mhurhangee/ep-ind-claims huggingface dataset:
A method of quantifying mRNA capping efficiency, the method comprising: providing an mRNA sample comprising capped mRNA and uncapped mRNA; contacting the mRNA sample with a DNA oligonucleotide complementary to a sequence in the 5' untranslated region of the mRNA within 1 or 2 bases from the cap or uncapped penultimate base of the mRNA under conditions that permit the DNA oligonucleotide to anneal to the sequence; providing one or more nucleases that selectively degrade DNA/RNA hybrid, resulting in capped and uncapped fragments comprising no more than 5 bases of the mRNA; separating the capped and uncapped fragments by chromatography; and determining the relative amount of the capped and uncapped fragments by determining the relative peak areas of the chromatogram of the capped and uncapped fragments, thereby quantifying mRNA capping efficiency. providing an mRNA sample comprising capped mRNA and uncapped mRNA; contacting the mRNA sample with a DNA oligonucleotide complementary to a sequence in the 5' untranslated region of the mRNA within 1 or 2 bases from the cap or uncapped penultimate base of the mRNA under conditions that permit the DNA oligonucleotide to anneal to the sequence; providing one or more nucleases that selectively degrade DNA/RNA hybrid, resulting in capped and uncapped fragments comprising no more than 5 bases of the mRNA; separating the capped and uncapped fragments by chromatography; and determining the relative amount of the capped and uncapped fragments by determining the relative peak areas of the chromatogram of the capped and uncapped fragments, thereby quantifying mRNA capping efficiency.
An ink-jet ink, comprising: water, and at least 20 wt% solids, said solids including pigment particulates and silica particulates dispersed in the ink-jet ink, as well as solid humectant substantially dissolved in the ink-jet ink, said ink-jet ink formulated such that pigment particulates, silica particulates, and solid humectant substantially remain with a dried image printed with said ink-jet ink, wherein the solid humectant is polyethylene glycol having a molecular weight of 1000 Mw or above. water, and at least 20 wt% solids, said solids including pigment particulates and silica particulates dispersed in the ink-jet ink, as well as solid humectant substantially dissolved in the ink-jet ink, said ink-jet ink formulated such that pigment particulates, silica particulates, and solid humectant substantially remain with a dried image printed with said ink-jet ink, wherein the solid humectant is polyethylene glycol having a molecular weight of 1000 Mw or above.
A brain registration system, comprising: a registration processor having a processor configured to: annotate brain image data, thereby obtaining a segmentation of brain structures in the brain image data; register the brain image data with template image data using global brain registration, thereby obtaining registered brain image data comprising registered brain structures; compensate for incorrect registration of at least one sub-structure of the registered brain structures, characterized by said compensation comprising: identifying a linking joint between a pair of sub-structures of the registered brain structures, a linking joint being a point by which the two sub-structures are connected; rotating at least one of the pair of sub-structures in the registered brain image data about the linking joint to maximize a similarity with the template image data in accordance with a similarity metric which is computed between the registered brain image data comprising said rotated sub-structure and the template image data. annotate brain image data, thereby obtaining a segmentation of brain structures in the brain image data; register the brain image data with template image data using global brain registration, thereby obtaining registered brain image data comprising registered brain structures; compensate for incorrect registration of at least one sub-structure of the registered brain structures, characterized by said compensation comprising: identifying a linking joint between a pair of sub-structures of the registered brain structures, a linking joint being a point by which the two sub-structures are connected; rotating at least one of the pair of sub-structures in the registered brain image data about the linking joint to maximize a similarity with the template image data in accordance with a similarity metric which is computed between the registered brain image data comprising said rotated sub-structure and the template image data. identifying a linking joint between a pair of sub-structures of the registered brain structures, a linking joint being a point by which the two sub-structures are connected; rotating at least one of the pair of sub-structures in the registered brain image data about the linking joint to maximize a similarity with the template image data in accordance with a similarity metric which is computed between the registered brain image data comprising said rotated sub-structure and the template image data.
A method for testing edge computing, comprising: obtaining (S101, S210, S310, S410, S540) a model to be tested from a mobile edge platform, wherein the mobile edge platform is associated with a deep learning model and wherein the mobile edge platform is configured to transform a model of a cloud into a model that is be applied to an edge device, the transformed model being the model to be tested; generating (S102, S220, S320, S420, S550) a test task based on the model to be tested, the test task comprising the model to be tested and an automated test program for operating the model to be tested; delivering (S103, S330, S430, S560) the test task to an edge device, to enable the edge device to operate the model to be tested by executing the automated test program; and generating (S104, S280, S360, S570) a test result based on execution information of the test task, the test result reflecting availability and correctness of the model to be tested and ability and performance of the edge device compatible with the model to be tested. obtaining (S101, S210, S310, S410, S540) a model to be tested from a mobile edge platform, wherein the mobile edge platform is associated with a deep learning model and wherein the mobile edge platform is configured to transform a model of a cloud into a model that is be applied to an edge device, the transformed model being the model to be tested; generating (S102, S220, S320, S420, S550) a test task based on the model to be tested, the test task comprising the model to be tested and an automated test program for operating the model to be tested; delivering (S103, S330, S430, S560) the test task to an edge device, to enable the edge device to operate the model to be tested by executing the automated test program; and generating (S104, S280, S360, S570) a test result based on execution information of the test task, the test result reflecting availability and correctness of the model to be tested and ability and performance of the edge device compatible with the model to be tested.
A lacing system comprising: a tensioning device (2220, 1744); a tensioning mechanism (2210, 1742) that is operated via the tensioning device (2220, 1744); and a plurality of tension members (2202a/b, 1748) that are coupled with the tensioning mechanism (2210, 1742) and tensionable thereby, the plurality of tension members (2202a/b, 1748) being arrangeable longitudinally about an opening of an article (2200, 1740) and configured to narrow a gap of the opening upon tensioning of the plurality of tension members (2202a/b, 1748) in order to tighten the article, wherein the tensioning mechanism (2210, 1742) is configured to effect a simultaneous and repeatable tensioning of each tension member of the plurality of tension members (2202a/b, 1748); characterized in that the tensioning mechanism (2210, 1742) is further configured to equalize the tension in each tension member of the plurality of tension members (2202a/b, 1748) during tensioning of the plurality of tension members (2202a/b, 1748); a lace is coupled with the tensioning mechanism (2210, 1742) and the tensioning device (2220, 1744), the lace being tensionable via operation of the tensioning device (2220, 1744) to effect movement of the tensioning mechanism (2210, 1742); and the tensioning mechanism (2210, 1742) includes one or more posts or pulleys (1746, 2208) about which at least one tension member (2202a, 1748) is slidably positioned so that the at least one tension member (2202a, 1748) is able to adjust and equalize the tension in the at least one tension member (2202a, 1748). a tensioning device (2220, 1744); a tensioning mechanism (2210, 1742) that is operated via the tensioning device (2220, 1744); and a plurality of tension members (2202a/b, 1748) that are coupled with the tensioning mechanism (2210, 1742) and tensionable thereby, the plurality of tension members (2202a/b, 1748) being arrangeable longitudinally about an opening of an article (2200, 1740) and configured to narrow a gap of the opening upon tensioning of the plurality of tension members (2202a/b, 1748) in order to tighten the article, wherein the tensioning mechanism (2210, 1742) is configured to effect a simultaneous and repeatable tensioning of each tension member of the plurality of tension members (2202a/b, 1748); characterized in that the tensioning mechanism (2210, 1742) is further configured to equalize the tension in each tension member of the plurality of tension members (2202a/b, 1748) during tensioning of the plurality of tension members (2202a/b, 1748); a lace is coupled with the tensioning mechanism (2210, 1742) and the tensioning device (2220, 1744), the lace being tensionable via operation of the tensioning device (2220, 1744) to effect movement of the tensioning mechanism (2210, 1742); and the tensioning mechanism (2210, 1742) includes one or more posts or pulleys (1746, 2208) about which at least one tension member (2202a, 1748) is slidably positioned so that the at least one tension member (2202a, 1748) is able to adjust and equalize the tension in the at least one tension member (2202a, 1748).
A composition comprising (i) a carrier; (ii) a plurality of first hydrophobic groups, wherein the first hydrophobic group is covalently linked to the carrier, is capable of binding a load molecule, and has a molecular weight of less than about 1,000 Daltons independent of the carrier weight; (iii) a plurality of first protective side chains, and (iv) a load molecule dissociably linked to the hydrophobic groups wherein: each first protective side chain is covalently linked to the carrier and has a molecular weight between about 400 and 20,000 Daltons independent of the carrier weight, each first protective side chain is polyethylene glycol or methoxypolyethylene glycol, each first hydrophobic group comprises an alkyl group which is a branched or straight chain hydrocarbon with 4 to 36 carbon atoms, the carrier is polylysine; and the load molecule is a therapeutic agent selected from glucagon-like-peptide, exenatide, glucagon-like-peptide-1 and glucagon-like-peptide-2. each first protective side chain is covalently linked to the carrier and has a molecular weight between about 400 and 20,000 Daltons independent of the carrier weight, each first protective side chain is polyethylene glycol or methoxypolyethylene glycol, each first hydrophobic group comprises an alkyl group which is a branched or straight chain hydrocarbon with 4 to 36 carbon atoms, the carrier is polylysine; and the load molecule is a therapeutic agent selected from glucagon-like-peptide, exenatide, glucagon-like-peptide-1 and glucagon-like-peptide-2.
Nut comprising a body having a through-hole having at least one tapped interior portion configured to enable the nut to be screwed onto a shank in operation and a cylindrical pivoting portion (36, 36') having an axis of pivoting (A36, A36'), the nut comprising a washer having a pivoting portion (44, 44') configured to cooperate with the pivoting portion (36, 36') of the body so that the washer can pivot relative to the body, and a through-hole comprising a first plain interior portion (42.1) having an axis (A42.1), the pivoting portion (44, 44') of the washer having an axis of pivoting (A44, A44') that is eccentric with respect to the axis (A42.1) of the first interior portion (42.1) of the washer and/or the tapped interior portion of the body having an axis of screw-fastening that is eccentric with respect to the axis of pivoting (A36, A36') of the pivoting portion (36, 36') of the body, the first interior portion (42.1) of the washer comprising a cross section that is such that, when a shank is screwed into the tapped interior portion in operation, the first interior portion (42.1) does not interfere with the shank in at least one first angular position of the washer and does interfere with the shank in at least one second angular position of the washer, the pivoting portions of the body and of the washer (36, 36', 44, 44') being coaxial in operation, characterized in that the pivoting portion (36, 36') of the body is threaded or tapped and in that the pivoting portion (44, 44') of the washer is tapped or threaded so as to enable the washer to be screwed onto the body.
An electrochemical cell (10, 110), comprising: - a thin metal foil packaging (15, 115) including at least one sheet (20, 40, 120) of metal foil and having a perimeter extending around at least a portion of the electrochemical cell (10, 110); - an electrochemical cell stack bonded (25, 125) to the thin metal foil packaging (15, 115); and - a metal-to-metal welded seal (30, 130) located around at least a portion of the perimeter of the thin metal foil packaging (15, 115), wherein the metal-to-metal welded seal (30, 130) has a width of less than about 1 mm. - a thin metal foil packaging (15, 115) including at least one sheet (20, 40, 120) of metal foil and having a perimeter extending around at least a portion of the electrochemical cell (10, 110); - an electrochemical cell stack bonded (25, 125) to the thin metal foil packaging (15, 115); and - a metal-to-metal welded seal (30, 130) located around at least a portion of the perimeter of the thin metal foil packaging (15, 115),
Battery power plant comprising a plurality of battery modules of the redox-flow type, wherein the battery modules are arranged in a plurality of battery strings connected in parallel, and wherein a battery string respectively comprises a plurality of battery modules which are connected in series, and wherein each battery module comprises a tank device for storing electrolyte, at least one temperature sensor and at least one heat exchanger, wherein the temperature sensor is arranged such that it is able to detect an electrolyte temperature, and wherein the heat exchanger is arranged and formed such that it can exchange heat with an electrolyte, and wherein the battery power plant comprises a cooling system for supplying the heat exchangers of the battery modules with a cooling fluid, and wherein the cooling system comprises a cooling circuit with a feed flow and a return flow, at least one cooling device and at least one circulating pump for circulating the cooling fluid in the cooling circuit, and wherein the cooling device is configured such that it can influence a temperature difference between feed flow and return flow, and wherein the cooling system comprises at least two further temperature sensors for detecting the temperature of feed flow and return flow, characterized in that all battery modules are connected to the feed flow and return flow of the cooling circuit such that the cooling circuit forms a parallel connection of all battery modules, and wherein the cooling system comprises at least one three-way valve which is arranged to control a volume flow of the cooling fluid flowing through the cooling device, and wherein the cooling system comprises for each battery module at least one valve which is arranged to be able to control a volume flow of the cooling fluid flowing through the heat exchanger of the associated battery module, and wherein the cooling system comprises a control device adapted to be able to process the measurement values detected by the temperature sensors (4, 12) and to control the positions of the valves and of the three-way valve so as to improve an efficiency of the battery power plant.
A device (70, 150) for washing a composition comprising red blood cells (124, 210), the device comprising: a body (72, 152) having a first surface (74, 154), a second opposing surface (76, 156), a first side wall (106, 180), a second opposing side wall (106, 180), a first end (78, 158), and a second end (80, 160), the body defining a channel (82, 162) extending along a longitudinal axis (84, 163) from the first end to the second end, wherein the channel comprises a separation region (100, 174) and a mixing region (98, 172), the body (72, 152) further including a first planar shelf (94, 181) proximate the first end (78, 158) arranged to isolate a first inflow stream from a second inflow stream prior to the first inflow stream and second inflow stream entering the mixing region (98, 172); a first protrusion forming the first side wall (106, 180) within the channel (82, 162) and extending along the longitudinal axis (84, 163); a second protrusion forming the second side wall (106, 180) within the channel (82, 162) and extending along the longitudinal axis (84, 163), wherein the first and second protrusions are composed of a phantom material; a first wave component (110, 186) coupled to the first surface; and a second wave component (112, 188) coupled to the second surface, wherein the separation region (100, 174) of the channel is positioned between the first wave component (110, 186) and the second wave component (112, 188), and wherein the first wave component and second wave component are configured to generate a first standing acoustic wave. a body (72, 152) having a first surface (74, 154), a second opposing surface (76, 156), a first side wall (106, 180), a second opposing side wall (106, 180), a first end (78, 158), and a second end (80, 160), the body defining a channel (82, 162) extending along a longitudinal axis (84, 163) from the first end to the second end, wherein the channel comprises a separation region (100, 174) and a mixing region (98, 172), the body (72, 152) further including a first planar shelf (94, 181) proximate the first end (78, 158) arranged to isolate a first inflow stream from a second inflow stream prior to the first inflow stream and second inflow stream entering the mixing region (98, 172); a first protrusion forming the first side wall (106, 180) within the channel (82, 162) and extending along the longitudinal axis (84, 163); a second protrusion forming the second side wall (106, 180) within the channel (82, 162) and extending along the longitudinal axis (84, 163), wherein the first and second protrusions are composed of a phantom material; a first wave component (110, 186) coupled to the first surface; and a second wave component (112, 188) coupled to the second surface, wherein the separation region (100, 174) of the channel is positioned between the first wave component (110, 186) and the second wave component (112, 188), and wherein the first wave component and second wave component are configured to generate a first standing acoustic wave.
A tool for inserting an O-ring into a dental prosthesis cap comprising: (a) a driver comprising a first driving end portion having an O-ring engaging member extending outwardly from the driving end portion; and (b) a first bushing sleeve having a first end, a second end and a bore therethrough extending from the first end to the second end, wherein the first end of the bushing sleeve has an inner rib for retaining the O-ring in the first end of the bushing sleeve, and wherein the bore has an inner surface having a tapered portion extending over a portion of the bore; wherein the O-ring engaging member is configured to be inserted into the first end of the bushing sleeve to engage an O-ring to be inserted into a cap and wherein the O-ring engaging member can move relative to the inner surface of the bore and deforms inwardly as the O-ring engaging member moves in the direction from the first end to the second end of the bushing sleeve. (a) a driver comprising a first driving end portion having an O-ring engaging member extending outwardly from the driving end portion; and (b) a first bushing sleeve having a first end, a second end and a bore therethrough extending from the first end to the second end, wherein the first end of the bushing sleeve has an inner rib for retaining the O-ring in the first end of the bushing sleeve, and wherein the bore has an inner surface having a tapered portion extending over a portion of the bore;
A method of wireless communication operable at a scheduled entity which is a User Equipment, UE, comprising: receiving a polar code block comprising multiplexed control information for a plurality of scheduled entities, which are UEs, including dedicated control information for the scheduled entity, wherein the dedicated control information for each of the plurality of scheduled entities have the same size and wherein the dedicated control information is grouped into a plurality of control information groups in accordance with channel conditions associated with each of the plurality of scheduled entities; decoding the polar code block utilizing polar decoding; verifying an integrity of a decoded control information group of the plurality of control information groups based on a group cyclic redundancy check; locating dedicated control information (702, 704) for the scheduled entity from within the multiplexed control information; and verifying an integrity of the dedicated control information (702, 704) based on an individual cyclic redundancy check. receiving a polar code block comprising multiplexed control information for a plurality of scheduled entities, which are UEs, including dedicated control information for the scheduled entity, wherein the dedicated control information for each of the plurality of scheduled entities have the same size and wherein the dedicated control information is grouped into a plurality of control information groups in accordance with channel conditions associated with each of the plurality of scheduled entities; decoding the polar code block utilizing polar decoding; verifying an integrity of a decoded control information group of the plurality of control information groups based on a group cyclic redundancy check; locating dedicated control information (702, 704) for the scheduled entity from within the multiplexed control information; and verifying an integrity of the dedicated control information (702, 704) based on an individual cyclic redundancy check.