mhurhangee/ep-ind-claims huggingface dataset:
A system for routing electronic content to a recipient device comprising: a plurality of network nodes, each network node adapted to receive and forward electronic content to the recipient device or to another network node for relaying the electronic content towards the recipient device; and an activity profile server adapted to be in data communication with each network node, the activity profile server adapted to monitor an activity level of each network node and inform each network node on a congestion level of an adjacent network node based on a historical utilization rate of each network node from a network management system or the non-peak usage times based on tracked revenue activities; the activity profile server is further adapted to monitor an activity profile of the recipient device so as to determine a suitable delivery time of the electronic content from the network node to the recipient device, characterised in that each network node is adapted, on receiving the information on the congestion level of the adjacent network node or the activity profile of the recipient device, to forward the electronic content if the adjacent network node is not congested or if it is a suitable delivery time for the recipient device, and store the electronic content for a deferred delivery if otherwise. a plurality of network nodes, each network node adapted to receive and forward electronic content to the recipient device or to another network node for relaying the electronic content towards the recipient device; and an activity profile server adapted to be in data communication with each network node, the activity profile server adapted to monitor an activity level of each network node and inform each network node on a congestion level of an adjacent network node based on a historical utilization rate of each network node from a network management system or the non-peak usage times based on tracked revenue activities; the activity profile server is further adapted to monitor an activity profile of the recipient device so as to determine a suitable delivery time of the electronic content from the network node to the recipient device, characterised in that each network node is adapted, on receiving the information on the congestion level of the adjacent network node or the activity profile of the recipient device, to forward the electronic content if the adjacent network node is not congested or if it is a suitable delivery time for the recipient device, and store the electronic content for a deferred delivery if otherwise.
A method of operating a Network Function Virtualization, NFV, Management and Orchestration, MANO, data communication system (120, 220) comprising NFV MANO data communication system (120, 220) driving an NFV Infrastructure, NFVI, to support a Network Service, NS, the method comprising: the NFV MANO data communication system (120, 220) exchanging hardware trust data with a hardware-trusted subsystem (104, 204, 510) in the NFVI (101, 201) over a trusted Nf-Vi link to maintain hardware trust with the hardware-trusted subsystem (104, 204, 510) in the NFVI (101, 201); the NFV MANO data communication system (120, 220) exchanging NS operation data with a network operations system (110, 210) over an Os-Nfvo link and responsively exchanging first network data over another Nf-Vi link to drive the NFVI (101, 201) to execute a Virtual Network Function, VNF, (102, 202) externally to the hardware-trusted subsystem (104, 204, 510) to support the NS; and the NFV MANO data communication system (120, 220) exchanging trust operation data for the NS with the network operations system (110, 210) over the Os-Nfvo link and responsively exchanging second network data with the hardware-trusted subsystem (104, 204, 510) in the NFVI (101, 201) over the trusted Nf-Vi link to drive the hardware-trusted subsystem (104, 204, 510) to execute the VNF (102, 202) to support the NS. the NFV MANO data communication system (120, 220) exchanging hardware trust data with a hardware-trusted subsystem (104, 204, 510) in the NFVI (101, 201) over a trusted Nf-Vi link to maintain hardware trust with the hardware-trusted subsystem (104, 204, 510) in the NFVI (101, 201); the NFV MANO data communication system (120, 220) exchanging NS operation data with a network operations system (110, 210) over an Os-Nfvo link and responsively exchanging first network data over another Nf-Vi link to drive the NFVI (101, 201) to execute a Virtual Network Function, VNF, (102, 202) externally to the hardware-trusted subsystem (104, 204, 510) to support the NS; and the NFV MANO data communication system (120, 220) exchanging trust operation data for the NS with the network operations system (110, 210) over the Os-Nfvo link and responsively exchanging second network data with the hardware-trusted subsystem (104, 204, 510) in the NFVI (101, 201) over the trusted Nf-Vi link to drive the hardware-trusted subsystem (104, 204, 510) to execute the VNF (102, 202) to support the NS.
A wafer chuck comprising a surface configured to support a wafer, said surface being processed tribologically such as to minimize the slope of the roughness of said surface as measured in a radial direction, wherein said surface comprises scratches oriented predominantly radially, wherein said surface has a lower coefficient of friction in a radial direction than in a circumferential direction. wherein said surface comprises scratches oriented predominantly radially, wherein said surface has a lower coefficient of friction in a radial direction than in a circumferential direction.
Use of a composition comprising: flour, silicate, SiO 2, MgO, Al 2 O 3, Fe 2 O 3, K 2 O, clay and wheat germ in a method of reducing the acidity of cold pressed edible oils to a value below 0.8% acidity; wherein said composition comprises 2 to 20% by weight wheat-germ, 10 to 50% by weight flour, 20 to 60% by weight clay, and 15 to 45% by weight silicate.
Calibration device for the extrusion of profiles from plastic with a tank calibration device, comprising at least two tank calibrators (21, 22, 23, 24) which have an opening and have a running surface for the extruded profile and which are arranged in a vacuum tank with cooling water and via the outer surface of which the heat of the extruded profile can be transferred at least partially to the cooling water, wherein - the at least two tank calibrators (21, 22, 23, 24) have at least one cooling channel for cooling of the running surfaces, wherein water can flow through the at least one cooling channel, said water coming from a cooling-water conveying means and/or a cooling channel of a tank calibrator (21, 22, 23, 24) situated upstream or downstream in relation to the direction of extrusion, - the distance between the at least two tank calibrators (21, 22, 23, 24) is between 0 and 50 mm, and - the tank calibration device is coupled to a dry calibration device which has one to four dry calibrators (11, 12), characterized in that - the axial length of the tank calibrators (21, 22, 23, 24) corresponds at least to the height and/or the width of the nominal size of the profile, and - the water level in the vacuum tank can be set and/or regulated so as to be higher than the extruded profile. - the at least two tank calibrators (21, 22, 23, 24) have at least one cooling channel for cooling of the running surfaces, wherein water can flow through the at least one cooling channel, said water coming from a cooling-water conveying means and/or a cooling channel of a tank calibrator (21, 22, 23, 24) situated upstream or downstream in relation to the direction of extrusion, - the distance between the at least two tank calibrators (21, 22, 23, 24) is between 0 and 50 mm, and - the tank calibration device is coupled to a dry calibration device which has one to four dry calibrators (11, 12), - the axial length of the tank calibrators (21, 22, 23, 24) corresponds at least to the height and/or the width of the nominal size of the profile, and - the water level in the vacuum tank can be set and/or regulated so as to be higher than the extruded profile.
A scroll-type fluid machine comprising: a fixed scroll; an orbiting scroll that faces the fixed scroll and makes orbiting movement; a casing that is provided radially outside of the orbiting scroll; a drive shaft that drives the orbiting scroll; an orbiting bearing that supports the drive shaft with respect to the orbiting scroll; a self-rotation preventing mechanism that prevents self-rotation of the orbiting scroll, and a piping configured to supply lubricant to the orbiting bearing and/or to the self-rotation preventing mechanism said piping having a grease nipple having a proximal end directed to the piping and a distal end opposite to the proximal end, wherein the orbiting scroll is provided with a boss plate that is attached to the drive shaft, wherein said boss plate is provided on a surface of the orbiting scroll on an opposite side of a surface facing the fixed scroll and wherein the piping is provided on the boss plate, characterized in that the distal end of the grease nipple of the piping faces an opening part provided between the casing and the fixed scroll or an opening part (19A, 19C) provided on the fixed scroll or the casing, wherein the opening part (19, 19A, 19C) opens in a direction parallel to the boss plate. a fixed scroll; an orbiting scroll that faces the fixed scroll and makes orbiting movement; a casing that is provided radially outside of the orbiting scroll; a drive shaft that drives the orbiting scroll; an orbiting bearing that supports the drive shaft with respect to the orbiting scroll; a self-rotation preventing mechanism that prevents self-rotation of the orbiting scroll, and a piping configured to supply lubricant to the orbiting bearing and/or to the self-rotation preventing mechanism said piping having a grease nipple having a proximal end directed to the piping and a distal end opposite to the proximal end, wherein the orbiting scroll is provided with a boss plate that is attached to the drive shaft, wherein said boss plate is provided on a surface of the orbiting scroll on an opposite side of a surface facing the fixed scroll and wherein the piping is provided on the boss plate, characterized in that the distal end of the grease nipple of the piping faces an opening part provided between the casing and the fixed scroll or an opening part (19A, 19C) provided on the fixed scroll or the casing, wherein the opening part (19, 19A, 19C) opens in a direction parallel to the boss plate.
A light-emitting device for use in phototherapy comprising: a light-emitting layer comprising a compound selected from the group consisting of: and a light-emitting layer comprising a compound selected from the group consisting of: and
A sheet-like prepreg comprising: a curable composition; and a sheet-like porous support impregnated with the curable composition, the sheet-like porous support being made from a material having a coefficient of linear thermal expansion of 10 ppm/K or less, wherein the material having a coefficient of linear thermal expansion of 10 ppm/K or less includes celluloses, the sheet-like prepreg giving a cured product having a glass transition temperature of from -60°C to 100°C, the curable composition comprising: one or more curable compounds; and at least one of a curing agent and a curing catalyst, the curable compounds comprising an epoxide having a weight per epoxy equivalent of 140 to 3000 g/eq in an amount of 50 weight percent or more of the totality of the curable compounds, wherein the curable composition has a weighted average of molecular weight per functional group of all the curable compounds (all the curable compounds and all the curing agents when the curable composition comprises one or more curing agents) contained in the curable composition of 180 to 1000 g/eq, wherein the glass transition temperature and coefficient of linear thermal expansion are measured as described in the specification. a curable composition; and a sheet-like porous support impregnated with the curable composition, the sheet-like porous support being made from a material having a coefficient of linear thermal expansion of 10 ppm/K or less, wherein the material having a coefficient of linear thermal expansion of 10 ppm/K or less includes celluloses, the sheet-like prepreg giving a cured product having a glass transition temperature of from -60°C to 100°C, the curable composition comprising: one or more curable compounds; and at least one of a curing agent and a curing catalyst, the curable compounds comprising an epoxide having a weight per epoxy equivalent of 140 to 3000 g/eq in an amount of 50 weight percent or more of the totality of the curable compounds, one or more curable compounds; and at least one of a curing agent and a curing catalyst, the curable compounds comprising an epoxide having a weight per epoxy equivalent of 140 to 3000 g/eq in an amount of 50 weight percent or more of the totality of the curable compounds, at least one of a curing agent and a curing catalyst, the curable compounds comprising an epoxide having a weight per epoxy equivalent of 140 to 3000 g/eq in an amount of 50 weight percent or more of the totality of the curable compounds, wherein the curable composition has a weighted average of molecular weight per functional group of all the curable compounds (all the curable compounds and all the curing agents when the curable composition comprises one or more curing agents) contained in the curable composition of 180 to 1000 g/eq, wherein the glass transition temperature and coefficient of linear thermal expansion are measured as described in the specification.
A two plasmid system suitable for producing recombinant proteins using RNA dependent RNA polymerase of non-segmented negative strand RNA viruses comprising: a One cloning plasmid comprising a manipulatable replicon having at least two multiple cloning sites for insertion of expressible DNA fragments flanked at 5' end by viral leader sequence and at 3' end by viral trailer sequence, wherein the at least two MCSs are separated by viral intergenic sequences operatively linked to RNA polymerase (RNAP) I regulatory sequences to allow synthesis of antisense RNA transcripts bearing authentic 3' and 5' viral genome termini, wherein the replicon is derived from a non-segmented negative strand RNA virus", and b. One helper plasmid comprising N, P, and L genes expressing N, P, and L proteins respectively, wherein the N, P, L genes are derived from the corresponding non-segmented negative strand RNA virus, and wherein the N, P and L genes are cloned into a single bi-cistronic DNA cassette containing a gene encoding fusion protein of N and P separated by a 2A peptide sequence and a gene encoding L protein separated by IRES element under the control of a RNAP II promoter, without the help of a replicating helper vaccinia virus or exogenous RNA polymerase. a One cloning plasmid comprising a manipulatable replicon having at least two multiple cloning sites for insertion of expressible DNA fragments flanked at 5' end by viral leader sequence and at 3' end by viral trailer sequence, wherein the at least two MCSs are separated by viral intergenic sequences operatively linked to RNA polymerase (RNAP) I regulatory sequences to allow synthesis of antisense RNA transcripts bearing authentic 3' and 5' viral genome termini, wherein the replicon is derived from a non-segmented negative strand RNA virus", and b. One helper plasmid comprising N, P, and L genes expressing N, P, and L proteins respectively, wherein the N, P, L genes are derived from the corresponding non-segmented negative strand RNA virus, and wherein the N, P and L genes are cloned into a single bi-cistronic DNA cassette containing a gene encoding fusion protein of N and P separated by a 2A peptide sequence and a gene encoding L protein separated by IRES element under the control of a RNAP II promoter,
A particulate material for use in vascular occlusion, the particulate material consisting of: a) 0.562 mole fraction SiO2, 0.035 mole fraction CaO, 0.188 mole fraction ZnO, 0.035 mole fraction MgO, 0.068 mole fraction La 2 O 3, 0.035 mole fraction SrO, 0.042 mole fraction TiO 2, and 0.035 mole fraction Na 2 O; b) 0.553 mole fraction SiO 2, 0.035 mole fraction CaO, 0.137 mole fraction ZnO, 0.035 mole fraction MgO, 0.137 mole fraction La 2 O 3, 0.035 mole fraction SrO, 0.033 mole fraction TiO 2, and 0.035 mole fraction Na 2 O; c) 0.537 mole fraction SiO 2, 0.035 mole fraction CaO, 0.213 mole fraction ZnO, 0.035 mole fraction MgO, 0.068 mole fraction La 2 O 3, 0.035 mole fraction SrO, 0.042 mole fraction TiO 2, and 0.035 mole fraction Na 2 O; d) 0.562 mole fraction SiO 2, 0.035 mole fraction CaO, 0.068 mole fraction ZnO, 0.035 mole fraction MgO, 0.188 mole fraction La 2 O 3, 0.035 mole fraction SrO, 0.042 mole fraction TiO 2, and 0.035 mole fraction Na 2 O; or e) 0.562 mole fraction SiO 2, 0.035 mole fraction CaO, 0.213 mole fraction ZnO, 0.035 mole fraction MgO, 0.068 mole fraction La 2 O 3, 0.035 mole fraction SrO, 0.017 mole fraction TiO 2, and 0.035 mole fraction Na 2 O. a) 0.562 mole fraction SiO2, 0.035 mole fraction CaO, 0.188 mole fraction ZnO, 0.035 mole fraction MgO, 0.068 mole fraction La 2 O 3, 0.035 mole fraction SrO, 0.042 mole fraction TiO 2, and 0.035 mole fraction Na 2 O; b) 0.553 mole fraction SiO 2, 0.035 mole fraction CaO, 0.137 mole fraction ZnO, 0.035 mole fraction MgO, 0.137 mole fraction La 2 O 3, 0.035 mole fraction SrO, 0.033 mole fraction TiO 2, and 0.035 mole fraction Na 2 O; c) 0.537 mole fraction SiO 2, 0.035 mole fraction CaO, 0.213 mole fraction ZnO, 0.035 mole fraction MgO, 0.068 mole fraction La 2 O 3, 0.035 mole fraction SrO, 0.042 mole fraction TiO 2, and 0.035 mole fraction Na 2 O; d) 0.562 mole fraction SiO 2, 0.035 mole fraction CaO, 0.068 mole fraction ZnO, 0.035 mole fraction MgO, 0.188 mole fraction La 2 O 3, 0.035 mole fraction SrO, 0.042 mole fraction TiO 2, and 0.035 mole fraction Na 2 O; or e) 0.562 mole fraction SiO 2, 0.035 mole fraction CaO, 0.213 mole fraction ZnO, 0.035 mole fraction MgO, 0.068 mole fraction La 2 O 3, 0.035 mole fraction SrO, 0.017 mole fraction TiO 2, and 0.035 mole fraction Na 2 O.
Protective control structure - with a plurality of supports that are arranged at a distance to one another; - with a safety net that is held at the supports; and - with a base plate per support for fixating the supports, - wherein the supports are respectively fixated at their dedicated base plate via a ball joint, and - wherein the ball joint has a socket as well as a ball that is guided inside the same, which is secured in its position inside the socket by means of a retaining device, characterized in that - the retaining device has at least one, preferably two, pivoted retaining fingers (9, 10) that are hinged in a pivoted manner between an open position and a retained position. - with a plurality of supports that are arranged at a distance to one another; - with a safety net that is held at the supports; and - with a base plate per support for fixating the supports, - wherein the supports are respectively fixated at their dedicated base plate via a ball joint, and - wherein the ball joint has a socket as well as a ball that is guided inside the same, which is secured in its position inside the socket by means of a retaining device, characterized in that - the retaining device has at least one, preferably two, pivoted retaining fingers (9, 10) that are hinged in a pivoted manner between an open position and a retained position.
Combination of a cable bending limiting arrangement and a anchoring unit with a cable, an anchorage, a compacting clamp unit and a recess pipe, the anchoring unit comprising the anchorage, the cable including a plurality of wires and/or strands extending in a tensioned manner from the anchorage, the compacting clamp unit adapted and intended for compacting the wires and/or strands to a side-by-side arrangement and located at a predetermined distance (d) from the anchorage, and the recess pipe surrounding the cable in at least a portion of the predetermined distance, the cable, the anchorage, the compacting clamp unit and the recess pipe not being part of said cable bending limiting arrangement, wherein said cable bending limiting arrangement comprises a cable bending limiting device adapted and intended for being located axially inside the recess pipe and radially between an outer surface of the cable and an inner surface of the recess pipe leaving an annular gap of a predetermined radial width (w) if the longitudinal axis of the cable extends substantially parallel to the longitudinal axis of the anchorage, characterized in that the cable bending limiting device has a substantially cylindrical surface on its radially outer side and a curved surface of a predetermined maximum curvature at its radially inner side. the cable, the anchorage, the compacting clamp unit and the recess pipe not being part of said cable bending limiting arrangement, wherein said cable bending limiting arrangement comprises a cable bending limiting device adapted and intended for being located axially inside the recess pipe and radially between an outer surface of the cable and an inner surface of the recess pipe leaving an annular gap of a predetermined radial width (w) if the longitudinal axis of the cable extends substantially parallel to the longitudinal axis of the anchorage,
A valve comprising a valve housing, an insert, a valve seat, a valve element, a first fluid port and a second fluid port, wherein the insert can be rotated to reverse the flow direction from the first fluid port through the valve seat to the second fluid port, wherein the valve comprises a handle, characterized in that in a first axial position the handle can be rotated with the insert to reverse the flow through the valve, and in a second axial position blocks a rotation of the insert, wherein the handle can only be displaced into a second axial position when the insert is in one of the intended rotational positions and not in an intermediate position.
Whitewater water course, consisting of a river bed that is designed to guide a flow of water between an upper bed inlet and a lower bed outlet, and comprising means of water supply for introducing the flow of water at the upper bed inlet, - the river bed is formed from a succession of individual bed modules (6a, 6b, 6c, 6d, 6e, 6f, 9a), which are adjacent to each other, and assembled using respective contact surfaces (65, 66, 68, 69, 71, 72, 73, 75, 76, 77, 78), characterized in that - the individual bed modules (6a, 6b, 6c, 6d, 9a) are supported on a lower surface (61, 91) by a modular lattice support structure, said modular lattice support structure comprising: - lower components which, when assembled, form a load distribution sole designed to rest on the ground, - upper groundways, distributed under the lower surface (61, 91) of the individual bed modules (6a, 6b, 6c, 6d, 6e, 6f, 9a), - a lattice structure connecting the load distribution sole to the upper groundways. - the river bed is formed from a succession of individual bed modules (6a, 6b, 6c, 6d, 6e, 6f, 9a), which are adjacent to each other, and assembled using respective contact surfaces (65, 66, 68, 69, 71, 72, 73, 75, 76, 77, 78), characterized in that - the individual bed modules (6a, 6b, 6c, 6d, 9a) are supported on a lower surface (61, 91) by a modular lattice support structure, - lower components which, when assembled, form a load distribution sole designed to rest on the ground, - upper groundways, distributed under the lower surface (61, 91) of the individual bed modules (6a, 6b, 6c, 6d, 6e, 6f, 9a), - a lattice structure connecting the load distribution sole to the upper groundways.