mhurhangee/ep-ind-claims huggingface dataset:
Method for the identifying of a quantity of refuse with at least one marker, characterized by the steps: - providing a plurality of identical markers with information linked thereto for use by a user; - entering the information into a computerized system by the user, wherein the entry for the plurality of markers occurs once; - marking of the quantity of refuse with at least one of the markers by the user; and - initiating a collection of the marked quantity of refuse by a refuse remover, wherein the initiation occurs through a user. - providing a plurality of identical markers with information linked thereto for use by a user; - entering the information into a computerized system by the user, wherein the entry for the plurality of markers occurs once; - marking of the quantity of refuse with at least one of the markers by the user; and - initiating a collection of the marked quantity of refuse by a refuse remover, wherein the initiation occurs through a user.
A computing device, comprising: one or more processors configured to execute instructions that cause the one or more processors to: acquire pressure data measured by at least one pressure sensor disposed proximate to a filter house in an intake of a gas turbine engine system; characterized in that the instructions cause the one or more processors to: derive an airflow or an air mass flow through a duct of the intake using a thermodynamic model of the gas turbine engine system based at least on the pressure data; derive an intake pressure drop in the duct using at least the pressure data; derive a loss parameter of the filter house by combining the air mass or air mass flow, and the intake pressure drop; derive a pressure loss model based on the loss parameter over a period of time; and determine a condition of the filter house based on the pressure loss model. derive an airflow or an air mass flow through a duct of the intake using a thermodynamic model of the gas turbine engine system based at least on the pressure data; derive an intake pressure drop in the duct using at least the pressure data; derive a loss parameter of the filter house by combining the air mass or air mass flow, and the intake pressure drop; derive a pressure loss model based on the loss parameter over a period of time; and determine a condition of the filter house based on the pressure loss model.
A power supply, comprising a housing and at least one electrical connector terminal (30, 32) for connecting primary conductors and/or secondary conductors to the power supply, wherein - the housing has two substantially parallel main surfaces (20, 22) and one peripheral surface, characterized in that - at least one associated lever (34, 36, 42, 44) which is pivotably supported and is actuable from outside the housing is provided to connect the conductors to the connector terminal (30, 32); - the lever (34, 36, 42, 44) is pivotable between a closed position and an open position when the housing is not installed; - the lever (34, 36, 42, 44) cannot be pivoted from the closed position into the open position when the housing is installed at a wall with one of its main surfaces; and - the lever (34, 36, 42, 44) is pivotably supported such that the lever (34, 36, 42, 44) pivots outwardly from the peripheral surface or from the peripheral surface and from a main surface of the housing when the lever (34, 36, 42, 44) is pivoted from the closed position into the open position. - the housing has two substantially parallel main surfaces (20, 22) and one peripheral surface, - at least one associated lever (34, 36, 42, 44) which is pivotably supported and is actuable from outside the housing is provided to connect the conductors to the connector terminal (30, 32); - the lever (34, 36, 42, 44) is pivotable between a closed position and an open position when the housing is not installed; - the lever (34, 36, 42, 44) cannot be pivoted from the closed position into the open position when the housing is installed at a wall with one of its main surfaces; and - the lever (34, 36, 42, 44) is pivotably supported such that the lever (34, 36, 42, 44) pivots outwardly from the peripheral surface or from the peripheral surface and from a main surface of the housing when the lever (34, 36, 42, 44) is pivoted from the closed position into the open position.
A method of bonding together surfaces of two or more elements, whereby at least one of the two or more elements is a mineral wool element, said mineral wool element(s) being bound by a mineral wool binder, the method comprising the steps of: - providing two or more elements, - applying an adhesive to one or more of the surfaces to be bonded together before, during or after contacting the surfaces to be bonded together with each other, - curing the adhesive, wherein the adhesive comprises, - at least one protein, - at least one phenol containing compound, and/or at least one enzyme, wherein the content of the phenol containing compound in the adhesive is from 1 to 70 wt.%, such as 2 to 60 wt.%, such as 3 to 50 wt.%, such as 4 to 40 wt.%, such as 5 to 35 wt.%, based on dry protein basis, wherein the at least one enzyme is selected from the group consisting of transglutaminase (EC 2.3.2.13), protein disulfide isomerase (EC 5.3.4.1), thiol oxidase (EC 1.8.3.2), polyphenol oxidase (EC 1.14.18.1), in particular catechol oxidase, tyrosine oxidase, and phenoloxidase, lysyl oxidase (EC 1.4.3.13), and peroxidase (EC 1.11.1.7). - providing two or more elements, - applying an adhesive to one or more of the surfaces to be bonded together before, during or after contacting the surfaces to be bonded together with each other, - curing the adhesive, wherein the adhesive comprises, - at least one protein, - at least one phenol containing compound, and/or at least one enzyme,
A centrifugal electric pump assembly comprising a pump body, which has a wet section, constituted by a volute and by intake and delivery ducts, a casing containing an electric motor, which faces said pump body, and an electrical box, at the end of said casing that is opposite with respect to said pump body, wherein said centrifugal electric pump assembly comprises a connector for electric power supply, which is shaped so as to be complementary to a tab of said electrical box, said tab having the shape of a parallelepiped, and wherein said centrifugal electric pump assembly has at least one element for fixing said connector to said electrical box, wherein the said tab of said box has at least one first element for monolithic anchoring with said tab and said connector has a corresponding second anchoring element, which is complementary to said first element and monolithic with said connector and characterized in that said first anchoring element is provided with a first hole, which is not necessarily a through hole, and said second anchoring element has a second through hole, said holes (23, 24) being adapted to match up, facing each other, after the assembly of said electric pump, generating a single hole for the insertion of the at least one fixing element. a pump body, which has a wet section, constituted by a volute and by intake and delivery ducts, a casing containing an electric motor, which faces said pump body, and an electrical box, at the end of said casing that is opposite with respect to said pump body, wherein said centrifugal electric pump assembly comprises a connector for electric power supply, which is shaped so as to be complementary to a tab of said electrical box, said tab having the shape of a parallelepiped, and wherein said centrifugal electric pump assembly has at least one element for fixing said connector to said electrical box, wherein the said tab of said box has at least one first element for monolithic anchoring with said tab and said connector has a corresponding second anchoring element, which is complementary to said first element and monolithic with said connector and characterized in that said first anchoring element is provided with a first hole, which is not necessarily a through hole, and said second anchoring element has a second through hole, said holes (23, 24) being adapted to match up, facing each other, after the assembly of said electric pump, generating a single hole for the insertion of the at least one fixing element.
A method for conducting an assay on a nucleic acid sample, comprising: (a) providing a first injector having a zero-dead volume and comprising a first dispersed phase and a first continuous phase, a second injector having a zero-dead volume and comprising a second dispersed phase and a second continuous phase, and a controller, wherein said first injector is in fluid communication with (i) a reservoir for said first dispersed phase and (ii) a reservoir for said first continuous phase, and said second injector is in fluid communication with (i) a reservoir for said second dispersed phase and (ii) a reservoir for said second continuous phase, wherein said first dispersed phase comprises said nucleic acid sample and said second dispersed phase comprises nucleic acid amplification reagents; (b) directing (i) said first dispersed phase and first continuous phase from said first injector to a coalescer, and (ii) said second dispersed phase and second continuous phase from said second injector to said coalescer, wherein said first dispersed phase and said second dispersed phase are coalesced to yield a fluid comprising said nucleic acid sample; (c) directing said fluid from said coalescer to a reactor downstream of said coalescer; (d) in said reactor, inducing a chemical reaction on said nucleic acid sample; and (e) using a detector that is in fluid communication with said reactor to detect said chemical reaction or derivative thereof. (a) providing a first injector having a zero-dead volume and comprising a first dispersed phase and a first continuous phase, a second injector having a zero-dead volume and comprising a second dispersed phase and a second continuous phase, and a controller, wherein said first injector is in fluid communication with (i) a reservoir for said first dispersed phase and (ii) a reservoir for said first continuous phase, and said second injector is in fluid communication with (i) a reservoir for said second dispersed phase and (ii) a reservoir for said second continuous phase, wherein said first dispersed phase comprises said nucleic acid sample and said second dispersed phase comprises nucleic acid amplification reagents; (b) directing (i) said first dispersed phase and first continuous phase from said first injector to a coalescer, and (ii) said second dispersed phase and second continuous phase from said second injector to said coalescer, wherein said first dispersed phase and said second dispersed phase are coalesced to yield a fluid comprising said nucleic acid sample; (c) directing said fluid from said coalescer to a reactor downstream of said coalescer; (d) in said reactor, inducing a chemical reaction on said nucleic acid sample; and (e) using a detector that is in fluid communication with said reactor to detect said chemical reaction or derivative thereof.
A device (10, 20, 30) comprising: a searching unit (12, 22, 32) configured to search a set of specific sequences, comprising a set of root sequences and cyclic shifts thereof, wherein the searching unit is configured to start from a root sequence index indicating a root sequence of ordered root sequences, include available cyclic shifts of the root sequence, and continue with a next root sequence if necessary for filling the set, and the ordered root sequences are obtained by ordering sequences of a predetermined length and number in accordance with cubic metric of each of the sequences and a size of a high mobility cell each of the sequences supports, characterized in that the searching unit is configured to interpret the ordered root sequences in a cyclic manner over a cubic metric boundary and the sequence index 1 is considered to be consecutive to 838. a searching unit (12, 22, 32) configured to search a set of specific sequences, comprising a set of root sequences and cyclic shifts thereof, wherein the searching unit is configured to start from a root sequence index indicating a root sequence of ordered root sequences, include available cyclic shifts of the root sequence, and continue with a next root sequence if necessary for filling the set, and the ordered root sequences are obtained by ordering sequences of a predetermined length and number in accordance with cubic metric of each of the sequences and a size of a high mobility cell each of the sequences supports, characterized in that the searching unit is configured to interpret the ordered root sequences in a cyclic manner over a cubic metric boundary and the sequence index 1 is considered to be consecutive to 838.
A method for invoking a Tele-operated Driving session for a vehicle equipped with an automated driving function, said vehicle being equipped with a number of environment detection sensors (150, 151, 182, 186) and a communication module for communicating to a Control Center computer, the method comprising a step of determining a time-off value for the vehicle in which it needs to wait before a tele-operated driving session may be invoked, corresponding to the current driving situation the vehicle is in, and a step of sending a Tele-operated Driving session request message to said control center computer once the waiting time according to the determined time-off value is over, characterized by said step of determining the time-off value comprises a step of data gathering from the environment detection sensors (150, 151, 182, 186) and/or from external data sources, categorizing said gathered data in categories representing corresponding driving situations of the autonomous vehicle comprising at least one category from a set of categories comprising - the area where the vehicle is located, - weather conditions, - traffic information, - false trigger events, - number of tele-operated driving session requests which were needed in the past, - number of tele-operated driving session requests which were not needed in the past, each category comprising a plurality of elements representing a subdivision of the category, such that a time-off value is assigned to each element of each category, and selecting current elements from the categorized data sets, wherein said step of selecting current elements comprises a step of selecting those values from the categorized data sets which correspond best to the current driving situation and a step of assigning to the current elements respective time-off values, whereby the time-off value for the vehicle is determined based on the time-off values of the selected elements. - the area where the vehicle is located, - weather conditions, - traffic information, - false trigger events, - number of tele-operated driving session requests which were needed in the past, - number of tele-operated driving session requests which were not needed in the past, each category comprising a plurality of elements representing a subdivision of the category, such that a time-off value is assigned to each element of each category, and selecting current elements from the categorized data sets, wherein said step of selecting current elements comprises a step of selecting those values from the categorized data sets which correspond best to the current driving situation and a step of assigning to the current elements respective time-off values, whereby the time-off value for the vehicle is determined based on the time-off values of the selected elements.
A button safety cap for a fluid infusion device: the fluid infusion device comprising a cannula insertion mechanism, the cannula insertion mechanism comprising an insertion mechanism activation button extending from a housing of the fluid infusion device; and the button safety cap characterized in a pull member; at least one stabilizing arm adapted to prevent rotation and/or translation of the button safety cap relative to at least one of the activation button and the fluid delivery device upon which the button safety cap is assembled; and a flexible snap feature adapted to engage the activation button; wherein the snap feature retains the button safety cap on the activation button until a predetermined removal force is applied to the button safety cap; wherein the pull member, the at least one stabilizing arm and the snap feature of the button safety cap are configured as a single molded part; and wherein the single molded part is removable from the fluid infusion device. the fluid infusion device comprising a cannula insertion mechanism, the cannula insertion mechanism comprising an insertion mechanism activation button extending from a housing of the fluid infusion device; and the button safety cap characterized in a pull member; at least one stabilizing arm adapted to prevent rotation and/or translation of the button safety cap relative to at least one of the activation button and the fluid delivery device upon which the button safety cap is assembled; and a flexible snap feature adapted to engage the activation button; a pull member; at least one stabilizing arm adapted to prevent rotation and/or translation of the button safety cap relative to at least one of the activation button and the fluid delivery device upon which the button safety cap is assembled; and a flexible snap feature adapted to engage the activation button; wherein the snap feature retains the button safety cap on the activation button until a predetermined removal force is applied to the button safety cap; wherein the pull member, the at least one stabilizing arm and the snap feature of the button safety cap are configured as a single molded part; and wherein the single molded part is removable from the fluid infusion device.
A method for analyzing substances in a material comprising: a) providing an analyzable sample of a material b) applying one or more forces to the sample, characterized in that applying one or more forces to the sample causes the release of a first gas from the sample wherein the first gas contains an analyzable amount of one or more volatile substances, wherein the one or more forces comprises subjecting the sample to at least one pressure less than 1013 millibar, c) trapping and concentrating a portion of the first gas as a first trappable gas in or with a media in an analyzable amount to form an aliquot, d) releasing the one or more volatile substances from the aliquot as released gasses in a predictable sequence, and e) analyzing the volatile substance chemistry of at least one of the volatile substances to obtain an analysis of the aliquot, characterized in that the at least one pressure is at least 1 millibar. a) providing an analyzable sample of a material b) applying one or more forces to the sample, characterized in that applying one or more forces to the sample causes the release of a first gas from the sample wherein the first gas contains an analyzable amount of one or more volatile substances, wherein the one or more forces comprises subjecting the sample to at least one pressure less than 1013 millibar, c) trapping and concentrating a portion of the first gas as a first trappable gas in or with a media in an analyzable amount to form an aliquot, d) releasing the one or more volatile substances from the aliquot as released gasses in a predictable sequence, and e) analyzing the volatile substance chemistry of at least one of the volatile substances to obtain an analysis of the aliquot,
An end plate for a vehicle including an engine and a housing, the engine being fasten-able to the housing through the end plate, the end plate comprising: an upper end plate; a lower end plate; and a cover that covers a gap between a lower end edge of the upper end plate and an upper end edge of the lower end plate, the cover including a first stepped portion, wherein the first stepped portion is provided on an engine side of the cover, the first stepped portion includes a first flat surface and a second flat surface intersecting with the first flat surface; and the first flat surface is inclined downward with respect to a horizontal plane as the first flat surface is directed toward the engine side. an upper end plate; a lower end plate; and a cover that covers a gap between a lower end edge of the upper end plate and an upper end edge of the lower end plate, the cover including a first stepped portion,
A denture in the form of an arch for restoring a tooth or teeth which are missing on a dental arch of a patient comprising a metal casting comprising a linguoplate, and at least one denture tooth (31', 32') on one side of said arch, wherein said at least one denture tooth is an extension of said linguoplate, Z wherein each of the denture teeth (31', 32') of said denture is a metal denture tooth (31', 32') cast together with the linguoplate, wherein the occlusal surface of each denture tooth (31', 32') is metal, wherein said denture further comprises a resin material (41, 42) bonded to a surface opposite to an occlusal surface of said at least one denture tooth, and the resin material is not bonded to a portion of a surface opposite to a lingual surface of said linguoplate.
Method for coding a sequence of video images, comprising the steps of: - dividing into zones at least one current image of the sequence, - to code at least one target zone of said at least one current image, determining a set of candidate neighborhoods respectively associated with candidate source zones belonging to portions previously coded then decoded of images of the sequence, minimizing a prediction error computed in the neighborhood of the target zone, characterized in that it comprises the steps of: - forming K groups of candidate zones from said candidate source zones, each of the K groups containing similar candidate zones, said K groups being formed by means of a clustering method, - identifying a best group among said K groups, said best group minimizing a reconstruction error with respect to the target zone, - determining an indication (n) representative of said identified best group; and - coding said indication. - dividing into zones at least one current image of the sequence, - to code at least one target zone of said at least one current image, determining a set of candidate neighborhoods respectively associated with candidate source zones belonging to portions previously coded then decoded of images of the sequence, minimizing a prediction error computed in the neighborhood of the target zone, - forming K groups of candidate zones from said candidate source zones, each of the K groups containing similar candidate zones, said K groups being formed by means of a clustering method, - identifying a best group among said K groups, said best group minimizing a reconstruction error with respect to the target zone, - determining an indication (n) representative of said identified best group; and - coding said indication.