mhurhangee/patent-ind-claim-en huggingface dataset:
A method for modifying a delivery device, wherein the delivery device comprises a monostable solenoid valve having a second input and a control device of the solenoid valve having a second output connected to the second input of the solenoid valve , the method comprising the steps of: disconnecting the second output of the control device from the second input of the solenoid valve , connecting the second output of the control device to a first input of a control assembly of a monostable solenoid valve for a delivery device, connecting a first output of the control assembly to the second input of the solenoid valve ; wherein the control assembly comprises the first input configured to be coupled to the control device of the delivery device and to be supplied by a power supply voltage (Va) from the control device ; the first output configured to be coupled to the second input of the monostable solenoid valve ; a control unit being coupled to the first input ; and a drive unit coupled to the first output and to the control unit ; the control unit being configured to detect a first voltage (V5) at the first input ; the control unit being configured to control the drive unit so that, when the control unit detects a first voltage (V5) equal to a power supply voltage (Va), the first output of the control assembly delivers: - A rated voltage (Vn) for a first period of time (T1), and - A hold voltage (Vm) different from the rated voltage (Vn) for a second period of time (T2) following the first period of time (T1), and wherein the hold voltage (Vm) is lower than the rated voltage (Vn). - A rated voltage (Vn) for a first period of time (T1), and - A hold voltage (Vm) different from the rated voltage (Vn) for a second period of time (T2) following the first period of time (T1), and wherein the hold voltage (Vm) is lower than the rated voltage (Vn).
An autonomous underwater vehicle comprising a hull extending along a main longitudinal axis and at least one first pincer member (132a-b) disposed towards a forward end of the hull, characterized in that it further comprises a second pincer member (130a-b) disposed towards an aft end of the hull, which is an opposite end to the forward end, said first and second pincer members being disposed respectively on a first lateral part and a second lateral part of the hull, on opposite sides of the main longitudinal axis, and being configured to take an open position or a closed position, and a detection member and a guide member which are respectively configured to detect cables and in order for the first and second pincer members to come respectively into engagement with one of the respective cables.
A method of monitoring a vibratory grinding process which is executed in a vibratory grinding system in a container filled with process water, in which method, of at least three parameter groups of the vibratory grinding process, parameters are in each case detected and supplied to an evaluation device which, after an analysis of the values of all the detected parameters, outputs a command for operating the vibratory grinding system by means of an output device , characterized in that , of the three parameter groups, a) a first parameter group comprises at least one machine parameter which is selected from the group that at least comprises: rotational speed and temperature of a machine operated in the vibratory grinding system; and b) a second parameter group comprises at least one process water parameter which is selected from the group that at least comprises: conductivity and degree of turbidity of the process water; and c) a third parameter group comprises at least one process parameter which is selected from the group that at least comprises: process medium consumption and production quantity. a) a first parameter group comprises at least one machine parameter which is selected from the group that at least comprises: rotational speed and temperature of a machine operated in the vibratory grinding system; and b) a second parameter group comprises at least one process water parameter which is selected from the group that at least comprises: conductivity and degree of turbidity of the process water; and c) a third parameter group comprises at least one process parameter which is selected from the group that at least comprises: process medium consumption and production quantity.
A pharmaceutical composition comprising (a) one or more tetracyclines; (b) a TetR binding compound preventing TetR from dissociation of the tetO operator sequence in the presence of the inducing antibiotic tetracycline; wherein the TetR binding compound (b) is a compound of formula wherein R 1 is hydrogen or methyl; R 2 is hydrogen or methyl; R 3 , R 4 and R 5 are, independently of each other, hydrogen, lower alkyl, halo-lower alkyl, halogen, cyano, hydroxy, lower alkoxy, halo-lower alkoxy, phenoxy, amino, lower alkylamino, di-(lower alkyl)amino, optionally substituted lower alkylcarbonylamino, carboxy, lower alkylcarbonyl, lower alkoxycarbonyl, phenylcarbonyl, or phenyl; wherein lower alkyl has 1-7 carbon atoms, R 6 is hydrogen, phenoxy or phenyl; and n is 1, 2, 3 or 4. (a) one or more tetracyclines; (b) a TetR binding compound preventing TetR from dissociation of the tetO operator sequence in the presence of the inducing antibiotic tetracycline; R 1 is hydrogen or methyl; R 2 is hydrogen or methyl; R 3 , R 4 and R 5 are, independently of each other, hydrogen, lower alkyl, halo-lower alkyl, halogen, cyano, hydroxy, lower alkoxy, halo-lower alkoxy, phenoxy, amino, lower alkylamino, di-(lower alkyl)amino, optionally substituted lower alkylcarbonylamino, carboxy, lower alkylcarbonyl, lower alkoxycarbonyl, phenylcarbonyl, or phenyl; wherein lower alkyl has 1-7 carbon atoms, R 6 is hydrogen, phenoxy or phenyl; and n is 1, 2, 3 or 4.
Treatment system for long-cut pasta comprising: - support means on which to hang long-cut pasta in such a way that it protrudes from said support means with at least one first end portion of its, substantially straight and arranged in a substantially vertical position; - a drying device , for drying and stabilising long-cut pasta ; - a cooling device , for cooling long-cut pasta ; - a transferring device , positioned between said drying device and said cooling device , wherein long-cut pasta coming out of said drying device is passed before reaching said cooling device , said transferring device comprising transport means configured to transport said support means along a trajectory which comprises a first section , having a vertical component directed upwards, and a second section , having a vertical component directed downwards, characterised by comprising ventilation means positioned in such a way to send a first air flow , generated by them, toward long-cut pasta supported by said support means while they travel said first section and/or said second section of said trajectory . - support means on which to hang long-cut pasta in such a way that it protrudes from said support means with at least one first end portion of its, substantially straight and arranged in a substantially vertical position; - a drying device , for drying and stabilising long-cut pasta ; - a cooling device , for cooling long-cut pasta ; - a transferring device , positioned between said drying device and said cooling device , wherein long-cut pasta coming out of said drying device is passed before reaching said cooling device , said transferring device comprising transport means configured to transport said support means along a trajectory which comprises a first section , having a vertical component directed upwards, and a second section , having a vertical component directed downwards,
Pneumatic vehicle tyre having a profiled tread with profile positives, for example profile ribs or profile blocks, which are provided on their outer surface with a sipe hatching comprising one or more strip-shaped sipe field(s) and having regions free from sipe fields , wherein each sipe field has on the outer surface of the associated profile positive a frame-like field delimitation and is formed by a multiplicity of sipes and webs running straight and, at least in groups (G1, G2), parallel to one another and following alternately one after the other, wherein the sipes and the webs have in each case a width of 0.4 mm to 1.5 mm and the sipes have a depth of 1.0 mm to 3.0 mm, characterized in that each sipe field is made up of at least two adjacently formed groups (G1, G2) of sipes respectively running parallel to one another, wherein the sipes belonging to one group (G1) run at an angle (α) in relation to the sipes in the other group or groups (G2), wherein sipes of at least two groups (G1, G2) run in a V-shaped manner in relation to one another in plan view and the tips of the Vs lie on a single curved- or straight-running line of extent (l 1 ) and wherein the sipe field or fields has or have - determined perpendicularly to the line of extent (l 1 ) - over at least 75% of the length of the line of extent (l 1 ) a width (b 1 ) of 5.0 mm to 15.0 mm. in that each sipe field is made up of at least two adjacently formed groups (G1, G2) of sipes respectively running parallel to one another, wherein the sipes belonging to one group (G1) run at an angle (α) in relation to the sipes in the other group or groups (G2), wherein sipes of at least two groups (G1, G2) run in a V-shaped manner in relation to one another in plan view and the tips of the Vs lie on a single curved- or straight-running line of extent (l 1 ) and wherein the sipe field or fields has or have - determined perpendicularly to the line of extent (l 1 ) - over at least 75% of the length of the line of extent (l 1 ) a width (b 1 ) of 5.0 mm to 15.0 mm.
Latching hook for a retaining device of a slide for automatic latching so as to retain the slide, having: an undercut , which comprises an engagement edge that runs obliquely at a predetermined angle (α) in the range from 10° to 45°, in particular 25° to 35°, for engagement with a mating latching element , and an axis of rotation that is arranged vertically offset from the engagement edge, wherein the engagement edge is oriented tangentially with respect to the axis of rotation so that a rotation of the latching hook about the axis of rotation causes a displacement of the engagement edge along the oblique extent and the latching hook can be released from engagement with the mating latching element without translational relative movement.
A method of observing an autofluorescence image of a positively charged cancer-related substance through a fluorescence microscope, which comprises providing a plasmonic chip which comprises a region of meso-crystal consisting of nanocrystals of silver oxides containing silver peroxides, dropping a serum or biological liquid sample on the crystal region of the plasmonic chip to generate a negative polarity in contact with the serum or biological liquid sample so as to selectively capture or adsorb positively charged cancer-related substances in the serum or sample, and image observing autofluorescence of the positively charged cancer-related substance enhanced by localized surface plasmon resonance through the fluorescence microscope.
Exhaust gas flap device for an internal combustion engine having a flap housing in which an exhaust gas duct through which exhaust gas flows is formed, wherein an exhaust gas flap is provided which is rotatably arranged in the exhaust gas duct and is supported in the flap housing , wherein an electric motor arranged in a motor housing is provided for the direct or indirect drive of the exhaust gas flap , wherein a Teflon bushing is arranged in the flap housing which bushing at least partially forms the exhaust gas duct , characterized in that on an outwardly directed side, the Teflon bushing has a positioning surface which is enlarged in diameter, wherein the Teflon bushing has a sealing lip or bead at least on an axially outwardly directed side.
A data center system comprising: a first rack and a second rack defining a hot air corridor therebetween; a first support having a first end and a second end opposite the first end, the first end of the first support is configured to be secured to a floor within the hot air corridor; a cooling frame secured to the second end of the first support, the cooling frame having a first face and a second face opposite the first face; a cooling unit secured within the cooling frame, the cooling unit configured to receive hot air from the hot air corridor and expel a cool medium from the first face and the second face of the cooling frame down onto the first and second rack ; a plurality of pipes secured to a top portion of the cooling frame , wherein the plurality of pipes are configured to communicate with the cooling unit to carry a liquid coolant to portions of the data center system; a first distribution frame coupled to the first face of the cooling frame; and a second distribution frame coupled to the second face of the cooling frame. a first rack and a second rack defining a hot air corridor therebetween; a first support having a first end and a second end opposite the first end, the first end of the first support is configured to be secured to a floor within the hot air corridor; a cooling frame secured to the second end of the first support, the cooling frame having a first face and a second face opposite the first face; a cooling unit secured within the cooling frame, the cooling unit configured to receive hot air from the hot air corridor and expel a cool medium from the first face and the second face of the cooling frame down onto the first and second rack ; a plurality of pipes secured to a top portion of the cooling frame , wherein the plurality of pipes are configured to communicate with the cooling unit to carry a liquid coolant to portions of the data center system; a first distribution frame coupled to the first face of the cooling frame; and a second distribution frame coupled to the second face of the cooling frame.
A cap for an injector (1; 101) comprising a syringe (10; 110) with a needle cover (17, 19; 117, 119), said cap comprising a first cap body part (40; 140) in the form of a sleeve having forward and rear openings, characterized by a second cap body part (50; 150) in the form of a plug arranged for receipt by said forward opening of said sleeve form first cap body part, wherein said plug form second body part defines a plug top and an inner plug body , and wherein said inner plug body defines a protruding pocket; and arranged for receipt within said protruding pocket of the inner plug body, a metal connector defining plural needle cover gripping elements arranged around a central hub , wherein each gripping element is provided with one or more barbs (57a-57c) for gripping the needle cover, wherein the first cap body part, second cap body part and connector are provided as separate parts, and wherein in the assembled cap, the plug top of the plug form second cap body part forms a cover for the forward opening of the sleeve form first cap body part, and the needle cover gripping elements of the connector extend into the sleeve form first cap body part.
A method comprising: receiving (S418), by a communication device , a link from a remote server computer via a communications application, the link indicating a host application running on the communication device and one of a page, segment or subroutine of the host application, the link comprising a one-time passcode as a value of a query; receiving (S420), by the communication device, an instruction to activate the link, upon activation of the link, navigating, by the communication device, to the page, segment, or subroutine of the host application and providing the one-time passcode to the host application as a value of the query; determining (S422), by the host application running on the communication device, the one-time passcode based on the link; transmitting (S424), by the communication device, the one-time passcode to the remote server computer via the host application running on the communication device; and receiving (S430), by the communication device, an authentication message from the remote server computer. receiving (S418), by a communication device , a link from a remote server computer via a communications application, the link indicating a host application running on the communication device and one of a page, segment or subroutine of the host application, the link comprising a one-time passcode as a value of a query; receiving (S420), by the communication device, an instruction to activate the link, upon activation of the link, navigating, by the communication device, to the page, segment, or subroutine of the host application and providing the one-time passcode to the host application as a value of the query; determining (S422), by the host application running on the communication device, the one-time passcode based on the link; transmitting (S424), by the communication device, the one-time passcode to the remote server computer via the host application running on the communication device; and receiving (S430), by the communication device, an authentication message from the remote server computer.
A power conversion device, comprising: two inverters , each of which includes a plurality of semiconductor switching elements, and is configured to invert a DC voltage output from a DC power supply into three-phase AC voltages by the respective semiconductor switching elements being switched on and off, to output the three-phase AC voltages; two capacitors , which individually correspond to the respective two inverters , and are provided in parallel between the DC power supply and the two inverters ; and a control unit configured to calculate voltage command values, which are command values for the three-phase AC voltages to be output from each of the two inverters , based on an input control command value, and output on/off signals for switching on and off the respective semiconductor switching elements of each of the two inverters in accordance with the voltage command values calculated for each of the two inverters , characterized in that the control unit is configured to output the on/off signals to each of the two inverters so that, out of a plurality of voltage vectors defined so as to correspond to patterns of the on/off signals, the second closest voltage vector and the third closest voltage vector in phase to a voltage command vector that is based on the voltage command values are formed. two inverters , each of which includes a plurality of semiconductor switching elements, and is configured to invert a DC voltage output from a DC power supply into three-phase AC voltages by the respective semiconductor switching elements being switched on and off, to output the three-phase AC voltages; two capacitors , which individually correspond to the respective two inverters , and are provided in parallel between the DC power supply and the two inverters ; and a control unit configured to calculate voltage command values, which are command values for the three-phase AC voltages to be output from each of the two inverters , based on an input control command value, and output on/off signals for switching on and off the respective semiconductor switching elements of each of the two inverters in accordance with the voltage command values calculated for each of the two inverters , characterized in that the control unit is configured to output the on/off signals to each of the two inverters so that, out of a plurality of voltage vectors defined so as to correspond to patterns of the on/off signals, the second closest voltage vector and the third closest voltage vector in phase to a voltage command vector that is based on the voltage command values are formed.
A radio frequency generator for ablation for use in a device for transmitting energy in the trachea and bronchus, the generator being able to generate and control a direct current, an alternating current and a radio frequency energy, collect, process and display a temperature, impedance or tension signal, and determine the ablation effectiveness according to the change of the impedance or tension signal, and the change of the impedance is one or more of a falling value of impedance, a change rate of impedance, the change in the change rate of impedance, or the change of impedance from falling to rising, wherein the radio frequency generator for ablation is configured for using a segmentation control method to adjust a radio frequency output power through a closed-loop control system so as to control an ablation temperature, and the segmentation control comprises: a fast heating stage: lasting for 0.5 s to 2 s from the beginning of ablation, wherein an end point temperature of the fast heating stage reaches 50% to 80% of the ablation temperature; a slow heating stage: lasting for 0.5 s to 2 s after the fast heating stage, wherein an end point temperature of the slow heating stage reaches 70% to 99% of the ablation temperature, or is 0.1°C to 10°C lower than the ablation temperature; and a stability maintenance stage: stably maintaining the temperature after the slow heating stage until the ablation stops. generate and control a direct current, an alternating current and a radio frequency energy, collect, process and display a temperature, impedance or tension signal, and determine the ablation effectiveness according to the change of the impedance or tension signal, and the change of the impedance is one or more of a falling value of impedance, a change rate of impedance, the change in the change rate of impedance, or the change of impedance from falling to rising, a falling value of impedance, a change rate of impedance, the change in the change rate of impedance, or the change of impedance from falling to rising, a fast heating stage: lasting for 0.5 s to 2 s from the beginning of ablation, wherein an end point temperature of the fast heating stage reaches 50% to 80% of the ablation temperature; a slow heating stage: lasting for 0.5 s to 2 s after the fast heating stage, wherein an end point temperature of the slow heating stage reaches 70% to 99% of the ablation temperature, or is 0.1°C to 10°C lower than the ablation temperature; and a stability maintenance stage: stably maintaining the temperature after the slow heating stage until the ablation stops.