mhurhangee/patent-ind-claim-en huggingface dataset:
An automated analyzer, comprising: a first temperature control unit (104-1) including a first temperature adjusting mechanism which includes a first heat exchange portion; an air suction duct adapted to supply air sucked from an air suction port (201-1) to the first heat exchange portion; an air discharge duct formed separated from the air suction duct to discharge air from the first heat exchange portion toward an air discharge port (202-1); and a control device adapted to control the first temperature adjusting mechanism so that the first temperature control unit is set to a first target temperature; characterized in that the automated analyzer further comprises a second temperature control unit (108-1) including a second temperature adjusting mechanism which includes a second heat exchange portion; the air suction duct is further adapted to supply air sucked from the air suction port to the second heat exchange portion; the air discharge duct is further adapted to discharge air from the second heat exchange portion toward the air discharge port; the control device is further adapted to control the second temperature adjusting mechanism so that the second temperature control unit is set to a second target temperature higher than the first target temperature, and the first temperature control unit is disposed at a position closer to the air suction port than the second temperature control unit. a first temperature control unit (104-1) including a first temperature adjusting mechanism which includes a first heat exchange portion; an air suction duct adapted to supply air sucked from an air suction port (201-1) to the first heat exchange portion; an air discharge duct formed separated from the air suction duct to discharge air from the first heat exchange portion toward an air discharge port (202-1); and a control device adapted to control the first temperature adjusting mechanism so that the first temperature control unit is set to a first target temperature; characterized in that the automated analyzer further comprises a second temperature control unit (108-1) including a second temperature adjusting mechanism which includes a second heat exchange portion; the air suction duct is further adapted to supply air sucked from the air suction port to the second heat exchange portion; the air discharge duct is further adapted to discharge air from the second heat exchange portion toward the air discharge port; the control device is further adapted to control the second temperature adjusting mechanism so that the second temperature control unit is set to a second target temperature higher than the first target temperature, and the first temperature control unit is disposed at a position closer to the air suction port than the second temperature control unit.
A thermoelectric element comprising: a first metal substrate ; a first resin layer which is arranged on the first metal substrate, and comes into direct contact with the first metal substrate; a plurality of first electrodes arranged on the first resin layer; a plurality of P-type thermoelectric legs and a plurality of N-type thermoelectric legs which are arranged on the plurality of first electrodes; a plurality of second electrodes arranged on the plurality of P-type thermoelectric legs and the plurality of N-type thermoelectric legs; a second resin layer arranged on the plurality of second electrodes; and a second metal substrate which is arranged on the second resin layer, and comes into direct contact with the second resin layer, characterized in that a bonding strength between the first resin layer and the plurality of first electrodes is different from a bonding strength between the second resin layer and the plurality of second electrodes. a first metal substrate ; a first resin layer which is arranged on the first metal substrate, and comes into direct contact with the first metal substrate; a plurality of first electrodes arranged on the first resin layer; a plurality of P-type thermoelectric legs and a plurality of N-type thermoelectric legs which are arranged on the plurality of first electrodes; a plurality of second electrodes arranged on the plurality of P-type thermoelectric legs and the plurality of N-type thermoelectric legs; a second resin layer arranged on the plurality of second electrodes; and a second metal substrate which is arranged on the second resin layer, and comes into direct contact with the second resin layer, characterized in that a bonding strength between the first resin layer and the plurality of first electrodes is different from a bonding strength between the second resin layer and the plurality of second electrodes.
A combustor comprising: a transition piece that defines a flow channel therein; a combustor basket inserted in the transition piece from an upstream side of the flow channel that sends a combustion gas through the flow channel and defines a gap (S1) through which a compressed air (A) is sent with an inner peripheral surface of the transition piece, characterized in that the combustor basket includes a notch portion formed by being recessed from a downstream edge of the combustor basket toward the upstream side, and a plurality of purge air introduction holes through which the compressed air (A) in the gap (S1) is introduced into the notch portion , characterized in that the combustor basket includes a protruding portion formed along an edge of the notch portion that protrudes in a direction away from the flow channel, and the plurality of purge air introduction holes are through-holes that pass through the protruding portion , and the plurality of purge air introduction holes are provided along the axial line (O) direction of the combustor . a transition piece that defines a flow channel therein; a combustor basket inserted in the transition piece from an upstream side of the flow channel that sends a combustion gas through the flow channel and defines a gap (S1) through which a compressed air (A) is sent with an inner peripheral surface of the transition piece, characterized in that the combustor basket includes a notch portion formed by being recessed from a downstream edge of the combustor basket toward the upstream side, and a plurality of purge air introduction holes through which the compressed air (A) in the gap (S1) is introduced into the notch portion , characterized in that a notch portion formed by being recessed from a downstream edge of the combustor basket toward the upstream side, and a plurality of purge air introduction holes through which the compressed air (A) in the gap (S1) is introduced into the notch portion , characterized in that the combustor basket includes a protruding portion formed along an edge of the notch portion that protrudes in a direction away from the flow channel, and the plurality of purge air introduction holes are through-holes that pass through the protruding portion , and the plurality of purge air introduction holes are provided along the axial line (O) direction of the combustor .
A pulse sputtering device comprising: a sputtering source arranged to perform pulse discharge and to generate plasma; a gas injection valve arranged to inject and supply an inert gas to the sputtering source ; and a controller arranged to control the sputtering source and the gas injection valve , wherein the controller is arranged to control the gas injection valve such that, in use, the gas injection valve injects the inert gas intermittently, wherein the controller is arranged to control the sputtering source and the gas injection valve such that, in use, the pulse discharge is caused to occur in the sputtering source in a first period, and the gas injection valve is caused to inject and supply the inert gas in a second period, a part of said first period overlapping with a part of said second period, or such that, in use, the pulse discharge is caused to occur in the sputtering source in a first period, and the gas injection valve is caused to inject and supply the inert gas in a second period, said first period being included in said second period, and wherein the controller is arranged to cause power to be supplied to the gas injection valve according to an injection signal, which is a pulsed electric signal, such that, in use, the gas injection valve is driven to inject the inert gas characterized in that the controller is arranged to cause the injection signal to be constructed with a group of multiple pulse signals. a sputtering source arranged to perform pulse discharge and to generate plasma; a gas injection valve arranged to inject and supply an inert gas to the sputtering source ; and a controller arranged to control the sputtering source and the gas injection valve , wherein the controller is arranged to control the gas injection valve such that, in use, the gas injection valve injects the inert gas intermittently, wherein the controller is arranged to control the sputtering source and the gas injection valve such that, in use, the pulse discharge is caused to occur in the sputtering source in a first period, and the gas injection valve is caused to inject and supply the inert gas in a second period, a part of said first period overlapping with a part of said second period, or such that, in use, the pulse discharge is caused to occur in the sputtering source in a first period, and the gas injection valve is caused to inject and supply the inert gas in a second period, said first period being included in said second period, and wherein the controller is arranged to cause power to be supplied to the gas injection valve according to an injection signal, which is a pulsed electric signal, such that, in use, the gas injection valve is driven to inject the inert gas characterized in that the controller is arranged to cause the injection signal to be constructed with a group of multiple pulse signals.
A robotic catheter system , the system comprising: a motor drive base comprising one or more drive motors located in the motor drive base; a cassette including a cassette housing and an axial drive assembly ; wherein the axial drive assembly includes: a first axial drive mechanism supported by the cassette housing and configured to releasably engage and impart axial movement to a guide wire along a longitudinal axis of the guide wire, wherein the guide wire extends out of a rear of the first axial drive mechanism and exits a front end of the cassette housing ; and a second axial drive mechanism configured to releasably engage and impart axial movement to a catheter device along a longitudinal axis of the catheter device; wherein the catheter device exits the front end of the cassette housing over the guide wire; wherein the motor drive base further includes one or more motor couplers configured to couple the one or more motors to the axial drive mechanisms within the cassette. a motor drive base comprising one or more drive motors located in the motor drive base; a cassette including a cassette housing and an axial drive assembly ; wherein the axial drive assembly includes: a first axial drive mechanism supported by the cassette housing and configured to releasably engage and impart axial movement to a guide wire along a longitudinal axis of the guide wire, wherein the guide wire extends out of a rear of the first axial drive mechanism and exits a front end of the cassette housing ; and a second axial drive mechanism configured to releasably engage and impart axial movement to a catheter device along a longitudinal axis of the catheter device; a first axial drive mechanism supported by the cassette housing and configured to releasably engage and impart axial movement to a guide wire along a longitudinal axis of the guide wire, wherein the guide wire extends out of a rear of the first axial drive mechanism and exits a front end of the cassette housing ; and a second axial drive mechanism configured to releasably engage and impart axial movement to a catheter device along a longitudinal axis of the catheter device; wherein the catheter device exits the front end of the cassette housing over the guide wire; wherein the motor drive base further includes one or more motor couplers configured to couple the one or more motors to the axial drive mechanisms within the cassette.
Process for transferring blocks from a donor substrate to a receiver substrate , comprising the following steps: - arranging a mask facing a free surface of the donor substrate, the mask having one or more openings that expose the free surface of the donor substrate, these being distributed according to a given pattern , so as to form at least one exposed region of the free surface of the donor substrate, and at least one region covered by the mask, - forming, by ion implantation through the mask , an embrittlement plane localized in the donor substrate vertically in line with at least one exposed region, said embrittlement plane delimiting, in the thickness of the donor substrate, a respective surface region , - forming a block that is raised relative to the free surface of the donor substrate localized vertically in line with each respective embrittlement plane , said block comprising the respective surface region , - bonding the donor substrate to the receiver substrate via each block located at the bonding interface, after having removed the mask , - detaching the donor substrate along each localized embrittlement plane in order to transfer each respective block to the receiver substrate . - arranging a mask facing a free surface of the donor substrate, the mask having one or more openings that expose the free surface of the donor substrate, these being distributed according to a given pattern , so as to form at least one exposed region of the free surface of the donor substrate, and at least one region covered by the mask, - forming, by ion implantation through the mask , an embrittlement plane localized in the donor substrate vertically in line with at least one exposed region, said embrittlement plane delimiting, in the thickness of the donor substrate, a respective surface region , - forming a block that is raised relative to the free surface of the donor substrate localized vertically in line with each respective embrittlement plane , said block comprising the respective surface region , - bonding the donor substrate to the receiver substrate via each block located at the bonding interface, after having removed the mask , - detaching the donor substrate along each localized embrittlement plane in order to transfer each respective block to the receiver substrate .
Four-phase reluctance motor with a ferromagnetic motor rotor , a motor stator with 4* n stator poles (110a-d,210a-h), wherein n is a positive integer, each stator pole (110a-d,210a-h) being provided with a separate concentrated stator coil (112a-d,212a-h), and a motor control unit energizing the stator coils (112a-d,212a-h) for driving the motor rotor , wherein the stator coils (112a-d,212a-h) are synchronously energized by the motor control unit with a four-phase unipolar drive current, and wherein the stator coils (112a-d,212a-h) and/or the motor control unit are arranged to provide inverse circumferential flow directions of the drive current for adjacent stator coils (112a-d,212ah) characterized in that each phase (la-d) of the four-phase unipolar drive current is provided with a substantially sinusoidal current profile . a ferromagnetic motor rotor , a motor stator with 4* n stator poles (110a-d,210a-h), wherein n is a positive integer, each stator pole (110a-d,210a-h) being provided with a separate concentrated stator coil (112a-d,212a-h), and a motor control unit energizing the stator coils (112a-d,212a-h) for driving the motor rotor , wherein the stator coils (112a-d,212a-h) are synchronously energized by the motor control unit with a four-phase unipolar drive current, and wherein the stator coils (112a-d,212a-h) and/or the motor control unit are arranged to provide inverse circumferential flow directions of the drive current for adjacent stator coils (112a-d,212ah) characterized in that each phase (la-d) of the four-phase unipolar drive current is provided with a substantially sinusoidal current profile .
A compound according to the following formula (i) or (ii): or a pharmaceutically acceptable salt thereof.
A method of establishing a blasting system which includes the steps of: surveying a blast site to generate data which determines the respective positions of a plurality of blast holes previously formed at the site, calculating from the data produced by the survey, for each blast hole, a respective time delay, allowing an autonomously controlled vehicle to traverse the blast site moving successively from blast hole to blast hole, at each blast hole using robotic means to remove a detonator from a store of a plurality of detonators on the vehicle, using a processor to program the removed detonator with a respective time delay calculated for the blast hole, using robotic means to place the programmed detonator in the blast hole, and pumping into the blast hole a predetermined volume of an emulsion from a source carried on or associated with the vehicle. surveying a blast site to generate data which determines the respective positions of a plurality of blast holes previously formed at the site, calculating from the data produced by the survey, for each blast hole, a respective time delay, allowing an autonomously controlled vehicle to traverse the blast site moving successively from blast hole to blast hole, at each blast hole using robotic means to remove a detonator from a store of a plurality of detonators on the vehicle, using a processor to program the removed detonator with a respective time delay calculated for the blast hole, using robotic means to place the programmed detonator in the blast hole, and pumping into the blast hole a predetermined volume of an emulsion from a source carried on or associated with the vehicle.
Onboard power subsystem for a vehicle , in particular for a watercraft, wherein the onboard power subsystem has - at least one energy storage unit , - a closed-loop control device for the charging of the energy storage unit of the vehicle , - an onboard power connection for connection to electrical components of the vehicle , - a DC voltage connection for connection to a land-based charging station and - an energy subsystem , characterised in that a switching device is arranged between the onboard power connection and the energy subsystem , wherein a charger is arranged between the energy storage unit and the energy subsystem , wherein the DC voltage connection is electrically conductively connected to the energy subsystem , wherein the onboard power subsystem has at least one power converter that is connected on the AC voltage side to the energy subsystem and can be operated both as an AC/DC converter and as a DC/DC converter, wherein the power converter is configured, by way of the closed-loop control device , to operate the energy subsystem as a DC voltage system during the charging process and as an AC voltage system during independent operation of the vehicle . - at least one energy storage unit , - a closed-loop control device for the charging of the energy storage unit of the vehicle , - an onboard power connection for connection to electrical components of the vehicle , - a DC voltage connection for connection to a land-based charging station and - an energy subsystem ,
A process for the production of lipidic vehicles comprising the following steps: a) providing a mixture of an amphiphilic lipid and a promoter in a liquid medium comprising water and a liquid polyol, wherein the promoter is selected from dipalmitoylphosphatidylglycerol, dioleoyltrimethylammoniumpropane, cholesterol, fatty acids, fatty acid amines, poloxamers, polyethylene glycol with molecular weight higher than 600 and mixtures thereof and the liquid polyol is selected from glycerine, propylene glycol, polyethylene glycol with molecular weight lower than 600 and mixtures thereof, b) stirring and heating the mixture in a first heating step at 30-80°C, c) stirring and heating the mixture in a second heating step at a temperature 10-50°C higher than the temperature of the first heating step and d) allowing the mixture to cool down to room temperature. a) providing a mixture of an amphiphilic lipid and a promoter in a liquid medium comprising water and a liquid polyol, wherein the promoter is selected from dipalmitoylphosphatidylglycerol, dioleoyltrimethylammoniumpropane, cholesterol, fatty acids, fatty acid amines, poloxamers, polyethylene glycol with molecular weight higher than 600 and mixtures thereof and the liquid polyol is selected from glycerine, propylene glycol, polyethylene glycol with molecular weight lower than 600 and mixtures thereof, b) stirring and heating the mixture in a first heating step at 30-80°C, c) stirring and heating the mixture in a second heating step at a temperature 10-50°C higher than the temperature of the first heating step and d) allowing the mixture to cool down to room temperature.
A wave generator for a strain wave gearing , and for making a cup-shaped or silk-hat-shaped externally toothed gear to flex into an elliptical shape and partially mesh with a rigid internally toothed gear , the wave generator comprising: a rigid plug having an elliptical outer peripheral surface in a plane oriented perpendicularly to a center axis line of the plug ; and a roller bearing mounted on the outer peripheral surface of the plug , characterized in that the outer peripheral surface of the plug has: a tapered surface that is tapered toward a first direction along the center axis line of the plug on a major axis position (L1) of the outer peripheral surface ; and an inverted tapered surface that is tapered toward a second direction opposite to the first direction along the center axis line on a minor axis position (L2) of the outer peripheral surface . a rigid plug having an elliptical outer peripheral surface in a plane oriented perpendicularly to a center axis line of the plug ; and a roller bearing mounted on the outer peripheral surface of the plug , characterized in that the outer peripheral surface of the plug has: a tapered surface that is tapered toward a first direction along the center axis line of the plug on a major axis position (L1) of the outer peripheral surface ; and an inverted tapered surface that is tapered toward a second direction opposite to the first direction along the center axis line on a minor axis position (L2) of the outer peripheral surface . a tapered surface that is tapered toward a first direction along the center axis line of the plug on a major axis position (L1) of the outer peripheral surface ; and an inverted tapered surface that is tapered toward a second direction opposite to the first direction along the center axis line on a minor axis position (L2) of the outer peripheral surface .
An apparatus for transmitting or receiving wireless power, the apparatus comprising: a plurality of substantially co-planar coils; wherein the plurality of coils (702, 703; 904, 905) comprise three or more lengths of conducting material (701, 704, 705; 901, 902, 903), each length of conducting material being electrically connectable at each end to a power source or battery; wherein the plurality of coils are wound such that electric current in the lengths of conducting material flows in the same direction in adjacent portions of adjacent coils of said coils, and wherein two or more of the coils comprise the same at least one of the lengths of conducting material. a plurality of substantially co-planar coils; wherein the plurality of coils (702, 703; 904, 905) comprise three or more lengths of conducting material (701, 704, 705; 901, 902, 903), each length of conducting material being electrically connectable at each end to a power source or battery; wherein the plurality of coils are wound such that electric current in the lengths of conducting material flows in the same direction in adjacent portions of adjacent coils of said coils, and wherein two or more of the coils comprise the same at least one of the lengths of conducting material.