mhurhangee/ep-ind-claims huggingface dataset:
A vehicle engine control system comprising: a main microprocessor for controlling the vehicle engine; and a monitoring microprocessor for monitoring the correct operation of the main microprocessor; the main microprocessor and the monitoring microprocessor each being configured to receive a first signal indicative of the position of a driver accelerator pedal, and a second signal indicative of an actual rotational speed of the vehicle engine, wherein, in the event that a fault associated with the main microprocessor is detected: (i) the main microprocessor is configured to enter a limp-home mode in which the vehicle engine is operated according to an engine speed control model having a set point defined by a pedal map duplicated in both the main microprocessor and the monitoring microprocessor, the pedal map correlating values of the accelerator pedal position with target values for the engine speed, such that an acceptable operating envelope is defined by values of the engine speed equal to or less than the target value at the respective accelerator pedal position; (ii) the monitoring microprocessor is configured to determine from the first and second signals (20, 18) and the pedal map if the actual engine speed is within the predefined acceptable operating envelope; and (iii) the main microprocessor is allowed to continue to operate the vehicle engine in the limp-home mode provided that the actual engine speed is within the acceptable operating envelope; wherein in the event that the actual engine speed is not within the acceptable operating envelope, the monitoring microprocessor is configured to intervene in order to bring the actual engine speed to within the acceptable operating envelope, and control the vehicle engine in accordance with the engine speed control model by utilising the first and second signals and the pedal map. a main microprocessor for controlling the vehicle engine; and a monitoring microprocessor for monitoring the correct operation of the main microprocessor; (i) the main microprocessor is configured to enter a limp-home mode in which the vehicle engine is operated according to an engine speed control model having a set point defined by a pedal map duplicated in both the main microprocessor and the monitoring microprocessor, the pedal map correlating values of the accelerator pedal position with target values for the engine speed, such that an acceptable operating envelope is defined by values of the engine speed equal to or less than the target value at the respective accelerator pedal position; (ii) the monitoring microprocessor is configured to determine from the first and second signals (20, 18) and the pedal map if the actual engine speed is within the predefined acceptable operating envelope; and (iii) the main microprocessor is allowed to continue to operate the vehicle engine in the limp-home mode provided that the actual engine speed is within the acceptable operating envelope;
An exhaust gas purification device for an internal combustion engine, comprising: a filter that is provided in an exhaust passage of the internal combustion engine and configured to collect particulate matter in an exhaust gas; electrostatic capacity detecting means (17a, 17b, 21) configured to detect an electrostatic capacity of the filter; and filter regenerating means (13, 22) configured to supply fuel to the filter and perform a forced regeneration that burns and removes particulate matter accumulated in the filter, the filter regenerating means (13, 22) being configured to stop supplying the fuel when a decreasing rate of the detected electrostatic capacity per predetermined period of time reaches or falls below a predetermined lower threshold while the forced regeneration is being performed, said predetermined lower threshold indicating a drop in burning efficiency of the particulate matter, the predetermined lower threshold being greater than zero, characterized in that the filter regenerating means (13, 22) stops supplying the fuel after reducing an amount of fuel supply stepwise to finish the forced regeneration when the decreasing rate of the detected electrostatic capacity per predetermined period of time reaches or falls below the predetermined lower threshold while the forced regeneration is being performed. a filter that is provided in an exhaust passage of the internal combustion engine and configured to collect particulate matter in an exhaust gas; electrostatic capacity detecting means (17a, 17b, 21) configured to detect an electrostatic capacity of the filter; and filter regenerating means (13, 22) configured to supply fuel to the filter and perform a forced regeneration that burns and removes particulate matter accumulated in the filter, the filter regenerating means (13, 22) being configured to stop supplying the fuel when a decreasing rate of the detected electrostatic capacity per predetermined period of time reaches or falls below a predetermined lower threshold while the forced regeneration is being performed, said predetermined lower threshold indicating a drop in burning efficiency of the particulate matter, the predetermined lower threshold being greater than zero, characterized in that the filter regenerating means (13, 22) stops supplying the fuel after reducing an amount of fuel supply stepwise to finish the forced regeneration when the decreasing rate of the detected electrostatic capacity per predetermined period of time reaches or falls below the predetermined lower threshold while the forced regeneration is being performed.
A method of determining the longitudinal pitch of blocks (11, 11*) of a tread band having a raised pattern comprising a number of longitudinal grooves and transverse grooves; the method comprising the step of calculating a first best longitudinal pitch (P b) of the blocks (11, 11*), to minimize pass-by noise at a target speed, using the equation: P b = 2 ⁢ m ⁢ L 0 ⁢ V c - Δ ⁢ P P b first best longitudinal pitch of the blocks (11, 11*); m whole number greater than zero (i.e. 1, 2, 3, 4,......); L 0 length of contact area of the blocks (11, 11*); V target linear speed of the tyre; c speed of sound; ΔP impact/release sequence geometric offset index of the blocks (11, 11*). P b first best longitudinal pitch of the blocks (11, 11*); m whole number greater than zero (i.e. 1, 2, 3, 4,......); L 0 length of contact area of the blocks (11, 11*); V target linear speed of the tyre; c speed of sound; ΔP impact/release sequence geometric offset index of the blocks (11, 11*).
A synergistic fungicide composition, comprising two active components A and B, wherein the active component A is benzisothiazolinone, the active component B is dithianon, and the weight ratio of the two components is 1:50 to 50:1.
A building panel comprising a decorative surface connected to a core, wherein the decorative surface comprises at least two substantially homogenous layers, said at least two substantially homogenous layers comprising a lower sub layer and an upper decorative layer, wherein the upper decorative layer comprises fibres, a first colour substance, a binder and wear resistant particles, and the sub layer comprises fibres, a binder and a second colour substance, the first and the second colour substance are different colours, characterized in that the decorative surface further comprises a portion located in the same plane as an upper surface of the upper decorative layer such that said portion is visible on the decorative surface, wherein said portion comprises the second colour substance originating from the sub layer.
A method of allocating radio resources in a wireless communication system, the method comprising: configuring one or more subbands by dividing a system band, wherein the system band is divided using a multiple of a square of a Resource Block Group, RBG, size as a band boundary of the one or more subbands, characterized in that the one or more subbands include a plurality of contiguous Resource Blocks, RBs, wherein a second gap value, out of a first and second gap values, is applied to the system band when the system band has 50 RBs or higher, wherein when the second gap value is applied to the system band, the system band is divided such that the one or more subbands are included only in a single interleaving block, and sending allocation information indicative of resource allocation within the configured one or more subbands. configuring one or more subbands by dividing a system band, wherein the system band is divided using a multiple of a square of a Resource Block Group, RBG, size as a band boundary of the one or more subbands, characterized in that the one or more subbands include a plurality of contiguous Resource Blocks, RBs, wherein a second gap value, out of a first and second gap values, is applied to the system band when the system band has 50 RBs or higher, wherein when the second gap value is applied to the system band, the system band is divided such that the one or more subbands are included only in a single interleaving block, and sending allocation information indicative of resource allocation within the configured one or more subbands.
A bed comprising a deck section (132, 140, 142, 144, 146) having a width and left and right outboard deck edges, a left side wing (134, 148, 150, 152, 154) and a right side wing (134, 148, 150, 152, 154), both movably coupled to the deck section (132, 140, 142, 144, 146) and each having a laterally outboard extremity, a left leadscrew receiver mounted on the left wing (134, 148, 150, 152, 154) and a right leadscrew receiver mounted on the right wing (134, 148, 150, 152, 154), a left motor assembly and a right motor assembly, a left leadscrew coupled to the left motor assembly and to the left leadscrew receiver, and a right leadscrew coupled to the right motor assembly and to the right leadscrew receiver, wherein motor operation is capable of moving the wing (134, 148, 150, 152, 154) to which it is coupled between a deployed position in which the lateral extremity of the wing (134, 148, 150, 152, 154) is outboard of the respective outboard edge of the deck section (132, 140, 142, 144, 146) and a stored position in which the lateral extremity of the wing (134, 148, 150, 152, 154) is inboard of its deployed position, characterized in that the left motor assembly and the right motor assembly are both mounted on the deck section (132, 140, 142, 144, 146).
Device for the galvanic isolation of at least one apparatus which is connectable to a 2-wire Ethernet bus system, comprising - an uplink and a downlink PHY interface device (101, 102), each comprising a transmitting unit (Tx) and a receiving unit (Rx), wherein the receiving units each have two output terminals (111-112, 123-124) for providing a received ternary-coded signal as differential signal (MLT-3), - an uplink and a downlink signal split device (131-132, 133-134), each connected to the output terminals of an assigned receiving unit and configured for splitting a ternary-coded signal provided as differential signal into two binary-coded signals (BIN-1, BIN-2), - an uplink and a downlink optocoupler device (141-142, 143-144) each connected to an assigned signal split device and configured for transferring two received binary-coded signals to a transmitting unit of an assigned PHY interface device. - an uplink and a downlink PHY interface device (101, 102), each comprising a transmitting unit (Tx) and a receiving unit (Rx), wherein the receiving units each have two output terminals (111-112, 123-124) for providing a received ternary-coded signal as differential signal (MLT-3), - an uplink and a downlink signal split device (131-132, 133-134), each connected to the output terminals of an assigned receiving unit and configured for splitting a ternary-coded signal provided as differential signal into two binary-coded signals (BIN-1, BIN-2), - an uplink and a downlink optocoupler device (141-142, 143-144) each connected to an assigned signal split device and configured for transferring two received binary-coded signals to a transmitting unit of an assigned PHY interface device.
A powdery composition for hexavalent chromium treatment, the powdery composition comprising: a hexavalent chromium reducing compound component capable of reducing hexavalent chromium into trivalent chromium; and a component capable of trapping moisture in air and dissolving in water, wherein the hexavalent chromium reducing compound component contains an organic compound having a structure represented by chemical formula and capable of acting on hexavalent chromium for reduction into trivalent chromium, having a hydroxyphenyl group, and having no aldehyde groups and no carboxy groups, where R 1, R 2, R 3, R 4, and R 5 are each independently a substituent composed of C, H, and O atoms, and any of R 1 or R 2, and R 3, R 4 or R 5 is optionally linked together to form a ring. a hexavalent chromium reducing compound component capable of reducing hexavalent chromium into trivalent chromium; and a component capable of trapping moisture in air and dissolving in water, wherein the hexavalent chromium reducing compound component contains an organic compound having a structure represented by chemical formula and capable of acting on hexavalent chromium for reduction into trivalent chromium, having a hydroxyphenyl group, and having no aldehyde groups and no carboxy groups, where R 1, R 2, R 3, R 4, and R 5 are each independently a substituent composed of C, H, and O atoms, and any of R 1 or R 2, and R 3, R 4 or R 5 is optionally linked together to form a ring.
A glazing unit with solar-control properties, comprising at least one preferably glass substrate on which a multilayer is deposited, said multilayer comprising a layer made of a metal alloy comprising zinc and copper, in which alloy the Zn/ (Cu+Zn) atomic ratio is higher than 35% and lower than 65%, and in which the copper and zinc represent in total at least 80 at% of the metal elements present in the alloy.
Vehicular high pressure direct injection type injector with valve seat body for fuel-atomization, comprising: a cylindrical housing having a needle valve therein; a magnetic coil reciprocating the needle valve; a current supply line 13 supplying current to the magnetic coil; a return spring disposed on an upper end of the needle valve, the return spring applying restoring force to the needle valve; a valve seat body disposed in a lower end of the cylindrical housing; and a ball disposed between the valve seat body and the needle valve, the valve seat body having a valve seat surface (301, 403, 502, 602, 702, 802) onto which the ball is seated, and a nozzle hole (300, 400, 500, 600, 700, 800) formed in the valve seat body in a direction in which fuel is injected, the nozzle hole (300, 400, 500, 600, 700, 800) having an elliptical horizontal cross-section, characterized in that the horizontal cross-section of the nozzle hole is an ellipse having a minor axis to a major axis ratio of 1: 1 to 3.5; and by a stepped hole formed under the nozzle hole, the stepped hole having a larger cross-sectional area than a cross-sectional area of the nozzle hole; wherein the nozzle hole has a reverse truncated conical shape, and a side surface of the nozzle hole is tapered in such a way that a horizontal cross-sectional area of the nozzle hole is reduced in the direction in which the fuel is injected. a cylindrical housing having a needle valve therein; a magnetic coil reciprocating the needle valve; a current supply line 13 supplying current to the magnetic coil; a return spring disposed on an upper end of the needle valve, the return spring applying restoring force to the needle valve; a valve seat body disposed in a lower end of the cylindrical housing; and a ball disposed between the valve seat body and the needle valve, the valve seat body having a valve seat surface (301, 403, 502, 602, 702, 802) onto which the ball is seated, and a nozzle hole (300, 400, 500, 600, 700, 800) formed in the valve seat body in a direction in which fuel is injected, the nozzle hole (300, 400, 500, 600, 700, 800) having an elliptical horizontal cross-section, characterized in that the horizontal cross-section of the nozzle hole is an ellipse having a minor axis to a major axis ratio of 1: 1 to 3.5; and by a stepped hole formed under the nozzle hole, the stepped hole having a larger cross-sectional area than a cross-sectional area of the nozzle hole; wherein the nozzle hole has a reverse truncated conical shape, and a side surface of the nozzle hole is tapered in such a way that a horizontal cross-sectional area of the nozzle hole is reduced in the direction in which the fuel is injected.
Gathering device for selectively laterally bringing together a film for wrapping around a bale, comprising a gathering element (64, 66) which interacts with an edge of the film and, by way of at least one power-operated drive, which comprises a motor and a reduction gear mechanism, is movable in relation to the film in a lateral direction between a non-operational position and an operating position in order to gather the film according to requirement, wherein a holding device for fixing the gathering element (64, 66) in the operating position is provided, characterized in that the holding device acts electrically on the motor, which is in the form of an electric motor, and brakes it electrically, and/or acts mechanically as a brake or latching means on the drivetrain of the gathering element (64, 66) that couples the gathering element (64, 66) to the motor.
A vaccine combination comprising (i) a first composition comprising an immunologically effective amount of an adenovirus vector comprising a nucleic acid encoding an antigenic glycoprotein of a first filovirus subtype, wherein said first filovirus subtype is an Ebolavirus subtype, together with a pharmaceutically acceptable carrier; and (ii) a second composition comprising an immunologically effective amount of an MVA vector comprising a nucleic acid encoding an antigenic glycoprotein of an Ebolavirus subtype and additionally encoding at least one antigenic protein of another filovirus subtype, together with a pharmaceutically acceptable carrier; for use in generating a protective immune response against at least one Ebolavirus subtype, wherein the first composition is used for priming an immune response against at least one Ebolavirus subtype and the second composition is used for boosting said immune response. (i) a first composition comprising an immunologically effective amount of an adenovirus vector comprising a nucleic acid encoding an antigenic glycoprotein of a first filovirus subtype, wherein said first filovirus subtype is an Ebolavirus subtype, together with a pharmaceutically acceptable carrier; and (ii) a second composition comprising an immunologically effective amount of an MVA vector comprising a nucleic acid encoding an antigenic glycoprotein of an Ebolavirus subtype and additionally encoding at least one antigenic protein of another filovirus subtype, together with a pharmaceutically acceptable carrier; for use in generating a protective immune response against at least one Ebolavirus subtype, wherein the first composition is used for priming an immune response against at least one Ebolavirus subtype and the second composition is used for boosting said immune response.
A method comprising: a) processing, by a transaction processing computer, a plurality of transactions, wherein each transaction is conducted between a user and a resource provider computer and includes (i) receiving an authorization request message, (ii) determining an authorization entity computer associated with the user, (iii) transmitting the authorization request message to the authorizing entity computer, (iv) receiving an authorization response message from the authorizing entity computer, and (v) transmitting the authorization response message to the resource provider computer; b) storing, by the transaction processing computer, data relating to the plurality of transactions; c) determining, by the transaction processing computer, a recurrence value based on at least the data relating to the plurality of transactions, the recurrence value indicating at least a frequency or number of interactions between the resource provider computer and the user; and d) initiating, by the transaction processing computer, an action based on the recurrence value. a) processing, by a transaction processing computer, a plurality of transactions, wherein each transaction is conducted between a user and a resource provider computer and includes (i) receiving an authorization request message, (ii) determining an authorization entity computer associated with the user, (iii) transmitting the authorization request message to the authorizing entity computer, (iv) receiving an authorization response message from the authorizing entity computer, and (v) transmitting the authorization response message to the resource provider computer; b) storing, by the transaction processing computer, data relating to the plurality of transactions; c) determining, by the transaction processing computer, a recurrence value based on at least the data relating to the plurality of transactions, the recurrence value indicating at least a frequency or number of interactions between the resource provider computer and the user; and d) initiating, by the transaction processing computer, an action based on the recurrence value.
A method of authenticating communications, the method comprising acts of: receiving, by a first computer, a first set of credentials from a user; verifying, by the first computer, the first set of credentials by requesting authentication of the first set of credentials from a remote computer and requesting the remote computer to compare the first set of credentials to a plurality of sets of credentials stored in a database; subsequent to verifying the first set of credentials, and responsive to the authentication of the first set of credentials by the remote computer, deriving a second set of credentials by the first computer; transmitting the second set of credentials to the remote computer, the remote computer being a different computer from the first computer; and providing, by the first computer to the remote computer, unsolicited access to services provided by the first computer based on the second set of credentials. receiving, by a first computer, a first set of credentials from a user; verifying, by the first computer, the first set of credentials by requesting authentication of the first set of credentials from a remote computer and requesting the remote computer to compare the first set of credentials to a plurality of sets of credentials stored in a database; subsequent to verifying the first set of credentials, and responsive to the authentication of the first set of credentials by the remote computer, deriving a second set of credentials by the first computer; transmitting the second set of credentials to the remote computer, the remote computer being a different computer from the first computer; and providing, by the first computer to the remote computer, unsolicited access to services provided by the first computer based on the second set of credentials.
Closing member of a valve, preferably of a gas valve, comprising: - a body generally circular around a longitudinal axis and with a shoulder; - a rubber seal packing disposed around the body on the shoulder; - a sleeve disposed around the seal packing and the shoulder; wherein the body comprises a longitudinally extending surface adjacent the shoulder and receiving the seal packing, said surface comprising at least one recess filled by the seal packing; the closing member is configured so as to allow the sleeve to be slid longitudinally around the seal packing and the shoulder, characterized in that the internal surface of said sleeve contacting said seal packing and adjacent the shoulder is bevelled, in order to facilitate the longitudinal sliding of the sleeve around the seal packing. - a body generally circular around a longitudinal axis and with a shoulder; - a rubber seal packing disposed around the body on the shoulder; - a sleeve disposed around the seal packing and the shoulder;