mhurhangee/patent-ind-claim-en huggingface dataset:
A bushing for producing glass fibers, comprising: a base plate; and a plurality of nozzles from which molten glass is discharged, wherein a nozzle group formed with alignment of the plurality of nozzles is joined to the base plate, a coating layer made of ceramics is formed on each of the nozzles forming at least a row of an outermost layer of the nozzle group, the nozzle on which the coating layer is formed has an end face with no coating layer and a nozzle tip part with no coating layer on a side of glass discharge, and a length of the coating layer is 50% or more and 90% or less with respect to an entire length of the nozzle. a base plate; and a plurality of nozzles from which molten glass is discharged, wherein a nozzle group formed with alignment of the plurality of nozzles is joined to the base plate, a coating layer made of ceramics is formed on each of the nozzles forming at least a row of an outermost layer of the nozzle group, the nozzle on which the coating layer is formed has an end face with no coating layer and a nozzle tip part with no coating layer on a side of glass discharge, and a length of the coating layer is 50% or more and 90% or less with respect to an entire length of the nozzle.
Vehicle for conveying of passengers , the vehicle comprising: - an interior space for accommodating the passengers ; and - a plurality of door areas (4 1 -4 6 ) for entering and leaving the interior space , wherein a respective transmitter (5 1 -5 6 ) is arranged in and/or at each of the door areas (4 1- 4 6 ), the transmitter (5 1 -5 6 ) being configured to transmit an electromagnetic signal in which an individual identification of the door area (4 1 -4 6 ) and a transmission power of the transmitter (5 1 -5 6 ) are encoded. - an interior space for accommodating the passengers ; and - a plurality of door areas (4 1 -4 6 ) for entering and leaving the interior space ,
A table leg comprising a first connector comprising a first mating part in the form of a C-shaped recess for engagement with a second mating part in the form of a bar or pivot pin on the seat for connecting the table leg in pivotable engagement with a seat such that the table leg is pivotable between first and second leg positions, and a securing means for restricting movement of the table leg relative to the seat , wherein the securing means is for allowing removal of the table leg from the seat when the table leg is in the first leg position and for preventing removal of the table leg from the seat when the table leg is in the second leg position, characterised in that the securing means comprises a third mating part for engagement with a fourth mating part on the seat , wherein the third mating part is a female mating part and the fourth mating part is a male mating part or wherein the third mating part is a male mating part and the fourth mating part is a female mating part , wherein the female mating part comprises a channel for engagement with the male mating part , and wherein said channel is curved around a pivot point of the first connector .
Method for determining a corrected spectrum (Â S ) of a sample (S), comprising the steps of: - loading a measured optical spectrum (A S+P ) of the sample performed through a solid translucent material (P) within the spectral range of interest, - loading a measured optical spectrum of the solid translucent material alone (A P ) obtained by a measurement made in comparable or equivalent way as the measured optical spectrum (A S+P ) of said sample, - determining a spectral energy (E S+P ) of the measured optical spectrum (A S+P ) of the sample through the solid translucent material (P), the spectral energy being proportional to the integration ( ∑ i m A S + P λi ) of the measured optical spectrum dependent on wavelength, - estimating a coefficient ( γ̂ ) from a relationship (R) between the spectral energy (E S+P ) of the measured optical spectrum (A S+P ) of the sample performed through the solid translucent material and the estimated coefficient ( γ̂ ), the relationship (R) being predetermined based on a database (BD) of reference samples, - determining said corrected spectrum (Â S ) of the sample from the measured optical spectrum (A S+P ) of the sample and from a corrected spectrum of the solid translucent material (Â P ), said corrected spectrum of the solid translucent material (Â P ) being determined from a product of the measured optical spectrum of the solid translucent material alone (A P ) and the estimated coefficient ( γ̂ ), and a measured optical spectrum being a signal dependent of a wavelength in a spectral range of interest. - loading a measured optical spectrum (A S+P ) of the sample performed through a solid translucent material (P) within the spectral range of interest, - loading a measured optical spectrum of the solid translucent material alone (A P ) obtained by a measurement made in comparable or equivalent way as the measured optical spectrum (A S+P ) of said sample, - determining a spectral energy (E S+P ) of the measured optical spectrum (A S+P ) of the sample through the solid translucent material (P), the spectral energy being proportional to the integration ( ∑ i m A S + P λi ) of the measured optical spectrum dependent on wavelength, - estimating a coefficient ( γ̂ ) from a relationship (R) between the spectral energy (E S+P ) of the measured optical spectrum (A S+P ) of the sample performed through the solid translucent material and the estimated coefficient ( γ̂ ), the relationship (R) being predetermined based on a database (BD) of reference samples, - determining said corrected spectrum (Â S ) of the sample from the measured optical spectrum (A S+P ) of the sample and from a corrected spectrum of the solid translucent material (Â P ), said corrected spectrum of the solid translucent material (Â P ) being determined from a product of the measured optical spectrum of the solid translucent material alone (A P ) and the estimated coefficient ( γ̂ ), and a measured optical spectrum being a signal dependent of a wavelength in a spectral range of interest.
A system for combinatorial depositing of a thin film having a varying composition and/or a varying thickness on at least one substrate, the system comprising - at least two deposition material source holders arranged so as to carry a deposition material source, - a substrate holder adapted for carrying at least one substrate, - a rotatable positioning system having a rotation axis for relatively moving the substrate holder and the at least two deposition material source holders with respect to each other for subsequently positioning the at least one substrate in a parallel configuration in front of at least one of the at least two deposition material sources and in a non-parallel configuration non parallel with the at least one of the at least two deposition material sources during the combinatorial deposition, and - at least one mask holder arranged for positioning a mask between at least one of the at least two deposition material source holders and the substrate holder , for allowing variation of the material flux across the at least one substrate when the combinatorial deposition is performed, depositing a thin film varying in thickness over the substrate or depositing a thin film of different elements varying in composition over the substrate, and the at least one mask holder being in a fixed arrangement with respect to the at least two deposition material source holders during the combinatorial depositing. - at least two deposition material source holders arranged so as to carry a deposition material source, - a substrate holder adapted for carrying at least one substrate, - a rotatable positioning system having a rotation axis for relatively moving the substrate holder and the at least two deposition material source holders with respect to each other for subsequently positioning the at least one substrate in a parallel configuration in front of at least one of the at least two deposition material sources and in a non-parallel configuration non parallel with the at least one of the at least two deposition material sources during the combinatorial deposition, and - at least one mask holder arranged for positioning a mask between at least one of the at least two deposition material source holders and the substrate holder , for allowing variation of the material flux across the at least one substrate when the combinatorial deposition is performed, depositing a thin film varying in thickness over the substrate or depositing a thin film of different elements varying in composition over the substrate, and the at least one mask holder being in a fixed arrangement with respect to the at least two deposition material source holders during the combinatorial depositing.
Equipment for processing a glass sheet (L), comprising an edging device and a workbench suited to mutually move with respect to each other in order to allow an edging operation to be carried out by said edging device with respect to at least one edge (B1, B2) of a piece resulting from a cutting step during which said glass sheet (L) has been cut, said workbench being suited to define the workbench for said cutting step, said workbench comprising a first portion and a second portion , at least one of said portions being movable with respect to the other, said two portions being suited to be moved away from or towards each other, characterized in that said edging device is configured to be positioned in an intermediate area between said two portions of said workbench , when said two portions are moved away from each other,.
A computer-implemented method for controlling equipment to serve energy loads of a building or campus, the method comprising: - obtaining a function that is based on: - an amount of resources to be consumed, produced, charged, or discharged by the equipment over a time horizon to serve the energy loads of the building or campus predicted for a plurality of time steps in the time horizon; and - an additional cost, such as a demand charge based on a maximum resource consumption of the equipment during a demand charge period that at least partially overlaps with the time horizon, or penalty, such as a load change penalty based on a change in an amount of the energy loads assigned to a group of the equipment between a first time within the time horizon and a second time within the time horizon, separate from the amount of resources to be consumed, produced, charged, or discharged by the equipment over the time horizon; - determining, using the function, a distribution of the energy loads across the equipment over the time horizon; and - operating the equipment to achieve the determined distribution of the energy loads across the equipment over the time horizon. - obtaining a function that is based on: - an amount of resources to be consumed, produced, charged, or discharged by the equipment over a time horizon to serve the energy loads of the building or campus predicted for a plurality of time steps in the time horizon; and - an additional cost, such as a demand charge based on a maximum resource consumption of the equipment during a demand charge period that at least partially overlaps with the time horizon, or penalty, such as a load change penalty based on a change in an amount of the energy loads assigned to a group of the equipment between a first time within the time horizon and a second time within the time horizon, separate from the amount of resources to be consumed, produced, charged, or discharged by the equipment over the time horizon; - an amount of resources to be consumed, produced, charged, or discharged by the equipment over a time horizon to serve the energy loads of the building or campus predicted for a plurality of time steps in the time horizon; and - an additional cost, such as a demand charge based on a maximum resource consumption of the equipment during a demand charge period that at least partially overlaps with the time horizon, or penalty, such as a load change penalty based on a change in an amount of the energy loads assigned to a group of the equipment between a first time within the time horizon and a second time within the time horizon, separate from the amount of resources to be consumed, produced, charged, or discharged by the equipment over the time horizon; - determining, using the function, a distribution of the energy loads across the equipment over the time horizon; and - operating the equipment to achieve the determined distribution of the energy loads across the equipment over the time horizon.
A composition useful for controlling fluid flow, said composition comprising a plurality of swellable particles, said particles comprising an assembling agent interspersed among crosslinkable polymer chains, said assembling agent being: one that will associate with the polymer chains upon exposure to a fluid capable of swelling the polymer chains; and selected from the group consisting of polyacrylamide, one of the multivalent Group III-VII metal ions or molecules, methylene bisacrylamide, polyethylene glycol dimethacrylate, phenol-formaldehyde, diallylamine, triallylamine, divinyl sulfonate, diethylene glycol, polyethyleneimine, dichlorophenol, benzoyl peroxide, di-tert-butyl peroxide, dibutyl hydrogen phosphite, and mixtures thereof. one that will associate with the polymer chains upon exposure to a fluid capable of swelling the polymer chains; and selected from the group consisting of polyacrylamide, one of the multivalent Group III-VII metal ions or molecules, methylene bisacrylamide, polyethylene glycol dimethacrylate, phenol-formaldehyde, diallylamine, triallylamine, divinyl sulfonate, diethylene glycol, polyethyleneimine, dichlorophenol, benzoyl peroxide, di-tert-butyl peroxide, dibutyl hydrogen phosphite, and mixtures thereof.
An autonomous driving method, comprising: receiving , by an autonomous driving system, ADS, real-time physiological data of a driver/passenger that is collected by a monitoring device; and degrading , by the ADS, an autonomous driving service that is being executed by an autonomous driving vehicle, when a difference between the real-time physiological data and a health physiological data range is greater than a preset value, and a duration in which the real-time physiological data deviates from the health physiological data range is greater than a first preset duration; and executing , by the ADS, a first driving policy based on the difference and the duration, wherein the health physiological data range is an applicable range added to an operational design domain, ODD, in advance, and the ODD is deployed on the ADS; characterized in that : after the executing, by the ADS, a first driving policy based on the difference and the duration, the method further comprises: sending , by the ADS, an authorization request when the real-time physiological data is not restored to fall within the health physiological data range within a second preset duration; and executing , by the ADS, a second driving policy when the driver/passenger accepts the authorization request. receiving , by an autonomous driving system, ADS, real-time physiological data of a driver/passenger that is collected by a monitoring device; and degrading , by the ADS, an autonomous driving service that is being executed by an autonomous driving vehicle, when a difference between the real-time physiological data and a health physiological data range is greater than a preset value, and a duration in which the real-time physiological data deviates from the health physiological data range is greater than a first preset duration; and executing , by the ADS, a first driving policy based on the difference and the duration, wherein the health physiological data range is an applicable range added to an operational design domain, ODD, in advance, and the ODD is deployed on the ADS; characterized in that : after the executing, by the ADS, a first driving policy based on the difference and the duration, the method further comprises: sending , by the ADS, an authorization request when the real-time physiological data is not restored to fall within the health physiological data range within a second preset duration; and executing , by the ADS, a second driving policy when the driver/passenger accepts the authorization request. sending , by the ADS, an authorization request when the real-time physiological data is not restored to fall within the health physiological data range within a second preset duration; and executing , by the ADS, a second driving policy when the driver/passenger accepts the authorization request.
A protective cap for female- or male-type hydraulic cartridges adapted to be engaged by male- and female-type cartridges, respectively, wherein the mutual engagement of a female-type cartridge and a male-type cartridge results in the possible flow of hydraulic fluid between said female and male cartridges, wherein said protective cap comprises a flange adapted to be arranged in a fixed position with respect to said female- or male-type cartridge, wherein said flange defines an opening so as to allow, in said fixed position, the engagement of said female-type or male-type cartridge by a male-type or female-type cartridge, respectively, wherein said cap comprises a plug which is switchable with respect to said flange between a first closing position, in which said opening is obstructed by said plug , and a second opening position, in which said opening is not obstructed by said plug , wherein said plug is adapted to be switched by rotation between said first closing position and second opening position with respect to a predetermined rotation axis (R-R), characterized in that the switching of said plug from said first closing position to said second opening position results in the automatic locking of said plug in said second opening position, in that the unlocking of said plug results in the automatic switching of said plug from said second opening position to said first closing position, in that said protective cap comprises first elastic means , in that switching by rotation of said plug from said first closing position to said second opening position occurs against the elastic resistance of said first elastic means , in that the automatic switching by rotation of said plug from said second opening position to said first closing position is due to the elastic thrust generated by said first elastic means , in that the protective cap comprises a first engaging and locking element which is rotationally constrained to said flange , in that said plug is adapted to be switched by rotation with respect to said first engaging and locking element , in that said first engaging and locking element is adapted to be switched by translation along a direction substantially parallel to said rotation axis (R-R) of said plug between a first position and a second position of the first engaging and locking element , and in that the switching by rotation of said plug from said first closing position to said second opening position of the plug results in said first engaging and locking element being automatically switched from said first position to said second position of the first engaging and locking element , said plug being automatically locked in said second opening position of the plug .
A cut-off tool comprising: a housing including a motor housing portion and a handle portion extending transversely from the motor housing portion and terminating in a receptacle ; an arbor supported by the housing for relative movement therewith, the arbor rotatable about a rotational axis of the arbor ; a cutting disk attachable to the arbor ; a motor coupled to the arbor to provide torque thereto; a battery pack removably coupled to the housing for providing power to the motor , the battery pack receivable within the receptacle ; a trigger ; a shuttle permitting the user to select either a forward or reverse rotational direction of the motor ; and a combined motor activation/forward-reverse switch connected to the trigger and the shuttle , the switch being operable to adjust rotation of the motor between the forward rotational direction and the reverse rotational direction for selectively rotating the cutting disk in the forward rotational direction or reverse rotational direction, respectively. a housing including a motor housing portion and a handle portion extending transversely from the motor housing portion and terminating in a receptacle ; an arbor supported by the housing for relative movement therewith, the arbor rotatable about a rotational axis of the arbor ; a cutting disk attachable to the arbor ; a motor coupled to the arbor to provide torque thereto; a battery pack removably coupled to the housing for providing power to the motor , the battery pack receivable within the receptacle ; a trigger ; a shuttle permitting the user to select either a forward or reverse rotational direction of the motor ; and a combined motor activation/forward-reverse switch connected to the trigger and the shuttle , the switch being operable to adjust rotation of the motor between the forward rotational direction and the reverse rotational direction for selectively rotating the cutting disk in the forward rotational direction or reverse rotational direction, respectively.
An air cleaner for an internal combustion engine , comprising: a filter dust collection unit including a cylindrical and annular filter element ; and three cylindrical cyclone dust collection units connected in parallel to each other to an upstream side of the filter dust collection unit ; wherein the cyclone dust collection units have central axial lines that are in parallel to one another and to a central axial line of the filter dust collection unit , and are arranged along a circumferential direction of the filter dust collection unit on one side of the filter dust collection unit , the central cyclone dust collection unit having a smaller diameter than the remaining cyclone dust collection units positioned on either side of the central cyclone dust collection unit , and wherein the air cleaner includes a substantially rectangular housing , the substantially rectangular housing comprising a rectangular upper wall and a tubular side wall depending from a rectangular outer edge of the upper wall, the substantially rectangular housing accommodating the filter element and the cylindrical cyclone dust collection units therein, and the filter element is provided with a circular outer profile. a filter dust collection unit including a cylindrical and annular filter element ; and three cylindrical cyclone dust collection units connected in parallel to each other to an upstream side of the filter dust collection unit ; wherein the cyclone dust collection units have central axial lines that are in parallel to one another and to a central axial line of the filter dust collection unit , and are arranged along a circumferential direction of the filter dust collection unit on one side of the filter dust collection unit , the central cyclone dust collection unit having a smaller diameter than the remaining cyclone dust collection units positioned on either side of the central cyclone dust collection unit , and wherein the air cleaner includes a substantially rectangular housing , the substantially rectangular housing comprising a rectangular upper wall and a tubular side wall depending from a rectangular outer edge of the upper wall, the substantially rectangular housing accommodating the filter element and the cylindrical cyclone dust collection units therein, and the filter element is provided with a circular outer profile.