metal species from the sides of said gate.