mhurhangee/ep-ind-claims huggingface dataset:
A method of predicting torque for an automotive air conditioning compressor comprising the steps of: starting an air-conditioning system for a vehicle having an engine and an engine control module for controlling multiple vehicle functions; calculating a steady state torque value (T SS) using an engine revolutions per minute value (ERPM); calculating an engine revolutions per minute transient torque value (T ERPMT) using the engine revolutions per minute value (ERPM); calculating an electronic control valve transient torque value (T IT) using a current value (Iecv) applied to an electronic control valve; selecting a final torque value (T F) from a group consisting of said steady state torque value (T SS), said engine revolutions per minute transient torque value (T ERPMT), and said electronic control valve transient torque value (T IT); and providing said final torque value (T F) to the engine control module of the vehicle to control a predetermined vehicle function. starting an air-conditioning system for a vehicle having an engine and an engine control module for controlling multiple vehicle functions; calculating a steady state torque value (T SS) using an engine revolutions per minute value (ERPM); calculating an engine revolutions per minute transient torque value (T ERPMT) using the engine revolutions per minute value (ERPM); calculating an electronic control valve transient torque value (T IT) using a current value (Iecv) applied to an electronic control valve; selecting a final torque value (T F) from a group consisting of said steady state torque value (T SS), said engine revolutions per minute transient torque value (T ERPMT), and said electronic control valve transient torque value (T IT); and providing said final torque value (T F) to the engine control module of the vehicle to control a predetermined vehicle function.
Stackable system container (1") with a base part, wherein respectively a coupling device (7") is attached on two opposite side walls of the base part for connection with a further system container to be movable between a rest position, in which the coupling device (7") can be brought out of engagement with a further system container, and a coupling position, in which the coupling device (7") can be brought into engagement with the further system container, wherein a bar element (9"), which locks the respective coupling device (7") to be releasable in the rest position, is assigned to each coupling device (7"), characterised in that the bar element (9") is designed as a rotary knob which in a locking position holds the respective coupling device (7") positively in the rest position.
Internal lining device for an aircraft cabin, said device being intended to be fixed to a structure of an aircraft and to extend along a skin of the aircraft, said device comprising a lining panel bearing at least one air flow hose, known as an air hose, fixed to an outer face of the lining panel, each air hose having an end, known as the upstream end, provided with a connection device, each air hose having another end, known as the downstream end, that opens out at an air outlet passing through the lining panel, characterized in that each air hose is provided with a fixing tab which is inserted into a support, known as an axial locking support, fixed to the outer face of the lining panel, said fixing tab and said axial locking support being designed to cooperate so as to prevent any movement of the air hose in an axial direction of said hose relative to the lining panel.
An expanded, cellular material comprising at least 50 wt% of post-consumer PET resin and less than 50 wt% of virgin PET resin, whereby the intrinsic viscosity of the polymer(s) is upgraded during the foam extrusion process and increased by means of chain extending, reactive additives and the intrinsic viscosity of the extruder exiting foam is higher than 1.2 ml/g, preferably above 1.35 ml/g and the density is between 40 and 200 kg/m 3, preferably between 50 and 150 kg/m 3.
A multilayer, seamless garment portion, comprising: a seamless circular knit layer having a inner side and an outer side, a seamless barrier layer coupled to one of the inner side or the outer side of the circular knit layer to form a laminated tubular layer; wherein the laminated tubular layer is configured to form a sleeve that has no seams for an article of protective apparel. a seamless circular knit layer having a inner side and an outer side, a seamless barrier layer coupled to one of the inner side or the outer side of the circular knit layer to form a laminated tubular layer; wherein the laminated tubular layer is configured to form a sleeve that has no seams for an article of protective apparel.
An oral pharmaceutical formulation with bimodal in vitro release comprising acemetacin or a pharmaceutically acceptable salt thereof wherein the composition is composed of a. an immediate-release unit comprising micronised acemetacin or its pharmaceutically acceptable salt thereof, wherein the particle size of micronised acemetacin is d 5 μm or less, d 1 to 3 μm, i, d less than 1 μm, b. a retard-release unit comprising non-micronised acemetacin or its pharmaceutically acceptable salt thereof and at least two release modifiers, wherein particle size of non-micronised acemetacin is d 100 μm or less, d 10 to 20 μm, d less than 5 μm, wherein the multiple-unit dosage form presents a dissolution profile at least 20% after 15 minutes and 30%-40% after one hour in conditions of Type I apparatus (basket), 100 rpm at 37°C, 900 ml USP buffer pH 5.0 with the w/w ratio of non-micronised acemetacin to micronised acemetacin of 2:1 to 5: 1. a. an immediate-release unit comprising micronised acemetacin or its pharmaceutically acceptable salt thereof, wherein the particle size of micronised acemetacin is d 5 μm or less, d 1 to 3 μm, i, d less than 1 μm, b. a retard-release unit comprising non-micronised acemetacin or its pharmaceutically acceptable salt thereof and at least two release modifiers, wherein particle size of non-micronised acemetacin is d 100 μm or less, d 10 to 20 μm, d less than 5 μm, wherein the multiple-unit dosage form presents a dissolution profile at least 20% after 15 minutes and 30%-40% after one hour in conditions of Type I apparatus (basket), 100 rpm at 37°C, 900 ml USP buffer pH 5.0 with the w/w ratio of non-micronised acemetacin to micronised acemetacin of 2:1 to 5: 1.
A cooking appliance for cooking food, comprising: a main body having a cooking chamber formed therein; a first heating assembly provided inside the cooking chamber; a second heating assembly provided outside the cooking chamber; and a flow path connection member forming a flow path for introducing heated air generated by the second heating assembly into the cooking chamber through a side portion of the cooking chamber, wherein the main body further includes: a lower space portion forming a space in the main body separated from the cooking chamber below thereof; and a side space portion configured to form a space in the main body separated from the cooking chamber adjacent to the side portion thereof, wherein the flow path connection member is disposed in the lower space portion and/or the side space portion, characterized in that the flow path connection member forms paths separated from spaces formed in the lower space portion and the side space portion in the lower space portion and the side space portion. a main body having a cooking chamber formed therein; a first heating assembly provided inside the cooking chamber; a second heating assembly provided outside the cooking chamber; and a flow path connection member forming a flow path for introducing heated air generated by the second heating assembly into the cooking chamber through a side portion of the cooking chamber, wherein the main body further includes: a lower space portion forming a space in the main body separated from the cooking chamber below thereof; and a side space portion configured to form a space in the main body separated from the cooking chamber adjacent to the side portion thereof, wherein the flow path connection member is disposed in the lower space portion and/or the side space portion, characterized in that the flow path connection member forms paths separated from spaces formed in the lower space portion and the side space portion in the lower space portion and the side space portion. a lower space portion forming a space in the main body separated from the cooking chamber below thereof; and a side space portion configured to form a space in the main body separated from the cooking chamber adjacent to the side portion thereof, wherein the flow path connection member is disposed in the lower space portion and/or the side space portion, characterized in that the flow path connection member forms paths separated from spaces formed in the lower space portion and the side space portion in the lower space portion and the side space portion.
Method for alerting following an incident that occurred to a driver of a vehicle, comprising, said driver being equipped with a first device and said vehicle being equipped with a second device, said first device and said second device being connected via a wireless communication link prior to the occurrence of said incident, the following steps: - a step of detection of a modification of the distance between the first device and the second device from said wireless communication link, - a step of detection by the first device of a so-called "singular" acceleration, relative to an incident that occurred to the driver, - following the detection by the first device of said singular acceleration, a step of confirmation of the incident, - a step of sending at least one alert message when a modification of the distance between the first device and the second device has been detected and when the incident has been confirmed, - a step of determination by the second device of the trajectory of the vehicle from the detection of the incident, - a step of determination by the second device of the geographic position of said second device, - a step of estimation of the geographic position of the first device from the determined geographic position of the second device and the determined trajectory of the vehicle. - a step of detection of a modification of the distance between the first device and the second device from said wireless communication link, - a step of detection by the first device of a so-called "singular" acceleration, relative to an incident that occurred to the driver, - following the detection by the first device of said singular acceleration, a step of confirmation of the incident, - a step of sending at least one alert message when a modification of the distance between the first device and the second device has been detected and when the incident has been confirmed, - a step of determination by the second device of the trajectory of the vehicle from the detection of the incident, - a step of determination by the second device of the geographic position of said second device, - a step of estimation of the geographic position of the first device from the determined geographic position of the second device and the determined trajectory of the vehicle.
A catalyst regeneration processing apparatus for an internal-combustion engine, the internal-combustion engine including a NOx catalyst that is disposed in an exhaust passage, the catalyst regeneration processing apparatus comprising: an electronic control unit configured to calculate a sulfur poisoning quantity of the NOx catalyst, the electronic control unit being configured to control the internal-combustion engine such that a regeneration process is executed, when the sulfur poisoning quantity exceeds a permissible upper limit quantity, the regeneration process comprising raising a temperature of the NOx catalyst and reducing the sulfur poisoning quantity, the electronic control unit being configured to determine whether a difference is less than or equal to a predetermined degree, the difference being defined as a difference between a progression in the degree of heat deterioration of the NOx catalyst over a predetermined time assuming that the regeneration process is executed for the predetermined time and a progression in the degree of heat deterioration of the NOx catalyst over the predetermined time assuming that the regeneration process is not executed, the electronic control unit being configured to execute the regeneration process when it is determined that the difference is less than or equal to the predetermined degree, even when the sulfur poisoning quantity is less than or equal to the permissible upper limit quantity. an electronic control unit configured to calculate a sulfur poisoning quantity of the NOx catalyst, the electronic control unit being configured to control the internal-combustion engine such that a regeneration process is executed, when the sulfur poisoning quantity exceeds a permissible upper limit quantity, the regeneration process comprising raising a temperature of the NOx catalyst and reducing the sulfur poisoning quantity, the electronic control unit being configured to determine whether a difference is less than or equal to a predetermined degree, the difference being defined as a difference between a progression in the degree of heat deterioration of the NOx catalyst over a predetermined time assuming that the regeneration process is executed for the predetermined time and a progression in the degree of heat deterioration of the NOx catalyst over the predetermined time assuming that the regeneration process is not executed, the electronic control unit being configured to execute the regeneration process when it is determined that the difference is less than or equal to the predetermined degree, even when the sulfur poisoning quantity is less than or equal to the permissible upper limit quantity.
A packet detector for detecting packets in a channel in an 802.11b format and an 802.11a format, the packet detector comprising: inputs from each of a plurality of antennas, wherein each antenna is expected to receive a different signal from the channel; a first analysis circuit for analyzing signals from the plurality of inputs to determine if a packet detection criteria is met for an 802.11a format, the first analysis circuit sampling the signals at a first sampling rate; a second analysis circuit for analyzing signals from the plurality of inputs to determine if a packet detection criteria is met for an 802.11b format, the second analysis circuit sampling the signals at the first sampling rate; and a first detector output, for outputting a first signal indicative of an 802.11a packet; and a second detector output, for outputting a second signal indicative of an 802.11b packet. inputs from each of a plurality of antennas, wherein each antenna is expected to receive a different signal from the channel; a first analysis circuit for analyzing signals from the plurality of inputs to determine if a packet detection criteria is met for an 802.11a format, the first analysis circuit sampling the signals at a first sampling rate; a second analysis circuit for analyzing signals from the plurality of inputs to determine if a packet detection criteria is met for an 802.11b format, the second analysis circuit sampling the signals at the first sampling rate; and a first detector output, for outputting a first signal indicative of an 802.11a packet; and a second detector output, for outputting a second signal indicative of an 802.11b packet.
A method for a cyber threat defense system, comprising: comparing input data monitoring a network entity to at least one machine-learning model trained on a normal benign behavior of the network entity using a normal behavior benchmark describing parameters corresponding to a normal pattern of activity for that network entity to spot behavior on the network deviating from a normal benign behavior of that network entity, where the network entity is at least one of a user and a device associated with a network; identifying whether the network entity is in a breach state of the normal behavior benchmark; identifying whether the breach state and a chain of relevant behavioral parameters deviating from the normal benign behavior of that network entity correspond to a cyber threat; and sending an inoculation notice having an inoculation pattern describing the breach state and the chain of relevant behavioral parameters to a target device to warn of a potential cyber threat, where an inoculation module uses a communication module to send the inoculation notice to the target device, on another network protected by an affiliated cyber threat defense system, via at least one output port, where the inoculation module uses incident data describing the breach state by a user or device, acting as the network entity, to warn other computing devices of potential cyber threats, and where the inoculation module anonymizes the inoculation pattern to remove any personally identifiable information for the network entity from the inoculation pattern. comparing input data monitoring a network entity to at least one machine-learning model trained on a normal benign behavior of the network entity using a normal behavior benchmark describing parameters corresponding to a normal pattern of activity for that network entity to spot behavior on the network deviating from a normal benign behavior of that network entity, where the network entity is at least one of a user and a device associated with a network; identifying whether the network entity is in a breach state of the normal behavior benchmark; identifying whether the breach state and a chain of relevant behavioral parameters deviating from the normal benign behavior of that network entity correspond to a cyber threat; and sending an inoculation notice having an inoculation pattern describing the breach state and the chain of relevant behavioral parameters to a target device to warn of a potential cyber threat, where an inoculation module uses a communication module to send the inoculation notice to the target device, on another network protected by an affiliated cyber threat defense system, via at least one output port, where the inoculation module uses incident data describing the breach state by a user or device, acting as the network entity, to warn other computing devices of potential cyber threats, and where the inoculation module anonymizes the inoculation pattern to remove any personally identifiable information for the network entity from the inoculation pattern.
Method for setting a braking torque of a permanently excited magnetic hysteresis brake by means of a mechanically acting actuator, wherein the magnetic hysteresis brake (1, 26) comprises a support cylinder (7, 32), which can be rotated around a fixed axis (9, 34), characterised in that the setting of the braking torque to a desired value for operating the magnetic hysteresis brake (1, 26) as well as the setting of the braking torque when calibrating the magnetic hysteresis brake (1, 26) is realised by activating the same actuator (18, 40), the magnetic hysteresis brake (1, 26) comprises a connection between a cover (20, 41) and the axis (9, 34) which is disconnected or connected depending on the relevant setting process, the connection is disconnected for setting a braking torque for the calibration process and the actuator (18, 40) and the cover (20, 41) are rotated together around the fixed axis (9, 34), and in that the cover (20, 41) is firmly connected with the axis (9, 34) for setting a braking torque for operation, whilst the actuator is rotated relative to the now fixed cover (20, 41).
A method for remotely controlling a slave device, comprising: using a Hybrid Hand Controller, hereinafter "HHC", as a full haptic controller to control said slave device when said HHC is coupled to a docking station; detecting when said HHC transitions from said coupled condition to a de-coupled condition in which it is physically de-coupled from said docking station; in response to said detecting, automatically transitioning an operational mode of at least said HHC from a full haptic control mode to a gestural control mode; and using at least said HHC as a portable gestural controller to control said slave device when said HHC is de-coupled from said docking station. using a Hybrid Hand Controller, hereinafter "HHC", as a full haptic controller to control said slave device when said HHC is coupled to a docking station; detecting when said HHC transitions from said coupled condition to a de-coupled condition in which it is physically de-coupled from said docking station; in response to said detecting, automatically transitioning an operational mode of at least said HHC from a full haptic control mode to a gestural control mode; and using at least said HHC as a portable gestural controller to control said slave device when said HHC is de-coupled from said docking station.
A surgical stapler comprising: (a) an end effector, wherein the end effector comprises (i) a lower jaw, (ii) an anvil pivotable relative to the lower jaw between an opened position and a closed position, (iii) a closure ring coupled with the anvil, wherein the closure ring is translatable relative to the lower jaw, wherein the closure ring is configured to engage the anvil at an interface as the closure ring translates proximally relative to the lower jaw to thereby pivot the anvil relative to the lower jaw toward the opened position; and (iv) a resilient member, wherein the resilient member is configured to bias the anvil to remain in the opened position when the anvil is in the opened position; and (b) a body assembly, wherein the end effector is positioned distally relative to the body assembly; characterized in that: the closure ring comprises a first tab, and the anvil comprises a second tab, wherein the resilient member comprises a layer of elastomeric material attached to the first tab or the second tab, wherein the resilient member is positioned at the interface between the first tab and the second tab. (a) an end effector, wherein the end effector comprises (i) a lower jaw, (ii) an anvil pivotable relative to the lower jaw between an opened position and a closed position, (iii) a closure ring coupled with the anvil, wherein the closure ring is translatable relative to the lower jaw, wherein the closure ring is configured to engage the anvil at an interface as the closure ring translates proximally relative to the lower jaw to thereby pivot the anvil relative to the lower jaw toward the opened position; and (iv) a resilient member, wherein the resilient member is configured to bias the anvil to remain in the opened position when the anvil is in the opened position; and (i) a lower jaw, (ii) an anvil pivotable relative to the lower jaw between an opened position and a closed position, (iii) a closure ring coupled with the anvil, wherein the closure ring is translatable relative to the lower jaw, wherein the closure ring is configured to engage the anvil at an interface as the closure ring translates proximally relative to the lower jaw to thereby pivot the anvil relative to the lower jaw toward the opened position; and (iv) a resilient member, wherein the resilient member is configured to bias the anvil to remain in the opened position when the anvil is in the opened position; and (b) a body assembly, wherein the end effector is positioned distally relative to the body assembly; characterized in that: the closure ring comprises a first tab, and the anvil comprises a second tab, wherein the resilient member comprises a layer of elastomeric material attached to the first tab or the second tab, wherein the resilient member is positioned at the interface between the first tab and the second tab.