mhurhangee/patent-ind-claim-en huggingface dataset:
A method for objectively evaluating an airport runway condition, comprising: determining a first set of conditions pertaining to aircraft landing factors that are controlled by a pilot, including autobrake setting , brake metered pressure , thrust reverse , thrust lever position and ground spoilers ; measuring a second set of conditions pertaining to aircraft braking factors, including brake pressure , wheel speed , and aircraft deceleration ; determining a third set of conditions generated by an antiskid brake control system ; processing the first, second, and third set of conditions to calculate a braking quality factor for the aircraft based on all three sets of conditions; assigning a runway condition based on the braking quality factor; generating a condition report from the braking quality factor and the associated data; and making available the condition report to pilots of subsequently landing aircrafts prior to landing. determining a first set of conditions pertaining to aircraft landing factors that are controlled by a pilot, including autobrake setting , brake metered pressure , thrust reverse , thrust lever position and ground spoilers ; measuring a second set of conditions pertaining to aircraft braking factors, including brake pressure , wheel speed , and aircraft deceleration ; determining a third set of conditions generated by an antiskid brake control system ; processing the first, second, and third set of conditions to calculate a braking quality factor for the aircraft based on all three sets of conditions; assigning a runway condition based on the braking quality factor; generating a condition report from the braking quality factor and the associated data; and making available the condition report to pilots of subsequently landing aircrafts prior to landing.
A safety controller for controlling an automated installation which comprises a plurality of sensors and a plurality of actuators, having a control unit to which a plurality of control input signals are supplied by the sensors, wherein the control unit is designed to produce a plurality of control output signals in an automatic mode on the basis of the control input signals in accordance with a user program running in said control unit, wherein the plurality of control output signals are used to actuate the plurality of actuators, having a diagnosis evaluation unit to which a number of diagnosis input signals are supplied, wherein the diagnosis evaluation unit is designed to take the diagnosis input signals as a basis for ascertaining which of a plurality of operating states is present at a defined instant of time, wherein the diagnosis evaluation unit produces an operating state data record which represents an ascertained operating state, wherein the operating state data record has a plurality of diagnosis data and a Boolean status indicator, and having an interface for a display unit which is designed to display diagnosis reports with at least a part of the diagnosis data, characterized in that the user program has at least one safety control module , in which safety-related control input signals are processed in failsafe fashion, and at least one standard control module , in which process-related control input signals are processed, wherein the plurality of operating states comprise at least one process state of the installation to be controlled and at least one system state of the safety controller , wherein the operating state data record represents the process state and the system state, and wherein the control unit is designed to actuate at least one actuator on the basis of the Boolean status indicator by the user program, executed in the control unit, accessing the operating state data record with the Boolean status indicator.
A seat assembly for a vehicle having a longitudinal axis comprising: a seat pan ; a cover support adjacent to the seat pan; a seat cover comprising an upper surface and a first longitudinally extending side surface and a second longitudinally extending side surface ; a heating and cooling module disposed at least partially within the cover support ; and said seat cover comprising an air inlet port in communication with the heating and cooling module, said air inlet port communicating air from an opening in the seat cover to the heating and cooling module, wherein the opening in the seat cover is disposed in the first longitudinally extending side surface . a seat pan ; a cover support adjacent to the seat pan; a seat cover comprising an upper surface and a first longitudinally extending side surface and a second longitudinally extending side surface ; a heating and cooling module disposed at least partially within the cover support ; and said seat cover comprising an air inlet port in communication with the heating and cooling module, said air inlet port communicating air from an opening in the seat cover to the heating and cooling module, wherein the opening in the seat cover is disposed in the first longitudinally extending side surface .
A method for installing a drop cable for an optical access network in a building, said drop cable having a first end , a second end and a first minimum bending radius, said drop cable comprising at least one optical fiber and one or more layers surrounding said optical fiber , said method comprising: a) laying said drop cable so that said first end is housed in a termination box placed at a first position at user's premises within said building and said second end is brought to a second position close to a riser cable within said building; b) collecting an extra-length of said drop cable at a third position intermediate between said first position and said second position; c) removing at least one of said layers from a portion of said extra-length of said drop cable ; and d) coiling said portion with a bending radius smaller than said first minimum bending radius, said method further comprising placing a storage box at said third position and accommodating said coiled portion in said storage box . a) laying said drop cable so that said first end is housed in a termination box placed at a first position at user's premises within said building and said second end is brought to a second position close to a riser cable within said building; b) collecting an extra-length of said drop cable at a third position intermediate between said first position and said second position; c) removing at least one of said layers from a portion of said extra-length of said drop cable ; and d) coiling said portion with a bending radius smaller than said first minimum bending radius,
A silica-based precast refractory block for a coke oven, the precast refractory block containing a P 2 O 5 component in an amount of 0.3 to 2 mass%, wherein, in a raw material mixture of the precast refractory block, fused silica is mixed in an amount of 65 mass% or more, silica stone is mixed in an amount of 17 mass% or less, and fumed silica is mixed in an amount of 0.5 to 15 mass%.
A method for establishing a provable identity for a first computer being a virtual machine, comprising: creating an account for the first computer on a second computer; configuring the first computer to communicate on a communications network; sending to the first computer, by the second computer, a full token, wherein the full token is signed with the second computer's private key, in response to receiving a credential from the first computer corresponding to a credential stored in an account for the first computer on the second computer, the full token comprising an assertion of an identity of the first computer, the full token being created by the second computer based on the account for the first computer, wherein the credential has been sent to both the first computer and the second computer; and sending , by the second computer, a public key to a third computer, wherein the public key corresponds to the second computer's private key, wherein the third computer confirms the identity of the first computer based on determining that combining the full token of the first computer and the public key produces a result consistent with the identity of the first computer, wherein the third computer determines to trust the full token because it was issued by the second computer, the third computer having validated an identity of the second computer. creating an account for the first computer on a second computer; configuring the first computer to communicate on a communications network; sending to the first computer, by the second computer, a full token, wherein the full token is signed with the second computer's private key, in response to receiving a credential from the first computer corresponding to a credential stored in an account for the first computer on the second computer, the full token comprising an assertion of an identity of the first computer, the full token being created by the second computer based on the account for the first computer, wherein the credential has been sent to both the first computer and the second computer; and sending , by the second computer, a public key to a third computer, wherein the public key corresponds to the second computer's private key, wherein the third computer confirms the identity of the first computer based on determining that combining the full token of the first computer and the public key produces a result consistent with the identity of the first computer, wherein the third computer determines to trust the full token because it was issued by the second computer, the third computer having validated an identity of the second computer.
A method of encoding an image (400; 420), the image (400; 420) comprising a first row of largest coding units, LCUs, and a second row of LCUs that is immediately following the first row of LCUs, the method comprising: determining that wavefront parallel processing is enabled; and partitioning the first row of LCUs and the second row of LCUs into normal slices and dependent slices, wherein normal slices have, in a slice header, information that can be used for another slice and dependent slices are decodable using information included in a slice header of a normal slice, the partitioning resulting in slices comprising a normal slice (402; 422) and a group of dependent slices (403; 423), the method being characterized by the normal slice (402; 422) being at a position of the first row of LCUs that is not at the beginning of the first row of LCUs, the group of dependent slices (403; 423) consisting of every dependent slice that uses the information from the normal slice (402; 422) for encoding, wherein, based on the determination that wavefront parallel processing is enabled and the normal slice (402; 422) being at a position that is other than the beginning of the first row of LCUs, the partitioning of the first row of LCUs and the second row of LCUs is performed such that the entire group of dependent slices (403; 423) is included in the first row of LCUs, and, the normal slice immediately precedes the entire group of dependent slices. determining that wavefront parallel processing is enabled; and partitioning the first row of LCUs and the second row of LCUs into normal slices and dependent slices, wherein normal slices have, in a slice header, information that can be used for another slice and dependent slices are decodable using information included in a slice header of a normal slice, the partitioning resulting in slices comprising a normal slice (402; 422) and a group of dependent slices (403; 423), the method being characterized by the normal slice (402; 422) being at a position of the first row of LCUs that is not at the beginning of the first row of LCUs, the group of dependent slices (403; 423) consisting of every dependent slice that uses the information from the normal slice (402; 422) for encoding, wherein, based on the determination that wavefront parallel processing is enabled and the normal slice (402; 422) being at a position that is other than the beginning of the first row of LCUs, the partitioning of the first row of LCUs and the second row of LCUs is performed such that the entire group of dependent slices (403; 423) is included in the first row of LCUs, and, the normal slice immediately precedes the entire group of dependent slices.
An article, the article including a substrate, at least a surface of the substrate being made of or containing an organic material, and a thermal sprayed first layer of coating material on the surface, and a further layer on the first layer, the coating material of the first layer being wholly or principally aluminium, the first layer being less than 200 micrometres in thickness and the further layer being of a material with a higher melting point than the coating material of the first layer, wherein the further layer is made wholly or principally of ceramic material, and the level of porosity in the further layer is greater than 5%, the first layer being connected to earth to provide electromagnetic shielding.
Probe device (20; 29; 31; 32) for insertion into a body of a patient - with a suction conduit between -- a distal suction/feed port and -- a proximal suction attachment port for the attachment of a vacuum source, - with a feed conduit between -- a proximal feed attachment port for the attachment of a feed source and -- the distal suction/feed port , wherein the feed conduit has a feed tube section extending between the feed attachment port and the suction/feed port , wherein the feed tube section has a material composition containing silicone and BaSO 4 , characterized in that the feed attachment port is connected to the feed tube section in a fluid-tight manner via an overmould section which covers a transition between the feed attachment port and the feed tube section and is connected on the one hand in a fluid-tight manner to the feed attachment port and is connected on the other hand in a fluid-tight manner to the feed tube section , wherein the overmould section has a material composition containing silicone and BaSO4. - with a suction conduit between -- a distal suction/feed port and -- a proximal suction attachment port for the attachment of a vacuum source, -- a distal suction/feed port and -- a proximal suction attachment port for the attachment of a vacuum source, - with a feed conduit between -- a proximal feed attachment port for the attachment of a feed source and -- the distal suction/feed port , -- a proximal feed attachment port for the attachment of a feed source and -- the distal suction/feed port , wherein the feed conduit has a feed tube section extending between the feed attachment port and the suction/feed port , wherein the feed tube section has a material composition containing silicone and BaSO 4 , characterized in that the feed attachment port is connected to the feed tube section in a fluid-tight manner via an overmould section which covers a transition between the feed attachment port and the feed tube section and is connected on the one hand in a fluid-tight manner to the feed attachment port and is connected on the other hand in a fluid-tight manner to the feed tube section , wherein the overmould section has a material composition containing silicone and BaSO4.
A pulsed sputtering system, comprising: a plasma chamber enclosing a magneton group comprising a first magnetron (M1), a second magnetron (M2), and a third magnetron (M3), and each magnetron is coupled to a corresponding one of three targets; a first power source coupled to the first magnetron and the second magnetron, the first power source configured to apply a first voltage at the first magnetron that alternates between positive and negative relative to the second magnetron during each of multiple cycles; a second power source coupled to the third magnetron and the second magnetron, the second power source configured to apply a second voltage to the third magnetron that alternates between positive and negative relative to the second electrode during each of the multiple cycles; and a controller configured to control the first power source and the second power source so that the magnetron group sputters over each entire cycle by phase-synchronizing the first voltage with the second voltage, so both, the first voltage and the second voltage, are simultaneously negative relative to the second magnetron during a first part of each cycle to sputter from the first magnetron and the third magnetron and simultaneously positive relative to the second magnetron during a second part of each cycle to sputter from the second magnetron. a plasma chamber enclosing a magneton group comprising a first magnetron (M1), a second magnetron (M2), and a third magnetron (M3), and each magnetron is coupled to a corresponding one of three targets; a first power source coupled to the first magnetron and the second magnetron, the first power source configured to apply a first voltage at the first magnetron that alternates between positive and negative relative to the second magnetron during each of multiple cycles; a second power source coupled to the third magnetron and the second magnetron, the second power source configured to apply a second voltage to the third magnetron that alternates between positive and negative relative to the second electrode during each of the multiple cycles; and a controller configured to control the first power source and the second power source so that the magnetron group sputters over each entire cycle by phase-synchronizing the first voltage with the second voltage, so both, the first voltage and the second voltage, are simultaneously negative relative to the second magnetron during a first part of each cycle to sputter from the first magnetron and the third magnetron and simultaneously positive relative to the second magnetron during a second part of each cycle to sputter from the second magnetron.
Way valve for a heat pump circuit with a valve housing , which has at least three fluidic connections and defines a fluid space a valve member , which is displaceably mounted in the valve housing and is displaceable between at least two operating positions, an actuator by which the valve member is translationally movable, wherein the actuator is operatively connected to the valve member via a tiltable actuating member , wherein the tilting axis of the actuating member is arranged perpendicular to the direction of movement of the valve member , wherein the actuating member is a leaf spring with a V-shaped cross-section, wherein the V-shaped leaf spring has two legs and a connecting section connecting the two legs , wherein the leaf spring is tiltably mounted on the valve housing via the free ends of the legs and is interlockingly connected to the valve member via the connecting section at least in the direction of movement of the valve member . a valve housing , which has at least three fluidic connections and defines a fluid space a valve member , which is displaceably mounted in the valve housing and is displaceable between at least two operating positions, an actuator by which the valve member is translationally movable, wherein the actuator is operatively connected to the valve member via a tiltable actuating member , wherein the tilting axis of the actuating member is arranged perpendicular to the direction of movement of the valve member , wherein the actuating member is a leaf spring with a V-shaped cross-section, wherein the V-shaped leaf spring has two legs and a connecting section connecting the two legs , wherein the leaf spring is tiltably mounted on the valve housing via the free ends of the legs and is interlockingly connected to the valve member via the connecting section at least in the direction of movement of the valve member .
A fibre detector assembly comprising: (i) a scattering chamber body; (ii) means for drawing particles through said body chamber in the form of a particle stream, said means being adapted such that the particles tend to travel in single file with the longitudinal axis of particles with elongate shape substantially aligned with the direction of the flow; (iii) means for illuminating the particle stream within the chamber body; (iv) an optical detector adapted to intercept and collect a portion of the light scattered by particles passing through the illuminating beam ; (v) data processing means adapted to capture and process the signals from the optical detector ; characterized in that the assembly further comprises a single pair of permanent magnets for applying a magnetic field across the particle stream, the magnetic field lines of the magnetic field being perpendicular to the direction of the particle stream, and wherein the single pair of permanent magnets generates, in use, a constant magnetic field. (i) a scattering chamber body; (ii) means for drawing particles through said body chamber in the form of a particle stream, said means being adapted such that the particles tend to travel in single file with the longitudinal axis of particles with elongate shape substantially aligned with the direction of the flow; (iii) means for illuminating the particle stream within the chamber body; (iv) an optical detector adapted to intercept and collect a portion of the light scattered by particles passing through the illuminating beam ; (v) data processing means adapted to capture and process the signals from the optical detector ;
An organic light emitting display (OLED) device comprising: a substrate ; an anode electrode on the substrate; an organic emitting layer on the anode electrode; a cathode electrode on the organic emitting layer; an auxiliary electrode on the substrate; a first bank on an upper surface of the auxiliary electrode; and a second bank between the auxiliary electrode and the anode electrode, wherein the second bank is formed of the same material as that of the first bank, and the first and second banks are spaced from each other, wherein a width in an upper surface of the first bank is larger than a width in a lower surface of the first bank, and the cathode electrode is connected with the auxiliary electrode via a gap space between the first bank and the second bank, characterized in that the auxiliary electrode includes a lower auxiliary electrode , a central auxiliary electrode , and an upper auxiliary electrode , and wherein a width of the lower auxiliary electrode is greater than a width of each of the central auxiliary electrode and the upper auxiliary electrode, and the width of the central auxiliary electrode is less than the width of the upper auxiliary electrode. a substrate ; an anode electrode on the substrate; an organic emitting layer on the anode electrode; a cathode electrode on the organic emitting layer; an auxiliary electrode on the substrate; a first bank on an upper surface of the auxiliary electrode; and a second bank between the auxiliary electrode and the anode electrode, wherein the second bank is formed of the same material as that of the first bank, and the first and second banks are spaced from each other, wherein a width in an upper surface of the first bank is larger than a width in a lower surface of the first bank, and the cathode electrode is connected with the auxiliary electrode via a gap space between the first bank and the second bank, characterized in that the auxiliary electrode includes a lower auxiliary electrode , a central auxiliary electrode , and an upper auxiliary electrode , and wherein a width of the lower auxiliary electrode is greater than a width of each of the central auxiliary electrode and the upper auxiliary electrode, and the width of the central auxiliary electrode is less than the width of the upper auxiliary electrode.