mhurhangee/patent-ind-claim-en huggingface dataset:
Dishwasher having the following features: a dishwasher door , a detection device that is designed to detect a position of the dishwasher door and to provide a door signal in response to a detection of an open position; a control device that is designed to start a counter in response to the door signal , i.e., starting from an initial value, and, further, when a counter value of the counter is reached, wherein the distance between the start of the counter and the counter value being reached corresponds to a predetermined waiting time, provides a closing signal ; and a door closing device that is designed to automatically close the dishwasher door in response to the closing signal , characterised in that the detection device is designed to detect a position of a rack that is movably arranged in a washing compartment of the dishwasher and in response to a detection of an extended position of the rack to provide a rack extension signal , wherein the control device is designed to stop and reset the counter in response to the rack extension signal , and in response to a detection of a retracted position of the rack , to provide a rack signal , wherein the control device is designed to start the counter in response to the rack signal . a dishwasher door , a detection device that is designed to detect a position of the dishwasher door and to provide a door signal in response to a detection of an open position; a control device that is designed to start a counter in response to the door signal , i.e., starting from an initial value, and, further, when a counter value of the counter is reached, wherein the distance between the start of the counter and the counter value being reached corresponds to a predetermined waiting time, provides a closing signal ; and a door closing device that is designed to automatically close the dishwasher door in response to the closing signal , characterised in that the detection device is designed to detect a position of a rack that is movably arranged in a washing compartment of the dishwasher and in response to a detection of an extended position of the rack to provide a rack extension signal , wherein the control device is designed to stop and reset the counter in response to the rack extension signal , and in response to a detection of a retracted position of the rack , to provide a rack signal , wherein the control device is designed to start the counter in response to the rack signal .
Vacuum cleaner nozzle designed to be moved over a surface to suction, which comprises a first head which comprises a first suctioning conduit connected to a first suctioning mouth arranged on a lower face of said first head, said nozzle comprising: - a second head which extends towards the front of the first head and which comprises a second suctioning conduit connected to a second suctioning mouth arranged on a lower face of said second head, characterised in that said nozzle comprises distribution means allowing to modify the distribution of the suctioning between the first suctioning mouth and the second suctioning mouth . - a second head which extends towards the front of the first head and which comprises a second suctioning conduit connected to a second suctioning mouth arranged on a lower face of said second head,
A non-destructive inspection system configured to perform an inspection on a test object with a longitudinal shape being passed through the inspection system in an axial direction, the inspection system comprising: at least one centering assembly comprising a centering frame centered around a system axis , positioned along a first radial plane, and having at least three centering arms (16-1, 16-2, 16-3) having respective first ends (16a-3) attached to the centering frame at respective arm joints (26-1, 26-2, 26-3) spaced substantially equally around the centering frame , the centering arms (16-1, 16-2, 16-3) having respective second ends configured to hold and feed the test object at times the inspection system is in operation, at least one probe cassette , positioned along a second radial plane, configured to carry inspection probes, a pair of locking components configured respectively on the centering frame and the probe cassette to align the probe cassette to be centered along a system axis when the locking components are in an engaged position, at least one pressure plate sandwiched between the centering frame and the probe cassette and configured with a pushing mechanism, which when actuated, pushes the probe cassette and the centering frame into the engaged position. at least one centering assembly comprising a centering frame centered around a system axis , positioned along a first radial plane, and having at least three centering arms (16-1, 16-2, 16-3) having respective first ends (16a-3) attached to the centering frame at respective arm joints (26-1, 26-2, 26-3) spaced substantially equally around the centering frame , the centering arms (16-1, 16-2, 16-3) having respective second ends configured to hold and feed the test object at times the inspection system is in operation, at least one probe cassette , positioned along a second radial plane, configured to carry inspection probes, a pair of locking components configured respectively on the centering frame and the probe cassette to align the probe cassette to be centered along a system axis when the locking components are in an engaged position, at least one pressure plate sandwiched between the centering frame and the probe cassette and configured with a pushing mechanism, which when actuated, pushes the probe cassette and the centering frame into the engaged position.
A tire inflation system for a heavy-duty vehicle comprising: a source of fluid pressure ; a tire and wheel assembly; and a fluid path , said fluid path comprising: at least one conduit for fluid communication from said source of fluid pressure to said tire and wheel assembly; and a flow detection structure disposed along the fluid path (130. 230) characterised in that : the fluid path further comprises a first valve disposed along said fluid path ; and said flow detection structure is arranged in parallel to said first valve . a source of fluid pressure ; a tire and wheel assembly; and a fluid path , said fluid path comprising: at least one conduit for fluid communication from said source of fluid pressure to said tire and wheel assembly; and a flow detection structure disposed along the fluid path (130. 230) characterised in that : the fluid path further comprises a first valve disposed along said fluid path ; and said flow detection structure is arranged in parallel to said first valve . at least one conduit for fluid communication from said source of fluid pressure to said tire and wheel assembly; and a flow detection structure disposed along the fluid path (130. 230) characterised in that : the fluid path further comprises a first valve disposed along said fluid path ; and said flow detection structure is arranged in parallel to said first valve . the fluid path further comprises a first valve disposed along said fluid path ; and said flow detection structure is arranged in parallel to said first valve .
A method for modifying a polyimide comprising reacting a first polyimide with diamine to produce a second polyimide having an anhydride-amine stoichiometry of -2 to -40 mol% and reacting the second polyimide with an bis(anhydride), bis(ether anhydride) or tetracarboxylic acid to produce a final polyimide having an anhydride-amine stoichiometry of -1 to 2 mol%.
A process for the manufacture of crystalline vortioxetine HBr α-form characterized by XRPD reflections at 5.85, 9.30, 17.49 and 18.58 (°2θ) (±0.1°), the process comprising the steps of a) obtaining a solution of vortioxetine in toluene, wherein the toluene is more than 90% pure; b) mixing said solution obtained in step a) with HBr and C 1 -C 3 carboxylic acid to obtain mixture b) at a temperature above 10 °C; and c) collecting the precipitate obtained in step b). a) obtaining a solution of vortioxetine in toluene, wherein the toluene is more than 90% pure; b) mixing said solution obtained in step a) with HBr and C 1 -C 3 carboxylic acid to obtain mixture b) at a temperature above 10 °C; and c) collecting the precipitate obtained in step b).
A vehicle-body structure (A) for an automobile , the vehicle-body structure (A) comprising: a floor panel constituting a floor of an occupant space (R1) suitable for at least one seat (FS, RS) on which a passenger is able to sit; and a center frame disposed to be higher than and away from the floor panel at a vehicle-width-direction central portion of the occupant space (R1) and extending in a vehicle front-rear direction, wherein the center frame is arranged at a downward tilt toward a vehicle rear side, and a rear portion of the center frame is connected to the floor panel , characterized in that the vehicle-body structure comprising a traveling motor (M) for driving rear wheels of the automobile , wherein the traveling motor (M) is disposed on a vehicle rear side of the rear portion of the center frame , and the traveling motor (M) has a barycenter that is set to be lower than an upper end of the rear portion of the center frame and higher than a lower end of the rear portion of the center frame . a floor panel constituting a floor of an occupant space (R1) suitable for at least one seat (FS, RS) on which a passenger is able to sit; and a center frame disposed to be higher than and away from the floor panel at a vehicle-width-direction central portion of the occupant space (R1) and extending in a vehicle front-rear direction, wherein the center frame is arranged at a downward tilt toward a vehicle rear side, and a rear portion of the center frame is connected to the floor panel , characterized in that the vehicle-body structure comprising a traveling motor (M) for driving rear wheels of the automobile , wherein the traveling motor (M) is disposed on a vehicle rear side of the rear portion of the center frame , and the traveling motor (M) has a barycenter that is set to be lower than an upper end of the rear portion of the center frame and higher than a lower end of the rear portion of the center frame .
A method of determining a vibration response parameter of a vibratory element , the method comprising: vibrating the vibratory element at a first frequency with a first drive signal, the first frequency being less than a resonant frequency; receiving a first vibration signal from the vibratory element vibrated at the first frequency; characterised by : measuring a first phase difference, the first phase difference being a phase difference between the first drive signal and the first vibration signal; vibrating the vibratory element at a second frequency with a second drive signal, the second frequency being greater than the resonant frequency; receiving a second vibration signal from the vibratory element vibrated at the second frequency; measuring a second phase difference, the second phase difference being a phase difference between the second drive signal and the second vibration signal; and using the first phase difference and the second phase difference to calculate at least one of: a phase difference; and a frequency; said at least one of the phase difference and the frequency corresponding to a half power or 3dB frequency of the vibratory element . vibrating the vibratory element at a first frequency with a first drive signal, the first frequency being less than a resonant frequency; receiving a first vibration signal from the vibratory element vibrated at the first frequency; characterised by : measuring a first phase difference, the first phase difference being a phase difference between the first drive signal and the first vibration signal; vibrating the vibratory element at a second frequency with a second drive signal, the second frequency being greater than the resonant frequency; receiving a second vibration signal from the vibratory element vibrated at the second frequency; measuring a second phase difference, the second phase difference being a phase difference between the second drive signal and the second vibration signal; and using the first phase difference and the second phase difference to calculate at least one of: a phase difference; and a frequency; said at least one of the phase difference and the frequency corresponding to a half power or 3dB frequency of the vibratory element . a phase difference; and a frequency; said at least one of the phase difference and the frequency corresponding to a half power or 3dB frequency of the vibratory element .
A mouthpiece tube configured to inspect the inspiration function, comprising: a shell , one end of the shell being a gas entrance and another end of the shell being a shell bottom , the shell bottom further including at least a channel which each has a channel opening and a gas opening , wherein the channel opening is connected to the exterior outside the space enclosed by the shell , wherein both the gas opening and the gas entrance forms a gas flow space enclosed by the shell so that the mouthpiece tube may deliver the gas from the gas flow space to the gas entrance by a gas flow suction; characterized in that it further comprises at least an ultrasonic wave generation device that positioned in the at least a channel , wherein each ultrasonic wave generation device further has a gas entrance and a gas exit , wherein the gas exit is connected to the gas opening of the channel for delivering the gas from the inner of the ultrasonic wave generation device into the gas flow space enclosed by the shell so that the ultrasonic wave generation device may deliver the gas from the exterior of the mouthpiece tube through the gas entrance by the gas flow suction. a shell , one end of the shell being a gas entrance and another end of the shell being a shell bottom , the shell bottom further including at least a channel which each has a channel opening and a gas opening , wherein the channel opening is connected to the exterior outside the space enclosed by the shell , wherein both the gas opening and the gas entrance forms a gas flow space enclosed by the shell so that the mouthpiece tube may deliver the gas from the gas flow space to the gas entrance by a gas flow suction; characterized in that it further comprises at least an ultrasonic wave generation device that positioned in the at least a channel , wherein each ultrasonic wave generation device further has a gas entrance and a gas exit , wherein the gas exit is connected to the gas opening of the channel for delivering the gas from the inner of the ultrasonic wave generation device into the gas flow space enclosed by the shell so that the ultrasonic wave generation device may deliver the gas from the exterior of the mouthpiece tube through the gas entrance by the gas flow suction.
Hemodialysis apparatus comprising: a pre-filling liquid source providing a pre-filling liquid, a dialysate side comprising a dialysate chamber of a dialyzer which has a membrane , a dialysate pump which pumps dialysate to the dialysate chamber , a suction pump which pumps the dialysate or the pre-filling liquid away from the dialysate chamber , and a dialysate pressure sensor between the dialysate chamber and a waste pump , and a blood side comprising an arterial line , a blood pump , a blood chamber of the dialyzer and a venous line , wherein the hemodialysis apparatus with the arterial and venous lines being pre-filled with pre-filling liquid from the pre-filling liquid source , with the arterial and venous lines each being applied to a patient , and after manual triggering of the removal of the pre-filling liquid, performs the following method steps for starting a hemodialysis: pre-filling liquid removal by ultrafiltration of the pre-filling liquid from the arterial and venous lines via the dialyzer membrane into the dialysate chamber of the dialyzer by the suction pump , and during the pre-filling liquid removal: continuous determination of the fluid pressure by the dialysate pressure sensor , wherein the pre-filling liquid removal is stopped automatically, if the fluid pressure measured by the dialysate pressure sensor falls below a specified blood arrival limit pressure. a pre-filling liquid source providing a pre-filling liquid, a dialysate side comprising a dialysate chamber of a dialyzer which has a membrane , a dialysate pump which pumps dialysate to the dialysate chamber , a suction pump which pumps the dialysate or the pre-filling liquid away from the dialysate chamber , and a dialysate pressure sensor between the dialysate chamber and a waste pump , and a blood side comprising an arterial line , a blood pump , a blood chamber of the dialyzer and a venous line , wherein the hemodialysis apparatus with the arterial and venous lines being pre-filled with pre-filling liquid from the pre-filling liquid source , with the arterial and venous lines each being applied to a patient , and after manual triggering of the removal of the pre-filling liquid, performs the following method steps for starting a hemodialysis: pre-filling liquid removal by ultrafiltration of the pre-filling liquid from the arterial and venous lines via the dialyzer membrane into the dialysate chamber of the dialyzer by the suction pump , and during the pre-filling liquid removal: continuous determination of the fluid pressure by the dialysate pressure sensor , wherein the pre-filling liquid removal is stopped automatically, if the fluid pressure measured by the dialysate pressure sensor falls below a specified blood arrival limit pressure.
Method for operating a virtual reality system , having the steps: - displaying, by means of a virtual reality pair of spectacles worn by a first person , a virtual object disposed in a first environment ; - expanding a configuration menu , comprising several configuration options , for a predetermined function group of the displayed virtual object by means of the virtual reality pair of spectacles , as soon as a second person activates a configuration mode at a control device ; - selecting from one of the expanded configuration options corresponding to a selection action carried out by the second person at the control device and altering the representation of the virtual object corresponding to the carried-out selection; wherein the method is characterised by - optical highlighting of the function group or of at least one component , belonging to the function group, of the virtual object , as soon as the configuration menu for the function group is expanded. - displaying, by means of a virtual reality pair of spectacles worn by a first person , a virtual object disposed in a first environment ; - expanding a configuration menu , comprising several configuration options , for a predetermined function group of the displayed virtual object by means of the virtual reality pair of spectacles , as soon as a second person activates a configuration mode at a control device ; - selecting from one of the expanded configuration options corresponding to a selection action carried out by the second person at the control device and altering the representation of the virtual object corresponding to the carried-out selection; wherein the method is characterised by - optical highlighting of the function group or of at least one component , belonging to the function group, of the virtual object , as soon as the configuration menu for the function group is expanded.
An endoscope illumination system comprising: an optical channel including an objective and a relay lens system , and a light source operatively coupled to the optical channel and arranged to transmit light distally through the relay lens system and the objective , a first dichromic mirror operatively coupled between the light source and the optical channel, the first dichromic mirror being adapted and arranged for reflecting an ultraviolet light portion of the light emitted from the light source distally through the relay lens system and the objective and allowing a visible light portion to pass therethrough, wherein the objective includes a second dichromic mirror that is adapted and arranged to reflect an ultraviolet portion of the light emitted by the light source proximally through the objective , the second dichromic mirror being light transparent, wherein the objective includes a third mirror , having a central aperture therethrough, the third mirror being configured for reflecting the ultraviolet light received from the second dichromic mirror distally, wherein the system includes a down converting element configured for receiving ultraviolet light emitted by the light source and emitting visible light distally out of the objective , wherein the objective includes a fourth dichromic mirror that is UV light transparent, the fourth dichromic mirror being configured for reflecting visible light distally that is transmitted proximally through the objective . an optical channel including an objective and a relay lens system , and a light source operatively coupled to the optical channel and arranged to transmit light distally through the relay lens system and the objective , a first dichromic mirror operatively coupled between the light source and the optical channel, the first dichromic mirror being adapted and arranged for reflecting an ultraviolet light portion of the light emitted from the light source distally through the relay lens system and the objective and allowing a visible light portion to pass therethrough, wherein the objective includes a second dichromic mirror that is adapted and arranged to reflect an ultraviolet portion of the light emitted by the light source proximally through the objective , the second dichromic mirror being light transparent, wherein the objective includes a third mirror , having a central aperture therethrough, the third mirror being configured for reflecting the ultraviolet light received from the second dichromic mirror distally, wherein the system includes a down converting element configured for receiving ultraviolet light emitted by the light source and emitting visible light distally out of the objective , wherein the objective includes a fourth dichromic mirror that is UV light transparent, the fourth dichromic mirror being configured for reflecting visible light distally that is transmitted proximally through the objective .
A diagnostic method for determining lung disease comprising: obtaining a plurality of spectra produced by infrared spectroscopic interrogations of a plurality of cells obtained from a subject, with each spectrum obtained from a different cell; determining a feature of interest from each infrared spectrum of the plurality of spectra; determining a distribution of the features of interest; and diagnosing a lung disease in dependence on the distribution of features of interest. obtaining a plurality of spectra produced by infrared spectroscopic interrogations of a plurality of cells obtained from a subject, with each spectrum obtained from a different cell; determining a feature of interest from each infrared spectrum of the plurality of spectra; determining a distribution of the features of interest; and diagnosing a lung disease in dependence on the distribution of features of interest.
Device for aligning cartons comprising first transport means and second transport means, wherein the first transport means and the second transport means are arranged spaced apart, wherein a drive (39.l) of the first transport means and a drive (39.r) of the second transport means in each case has a rotational speed control, including an upstream feed unit with two parallel conveyor belts , characterised in that the feed unit comprises two parallel pressure belts and means for adjusting the effective length of the pressure belts .