mhurhangee/ep-ind-claims huggingface dataset:
A method for producing irregularly shaped concrete surfaces, comprising the steps - providing a formwork element for concrete structures, wherein the formwork element consists of a metallic latticework built from transverse and longitudinal rods and from two flexible shrink-wrap films (4, 5) covering the latticework on both sides, wherein the two shrink-wrap films (4, 5) are connected to one another through the openings of the latticework, wherein the transverse and longitudinal rods of the latticework have a diameter of 1.5 mm to 3.5 mm and the openings of the latticework have a clear width of 50 mm to 120 mm, wherein the clear width is the largest distance that exists between the edges, which face an opening of the latticework, of rods delimiting the openings, - providing a reinforcement surface equipped with spacers, - providing a support device consisting of horizontally and vertically arranged support elements, - bending the formwork element into the desired shape for the concrete surface to be concreted, - fastening the reinforcement on the support device, wherein spacers made from a non-corroding material are arranged between reinforcement and support device, - positioning the formwork element on the spacers, - fastening the formwork element on the reinforcement, - applying shotcrete from the reinforcement side. - providing a formwork element for concrete structures, wherein the formwork element consists of a metallic latticework built from transverse and longitudinal rods and from two flexible shrink-wrap films (4, 5) covering the latticework on both sides, wherein the two shrink-wrap films (4, 5) are connected to one another through the openings of the latticework, wherein the transverse and longitudinal rods of the latticework have a diameter of 1.5 mm to 3.5 mm and the openings of the latticework have a clear width of 50 mm to 120 mm, wherein the clear width is the largest distance that exists between the edges, which face an opening of the latticework, of rods delimiting the openings, - providing a reinforcement surface equipped with spacers, - providing a support device consisting of horizontally and vertically arranged support elements, - bending the formwork element into the desired shape for the concrete surface to be concreted, - fastening the reinforcement on the support device, wherein spacers made from a non-corroding material are arranged between reinforcement and support device, - positioning the formwork element on the spacers, - fastening the formwork element on the reinforcement, - applying shotcrete from the reinforcement side.
A method for updating zoning information, the method comprising: receiving a message from an initiator in a fibre channel storage area network; identifying one or more zones (211 - 217) including the initiator, the one or more zones (211 - 217) identified using zoning information associated with a fibre channel switch, wherein the one or more zones (211 - 217) indicate one or more fibre channel storage area network devices that the initiator is allowed to access; detecting a fibre channel storage area network event by snooping messages transmitted between initiators and a particular fibre channel storage area network device, wherein the fibre channel storage area network event is an arbitration process used to determine which of the initiators is allowed access to the particular fibre channel storage area network device; determining which of the initiators is selected by the arbitration process; automatically assigning the selected initiator to a zone with the particular fibre channel storage area network device and excluding the other initiator from the zone with the particular fibre channel storage area network device; updating zoning information associated with the fibre channel switch; and propagating an updated zone through the fibre channel storage area network to control access to one or more fibre channel storage area network devices within the updated zone. receiving a message from an initiator in a fibre channel storage area network; identifying one or more zones (211 - 217) including the initiator, the one or more zones (211 - 217) identified using zoning information associated with a fibre channel switch, wherein the one or more zones (211 - 217) indicate one or more fibre channel storage area network devices that the initiator is allowed to access; detecting a fibre channel storage area network event by snooping messages transmitted between initiators and a particular fibre channel storage area network device, wherein the fibre channel storage area network event is an arbitration process used to determine which of the initiators is allowed access to the particular fibre channel storage area network device; determining which of the initiators is selected by the arbitration process; automatically assigning the selected initiator to a zone with the particular fibre channel storage area network device and excluding the other initiator from the zone with the particular fibre channel storage area network device; updating zoning information associated with the fibre channel switch; and propagating an updated zone through the fibre channel storage area network to control access to one or more fibre channel storage area network devices within the updated zone.
A refractive index sensor (100, 400, 800) for analysing an analyte, the sensor (100, 400) comprising: a strip waveguide for receiving an input light signal therein and transmitting the light signal, subject to variation as it propagates through the strip waveguide, to a detector for analysis with respect to the analyte; and a slot waveguide for sensing the analyte disposed thereon and for receiving from the strip waveguide a light signal for sensing corresponding to said variation of the light signal as it propagates in the strip waveguide, a grating formed on a surface of the strip waveguide to enable coupling of the light signal from the strip waveguide to the slot waveguide, to be the light signal for sensing, and whereby the sensitivity of the sensor (100, 400, 800) is either proportional to the sensitivity difference between the strip waveguide and the slot waveguide and/or is inversely proportional to the group index difference between the strip waveguide and the slot waveguide. a strip waveguide for receiving an input light signal therein and transmitting the light signal, subject to variation as it propagates through the strip waveguide, to a detector for analysis with respect to the analyte; and a slot waveguide for sensing the analyte disposed thereon and for receiving from the strip waveguide a light signal for sensing corresponding to said variation of the light signal as it propagates in the strip waveguide, a grating formed on a surface of the strip waveguide to enable coupling of the light signal from the strip waveguide to the slot waveguide, to be the light signal for sensing, and whereby the sensitivity of the sensor (100, 400, 800) is either proportional to the sensitivity difference between the strip waveguide and the slot waveguide and/or is inversely proportional to the group index difference between the strip waveguide and the slot waveguide.
A system, comprising: a memory storing computer executable components; a processor, operably coupled to the memory, and configured to execute the computer executable components stored in the memory; and one or more sensors located on an aircraft configured to monitor a wing and a flight control surface from one or more vantage points to obtain full coverage of the wing; wherein the computer executable components comprise: a machine vision component configured to assess a condition of the wing and the flight control surface based on sensor data from the one or more sensors; characterized in that the system further comprises a spectrographic component positioned on a downstream of the wing and configured to monitor airflow for traces of fuel or hydraulic fluid. a memory storing computer executable components; a processor, operably coupled to the memory, and configured to execute the computer executable components stored in the memory; and one or more sensors located on an aircraft configured to monitor a wing and a flight control surface from one or more vantage points to obtain full coverage of the wing; wherein the computer executable components comprise: a machine vision component configured to assess a condition of the wing and the flight control surface based on sensor data from the one or more sensors; characterized in that the system further comprises a spectrographic component positioned on a downstream of the wing and configured to monitor airflow for traces of fuel or hydraulic fluid.
A method to determine the loading of a rotor blade of a wind power installation, comprising: recording an oscillation signal obtained by means of at least one oscillation sensor (12, 13, 14, 15) which is attached to a rotor blade of a wind power installation; spectrally evaluating the oscillation signal; and comparing the spectrally evaluated oscillation signal to a reference spectrum, characterized in that the oscillation signal is evaluated as a function of frequency as a spectral power density by performing a logarithmic plot of an amplitude of an acceleration as a function of the frequency. recording an oscillation signal obtained by means of at least one oscillation sensor (12, 13, 14, 15) which is attached to a rotor blade of a wind power installation; spectrally evaluating the oscillation signal; and comparing the spectrally evaluated oscillation signal to a reference spectrum, characterized in that the oscillation signal is evaluated as a function of frequency as a spectral power density by performing a logarithmic plot of an amplitude of an acceleration as a function of the frequency.
Metamaterial structure comprising at least one elementary block comprising a support made of dielectric material, said support comprising an upper face and a lower face, characterized in that said at least one elementary block comprises a first electrically conductive unit placed on the upper face of the support and comprising: - a first C-shaped conductive element comprising first and second ends (E1, E2); - a second C-shaped conductive element comprising third and fourth ends (E3, E4), said first and second conductive elements being laid out relative to each other in such a way that the first and third ends face each other and are separated by a first space, and the second and fourth ends face each other and are separated by a second space; - a first connector (623, 1323) configured to connect the first end to the fourth end. - a first C-shaped conductive element comprising first and second ends (E1, E2); - a second C-shaped conductive element comprising third and fourth ends (E3, E4), said first and second conductive elements being laid out relative to each other in such a way that the first and third ends face each other and are separated by a first space, and the second and fourth ends face each other and are separated by a second space; - a first connector (623, 1323) configured to connect the first end to the fourth end.
A method executed by a digital signal processing system coupled to a detection database of a media monitoring system for detecting at least two instances of a same program in a broadcast signal where said program is not yet registered in said detection database, said method comprising: detecting by means of analyzing the signal using a computer whether there is a first instance of a not yet registered program in said detection database in a time period of the signal where the media monitoring system has not otherwise detected any registered programming content in said time period; detecting that said not yet registered program is repeated as at least one matching instance of said program in said time period of the signal within a predetermined period of time from said first instance; and determining from the detected repetition of the instances of the program an indication of the presence of an individually identifiable piece of programming content in the broadcast signal. determining a first location in time and its corresponding stop time for the first instance of the not yet registered program; determining a second location in time and its corresponding stop time for a second instance of the not yet registered program; and storing, in the detection database, the first location in time and its corresponding stop time, the second location in time and its corresponding stop time, a set of pattern vectors of each clip and indicia of identity associated with the one of said detected instances of the program selected to be registered. detecting by means of analyzing the signal using a computer whether there is a first instance of a not yet registered program in said detection database in a time period of the signal where the media monitoring system has not otherwise detected any registered programming content in said time period; detecting that said not yet registered program is repeated as at least one matching instance of said program in said time period of the signal within a predetermined period of time from said first instance; and determining from the detected repetition of the instances of the program an indication of the presence of an individually identifiable piece of programming content in the broadcast signal. determining a first location in time and its corresponding stop time for the first instance of the not yet registered program; determining a second location in time and its corresponding stop time for a second instance of the not yet registered program; and storing, in the detection database, the first location in time and its corresponding stop time, the second location in time and its corresponding stop time, a set of pattern vectors of each clip and indicia of identity associated with the one of said detected instances of the program selected to be registered.
A peptide enhancing neuronal outgrowth, consisting of the sequence selected from the group consisting of NAIPQ (SEQ ID NO: 1), NPSPQ (SEQ ID NO: 2), NFEPQ (SEQ ID NO: 4), NMYPQ (SEQ ID NO: 5), NIKPQ (SEQ ID NO: 6), NLMPQ (SEQ ID NO: 7), NVAPQ (SEQ ID NO: 8), and NWLPQ (SEQ ID NO: 9).
A light device of a vehicle, comprising: a light emitting diode module emitting light; and a light guide plate having a first side and having a second side, substantially perpendicular to the first side, the light guide plate has a plane shape, the light guide plate including at least one concave portion, wherein the light guide plate is formed in a horseshoe shape having a predetermined width, wherein an internal side of the horseshoe shape is defined by the first side, wherein the incident light is emitted from the second side, characterized in that the concave portion is formed by the first side, the light emitting diode module is installed on the concave portion, and light emitted from the light emitting diode module is incident on the first side. a light emitting diode module emitting light; and a light guide plate having a first side and having a second side, substantially perpendicular to the first side, the light guide plate has a plane shape, the light guide plate including at least one concave portion, wherein the light guide plate is formed in a horseshoe shape having a predetermined width, wherein an internal side of the horseshoe shape is defined by the first side, wherein the incident light is emitted from the second side, characterized in that the concave portion is formed by the first side, the light emitting diode module is installed on the concave portion, and light emitted from the light emitting diode module is incident on the first side.
The stacked-plate heat exchanger, in particular the charge-air cooler, has several oblong plates (1-3; 21- 23; 51-53), which are stacked on each other and which are connected, i.e. soldered, with each other, and which limit a hollow space, which is in the longitudinal direction of plates, for feeding a medium to be cooled such as charge air and another hollow space for feeding a coolant, wherein the plates (1-3; 21-23; 51-53) have one inlet connection and one outlet connection for the medium to be cooled, is characterised in that at least one coolant connection (14-16; 34-36; 44-46) partially extends around a connection (12, 13; 32, 33) for the medium to be cooled, - where at least one coolant inlet connection (14-16; 34-36; 44-46) partially extends around the outlet connection (12, 13; 32, 33) for the medium to be cooled, - where the inlet connection (12; 32) and/or the outlet connection (13; 33) for the medium to be cooled is/are formed by a through hole via the plate and this hole primarily has a design of a semi-circular ring plate or an arc-shaped bent oblong hole, - where an additional coolant inlet connection (41,42) and/or a coolant outlet connection (42,41) is/are provided in the area of the centre of the semi-circular ring plate or the arc-shaped oblong hole that forms the outlet connection or the inlet connection for the medium to be cooled. - where at least one coolant inlet connection (14-16; 34-36; 44-46) partially extends around the outlet connection (12, 13; 32, 33) for the medium to be cooled, - where the inlet connection (12; 32) and/or the outlet connection (13; 33) for the medium to be cooled is/are formed by a through hole via the plate and this hole primarily has a design of a semi-circular ring plate or an arc-shaped bent oblong hole, - where an additional coolant inlet connection (41,42) and/or a coolant outlet connection (42,41) is/are provided in the area of the centre of the semi-circular ring plate or the arc-shaped oblong hole that forms the outlet connection or the inlet connection for the medium to be cooled.
A method of utilizing a stranded natural gas, comprising: providing a stranded natural gas resource; providing a material oxide; transferring energy in the stranded natural gas resource to a high energy density material by reducing the material oxide to the high energy density material using a stranded natural gas reduction process at the stranded natural gas reduction process location, and transporting the high energy density material to a country or region that is primarily an importer or consumer of energy from the stranded natural gas reduction process location, wherein the high energy density material is a material having a combined energy density greater than 1.0 mega-joules squared per liter per kilogram divided by 1,000 (MJ 2 /kg/L/1000), and wherein the material oxide is an oxide of the high energy density material in a solid form. providing a stranded natural gas resource; providing a material oxide; transferring energy in the stranded natural gas resource to a high energy density material by reducing the material oxide to the high energy density material using a stranded natural gas reduction process at the stranded natural gas reduction process location, and transporting the high energy density material to a country or region that is primarily an importer or consumer of energy from the stranded natural gas reduction process location, wherein the high energy density material is a material having a combined energy density greater than 1.0 mega-joules squared per liter per kilogram divided by 1,000 (MJ 2 /kg/L/1000), and wherein the material oxide is an oxide of the high energy density material in a solid form.
An emissions test apparatus comprising: a filter housing having at least one of a first RFID tag and a first bar code identifying said filter housing; a filter medium selectively disposed within said filter housing and including at least one of a second RFID tag and a second bar code identifying said filter medium; and a controller configured to link said filter housing and said filter medium based on information provided by said at least one of said first RFID tag and said first bar code and said at least one of said second RFID tag and said second bar code, wherein said emissions test apparatus further includes a test fixture selectively connected to said filter housing to selectively expose said filter housing and said filter medium to a fluid stream of exhaust gas produced by an engine mixed with ambient air, said filter housing including a first fitting disposed at a first end and a second fitting disposed at a second end, wherein said first fitting and said second fitting selectively connect said filter housing to said test fixture, said filter housing including a third bar code identifying said filter housing and said test fixture including a fourth bar code identifying said fluid stream, wherein said controller is configured to link said filter housing to said test fixture based on information provided by said third bar code and said fourth bar code. a filter housing having at least one of a first RFID tag and a first bar code identifying said filter housing; a filter medium selectively disposed within said filter housing and including at least one of a second RFID tag and a second bar code identifying said filter medium; and a controller configured to link said filter housing and said filter medium based on information provided by said at least one of said first RFID tag and said first bar code and said at least one of said second RFID tag and said second bar code, wherein said emissions test apparatus further includes a test fixture selectively connected to said filter housing to selectively expose said filter housing and said filter medium to a fluid stream of exhaust gas produced by an engine mixed with ambient air, said filter housing including a first fitting disposed at a first end and a second fitting disposed at a second end, wherein said first fitting and said second fitting selectively connect said filter housing to said test fixture, said filter housing including a third bar code identifying said filter housing and said test fixture including a fourth bar code identifying said fluid stream, wherein said controller is configured to link said filter housing to said test fixture based on information provided by said third bar code and said fourth bar code.
Smart fit dosage mechanism with devices adaptable to a solid particle dispenser having a body and a drive shaft, wherein the mechanism comprises a reducer device combined with a propeller device and a stabilizer device, wherein the reducer device has an external diameter proportional to the internal dimension of the body of the dispenser; so that the size and the shape of the reducer device to be coupled to the dispenser follow the diameter and the internal format of the body of the dispenser; the smart fit dosage mechanism comprising: - the propeller device connected to the drive shaft of the dispenser, - the reducer device coupled to an internal part of the body of the dispenser around to said propeller device in order to reduce the space between the propeller device and the body of the dispenser, and - the stabilizer device characterised by the stabilizer device disposed into the propeller device fixed to a nozzle and disposed into the propeller device to stabilize the flow of the product dosed. - the propeller device connected to the drive shaft of the dispenser, - the reducer device coupled to an internal part of the body of the dispenser around to said propeller device in order to reduce the space between the propeller device and the body of the dispenser, and - the stabilizer device characterised by the stabilizer device disposed into the propeller device fixed to a nozzle and disposed into the propeller device to stabilize the flow of the product dosed.