mhurhangee/patent-ind-claim-en huggingface dataset:
An imaging system configuration apparatus for providing imaging system configuration parameters to configure an imaging device for image acquisition, the apparatus comprising: a training learning device including a first processor to implement a first deep learning network to learn a first set of imaging system configuration parameters based on a first set of inputs from a plurality of prior image acquisitions to configure at least one imaging system for image acquisition, the training learning device configured to receive and process feedback including operational data from the plurality of image acquisitions by the at least one imaging system; and a deployed learning device including a second processor to implement a second deep learning network, the second deep learning network generated from the first deep learning network of the training learning device, the deployed learning device configured to provide a second imaging system configuration parameter to the imaging system in response to receiving a second input for image acquisition; wherein the apparatus is configured so that, while the deployed learning device is not modified during operation, the training learning device can be updated and/or otherwise modified and used to replace/re-deploy the deployed learning device. a training learning device including a first processor to implement a first deep learning network to learn a first set of imaging system configuration parameters based on a first set of inputs from a plurality of prior image acquisitions to configure at least one imaging system for image acquisition, the training learning device configured to receive and process feedback including operational data from the plurality of image acquisitions by the at least one imaging system; and a deployed learning device including a second processor to implement a second deep learning network, the second deep learning network generated from the first deep learning network of the training learning device, the deployed learning device configured to provide a second imaging system configuration parameter to the imaging system in response to receiving a second input for image acquisition; wherein the apparatus is configured so that, while the deployed learning device is not modified during operation, the training learning device can be updated and/or otherwise modified and used to replace/re-deploy the deployed learning device.
One or more non-transitory computer-readable mediums having executable instructions stored thereon that, when executed by one or more processors , perform the operations of: launching an upgrade service on a virtual machine of a host ; using the launched upgrade service to select one or more components of the host that are to be upgraded; after selecting the one or more components of the host that are to be upgraded, making a request at the virtual machine of the host to an upgrade service launched on another networked machine to upgrade the one or more selected components of the host while the virtual machine is powered off; after the virtual machine powers off, coordinating at the upgrade service launched on another networked machine, the upgrade of the one or more selected components; and after the virtual machine powers on, validating at the host , that the upgrade steps of the one or more selected components were completed successfully. launching an upgrade service on a virtual machine of a host ; using the launched upgrade service to select one or more components of the host that are to be upgraded; after selecting the one or more components of the host that are to be upgraded, making a request at the virtual machine of the host to an upgrade service launched on another networked machine to upgrade the one or more selected components of the host while the virtual machine is powered off; after the virtual machine powers off, coordinating at the upgrade service launched on another networked machine, the upgrade of the one or more selected components; and after the virtual machine powers on, validating at the host , that the upgrade steps of the one or more selected components were completed successfully.
A method for generating random numbers , the method comprising: initializing, by data processing hardware , a pseudo-random number generator (PRNG) having a state of 2048 bits comprising inner bits and outer bits , the inner bits comprising the first 128 bits of the 2048 bits and the outer bits comprising the remaining bits of the 2048 bits; permuting, by the data processing hardware , the state of the PRNG by: retrieving Advanced Encryption Standard (AES) round keys from a key source ; and for a threshold number of times: executing a round function using the AES round keys , the round function comprising XOR'ing odd-numbered branches of a Feistel network having 16 branches of 128 bits with a function of corresponding even-numbered neighbor branches of the Feistel network, wherein the round function comprises at least two rounds of AES; and shuffling each branch of 128 bits into a prescribed order; and executing, by the data processing hardware , an XOR of the inner bits of the permuted state with the inner bits of a previous state. initializing, by data processing hardware , a pseudo-random number generator (PRNG) having a state of 2048 bits comprising inner bits and outer bits , the inner bits comprising the first 128 bits of the 2048 bits and the outer bits comprising the remaining bits of the 2048 bits; permuting, by the data processing hardware , the state of the PRNG by: retrieving Advanced Encryption Standard (AES) round keys from a key source ; and for a threshold number of times: executing a round function using the AES round keys , the round function comprising XOR'ing odd-numbered branches of a Feistel network having 16 branches of 128 bits with a function of corresponding even-numbered neighbor branches of the Feistel network, wherein the round function comprises at least two rounds of AES; and shuffling each branch of 128 bits into a prescribed order; and executing, by the data processing hardware , an XOR of the inner bits of the permuted state with the inner bits of a previous state. retrieving Advanced Encryption Standard (AES) round keys from a key source ; and for a threshold number of times: executing a round function using the AES round keys , the round function comprising XOR'ing odd-numbered branches of a Feistel network having 16 branches of 128 bits with a function of corresponding even-numbered neighbor branches of the Feistel network, wherein the round function comprises at least two rounds of AES; and shuffling each branch of 128 bits into a prescribed order; and executing a round function using the AES round keys , the round function comprising XOR'ing odd-numbered branches of a Feistel network having 16 branches of 128 bits with a function of corresponding even-numbered neighbor branches of the Feistel network, wherein the round function comprises at least two rounds of AES; and shuffling each branch of 128 bits into a prescribed order; and executing, by the data processing hardware , an XOR of the inner bits of the permuted state with the inner bits of a previous state.
An assembly for a turbine engine, the assembly comprising: a combustor wall including a shell and a heat shield , the combustor wall defining a quench aperture therethrough and defining a cavity between the shell and the heat shield ; the shell defining a first aperture through which air is directed into the cavity ; and the heat shield including a rail that at least partially defines a second aperture configured to direct at least some of the air within the cavity out of the combustor wall and towards the quench aperture , wherein the heat shield includes a first panel adjacent a second panel ; the first panel includes the rail ; and the quench aperture extends through the second panel , characterised in that the second aperture comprises a circumferentially elongated slot. a combustor wall including a shell and a heat shield , the combustor wall defining a quench aperture therethrough and defining a cavity between the shell and the heat shield ; the shell defining a first aperture through which air is directed into the cavity ; and the heat shield including a rail that at least partially defines a second aperture configured to direct at least some of the air within the cavity out of the combustor wall and towards the quench aperture , wherein the heat shield includes a first panel adjacent a second panel ; the first panel includes the rail ; and the quench aperture extends through the second panel , characterised in that the second aperture comprises a circumferentially elongated slot.
Test device for performing tests on a device under test , in particular a mobile network device, comprising a network simulator being adapted to create a network test environment for the device under test , wherein the network test environment has a network profile comprising network configurations and comprising at least one environmental factor, in particular base station density and/or presence of at least one geographic feature, wherein the network configurations include technology settings, protocol settings and encryption settings, wherein the test device or the network simulator comprises a control unit having access to a plurality of network profiles , wherein the network profiles are stored on a server accessible by the control unit or the network simulator , wherein the network profile is based on a measurement of a real-life network environment at a specific geographic location and/or of a specific operator, wherein the network simulator is adapted to create the network test environment corresponding to the real-life network environment at the specific geographic location and/or of the specific operator, and wherein the control unit or the network simulator is configured to prompt the server for a current version of the network profile in regular intervals and/or ad-hoc. wherein the network test environment has a network profile comprising network configurations and comprising at least one environmental factor, in particular base station density and/or presence of at least one geographic feature, wherein the network configurations include technology settings, protocol settings and encryption settings, wherein the test device or the network simulator comprises a control unit having access to a plurality of network profiles , wherein the network profiles are stored on a server accessible by the control unit or the network simulator , wherein the network profile is based on a measurement of a real-life network environment at a specific geographic location and/or of a specific operator, wherein the network simulator is adapted to create the network test environment corresponding to the real-life network environment at the specific geographic location and/or of the specific operator, and wherein the control unit or the network simulator is configured to prompt the server for a current version of the network profile in regular intervals and/or ad-hoc.
A method of determining a treatment protocol for a patient suffering from cancer, especially colon cancer, comprising: (a) quantifying the level of a TYMP fragment peptide according to SEQ ID NO: 1 and quantifying the level of a UCK2 fragment peptide according to SEQ ID NO: 2 in a protein digest prepared from a formalin-fixed tumor tissue sample obtained from the patient and calculating the level of the TYMP and UCK2 fragment peptides in said sample by selected reaction monitoring using mass spectrometry; (b) comparing the level of said TYMP fragment peptide to a TYMP reference level and comparing the level of said UCK2 fragment peptide to a UCK2 reference level, (c) determining that the patient should be treated with a therapeutic regimen comprising administration of irinotecan, 5-fluoruracil and folinic acid, when the level of the TYMP fragment peptide is above a TYMP reference level of 2094 amol/ug protein analyzed, and the level of the UCK2 fragment peptide is above a UCK2 reference level of 333 amol/ug protein analyzed, and (d) determining that the patient should be treated with a therapeutic regimen other than the regimen comprising administration of irinotecan, 5-fluoruracil and folinic acid, when the level of the TYMP fragment peptide is below a TYMP reference level of 1335 amol/ug protein analyzed, or the level of the UCK2 fragment peptide is below said UCK2 reference level of 333 amol/ug protein analyzed. (a) quantifying the level of a TYMP fragment peptide according to SEQ ID NO: 1 and quantifying the level of a UCK2 fragment peptide according to SEQ ID NO: 2 in a protein digest prepared from a formalin-fixed tumor tissue sample obtained from the patient and calculating the level of the TYMP and UCK2 fragment peptides in said sample by selected reaction monitoring using mass spectrometry; (b) comparing the level of said TYMP fragment peptide to a TYMP reference level and comparing the level of said UCK2 fragment peptide to a UCK2 reference level, (c) determining that the patient should be treated with a therapeutic regimen comprising administration of irinotecan, 5-fluoruracil and folinic acid, when the level of the TYMP fragment peptide is above a TYMP reference level of 2094 amol/ug protein analyzed, and the level of the UCK2 fragment peptide is above a UCK2 reference level of 333 amol/ug protein analyzed, and (d) determining that the patient should be treated with a therapeutic regimen other than the regimen comprising administration of irinotecan, 5-fluoruracil and folinic acid, when the level of the TYMP fragment peptide is below a TYMP reference level of 1335 amol/ug protein analyzed, or the level of the UCK2 fragment peptide is below said UCK2 reference level of 333 amol/ug protein analyzed.
A NOPE extracellular domain (ECD) polypeptide for use in the treatment of muscle wasting, muscle injury, a muscle degenerative disorder, or amyotrophic lateral sclerosis (ALS) in a subject.
A lifting assembly comprising a support structure arranged to support a load suspended from the support structure, a guide line arranged to extend from a first location, to a second location, a wheel assembly with one or more wheels arranged to engage, and roll along the guide line , and a control line assembly arranged to extend from the wheel assembly to the load , wherein the lifting assembly comprises a retainer arranged to connect, between the first and second locations, the guide line to the support structure , wherein the retainer comprises a retainer bracket for fixing the retainer to the guide line , and wherein the wheel assembly comprises a plurality of wheels which are distributed around the guide line , is characterized in that one or more of the wheels is spring loaded so as to be biased against the guide line , allowing displacement of the spring loaded wheel(s) , away from the guideline , when the wheel(s) roll(s) over the retainer bracket engaging the guideline , thus allowing the wheel assembly to ride over the retainer .
Assembly consisting of a wheel disk and at least one insert , the disk comprising at least one opening , said opening being at least partially covered by the insert , said insert comprising at least one covering part which is extended from said opening by covering a covering part of the disk , at least one spacing (Δe) being present between said covering parts of the disk and the web , characterized in that along said covering parts of the insert and of the web are interposed retaining means , the retaining means being positioned and dimensioned so as to close at least in part the access of chips from said opening to said covering parts .
A reaction container holder comprising: a retaining member comprising a plurality of retaining sections for retaining reaction containers , the plurality of retaining sections being irremovable from the retaining member , the reaction container being separate from the retaining sections and being suitable for housing a liquid sample containing a reagent and a specimen; and a circular rotating member for detachably fixing the retaining member from above and rotating, wherein the rotating member comprises a level difference section (9b; 9d; 9f; 9i), wherein an upper surface of the level difference section (9b; 9d; 9f; 9i) is positioned above a bottom part of the retaining section within the retaining section when the retaining member is fixed, and wherein the reaction container holder is configured to keep the reaction container at a constant temperature by transferring heat through the level difference section (9b; 9d; 9f; 9i) of the rotating member to the reaction container . a retaining member comprising a plurality of retaining sections for retaining reaction containers , the plurality of retaining sections being irremovable from the retaining member , the reaction container being separate from the retaining sections and being suitable for housing a liquid sample containing a reagent and a specimen; and a circular rotating member for detachably fixing the retaining member from above and rotating, wherein the rotating member comprises a level difference section (9b; 9d; 9f; 9i), wherein an upper surface of the level difference section (9b; 9d; 9f; 9i) is positioned above a bottom part of the retaining section within the retaining section when the retaining member is fixed, and wherein the reaction container holder is configured to keep the reaction container at a constant temperature by transferring heat through the level difference section (9b; 9d; 9f; 9i) of the rotating member to the reaction container .
Improved shoe shank for reinforcing insoles of footwear (C) with heel (T), with said improved shoe shank having a constant thickness and longitudinally curved strip shape, provided with: at least one fixing hole near each of its own ends ; an opening provided near the rear end and suitable for the passage of the heel fixing means (T); at least one longitudinal stiffening rib obtained by drawing, the same shoe shank being provided to be associated to the insole of a footwear (C) with heel (T), inserted and locked in an intermediate position between upper and lower layers of said insole and positioned starting from the fixing area of the heel (T) towards the front part of said insole , and oriented with its concave side facing towards said lower layer , with said improved shoe shank providing at least two of said longitudinal stiffening ribs protruding from the convex side of the same improved shoe shank , that is towards said upper layers of said insole , with the same at least two stiffening ribs symmetrically arranged on the sides of said opening for fixing the heel (T) and extending longitudinally starting from the rear end of the same improved shoe shank towards said front part of the insole .
Magnetic absolute value encoder (10.0, 10.1, 10.2, 10.3, 10.4, 10.5, 10.6, 10.7) for the determination of the absolute position of two bodies displaceable relative to one another in respect of an angular position or a longitudinal position, with at least one first material scale defining an absolute track on the first body in the direction of a displacement direction of the bodies , said material scale comprising a plurality of first code elements (14.1 - 14.9) with magnetic properties, with at least one first magnetic field sensor arrangement for sampling magnetic leakage fields on the second body caused by the first material scale , and with an evaluation unit that is configured to receive measurement signals from the first magnetic field sensor arrangement , wherein each of the first code elements (14.1 - 14.9) is arranged offset by a respective encoding offset in the longitudinal direction of the absolute track , in particular symmetrically offset in the longitudinal direction of the absolute track , with respect to a virtual reference position (18.1 - 18.4) assigned to the first code element (14.1 - 14.9) in a 1:1 relationship, wherein the virtual reference positions (18.1 - 18.4) are defined as equidistant and having no offset along the absolute track , wherein each first code element (14.1 - 14.9) encodes, at least on the basis of its encoding offset, one specific character of a code comprising N characters, wherein P successive code elements (14.1 - 14.9) encode one code word in each case, wherein each code word is unique within the first material scale and represents a respective absolute position, wherein the first magnetic field sensor arrangement comprises a number of first magnetic field sensors (16.1 - 16.8), which are arranged such that the first magnetic field sensors (16.1 - 16.8) simultaneously sample a plurality of adjacent first code elements (14.1 - 14.9) for a respective position of the first material scale such that each magnetic field sensor (16.1 - 16.8) samples a respective first code element (14.1 - 14.9), wherein the number of first magnetic field sensors (16.1 - 16.8) is equal to or greater than the number P, and wherein the evaluation unit is configured to ascertain, on the basis of the measurement signals, the encoding offset of each sampled first code element (14.1 - 14.9) and the character encoded by this encoding offset and to determine an absolute position even without a relative position change of the code elements (14.1 - 14.9) relative to the first magnetic field sensor arrangement .
A computer implemented method carried out in a game server, the method comprising: processing (F2) map data to provide a simplified tile of map data, said processing causing removal of at least one map feature from said map data to provide a simplified tile of map data, wherein said simplified tile of map data is for use in playing a computer implemented game running on a user device; analysing (F3) the simplified tile of map data to identify and provide for said simplified tile of map data at least one gateway node , each gateway node being provided for a respective map feature crossing a boundary of said tile and providing with a corresponding gateway node of an adjacent tile a logical matching for the respective map feature across the boundary of said tile, such that the user device can store a logical connection indicating that the respective map feature extends across the boundary between said tile and said adjacent tile to define a route for navigation of a game element between said tile and said adjacent tile; and providing, via a network, said simplified tile of map data including the at least one gateway node to the user device. processing (F2) map data to provide a simplified tile of map data, said processing causing removal of at least one map feature from said map data to provide a simplified tile of map data, wherein said simplified tile of map data is for use in playing a computer implemented game running on a user device; analysing (F3) the simplified tile of map data to identify and provide for said simplified tile of map data at least one gateway node , each gateway node being provided for a respective map feature crossing a boundary of said tile and providing with a corresponding gateway node of an adjacent tile a logical matching for the respective map feature across the boundary of said tile, such that the user device can store a logical connection indicating that the respective map feature extends across the boundary between said tile and said adjacent tile to define a route for navigation of a game element between said tile and said adjacent tile; and providing, via a network, said simplified tile of map data including the at least one gateway node to the user device.