mhurhangee/ep-ind-claims huggingface dataset:
A parking brake device (10, 110, 210, 310, 410, 510, 610, 710, 810, 910) having at least one first connecting line (12, 112, 212, 312, 412, 512, 612, 712, 812, 912) to a compressed-air source and at least one second connecting line (36, 136, 236, 336, 436, 536, 636, 736, 836, 936) to a compressed-air source, having at least one first compressed-air output line (34, 134, 234, 334, 434, 534, 634, 734, 834, 934) for connecting directly and/or indirectly to a spring brake cylinder, and having at least one further redundancy compressed-air output line (56, 156, 256, 356, 456, 556, 656, 756, 856, 956) for connecting directly and/or indirectly to a redundant brake system, there being provided upstream of the redundancy compressed-air output line (56, 156, 256, 456, 556, 656, 756, 856, 956) a relay valve (52, 152, 252, 452, 552, 652, 752, 852, 952) for controlling the redundancy compressed-air output line, this relay valve (52, 152, 252, 452, 552, 652, 752, 852, 952) being configured as a bistable valve (52, 152, 252, 452, 552, 652, 752, 852, 952) and having a pneumatic control input, this pneumatic control input having a supply line in which at least one control valve (48, 140, 224, 340, 448, 524, 648, 748, 848, 924) is provided, characterised in that a vent line branches off between the control valve (48, 140, 224, 340, 448, 524, 648, 748, 848, 924) and the control input.
A donor eNodeB, DeNB, comprising: circuitry configured to establish a wireless backhaul link with a relay node, RN, and an X2 interface with at least another eNodeB; characterized by circuitry configured to receive over the wireless backhaul link an X2 application protocol, X2AP, handover request message indicating that a wireless transmit/receive unit, WTRU, of the RN is being requested to be handed over to the another eNodeB; circuitry configured to send the handover request message to the another eNodeB over the X2 interface; and circuitry configured to receive an X2AP sequence number, SN, status transfer message over the wireless backhaul link from the relay node and forward the X2AP SN status transfer message to the another eNodeB, wherein the X2AP SN status transfer message indicates sequence numbers of packet data convergence protocol, PDCP, service data units, SDUs. circuitry configured to establish a wireless backhaul link with a relay node, RN, and an X2 interface with at least another eNodeB; characterized by circuitry configured to receive over the wireless backhaul link an X2 application protocol, X2AP, handover request message indicating that a wireless transmit/receive unit, WTRU, of the RN is being requested to be handed over to the another eNodeB; circuitry configured to send the handover request message to the another eNodeB over the X2 interface; and circuitry configured to receive an X2AP sequence number, SN, status transfer message over the wireless backhaul link from the relay node and forward the X2AP SN status transfer message to the another eNodeB, wherein the X2AP SN status transfer message indicates sequence numbers of packet data convergence protocol, PDCP, service data units, SDUs.
A computer system comprising: one or more processors; and one or more computer-readable hardware storage devices having stored thereon computer-executable instructions that are executable by the one or more processors to cause the computer system to: access historic execution state information corresponding to a previous execution of an application, wherein the historic execution state information was collected during the application's previous execution; after correlating the application's historic execution state information to code associated with the application, cause a tracepoint to be associated with a portion of the code, wherein: when the code of the application is replayed based on the historic execution state information, the tracepoint causes a behavior of the portion of the code to be logged while the code is replayed uninterrupted based on the historic execution state information; replay the code based on the historic execution state information, wherein, during the replay, the tracepoint causes the behavior of the portion of code to be logged; and on a user interface, visualize the logged behavior of the portion of code. one or more processors; and one or more computer-readable hardware storage devices having stored thereon computer-executable instructions that are executable by the one or more processors to cause the computer system to: access historic execution state information corresponding to a previous execution of an application, wherein the historic execution state information was collected during the application's previous execution; after correlating the application's historic execution state information to code associated with the application, cause a tracepoint to be associated with a portion of the code, wherein: when the code of the application is replayed based on the historic execution state information, the tracepoint causes a behavior of the portion of the code to be logged while the code is replayed uninterrupted based on the historic execution state information; replay the code based on the historic execution state information, wherein, during the replay, the tracepoint causes the behavior of the portion of code to be logged; and on a user interface, visualize the logged behavior of the portion of code. access historic execution state information corresponding to a previous execution of an application, wherein the historic execution state information was collected during the application's previous execution; after correlating the application's historic execution state information to code associated with the application, cause a tracepoint to be associated with a portion of the code, wherein: when the code of the application is replayed based on the historic execution state information, the tracepoint causes a behavior of the portion of the code to be logged while the code is replayed uninterrupted based on the historic execution state information; replay the code based on the historic execution state information, wherein, during the replay, the tracepoint causes the behavior of the portion of code to be logged; and on a user interface, visualize the logged behavior of the portion of code.
A potting system comprising a potting unit and a clamp, the potting unit having a body comprising a distal end, a middle section and a proximal end, wherein the distal end is adapted to accommodate hollow fibre membranes and the proximal end is adapted to engage with a header of a fluid treatment system, and wherein the body further comprises an integrated compressible seal that is continuous with and perpendicular to the body, is positioned at a base of the body, and is composed of the same material as the potting unit, wherein the material is an elastomer; and wherein the clamp comprises a first part and a second part configured to engage with and maintain a downward force on the integrated compressible seal of the potting unit; and wherein the first part comprises a series of spaced-apart hollows which are adapted to accommodate the integrated compressible seal of the potting unit, and wherein the second part comprises a series of corresponding spaced-apart hollows which are adapted to accommodate and engage with the middle section of the body.
Mixing device for setting the warm water temperature for a warm water supply system which can be connected, in particular, to a warm water outlet of a heat generator which operates according to the principle of a flow heater, and to a solar heated warm water circuit, a first thermostatic mixing valve which is connected to a cold water connector, with a warm water connector for an attached warm water supply line, and a second thermostatic mixing valve being provided, the first thermostatic mixing valve being connected upstream to the second thermostatic mixing valve, and it being possible for the first connector of the second thermostatic mixing valve to be connected to the warm water outlet line from the solar heated warm water circuit, it being possible for the second connector of the second thermostatic mixing valve to be connected to a warm water inlet into the heat generator, and the third connector of the second thermostatic mixing valve being connected to the first thermostatic mixing valve, characterized in that the first thermostatic mixing valve can be connected to the warm water outlet of the heat generator, the warm water outlet of the heat generator being connected to the connecting line between the first and the second thermostatic mixing valve.
A succinate salt of 7-cyclopentyl-2-(5-piperazin-1-yl-pyridin-2-ylamino)-7H-pyrrolo[2,3-d]pyrimidine-6-carboxylic acid dimethylamide, wherein the salt is described by Formula
A method for transmitting information, comprising: determining, by a network device, first quantity information, wherein the first quantity information is information about a number of code block groups comprised in a transport block, and each code block group comprises at least one code block, wherein the first quantity information is used to indicate a maximum number of code block groups that a transport block can be divided into; sending, by the network device, second quantity information to the terminal device, wherein the second quantity information is information about a total number of bits comprised in a currently scheduled transport block; and determining, by the network device, a number of the code blocks comprised in the currently scheduled transport block according to the second quantity information, characterized in that the method further comprises: determining, by the network device, a smaller one of the maximum number of code block groups that a transport block can be divided into and the number of the code blocks comprised in the currently scheduled transport block as the number of the code block groups comprised in the currently scheduled transport block. determining, by a network device, first quantity information, wherein the first quantity information is information about a number of code block groups comprised in a transport block, and each code block group comprises at least one code block, wherein the first quantity information is used to indicate a maximum number of code block groups that a transport block can be divided into; sending, by the network device, second quantity information to the terminal device, wherein the second quantity information is information about a total number of bits comprised in a currently scheduled transport block; and determining, by the network device, a number of the code blocks comprised in the currently scheduled transport block according to the second quantity information, characterized in that the method further comprises: determining, by the network device, a smaller one of the maximum number of code block groups that a transport block can be divided into and the number of the code blocks comprised in the currently scheduled transport block as the number of the code block groups comprised in the currently scheduled transport block.
A Microelectrical System, MEMS, mirror apparatus, comprising: - a lens (200, 300, 500) further comprising a circular top surface (202, 302, 502), the circular top surface (202, 302, 502) being provided with a recess (212, 312, 512) having an inclined surface (213, 313, 513) extending from the circular top surface (202, 302, 502) and a side wall (204, 304, 504) having an inclined section (208, 308, 508) extending from the circular top surface (202, 302, 502), wherein the inclined section (208, 308, 508) is inclined towards the recess (212, 312, 512) and the inclined surface (213, 313, 513) is inclined outward of the recess (212, 312, 512) towards the inclined section (208, 308, 508); and - a MEMS mirror (110, 222, 322, 522) and a laser source (224, 324, 524), wherein the MEMS mirror (110, 222, 322, 522) and the laser source (224, 324, 524) are below the lens (200, 300, 500), - wherein the MEMS mirror apparatus is arranged such that a laser beam coming from one side of the lens, from the laser source (224, 324, 524) below the lens (200, 300, 500), is reflected from the inclined section (208, 308, 508) to the recess (212, 312, 512) of the circular top surface (202, 302, 502) while the inclined surface (213, 313, 513) of the recess (212, 312, 512) is configured to reflect the laser beam further to said one side of the lens (200, 300, 500) towards the MEMS mirror. - a lens (200, 300, 500) further comprising a circular top surface (202, 302, 502), the circular top surface (202, 302, 502) being provided with a recess (212, 312, 512) having an inclined surface (213, 313, 513) extending from the circular top surface (202, 302, 502) and a side wall (204, 304, 504) having an inclined section (208, 308, 508) extending from the circular top surface (202, 302, 502), wherein the inclined section (208, 308, 508) is inclined towards the recess (212, 312, 512) and the inclined surface (213, 313, 513) is inclined outward of the recess (212, 312, 512) towards the inclined section (208, 308, 508); and - a MEMS mirror (110, 222, 322, 522) and a laser source (224, 324, 524), wherein the MEMS mirror (110, 222, 322, 522) and the laser source (224, 324, 524) are below the lens (200, 300, 500), - wherein the MEMS mirror apparatus is arranged such that a laser beam coming from one side of the lens,
A telescope optics for a telescopic observational instrument having an objective lens system, having a prism erecting system and having an eyepiece lens system, wherein an image of an object generated by the objective lens system is located between the prism erecting system and the eyepiece lens system, and wherein the objective lens system, in an order starting from the object side, comprises a first lens group G1 with a positive refractive power, a second lens group G2 with a negative refractive power and a third lens group G3 with at least one lens having a negative refractive power, and wherein the second lens group G2 is adjustable in parallel to an optical axis for focusing, and wherein at least one lens with a negative refractive power of the third lens group G3 is adjustable perpendicularly to the optical axis for changing the position of the image, wherein the third lens group G3 has a negative refractive power, characterized in that the focal length of the first lens group f`, the focal length of the second lens group f ` and the focal length of the third lens group f' fulfill the conditions -1.511 < f` / f` < -0.704 and 2.348 < f` / f' < 9.240.
A radio communication network system, comprising: a Base Station, BS, a Base Station Controller, BSC, and a Mobile Station, MS; the BS further comprises: a signaling receiving unit, configured to receive an air interface offset between the BS and a second BS from the BSC; and a controlling unit, coupled with the signaling receiving unit, configured to synchronize the air interface of the BS by using the air interface offset between the BS and the second BS which received by the signaling receiving unit; wherein the air interface offset between the BS and the second BS is calculated by the BSC according to the air interface offsets reported by the MS and Time Advance values reported by the MS, and wherein the air interface offsets reported by the MS meets protocol requirement. a Base Station, BS, a Base Station Controller, BSC, and a Mobile Station, MS; the BS further comprises: a signaling receiving unit, configured to receive an air interface offset between the BS and a second BS from the BSC; and a controlling unit, coupled with the signaling receiving unit, configured to synchronize the air interface of the BS by using the air interface offset between the BS and the second BS which received by the signaling receiving unit; wherein the air interface offset between the BS and the second BS is calculated by the BSC according to the air interface offsets reported by the MS and Time Advance values reported by the MS, and wherein the air interface offsets reported by the MS meets protocol requirement. a signaling receiving unit, configured to receive an air interface offset between the BS and a second BS from the BSC; and a controlling unit, coupled with the signaling receiving unit, configured to synchronize the air interface of the BS by using the air interface offset between the BS and the second BS which received by the signaling receiving unit; wherein the air interface offset between the BS and the second BS is calculated by the BSC according to the air interface offsets reported by the MS and Time Advance values reported by the MS, and wherein the air interface offsets reported by the MS meets protocol requirement.
A liner panel (72, 74) for use in a combustor of a gas turbine engine, the liner panel (72, 74) comprising: a radiused gate (150, 152, 154,156) cast and blended into a hot side of the liner panel (72, 74); and a thermal barrier coating on the hot side over a remnant of the radiused gate (150, 152, 154,156), wherein the radiused gate (150, 152, 154,156) defines a radius length to height ratio of about 3:1. a radiused gate (150, 152, 154,156) cast and blended into a hot side of the liner panel (72, 74); and a thermal barrier coating on the hot side over a remnant of the radiused gate (150, 152, 154,156), wherein the radiused gate (150, 152, 154,156) defines a radius length to height ratio of about 3:1.
A vehicle arresting system, comprising: an arrestor-bed of a compactible foam material having a bulk compressive strength and a longitudinal centre axis extending from a front end, the front end being a side of the arrestor-bed at which a vehicle is expected to enter the arrestor-bed, to a back end opposite the front end, the arrestor-bed further comprises a plurality of linear zones in the compactible foam material having a compressive strength lower than the bulk compressive strength of the compactible foam material, characterised in that each of the linear zones extends: either a) in parallel with the longitudinal centre axis of the bed, or b) is angled with an angle α, where 0° < α ≤ 45°, towards the longitudinal centre axis of the arrestor-bed, such that the plurality forms, as seen from above, an inverted V-pattern relative to a direction from the front end to the back end of the arrestor-bed, or c) a combination of a) and b). an arrestor-bed of a compactible foam material having a bulk compressive strength and a longitudinal centre axis extending from a front end, the front end being a side of the arrestor-bed at which a vehicle is expected to enter the arrestor-bed, to a back end opposite the front end, the arrestor-bed further comprises a plurality of linear zones in the compactible foam material having a compressive strength lower than the bulk compressive strength of the compactible foam material, characterised in that each of the linear a) in parallel with the longitudinal centre axis of the bed, or b) is angled with an angle α, where 0° < α ≤ 45°, towards the longitudinal centre axis of the arrestor-bed, such that the plurality forms, as seen from above, an inverted V-pattern relative to a direction from the front end to the back end of the arrestor-bed, or c) a combination of a) and b).
A method of determining a parameter of a sample by holographic microscopy, including the steps of generating a light beam onto the sample and providing holographic image data of the sample, the method characterized by the steps of: identifying a plurality of objects in the holographic image data, each object of the plurality of objects associated with a set of concentric bright and dark rings; determining, for each set of concentric bright and dark rings, by a voting algorithm, an estimated centroid defined by an appropriate x, y position in a plane, each pixel of the holographic image data voting based upon a gradient of intensity defining a line segment in the plane, an intersection of the line segments of each pixel defining the estimated centroid; determining an estimate of the axial position (z), relative to the plane, of each of the objects by back-propagating an associated light field; applying Lorenz-Mie analysis to the holographic image data from the sample using the estimated centroid and estimated axial position to provide analyzed data to characterize and determine in real time simultaneously at least two of size, position, refractive index and a bead based molecular binding feature of a particle of the sample. identifying a plurality of objects in the holographic image data, each object of the plurality of objects associated with a set of concentric bright and dark rings; determining, for each set of concentric bright and dark rings, by a voting algorithm, an estimated centroid defined by an appropriate x, y position in a plane, each pixel of the holographic image data voting based upon a gradient of intensity defining a line segment in the plane, an intersection of the line segments of each pixel defining the estimated centroid; determining an estimate of the axial position (z), relative to the plane, of each of the objects by back-propagating an associated light field; applying Lorenz-Mie analysis to the holographic image data from the sample using the estimated centroid and estimated axial position to provide analyzed data to characterize and determine in real time simultaneously at least two of size, position, refractive index and a bead based molecular binding feature of a particle of the sample.
A device for inductively coupled communications comprising: a near field communication, NFC, module being adapted to generate an electromagnetic carrier signal and to modulate the carrier signal according to data to be transmitted; an antenna circuit coupled to said NFC module and driven by said NFC module with the modulated carrier signal; and an RF front end coupled between said NFC module and said antenna circuit; said RF front end including a balanced to unbalanced Balun transformer and a tuning capacitor; said Balun transformer having a first winding coupled to said NFC module via differential transmitter terminals (TX1, TX2) of said NFC module and a second winding coupled in parallel to said tuning capacitor; a first terminal of said tuning capacitor being coupled to a receiving terminal of said NFC module; an equivalent inductance of said Balun transformer and said tuning capacitor being adapted to provide a function of an electromagnetic compatibility, EMC, filter. a near field communication, NFC, module being adapted to generate an electromagnetic carrier signal and to modulate the carrier signal according to data to be transmitted; an antenna circuit coupled to said NFC module and driven by said NFC module with the modulated carrier signal; and an RF front end coupled between said NFC module and said antenna circuit; said RF front end including a balanced to unbalanced Balun transformer and a tuning capacitor; said Balun transformer having a first winding coupled to said NFC module via differential transmitter terminals (TX1, TX2) of said NFC module and a second winding coupled in parallel to said tuning capacitor; a first terminal of said tuning capacitor being coupled to a receiving terminal of said NFC module; an equivalent inductance of said Balun transformer and said tuning capacitor being adapted to provide a function of an electromagnetic compatibility, EMC, filter.