mhurhangee/ep-ind-claims huggingface dataset:
A mixed-phase oxide for use as an active electrode material; wherein the mixed-phase oxide comprises Nb and Ti and further comprises M and/or M; wherein M is selected from Cr, Al, Ga, and mixtures thereof; M is selected from Zn, Cu, Mg, and mixtures thereof; wherein the mixed-phase oxide comprises an interpenetrating mixture of a first phase and a second phase; wherein the first phase has the crystal structure of TiNb 2 O 7 and the second phase has the crystal structure of Zn 2 Nb 34 O 87. wherein the mixed-phase oxide comprises Nb and Ti and further comprises M and/or M; wherein M is selected from Cr, Al, Ga, and mixtures thereof; M is selected from Zn, Cu, Mg, and mixtures thereof; wherein the mixed-phase oxide comprises an interpenetrating mixture of a first phase and a second phase; wherein the first phase has the crystal structure of TiNb 2 O 7 and the second phase has the crystal structure of Zn 2 Nb 34 O 87.
A method for estimating a cylinder pressure in an internal combustion engine arrangement, said internal combustion engine arrangement comprising an internal combustion engine having a combustion cylinder and a reciprocating piston movable within said combustion cylinder between a bottom dead center and a top dead center, and further a flow control valve assembly (28, 38) in fluid communication with the combustion cylinder and comprising a valve operable between an open position and a closed position and an actuator operable to provide an opening force for opening the valve, the flow control valve assembly (28, 38) being adapted to regulate the flow of a fluid medium passing through the valve, characterized by the method comprising the steps of: - initiating an opening of said valve by said actuator during an expansion stroke; - monitoring said valve to determine a point in time (Tp) when said valve opens; - determining a differential pressure between a gas pressure level of the fluid medium in said combustion cylinder and a pressure level of the combustion gas at a position in a fluid medium passage (29, 39, 60) downstream said valve at said point in time (Tp); - receiving data being indicative of a pressure in said fluid medium passage at said point in time (Tp); and - determining the cylinder pressure at said point in time (Tp) based on the determined differential pressure and said data indicative of the pressure in said fluid medium passage. - initiating an opening of said valve by said actuator during an expansion stroke; - monitoring said valve to determine a point in time (Tp) when said valve opens; - determining a differential pressure between a gas pressure level of the fluid medium in said combustion cylinder and a pressure level of the combustion gas at a position in a fluid medium passage (29, 39, 60) downstream said valve at said point in time (Tp); - receiving data being indicative of a pressure in said fluid medium passage at said point in time (Tp); and - determining the cylinder pressure at said point in time (Tp) based on the determined differential pressure and said data indicative of the pressure in said fluid medium passage.
An external oil-in-water emulsion composition for skin, comprising: 0.1% by mass to 8% by mass of a non-emulsifying silicone elastomer; a polyether-modified silicone surfactant; and a hydrophilic nonionic surfactant, wherein the hydrophilic nonionic surfactant comprises a glycerin-derived surfactant; the polyether-modified silicone surfactant is 0.3 part by mass or more with respect to 1 part by mass of the silicone elastomer; the glycerin-derived surfactant is 0.2 part by mass or more with respect to 1 part by mass of the silicone elastomer; in a case where an amphoteric surfactant is included, the amphoteric surfactant is 1.5 parts by mass or less with respect to 1 part by mass of the glycerin-derived surfactant; and the viscosity is 9,500 mPa·s or less; wherein the viscosity can be measured by a BL viscometer (rotor No. 3, rotation speed 12 rpm) at 30°C. 0.1% by mass to 8% by mass of a non-emulsifying silicone elastomer; a polyether-modified silicone surfactant; and a hydrophilic nonionic surfactant, wherein the hydrophilic nonionic surfactant comprises a glycerin-derived surfactant; the polyether-modified silicone surfactant is 0.3 part by mass or more with respect to 1 part by mass of the silicone elastomer; the glycerin-derived surfactant is 0.2 part by mass or more with respect to 1 part by mass of the silicone elastomer; in a case where an amphoteric surfactant is included, the amphoteric surfactant is 1.5 parts by mass or less with respect to 1 part by mass of the glycerin-derived surfactant; and the viscosity is 9,500 mPa·s or less; wherein the viscosity can be measured by a BL viscometer (rotor No. 3, rotation speed 12 rpm) at 30°C.
A method for mapping a motion of a first object within a first motion path defined by a path planner based on a second motion path of a second object, the method comprising: creating the first motion path for the first object using the path planner; initializing a start position of the first object within the first motion path; determining a value for an initial condition for each segment of a plurality of segments in the first motion path created by the path planner; calculating an elapsed time between a current sample call time to the path planner and a last sample call time to the path planner; characterised by: if the calculated elapsed time is one of greater than and less than a sample period, determining a current location of the second object in the second motion path utilizing the calculated elapsed time; calculating an expired time within a first segment of the plurality of segments between a start time of the first segment and the current sample call time, wherein the expired time is a time past the start time set by the path planner for each segment; and generating an output command from the path planner based on the current location of the second object in the second motion path and the expired time within the first segment, the execution of the generated output command altering the first motion path to create a new motion path by taking into consideration the expired time. creating the first motion path for the first object using the path planner; initializing a start position of the first object within the first motion path; determining a value for an initial condition for each segment of a plurality of segments in the first motion path created by the path planner; calculating an elapsed time between a current sample call time to the path planner and a last sample call time to the path planner; if the calculated elapsed time is one of greater than and less than a sample period, determining a current location of the second object in the second motion path utilizing the calculated elapsed time; calculating an expired time within a first segment of the plurality of segments between a start time of the first segment and the current sample call time, wherein the expired time is a time past the start time set by the path planner for each segment; and generating an output command from the path planner based on the current location of the second object in the second motion path and the expired time within the first segment, the execution of the generated output command altering the first motion path to create a new motion path by taking into consideration the expired time.
A system for controlling the operation of automotive lamps, wherein said system comprises: a data collection unit, which collects peripheral environmental data for the current position of an automobile upon the occurrence of an event and through one or more sensing devices with which the automobile is provided; a driver-sensing unit which determines the position of an obstacle adjacent to the automobile on the basis of the peripheral environmental data, designates a driver search area in consideration of the determined position of the obstacle, and senses an approach of a driver by sensing a smart key carried by the driver in the designated driver search area; and an automotive lamp control unit which, if an approach of the driver is sensed in the designated driver search area, turns on the automotive lamps, wherein said driver-sensing unit determines whether obstacles exist in more than one preset areas on the basis of said collected peripheral environmental data, characterized in that said driver-sensing unit designates the preset area without obstacles as the driver search area.
An isolated and/or recombinant polynucleotide comprising a nucleotide sequence encoding an enzyme having phytase activity, said nucleotide sequence (i) having at least 85% identity to the nucleotide sequence as disclosed in Figure 1, 2 or 3, or (ii) being complementary to the nucleotide sequence disclosed in Figure 1, 2 or 3, or (iii) is capable of hybridizing to the polynucleotide sequence disclosed in Figure 1, 2 or 3, or to its complement, under conditions of high stringency, or (iv) comprising the nucleic acid as disclosed in Figure 1, 2 or 3, or (v) encoding an enzyme including an amino acid sequence having at least 90% sequence identity to the amino acid sequence as disclosed in Figure 4 or 5.
A binding partner or a fragment thereof binding specifically to the DENND1A.V2 protein and does not specifically recognize DENND1A.V1, wherein said binding partner being an antibody or an antigen binding fragment thereof specifically recognizing the DENND1A.V2 protein and not specifically recognizing theDENND1A.V1 protein, wherein said antibody or antigen binding fragment thereof specifically recognizes at least one epitope present in the amino acid sequence of NTIATPATLHILQKSITHFAAKFPTRGW TSSSH (SEQ ID No. 10).
A ballscrew assembly comprising: a ballnut having a first helical groove formed on a radially inner surface and defining an axis; a ballscrew disposed along the axis within the ballnut, the ballscrew comprising a second helical groove formed on a radially outer surface and opposed to the first helical groove so as to form a helical raceway; a plurality of balls disposed in the helical raceway; a first seal disposed at a first axial end of the ballnut to seal between the ballscrew and the ballnut; and a second seal, characterised in that: the second seal comprises a ballscrew seal mounted for axial movement with the ballscrew, and the second seal is configured to selectively seal between the ballscrew and a second axial end of the ballnut by making sealing engagement with the ballnut when the ballscrew is in a first axial position relative to the ballnut to form a chamber between the first and second seals (20, 22), but not making sealing engagement with the ballnut when the ballscrew assembly is in a second axial position relative thereto. a ballnut having a first helical groove formed on a radially inner surface and defining an axis; a ballscrew disposed along the axis within the ballnut, the ballscrew comprising a second helical groove formed on a radially outer surface and opposed to the first helical groove so as to form a helical raceway; a plurality of balls disposed in the helical raceway; a first seal disposed at a first axial end of the ballnut to seal between the ballscrew and the ballnut; and a second seal, characterised in that: the second seal comprises a ballscrew seal mounted for axial movement with the ballscrew, and the second seal is configured to selectively seal between the ballscrew and a second axial end of the ballnut by making sealing engagement with the ballnut when the ballscrew is in a first axial position relative to the ballnut to form a chamber between the first and second seals (20, 22), but not making sealing engagement with the ballnut when the ballscrew assembly is in a second axial position relative thereto.
Display pixel (12 i,j) for a display screen, comprising at least one light-emitting diode, a circuit for driving said at least one light-emitting diode, and first, second, third, and fourth electrically-conductive pads, the driver circuit being at least partly powered with a first power supply voltage (Vdd) received between the first and second electrically-conductive pads, characterized in that said at least one light-emitting diode is powered with a first binary signal (Vcc i, Vee i) received between the third and second electrically-conductive pads, the first binary signal alternates between a second power supply voltage (Vcc), greater than the first power supply voltage, and a third voltage, smaller than the first power supply voltage, the driver circuit is configured to determine a digital signal (R, G, B) based on the values of a second binary signal (Data j) on the fourth electrically-conductive pad received during each of first pulses of the first binary signal at the third voltage and to control said at least one light-emitting diode from the digital signal.
Method for drying offcut, in which the offcut is introduced into a substantially cylindrical drying container and is withdrawn at the lower side via a sliding plate, and in which drying air is blown in from below into a double base configured as air cushion with perforated base in the drying container, wherein under continuous program-controlled monitoring of relevant method parameters based on a measuring and regulating system, such as moisture in the offcut and the exhaust air, the supply and the discharge of the offcut is controlled while maintaining a constant filling height, characterized in that the drying air is blown in through covered blow-in openings of the perforated base, and in that the discharge of the offcut is effected via a chain cutter or worm milling machine rotating around a vertical axis.
A wireless power transmission device comprising: a power transmitter configured to wirelessly transmit power to a power reception device; an inverter configured to generate transmission power at a prescribed frequency and supply transmission power to the power transmitter; and a controller configured to control the inverter, characterized in that, the controller is configured to carry out: power control for controlling the transmission power to a target, efficiency optimization control for searching for, by oscillating the frequency, an optimal frequency for improving efficiency, while the transmission power is controlled to the target under the power control, and turn-on current control for controlling a turn-on current to a restriction value or less by manipulating the frequency by means of the inverter, and the turn-on current control includes first processing for determining a direction of manipulation of the frequency for lowering the turn-on current based on a direction of variation in the turn-on current in accordance with oscillation of the frequency under the efficiency optimization control. a power transmitter configured to wirelessly transmit power to a power reception device; an inverter configured to generate transmission power at a prescribed frequency and supply transmission power to the power transmitter; and a controller configured to control the inverter, characterized in that, the controller is configured to carry out: power control for controlling the transmission power to a target, efficiency optimization control for searching for, by oscillating the frequency, an optimal frequency for improving efficiency, while the transmission power is controlled to the target under the power control, and turn-on current control for controlling a turn-on current to a restriction value or less by manipulating the frequency by means of the inverter, and power control for controlling the transmission power to a target, efficiency optimization control for searching for, by oscillating the frequency, an optimal frequency for improving efficiency, while the transmission power is controlled to the target under the power control, and turn-on current control for controlling a turn-on current to a restriction value or less by manipulating the frequency by means of the inverter, and the turn-on current control includes first processing for determining a direction of manipulation of the frequency for lowering the turn-on current based on a direction of variation in the turn-on current in accordance with oscillation of the frequency under the efficiency optimization control.
An adjustable vehicle mirror system, comprising: - a housing; - a flexible mirror configured to change curvature, wherein an outer edge of the flexible mirror directly couples to the housing; and - an actuator coupled to the housing, characterized by - a cylinder operably coupled to the flexible mirror, wherein the cylinder is configured to receive a fluid; and wherein the actuator increases and decreases a pressure of the fluid in the cylinder to change the curvature of the mirror, wherein the flexible mirror comprises a shape memory material. - a housing; - a flexible mirror configured to change curvature, wherein an outer edge of the flexible mirror directly couples to the housing; and - an actuator coupled to the housing, - a cylinder operably coupled to the flexible mirror, wherein the cylinder is configured to receive a fluid; and
Melting head of an ice-melting device (1, 8), comprising a fastening region, which is rearward with respect to the propagation direction and is intended for fastening to a drilling device or a drill pipe, and a heatable front region, which is forward with respect to the propagation direction, wherein the front region has a radially outer surface region, in which the outer cross section of the front region tapers in the propagation direction as far as the forward axial melting head end and the radially outer surface region surrounds an inner recess, the free inner cross section of which decreases from the axial melting head end counter to the propagation direction, characterized in that, in a region between the point of intersection of the inner recess with the centre axis and the axial melting head end, the surface areas of the radially outer surface region and the surface of the inner recess are the same and the surfaces (pla, plb) of the outer surface region and the surface of the inner recess, projected in the propagation direction, are the same size.
A method for efficient link recovery between first and second Fibre Channel ports (26, 28; 36, 38) communicating by the transport of GFP-encapsulated Fibre Channel client data frames across a SONET/SDH transport network, said first Fibre Channel port (26, 28) connected to said SONET/SDH transport network through a first transport interface and said second Fibre Channel port (36, 38) connected to said SONET/SDH transport network through a second transport interface, the method comprising: detecting an interruption in said SONET/SDH transport network responsive to a GFP loss of synchronization; transmitting Ordered Sets indicative of non-operation from said first transport interface to said first Fibre Channel port (26, 28); and said first Fibre Channel port (26, 28) performing link initialization and buffer credit recovery procedures with said second Fibre Channel port (36, 38). detecting an interruption in said SONET/SDH transport network responsive to a GFP loss of synchronization; transmitting Ordered Sets indicative of non-operation from said first transport interface to said first Fibre Channel port (26, 28); and said first Fibre Channel port (26, 28) performing link initialization and buffer credit recovery procedures with said second Fibre Channel port (36, 38).
An air compressor system, comprising: an air compressor having an air inlet and an air outlet the air compressor configured to compress air from the air inlet and to deliver a volume of compressed air to the air outlet; a receiver having an air inlet and an air outlet, the air inlet of the receiver in communication with the air outlet of the compressor and the receiver configured to store compressed air from the air compressor; and an oil system to provide oil to the air compressor, the oil system including a first oil line connected to the air compressor and the receiver and a second oil line connected to the air compressor and the receiver; characterized in that the first oil line is connected at a first end to the receiver and at a second end to bearing lube lines of the air compressor and is configured to transport oil from the receiver to the air compressor, and the second oil line is connected at a first end to the receiver and at a second end to cooling lines of the air compressor and is configured to transport oil from the receiver to the air compressor when the air compressor is on load and is configured to prevent oil from flowing from the receiver to the air compressor when the air compressor is off load. an air compressor having an air inlet and an air outlet the air compressor configured to compress air from the air inlet and to deliver a volume of compressed air to the air outlet; a receiver having an air inlet and an air outlet, the air inlet of the receiver in communication with the air outlet of the compressor and the receiver configured to store compressed air from the air compressor; and an oil system to provide oil to the air compressor, the oil system including a first oil line connected to the air compressor and the receiver and a second oil line connected to the air compressor and the receiver; characterized in that the first oil line is connected at a first end to the receiver and at a second end to bearing lube lines of the air compressor and is configured to transport oil from the receiver to the air compressor, and the second oil line is connected at a first end to the receiver and at a second end to cooling lines of the air compressor and is configured to transport oil from the receiver to the air compressor when the air compressor is on load and is configured to prevent oil from flowing from the receiver to the air compressor when the air compressor is off load.
An implantable medical device comprising: a polymeric frame having a plurality of hoop components oriented in spaced apart relationship along a longitudinal axis, each hoop component being formed from a series of alternating substantially longitudinally oriented strut members and X-shaped connector junction strut members circumferentially arranged about the longitudinal axis, whereas each end of each longitudinal strut member is directly connected to the circumferentially adjacent X-shaped connector junction strut members by alternating substantially circumferentially orientated arc members; and a plurality of substantially straight connectors connecting adjacent hoop components between corresponding X-shaped connector junction strut members. a polymeric frame having a plurality of hoop components oriented in spaced apart relationship along a longitudinal axis, each hoop component being formed from a series of alternating substantially longitudinally oriented strut members and X-shaped connector junction strut members circumferentially arranged about the longitudinal axis, whereas each end of each longitudinal strut member is directly connected to the circumferentially adjacent X-shaped connector junction strut members by alternating substantially circumferentially orientated arc members; and a plurality of substantially straight connectors connecting adjacent hoop components between corresponding X-shaped connector junction strut members.
A chip, comprising: at least one signal conductor (USB_Inp, USB_Outp); and a filter including a plurality of ground conductors, wherein the at least one signal conductor is configured to carry a signal that conforms to an interface protocol and wherein the plurality of ground conductors at least partially surround the at least one signal conductor on a same die, the plurality of ground conductors to filter electromagnetic interference generated by the signal to be carried by the at least one signal conductor. at least one signal conductor (USB_Inp, USB_Outp); and a filter including a plurality of ground conductors, wherein the at least one signal conductor is configured to carry a signal that conforms to an interface protocol and wherein the plurality of ground conductors at least partially surround the at least one signal conductor on a same die, the plurality of ground conductors to filter electromagnetic interference generated by the signal to be carried by the at least one signal conductor.