mhurhangee/patent-ind-claim-en huggingface dataset:
An RF catheter for treating hypertrophic cardiomyopathy, the RF catheter comprising: a body part constituting a catheter body made of a flexible and soft material; and an intraseptal insertion part provided at a distal part of the body part and having one or more electrodes , a tapered tip gradually becoming thinner toward an end thereof, and a guidewire lumen therein, into which a guidewire is insertable, characterised in that during hypertrophic cardiomyopathy treatment, the intraseptal insertion part is insertable into the interventricular septum along the guidewire , wherein a length of the tapered tip is 5 to 20 mm. a body part constituting a catheter body made of a flexible and soft material; and an intraseptal insertion part provided at a distal part of the body part and having one or more electrodes , a tapered tip gradually becoming thinner toward an end thereof, and a guidewire lumen therein, into which a guidewire is insertable, characterised in that during hypertrophic cardiomyopathy treatment, the intraseptal insertion part is insertable into the interventricular septum along the guidewire , wherein a length of the tapered tip is 5 to 20 mm.
An article for transcutaneously applying electrical stimulation to target nerve tissue to treat a patient having peripheral neuropathy, the article comprising: a support on which at least one electrode pair is positioned, wherein the support is a wrap , a sock , a glove , or a finger cot ; a pulse generator attached to the at least one electrode pair via one or more leads ; and a power supply connected to the pulse generator , wherein the article is configured to deliver electrical field stimulation to the target nerve tissue via the at least one electrode pair at a level sufficient to initiate vasodilation of vasculature within or adjacent the target nerve tissue, wherein the vasculature is responsible for perfusing the target nerve tissue, further wherein the article is configured to deliver the electrical stimulation at a current ranging from about 0.1 milliamps to about 60 milliamps. a support on which at least one electrode pair is positioned, wherein the support is a wrap , a sock , a glove , or a finger cot ; a pulse generator attached to the at least one electrode pair via one or more leads ; and a power supply connected to the pulse generator , wherein the article is configured to deliver electrical field stimulation to the target nerve tissue via the at least one electrode pair at a level sufficient to initiate vasodilation of vasculature within or adjacent the target nerve tissue, wherein the vasculature is responsible for perfusing the target nerve tissue, further wherein the article is configured to deliver the electrical stimulation at a current ranging from about 0.1 milliamps to about 60 milliamps.
Vehicle apparatus for recording a surrounding region of a motor vehicle , comprising an input device having a screen with touch function, wherein the input device is configured to display an electronic map on the screen and to select, by way of a vehicle occupant, a locationally fixed region of interest to be recorded, comprising a camera unit for recording at least one image of the surrounding region, and comprising a trigger device for outputting a recording start signal for triggering the recording of at least one recorded image by way of the camera unit , wherein the trigger device is configured to link the output of the recording start signal to a geographic position of the selected, locationally fixed region of interest, and wherein the trigger device is configured to output the recording start signal when there is a determined geographic match between the positions of the motor vehicle and of the selected, locationally fixed region of interest. comprising an input device having a screen with touch function, wherein the input device is configured to display an electronic map on the screen and to select, by way of a vehicle occupant, a locationally fixed region of interest to be recorded, comprising a camera unit for recording at least one image of the surrounding region, and comprising a trigger device for outputting a recording start signal for triggering the recording of at least one recorded image by way of the camera unit , wherein the trigger device is configured to link the output of the recording start signal to a geographic position of the selected, locationally fixed region of interest, and wherein the trigger device is configured to output the recording start signal when there is a determined geographic match between the positions of the motor vehicle and of the selected, locationally fixed region of interest.
An apparatus for wireless communication, comprising: an active mixer configured to convert between radio frequency signals and intermediate frequency signals based at least in part on an alternating current local oscillator, LO, signal , wherein a direct current generated within the active mixer is dependent in part on a bias voltage and the alternating current local oscillator signal; and a mixer biasing circuit configured to generate the bias voltage for the active mixer, a magnitude of the bias voltage depending at least in part on an amplitude of the alternating current local oscillator signal; wherein the mixer biasing circuit comprises a feedback loop configured to output the bias voltage Vbias, with a magnitude that has an inverse relationship to an amplitude of the local oscillator signal received, such that the effect of the change in amplitude of the LO signal on the DC electrical current generated within the active mixer is offset by the effect of the corresponding change in the bias voltage. an active mixer configured to convert between radio frequency signals and intermediate frequency signals based at least in part on an alternating current local oscillator, LO, signal , wherein a direct current generated within the active mixer is dependent in part on a bias voltage and the alternating current local oscillator signal; and a mixer biasing circuit configured to generate the bias voltage for the active mixer, a magnitude of the bias voltage depending at least in part on an amplitude of the alternating current local oscillator signal; wherein the mixer biasing circuit comprises a feedback loop configured to output the bias voltage Vbias, with a magnitude that has an inverse relationship to an amplitude of the local oscillator signal received, such that the effect of the change in amplitude of the LO signal on the DC electrical current generated within the active mixer is offset by the effect of the corresponding change in the bias voltage.
A rotary machine comprising: • a stationary portion and a rotary portion; • at least one bearing provided with a stationary ring and a rotary ring, the bearing being mounted between said stationary portion and said rotary portion in order to guide the rotary portion in rotation; and • a damper collar interposed between the stationary ring and the stationary portion; wherein said damper collar comprises a flexible strip having tongues cut out therein, and said flexible strip is shaped into a ring around the stationary ring of said bearing , the shaping of the strip into a ring causing the tongues to move outwards from the collar so that the free edges of said tongues come into contact with the stationary portion, wherein said bearing is housed in a tubular cylindrical insert and said damper collar is fastened directly on said tubular cylindrical insert , the rotary machine being characterized in that the damper collar is fastened to said tubular cylindrical insert by screws . • a stationary portion and a rotary portion; • at least one bearing provided with a stationary ring and a rotary ring, the bearing being mounted between said stationary portion and said rotary portion in order to guide the rotary portion in rotation; and • a damper collar interposed between the stationary ring and the stationary portion;
A method for controlling an elevator, the method comprising controlling the speed of a vertically moving elevator car during its run from a starting landing to a destination landing according to speed settings, the speed settings defining a constant target speed for the elevator car , characterized in that the method comprises - obtaining measurement data of the ongoing run, which measurement data describes vertical speed of the vertically moving elevator car , - determining whether the measurement data meets one or more predetermined criteria indicating unintended vertical speed said one or more predetermined criteria comprising that the deviation between the vertical speed of the car and a speed of the motor exceeds a predetermined limit, and - changing the speed settings of the current run by lowering the constant target speed from a first constant target speed (C 1 ) to a second constant target speed (C 2 ) if the measurement data meets said one or more predetermined criteria, - continuing the run without intermediate stops to said destination landing . - obtaining measurement data of the ongoing run, which measurement data describes vertical speed of the vertically moving elevator car , - determining whether the measurement data meets one or more predetermined criteria indicating unintended vertical speed said one or more predetermined criteria comprising that the deviation between the vertical speed of the car and a speed of the motor exceeds a predetermined limit, and - changing the speed settings of the current run by lowering the constant target speed from a first constant target speed (C 1 ) to a second constant target speed (C 2 ) if the measurement data meets said one or more predetermined criteria, - continuing the run without intermediate stops to said destination landing .
A method for measuring the level of the tyrosine-protein kinase receptor UFO protein (AXL) in a biological sample of formalin-fixed tissue, comprising: detecting and quantifying the amount of an AXL fragment peptide in a protein digest prepared from said biological sample using mass spectrometry; and calculating the level of AXL protein in said sample; wherein said AXL fragment peptide is the peptide of SEQ ID NO:4; and wherein said level is a relative level or an absolute level. detecting and quantifying the amount of an AXL fragment peptide in a protein digest prepared from said biological sample using mass spectrometry; and calculating the level of AXL protein in said sample; wherein said AXL fragment peptide is the peptide of SEQ ID NO:4; and wherein said level is a relative level or an absolute level.
A blood processing system comprising: a first separation device comprising a spinning membrane device; a second separation device , comprising a spinning membrane device, a linking line between the first and the second separation device for flowing a non-targeted component comprising cellular blood components from the first separation device to the second separation device , wherein the first separation device is adapted to receive blood from a blood source and separate a portion of a targeted component from the blood, and the second separation device is adapted to receive the non-targeted component remaining after separation by the first separation device and to separate an additional amount of the targeted component from the non-targeted component, wherein the second separation device is configured to be spun at a slower speed than a speed at which the first separation device is spun. a first separation device comprising a spinning membrane device; a second separation device , comprising a spinning membrane device, a linking line between the first and the second separation device for flowing a non-targeted component comprising cellular blood components from the first separation device to the second separation device , wherein the first separation device is adapted to receive blood from a blood source and separate a portion of a targeted component from the blood, and the second separation device is adapted to receive the non-targeted component remaining after separation by the first separation device and to separate an additional amount of the targeted component from the non-targeted component, wherein the second separation device is configured to be spun at a slower speed than a speed at which the first separation device is spun.
A method for resolution enhancement of aerial images or satellite images, comprising the step of - providing at least a first two dimensional training image comprising an image of a first area on ground , wherein the 2D subimage has been captured at a first angle (α) towards the ground and at a first height (h1) above the ground , - providing a Machine Learning Network (MLN), characterized in that the method further comprises the steps of - providing a high-resolution three dimensional map created based on aerial images captured from at least two different angles, wherein the high-resolution 3D map covers a second area which at least is a part of the first area , and wherein the high-resolution 3D map has a higher resolution than the 2D training image, - extracting , from the high-resolution 3D map, a 2 dimensional submap at a second angle (β) towards the ground and at a second height (h2) above the ground, representing a third area which is at least a part of the second area and comprising geocoded 2D coordinate data and texture information, wherein the second angle (β) differs no more than 5° from the first angle (α) and wherein the second height (h2) differs no more than 5 % from the first height (hi), - extracting a 2D subimage from the 2D training image, which 2D subimage is an image of the third area, and - training the MLN, using the high-resolution 2D submap and the 2D subimage. - providing at least a first two dimensional training image comprising an image of a first area on ground , wherein the 2D subimage has been captured at a first angle (α) towards the ground and at a first height (h1) above the ground , - providing a Machine Learning Network (MLN), - providing a high-resolution three dimensional map created based on aerial images captured from at least two different angles, wherein the high-resolution 3D map covers a second area which at least is a part of the first area , and wherein the high-resolution 3D map has a higher resolution than the 2D training image, - extracting , from the high-resolution 3D map, a 2 dimensional submap at a second angle (β) towards the ground and at a second height (h2) above the ground, representing a third area which is at least a part of the second area and comprising geocoded 2D coordinate data and texture information, wherein the second angle (β) differs no more than 5° from the first angle (α) and wherein the second height (h2) differs no more than 5 % from the first height (hi), - extracting a 2D subimage from the 2D training image, which 2D subimage is an image of the third area, and - training the MLN, using the high-resolution 2D submap and the 2D subimage.
Method for determining at least two equivalent insulation resistances of an electrical system incorporating an electrical source , a power converter , and an electrical load , said power converter comprising a plurality of switching branches, each of said switching branches comprising two controlled switches (I1, 12, 13, 14, 15, 16), said electrical system further incorporating a measuring circuit added between the positive terminal of said electrical source and the ground or the frame of said electrical system , said measuring circuit comprising a shunt resistor (Rshunt) in series with a controlled switch , characterized in that the following steps are implemented: a) when the controlled switches (I1, I2, I3, I4, I5, I6) of said power converter are in a zero sequence, two voltages are measured in parallel with said measuring circuit , the first voltage V pt_ 0 being measured with said controlled switch of said measuring circuit in the open position, and the second voltage V pt_ 1 being measured with said controlled switch of said measuring circuit in the closed position; and b) said equivalent insulation resistances of said electrical system are determined by means of said measured voltages V pt_ 0 and V pt_ 1 . a) when the controlled switches (I1, I2, I3, I4, I5, I6) of said power converter are in a zero sequence, two voltages are measured in parallel with said measuring circuit , the first voltage V pt_ 0 being measured with said controlled switch of said measuring circuit in the open position, and the second voltage V pt_ 1 being measured with said controlled switch of said measuring circuit in the closed position; and b) said equivalent insulation resistances of said electrical system are determined by means of said measured voltages V pt_ 0 and V pt_ 1 .
A crystal of cytidine diphosphate choline, containing no methanol and having a loose specific volume of 4.1 mL/g or less.
An ethylene polymer composition comprising, all per cent amounts being by weight: A) 30-60% of an ethylene polymer containing 10% or less, referred to the weight of A), of a fraction XS A soluble in xylene at 25°C; B) 40-70% of a copolymer of ethylene with at least one olefin of formula HC 2 =CHR, where R is an alkyl radical, linear or branched, having from 1 to 8 carbon atoms, containing 65-90% of ethylene and 55-15% of a fraction XS B soluble in xylene at 25°C, both ethylene and XS B amounts being referred to the weight of B), the intrinsic viscosity [η] of the XS B fraction ranging from 0.8 to 3.2 dl/g; wherein the amounts of A) and B) are referred to the total weight of A) + B); XS A and XS B are measured by adding 2.5 g of polymer into 250 cm 3 of o-xylene, raising the temperature in 30 minutes from room temperature up to 135°C, keeping under reflux and stirring for further 30 minutes, then in a thermostatic water bath at 25 °C for 30 minutes; [η] is measured in tetrahydronaphthalene at 135 °C with a capillary viscometer. A) 30-60% of an ethylene polymer containing 10% or less, referred to the weight of A), of a fraction XS A soluble in xylene at 25°C; B) 40-70% of a copolymer of ethylene with at least one olefin of formula HC 2 =CHR, where R is an alkyl radical, linear or branched, having from 1 to 8 carbon atoms, containing 65-90% of ethylene and 55-15% of a fraction XS B soluble in xylene at 25°C, both ethylene and XS B amounts being referred to the weight of B), the intrinsic viscosity [η] of the XS B fraction ranging from 0.8 to 3.2 dl/g; wherein the amounts of A) and B) are referred to the total weight of A) + B); XS A and XS B are measured by adding 2.5 g of polymer into 250 cm 3 of o-xylene, raising the temperature in 30 minutes from room temperature up to 135°C, keeping under reflux and stirring for further 30 minutes, then in a thermostatic water bath at 25 °C for 30 minutes; [η] is measured in tetrahydronaphthalene at 135 °C with a capillary viscometer.
Heat exchanger having a bundle of tubes inside which a first heat transfer fluid is intended to circulate and between which a second heat transfer fluid is intended to circulate, said bundle of tubes having at least one reservoir of phase change material, said reservoir being delimited by at least one reservoir plate having a filling member , characterized in that the filling member has a stamped external surface that is integral with the reservoir plate and folded over an internal surface that is also integral with said reservoir plate so as to form a filling channel, said internal surface comprising at least one filling orifice that opens into said reservoir and said external surface covering said at least one filling orifice .
A vehicle behavior control device applied to a vehicle having a steerable front road wheel, the vehicle behavior control device comprising: a steering speed acquiring part configured to acquire a steering speed of the vehicle; and characterized by a pitch angle increasing part configured to increase a pitch angle in such a direction that a front portion of the vehicle dips, when the steering speed becomes equal to or greater than a given threshold which is greater than zero. a steering speed acquiring part configured to acquire a steering speed of the vehicle; and characterized by a pitch angle increasing part configured to increase a pitch angle in such a direction that a front portion of the vehicle dips, when the steering speed becomes equal to or greater than a given threshold which is greater than zero.
A control switch , comprising: an electrical rotary switch with a shaft extending therefrom, the shaft providing a primary axis of rotation ; a thumb button actuator providing a slide switch user interface; an orthogonally-oriented rotary lever having a lever arm extending therefrom, the orthogonally-oriented rotary lever being orthogonal relative to the primary axis of rotation of the shaft ; characterised by a non-orthogonal transfer arm coupled between the thumb button actuator and the lever arm of the orthogonally-oriented rotary lever , the non-orthogonal transfer arm being non-orthogonal relative to the primary axis of rotation of the shaft ; and the shaft being rotatable by the orthogonally-oriented rotary lever via linear, non-orthogonal motion transferred by the non-orthogonal transfer arm in response to a sliding actuation of the thumb button actuator . an electrical rotary switch with a shaft extending therefrom, the shaft providing a primary axis of rotation ; a thumb button actuator providing a slide switch user interface; an orthogonally-oriented rotary lever having a lever arm extending therefrom, the orthogonally-oriented rotary lever being orthogonal relative to the primary axis of rotation of the shaft ; characterised by a non-orthogonal transfer arm coupled between the thumb button actuator and the lever arm of the orthogonally-oriented rotary lever , the non-orthogonal transfer arm being non-orthogonal relative to the primary axis of rotation of the shaft ; and the shaft being rotatable by the orthogonally-oriented rotary lever via linear, non-orthogonal motion transferred by the non-orthogonal transfer arm in response to a sliding actuation of the thumb button actuator .
Filter media for filtering condensate which includes water and oily contaminant, the filter media comprising: silica-based oleophilic fibres, and, an anti-packing material, wherein the anti-packing material is polystyrene beads at from 0.5% by weight to 5.0% by weight. silica-based oleophilic fibres, and, an anti-packing material, wherein the anti-packing material is polystyrene beads at from 0.5% by weight to 5.0% by weight.