mhurhangee/ep-ind-claims huggingface dataset:
A control device for operating one or more actuators to control an operation of an internal combustion engine, the control device comprising: a plurality of different sensors that acquire a plurality of different engine status amounts indicative of the status of the internal combustion engine; and a computation element that computes an actuator operation amount from the engine status amounts, the computation element using a model during a process of the computation; wherein the model includes a plurality of submodels (11, 12, 13) arranged in a hierarchical sequence and for calculating respective parameters (P11, P12, P13); wherein, when parameters (P11, P12, P12, P13) are calculated by two consecutive submodels (11, 12, 12, 13) arranged in the hierarchical sequence, there is a means-end relation between a lower-level parameter (P12, P13) that is a parameter calculated by a lower-level submodel (12, 13) and a higher-level parameter (P11, P12) that is a parameter calculated by a higher-level submodel (11, 12); wherein the highest level submodel calculates the highest-level parameter that is a parameter having a numerical value representing a request concerning the performance of the internal combustion engine, and is built so as to calculate the highest-level parameter by using the engine status amounts; wherein each submodel (12, 13) other than the highest level submodel when an immediately higher-level submodel is used, handles a higher-level parameter (P11, P12) that is a parameter calculated by the immediately higher-level submodel (11, 12) as a target value and calculates a parameter (P12, P13) for achieving the target value from the engine status amounts, and, when the immediately higher-level submodel (11, 12) is not used, calculates a parameter (P12, P13) based on the engine status amounts only; and wherein the computation element computes the actuator operation amount by using the lowest-level parameter that is a parameter calculated by the lowest level submodel and changes the number of higher-level submodels to be used in combination with the lowest level submodel in accordance with the operation status of the internal combustion engine. a plurality of different sensors that acquire a plurality of different engine status amounts indicative of the status of the internal combustion engine; and a computation element that computes an actuator operation amount from the engine status amounts, the computation element using a model during a process of the computation;
A residue screening device for the separation and detection of nitrate, perchlorate, azide and chlorate anions in a sample, the device comprising: • a separation channel with an inner coating of three or more alternating layers of a cationic polymer and an anionic polymer, wherein the first layer and the final layer are cationic polymer layers; • a detector for detecting nitrate, perchlorate, azide and chlorate anions that pass through a detection zone of the separation channel; • a background electrolyte reservoir containing a background electrolyte comprising polyethyleneimine; and • an injection system for injecting fluids including sample solutions and background electrolyte into an inlet end of the separation channel; wherein the cationic polymer forming the cationic polymer layers is not polyethyleneimine. • a separation channel with an inner coating of three or more alternating layers of a cationic polymer and an anionic polymer, wherein the first layer and the final layer are cationic polymer layers; • a detector for detecting nitrate, perchlorate, azide and chlorate anions that pass through a detection zone of the separation channel; • a background electrolyte reservoir containing a background electrolyte comprising polyethyleneimine; and • an injection system for injecting fluids including sample solutions and background electrolyte into an inlet end of the separation channel;
A hardening initiation lamp for illumination of a light-hardenable bandage, where said lamp is shaped so that it can at least partially enclose said bandage, where said lamp comprises an inner side, which is substantially arranged to face inwards towards said bandage when the latter is illuminated, an outer side, which is substantially arranged to face away from said bandage when the latter is illuminated, and where said lamp furthermore comprises at least one hardening light source comprising means to initiate a hardening process in said bandage, and at least one illumination light source, which emits light in the visible spectrum, arranged to illuminate said bandage at least while said hardening process is initiated in said bandage, where both said hardening light source and said illumination light source are arranged to emit light from said inner side substantially in the direction of said bandage, and where said lamp furthermore comprises one or more observation areas, wherein a light filter is arranged, which allows light from said illumination light source to pass through said lamp from said inner side and out through said outer side.
Spindle drive for longitudinally adjusting a motor vehicle seat with - an adjustment rail being longitudinally adjustable relative to a body mounted rail and - an adjusting mechanism, which includes a driving worm connected to a driving device and a spindle nut, the external toothing thereof engages with the external toothing of the driving worm and the internal toothing thereof engages with the external thread of a spindle, wherein the spindle nut is formed by a hybrid spindle nut, which has a functional part arranged in the force flux between the driving worm and the spindle and has at least one strengthening part (8, 8'; 9, 9') deflecting crash forces from the adjustment rail into the spindle, characterized in that the spindle nut is formed in at least one centre section of the functional part cylindrically with an external cylindrical mantle surface and two front faces (33, 34) laterally delimiting the cylindrical mantle surface and the external toothing of the spindle nut is formed by recesses pointing radially inwards in the outer cylindrical mantle surface of the spindle nut, wherein the external toothing extends from the one, first front face along the cylindrical mantle surface in direction of the other, second front face with a tooth depth, which decreases towards the second front face (33, 34), wherein the internal toothing of the functional part of the spindle nut is shifted in longitudinal direction to the external toothing of the functional part of the spindle nut such that a central plane of the external toothing continuing vertical to the longitudinal direction is spaced apart to a central plane of the internal toothing. - an adjustment rail being longitudinally adjustable relative to a body mounted rail and - an adjusting mechanism, which includes a driving worm connected to a driving device and a spindle nut, the external toothing thereof engages with the external toothing of the driving worm and the internal toothing thereof engages with the external thread of a spindle,
A plasticizer composition comprising: a first plasticizer comprising epoxidized fatty acid alkyl esters; and a second plasticizer comprising an epoxidized natural oil, wherein said first plasticizer comprises fatty acid dimers in a concentration (as determined by the chromatographic analysis of the description) of less than 0.1 weight percent based on the entire weight of said first plasticizer. a first plasticizer comprising epoxidized fatty acid alkyl esters; and a second plasticizer comprising an epoxidized natural oil, wherein said first plasticizer comprises fatty acid dimers in a concentration (as determined by the chromatographic analysis of the description) of less than 0.1 weight percent based on the entire weight of said first plasticizer.
A medical device for performing a cardiac rhythm analysis during the performance of cardiopulmonary resuscitation comprising: - a front end operable to obtain two or more time-sequential ECG data sets comprised of a first ECG data set and a second ECG data set; - an input (606, 607) operable to acquire two or more time-sequential CPR reference signal data sets which correspond in time to the time-sequential ECG data sets; - a CPR detector in communication with the input; - a shock advisory algorithm module operable to analyze and classify each of the ECG data sets as a shock advice or a no-shock advice; - a shock decision generator operable to generate a shock decision; and an output generator for issuing a user-perceptible indication of the shock decision; characterized in that: - the medical device is a device for determining the reliability of the cardiac rhythm analysis during the performance of cardiopulmonary resuscitation; - the CPR detector is a chest compression detector operable to detect whether or not each of the ECG data sets contains CPR-related noise; - the shock advisory algorithm module is in communication with the input and the chest compression detector; and in that the medical device further comprises - a reliability analyzer in communication with the chest compression detector and the shock advisory algorithm module operable to determine the reliability of the most recent ECG advice, wherein the shock decision generator is in communication with the reliability analyzer and the shock advisory algorithm module, and wherein the output generator is configured to issue the user-perceptible indication of the shock decision and the reliability of the ECG shock advice. - a front end operable to obtain two or more time-sequential ECG data sets comprised of a first ECG data set and a second ECG data set; - an input (606, 607) operable to acquire two or more time-sequential CPR reference signal data sets which correspond in time to the time-sequential ECG data sets; - a CPR detector in communication with the input; - a shock advisory algorithm module operable to analyze and classify each of the ECG data sets as a shock advice or a no-shock advice; - a shock decision generator operable to generate a shock decision; and - the medical device is a device for determining the reliability of the cardiac rhythm analysis during the performance of cardiopulmonary resuscitation; - the CPR detector is a chest compression detector operable to detect whether or not each of the ECG data sets contains CPR-related noise; - the shock advisory algorithm module is in communication with the input and the chest compression detector; - a reliability analyzer in communication with the chest compression detector and the shock advisory algorithm module operable to determine the reliability of the most recent ECG advice, wherein the shock decision generator is in communication with the reliability analyzer and the shock advisory algorithm module, and wherein the output generator is configured to issue the user-perceptible indication of the shock decision and the reliability of the ECG shock advice.
A rotary power tool operable in either an impact mode or a drill mode comprising: a driveshaft, an output shaft, a hammer coupled to the driveshaft for transmitting torque to the output shaft, and a blocking member which is in a first position wherein it blocks the hammer from moving axially along the rotational axis of the tool when the power tool operates in the drill mode and is in a second position wherein it allows the hammer to move axially along the rotational axis of the tool when the power tool operates in the impact mode, wherein the blocking member is supported by the driveshaft and is arranged in a radial cavity in the driveshaft, wherein in order to move between the first position and the second position, the blocking member moves radially relative to the driveshaft, characterized in that the blocking member is supported axially by the walls of the radial cavity. a driveshaft, an output shaft, a hammer coupled to the driveshaft for transmitting torque to the output shaft, and a blocking member which is in a first position wherein it blocks the hammer from moving axially along the rotational axis of the tool when the power tool operates in the drill mode and is in a second position wherein it allows the hammer to move axially along the rotational axis of the tool when the power tool operates in the impact mode, wherein the blocking member is supported by the driveshaft and is arranged in a radial cavity in the driveshaft, wherein in order to move between the first position and the second position, the blocking member moves radially relative to the driveshaft, characterized in that the blocking member is supported axially by the walls of the radial cavity.
A composition comprising: a. a therapeutically-effective amount of -N-(3,4-difluoro-2-(2-fluoro-4-iodophenylamino)-6-methoxyphenyl)-1-(2,3-dihydroxypropyl) cyclopropane-1-sulfonamide, a salt thereof, or a polymorph thereof; and b. a therapeutically-effective amount of 4-amino-1-[3,3-difluoro-4-hydroxy-5-(hydroxymethyl)tetrahydrofuran-2-yl]-1H-pyrimidin-2-one: a. a therapeutically-effective amount of -N-(3,4-difluoro-2-(2-fluoro-4-iodophenylamino)-6-methoxyphenyl)-1-(2,3-dihydroxypropyl) cyclopropane-1-sulfonamide, a salt thereof, or a polymorph thereof; and b. a therapeutically-effective amount of 4-amino-1-[3,3-difluoro-4-hydroxy-5-(hydroxymethyl)tetrahydrofuran-2-yl]-1H-pyrimidin-2-one:
A method for producing a tissue paper product having a cellulose fiber-based structure and comprising at least one adjuvant substance for the treatment of allergic rhinitis, said method comprising the steps of: forming a mixture of the at least one adjuvant substance for the treatment of allergic rhinitis with at least one non-ionic surface-active agent; mixing the mixture of non-ionic surface-active agent and the at least one adjuvant substance for the treatment of allergic rhinitis in an aqueous solution of a cationic surface-active agent forming an aqueous nano- or micro-emulsion containing nano- or micro-droplet of the at least one substance encapsulated in a protective layer comprising a non-ionic surface-active agent; applying said nano- or micro-emulsion to the cellulose material; evaporating water, leading to the formation of nano- or micro-capsules anchored to the cellulose fibers. forming a mixture of the at least one adjuvant substance for the treatment of allergic rhinitis with at least one non-ionic surface-active agent; mixing the mixture of non-ionic surface-active agent and the at least one adjuvant substance for the treatment of allergic rhinitis in an aqueous solution of a cationic surface-active agent forming an aqueous nano- or micro-emulsion containing nano- or micro-droplet of the at least one substance encapsulated in a protective layer comprising a non-ionic surface-active agent; applying said nano- or micro-emulsion to the cellulose material; evaporating water, leading to the formation of nano- or micro-capsules anchored to the cellulose fibers.
Connecting device for a fitness, beauty or wellness device, comprising: a carrier plate, which can be fastened to a functional unit worn on a body of a person using the fitness, beauty or wellness device, or which is part of the functional unit; a first pump port and a second pump port, which are arranged at a predetermined distance (d) from one another on the carrier plate, wherein the first pump port and the second pump port are configured to connect the connecting device to a pump in a fluid-conducting manner; a first air chamber port connected to the first pump port and a second air chamber port connected to the second pump port, wherein the first air chamber port and the second air chamber port are configured to connected the connection device to the functional unit in a fluid-conducting manner; characterised in that the first pump port and/or the second pump port can be moved from a normal position into a connection position against the effect of a restoring force so that by means of a force acting on the first pump port and/or the second pump port, the distance (d, d') between the pump ports (110, 120) can be changed and the pump is thus introduced between the pump ports (110, 120) and then connected to the pump ports (110, 120); wherein the pump can be permanently held on the connection device by the connection to the pump ports (110, 120). a carrier plate, which can be fastened to a functional unit worn on a body of a person using the fitness, beauty or wellness device, or which is part of the functional unit; a first pump port and a second pump port, which are arranged at a predetermined distance (d) from one another on the carrier plate, wherein the first pump port and the second pump port are configured to connect the connecting device to a pump in a fluid-conducting manner; a first air chamber port connected to the first pump port and a second air chamber port connected to the second pump port, wherein the first air chamber port and the second air chamber port are configured to connected the connection device to the functional unit in a fluid-conducting manner; characterised in that the first pump port and/or the second pump port can be moved from a normal position into a connection position against the effect of a restoring force so that by means of a force acting on the first pump port and/or the second pump port, the distance (d, d') between the pump ports (110, 120) can be changed and the pump is thus introduced between the pump ports (110, 120) and then connected to the pump ports (110, 120); wherein the pump can be permanently held on the connection device by the connection to the pump ports (110, 120).
A laser machining device comprising: a transmittance change unit that is capable of changing transmittance of a laser beam; a heat radiation measurement unit that measures a heat radiation of a workpiece irradiated with the laser beam transmitted through the transmittance change unit; a control unit that controls the transmittance of the laser beam in the transmittance change unit based on a measurement value of the heat radiation measured by the heat radiation measurement unit; and a target value setting unit that sets a target value of the heat radiation measured by the heat radiation measurement unit, characterized in that the control unit has a feedback control unit that generates a control signal to be output to the transmittance change unit, based on a difference between the target value of the heat radiation and the measurement value of the heat radiation, and the target value setting unit is capable of setting the target value of the heat radiation that changes according to an irradiation position of the laser beam. a transmittance change unit that is capable of changing transmittance of a laser beam; a heat radiation measurement unit that measures a heat radiation of a workpiece irradiated with the laser beam transmitted through the transmittance change unit; a control unit that controls the transmittance of the laser beam in the transmittance change unit based on a measurement value of the heat radiation measured by the heat radiation measurement unit; and a target value setting unit that sets a target value of the heat radiation measured by the heat radiation measurement unit, characterized in that the control unit has a feedback control unit that generates a control signal to be output to the transmittance change unit, based on a difference between the target value of the heat radiation and the measurement value of the heat radiation, and the target value setting unit is capable of setting the target value of the heat radiation that changes according to an irradiation position of the laser beam.
A bushing device (100, 800, 1300, 1700, 1900) comprising: a cap end (102, 802, 1302, 1702, 1902) shaped to engage a first surface of a first component having a first hole; and a slotted barrel body (108, 1708) coupled with the cap end (102, 802, 1302, 1702, 1902) and elongated along a center axis (106, 1706, 1906), the slotted barrel body (108, 1708) including plural first cantilevered beam legs (110, 1310, 1710, 1910) extending away from the cap end (102, 802, 1302, 1702, 1902) in directions that are parallel to the center axis (106, 1706, 1906), one or more of the first cantilevered beam legs (110, 1310, 1710, 1910) having a hook (116, 1716, 1916) at a distal end of the one or more first cantilevered beam legs (110, 1310, 1710, 1910), wherein the slotted barrel body (108, 1708) is shaped to fit inside the first hole in the first component and into a concentric second hole in a second component, the hook (116, 1716, 1916) of the one or more first cantilevered beam legs (110, 1310, 1710, 1910) positioned to engage the second component to secure the first component and the second component together, characterized in that the slotted barrel body (108, 1708) also includes plural second cantilevered beam legs (112, 1712, 1912) extending away from the cap end (102, 802, 1302, 1702, 1902) in directions that are parallel to the center axis (106, 1706, 1906), at least one of the second cantilevered beam legs (112, 1712, 1912) having a concave surface that is curved inward toward the center axis (106, 1706, 1906). a cap end (102, 802, 1302, 1702, 1902) shaped to engage a first surface of a first component having a first hole; and a slotted barrel body (108, 1708) coupled with the cap end (102, 802, 1302, 1702, 1902) and elongated along a center axis (106, 1706, 1906), the slotted barrel body (108, 1708) including plural first cantilevered beam legs (110, 1310, 1710, 1910) extending away from the cap end (102, 802, 1302, 1702, 1902) in directions that are parallel to the center axis (106, 1706, 1906), one or more of the first cantilevered beam legs (110, 1310, 1710, 1910) having a hook (116, 1716, 1916) at a distal end of the one or more first cantilevered beam legs (110, 1310, 1710, 1910), wherein the slotted barrel body (108, 1708) is shaped to fit inside the first hole in the first component and into a concentric second hole in a second component, the hook (116, 1716, 1916) of the one or more first cantilevered beam legs (110, 1310, 1710, 1910) positioned to engage the second component to secure the first component and the second component together, characterized in that the slotted barrel body (108, 1708) also includes plural second cantilevered beam legs (112, 1712, 1912) extending away from the cap end (102, 802, 1302, 1702, 1902) in directions that are parallel to the center axis (106, 1706, 1906), at least one of the second cantilevered beam legs (112, 1712, 1912) having a concave surface that is curved inward toward the center axis (106, 1706, 1906).