mhurhangee/ep-ind-claims huggingface dataset:
Process comprising the process steps of: a) initially charging an olefin; b) adding a compound of formula: where R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8 are selected from: -H, -(C 1 -C 12)-alkyl, -(C 6 -C 20)-aryl; and, if R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8 are -(C 6 -C 20)-aryl, the aryl ring may have substituents selected from: -(C 1 -C 12) -alkyl, -O-(C 1 -C 12) -alkyl; c) adding a Pt compound selected from: Pt Me 2, diphenyl (1,5-COD)Pt, Pt (acac) 2, Pt (PPh 3) 4, Pt (DVTS) solution (CAS: 68478-92-2), Pt (ethylene)(PPh 3) 2, tris(benzylideneacetone)Pt, Pt 2 solution, Pt (t-Bu) 2, Pt (hexafluoroacetylacetonate) 2; d) adding an iodine-alkyl compound; e) adding an alcohol selected from: methanol, ethanol, 1-propanol, 1-butanol, 1-pentanol, 1-hexanol, 1-heptanol, 1-octanol, ethane-1,2-diol, propane-1,2-diol, propane-1,3-diol, butane-1,4-diol; f) feeding in CO and H 2; g) heating the reaction mixture from steps a) to f), to convert the olefin to an acetal. a) initially charging an olefin; b) adding a compound of formula: where R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8 are selected from: -H, -(C 1 -C 12)-alkyl, -(C 6 -C 20)-aryl; and, if R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8 are -(C 6 -C 20)-aryl, the aryl ring may have substituents selected from: -(C 1 -C 12) -alkyl, -O-(C 1 -C 12) -alkyl; where R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8 are selected from: -H, -(C 1 -C 12)-alkyl, -(C 6 -C 20)-aryl; and, if R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8 are -(C 6 -C 20)-aryl, the aryl ring may have substituents selected from: -(C 1 -C 12) -alkyl, -O-(C 1 -C 12) -alkyl; c) adding a Pt compound selected from: Pt Me 2, diphenyl (1,5-COD)Pt, Pt (acac) 2, Pt (PPh 3) 4, Pt (DVTS) solution (CAS: 68478-92-2), Pt (ethylene)(PPh 3) 2, tris(benzylideneacetone)Pt, Pt 2 solution, Pt (t-Bu) 2, Pt (hexafluoroacetylacetonate) 2; d) adding an iodine-alkyl compound; e) adding an alcohol selected from: methanol, ethanol, 1-propanol, 1-butanol, 1-pentanol, 1-hexanol, 1-heptanol, 1-octanol, ethane-1,2-diol, propane-1,2-diol, propane-1,3-diol, butane-1,4-diol; f) feeding in CO and H 2; g) heating the reaction mixture from steps a) to f), to convert the olefin to an acetal.
Device for dispensing substances that comprises: - a chamber provided with a substance inlet and outlet; - a piston located inside the chamber, the movement of which causes the exit of the substance to the outside of said chamber; and - a motor provided with an output shaft that drives the movement of said piston when it receives a signal from a sensor; and - transmission means that transmit the drive movement from the motor to said piston; said transmission means comprising: - a worm gear rotationally attached to the output shaft of the motor; - a first transmission element connected to said piston; and - a second transmission element that is connected to said worm gear and to said first transmission element, transmitting the rotation from said worm gear to said first transmission element; characterized in that said second transmission element comprises a first toothed wheel that engages said worm gear and a second toothed wheel that engages the first transmission element. - a chamber provided with a substance inlet and outlet; - a piston located inside the chamber, the movement of which causes the exit of the substance to the outside of said chamber; and - a motor provided with an output shaft that drives the movement of said piston when it receives a signal from a sensor; and - transmission means that transmit the drive movement from the motor to said piston; - a worm gear rotationally attached to the output shaft of the motor; - a first transmission element connected to said piston; and - a second transmission element that is connected to said worm gear and to said first transmission element, transmitting the rotation from said worm gear to said first transmission element;
An exercise apparatus comprising: an exercise platform comprising a framework (21, 22, 23) defining a first recessed opening approximate a proximal end of the exercise platform for receiving therein a first padded exercise mat and a second recessed opening approximate a distal end of the exercise platform, said framework (21, 22, 23) having a handgrip support rail integrally engaged with its proximal end; and an upright framework engaged with the exercise platform framework at the proximal end of the exercise platform, the upright framework having: (i) two upright frame members engaged with a top frame member, an intermediate frame member, and a lower stabilizer bar, (ii) two spaced-apart upright rails interposed between the two upright frame members, said two spaced-apart upright rails engaged with the top frame member and the intermediate frame member, (iii) a vertically adjustable backplate releasably engaged with the two spaced-apart upright rails, (iv) a vertically adjustable headrest engaged with the backplate and extending downward therefrom, and (v) an adjustable handlebar grip engaged with the backplate above said headrest. an exercise platform comprising a framework (21, 22, 23) defining a first recessed opening approximate a proximal end of the exercise platform for receiving therein a first padded exercise mat and a second recessed opening approximate a distal end of the exercise platform, said framework (21, 22, 23) having a handgrip support rail integrally engaged with its proximal end; and an upright framework engaged with the exercise platform framework at the proximal end of the exercise platform, the upright framework having: (i) two upright frame members engaged with a top frame member, an intermediate frame member, and a lower stabilizer bar, (ii) two spaced-apart upright rails interposed between the two upright frame members, said two spaced-apart upright rails engaged with the top frame member and the intermediate frame member, (iii) a vertically adjustable backplate releasably engaged with the two spaced-apart upright rails, (iv) a vertically adjustable headrest engaged with the backplate and extending downward therefrom, and (v) an adjustable handlebar grip engaged with the backplate above said headrest. (i) two upright frame members engaged with a top frame member, an intermediate frame member, and a lower stabilizer bar, (ii) two spaced-apart upright rails interposed between the two upright frame members, said two spaced-apart upright rails engaged with the top frame member and the intermediate frame member, (iii) a vertically adjustable backplate releasably engaged with the two spaced-apart upright rails, (iv) a vertically adjustable headrest engaged with the backplate and extending downward therefrom, and (v) an adjustable handlebar grip engaged with the backplate above said headrest.
A method for performing wireless communication by a first apparatus, the method comprising: monitoring, on a search space related to first control information, the first control information; and monitoring, on a search space related to second control information, the second control information, wherein the first control information comprises control information for scheduling a resource related to communication between a base station and the first apparatus, wherein the second control information comprises control information for scheduling a resource related to sidelink transmission of the first apparatus, wherein the size of the second control information is always less than or equal to all sizes of the first control information, and wherein, if the total number of DCI sizes related to the first control information and the second control information is greater than four, zero padding is appended to the second control information such that the size of the second control information is equal to the size of the first control information having the smallest difference with respect to the size of the second control information. monitoring, on a search space related to first control information, the first control information; and monitoring, on a search space related to second control information, the second control information, wherein the first control information comprises control information for scheduling a resource related to communication between a base station and the first apparatus, wherein the second control information comprises control information for scheduling a resource related to sidelink transmission of the first apparatus, wherein the size of the second control information is always less than or equal to all sizes of the first control information, and wherein, if the total number of DCI sizes related to the first control information and the second control information is greater than four, zero padding is appended to the second control information such that the size of the second control information is equal to the size of the first control information having the smallest difference with respect to the size of the second control information.
Operating apparatus for operating one or more lamps, in particular LEDs, the operating apparatus having a first connection device for receiving at least one control signal and/or for sending operating data from/to an apparatus which can connect to the first connection device; and the operating apparatus being designed so that a module (M1..M3) selected from a plurality of different modules can be inserted into the operating apparatus; characterized in that the operating apparatus comprises a switching regulator for providing a voltage and a current for operating the one or more lamps; a control device for controlling the switching regulator, and a second connection device which is connected to the control device and which can be connected to the first connection device by means of the module (M1..M3) selected from the plurality of different modules which can be inserted into the operating apparatus, the control device being designed to process data received from the selected module (M1..M3) via the second connection device when the selected module (M1..M3) is inserted into the operating apparatus. the operating apparatus having a first connection device for receiving at least one control signal and/or for sending operating data from/to an apparatus which can connect to the first connection device; and the operating apparatus being designed so that a module (M1..M3) selected from a plurality of different modules can be inserted into the operating apparatus; characterized in that the operating apparatus comprises a switching regulator for providing a voltage and a current for operating the one or more lamps; a control device for controlling the switching regulator, and a second connection device which is connected to the control device and which can be connected to the first connection device by means of the module (M1..M3) selected from the plurality of different modules which can be inserted into the operating apparatus, the control device being designed to process data received from the selected module (M1..M3) via the second connection device when the selected module (M1..M3) is inserted into the operating apparatus.
A scoring machine for scoring a surface of an item which is substantially plane in its main dimension and is curved transversely to its main dimension, the item being moved along a transport path in a direction of movement, such as a surface of an item being conveyed forwards by means of a number of conveyors (4,5,6), the scoring machine comprises a structure with a curved path adapted to have substantially the same curvature as the conveyed item transversely to its main dimension, and a number of scoring devices being mounted on the structure in such a manner that the scoring devices are movable along the curved path extending transversely to both the transport path and the direction of movement of the item moved, characterized in that the structure comprises a tubular bearing having an internal tubular bearing part with a curved path and an external tubular bearing part, the scoring device being mounted on the external tubular bearing part in such a manner that the scoring device can rotate about the centre line of the tubular bearing parts (12, 13) and transversely to the direction of movement of the item moved by means of a drive mechanism.
A hybrid metallocene-supported catalyst, comprising: a carrier; at least one first metallocene compound supported in the carrier, among compounds represented by Chemical Formula 1; at least one second metallocene compound supported in the carrier, among compounds represented by Chemical Formula 2; and a co-catalyst compound supported in the carrier: in Chemical Formula 1, in *-MX 2 -*, M is any one of titanium (Ti), zirconium (Zr), and hafnium (Hf), X is one of halogen, an alkyl group of C1-10, and an alkenyl group of C 2-10, and R 1 -*, R 2 -*, R 3 -*, R 4 -*, R 5 -*, R 6 -*, R 7 -*, R 8 -*, R 9 -*, R 10 -* are each independently one of H-*, an alkyl group of C 2-10, a cycloalkyl group of C 3-6, and an aryl group of C 6-14, in Chemical Formula 2, in *-MX 2 -*, M is any one of titanium (Ti), and zirconium (Z r), X is any one of halogen, an alkyl group of C1-10, and an alkenyl group of C 2-10, Q is any one of carbon, silicon (Si), germanium (Ge), and tin (Sn), R 1 -*, R 2 -*, R 3 -*, R 4 -*, R 5 -*, R 6 -*, R 7 -*, R 8 -*, R 9 -*, R 10 -*, R 11 -*, and R 12 -*are each independently one of *-H-, an alkyl group of C 2-10, a cycloalkyl group of C 3-6, and an aryl group of C 6-14, and R 13 -* and R 14 -* are each independently an alkyl group of C 1-10. a carrier; at least one first metallocene compound supported in the carrier, among compounds represented by Chemical Formula 1; at least one second metallocene compound supported in the carrier, among compounds represented by Chemical Formula 2; and a co-catalyst compound supported in the carrier: in Chemical Formula 1, in *-MX 2 -*, M is any one of titanium (Ti), zirconium (Zr), and hafnium (Hf), X is one of halogen, an alkyl group of C1-10, and an alkenyl group of C 2-10, and R 1 -*, R 2 -*, R 3 -*, R 4 -*, R 5 -*, R 6 -*, R 7 -*, R 8 -*, R 9 -*, R 10 -* are each independently one of H-*, an alkyl group of C 2-10, a cycloalkyl group of C 3-6, and an aryl group of C 6-14, in Chemical Formula 2, in *-MX 2 -*, M is any one of titanium (Ti), and zirconium (Z r), X is any one of halogen, an alkyl group of C1-10, and an alkenyl group of C 2-10, Q is any one of carbon, silicon (Si), germanium (Ge), and tin (Sn), R 1 -*, R 2 -*, R 3 -*, R 4 -*, R 5 -*, R 6 -*, R 7 -*, R 8 -*, R 9 -*, R 10 -*, R 11 -*, and R 12 -*are each independently one of *-H-, an alkyl group of C 2-10, a cycloalkyl group of C 3-6, and an aryl group of C 6-14, and R 13 -* and R 14 -* are each independently an alkyl group of C 1-10.
Apparatus for prilling a liquid, preferably urea melt, comprising a distributor supplying said liquid, at least one dispenser (3, 41) and a pulse generator, wherein said pulse generator: is situated in either one of said supply distributor and said dispenser (3, 41), is passed through by at least a portion of said liquid, and comprises at least a first surface and a second surface, facing one another and performing a relative movement and comprising respective passages (25, 26) for the liquid, and wherein said first surface and second surface, which are passed through by the liquid (Q, Q1), generate in the liquid periodic pulses of pressure having a predetermined frequency depending on the relative speed of said two surfaces (23, 24). is situated in either one of said supply distributor and said dispenser (3, 41), is passed through by at least a portion of said liquid, and comprises at least a first surface and a second surface, facing one another and performing a relative movement and comprising respective passages (25, 26) for the liquid, and wherein said first surface and second surface, which are passed through by the liquid (Q, Q1), generate in the liquid periodic pulses of pressure having a predetermined frequency depending on the relative speed of said two surfaces (23, 24).
A vehicle control apparatus mounted in a vehicle having a braking device, wherein the braking device causes a booster to increase brake operating force produced by a driver by using negative pressure (Pb) generated through operation of an engine, thereby producing brake fluid pressure (Pmc, Pwc) corresponding to the increased brake operating force in a master cylinder and a wheel cylinder (32a, 32b, 32c, 32d) and applying braking force corresponding to the brake fluid pressure (Pwc) in the wheel cylinder (32a, 32b, 32c, 32d) to a wheel (FR, FL, RR, RL), the vehicle control apparatus automatically stops and restarts the engine, the vehicle control apparatus comprising a force maintaining control section (55, S18, S45) that carries out force maintaining control to maintain the braking force applied to the wheel (FR, FF, RR, RL) when engine restart is initiated due to approach of the negative pressure (Pb) in the booster obtained when the engine is not running to the atmospheric pressure compared with a restart reference value (Pbth1), which is set as a reference for determining whether the engine should be restarted; the vehicle control apparatus being characterized by a force increasing control section (55, S28, S51) that performs force increasing control for increasing the braking force applied to the wheel (FR, FL, RR, RL) when the negative pressure (Pb) in the booster obtained during the restart of the engine approaches the atmospheric pressure compared with a force increase starting reference value (Pbth2), which is closer to the atmospheric pressure than the restart reference value (Pbth1).
A method of supplying a thermoplastic polymer film with a longitudinal orientation by stretching in solid state in one or more stretching operations, the stretching in at least one such operation taking place during advancement of the film in one or more short zones between or on two or more stretching rollers (4,1,9) or partly on and partly between such rollers, whereby the width measured in a straight line from edge to edge is reduced prior to the stretching, this reduction being in form of a pattern of longitudinally extending pleats, and whereby the formation of pleats is established, at least in part, under use of grooved rollers (7,1), which have a corrugated surface in a pattern of circular tips and grooves, characterised in that in said stretching operation the formation of pleats takes place in at least two steps, the last step carried out by entwining the advancing film under longitudinal tension around a grooved mini-roller mounted upstream of and in close proximity to the first smooth stretching roller, the mini-roller being defined by the following measures a) the pitch of the corrugations, measured from middle of tip to middle of each neighbouring tip is 20 mm or less; b) the perimeter from middle of a tip to the middle of each neighbouring tip measured along the corrugated roller surface, divided by the said pitch is in the range between 1,10 and 1,80; and c) the diameter of the mini-roller, measured at the tips of the corrugations, is at the highest 4 times the said pitch. a) the pitch of the corrugations, measured from middle of tip to middle of each neighbouring tip is 20 mm or less; b) the perimeter from middle of a tip to the middle of each neighbouring tip measured along the corrugated roller surface, divided by the said pitch is in the range between 1,10 and 1,80; and c) the diameter of the mini-roller, measured at the tips of the corrugations, is at the highest 4 times the said pitch.
A control circuit configured to control an electromechanical brake, the control circuit comprising: a switching regulator configured to control a magnitude of voltage applied to a brake coil of the electromechanical brake, wherein said switching regulator comprises at least one semiconductor switch, one diode, one capacitor and one inductor; wherein the control circuit is configured such that, in operation, at least one control signal from a process sub-system specifies the magnitude of the voltage for the brake coil; and at least one brake-applying control signal (502, 505) from a safety sub-system that causes the brake coil voltage to be reduced to a level that is effectively zero, thereby applying the brake by opening a switch (102, 508), wherein each brake applying control signal from the safety sub-system has a corresponding diagnostic feedback signal (503, 506) to the safety sub-system that indicates the state of the corresponding switch (102, 508); characterised in that the switching regulator is coupled to a time-weighted feedback network at a feedback input of the switching regulator whereby voltage applied to the brake coil can be varied by the control signal from the process sub-system that specifies the time weighting of the time-weighted feedback network. a switching regulator configured to control a magnitude of voltage applied to a brake coil of the electromechanical brake, wherein said switching regulator comprises at least one semiconductor switch, one diode, one capacitor and one inductor; wherein the control circuit is configured such that, in operation, at least one control signal from a process sub-system specifies the magnitude of the voltage for the brake coil; and at least one brake-applying control signal (502, 505) from a safety sub-system that causes the brake coil voltage to be reduced to a level that is effectively zero, thereby applying the brake by opening a switch (102, 508), wherein each brake applying control signal from the safety sub-system has a corresponding diagnostic feedback signal (503, 506) to the safety sub-system that indicates the state of the corresponding switch (102, 508); characterised in that the switching regulator is coupled to a time-weighted feedback network at a feedback input of the switching regulator whereby voltage applied to the brake coil can be varied by the control signal from the process sub-system that specifies the time weighting of the time-weighted feedback network.
Vehicle comprising a vehicle component (2.1) for executing a vehicle function, at least one camera (2.2.1) for detecting as an image a body part of an operator of the vehicle and a control unit (2.3) for actuating the camera (2.2.1), for evaluating output signals of the camera (2.2.1) and for actuating the vehicle component (2.1), where the vehicle component (2.1) and the camera (2.2.1) are linked to the control unit (2.3) to transfer signals and the vehicle component (2.1) can be actuated by the control unit (2.3) for performing the vehicle function depending on the evaluation of the output signals corresponding to the detection of the body part as an image by means of the camera (2.2.1) and where the camera (2.2.1) and the control unit (2.3) are designed and set up to perform a further vehicle function and the camera (2.2.1) can be actuated by means of the control unit (2.3) to perform the detection of the body part of the operator as an image depending on a triggering signal pending at the control unit (2.3), characterized in that the camera and the control unit are designed and set up to generate and/or store in the camera and in the control unit a shared signature, where the shared signature can be entered by means of the camera in an image taken and this taken image with the shared signature is identifiable by means of the control unit as an image taken by the camera on the basis of the shared signature.