mhurhangee/ep-ind-claims huggingface dataset:
An elastomeric sanding block conformable to curved or flat surfaces, wherein the elastomeric sanding block has a Shore A hardness ranging from about 30 to about 90, and wherein the elastomeric sanding block is made from a plurality of components comprising: an admixture of ethylene-vinyl acetate copolymer and a low-density polyethylene homopolymer, wherein the admixture is in an amount that ranges from about 35 to about 70 percent of the composition by weight; and a blowing agent in an amount that ranges from about 1.5 to about 4.5 percent of the composition by weight. an admixture of ethylene-vinyl acetate copolymer and a low-density polyethylene homopolymer, wherein the admixture is in an amount that ranges from about 35 to about 70 percent of the composition by weight; and a blowing agent in an amount that ranges from about 1.5 to about 4.5 percent of the composition by weight.
Pipe connection of two pipes, where a joint, referred to as an inner joint, extending in the radial direction and open towards the inside of the pipe is provided between the two adjacent pipe ends, and a sealing ring which lies against the two adjacent pipe ends, where the sealing ring has a reinforcing profile in its profile cross section to stabilise the sealing ring against the radial forces acting on the sealing ring, which reinforcing profile extends around the entire circumference of the sealing ring, characterised in that the sealing ring is arranged in the inner joint and can be moved radially outwards and inwards within the inner joint.
A method for producing microvesicles comprising a transgene product and/or a lentiviral RNA comprising a transgene, comprising the steps of: culturing a cell into which the transgene has been introduced using a lentiviral vector in vitro to extracellularly release microvesicles comprising the transgene product and/or the lentiviral RNA comprising the transgene, wherein said lentiviral vector is deficient in at least one structural protein gene, wherein said at least one structural protein gene is selected from the group consisting of gag, pol and env genes, and said lentiviral vector comprises the transgene under control of a telomerase reverse transcriptase (TERT) gene promoter in a lentiviral genome sequence, and collecting the microvesicles released. culturing a cell into which the transgene has been introduced using a lentiviral vector in vitro to extracellularly release microvesicles comprising the transgene product and/or the lentiviral RNA comprising the transgene, wherein said lentiviral vector is deficient in at least one structural protein gene, wherein said at least one structural protein gene is selected from the group consisting of gag, pol and env genes, and said lentiviral vector comprises the transgene under control of a telomerase reverse transcriptase (TERT) gene promoter in a lentiviral genome sequence, and collecting the microvesicles released.
A method for fabricating a functionally-graded monolithic sintered working component for magnetic heat exchange, comprising: providing powder comprising elements in amounts suitable to form a La 1-a R a (Fe 1-x-y T y M x) 13 H z C b phase with a NaZn 13 -type structure, wherein T is one or more of the elements from the group consisting of Mn, Co, Ni, Ti, V and Cr, M is one or more of the elements from the group consisting of Si and Al, and R is one or more of the elements from the group consisting of Ce, Nd, Y and Pr, forming the powder to provide a green body in which the amount of the one or more elements T and R, if present, the amount of C, if present, and the amount of M varies in a pre-determined direction of the green body, heat treating the green body at a temperature T and for a time t selected to allow diffusion of one or more of the elements T, R and C, and forming a working component comprising a functionally-graded Curie temperature that monotonically increases or monotonically decreases in the pre-determined direction. providing powder comprising elements in amounts suitable to form a La 1-a R a (Fe 1-x-y T y M x) 13 H z C b phase with a NaZn 13 -type structure, wherein T is one or more of the elements from the group consisting of Mn, Co, Ni, Ti, V and Cr, M is one or more of the elements from the group consisting of Si and Al, and R is one or more of the elements from the group consisting of Ce, Nd, Y and Pr, forming the powder to provide a green body in which the amount of the one or more elements T and R, if present, the amount of C, if present, and the amount of M varies in a pre-determined direction of the green body, heat treating the green body at a temperature T and for a time t selected to allow diffusion of one or more of the elements T, R and C, and forming a working component comprising a functionally-graded Curie temperature that monotonically increases or monotonically decreases in the pre-determined direction.
A method for acquiring a magnetic resonance image dataset of at least two slices (S1, S2) by means of simultaneous multi-slice excitation, said method comprising the steps of: a) executing an MR imaging sequence using multi-band radio-frequency excitation pulses to excite the at least two slices (S1, S2) simultaneously, wherein the MR imaging sequence includes at least two repetitions (Rep1, Rep2), wherein the repetitions are executed according to a phase modulation scheme, in which each of the simultaneously excited slices is assigned a phase in each repetition, and the phase of at least one of the simultaneously excited slices is changed from one repetition to the next, thereby acquiring an MR dataset of a collapsed image (C1, C2) in each repetition; b) performing a spatial registration between the at least two collapsed images (C1, C2) and thereby obtaining translational and/or rotational correction parameters; c) performing motion correction on at least one of the MR datasets of the collapsed images (C1, C2) based on the correction parameters, thereby obtaining corrected MR datasets; and d) reconstructing MR images of the at least two slices from the corrected MR datasets of the collapsed images. a) executing an MR imaging sequence using multi-band radio-frequency excitation pulses to excite the at least two slices (S1, S2) simultaneously, wherein the MR imaging sequence includes at least two repetitions (Rep1, Rep2), wherein the repetitions are executed according to a phase modulation scheme, in which each of the simultaneously excited slices is assigned a phase in each repetition, and the phase of at least one of the simultaneously excited slices is changed from one repetition to the next, thereby acquiring an MR dataset of a collapsed image (C1, C2) in each repetition; b) performing a spatial registration between the at least two collapsed images (C1, C2) and thereby obtaining translational and/or rotational correction parameters; c) performing motion correction on at least one of the MR datasets of the collapsed images (C1, C2) based on the correction parameters, thereby obtaining corrected MR datasets; and d) reconstructing MR images of the at least two slices from the corrected MR datasets of the collapsed images.
A compound of Formula I: or a pharmaceutically acceptable solvate thereof, wherein: R 1 is H, F or methyl; R 1' is H; R 2 is H, F, Cl or methoxy; R 2' is H or F; R 3 is H, F, Cl, methyl, trifluoromethyl or nitrile; R 4 is methyl, ethyl, n -propyl, hydroxyethyl, methoxyethyl, trifluoromethyl, difluoromethyl or fluoromethyl; R 5 is methyl, ethyl, methoxymethyl, trifluoromethyl, difluoromethyl, fluoromethyl, 1-fluoroethyl, 1,1-difluoroethyl or 2,2,2-trifluoroethyl; X 1 is N and X 2 is S or O; or X 1 is S and X 2 is N; represents a single or a double bound depending on X 1 and X 2; stands for the -enantiomer or for the racemate of compound of Formula I. R 1 is H, F or methyl; R 1' is H; R 2 is H, F, Cl or methoxy; R 2' is H or F; R 3 is H, F, Cl, methyl, trifluoromethyl or nitrile; R 4 is methyl, ethyl, n -propyl, hydroxyethyl, methoxyethyl, trifluoromethyl, difluoromethyl or fluoromethyl; R 5 is methyl, ethyl, methoxymethyl, trifluoromethyl, difluoromethyl, fluoromethyl, 1-fluoroethyl, 1,1-difluoroethyl or 2,2,2-trifluoroethyl; X 1 is N and X 2 is S or O; or X 1 is S and X 2 is N; represents a single or a double bound depending on X 1 and X 2; stands for the -enantiomer or for the racemate of compound of Formula I.
A method for the electrical heating of food in a domestic appliance, at least comprising: - heating up the food inside a cavity of the domestic appliance at a full heating capacity of a plurality of heating elements (1100, 1110, 1120) until a predetermined heat-up temperature of the cavity is reached; - determining a food load of said food; - switching to a multi-cycle power control (8200, 8210, 8220) for said plurality of heating elements (1100, 1110, 1120) to maintain a predetermined food preparation temperature of the cavity, - wherein a predetermined number of said plurality of heating elements (1100, 1110, 1120) that corresponds to said determined food load is activated by said multi-cycle power control (8200, 8210, 8220) and a duty cycle of said activated number of heating elements (1100,1110, 1120) is adjusted according to said determined food load by said multi-cycle power control (8200, 8210, 8220); - controlling said predetermined food preparation temperature of the cavity with a thermostat, - the food load can be either set via user input (2310, 2320) or automatically determined during the heating up by determining and evaluating the time course of the temperature increase of at least one of the cavity and the food. - heating up the food inside a cavity of the domestic appliance at a full heating capacity of a plurality of heating elements (1100, 1110, 1120) until a predetermined heat-up temperature of the cavity is reached; - determining a food load of said food; - switching to a multi-cycle power control (8200, 8210, 8220) for said plurality of heating elements (1100, 1110, 1120) to maintain a predetermined food preparation temperature of the cavity, - wherein a predetermined number of said plurality of heating elements (1100, 1110, 1120) that corresponds to said determined food load is activated by said multi-cycle power control (8200, 8210, 8220) and a duty cycle of said activated number of heating elements (1100,1110, 1120) is adjusted according to said determined food load by said multi-cycle power control (8200, 8210, 8220); - controlling said predetermined food preparation temperature of the cavity with a thermostat, - the food load can be either set via user input (2310, 2320) or automatically determined during the heating up by determining and evaluating the time course of the temperature increase of at least one of the cavity and the food.
A method for acquiring remote-procedure-call member information, comprising: pushing, by nodes of a RPC cluster, respective local member lists of the nodes of the RPC cluster to each other, and merging, by each node of the RPC cluster, a received member list with a current local member list while performing deduplication, until member lists of the nodes of the RPC cluster are synchronized, such that each node obtains information of all the node of the RPC cluster; wherein the information of each node of the RPC cluster comprises a current node state of the node; wherein the step of merging the received member list with the current local member list and performing deduplication by each node of the RPC cluster comprises: in the case that a same node exists in different member lists and that the node states of the same node in the different member lists are different, determining the node state of the node in the merged member list according to priorities of the node states; wherein the node states comprise an alive state and a dead state, and a priority of the dead state is higher than a priority of the alive state. pushing, by nodes of a RPC cluster, respective local member lists of the nodes of the RPC cluster to each other, and merging, by each node of the RPC cluster, a received member list with a current local member list while performing deduplication, until member lists of the nodes of the RPC cluster are synchronized, such that each node obtains information of all the node of the RPC cluster; wherein the information of each node of the RPC cluster comprises a current node state of the node; wherein the step of merging the received member list with the current local member list and performing deduplication by each node of the RPC cluster comprises: in the case that a same node exists in different member lists and that the node states of the same node in the different member lists are different, determining the node state of the node in the merged member list according to priorities of the node states; wherein the node states comprise an alive state and a dead state, and a priority of the dead state is higher than a priority of the alive state. in the case that a same node exists in different member lists and that the node states of the same node in the different member lists are different, determining the node state of the node in the merged member list according to priorities of the node states; wherein the node states comprise an alive state and a dead state, and a priority of the dead state is higher than a priority of the alive state.
A process for the production of an electro-optic display, the process comprising: forming a front plane laminate comprising, in order, a light-transmissive electrically-conductive layer, a layer of electro-optic material, and a layer of lamination adhesive; the process being characterized by: forming an aperture through all three layers of the front plane laminate; and introducing a flowable, electrically-conductive material into the aperture, the flowable, electrically-conductive material being in electrical contact with the light-transmissive electrically-conductive layer and extending through the adhesive layer. forming a front plane laminate comprising, in order, a light-transmissive electrically-conductive layer, a layer of electro-optic material, and a layer of lamination adhesive; the process being characterized by: forming an aperture through all three layers of the front plane laminate; and introducing a flowable, electrically-conductive material into the aperture, the flowable, electrically-conductive material being in electrical contact with the light-transmissive electrically-conductive layer and extending through the adhesive layer. forming an aperture through all three layers of the front plane laminate; and introducing a flowable, electrically-conductive material into the aperture, the flowable, electrically-conductive material being in electrical contact with the light-transmissive electrically-conductive layer and extending through the adhesive layer.
A pressure volume regulator for control of supply and pressure of barrier fluid for pumps and compressors subsea, comprising an inlet for barrier fluid at an inlet pressure, a first outlet and a second outlet, the inlet pressure is higher than the first outlet pressure, and the first outlet pressure is higher than the second outlet pressure, characterized in that the inlet and the second outlet are interlocked by a movable longitudinal interlock member operating inlet valve elements (16, 17) and outlet valve elements (7, 8, 9) operatively arranged at respective two ends of the interlock member, such that the inlet and the second outlet, respectively, are opened when the interlock member is moved in the direction towards the respective end, wherein said movement of the interlock member is by effect of pressurized fluid, the length of the interlock member plus said valve elements is too short to simultaneously set the valve elements at the respective ends in an open position, thus ensuring that the inlet and the second outlet can never be in an open position at the same time.
A method implemented by a network device in a network for monitoring a segment of the network without direct access to an internal configuration or state of the segment, the method comprising: receiving a request to perform a network function validation task on a monitoring zone within the network, the monitoring zone including a subset of network devices of the network, wherein the monitoring zone has an ingress data path that carries ingress traffic into the monitoring zone and an egress data path that carries egress traffic out of the monitoring zone; configuring the network to mirror the ingress traffic or the egress traffic to a configurable probe in the network; obtaining an indication of an expected traffic processing behavior of a network function implemented in the monitoring zone; configuring the configurable probe to install a network function validation task that validates whether the mirrored ingress traffic of the monitoring zone and the mirrored egress traffic of the monitoring zone are consistent with the expected traffic processing behavior of the network function; configuring the configurable probe to perform the network function validation task on the monitoring zone, wherein the configurable probe is configured to perform the network function validation task based on analysis of the mirrored ingress traffic or the mirrored egress traffic; and receiving a result of the network function validation task from the configurable probe. receiving a request to perform a network function validation task on a monitoring zone within the network, the monitoring zone including a subset of network devices of the network, wherein the monitoring zone has an ingress data path that carries ingress traffic into the monitoring zone and an egress data path that carries egress traffic out of the monitoring zone; configuring the network to mirror the ingress traffic or the egress traffic to a configurable probe in the network; obtaining an indication of an expected traffic processing behavior of a network function implemented in the monitoring zone; configuring the configurable probe to install a network function validation task that validates whether the mirrored ingress traffic of the monitoring zone and the mirrored egress traffic of the monitoring zone are consistent with the expected traffic processing behavior of the network function; configuring the configurable probe to perform the network function validation task on the monitoring zone, wherein the configurable probe is configured to perform the network function validation task based on analysis of the mirrored ingress traffic or the mirrored egress traffic; and receiving a result of the network function validation task from the configurable probe.
A subsurface hanger apparatus for suspending an electrical submersible pump in subsurface tubing of a well, the apparatus including: a spool assembly, the spool assembly having: a tubular shaped spool housing, a spool electrical pad, and a spool cable lead extending out of the spool housing; a hanger assembly, the hanger assembly having: a cylindrical hanger housing, a hanger electrical pad, a hanger cable lead extending out of the hanger assembly in a direction opposite the spool cable lead, a cable hanger sub circumscribing the hanger cable lead, and a fluid flow path through the hanger assembly defined by a crossover tube located between the cylindrical hanger housing and the cable hanger sub, and an insert tube of the cylindrical hanger housing; where the hanger electrical pad is positioned to engage the spool electrical pad when the hanger assembly is landed within, and supported by, the spool assembly, and the hanger electrical pad is moveable radially between a retracted position and an extended position, where in the extended position the hanger electrical pad is located to engage the spool electrical pad and prevent axial motion of the hanger assembly relative to the spool assembly. a spool assembly, the spool assembly having: a tubular shaped spool housing, a spool electrical pad, and a spool cable lead extending out of the spool housing; a tubular shaped spool housing, a spool electrical pad, and a spool cable lead extending out of the spool housing; a hanger assembly, the hanger assembly having: a cylindrical hanger housing, a hanger electrical pad, a hanger cable lead extending out of the hanger assembly in a direction opposite the spool cable lead, a cable hanger sub circumscribing the hanger cable lead, and a fluid flow path through the hanger assembly defined by a crossover tube located between the cylindrical hanger housing and the cable hanger sub, and an insert tube of the cylindrical hanger housing; where a cylindrical hanger housing, a hanger electrical pad, a hanger cable lead extending out of the hanger assembly in a direction opposite the spool cable lead, a cable hanger sub circumscribing the hanger cable lead, and a fluid flow path through the hanger assembly defined by a crossover tube located between the cylindrical hanger housing and the cable hanger sub, and an insert tube of the cylindrical hanger housing; where the hanger electrical pad is positioned to engage the spool electrical pad when the hanger assembly is landed within, and supported by, the spool assembly, and the hanger electrical pad is moveable radially between a retracted position and an extended position, where in the extended position the hanger electrical pad is located to engage the spool electrical pad and prevent axial motion of the hanger assembly relative to the spool assembly.
A compound of Formula VIb1: or pharmaceutically acceptable derivatives thereof, wherein R 1b1 is 2-pyridyl; R 8b1 is H; R 9b1 is substituted phenyl or C NR 6 R 7; and R 6 and R 7 are independently selected from hydrogen, alkyl, alkenyl, alkynyl, aryl, heteroaryl, heterocyclyl, cycloalkyl, heterocycloalkyl, or R 6 and R 7 are combined to form a cyclic structure including the nitrogen atom to which they are both attached. wherein R 1b1 is 2-pyridyl; R 8b1 is H; R 9b1 is substituted phenyl or C NR 6 R 7; and R 6 and R 7 are independently selected from hydrogen, alkyl, alkenyl, alkynyl, aryl, heteroaryl, heterocyclyl, cycloalkyl, heterocycloalkyl, or R 6 and R 7 are combined to form a cyclic structure including the nitrogen atom to which they are both attached.
A refrigerator including a heat insulation box including an outer box, an inner box provided inside the outer box and a vacuum heat insulation panel provided between the outer box and the inner box, wherein the inner box includes a right inner plate, a left inner plate, and a rear inner plate, wherein the left inner plate constitutes a left inner surface of the inner box, the right inner plate constitutes a right inner surface of the inner box and the rear inner plate constitutes a rear inner surface of the inner box, each one of the inner plates (15A, 15B, 15E) being constructed of a flat-plate shaped sheet member (Sa, Sb) made from a synthetic resin, characterized in that two inner plates (15A to 15E) are connected to each other by a sheet member connecting member (25, 25-2) and a fixture provided on each of the inner plates (15A to 15E), said fixture protruding to a refrigerator interior side and comprising a screw hole, the sheet member connecting member (25, 25-2) comprising scrow insertion holes, wherein a screw is inserted through each screw insertion hole and screwed into each screw hole thereby connecting the inner plates (15A to 15E) to each other through the sheet member connecting member (25, 25-2).