mhurhangee/ep-ind-claims huggingface dataset:
Use of compound of general formula I wherein n is 1; the NO 2 substituent is located in one of the positions ortho, meta, or para, relative to the ester group; R 1 is located in one of the positions ortho, meta, or para, relative to the ester group, and is selected from the group comprising hydrogen, NO 2, (C 1 to C 3)alkoxy, halogen and SO 3 M, wherein M represents hydrogen, alkali metal, NH 4 + or NR 4 + and R represents hydrogen, (C 1 to C 4)alkyl or benzyl; R 2 is selected from the group comprising (C 1 to C 20)alkyl; (C 2 to C 20)alkenyl; (C 3 to C 6)cycloalkyl; (C 1 to C 6)hydroxyalkyl; (trimethylammonium)methyl; acetamidomethyl; wherein R 3 is hydrogen or alkyl, p = 1 to 10 and r = 1, 2 or 3; and alkyl or alkenyl chain derived from natural lipophilic carboxylic acids present in natural oils such as coconut oil, hydrogenated coconut oil, tallow, hydrogenated tallow, palm oil; for growth stimulation of plants. wherein n is 1; the NO 2 substituent is located in one of the positions ortho, meta, or para, relative to the ester group; R 1 is located in one of the positions ortho, meta, or para, relative to the ester group, and is selected from the group comprising hydrogen, NO 2, (C 1 to C 3)alkoxy, halogen and SO 3 M, wherein M represents hydrogen, alkali metal, NH 4 + or NR 4 + and R represents hydrogen, (C 1 to C 4)alkyl or benzyl; R 2 is selected from the group comprising (C 1 to C 20)alkyl; (C 2 to C 20)alkenyl; (C 3 to C 6)cycloalkyl; (C 1 to C 6)hydroxyalkyl; (trimethylammonium)methyl; acetamidomethyl; wherein R 3 is hydrogen or alkyl, p = 1 to 10 and r = 1, 2 or 3; and alkyl or alkenyl chain derived from natural lipophilic carboxylic acids present in natural oils such as coconut oil, hydrogenated coconut oil, tallow, hydrogenated tallow, palm oil; for growth stimulation of plants.
Packing element (14; 50) for fastening to a retaining element, wherein the packing element has an elongated carrier element, on one end of which a fastening part (16; 52) is arranged, and on the other end of which a gripping part is arranged, wherein the carrier element is retained in the fastening part (16; 52) in an axially movable manner, and wherein the fastening part (16; 52) is designed to fasten the packing element in the region of at least one perforation arranged in the retaining element, and has a contact surface which is configured to lie against a first side of the retaining element in a mounting position of the fastening part, which gripping part is configured to grip a container, in particular a bottle, wherein the fastening part (16; 52) has at least one first mounting element, which interacts with at least complementary second mounting element, which is arranged or formed on the retaining element, wherein the first mounting element can be detachably fastened to the second mounting element in a mounting position, characterised in that the fastening part comprises at least one locking engagement element (32; 56) which in particular is elastically deflectable or movable, which comprises a locking engagement section, which is designed to engage behind the retaining element in the edge region of the perforation, wherein the distance interval of the contact surface from the locking engagement section corresponds approximately to the material thickness (d) of the retaining element in the region of the perforation.
Holding assembly for holding a bumper comprising at least one trim element and a corresponding support element on a component of a passenger car, in which the trim element is held on the component via the support element, wherein the component is designed as a sealing element of a light unit, characterised in that the sealing element is at least indirectly secured to a housing of the light unit, wherein the sealing element is secured to the housing by way of at least one retaining clip secured to the housing.
An exercising device set (300', 410, 420, 500, 700, 800) comprising an handle exercising device (200, 310a, 310b), the handle exercising device (200, 310a, 310b) comprising: a handle body having a top surface and a bottom surface; a chamber disposed in the handle body along an axial direction of the handle body, wherein the chamber has an opening facing one end of the handle body; a buckle portion disposed in the chamber and configured for detachably buckling a connecting end of an exercising device inserted into the chamber via the opening; a release button disposed at the top surface of the handle body and connected with the buckle portion to release a buckling status of the buckle portion; and two female buckles (250a, 250b) disposed at the bottom surface of the handle body and arranged in parallel along the axial direction. a handle body having a top surface and a bottom surface; a chamber disposed in the handle body along an axial direction of the handle body, wherein the chamber has an opening facing one end of the handle body; a buckle portion disposed in the chamber and configured for detachably buckling a connecting end of an exercising device inserted into the chamber via the opening; a release button disposed at the top surface of the handle body and connected with the buckle portion to release a buckling status of the buckle portion; and two female buckles (250a, 250b) disposed at the bottom surface of the handle body and arranged in parallel along the axial direction.
A control system for controlling one or more devices including a suspended particle device window, the control system comprising: a control device in communication with the one or more devices; a remote control unit configured to transmit instructions to the control device to control operation of the one or more devices including the suspended particle device window based on user input and current environmental information obtained by the remote control unit; and a sensor providing current environmental information regarding conditions in the vicinity of the remote control device, wherein the remote control unit transmits instructions to the one or more devices to operate the devices to match the desired value provided by the user, and the current environmental information includes location information indicating a present location of the remote control unit, wherein the instructions vary based on the location information. a control device in communication with the one or more devices; a remote control unit configured to transmit instructions to the control device to control operation of the one or more devices including the suspended particle device window based on user input and current environmental information obtained by the remote control unit; and a sensor providing current environmental information regarding conditions in the vicinity of the remote control device, wherein the remote control unit transmits instructions to the one or more devices to operate the devices to match the desired value provided by the user, and the current environmental information includes location information indicating a present location of the remote control unit, wherein the instructions vary based on the location information.
A vehicle comprising: an internal combustion engine; an electrical heated type catalyst device provided in an exhaust passage of the internal combustion engine and including a conductive substrate generating heat upon energization and a catalyst heated through the conductive substrate; and a control device, the control device being characterized in that it comprises an internal moisture calculating part configured so as to calculate an amount of internal moisture comprised of an amount of moisture present at an inside of the catalyst device; and an engine output control part configured to control the output of the internal combustion engine based on a required vehicle output and the amount of internal moisture, the engine output control part configured so that if moisture is present at the inside of the catalyst device, it restricts the output of the internal combustion engine to a lower output when the internal moisture is large compared to when it is small. an internal combustion engine; an electrical heated type catalyst device provided in an exhaust passage of the internal combustion engine and including a conductive substrate generating heat upon energization and a catalyst heated through the conductive substrate; and a control device, the control device being characterized in that it comprises an internal moisture calculating part configured so as to calculate an amount of internal moisture comprised of an amount of moisture present at an inside of the catalyst device; and an engine output control part configured to control the output of the internal combustion engine based on a required vehicle output and the amount of internal moisture, the engine output control part configured so that if moisture is present at the inside of the catalyst device, it restricts the output of the internal combustion engine to a lower output when the internal moisture is large compared to when it is small.
Motor vehicle lighting and/or signalling device light module, comprising: - at least one light source (21, 22) mounted on a support, - an optical unit for engaging with the light source to form a light beam, - a locating system comprising at least one locating pin inserted into a locating orifice, the support being provided with one of the locating pin and the locating orifice, and the optical unit being provided with the other of the locating pin and the locating orifice; characterized in that the or at least one of the locating pins comprises two facing parts, the or at least one of the locating pins is a split pin comprising a slot separating said two parts (31, 32) from each other, one of the parts, known as the rigid part, being more rigid than the other of the parts, known as the flexible part the flexible part being elastic, and able to deform to allow the insertion of the locating pin into the locating orifice, and arranged so that it presses the rigid part against an edge of the locating orifice, the rigid part being able to guide the locating pin into the locating orifice. - at least one light source (21, 22) mounted on a support, - an optical unit for engaging with the light source to form a light beam, - a locating system comprising at least one locating pin inserted into a locating orifice, the support being provided with one of the locating pin and the locating orifice, and the optical unit being provided with the other of the locating pin and the locating orifice; characterized in that the or at least one of the locating pins comprises two facing parts, the or at least one of the locating pins is a split pin comprising a slot separating said two parts (31, 32) from each other, one of the parts, known as the rigid part, being more rigid than the other of the parts, known as the flexible part the flexible part being elastic, and able to deform to allow the insertion of the locating pin into the locating orifice, and arranged so that it presses the rigid part against an edge of the locating orifice, the rigid part being able to guide the locating pin into the locating orifice.
A blood pump system comprising: a pump including a housing and a rotor disposed within the housing, the rotor being rotatable around an axis; and a control circuit operatively coupled to the pump, the control circuit being configured to: determine a speed of rotation of the rotor; determine a derivative of the speed of rotation of the rotor; and determine a flow rate of blood exiting the pump; and characterized in that the determined flow rate is calculated using the derivative of the speed of the rotor and a coefficient m that is calculated using the formula: m = n * ω t + o wherein n and o are constants belonging to the set of real numbers. a pump including a housing and a rotor disposed within the housing, the rotor being rotatable around an axis; and a control circuit operatively coupled to the pump, the control circuit being configured to: determine a speed of rotation of the rotor; determine a derivative of the speed of rotation of the rotor; and determine a flow rate of blood exiting the pump; and characterized in that the determined flow rate is calculated using the derivative of the speed of the rotor and a coefficient m that is calculated using the formula: m = n * ω t + o determine a speed of rotation of the rotor; determine a derivative of the speed of rotation of the rotor; and determine a flow rate of blood exiting the pump; and characterized in that the determined flow rate is calculated using the derivative of the speed of the rotor and a coefficient m that is calculated using the formula: m = n * ω t + o wherein n and o are constants belonging to the set of real numbers.
An electrical high speed cable assembly (100, 200) for exchanging communication signals between two devices (1, 2), comprising: a) at least one pair (120, 130, 220, 230) of "differential wires" (D1+, D1-, D2+, D2-) which define a voltage-neutral plane between them as the plane in which voltage is approximately zero when only the differential wires are supplied with opposite voltages; b) at least one set (140,240) of "single-ended wires" (S11, S12; S21, S22; S31, S32) having a configuration that is symmetrical with respect to the voltage-neutral plane; c) a core wire (110, 210) that provides mechanical stability. a) at least one pair (120, 130, 220, 230) of "differential wires" (D1+, D1-, D2+, D2-) which define a voltage-neutral plane between them as the plane in which voltage is approximately zero when only the differential wires are supplied with opposite voltages; b) at least one set (140,240) of "single-ended wires" (S11, S12; S21, S22; S31, S32) having a configuration that is symmetrical with respect to the voltage-neutral plane; c) a core wire (110, 210) that provides mechanical stability.
Method of continuous casting a metal strip, in which use is made of a flexible cold strip, which is to be introduced into a mould from above and has a start head at its end remote from the leading cold-strip end and which after decoupling from the hot strip is drawn onto a cold-strip carriage disposed on a pouring platform, wherein the cold-strip carriage receives the leading cold-strip end at a loading side and moves the cold strip towards an unloading side in the direction of the mould by means of an endless chain, which circulates on chainwheels (12, 13) of which at least one is drivable, for the next pouring-on process, characterised in that the cold strip received at the loading side is diverted, by means of the endless chain, at the unloading side from an upper guide path of the cold-strip carriage to a lower guide path on which the cold strip is led back by its leading cold-strip end in direction towards the loading side until the entire cold strip is received in wound-up state by the cold-strip carriage and the leading cold-strip end adopts a starting transport position facing the loading side.
A strut structure with a strip (200, 210, 230) for an exhaust diffuser of a gas turbine comprising: a plurality of struts disposed along an outer circumference of a diffuser body disposed on a central side of the exhaust diffuser; and one or more strips (200, 210, 230) formed on the strut, characterized int that: the strip (200, 210, 230) is a projection type strip protruding outward from the strut or a groove type strip recessed inward from the strut; and the strip (200, 210, 230) is formed on the strut in parallel to a flow direction of the exhaust gas and the strip (200, 210, 230) has a rectangular cross-sectional shape in a plane perpendicular to the flow direction of the exhaust gas such that an exhaust gas passing through the strut flows along the strip (200, 210, 230) from a leading edge of the strut to alleviate a separated flow phenomenon. a plurality of struts disposed along an outer circumference of a diffuser body disposed on a central side of the exhaust diffuser; and one or more strips (200, 210, 230) formed on the strut, the strip (200, 210, 230) is a projection type strip protruding outward from the strut or a groove type strip recessed inward from the strut; and the strip (200, 210, 230) is formed on the strut in parallel to a flow direction of the exhaust gas and the strip (200, 210, 230) has a rectangular cross-sectional shape in a plane perpendicular to the flow direction of the exhaust gas such that an exhaust gas passing through the strut flows along the strip (200, 210, 230) from a leading edge of the strut to alleviate a separated flow phenomenon.
Interconnector with conductors of annular shape for a stator of a polyphase rotary electric machine, comprising a body of the stator bearing a winding equipped with a plurality of coils each having input and output ends, the interconnector having a first part comprising at least three conductors of annular shape that are stacked axially above one another and are electrically insulated from one another, and a second part comprising at least one electrically insulated conductor of annular shape, said first and second parts being intended to be fitted on either side of the body of the stator, characterized in that the conductors of annular shape of the first part and the conductor of annular shape of the second part bear, at their internal periphery, tabs protruding towards the interior for respectively welding the input ends and the output ends of the coils, and in that the first part of the interconnector has L-shaped support legs that are intended to rest on a rim of a yoke comprised by the body of the stator.
A method for processing a fluid containing blood plasma and platelets, wherein the fluid is from a non-living fluid source, the method comprising: continuously adding a fluid containing blood plasma and platelets into a fluid separation chamber; isolating platelet-rich plasma in the fluid separation chamber; and automatically transferring at least a portion of the platelet-rich plasma from the fluid separation chamber into an injection device; wherein said automatically transferring at least a portion of the platelet-rich plasma from the fluid separation chamber into an injection device includes automatically transferring said at least a portion of the platelet-rich plasma from the fluid separation chamber into: a collection container directly connected to the injection device prior to transferring said at least a portion of the platelet-rich plasma into the injection device, and/ or a pump device directly connected to the injection device prior to transferring said at least a portion of the platelet-rich plasma into the injection device. continuously adding a fluid containing blood plasma and platelets into a fluid separation chamber; isolating platelet-rich plasma in the fluid separation chamber; and automatically transferring at least a portion of the platelet-rich plasma from the fluid separation chamber into an injection device; wherein said automatically transferring at least a portion of the platelet-rich plasma from the fluid separation chamber into an injection device includes automatically transferring said at least a portion of the platelet-rich plasma from the fluid separation chamber into: a collection container directly connected to the injection device prior to transferring said at least a portion of the platelet-rich plasma into the injection device, and/ or a pump device directly connected to the injection device prior to transferring said at least a portion of the platelet-rich plasma into the injection device. a collection container directly connected to the injection device prior to transferring said at least a portion of the platelet-rich plasma into the injection device, and/ or a pump device directly connected to the injection device prior to transferring said at least a portion of the platelet-rich plasma into the injection device.
A system for use with a downhole tool, comprising: a tubular comprising a fluid flow path therethrough for flowing a fluid; a housing coupleable to a downhole portion of the tubular and comprising a fluid inlet to receive at least a portion of the fluid flowing through the tubular; a fluid-driven motor assembly with a drive shaft rotatable to output rotational drive forces; an electric generator operatively coupled to the drive shaft and operable to convert the rotational drive forces into electrical power; an electric motor electrically coupled to the electric generator and operable to convert electrical output of the electric generator into a rotational drive force to control the downhole tool; an AC-DC converter electrically coupled between the electric generator and the electric motor; a motor controller electrically coupled to the electric motor and the electric generator and operable to convert electrical power output from the electric motor to a DC bias voltage; a mud pulse telemetry system operatively coupled to the fluid flow path of the tubular; and a power controller operable to conduct the DC bias voltage to the electric generator and to dissipate excess energy produced by the electric motor to the fluid-driven motor assembly as hydraulic energy, wherein the power controller is further operable to adjust the electrical power output from the electric motor conducted to the electric generator to reduce pressure interference with the mud pulse telemetry system. a tubular comprising a fluid flow path therethrough for flowing a fluid; a housing coupleable to a downhole portion of the tubular and comprising a fluid inlet to receive at least a portion of the fluid flowing through the tubular; a fluid-driven motor assembly with a drive shaft rotatable to output rotational drive forces; an electric generator operatively coupled to the drive shaft and operable to convert the rotational drive forces into electrical power; an electric motor electrically coupled to the electric generator and operable to convert electrical output of the electric generator into a rotational drive force to control the downhole tool; an AC-DC converter electrically coupled between the electric generator and the electric motor; a motor controller electrically coupled to the electric motor and the electric generator and operable to convert electrical power output from the electric motor to a DC bias voltage; a mud pulse telemetry system operatively coupled to the fluid flow path of the tubular; and a power controller operable to conduct the DC bias voltage to the electric generator and to dissipate excess energy produced by the electric motor to the fluid-driven motor assembly as hydraulic energy, wherein the power controller is further operable to adjust the electrical power output from the electric motor conducted to the electric generator to reduce pressure interference with the mud pulse telemetry system.