mhurhangee/ep-ind-claims huggingface dataset:
A mass spectrometry system comprising a mass spectrometer and a plasma probe, the probe being configured to effect an introduction of gas into the mass spectrometer, the probe comprising: a first gas conduit having an inlet and an outlet, the outlet of the first gas conduit being provided at a sampling region of the probe; a second gas conduit having an inlet and an outlet; and at least one electrode of a plasma generator; wherein: the first gas conduit inlet is configured to operatively couple with a gas source to effect a transport of gas from the gas source to the outlet of the first gas conduit, the probe being configured such that operatively, on immersion of the sampling region of the probe in a liquid, the flow of gas through the first gas conduit effects formation of a bubble extending from the sampling region of the probe, the bubble being at least partly defined by a gas-liquid interface; the second gas conduit inlet is arranged relative to the first gas conduit outlet such that on formation of the bubble, the second gas conduit inlet is arranged to receive gas supplied through the first gas conduit; and the at least one electrode is configured such that on coupling to a power source, a plasma is operatively provided within the bubble, the second gas conduit being arranged to effect a transport of one or more ionised analytes resultant from the plasma from its inlet to a mass spectrometer provided at its outlet; and wherein the system further comprises a control module configured to effect a control of the gas flow through at least the first gas conduit to maintain a formed gas bubble. a first gas conduit having an inlet and an outlet, the outlet of the first gas conduit being provided at a sampling region of the probe; a second gas conduit having an inlet and an outlet; and at least one electrode of a plasma generator; the first gas conduit inlet is configured to operatively couple with a gas source to effect a transport of gas from the gas source to the outlet of the first gas conduit, the probe being configured such that operatively, on immersion of the sampling region of the probe in a liquid, the flow of gas through the first gas conduit effects formation of a bubble extending from the sampling region of the probe, the bubble being at least partly defined by a gas-liquid interface; the second gas conduit inlet is arranged relative to the first gas conduit outlet such that on formation of the bubble, the second gas conduit inlet is arranged to receive gas supplied through the first gas conduit; and the at least one electrode is configured such that on coupling to a power source, a plasma is operatively provided within the bubble, the second gas conduit being arranged to effect a transport of one or more ionised analytes resultant from the plasma from its inlet to a mass spectrometer provided at its outlet; and
Smoke grenade comprising a housing, an igniter and at least one disintegrating igniter charge that extends centrally into the housing in an axial direction, wherein the housing comprises multiple, at least two, tubular cut-outs that are arranged radially around the disintegrating igniter charge and that each extend axially in parallel with the disintegrating igniter charge, wherein the cut-outs are filled with material that generates smoke, characterised in that there is at least one cavity between the inner side wall of the housing and a central tube that bears the disintegrating igniter charge.
An anaerobic curable composition comprising: (a) a (meth)acrylate component; (b) an anaerobic cure-inducing composition; and (c) a compound shown in structure I wherein A is CH 2 or benzyl, R is C 1-10 alkyl, R' is H or C 1-10 alkyl, or R and R' taken together may form a four to seven membered ring fused to the benzene ring, R" is optional, but when R" is present, R" is halogen, alkyl, alkenyl, cycloalkyl, hydroxyalkyl, hydroxyalkenyl, alkoxy, amino, carboxyl, nitroso, sulfonate, hydroxyl or haloalkyl, and EWG is an electron withdrawing group selected from the group consisting of nitro, nitrile, carboxylate and trihaloalkyl. (a) a (meth)acrylate component; (b) an anaerobic cure-inducing composition; and (c) a compound shown in structure I wherein A is CH 2 or benzyl, R is C 1-10 alkyl, R' is H or C 1-10 alkyl, or R and R' taken together may form a four to seven membered ring fused to the benzene ring, R" is optional, but when R" is present, R" is halogen, alkyl, alkenyl, cycloalkyl, hydroxyalkyl, hydroxyalkenyl, alkoxy, amino, carboxyl, nitroso, sulfonate, hydroxyl or haloalkyl, and EWG is an electron withdrawing group selected from the group consisting of nitro, nitrile, carboxylate and trihaloalkyl. A is CH 2 or benzyl, R is C 1-10 alkyl, R' is H or C 1-10 alkyl, or R and R' taken together may form a four to seven membered ring fused to the benzene ring, R" is optional, but when R" is present, R" is halogen, alkyl, alkenyl, cycloalkyl, hydroxyalkyl, hydroxyalkenyl, alkoxy, amino, carboxyl, nitroso, sulfonate, hydroxyl or haloalkyl, and EWG is an electron withdrawing group selected from the group consisting of nitro, nitrile, carboxylate and trihaloalkyl.
A device for avoiding brake dragging in a conformity of emission test of a motor vehicle, comprising: a vacuum pump; and a power supply capable of providing electric power to the vacuum pump; a controller controlling the power supply to selectively provide electric power to the vacuum pump, characterized in that the device further comprises: a hose extending from an outlet of the vacuum pump, wherein an adjustable pressure-regulating valve is connected in series to the hose, and an end of the hose is provided with a connection port liquid-tightly and removably connectable to a brake fluid storage container of a brake drive unit of the motor vehicle; and an outer shell in which the power supply, the vacuum pump, and the adjustable pressure-regulating valve are installed. a vacuum pump; and a power supply capable of providing electric power to the vacuum pump; a controller controlling the power supply to selectively provide electric power to the vacuum pump, characterized in that the device further comprises: a hose extending from an outlet of the vacuum pump, wherein an adjustable pressure-regulating valve is connected in series to the hose, and an end of the hose is provided with a connection port liquid-tightly and removably connectable to a brake fluid storage container of a brake drive unit of the motor vehicle; and an outer shell in which the power supply, the vacuum pump, and the adjustable pressure-regulating valve are installed. a hose extending from an outlet of the vacuum pump, wherein an adjustable pressure-regulating valve is connected in series to the hose, and an end of the hose is provided with a connection port liquid-tightly and removably connectable to a brake fluid storage container of a brake drive unit of the motor vehicle; and an outer shell in which the power supply, the vacuum pump, and the adjustable pressure-regulating valve are installed.
An agricultural working machine, in particular a tractor, with at least one working assembly for carrying out or supporting agricultural work, wherein the agricultural working machine has a detecting device for detecting operational parameters and a control device for controlling operating procedures of the agricultural working machine, wherein the control device is configured to carry out predictive control of at least one operating procedure of the agricultural working machine while carrying out an agricultural operational assignment on the basis of information which is produced by at least one online learning algorithm and/or at least one online learning model based on the detected operational parameters, characterized in that one or more machine parameters of the agricultural working machine are detected as the operational parameter wherein, while it carries out an agricultural operational assignment, the agricultural working machine detects operational parameters associated with the agricultural operational assignment at the respective site of operations which is currently being traversed and from these operational parameters, it extrapolates the corresponding operational parameters in another region of the field which has not yet been traversed. wherein the control device is configured to carry out predictive control of at least one operating procedure of the agricultural working machine while carrying out an agricultural operational assignment on the basis of information which is produced by at least one online learning algorithm and/or at least one online learning model based on the detected operational parameters, characterized in that one or more machine parameters of the agricultural working machine are detected as the operational parameter wherein, while it carries out an agricultural operational assignment, the agricultural working machine detects operational parameters associated with the agricultural operational assignment at the respective site of operations which is currently being traversed and from these operational parameters, it extrapolates the corresponding operational parameters in another region of the field which has not yet been traversed.
A compound of the formula: or a pharmaceutically acceptable salt thereof, wherein: X is -CR 2 R 3, -O- or -NR 4; Y is -CHR 4 -CR 2 R 3, -CR 2 R 3,- O- or -NR 4; Z is -CR 2 R 3 -CHR 4, -CR 2 R 3; each occurrence of R 1 is independently selected from the group consisting of halo, hydroxyl, C 1-6 alkyl and -O-(C 1 -C 6 alkyl); each occurrence of R 2 is independently selected from the group consisting of hydrogen, halo, hydroxyl, C 1-6 alkyl and -O-(C 1 -C 6 alkyl); each occurrence of R 3 is independently selected from the group consisting of hydrogen, halo, hydroxyl, C 1-6 alkyl and -O-(C 1 -C 6 alkyl); each occurrence of R 4 is independently selected from the group consisting of hydrogen or C 1-6 alkyl; n is an integer between zero and three. X is -CR 2 R 3, -O- or -NR 4; Y is -CHR 4 -CR 2 R 3, -CR 2 R 3,- O- or -NR 4; Z is -CR 2 R 3 -CHR 4, -CR 2 R 3; each occurrence of R 1 is independently selected from the group consisting of halo, hydroxyl, C 1-6 alkyl and -O-(C 1 -C 6 alkyl); each occurrence of R 2 is independently selected from the group consisting of hydrogen, halo, hydroxyl, C 1-6 alkyl and -O-(C 1 -C 6 alkyl); each occurrence of R 3 is independently selected from the group consisting of hydrogen, halo, hydroxyl, C 1-6 alkyl and -O-(C 1 -C 6 alkyl); each occurrence of R 4 is independently selected from the group consisting of hydrogen or C 1-6 alkyl; n is an integer between zero and three.
Lamp module for holding at least one lamp element (2, 3) for mounting and fixing said lamp element (2, 3) in a lamp, comprising two lateral walls juxtaposed and in particular running parallel to each other in the longitudinal direction and connected to each other by cross bars extending in the cross direction, said lateral walls extending vertically to the plane defined by the longitudinal direction and the cross direction, at least one lateral bar being arranged on at least one of said lateral walls and running in the cross direction and being vertically spaced from said cross bars, said cross bars, lateral walls, and said at least one lateral bar being arranged to each other in a manner such as to embrace at least in sections an intermediate space into which the lamp element (2, 3) is insertable in the longitudinal direction, said intermediate space including planar openings that are disposed between said cross bars, said at least one lateral bar including a holding element for holding said lamp element (2, 3) which is constructed so as to be resilient in the direction towards said cross bars and so as to produce a contact pressure on said lamp element (2, 3) and towards said cross bars, characterized in that, in particular on the at least one lateral bar, there is provided a fixing element vertically spaced from the cross bars, for holding the lamp element (2, 3) and/or an additional lamp element (2, 3), said fixing element being constructed in a manner such as to be resilient towards said cross bars, wherein the fixing element is arranged more remotely than the holding element from the lateral wall on which the lateral bar is disposed.
Linear machine for blow moulding containers or other hollow bodies from a thermoplastic material, comprising: - at least one extruder extending along an axis of extension (X-X); - at least one extrusion head fed by said at least one extruder and arranged laterally to said at least one extruder with respect to its axis of extension (X-X); said extrusion head comprising a plurality of juxtaposed extrusion mouths, each adapted to extrude at least one parison; characterized by comprising at least one module operatively arranged below said extrusion head, said module comprising: at least one pair of mould and counter-mould assemblies (S1, S2), each pair being operatively associated with an extrusion head; each mould and counter-mould assembly (S1, S2) is opposite to the other mould and counter-mould assembly (S1, S2) of the same pair with respect to an extrusion head T1; at least one pair of blowing stations adapted to blow air into the parison to form containers; at least one pair of grippers (P1, P2) for handling the containers as blown by the blowing stations; at least one conveyor for conveying the container products away from the machine; said conveyor extending along a direction of extension (Z-Z) which is substantially parallel to the axis of extension (X-X) of said extruder and being positioned vertically below said extruder; - the mould and counter-mould assemblies (S1, S2) of each pair, along with the respective grippers (P1, P2), can be alternately moved along an axis which is substantially parallel to both the axis of extension (X-X) of said extruder and the axis of extrusion of said extrusion head. - at least one extruder extending along an axis of extension (X-X); - at least one extrusion head fed by said at least one extruder and arranged laterally to said at least one extruder with respect to its axis of extension (X-X); said extrusion head comprising a plurality of juxtaposed extrusion mouths, each adapted to extrude at least one parison; at least one pair of mould and counter-mould assemblies (S1, S2), each pair being operatively associated with an extrusion head; each mould and counter-mould assembly (S1, S2) is opposite to the other mould and counter-mould assembly (S1, S2) of the same pair with respect to an extrusion head T1; at least one pair of blowing stations adapted to blow air into the parison to form containers; at least one pair of grippers (P1, P2) for handling the containers as blown by the blowing stations; at least one conveyor for conveying the container products away from the machine; said conveyor extending along a direction of extension (Z-Z) which is substantially parallel to the axis of extension (X-X) of said extruder and being positioned vertically below said extruder; - the mould and counter-mould assemblies (S1, S2) of each pair, along with the respective grippers (P1, P2), can be alternately moved along an axis which is substantially parallel to both the axis of extension (X-X) of said extruder and the axis of extrusion of said extrusion head.
Thermal flowmeter comprising at least a sensor with at least a sensor element (7 or 8) designed to determine a measured value for determining the flow of a medium; a transmitter designed to determine the flow using the determined measured value; a tubular connection element designed to connect the sensor to the transmitter; wherein a protective sleeve is provided, wherein said sleeve is mechanically connected to the tubular connection element, wherein the protective sleeve has a sleeve jacket with at least two openings (10, 11), a flow entry opening through which the medium can be routed to the sensor and a flow outlet opening through which the medium can be directed from the sensor, wherein the connection between the protective sleeve and the tubular connection element is a positive-locking connection at least in parts, wherein the protective sleeve has a peripheral ring segment in sections, wherein, starting from the peripheral ring segment, the protective sleeve has at least two legs (16, 18), wherein each of the legs (16, 18) has a longitudinal axis (S1, S2), wherein the legs are parallel to a longitudinal axis of the protective sleeve, characterized in that each of the legs (16, 18) has a shell-shaped end section (17, 19) and in that the end sections are separated from one another by slots (20, 21) running parallel to the longitudinal axis. at least a sensor with at least a sensor element (7 or 8) designed to determine a measured value for determining the flow of a medium; a transmitter designed to determine the flow using the determined measured value; a tubular connection element designed to connect the sensor to the transmitter; wherein a protective sleeve is provided, wherein said sleeve is mechanically connected to the tubular connection element, wherein the protective sleeve has a sleeve jacket with at least two openings (10, 11), a flow entry opening through which the medium can be routed to the sensor and a flow outlet opening through which the medium can be directed from the sensor, wherein the connection between the protective sleeve and the tubular connection element is a positive-locking connection at least in parts, wherein the protective sleeve has a peripheral ring segment in sections, wherein, starting from the peripheral ring segment, the protective sleeve has at least two legs (16, 18), wherein each of the legs (16, 18) has a longitudinal axis (S1, S2), wherein the legs are parallel to a longitudinal axis of the protective sleeve, characterized in that each of the legs (16, 18) has a shell-shaped end section (17, 19) and in that the end sections are separated from one another by slots (20, 21) running parallel to the longitudinal axis.
A device for aerating a food substance, comprising: an aerator, a vessel, a drive unit and a mounting, wherein the aerator comprises a plurality of filaments, - the filaments being attached to the aerator at their proximal ends and being free at their distal ends, every filament having a first state and a second state, wherein the filament undergoes a reversible elastic deformation when being bent by a transverse force from the first state to the second state and wherein the filament performs a spring-back action from the second state to the first state, lowering the spring tension, when the transverse force acting on the filament drops to zero, - the aerator is attachable to the drive unit and rotatable by the drive unit thereby defining an axis of rotation, - the vessel defines a space for holding the food substance, the space being bordered at the sides by an inner wall of the vessel, - the vessel and the drive unit are attachable to the mounting, wherein the mounting defines a spatial relationship between the axis of rotation and the inner wall of the vessel such that the distal ends of a fraction of the filaments contact the inner wall of the vessel, wherein the inner wall bends the fraction of the filaments by applying the transverse force. - the filaments being attached to the aerator at their proximal ends and being free at their distal ends, every filament having a first state and a second state, wherein the filament undergoes a reversible elastic deformation when being bent by a transverse force from the first state to the second state and wherein the filament performs a spring-back action from the second state to the first state, lowering the spring tension, when the transverse force acting on the filament drops to zero, - the aerator is attachable to the drive unit and rotatable by the drive unit thereby defining an axis of rotation, - the vessel defines a space for holding the food substance, the space being bordered at the sides by an inner wall of the vessel, - the vessel and the drive unit are attachable to the mounting, wherein the mounting defines a spatial relationship between the axis of rotation and the inner wall of the vessel such that the distal ends of a fraction of the filaments contact the inner wall of the vessel, wherein the inner wall bends the fraction of the filaments by applying the transverse force.
A method for processing a photoresist composition, comprising; (a) applying on a substrate a photoresist composition comprising: (i) a photoactive component, (ii) one or more resins that comprise fluorinated photoacid-labile groups having the formula: wherein R is H, CH 3, or CF 3, R 2 is CH 2, CH 2 CF 2, CH 2 CF 2 CF 2, CH 2 CF 2 CF 2 CF 2, or CH(CF 3), and LG together with R 2 and CF 3 is selected from and; and (iii) one or more materials that are distinct from the one or more resins that comprise fluorinated photoacid-labile groups; and (b) immersion exposing the applied photoresist composition to radiation activating for the photoresist composition. (a) applying on a substrate a photoresist composition comprising: (i) a photoactive component, (ii) one or more resins that comprise fluorinated photoacid-labile groups having the formula: wherein R is H, CH 3, or CF 3, R 2 is CH 2, CH 2 CF 2, CH 2 CF 2 CF 2, CH 2 CF 2 CF 2 CF 2, or CH(CF 3), and LG together with R 2 and CF 3 is selected from and; and (iii) one or more materials that are distinct from the one or more resins that comprise fluorinated photoacid-labile groups; and (i) a photoactive component, (ii) one or more resins that comprise fluorinated photoacid-labile groups having the formula: wherein R is H, CH 3, or CF 3, R 2 is CH 2, CH 2 CF 2, CH 2 CF 2 CF 2, CH 2 CF 2 CF 2 CF 2, or CH(CF 3), and LG together with R 2 and CF 3 is selected from and; and wherein R is H, CH 3, or CF 3, R 2 is CH 2, CH 2 CF 2, CH 2 CF 2 CF 2, CH 2 CF 2 CF 2 CF 2, or CH(CF 3), and LG together with R 2 and CF 3 is selected from and; and (iii) one or more materials that are distinct from the one or more resins that comprise fluorinated photoacid-labile groups; and (b) immersion exposing the applied photoresist composition to radiation activating for the photoresist composition.