mhurhangee/ep-ind-claims huggingface dataset:
A process for separating iodine, at least one diiodinated aromatic compound according to the general formula II I-A-I Formula II wherein A represents a divalent aromatic radical and/or mixtures thereof from mixtures of substances containing iodine and/or the at least one diiodinated aromatic compound according to the general formula II characterized in that a) a first part of the iodine, of the at least one diiodinated aromatic compound according to the general formula II and/or of the mixture thereof is separated at a pressure which is equal to or greater than the pressure prevailing at the triple point of iodine, and b) a second part of the iodine, the diiodinated aromatic compound according to general formula II and/or the mixture thereof is separated at a pressure which is lower than the pressure prevailing at the triple point of iodine, wherein in both steps a) and b) the mixture of substances is at temperatures at which at least iodine is present in gaseous form at said pressures. wherein A represents a divalent aromatic radical and/or mixtures thereof from mixtures of substances containing iodine and/or the at least one diiodinated aromatic compound according to the general formula II characterized in that a) a first part of the iodine, of the at least one diiodinated aromatic compound according to the general formula II and/or of the mixture thereof is separated at a pressure which is equal to or greater than the pressure prevailing at the triple point of iodine, and b) a second part of the iodine, the diiodinated aromatic compound according to general formula II and/or the mixture thereof is separated at a pressure which is lower than the pressure prevailing at the triple point of iodine, a) a first part of the iodine, of the at least one diiodinated aromatic compound according to the general formula II and/or of the mixture thereof is separated at a pressure which is equal to or greater than the pressure prevailing at the triple point of iodine, and b) a second part of the iodine, the diiodinated aromatic compound according to general formula II and/or the mixture thereof is separated at a pressure which is lower than the pressure prevailing at the triple point of iodine, wherein in both steps a) and b) the mixture of substances is at temperatures at which at least iodine is present in gaseous form at said pressures.
A clinical analyzer, comprising: a cuvette hopper configured to receive a plurality of cuvettes, a first location proximate the cuvette hopper; a second location; a chute extending between the first location and the second location, the chute configured to enable cuvettes to slide from the first location to the second location; and a loading assembly including a first gate moveable between a first position where cuvettes are enabled to slide along the chute and a second position where cuvettes are blocked from sliding along the chute, a second gate moveable between a first position where cuvettes are enabled to slide along the chute and a second position where cuvettes are blocked from sliding along the chute, and a space between the first gate and the second gate, wherein a cuvette is receivable in the space; the clinical analyzer further comprising an incubation ring located at the second position, the incubation ring having one or more receptacles, each receptacle configured to receive one cuvette, wherein, when the second gate is in the first, retracted position, it enables a cuvette, when present, to move along the chute (130, slide off the chute and into a receptacle in the incubation ring. a cuvette hopper configured to receive a plurality of cuvettes, a first location proximate the cuvette hopper; a second location; a chute extending between the first location and the second location, the chute configured to enable cuvettes to slide from the first location to the second location; and a loading assembly including a first gate moveable between a first position where cuvettes are enabled to slide along the chute and a second position where cuvettes are blocked from sliding along the chute, a second gate moveable between a first position where cuvettes are enabled to slide along the chute and a second position where cuvettes are blocked from sliding along the chute, and a space between the first gate and the second gate, wherein a cuvette is receivable in the space; the clinical analyzer further comprising an incubation ring located at the second position, the incubation ring having one or more receptacles, each receptacle configured to receive one cuvette, wherein, when the second gate is in the first, retracted position, it enables a cuvette, when present, to move along the chute (130, slide off the chute and into a receptacle in the incubation ring.
A method for processing a user input using a display of an electronic device, suitable for controlling at least one external device comprising the steps of: obtaining the user input through the display connected to the electronic device, the method being characterised in determining an angle corresponding to the user input between a first axis and a second axis on the display, whereby the first axis is defined as a reference axis, and is one of an X or Y axis of the electronic device which has a smaller angular distance to the user input, and the second axis is defined based on a moving direction of the user input; determining a third axis on the display based on at least the moving direction of the user input, whereby the third axis is used as a changed reference axis of the electronic device; and transmitting, to the at least one external device connected to the electronic device, a signal for performing at least one event on the at least one external device according to the user input based on the third axis. obtaining the user input through the display connected to the electronic device, the method being characterised in determining an angle corresponding to the user input between a first axis and a second axis on the display, whereby the first axis is defined as a reference axis, and is one of an X or Y axis of the electronic device which has a smaller angular distance to the user input, and the second axis is defined based on a moving direction of the user input; determining a third axis on the display based on at least the moving direction of the user input, whereby the third axis is used as a changed reference axis of the electronic device; and transmitting, to the at least one external device connected to the electronic device, a signal for performing at least one event on the at least one external device according to the user input based on the third axis.
A vibration damping control device performing sprung vibration damping control of suppressing sprung vibration generated in a vehicle, by control of torque generated in wheels of the vehicle, wherein vibration damping control suppression control of stopping the sprung vibration damping control or reducing a control amount of the sprung vibration damping control is performed on the basis of engine speed and engine torque of an engine that is a power source of the vehicle during travel; and characterized by: a control determination unit that determines whether or not to perform the vibration damping control suppression control; and an NV worsening region determination unit that determines, on the basis of the engine speed and the engine torque, whether or not a travel state of the vehicle is in an NV worsening region, which is a region at which vibration in the vehicle increases, wherein the control determination unit determines that the vibration damping control suppression control is to be performed when the NV worsening region determination unit determines that the travel state of the vehicle is in the NV worsening region. a control determination unit that determines whether or not to perform the vibration damping control suppression control; and an NV worsening region determination unit that determines, on the basis of the engine speed and the engine torque, whether or not a travel state of the vehicle is in an NV worsening region, which is a region at which vibration in the vehicle increases, wherein the control determination unit determines that the vibration damping control suppression control is to be performed when the NV worsening region determination unit determines that the travel state of the vehicle is in the NV worsening region.
An epicyclic gear device (30, 70) for driving rotation of at least a first blade set of a turbine engine, the device comprising: • a sunwheel (32, 74) centered on a longitudinal axis of the turbine engine and suitable for being connected to a rotor (28, 76) of the turbine engine in order to be driven in rotation; • at least one planet (34, 78) meshing with said sunwheel; • a planet carrier (36, 80) rotatably carrying said at least one planet and suitable for being connected to said at least one first blade set (25a, 82) in order to drive it in rotation; and • a ring (38, 72) meshing with said at least one planet; the device being characterized in that it further comprises a first constant velocity ball transmission joint (44, 84) and that said sunwheel is suitable for being connected to said rotor of the turbine engine via said first constant velocity ball transmission joint. • a sunwheel (32, 74) centered on a longitudinal axis of the turbine engine and suitable for being connected to a rotor (28, 76) of the turbine engine in order to be driven in rotation; • at least one planet (34, 78) meshing with said sunwheel; • a planet carrier (36, 80) rotatably carrying said at least one planet and suitable for being connected to said at least one first blade set (25a, 82) in order to drive it in rotation; and • a ring (38, 72) meshing with said at least one planet;
An additive manufacturing apparatus, comprising: an extruder configured to receive a thermoplastic material; an applicator assembly downstream of the extruder, the applicator assembly including a nozzle for depositing the thermoplastic material as a plurality of layers; a temperature sensor configured to detect a temperature of at least a portion of a deposited layer; a positioning assembly (56, 60, 65) configured to change an angular position of the temperature sensor; and a controller configured to: receive temperature signals from the temperature sensor, compare a current detected temperature to a previously-detected temperature, the additive manufacturing apparatus being characterized in that the controller is further configured to: change a movement speed of the applicator assembly when the current detected temperature is lower than the previously-detected temperature by a first temperature difference, and ignore the current detected temperature when the current detected temperature is lower than the previously detected temperature by a second temperature difference that is greater than the first temperature difference. an extruder configured to receive a thermoplastic material; an applicator assembly downstream of the extruder, the applicator assembly including a nozzle for depositing the thermoplastic material as a plurality of layers; a temperature sensor configured to detect a temperature of at least a portion of a deposited layer; a positioning assembly (56, 60, 65) configured to change an angular position of the temperature sensor; and receive temperature signals from the temperature sensor, compare a current detected temperature to a previously-detected temperature, the additive manufacturing apparatus being characterized in that the controller is further configured to: change a movement speed of the applicator assembly when the current detected temperature is lower than the previously-detected temperature by a first temperature difference, and ignore the current detected temperature when the current detected temperature is lower than the previously detected temperature by a second temperature difference that is greater than the first temperature difference. change a movement speed of the applicator assembly when the current detected temperature is lower than the previously-detected temperature by a first temperature difference, and ignore the current detected temperature when the current detected temperature is lower than the previously detected temperature by a second temperature difference that is greater than the first temperature difference.
A fuel cell system comprising: a fuel cell stack; a compressor configured to supply cathode gas to the fuel cell stack; and a controller configured to control constituent components of the fuel cell system including the compressor; and a voltage detector configured to detect a voltage of the fuel cell stack; wherein: the controller is configured to, when the fuel cell stack is not required to generate electric power, control the compressor alternately to supply the cathode gas for a supply period and to stop supply of the cathode gas for a stop period, and the controller is configured to control the compressor to supply the cathode gas when the voltage of the fuel cell stack is smaller than a predetermined voltage, and to stop supply of the cathode gas when the voltage of the fuel cell stack is larger than the predetermined voltage, the supply period being longer than the stop period, and a flow rate of the cathode gas supplied by the compressor in the supply period being smaller than a flow rate in a case where the fuel cell stack is required to generate electric power. a fuel cell stack; a compressor configured to supply cathode gas to the fuel cell stack; and a controller configured to control constituent components of the fuel cell system including the compressor; and a voltage detector configured to detect a voltage of the fuel cell stack; wherein: the controller is configured to, when the fuel cell stack is not required to generate electric power, control the compressor alternately to supply the cathode gas for a supply period and to stop supply of the cathode gas for a stop period, and the controller is configured to control the compressor to supply the cathode gas when the voltage of the fuel cell stack is smaller than a predetermined voltage, and to stop supply of the cathode gas when the voltage of the fuel cell stack is larger than the predetermined voltage, the supply period being longer than the stop period, and a flow rate of the cathode gas supplied by the compressor in the supply period being smaller than a flow rate in a case where the fuel cell stack is required to generate electric power. the controller is configured to, when the fuel cell stack is not required to generate electric power, control the compressor alternately to supply the cathode gas for a supply period and to stop supply of the cathode gas for a stop period, and the controller is configured to control the compressor to supply the cathode gas when the voltage of the fuel cell stack is smaller than a predetermined voltage, and to stop supply of the cathode gas when the voltage of the fuel cell stack is larger than the predetermined voltage, the supply period being longer than the stop period, and a flow rate of the cathode gas supplied by the compressor in the supply period being smaller than a flow rate in a case where the fuel cell stack is required to generate electric power.
A compound of formula I: or a pharmaceutically acceptable salt thereof: X is selected from O; R 1 is selected from substituted aralkyl, and substituted heteroaralkyl; R 2 is - selected from hydroxy-2,2-dimethylpropyl, hydroxy-2,2-cyclopropylpropyl, or 2-hydroxymethyl allyl, or - hydroxymethylbenzyl; R 3 is halophenyl; and R 4 - R 7 represents groups R 4, R 5, R 6 and R 7 which are independently selected from hydrogen, halo, hydroxy, substituted or unsubstituted alkyl, substituted or unsubstituted hydroxyalkyl, substituted or unsubstituted alkenyl, substituted or unsubstituted alkynyl, substituted or unsubstituted heteroaryl, substituted or unsubstituted heteroaralkyl, substituted or unsubstituted alkylamine, substituted or unsubstituted alkoxy, trifluoromethyl, amino, nitro, carboxyl, carbonylmethylsulfone, trifluoromethylsulfone, cyano and substituted or unsubstituted sulfonamide. X is selected from O; R 1 is selected from substituted aralkyl, and substituted heteroaralkyl; R 2 is - selected from hydroxy-2,2-dimethylpropyl, hydroxy-2,2-cyclopropylpropyl, or 2-hydroxymethyl allyl, or - hydroxymethylbenzyl; - selected from hydroxy-2,2-dimethylpropyl, hydroxy-2,2-cyclopropylpropyl, or 2-hydroxymethyl allyl, or - hydroxymethylbenzyl; R 3 is halophenyl; and R 4 - R 7 represents groups R 4, R 5, R 6 and R 7 which are independently selected from hydrogen, halo, hydroxy, substituted or unsubstituted alkyl, substituted or unsubstituted hydroxyalkyl, substituted or unsubstituted alkenyl, substituted or unsubstituted alkynyl, substituted or unsubstituted heteroaryl, substituted or unsubstituted heteroaralkyl, substituted or unsubstituted alkylamine, substituted or unsubstituted alkoxy, trifluoromethyl, amino, nitro, carboxyl, carbonylmethylsulfone, trifluoromethylsulfone, cyano and substituted or unsubstituted sulfonamide.
A fan coil unit comprising: a substantially parallelepiped-shaped and rigid outer casing which is structured for being firmly fixed to a wall in a substantially vertical position, and is provided with a large through-duct adapted to be crossed by the outside air; an air/liquid heat exchanger which is placed inside the through-duct so as to be skimmed/crossed by the air that flows through the duct, and is connected to an external hydraulic circuit so as to also be crossed by a hot or cold heat-transfer fluid; and ventilation means adapted to circulate the external air inside the through-duct; the through-duct having a substantially T-shaped structure, with an inlet mouth at the front face of the outer casing, a first outlet mouth at the upper face of the outer casing and a second outlet mouth at the lower face of the outer casing; the ventilation means comprising a first and a second electrically-operated fan that are placed inside the through-duct, downstream of the bifurcation of the through-duct and each arranged inside a respective branch of the through-duct, so as to each generate a respective airflow (f 1, f 2) that flows through the through-duct passing through/skimming the heat exchanger; the fan coil unit additionally comprising an air filter which is fixed in removable manner on the back of a protective grating that is placed to close the inlet mouth of the through-duct; the fan coil unit being characterized by additionally comprising: electromechanical means (19, 29) adapted to move, on command, the air filter away from its operating position to allow the removal thereof from the protective grating; and an electronic control unit which is adapted to command said electromechanical means (19, 29) so as to move the air filter away from said operating position when given operating conditions occur. the through-duct having a substantially T-shaped structure, with an inlet mouth at the front face of the outer casing, a first outlet mouth at the upper face of the outer casing and a second outlet mouth at the lower face of the outer casing; the ventilation means comprising a first and a second electrically-operated fan that are placed inside the through-duct, downstream of the bifurcation of the through-duct and each arranged inside a respective branch of the through-duct, so as to each generate a respective airflow (f 1, f 2) that flows through the through-duct passing through/skimming the heat exchanger; the fan coil unit additionally comprising an air filter which is fixed in removable manner on the back of a protective grating that is placed to close the inlet mouth of the through-duct; the fan coil unit being characterized by additionally comprising: electromechanical means (19, 29) adapted to move, on command, the air filter away from its operating position to allow the removal thereof from the protective grating; and an electronic control unit which is adapted to command said electromechanical means (19, 29) so as to move the air filter away from said operating position when given operating conditions occur.
A sample observation method comprising the steps of: recognizing the image of an object in the transmission electron beam image of a sample by comparing it with a previously stored reference image (Ra1-5, Rb1-5, Rc1-5); specifying the object in said transmission electron beam image wherein multiple images formed by polar coordinate conversion of transmission electron beam images of multiple objects are stored as said reference images (RAa1-5, RAb1-5, RAc1-5); carrying out polar coordinate conversion of the image of said specified object; computing a phase-restricted correlation between said specified object image having been subjected to polar coordinate conversion and said reference image (Ra1-5, Rb1-5, Rc1-5, RAa1-5, RAb1-5, RAc1-5) by correlating phase images obtained by extracting out only the phase spectrum of the amplitude spectrum and phase spectrum of said object and phase images obtained after a discrete Fourier transform; and displaying the result of computation obtained after an inverse Fourier transform. recognizing the image of an object in the transmission electron beam image of a sample by comparing it with a previously stored reference image (Ra1-5, Rb1-5, Rc1-5); specifying the object in said transmission electron beam image wherein multiple images formed by polar coordinate conversion of transmission electron beam images of multiple objects are stored as said reference images (RAa1-5, RAb1-5, RAc1-5); carrying out polar coordinate conversion of the image of said specified object; computing a phase-restricted correlation between said specified object image having been subjected to polar coordinate conversion and said reference image (Ra1-5, Rb1-5, Rc1-5, RAa1-5, RAb1-5, RAc1-5) by correlating phase images obtained by extracting out only the phase spectrum of the amplitude spectrum and phase spectrum of said object and phase images obtained after a discrete Fourier transform; and displaying the result of computation obtained after an inverse Fourier transform.
Apparatus for connecting at least one workpiece to at least one connection element in a form-fit and/or force-fit manner, having - at least one robot for positioning the workpiece, - at least one spindle for connecting the connection element to the workpiece, - at least one support (31, 32, 33) for stabilising the workpiece during the connection of the connection element to the workpiece, wherein a contact region of the support, which is in contact with the workpiece during the connection of the connection element to the workpiece, is substantially in alignment with the spindle longitudinal axis and the contact region is smaller than 0.01 m 2, in particular smaller than 0.0001 m 2, - at least a second support (31, 32) for stabilising the workpiece during a connection of the connection element to the workpiece, wherein, in the state in which the workpiece is supported in an at least substantially orthogonal axis relative to the spindle longitudinal axis, a support surface of the support is disposed in a different plane than a support surface of the second support (31, 32). - at least one robot for positioning the workpiece, - at least one spindle for connecting the connection element to the workpiece, - at least one support (31, 32, 33) for stabilising the workpiece during the connection of the connection element to the workpiece, wherein a contact region of the support, which is in contact with the workpiece during the connection of the connection element to the workpiece, is substantially in alignment with the spindle longitudinal axis and the contact region is smaller than 0.01 m 2, in particular smaller than 0.0001 m 2, - at least a second support (31, 32) for stabilising the workpiece during a connection of the connection element to the workpiece, wherein, in the state in which the workpiece is supported in an at least substantially orthogonal axis relative to the spindle longitudinal axis, a support surface of the support is disposed in a different plane than a support surface of the second support (31, 32).