mhurhangee/ep-ind-claims huggingface dataset:
A construction machine comprising a hydraulic actuation system comprising: - a reservoir for hydraulic fluid; - a pump having an inlet fluidly connected to said reservoir and supplying pressurized hydraulic fluid; - a first group of at least one actuator (50, 52, 54); - a first group of at least one control valve (62, 64, 66) for said first group of at least one actuator (50, 52, 54) fluidly connected to said pump in an open center relationship and connected to operate said first group of at least one actuator (50, 52, 54); - a second group of at least one actuator (56, 58, 60); - a second group of at least one control valve (68, 70, 72) fluidly connected to the downstream side of said first group of at least one control valve (62, 64, 66) and connected to operate said second group of at least one actuator (56, 58, 60); and characterized in that said system further comprising: - a pressure relief valve having first and second levels of pressure relief in response to a pilot pressure and fluidly connected to said reservoir to discharge excess pressure, said pressure relief valve being fluidly connected to the output of said pump; and, - a line fluidly connecting the pressure relief valve pilot pressure to a point in the hydraulic actuation system downstream of said first group of at least one control valve (62, 64, 66) and upstream of said second group of at least one control valve (68, 70, 72). - a reservoir for hydraulic fluid; - a pump having an inlet fluidly connected to said reservoir and supplying pressurized hydraulic fluid; - a first group of at least one actuator (50, 52, 54); - a first group of at least one control valve (62, 64, 66) for said first group of at least one actuator (50, 52, 54) fluidly connected to said pump in an open center relationship and connected to operate said first group of at least one actuator (50, 52, 54); - a second group of at least one actuator (56, 58, 60); - a second group of at least one control valve (68, 70, 72) fluidly connected to the downstream side of said first group of at least one control valve (62, 64, 66) and connected to operate said second group of at least one actuator (56, 58, 60); and - a pressure relief valve having first and second levels of pressure relief in response to a pilot pressure and fluidly connected to said reservoir to discharge excess pressure, said pressure relief valve being fluidly connected to the output of said pump; and, - a line fluidly connecting the pressure relief valve pilot pressure to a point in the hydraulic actuation system downstream of said first group of at least one control valve (62, 64, 66) and upstream of said second group of at least one control valve (68, 70, 72).
Engine air intake duct, having an air filter and a mass air flow sensor (128, 626), installed downstream of the air filter between the air filter and the engine, and a flow vortex suppression apparatus (122, 216, 602), characterized in that the flow vortex suppression apparatus (122, 216, 602) is comprising: an air flow permeable fibrous vortex dispersive media (220, 608) installed in said air duct in a position upstream of said mass flow sensor (128, 626) and downstream of said air filter and configured to occlude said air duct such that air flow in said duct must pass through said vortex dispersive media (220, 608); wherein said vortex dispersive media (220, 608) is configured and adapted to diffuse vortices and reduce air turbulence of an air stream entering said mass flow sensor (128, 626), reducing variations and noise in a flow measurement signal from said mass air flow sensor (128, 626) and wherein said fibrous vortex dispersive media (220, 608) comprises a non-woven fleece of spun or melt blown natural and/or synthetic fibers. an air flow permeable fibrous vortex dispersive media (220, 608) installed in said air duct in a position upstream of said mass flow sensor (128, 626) and downstream of said air filter and configured to occlude said air duct such that air flow in said duct must pass through said vortex dispersive media (220, 608); wherein said vortex dispersive media (220, 608) is configured and adapted to diffuse vortices and reduce air turbulence of an air stream entering said mass flow sensor (128, 626), reducing variations and noise in a flow measurement signal from said mass air flow sensor (128, 626) and wherein said fibrous vortex dispersive media (220, 608) comprises a non-woven fleece of spun or melt blown natural and/or synthetic fibers.
An aluminum material comprising an aluminum alloy core and an aluminum alloy cladding, wherein the aluminum alloy cladding comprises 0.1-1.0 wt% Cu, 0.1-0.5 wt% Fe, 0.3-1.0 wt% Mn, 3-15 wt% Si, 0.005-0.15 wt% Ti, >3-7 wt% Zn, 0.005-0.01 wt% Ni, 0.005-0.05 wt% of at least one of Sr, Na or Ca, 0.00-1.5 wt% Mg and unavoidable impurities with the content of each impurity consisting up to 0.05 wt% and a total of impurities constituting up to 0.15 wt%, remainder Al.
An information processing apparatus comprising: an arrangement unit configured to arrange datagrams in a number of elements of a predetermined matrix size or less in at least a portion of the matrix of the predetermined matrix size, by repeating arrangement of the datagrams in order along a first direction according to a second direction; and a generation unit configured to generate a redundant datagram for forward error correction for each of the datagrams belonging to one row, and for each of the datagrams belonging to one column of the matrix arranged by the arrangement unit, wherein the information processing apparatus is characterised by a determination unit configured to provide a predetermined flag to a last datagram in the transmission order from among the datagrams; and wherein, in the case that a size of the matrix of datagrams is less than the predetermined matrix size, the redundant datagram is generated without increasing the size of the matrix of datagrams to the predetermined matrix size. an arrangement unit configured to arrange datagrams in a number of elements of a predetermined matrix size or less in at least a portion of the matrix of the predetermined matrix size, by repeating arrangement of the datagrams in order along a first direction according to a second direction; and a generation unit configured to generate a redundant datagram for forward error correction for each of the datagrams belonging to one row, and for each of the datagrams belonging to one column of the matrix arranged by the arrangement unit, wherein the information processing apparatus is characterised by a determination unit configured to provide a predetermined flag to a last datagram in the transmission order from among the datagrams; and wherein, in the case that a size of the matrix of datagrams is less than the predetermined matrix size, the redundant datagram is generated without increasing the size of the matrix of datagrams to the predetermined matrix size.
An analgesic composition containing riboflavin and (a) sesamin-class compound(s) for use in the reduction of pain in humans and animals, wherein the sesamin-class compound(s) is/are selected from the group consisting of sesamin, episesamin, sesaminol, episesaminol, sesamolin, and mixtures thereof, and wherein the proportion (weight ratio) of the total quantity of the sesamin-class compound(s) to the total quantity of riboflavin taken as unity is no more than 4.5
A device for dewatering laundry, having a press ram which has a ram plate and a flexible pressing membrane that is releasably fastenable below said ram plate by way of a fastening ring, said press ram being able to be moved up and down, the pressing membrane having a membrane base and a membrane collar which is moulded on the latter and has an encircling upper periphery, and the membrane collar on the internal side thereof has at least one protrusion which is configured as a bearing for the fastening ring until said fastening ring is connected to the ram plate, characterized in that the fastening ring is insertable from above through an opening into the membrane collar up to a bearing face of the at least one protrusion.
A compound of Formula I for use in treating hypercholesterolemia, hypocholesterolemia, cardiovascular disease or a metabolic disease: wherein i) R 1 and R 2 are independently selected from the group consisting of H, C 1-6 alkyl, halo, - OH, and amino; ii) R 3 is selected from the group consisting of H, C 1-6 alkyl, halo, haloalkyl, hydroxylalkyl, alkoxyl, and nitrile; iii) R 4 is selected from the group consisting of H and -OH; iv) R 5 is selected from the group consisting of alkyl, branched alkyl, aryl substituted alkyl, cycloalkyl, hydroxyalkyl, alkoxyalkyl, haloalkyl, and an amino acid, wherein the amino acid is an L- or D- isomer of the formula -CHR 6 -CON-R 7 wherein i) R 6 is selected from the group consisting of natural or unnatural peptide side chains; ii) R 7 is selected from the group consisting of alkyl, branched alkyl, cycloalkyl, and heterocycle; v) X 1 through X 5 are selected independently from the group of C and N; vi) W is C, CH, or N, wherein when W is C then Y is CH 2 thereby forming a saturated 5 membered ring; or a pharmaceutically acceptable salt, hydrate, or solvate thereof. i) R 1 and R 2 are independently selected from the group consisting of H, C 1-6 alkyl, halo, - OH, and amino; ii) R 3 is selected from the group consisting of H, C 1-6 alkyl, halo, haloalkyl, hydroxylalkyl, alkoxyl, and nitrile; iii) R 4 is selected from the group consisting of H and -OH; iv) R 5 is selected from the group consisting of alkyl, branched alkyl, aryl substituted alkyl, cycloalkyl, hydroxyalkyl, alkoxyalkyl, haloalkyl, and an amino acid, wherein the amino acid is an L- or D- isomer of the formula -CHR 6 -CON-R 7 wherein i) R 6 is selected from the group consisting of natural or unnatural peptide side chains; ii) R 7 is selected from the group consisting of alkyl, branched alkyl, cycloalkyl, and heterocycle; v) X 1 through X 5 are selected independently from the group of C and N; vi) W is C, CH, or N, wherein when W is C then Y is CH 2 thereby forming a saturated 5 membered ring;
A manufacturing method of a multi-purpose heat sink, comprising: providing a platform part, wherein the platform part includes a bracket and heat dissipation components (340, 314, 315), and the bracket limits a frame of the platform part and includes a primary panel; and providing an additional part, wherein the additional part includes a plurality of convex plates (411, 412, 413, 414, 415, 416), wherein at least part of the heat dissipation components are set on a back side of the primary panel of the bracket, and the plurality of convex plates are combined with a front side of the primary panel, and the plurality of convex plates are used for being in contact with heat dissipation sources (120, 121, 122, 123, 124, 125, 126) of a corresponding circuit board assembly so as to conduct heat from the heat dissipation sources (120, 121, 122, 123, 124, 125, 126), the platform part is configured to be universal for a variety of heat sinks, and the plurality of convex plates are prepared and/or selected according to an arrangement of the heat dissipation sources of the corresponding circuit board assembly. providing a platform part, wherein the platform part includes a bracket and heat dissipation components (340, 314, 315), and the bracket limits a frame of the platform part and includes a primary panel; and providing an additional part, wherein the additional part includes a plurality of convex plates (411, 412, 413, 414, 415, 416), wherein at least part of the heat dissipation components are set on a back side of the primary panel of the bracket, and the plurality of convex plates are combined with a front side of the primary panel, and the plurality of convex plates are used for being in contact with heat dissipation sources (120, 121, 122, 123, 124, 125, 126) of a corresponding circuit board assembly so as to conduct heat from the heat dissipation sources (120, 121, 122, 123, 124, 125, 126), the platform part is configured to be universal for a variety of heat sinks, and the plurality of convex plates are prepared and/or selected according to an arrangement of the heat dissipation sources of the corresponding circuit board assembly.
A current transformer comprising: a bushing, a primary conductor extending inside the bushing, which primary conductor is electrically insulated with a primary conductor insulation, and which primary conductor comprises a hairpin portion which is arranged outside the bushing, a tube arranged around the primary conductor along the hairpin portion, an electrically insulating material arranged in the tube, which electrically insulating material is arranged around the primary conductor insulation in the hairpin portion, a core arranged around the tube, and a secondary winding wound around the core. a bushing, a primary conductor extending inside the bushing, which primary conductor is electrically insulated with a primary conductor insulation, and which primary conductor comprises a hairpin portion which is arranged outside the bushing, a tube arranged around the primary conductor along the hairpin portion, an electrically insulating material arranged in the tube, which electrically insulating material is arranged around the primary conductor insulation in the hairpin portion, a core arranged around the tube, and a secondary winding wound around the core.
Metallization for a thin-film component, characterized in that the metallization comprises at least one layer composed of an Mo-based alloy containing Al and Ti and usual impurities, wherein the at least one layer composed of an Mo-based alloy contains from 10 to 40 at% of Al and between 5 to 15 at% of Ti, with the sum of the contents of Al and Ti not exceeding 50 at%.
A transverse vehicle drive assembly, connected to a vehicle axle half shaft, characterized in that: the vehicle drive assembly comprises a first power source and an automatic transmission, the automatic transmission is provided with a first input shaft, the first power source is connected to the first input shaft, and a differential is provided at a connection between the automatic transmission and the vehicle axle half shaft; in the automatic transmission, a first intermediate shaft is provided parallel to the first input shaft, a second intermediate shaft is provided coaxial with the first input shaft, a third intermediate shaft is provided coaxial with the first intermediate shaft, a first clutch is provided between the first intermediate shaft and the third intermediate shaft, and a second clutch is provided between the first input shaft and the second intermediate shaft; and the first input shaft is provided with a first gear, the first intermediate shaft is provided with a second gear, and the first gear and the second gear are in engaged transmission; the second intermediate shaft is provided with a third gear, the third intermediate shaft is provided with a fourth gear, and the third gear and the fourth gear are in engaged transmission; and the differential is provided with a fifth gear, and the fourth gear is simultaneously in engaged transmission with the fifth gear.
A method of operation of a thermal power plant having an air separation system with a plurality of air storage unit "ASU" compressors and a liquid oxygen and/ or liquid air "LOX/LA" storage facility for oxyfuel firing of fuel, the method comprises by the step of controlling the net power output of the plant in response to a varying grid demanded net plant output by dynamically adjusting the works power of the ASU compressors characterized by performing the steps of: setting a design works power level W i des for each compressor; modifying the same to give the setpoint value for the compressor power controller according to the relationship: W s e t p o int t = W i des + Δ WP i t where Δ WP i ( t) is the change in compressor works power; adjusting the power correction for each compressor Δ WP i ( t) so as to tend to minimize the total change in compressor works power required to balance grid demand as determined by the relationship: ∑ i = 1 ⌢, N Δ WP i t = W so t − W dem t where W so ( t) is the net power output of the plant at any instant time t; W dem ( t) is the grid demanded net plant output at any instant time t; N is the number of ASU compressors; and i is an integer between 1 and N. setting a design works power level W i des for each compressor; modifying the same to give the setpoint value for the compressor power controller according to the relationship: W s e t p o int t = W i des + Δ WP i t where Δ WP i ( t) is the change in compressor works power; adjusting the power correction for each compressor Δ WP i ( t) so as to tend to minimize the total change in compressor works power required to balance grid demand as determined by the relationship: ∑ i = 1 ⌢, N Δ WP i t = W so t − W dem t where W so ( t) is the net power output of the plant at any instant time t; W dem ( t) is the grid demanded net plant output at any instant time t; N is the number of ASU compressors; and i is an integer between 1 and N. where W so ( t) is the net power output of the plant at any instant time t; W dem ( t) is the grid demanded net plant output at any instant time t; N is the number of ASU compressors; and i is an integer between 1 and N.
An engine comprising: an oil control valve (1A; 1B) which is built in a cylinder head, and which is configured to control a pressure of oil to be supplied to a variable valve mechanism via a camshaft (6A; 6B); and a cam cap (9A; 9B) which is fixed to an upper face of the cylinder head, and which is configured to rotatably support the camshaft (6A; 6B) between the cam cap (9A; 9B) and the cylinder head, as a flow passage for the oil to be force-fed from an oil pump to the oil control valve (1A; 1B), the cam cap (9A; 9B) including: a lateral passage which is formed inside the cam cap, and which is extended in a direction along the upper face of the cylinder head; and a downward passage which is extended downward from the lateral passage so as to serve as a downstream side flow passage of the lateral passage, and which is configured to guide the oil toward the oil control valve (1A; 1B). an oil control valve (1A; 1B) which is built in a cylinder head, and which is configured to control a pressure of oil to be supplied to a variable valve mechanism via a camshaft (6A; 6B); and a cam cap (9A; 9B) which is fixed to an upper face of the cylinder head, and which is configured to rotatably support the camshaft (6A; 6B) between the cam cap (9A; 9B) and the cylinder head, as a flow passage for the oil to be force-fed from an oil pump to the oil control valve (1A; 1B), the cam cap (9A; 9B) including: a lateral passage which is formed inside the cam cap, and which is extended in a direction along the upper face of the cylinder head; and a downward passage which is extended downward from the lateral passage so as to serve as a downstream side flow passage of the lateral passage, and which is configured to guide the oil toward the oil control valve (1A; 1B). a lateral passage which is formed inside the cam cap, and which is extended in a direction along the upper face of the cylinder head; and a downward passage which is extended downward from the lateral passage so as to serve as a downstream side flow passage of the lateral passage, and which is configured to guide the oil toward the oil control valve (1A; 1B).
A set of construction plates, each construction plate having undulations suitable to be anchored to the surface of an internal free section of a railway tunnel, each construction plate is configured to avoid water filtration inside the tunnel when covering the interior of the tunnel by construction plates, each construction plate comprises an alternation of flat zones (21, 23, 24) and undulations; wherein each construction plate comprising a flat zone of a first side edge and a flat zone of a second side edge thereby providing a variable longitudinal overlap between consecutive construction plates enabling to absorb both the internal imperfections of the tunnel and the perimeter difference described between the interior and exterior of said tunnel, characterized in that each construction plate is made of any waterproof and fireproof material of a composite type material made of reinforced polymeric resin with inorganic fibre.
A method of ink jet printing, wherein liquid ink is supplied to a plurality of nozzles via a common ink supply passage, and actuators associated with the nozzles are controlled to cause ink droplets to be expelled from the nozzles in accordance with image information (46, 48) to be printed, characterized by the steps of: - detecting a situation where a number of the nozzles which are connected to the common ink supply passage and are presently active but stop printing within a given time interval is larger than a given maximum number (N_max); - if that situation is detected, activating at least one actuator associated with one of the nozzles that stop printing with sub-threshold agitation pulses which cause an agitation of a meniscus in the nozzle without a droplet being expelled. - detecting a situation where a number of the nozzles which are connected to the common ink supply passage and are presently active but stop printing within a given time interval is larger than a given maximum number (N_max); - if that situation is detected, activating at least one actuator associated with one of the nozzles that stop printing with sub-threshold agitation pulses which cause an agitation of a meniscus in the nozzle without a droplet being expelled.
A method of improving the efficiency of establishment of an induced pluripotent stem (iPS) cells, comprising inhibiting the p53 function in the step of somatic cell nuclear reprogramming by bringing an inhibitor of p53 function into contact with a somatic cell, wherein the inhibitor of p53 function is selected from the following: (a) pifithrin-α or analogues or salts thereof, pifithrin-β or analogues or salts thereof, or pifithrin-μ or salts thereof, (b) a dominant negative mutant of p53 or a nucleic acid that encodes the same, (c) a nucleic acid selected from the group consisting of siRNAs and shRNAs against p53 and DNAs that encode the same, (d) MDM2 or a nucleic acid that encodes the same, and (e) siRNA, shRNA, antisense nucleic acids or ribozymes against p21. (a) pifithrin-α or analogues or salts thereof, pifithrin-β or analogues or salts thereof, or pifithrin-μ or salts thereof, (b) a dominant negative mutant of p53 or a nucleic acid that encodes the same, (c) a nucleic acid selected from the group consisting of siRNAs and shRNAs against p53 and DNAs that encode the same, (d) MDM2 or a nucleic acid that encodes the same, and (e) siRNA, shRNA, antisense nucleic acids or ribozymes against p21.