mhurhangee/ep-ind-claims huggingface dataset:
Pendulum device comprising at least one oscillating mass, at least one proximal arm and at least one first distal arm, said proximal arm being fixed to said oscillating mass at one end and being rotatably connected to the distal arm at the other end, so that said oscillating mass can oscillate with respect to said distal arm, the distal arm being rotatably fixed to a support element fixed through a fulcrum point, transmission means being included between the distal arm and the proximal arm, which transmission means are configured so that oscillation of said mass causes the rotation of the distal arm around the fulcrum point, characterized in that said transmission means are configured so that at least one point of said proximal arm performs at least a linear translation, said mass performing a cycloidal trajectory. said proximal arm being fixed to said oscillating mass at one end and being rotatably connected to the distal arm at the other end, so that said oscillating mass can oscillate with respect to said distal arm, the distal arm being rotatably fixed to a support element fixed through a fulcrum point, transmission means being included between the distal arm and the proximal arm, which transmission means are configured so that oscillation of said mass causes the rotation of the distal arm around the fulcrum point, characterized in that said transmission means are configured so that at least one point of said proximal arm performs at least a linear translation, said mass performing a cycloidal trajectory.
A jumper termination head for a subsea jumper flowline, the jumper termination head comprising: a body; a jumper coupling means configured to couple the body to a jumper flowline; and an interface coupling means configured to couple the body to a vertically oriented access interface (122, 322, 422) of a lower jumper termination head of a lower jumper flowline (114, 314, 414) in a vertically stacked arrangement; wherein the lower jumper termination head comprises a body coupled to a subsea manifold connector and the body defines a first flow path from the coupled jumper flowline to the coupled subsea manifold connector, and a second flow path from the vertically orientated access interface to the subsea manifold connector; wherein the jumper termination head is configured to be coupled to the vertically orientated access interface (122, 322, 422) of the lower jumper termination head from above in the vertically stacked arrangement; wherein the jumper termination head comprises an upper access interface; wherein the body of the jumper termination head defines a first flow path from the coupled jumper flowline to the interface coupling means, and defines a second flow path from the upper access interface to the interface coupling means; and wherein the upper access interface enables the connection of a further jumper flowline, and/or enables fluid intervention or mechanical intervention operations on the flow system via the upper access interface and the vertically orientated access interface (122, 322, 422) of the lower jumper termination head. a body; a jumper coupling means configured to couple the body to a jumper flowline; and an interface coupling means configured to couple the body to a vertically oriented access interface (122, 322, 422) of a lower jumper termination head of a lower jumper flowline (114, 314, 414) in a vertically stacked arrangement; wherein the lower jumper termination head comprises a body coupled to a subsea manifold connector and the body defines a first flow path from the coupled jumper flowline to the coupled subsea manifold connector, and a second flow path from the vertically orientated access interface to the subsea manifold connector; wherein the jumper termination head is configured to be coupled to the vertically orientated access interface (122, 322, 422) of the lower jumper termination head from above in the vertically stacked arrangement; wherein the jumper termination head comprises an upper access interface; wherein the body of the jumper termination head defines a first flow path from the coupled jumper flowline to the interface coupling means, and defines a second flow path from the upper access interface to the interface coupling means; and wherein the upper access interface enables the connection of a further jumper flowline, and/or enables fluid intervention or mechanical intervention operations on the flow system via the upper access interface and the vertically orientated access interface (122, 322, 422) of the lower jumper termination head.
An in vitro method for detecting a target analyte in a tissue section on a slide, comprising: (a) contacting the tissue section with polymeric-enzyme/primary antibody conjugates, each polymeric-enzyme/primary antibody conjugate comprising: (i) a polymeric-enzyme comprising a plurality of enzyme molecules, wherein the plurality of enzyme molecules are the same enzyme type; and (ii) a primary antibody recognizing the target analyte under a condition that allows formation of a complex comprising the target analyte and the polymeric-enzyme/primary antibody conjugate, wherein each polymeric-enzyme/primary antibody conjugate has a molecular weight of about 400 kDa to about 2,000 kDa, and wherein step (a) is performed for an incubation period of between 3 and 10 minutes; (b) substantially removing the polymeric-enzyme/primary antibody conjugate that does not form the complex; (c) contacting the tissue with a substrate of the plurality of enzyme molecules, thereby detecting the target analyte. (a) contacting the tissue section with polymeric-enzyme/primary antibody conjugates, each polymeric-enzyme/primary antibody conjugate comprising: (i) a polymeric-enzyme comprising a plurality of enzyme molecules, wherein the plurality of enzyme molecules are the same enzyme type; and (ii) a primary antibody recognizing the target analyte under a condition that allows formation of a complex comprising the target analyte and the polymeric-enzyme/primary antibody conjugate, wherein each polymeric-enzyme/primary antibody conjugate has a molecular weight of about 400 kDa to about 2,000 kDa, and wherein step (a) is performed for an incubation period of between 3 and 10 minutes; wherein each polymeric-enzyme/primary antibody conjugate has a molecular weight of about 400 kDa to about 2,000 kDa, and wherein step (a) is performed for an incubation period of between 3 and 10 minutes; (b) substantially removing the polymeric-enzyme/primary antibody conjugate that does not form the complex; (c) contacting the tissue with a substrate of the plurality of enzyme molecules, thereby detecting the target analyte.
A sunshade comprising a first edge strip and a second edge strip, at least two guide wires (24a, 24b) extending from the first edge strip to the second edge strip and a movable protective curtain suspended from the guide wires (24a, 24b), the first edge strip and/or the second edge strip having a substantially rigid gripping projection for attachment to a glazing edge profile (13, 15), characterized in that the edge strip (20, 22) and gripping projection are one integral piece or the edge strip and the gripping projection are separately manufactured parts which are fixedly connected to each other in one piece and the gripping projection has a flank portion and a tip portion, which turns at an angle from the flank portion.
A network bandwidth allocation method, comprising: obtaining a priority of each application program that is running on a terminal and occupies a network resource; and obtaining currently available network bandwidth of the terminal; the method being characterized in that it comprises allocating the currently available network bandwidth to the application programs running on the terminal in order from a higher priority to a lower priority according to a network bandwidth allocation policy, and only when network bandwidth allocated to an application program with a higher priority meets a corresponding preset expected bandwidth, allocating remaining network bandwidth to an application program with a lower priority. obtaining a priority of each application program that is running on a terminal and occupies a network resource; and obtaining currently available network bandwidth of the terminal; the method being characterized in that it comprises allocating the currently available network bandwidth to the application programs running on the terminal in order from a higher priority to a lower priority according to a network bandwidth allocation policy, and only when network bandwidth allocated to an application program with a higher priority meets a corresponding preset expected bandwidth, allocating remaining network bandwidth to an application program with a lower priority.
An apparatus, comprising: a sample chamber; a target holder configured to be disposed within an interior of the sample chamber to divide the interior of the sample chamber into a sample region and a purge region, wherein the target holder is further configured to support a target, wherein the target holder comprises: a base having a support surface configured to physically contact the target; and at least one fluid transport conduit extending through the base and having a first end adjacent to the support surface and a second end in fluid communication with the purge region; and a purge conduit in fluid communication with the interior of the sample chamber, the purge conduit configured to transport a fluid from the purge region to a location outside the sample chamber. a sample chamber; a target holder configured to be disposed within an interior of the sample chamber to divide the interior of the sample chamber into a sample region and a purge region, wherein the target holder is further configured to support a target, wherein the target holder comprises: a base having a support surface configured to physically contact the target; and at least one fluid transport conduit extending through the base and having a first end adjacent to the support surface and a second end in fluid communication with the purge region; and a purge conduit in fluid communication with the interior of the sample chamber, the purge conduit configured to transport a fluid from the purge region to a location outside the sample chamber. a base having a support surface configured to physically contact the target; and at least one fluid transport conduit extending through the base and having a first end adjacent to the support surface and a second end in fluid communication with the purge region; and a purge conduit in fluid communication with the interior of the sample chamber, the purge conduit configured to transport a fluid from the purge region to a location outside the sample chamber.
A method for forming a light detecting structure, comprising: a) providing a germanium-on-insulator (GeOI) wafer that includes a handle layer, a Ge device layer and an insulator layer between the handle layer and the Ge device layer; b) forming an array of Ge photodiodes in the Ge device layer; and c) coupling the array of Ge photodiodes mechanically and electrically to a readout integrated circuit (ROIC) to form a bonded structure; the method further characterized by d) removing the handle layer while leaving the insulator layer to face directly incoming light, whereby the bonded structure operates as a focal plane array wherein the insulator layer is a quarter wave layer. a) providing a germanium-on-insulator (GeOI) wafer that includes a handle layer, a Ge device layer and an insulator layer between the handle layer and the Ge device layer; b) forming an array of Ge photodiodes in the Ge device layer; and c) coupling the array of Ge photodiodes mechanically and electrically to a readout integrated circuit (ROIC) to form a bonded structure; the method further characterized by d) removing the handle layer while leaving the insulator layer to face directly incoming light, whereby the bonded structure operates as a focal plane array wherein the insulator layer is a quarter wave layer.
A method for controlling a fuel mixture composition for an internal combustion engine with a tank ventilation device when aerating a fuel accumulator, wherein the tank ventilation device is introduced between a fuel tank and an internal combustion engine, and comprises - a fuel accumulator with an activated carbon bed for storing fuel, - an aeration line for supplying flushing gas into the fuel accumulator, wherein the aeration line preferably comprises an aeration valve, - a fuel line for transporting fuel out of a fuel tank which is connected to the tank ventilation device into the fuel accumulator, - a ventilation line for transporting gases out of the fuel accumulator to an internal combustion engine, wherein preferably a tank vent valve is provided in the ventilation line, and - at least one thermocouple, which is arranged in the fuel accumulator, in a direct path of flow of a fuel between the fuel line and the ventilation line, wherein the method comprises the steps: - determining the temperature T 0 of the activated carbon bed in the direct path of flow of the fuel at the time 0 prior to the aeration by means of the thermocouple, - optionally opening the aeration valve, - optionally opening the ventilation valve, and - determining the temperature T 1 in the direct path of flow at the time 1 during the aeration by means of the thermocouple, characterised in that the method comprises, if T 1 > T 0, either closing of the ventilation valve or increasing the flushing gas. - a fuel accumulator with an activated carbon bed for storing fuel, - an aeration line for supplying flushing gas into the fuel accumulator, wherein the aeration line preferably comprises an aeration valve, - a fuel line for transporting fuel out of a fuel tank which is connected to the tank ventilation device into the fuel accumulator, - a ventilation line for transporting gases out of the fuel accumulator to an internal combustion engine, wherein preferably a tank vent valve is provided in the ventilation line, and - at least one thermocouple, which is arranged in the fuel accumulator, in a direct path of flow of a fuel between the fuel line and the ventilation line, - determining the temperature T 0 of the activated carbon bed in the direct path of flow of the fuel at the time 0 prior to the aeration by means of the thermocouple, - optionally opening the aeration valve, - optionally opening the ventilation valve, and - determining the temperature T 1 in the direct path of flow at the time 1 during the aeration by means of the thermocouple,
An implantable system comprising: - a first spacer; - a second spacer; and - a plate system configured to engage the first spacer and the second spacer, wherein the plate system comprises: - a base plate having an upper surface and a lower surface configured to contact vertebrae, the base plate comprising an upper portion, a mid portion and a lower portion; - a first bridge positioned between the upper portion and the mid portion; - a second bridge positioned between the mid portion and the lower portion; - a first retainer plate in engagement with the first bridge, wherein the first retainer plate is positioned over the first bridge and in contact with the upper surface of the base plate; and - a second retainer plate in engagement with the second bridge, wherein the second retainer plate is positioned over the second bridge and in contact with the upper surface of the base plate, - wherein the first retainer plate is configured to receive a first pair of fasteners for extending into the first spacer; - wherein the second retainer plate is configured to receive a second pair of fasteners for extending into the second spacer. - a first spacer; - a second spacer; and - a plate system configured to engage the first spacer and the second spacer, wherein the plate system comprises: - a base plate having an upper surface and a lower surface configured to contact vertebrae, the base plate comprising an upper portion, a mid portion and a lower portion; - a first bridge positioned between the upper portion and the mid portion; - a second bridge positioned between the mid portion and the lower portion; - a first retainer plate in engagement with the first bridge, wherein the first retainer plate is positioned over the first bridge and in contact with the upper surface of the base plate; and - a second retainer plate in engagement with the second bridge, wherein the second retainer plate is positioned over the second bridge and in contact with the upper surface of the base plate, - wherein the first retainer plate is configured to receive a first pair of fasteners for extending into the first spacer; - wherein the second retainer plate is configured to receive a second pair of fasteners for extending into the second spacer.
A test device for testing a test specimen of an energy-related unit, wherein energy is stored in an inductor of the test specimen during the test, wherein the test device includes: an output, which can be electrically connected to the test specimen in a destruction-free releaseable manner, a controllable unit for reducing a current intensity of a current flowing in the inductor, a controller for controlling the controllable unit, characterized in that the controllable unit comprises an amplifier, wherein the controller is configured such that it controls the controllable unit to reduce the energy stored in the inductor, wherein the test device is configured for reducing the energy stored in the inductor via the amplifier of the controllable unit to reduce the current intensity of the current flowing in the inductor, wherein an energy flow from the test specimen takes place via the output to the test device. an output, which can be electrically connected to the test specimen in a destruction-free releaseable manner, a controllable unit for reducing a current intensity of a current flowing in the inductor, a controller for controlling the controllable unit, characterized in that the controllable unit comprises an amplifier, wherein the controller is configured such that it controls the controllable unit to reduce the energy stored in the inductor, wherein the test device is configured for reducing the energy stored in the inductor via the amplifier of the controllable unit to reduce the current intensity of the current flowing in the inductor, wherein an energy flow from the test specimen takes place via the output to the test device.
A exothermal vaporizer comprising: a condenser tube (118, 132) which threads into a mouthpiece and is user adjustable to modulate and/or regulate the flow ratio of dilution air and produced vapor; and a body containing the condenser tube (118, 132), wherein the mouthpiece and a tip incorporating an extraction chamber are integrated with the body by one or more friction fit O-rings and wherein the condenser tube (118, 132) remains rotationally fixed relative to the body as the mouthpiece is twisted, and wherein the tip and condenser tube (118, 132) have one or more interfacing surfaces. a condenser tube (118, 132) which threads into a mouthpiece and is user adjustable to modulate and/or regulate the flow ratio of dilution air and produced vapor; and a body containing the condenser tube (118, 132), wherein the mouthpiece and a tip incorporating an extraction chamber are integrated with the body by one or more friction fit O-rings and wherein the condenser tube (118, 132) remains rotationally fixed relative to the body as the mouthpiece is twisted, and wherein the tip and condenser tube (118, 132) have one or more interfacing surfaces.
A lighting device for illuminating an aquarium, comprising: a base layer, a plurality of lighting elements mounted on the base layer and comprising a first and a second subset of lighting elements (112, 113) arranged for emitting a first and a second spectrum of light respectively; a light transmission affecting device arranged for affecting the transmission of light from the plurality of lighting elements; wherein the light transmission affecting device is arranged for passing at least a part of the light from at least one lighting element of the first subset having the first emitting spectrum and processing the light from at least one lighting element of the second subset having the second emitting spectrum; said lighting device being characterized in that the first emitting spectrum comprises white light or a first colored light; wherein the first colored light comprises wavelength in a first range with peak wavelength below 485 nm; and the second emitting spectrum comprises a second colored light; wherein the second colored light comprises wavelength in a second range with a peak wavelength larger than 485 nm. a base layer, a plurality of lighting elements mounted on the base layer and comprising a first and a second subset of lighting elements (112, 113) arranged for emitting a first and a second spectrum of light respectively; a light transmission affecting device arranged for affecting the transmission of light from the plurality of lighting elements; wherein the light transmission affecting device is arranged for passing at least a part of the light from at least one lighting element of the first subset having the first emitting spectrum and processing the light from at least one lighting element of the second subset having the second emitting spectrum; said lighting device being characterized in that the first emitting spectrum comprises white light or a first colored light; wherein the first colored light comprises wavelength in a first range with peak wavelength below 485 nm; and the second emitting spectrum comprises a second colored light; wherein the second colored light comprises wavelength in a second range with a peak wavelength larger than 485 nm.