mhurhangee/ep-ind-claims huggingface dataset:
A fastener system for securing a component to a structure, comprising: a pin portion having a head and a shaft; and a clip portion having a head engagement flange and a retainer flange configured to receive a fastener that extends along a first axis; wherein the clip portion and the pin portion are configured for engagement with one another in an engaged position, and in the engaged position the pin portion shaft extends along a second axis non-parallel to the first axis; wherein the clip portion further includes a connecting member with a first lengthwise end and a distal second lengthwise end, and the head engagement flange is attached to the connecting member adjacent the first lengthwise end and the retainer flange is attached to the connecting member adjacent the second lengthwise end, wherein the head engagement flange extends outwardly lateral from the connecting member, and the retainer flange extends outwardly lateral from the connecting member. a pin portion having a head and a shaft; and a clip portion having a head engagement flange and a retainer flange configured to receive a fastener that extends along a first axis; wherein the clip portion and the pin portion are configured for engagement with one another in an engaged position, and in the engaged position the pin portion shaft extends along a second axis non-parallel to the first axis; wherein the clip portion further includes a connecting member with a first lengthwise end and a distal second lengthwise end, and the head engagement flange is attached to the connecting member adjacent the first lengthwise end and the retainer flange is attached to the connecting member adjacent the second lengthwise end, wherein the head engagement flange extends outwardly lateral from the connecting member, and the retainer flange extends outwardly lateral from the connecting member.
Folding table for attachment to the rear side of a vehicle seat part, such as a backrest (1a, 10a, 110a), head support (1b, 10b, 110b) or head support mounting (1c, 10b, 110c) of a vehicle seat (1, 10, 110), comprising a fastening device (2a, 2b, 2c, 2d, 20a, 20b, 20c, 20d, 120a, 120b, 120c, 120d) for fastening the folding table to the vehicle seat part (1a, 1b, 1c, 10a, 10b, 10c, 110a, 110b, 110c), a carrier element (4, 40, 140) which is connected to the fastening device (2a, 2b, 2c, 2d, 20a, 20b, 20c, 20d, 120a, 120b, 120c, 120d) and extends downward from the fastening device (2a, 2b, 2c, 2d, 20a, 20b, 20c, 20d, 120a, 120b, 120c, 120d), a tabletop (6, 60, 160) rotatably connected to the carrier element (4, 40, 140) via a first joint (5, 50, 50', 50", 150', 150", 150a, 150b', 150b", 150c, 150d) at the lower end (4d, 40d, 140d) of the carrier element (4, 40, 140), which can be pivoted between a non-working position, in which the tabletop (6, 60, 160) is aligned approximately parallel with the carrier element (4, 40, 140), and a working position, in which the tabletop (6, 60, 160) is at an angle of approx. 80° to 120° to the carrier element (4, 40, 140), wherein the carrier element (4, 40, 140) is connected to the fastening device (2a, 2b, 2c, 2d, 20a, 20b, 20c, 20d, 120a, 120b, 120c, 120d) via a second joint (3, 30, 130), whose axis of rotation extends parallel with the axis of rotation of the first joint (5, 50, 50', 50", 150', 150", 150a, 150b', 150b", 150c, 150d), and wherein propping elements (7e, 7f, 70e', 70e", 170e', 170e") are arranged on the tabletop (6, 60, 160) symmetrically with respect to the center of the rear end face of the tabletop (6, 60, 160) which, when the tabletop (6, 60, 160) is in the working position, can be moved in the direction toward the vehicle seat part (1, 10, 110) by a common actuating member (7a, 7d, 7b', 7b", 70a, 70b', 70b", 70d, 170a, 170e', 170e", 170d) and can be fixed in different positions by a manually releasable latching device (6h, 7b, 7c, 70b, 160h, 170i, 170b), so that the tabletop (6, 60, 160) can be aligned in a horizontal position and is supported on the vehicle seat part (1a, 1b, 1c, 10a, 10b, 10c, 110a, 110b, 110c) against loads.
Mosaic tessera comprising a substrate of plastic material having a visible face that has been submitted to a process of digital printing to print desired images thereon and covered with a coating layer of transparent material, said coating layer having a fire resistance at least of CLASS B according to standard EN ISO 11925, a hardness between 30 and 80 Shore D that imparts abrasion resistance and a transmittance to radiation with wavelength between 400 and 800 nm equal to at least 80%, said coating layer being moreover produced from a formulation comprising: - from 10 to 30 parts of monomeric aliphatic isocyanate, - from 30 to 60 parts of polyol, - from 10 to 30 parts of diol, - from 0.5 to 3 parts of nano-additive for abrasion resistance, selected from the group consisting of SiO 2, Al 2 O 3 and mixtures thereof, - from 1 to 3 parts of nano-additive for flame resistance, selected from the group consisting of Al 3, nano-clays and mixtures thereof, and - from 5 to 25 parts of aliphatic or aryl-aliphatic phosphorus-based plasticizer, where the term "nano-additive" means an additive present in the form of particles, whose diameter or equivalent diameter is between 5 and 100 nm. - from 10 to 30 parts of monomeric aliphatic isocyanate, - from 30 to 60 parts of polyol, - from 10 to 30 parts of diol, - from 0.5 to 3 parts of nano-additive for abrasion resistance, selected from the group consisting of SiO 2, Al 2 O 3 and mixtures thereof, - from 1 to 3 parts of nano-additive for flame resistance, selected from the group consisting of Al 3, nano-clays and mixtures thereof, and - from 5 to 25 parts of aliphatic or aryl-aliphatic phosphorus-based plasticizer, where the term "nano-additive" means an additive present in the form of particles, whose diameter or equivalent diameter is between 5 and 100 nm.
A system comprising one or more computers and one or more storage devices on which are stored instructions that are operable, when executed by the one or more computers, to cause the one or more computers to perform operations comprising: receiving, from a near infrared spectrometer, molecular content data that indicates a molecular content of a portion of a batch of sludge; determining, by a machine learning module included in the system using the molecular content data and multiple parameters of the machine learning module, a predicted value for a property of the portion of the batch of sludge; determining, using the predicted value and current weather conditions at at least one potential destination and/or predicted weather conditions at the at least one potential destination, a recommended potential use for the batch of sludge; and providing the predicted value for the property of the portion of the batch of sludge. receiving, from a near infrared spectrometer, molecular content data that indicates a molecular content of a portion of a batch of sludge; determining, by a machine learning module included in the system using the molecular content data and multiple parameters of the machine learning module, a predicted value for a property of the portion of the batch of sludge; determining, using the predicted value and current weather conditions at at least one potential destination and/or predicted weather conditions at the at least one potential destination, a recommended potential use for the batch of sludge; and providing the predicted value for the property of the portion of the batch of sludge.
A method for processing seismic data, comprising: • receiving a plurality of seismic traces representing a subterranean domain; • receiving an implicit stratigraphic model - of at least a portion of the subterranean domain; • selecting an iso-value in the implicit stratigraphic model; • defining, using a processor, a geologically-consistent interval in the implicit stratigraphic model based at least partially on a position of the iso-value in the implicit stratigraphic model; • calculating one or more attributes of the plurality of seismic traces in the interval; and • constructing one or more stratigraphic traces oriented perpendicularto or along a gradient of a stratigraphic function on which the implicit stratigraphic model is based, wherein the one or more stratigraphic traces are constructed based on one or more of the plurality of seismic traces, and wherein the one or more attributes are calculated based on the one or more stratigraphic traces, said constructing comprises: o determining that a first seismic trace of the plurality of seismic traces and a second seismic trace of the plurality of seismic traces intersect a discontinuity; and ∘ in response, bridging the discontinuity by constructing the one or more stratigraphic traces from a combination of the first and second seismic traces, wherein the first and second seismic traces have different trajectories. • receiving a plurality of seismic traces representing a subterranean domain; • receiving an implicit stratigraphic model - of at least a portion of the subterranean domain; • selecting an iso-value in the implicit stratigraphic model; • defining, using a processor, a geologically-consistent interval in the implicit stratigraphic model based at least partially on a position of the iso-value in the implicit stratigraphic model; • calculating one or more attributes of the plurality of seismic traces in the interval; and • constructing one or more stratigraphic traces oriented perpendicularto or along a gradient of a stratigraphic function on which the implicit stratigraphic model is based, wherein the one or more stratigraphic traces are constructed based on one or more of the plurality of seismic traces, and wherein the one or more attributes are calculated based on the one or more stratigraphic traces, said constructing comprises: o determining that a first seismic trace of the plurality of seismic traces and a second seismic trace of the plurality of seismic traces intersect a discontinuity; and ∘ in response, bridging the discontinuity by constructing the one or more stratigraphic traces from a combination of the first and second seismic traces, wherein the first and second seismic traces have different trajectories. o determining that a first seismic trace of the plurality of seismic traces and a second seismic trace of the plurality of seismic traces intersect a discontinuity; and ∘ in response, bridging the discontinuity by constructing the one or more stratigraphic traces from a combination of the first and second seismic traces, wherein the first and second seismic traces have different trajectories.
A self-illuminating pavement marker, comprising: a light source capable of emitting light, the light source conductively coupled to a rechargeable electrical power source; a solar energy system capable of collecting solar energy and converting the solar energy into electrical energy, the solar energy system including a solar cell and being conductively coupled to the rechargeable electrical power source such that the solar energy collected and converted into electrical energy recharges the rechargeable electrical power source; an optical fiber capable of propagating the light emitted by the light source within the pavement marker by means of total internal reflection, wherein the optical fiber has a light emitting region comprising a wall of the optical fiber and includes a plurality of optical elements comprising optical quality reflecting surfaces that are arranged such that a portion of the light propagated through the optical fiber and impinging upon the reflecting surfaces of the optical element is reflected across the optical fiber and through the wall of the light emitting region; and a housing including the light source, the solar energy system, and the optical fiber, at least a portion of the housing being transparent such that ambient light can pass through the transparent portion of the housing and charge the solar cell and out of which the light emitted by the light source can propagate. a light source capable of emitting light, the light source conductively coupled to a rechargeable electrical power source; a solar energy system capable of collecting solar energy and converting the solar energy into electrical energy, the solar energy system including a solar cell and being conductively coupled to the rechargeable electrical power source such that the solar energy collected and converted into electrical energy recharges the rechargeable electrical power source; an optical fiber capable of propagating the light emitted by the light source within the pavement marker by means of total internal reflection, wherein the optical fiber has a light emitting region comprising a wall of the optical fiber and includes a plurality of optical elements comprising optical quality reflecting surfaces that are arranged such that a portion of the light propagated through the optical fiber and impinging upon the reflecting surfaces of the optical element is reflected across the optical fiber and through the wall of the light emitting region; and a housing including the light source, the solar energy system, and the optical fiber, at least a portion of the housing being transparent such that ambient light can pass through the transparent portion of the housing and charge the solar cell and out of which the light emitted by the light source can propagate.
A method for wireless communication, comprising: receiving an indication of a set of resources allocated for downlink transmissions; identifying a first portion of a system bandwidth allocated for broadcast or multicast data transmissions on the set of resources from one or more base stations in a single frequency network, SFN, the first portion of the system bandwidth being frequency division multiplexed with a second portion of the system bandwidth allocated for mobile broadband, MBB, transmissions on the set of resources; receiving broadcast or multicast data on the first portion of the system bandwidth on the set of resources based at least in part on the identifying; identifying a reassignment of a portion of the set of resources during a time interval for another type of communications; and receiving data in a subsequent time interval based at least in part on the reassignment, wherein the data received in the subsequent time interval comprises a portion for the broadcast or multicast data punctured by the other type of communications. receiving an indication of a set of resources allocated for downlink transmissions; identifying a first portion of a system bandwidth allocated for broadcast or multicast data transmissions on the set of resources from one or more base stations in a single frequency network, SFN, the first portion of the system bandwidth being frequency division multiplexed with a second portion of the system bandwidth allocated for mobile broadband, MBB, transmissions on the set of resources; receiving broadcast or multicast data on the first portion of the system bandwidth on the set of resources based at least in part on the identifying; identifying a reassignment of a portion of the set of resources during a time interval for another type of communications; and receiving data in a subsequent time interval based at least in part on the reassignment, wherein the data received in the subsequent time interval comprises a portion for the broadcast or multicast data punctured by the other type of communications.
A Mycobacterium smegmatis -derived O-phosphoserine sulfhydrylase (OPSS) mutant, consisting of the same amino acid sequence as that of SEQ ID NO: 1, except for the deletion of the last three to seven C-terminal amino acid residues of a wild-type OPSS amino acid sequence of SEQ ID NO:1.
A method of cooling electrical componentry comprising immersing the electrical componentry in a bath comprising a dielectric oleaginous heat transfer fluid having a kinematic viscosity measured at 100°C of 0.7 to 7.0 cSt as measured according to ASTM D445_100, and a flash point of at least 50 °C as measured according to ASTM D56, and operating the electrical componentry.
A catheter comprising: an elongate catheter shaft assembly including an inner shaft member having a distal end and a proximal end, and an outer shaft member having a distal end, a proximal end, and a lumen between the distal end and the proximal end thereof, the inner shaft member being inserted into the lumen of the outer shaft member along a longitudinal direction of the elongate catheter shaft assembly, wherein the inner shaft member includes at the distal end thereof a catheter tip electrode having a lateral dimension that is larger than a lateral dimension of the lumen of the outer shaft member, and wherein the catheter tip electrode includes at least one electrically active element, and wherein a non-zero spacing between the distal end of the inner shaft member and the distal end of the outer shaft member provides a fluid flow path between an interior of the elongate catheter shaft assembly and an exterior of the elongate catheter shaft assembly characterized in that the catheter and the fluid flow path are configured for irrigation of the catheter tip electrode. an elongate catheter shaft assembly including an inner shaft member having a distal end and a proximal end, and an outer shaft member having a distal end, a proximal end, and a lumen between the distal end and the proximal end thereof, the inner shaft member being inserted into the lumen of the outer shaft member along a longitudinal direction of the elongate catheter shaft assembly, wherein the inner shaft member includes at the distal end thereof a catheter tip electrode having a lateral dimension that is larger than a lateral dimension of the lumen of the outer shaft member, and wherein the catheter tip electrode includes at least one electrically active element, and wherein a non-zero spacing between the distal end of the inner shaft member and the distal end of the outer shaft member provides a fluid flow path between an interior of the elongate catheter shaft assembly and an exterior of the elongate catheter shaft assembly characterized in that the catheter and the fluid flow path are configured for irrigation of the catheter tip electrode.
An energy supplying device intended to be used for energy collecting, energy transfer and energy release, but also for cooling and storing of energy, said energy supplying device consists of at least three elongated profiles, which comprise a number of walls (2', 2") delimiting in the same elongated cavities, produced by extruding in a direction of extrusion by aid of a tool, said cavities provide space for a medium such as gas or liquid to circulate or to be stored in said cavities or a hose or a tube located in these, the profiles are cut off in predetermined lengths straight across the direction of extrusion in a pre-selected angle, said lengths are connectable to each other end against end and are extending in predetermined directions at the same time as the connected profiles comprise an end profile, which is connected to the end of a first profile in providing of a closed circuit of profiles by connecting of all ends of each profile against each other, characterized in that the ends of the profiles are cut off in a zig-zag line, which is saw teeth or sinus formed to be able to be fixed at the connection end against end in a direction straight across the extrusion direction at the same time as the ends can be fixed and closely connected to each other by e.g. gluing, screwing, snapping or welding, the energy supplying device further comprising an inlet and an outlet, intended to be used during filling up or emptying or circulation of the medium.
Control system for a motor vehicle, having a first control unit for controlling a first function of the motor vehicle and a second control unit for controlling a second function of the motor vehicle, the first and second control units (2, 4) each being connected in a signal-transmitting manner to at least one sensor and/or at least one actuator (6, 8), and wherein the first control unit and the second control unit are connected in a signal-transmitting manner or the first and the second control units (2, 4) are each connected in a signal-transmitting manner to a third control unit and, depending on the input of an error signal from the first control unit or the second control unit at the respective error-free control unit (2; 4) or the third control unit, the respective fault-free control unit (2; 4) can be configured in such a way that the function of the motor vehicle corresponding to the faulty control unit (4; 2) can be controlled by means of the fault-free control unit (2; 4), wherein the fault-free control unit (2; 4) can be connected in a signal-transmitting manner to the at least one sensor and/or at least one actuator (8; 6) corresponding to the faulty control unit (4; 2), characterized in that the control system features an operating interface and can be transferred from a deactivation state to an activation state depending on the presence of an activation signal at the operating interface, wherein the fault-free control unit (2; 4) in the deactivation state does not control the function of the motor vehicle corresponding to the faulty control unit (4; 2) irrespective of the input of the error signal at the fault-free control unit (2; 4) or the third control unit and, in the activation state of the control system, controls the function of the motor vehicle corresponding to the faulty control unit (4; 2) depending on the input of the error signal at the fault-free control unit (2; 4) or the third control unit.
A method for preparing a biological sample, comprising the steps of obtaining a biological tissue sample via tissue laser-capture microdissection; providing a platform (100, 200) including at least one reactor vessel (400, 410, 420) having one or more hydrophilic surfaces configured for containment of the biological tissue sample, wherein the hydrophilic surfaces have a non-zero, total surface area less than 25 mm 2; introducing a capture liquid into or onto the at least one reactor vessel, wherein the capture liquid has a vapor pressure of less than or equal to 0.8 mbar at room temperature; transferring a first volume of the biological tissue sample to the at least one reactor vessel that includes the capture liquid, wherein the first volume is a non-zero amount less than 1000 nL; fully or partly evaporating the capture liquid after transferring the first volume of the biological tissue sample to the at least one reactor vessel; subsequently processing the biological tissue sample in the at least one reactor vessel to yield a processed sample, and collecting a second volume of the processed sample. obtaining a biological tissue sample via tissue laser-capture microdissection; providing a platform (100, 200) including at least one reactor vessel (400, 410, 420) having one or more hydrophilic surfaces configured for containment of the biological tissue sample, wherein the hydrophilic surfaces have a non-zero, total surface area less than 25 mm 2; introducing a capture liquid into or onto the at least one reactor vessel, wherein the capture liquid has a vapor pressure of less than or equal to 0.8 mbar at room temperature; transferring a first volume of the biological tissue sample to the at least one reactor vessel that includes the capture liquid, wherein the first volume is a non-zero amount less than 1000 nL; fully or partly evaporating the capture liquid after transferring the first volume of the biological tissue sample to the at least one reactor vessel; subsequently processing the biological tissue sample in the at least one reactor vessel to yield a processed sample, and collecting a second volume of the processed sample.