mhurhangee/patent-ind-claim-en huggingface dataset:
An energy management system for a ground vehicle, the energy management system comprising: an internal combustion engine for providing a primary rotational energy via an engine shaft ; an electric machine configured to receive a portion of the primary rotational energy or to provide a secondary rotational energy; an inverter configured to control a rotor of the electric machine ; a hydraulic pump for supplying hydraulic fluid to a hydraulic system load; a rotatable pump shaft or pump rotor of the hydraulic pump being coupled or decoupled selectively to the engine shaft , the rotor of the electric machine or both for receipt of at least a portion of the primary rotational energy, the secondary rotational energy, or both; a vehicle controller configured to establish a commanded rotor speed for the electric machine , wherein the target rotational speed of the pump shaft or pump rotor is independent of a rotational speed of the engine shaft in a first mode; characterized in that the vehicle controller is configured to establish the commanded rotor speed for the electric machine based on a target pump shaft rotational speed for operation of the hydraulic pump at a set point or within an operational region consistent with an observed hydraulic system load or identified current work task of the vehicle for one or more sampling intervals, where the set point or operational region is defined by a hydraulic pump flow rate versus head characterization curve. an internal combustion engine for providing a primary rotational energy via an engine shaft ; an electric machine configured to receive a portion of the primary rotational energy or to provide a secondary rotational energy; an inverter configured to control a rotor of the electric machine ; a hydraulic pump for supplying hydraulic fluid to a hydraulic system load; a rotatable pump shaft or pump rotor of the hydraulic pump being coupled or decoupled selectively to the engine shaft , the rotor of the electric machine or both for receipt of at least a portion of the primary rotational energy, the secondary rotational energy, or both; a vehicle controller configured to establish a commanded rotor speed for the electric machine , wherein the target rotational speed of the pump shaft or pump rotor is independent of a rotational speed of the engine shaft in a first mode; characterized in that the vehicle controller is configured to establish the commanded rotor speed for the electric machine based on a target pump shaft rotational speed for operation of the hydraulic pump at a set point or within an operational region consistent with an observed hydraulic system load or identified current work task of the vehicle for one or more sampling intervals, where the set point or operational region is defined by a hydraulic pump flow rate versus head characterization curve.
A direct-current (DC) plasma system for processing of a substrate, comprising: a DC plasma reaction chamber configured to contain a DC plasma that is generated between an anode (A) and a cathode (C) of the DC plasma reaction chamber ; an adjustable DC voltage source having an output that is electrically coupled to the anode; anode (A); a DC current source that is electrically coupled to the cathode (C); and a substrate support stage (S) arranged in a region of the DC plasma reaction chamber that contains a positive column of the DC plasma, wherein the adjustable DC voltage source and the DC current source are electrically coupled to a reference ground, and the adjustable DC voltage source is configured to adjust, during processing of the substrate, an electrical potential at the anode to set a floating potential at a surface of the substrate support stage (S) to a potential of the reference ground. a DC plasma reaction chamber configured to contain a DC plasma that is generated between an anode (A) and a cathode (C) of the DC plasma reaction chamber ; an adjustable DC voltage source having an output that is electrically coupled to the anode; anode (A); a DC current source that is electrically coupled to the cathode (C); and a substrate support stage (S) arranged in a region of the DC plasma reaction chamber that contains a positive column of the DC plasma, wherein the adjustable DC voltage source and the DC current source are electrically coupled to a reference ground, and the adjustable DC voltage source is configured to adjust, during processing of the substrate, an electrical potential at the anode to set a floating potential at a surface of the substrate support stage (S) to a potential of the reference ground.
A cyclic peptide represented by Formula (I), R N -X g -[X i -X a - A-Y-H-R-G-E-L-V-W -X b -X j ] k -X h -R C ··· (I): in Formula (I), R N represents an N-terminal group; R C represents a C-terminal group; one of X a and X b represents an amino acid residue derived from L-homocysteine, and the other represents an amino acid residue derived from an amino acid having a haloacetyl group on a side chain selected from the group consisting of -2-amino-3-[(2-chloroacetyl)amino]propanoic acid, -2-amino-4-[(2-chloroacetyl)amino]butanoic acid, N-δ-chloroacetyl-L-ornithine and N-ε-chloroacetyl-L-lysine, and X a and X b are bonded to each other through a thioether bond; X g , X h , X i and X j each represent g consecutive X's, h consecutive X's, i consecutive X's, j consecutive X's, X represents an amino acid residue, and in a case where there is a plurality of X's, the plurality of X's may be the same as or different from each other; g, h, i, and j each independently represent an integer equal to or greater than 0; k is 1, and wherein A represents an L-alanine residue; Y represents an L-tyrosine residue; H represents an L-histidine residue; R represents an L-arginine residue; G represents a glycine residue; E represents an L-glutamic acid residue; L represents an L-leucine residue; V represents an L-valine residue; and W represents an L-tryptophan residue, in Formula (I), R N represents an N-terminal group; R C represents a C-terminal group; one of X a and X b represents an amino acid residue derived from L-homocysteine, and the other represents an amino acid residue derived from an amino acid having a haloacetyl group on a side chain selected from the group consisting of -2-amino-3-[(2-chloroacetyl)amino]propanoic acid, -2-amino-4-[(2-chloroacetyl)amino]butanoic acid, N-δ-chloroacetyl-L-ornithine and N-ε-chloroacetyl-L-lysine, and X a and X b are bonded to each other through a thioether bond; X g , X h , X i and X j each represent g consecutive X's, h consecutive X's, i consecutive X's, j consecutive X's, X represents an amino acid residue, and in a case where there is a plurality of X's, the plurality of X's may be the same as or different from each other; g, h, i, and j each independently represent an integer equal to or greater than 0; k is 1, and wherein A represents an L-alanine residue; Y represents an L-tyrosine residue; H represents an L-histidine residue; R represents an L-arginine residue; G represents a glycine residue; E represents an L-glutamic acid residue; L represents an L-leucine residue; V represents an L-valine residue; and W represents an L-tryptophan residue,
A process of printing a metallic element in an image on a stretchable and/or flexible substrate, the process comprising digitally applying, by means of a plurality of inkjet printheads, onto at least a portion of a surface of the substrate: i. by means of a first printhead or a nozzle, an immobilizing composition that comprises an organic acid and an aqueous medium; ii. by means of a fourth printhead, an opaque underbase inkjet composition that comprises an opaque white pigment dispersed in an aqueous medium, at least one film-forming agent and at least one acid-sensitive agent; iii. by means of a third printhead, a transparent colored inkjet composition that comprises a pigment dispersed in an aqueous medium, at least one film-forming agent and at least one acid-sensitive agent, and by means of a second printhead, a metallic inkjet composition that comprises a metal powder dispersed in an aqueous medium, a metal powder dispersant, at least one film-forming agent and at least one acid-sensitive agent; and iv. curing the image to form an elastic film, which is characterized by a glass transition temperature ( T g ) that ranges from -35 °C to 0 °C and said acid-sensitive agent is characterized by a capacity to coagulate upon contacting said acid, wherein said transparent colored inkjet composition and said metallic inkjet composition are applied simultaneously. i. by means of a first printhead or a nozzle, an immobilizing composition that comprises an organic acid and an aqueous medium; ii. by means of a fourth printhead, an opaque underbase inkjet composition that comprises an opaque white pigment dispersed in an aqueous medium, at least one film-forming agent and at least one acid-sensitive agent; iii. by means of a third printhead, a transparent colored inkjet composition that comprises a pigment dispersed in an aqueous medium, at least one film-forming agent and at least one acid-sensitive agent, and by means of a second printhead, a metallic inkjet composition that comprises a metal powder dispersed in an aqueous medium, a metal powder dispersant, at least one film-forming agent and at least one acid-sensitive agent; and iv. curing the image to form an elastic film, which is characterized by a glass transition temperature ( T g ) that ranges from -35 °C to 0 °C and said acid-sensitive agent is characterized by a capacity to coagulate upon contacting said acid,
A thermal barrier coating system comprising: a first layer of yttria-stabilized zirconia; a first layer of a molten silicate resistant material deposited over said first layer of yttria-stabilized zirconia; a second layer of yttria-stabilized zirconia deposited over said first layer of said molten silicate resistant material; and a second layer of molten silicate resistant material deposited over said second layer of said yttria-stabilized material, characterised in that the thermal barrier coating system further comprises at least one additional layer of yttria-stabilized zirconia and at least one additional layer of said molten silicate resistant material, in that said coating system comprises alternating layers of said yttria-stabilized zirconia and said molten silicate resistant material, in that said molten silicate resistant material consists of a gadolinia stabilized zirconia, and in that each said layer of molten silicate resistant material has a thickness in the range of from 0.5 to 50 mils (0.013 to 1.27 mm). a first layer of yttria-stabilized zirconia; a first layer of a molten silicate resistant material deposited over said first layer of yttria-stabilized zirconia; a second layer of yttria-stabilized zirconia deposited over said first layer of said molten silicate resistant material; and a second layer of molten silicate resistant material deposited over said second layer of said yttria-stabilized material, characterised in that the thermal barrier coating system further comprises at least one additional layer of yttria-stabilized zirconia and at least one additional layer of said molten silicate resistant material, in that said coating system comprises alternating layers of said yttria-stabilized zirconia and said molten silicate resistant material, in that said molten silicate resistant material consists of a gadolinia stabilized zirconia, and in that each said layer of molten silicate resistant material has a thickness in the range of from 0.5 to 50 mils (0.013 to 1.27 mm).
A multi-protocol bus circuit comprising: a plurality of master circuits (34 -34(M)) each associated with a predefined priority and coupled to a respective one of a plurality of master buses (38 -38(M)) and configured to communicate a respective one or more master bus commands (40 -40(M)) based on a respective one of a plurality of master bus protocols (P M1 -P MM ) , wherein each of the plurality of master bus protocols is different from at least another one of the plurality of master bus protocols; one or more slave circuits (36 -36(N)) each coupled to a slave bus and configured to communicate a respective one or more slave bus commands (44 -44(L)) based on a slave bus protocol (Ps) different from any of the plurality of master bus protocols; and a multi-protocol bridge circuit coupled to the plurality of master buses and the slave bus and configured to: perform a bidirectional conversion between the slave bus protocol and each of the plurality of master bus protocols; and provide the respective one or more master bus commands received from each of the plurality of master circuits to at least one of the one or more slave circuits in accordance with the predefined priority. a plurality of master circuits (34 -34(M)) each associated with a predefined priority and coupled to a respective one of a plurality of master buses (38 -38(M)) and configured to communicate a respective one or more master bus commands (40 -40(M)) based on a respective one of a plurality of master bus protocols (P M1 -P MM ) , wherein each of the plurality of master bus protocols is different from at least another one of the plurality of master bus protocols; one or more slave circuits (36 -36(N)) each coupled to a slave bus and configured to communicate a respective one or more slave bus commands (44 -44(L)) based on a slave bus protocol (Ps) different from any of the plurality of master bus protocols; and a multi-protocol bridge circuit coupled to the plurality of master buses and the slave bus and configured to: perform a bidirectional conversion between the slave bus protocol and each of the plurality of master bus protocols; and provide the respective one or more master bus commands received from each of the plurality of master circuits to at least one of the one or more slave circuits in accordance with the predefined priority. perform a bidirectional conversion between the slave bus protocol and each of the plurality of master bus protocols; and provide the respective one or more master bus commands received from each of the plurality of master circuits to at least one of the one or more slave circuits in accordance with the predefined priority.
A terminal board comprising: a base portion with a length (L 4 ); a plurality of terminals extending from the base portion ; and a plurality of barriers extending from the base portion between terminals and having a barrier spacing distance (S B ) between each barrier ; characterised by the ratio of length (L 4 ) to barrier spacing distance (S B ) is at least 5.124:1. a base portion with a length (L 4 ); a plurality of terminals extending from the base portion ; and a plurality of barriers extending from the base portion between terminals and having a barrier spacing distance (S B ) between each barrier ; characterised by the ratio of length (L 4 ) to barrier spacing distance (S B ) is at least 5.124:1.
A method of an access point adapted to communicate with a sensor station , STA, over a communication channel using a contention based channel access, the method comprising: monitoring traffic of the communication channel; estimating a congestion level of the communication channel based on the monitored traffic; incorporating , into a synchronization frame (200; 300), information indicative of the estimated congestion level and transmitting said synchronization frame (200; 300), comprising the information indicative of the estimated congestion level, to the sensor STA , wherein the information indicative of the estimated congestion level is incorporated into the preamble of the synchronization frame (200; 300). monitoring traffic of the communication channel; estimating a congestion level of the communication channel based on the monitored traffic; incorporating , into a synchronization frame (200; 300), information indicative of the estimated congestion level and transmitting said synchronization frame (200; 300), comprising the information indicative of the estimated congestion level, to the sensor STA , wherein the information indicative of the estimated congestion level is incorporated into the preamble of the synchronization frame (200; 300).
An engine , comprising; an output cylinder for transmitting power to an output crankshaft , a fuel reforming device connected to an intake pipe and an EGR pipe via a supply pipe and connected to the intake pipe via an exhaust pipe , and a primary fuel injection device configured to inject fuel to a mixture of intake air and exhaust gas, wherein the fuel reforming device is constituted with a reforming cylinder configured to adiabatically compress the mixture, to which the fuel is injected, by means of a reciprocating movement of a reforming piston capable of reciprocating by a motive power from a reforming crankshaft connected and interlocked with the output crankshaft , wherein the engine further comprises; a reforming fuel intercooler configured to cool the mixture discharged from the fuel reforming device and provided in the exhaust pipe , and a control device configured to control the primary fuel injection device , and wherein the primary fuel injection device is arranged in the supply pipe , controlled by the control device , in such a manner as to inject the fuel when the mixture is supplied to the reforming cylinder . an output cylinder for transmitting power to an output crankshaft , a fuel reforming device connected to an intake pipe and an EGR pipe via a supply pipe and connected to the intake pipe via an exhaust pipe , and a primary fuel injection device configured to inject fuel to a mixture of intake air and exhaust gas, wherein the fuel reforming device is constituted with a reforming cylinder configured to adiabatically compress the mixture, to which the fuel is injected, by means of a reciprocating movement of a reforming piston capable of reciprocating by a motive power from a reforming crankshaft connected and interlocked with the output crankshaft , wherein the engine further comprises; a reforming fuel intercooler configured to cool the mixture discharged from the fuel reforming device and provided in the exhaust pipe , and a control device configured to control the primary fuel injection device , and wherein the primary fuel injection device is arranged in the supply pipe , controlled by the control device , in such a manner as to inject the fuel when the mixture is supplied to the reforming cylinder .
A condition monitoring system for performing a transformation of mixed elevator data, the condition monitoring system comprising: a computer sub-system comprising a memory storing transformation software thereon, and a processor coupled to the memory, the processor configured to execute the transformation software to cause the condition monitoring system to: acquire quantitative and qualitative information; transform the quantitative and qualitative information to produce transformed information; wherein the transformation of the qualitative information comprises mapping individual data series from the qualitative information to a continuous domain; execute analytics on the transformed information; and generate predictions based on the analytics of the transformed information. a computer sub-system comprising a memory storing transformation software thereon, and a processor coupled to the memory, the processor configured to execute the transformation software to cause the condition monitoring system to: acquire quantitative and qualitative information; transform the quantitative and qualitative information to produce transformed information; wherein the transformation of the qualitative information comprises mapping individual data series from the qualitative information to a continuous domain; execute analytics on the transformed information; and generate predictions based on the analytics of the transformed information. acquire quantitative and qualitative information; transform the quantitative and qualitative information to produce transformed information; wherein the transformation of the qualitative information comprises mapping individual data series from the qualitative information to a continuous domain; execute analytics on the transformed information; and generate predictions based on the analytics of the transformed information.
A homogenization apparatus for pepper raw materials, comprising a base , and an annular storage tank and a stirring barrel coaxially arranged with the base and respectively fixed to the base , characterized in that , the stirring barrel is positioned under the storage tank , the bottom center of the stirring barrel is fixedly connected to a rotating shaft , the stirring barrel is rotationally drivable to rotate together with the rotating shaft about the axis of the rotating shaft , the rotating shaft extends upward into the storage tank , a sleeve is provided on an outer side of the rotating shaft , the rotating shaft is coaxial with the sleeve , so that the stirring barrel rotates relative to the storage tank ; a portion of the sleeve accommodated in the stirring barrel is fixedly connected with a stirring part, an upper end of the rotating shaft is fixedly connected with a connecting plate , one end of the connecting plate away from the rotating shaft extends into the storage tank and is connected with a rotatable stirring shaft , and a plurality of stirring blades are fixed to the stirring shaft ; an inner wall of the storage tank is provided with a plurality of discharge chutes leading to the stirring tank , and the stirring shaft and the rotating shaft are connected via a transmission assembly.
An attachment for a hand held appliance comprising an inlet at a first end ; an outlet ; and a fluid flow path between the inlet and the outlet, wherein the attachment is generally cylindrical and wherein the outlet comprises at least one slot extending from near the first end of the attachment towards a distal end of the attachment, wherein the at least one slot extends substantially along the length of the attachment and wherein the outlet is at least partially defined by an external surface of the attachment, characterised in that the outlet is configured to direct fluid emitted from the outlet tangentially around the external surface of the attachment.
A hemostasis valve for a tearaway sheath assembly , wherein the valve is defined by a pair of valve halves joined by a sealed weak interfacial joint to define a distal end having a transverse distal section having at least one slit partially thereacross, and a proximal end defining a large diameter cavity extending distally to the transverse distal section , characterized in that : distal end portions of the valve halves converge, and each thereof includes at least one rib portion axially along an outer surface thereof having stiffness to enhance the closing of the distal end portions at the distal valve slit .
Composition, preferably for bonding metal sheets, comprising: a. 1 molar part of at least one linear epoxy resin with an average epoxy equivalent weight of 600 to 5,000 g/mol and an epoxy functionality of 2, b. 0.4 to 0.8 molar parts of at least one non-linear epoxy resin with an average epoxy equivalent weight of 180 to 350 g/mol and an average epoxy functionality of at least 3, c. 0.8 to 1.3 molar parts of at least one basic hardener comprising at least two free amine-bonded hydrogen atoms, and d. 0.9 to 1.2 molar parts of at least one crosslinker comprising at least two blocked isocyanate groups. a. 1 molar part of at least one linear epoxy resin with an average epoxy equivalent weight of 600 to 5,000 g/mol and an epoxy functionality of 2, b. 0.4 to 0.8 molar parts of at least one non-linear epoxy resin with an average epoxy equivalent weight of 180 to 350 g/mol and an average epoxy functionality of at least 3, c. 0.8 to 1.3 molar parts of at least one basic hardener comprising at least two free amine-bonded hydrogen atoms, and d. 0.9 to 1.2 molar parts of at least one crosslinker comprising at least two blocked isocyanate groups.