mhurhangee/patent-ind-claim-en huggingface dataset:
A portable device comprising: a sensor configured to detect a trigger signal and a command gesture of a user wearing the portable device on his/her arm; a control unit configured to: identify the detected trigger signal and the detected command gesture, determine an external device based on the trigger signal, among a plurality of external devices, and determine an order for controlling the external device based on the identified command gesture; and a communication unit configured to transmit a command signal corresponding to the order to the external device; wherein the sensor is an acceleration measurement module configured to measure acceleration, acceleration data of the command gesture is obtained using the acceleration measurement module , and the command gesture is detected in response to detection of the trigger signal using the acceleration data; wherein the control unit performs a rotation correction to separate a rotation of the user's arm from a movement of the portable device, based on an initial angle of rotation (θ) of the arm on an axis (X, Y, Z) of the portable device. a sensor configured to detect a trigger signal and a command gesture of a user wearing the portable device on his/her arm; a control unit configured to: identify the detected trigger signal and the detected command gesture, determine an external device based on the trigger signal, among a plurality of external devices, and determine an order for controlling the external device based on the identified command gesture; and a communication unit configured to transmit a command signal corresponding to the order to the external device; wherein the sensor is an acceleration measurement module configured to measure acceleration, acceleration data of the command gesture is obtained using the acceleration measurement module , and the command gesture is detected in response to detection of the trigger signal using the acceleration data; wherein the control unit performs a rotation correction to separate a rotation of the user's arm from a movement of the portable device, based on an initial angle of rotation (θ) of the arm on an axis (X, Y, Z) of the portable device. identify the detected trigger signal and the detected command gesture, determine an external device based on the trigger signal, among a plurality of external devices, and determine an order for controlling the external device based on the identified command gesture; and a communication unit configured to transmit a command signal corresponding to the order to the external device; wherein the sensor is an acceleration measurement module configured to measure acceleration, acceleration data of the command gesture is obtained using the acceleration measurement module , and the command gesture is detected in response to detection of the trigger signal using the acceleration data; wherein the control unit performs a rotation correction to separate a rotation of the user's arm from a movement of the portable device, based on an initial angle of rotation (θ) of the arm on an axis (X, Y, Z) of the portable device.
A method performed by one or more computers , the method comprising: obtaining , by the one or more computers , data for each terminal in a set of multiple satellite terminals, the data for each terminal indicating (i) a current satellite beam used by the terminal , (ii) one or more efficiency measures for communication of the terminal using the current satellite beam wherein the or each efficiency measure indicates how efficiently the terminal is using spectrum resources of the current satellite beam , and (iii) a geographic location of the terminal ; training , by the one or more computers , a machine learning model based on the obtained data to receive an indication of a geographic location and predict, from among multiple satellite beams, a satellite beam providing a highest efficiency for communication at the geographic location; after training the machine learning model, generating , using the machine learning model, an indication of a predicted satellite beam for a particular location, the predicted satellite beam being predicted by the trained machine learning model to provide the highest level of efficiency for communication by a terminal at the particular geographic location; and determining , by the one or more computers, whether to change the current satellite beam for a terminal at the particular geographic location based on the predicted satellite beam. obtaining , by the one or more computers , data for each terminal in a set of multiple satellite terminals, the data for each terminal indicating (i) a current satellite beam used by the terminal , (ii) one or more efficiency measures for communication of the terminal using the current satellite beam wherein the or each efficiency measure indicates how efficiently the terminal is using spectrum resources of the current satellite beam , and (iii) a geographic location of the terminal ; training , by the one or more computers , a machine learning model based on the obtained data to receive an indication of a geographic location and predict, from among multiple satellite beams, a satellite beam providing a highest efficiency for communication at the geographic location; after training the machine learning model, generating , using the machine learning model, an indication of a predicted satellite beam for a particular location, the predicted satellite beam being predicted by the trained machine learning model to provide the highest level of efficiency for communication by a terminal at the particular geographic location; and determining , by the one or more computers, whether to change the current satellite beam for a terminal at the particular geographic location based on the predicted satellite beam.
An arc welding method feeding welding wire to a base material while supplying welding current having average current of 300A or larger, comprising: feeding the welding wire at a speed of a tip end of the welding wire being inserted into a space of a concave melted portion formed in the base material by the arc generated between the tip end and the base material , characterized in that the method comprises: periodically alternating a small current period where the welding current has a small average value and droplet is transferred from the tip end to a bottom part of the melted portion , and a large current period where the welding current has a large average value and droplet is transferred from the tip end to a side part of the melted portion ; and controlling the welding current in the large current period so that droplet is transferred from the tip end to the side part a plurality of times in each large current period. periodically alternating a small current period where the welding current has a small average value and droplet is transferred from the tip end to a bottom part of the melted portion , and a large current period where the welding current has a large average value and droplet is transferred from the tip end to a side part of the melted portion ; and controlling the welding current in the large current period so that droplet is transferred from the tip end to the side part a plurality of times in each large current period.
Method for producing an isotropic 3D image, said method comprising steps of : a) acquisition of at least two anisotropic 3D images or anisotropic 2D multislice images of an object, b) determining an isotropic 3D image estimate from said at least two anisotropic 3D images, c) applying a denoising technique and a 3D super-resolution reconstruction algorithm, both combined in a constrained optimization problem which is soluble by an Augmented Lagrangian algorithm, by realizing following steps: d) defining 3D patches in the isotropic 3D image estimate, at iteration i=0, this estimate being obtained from step b), at iteration i+1 this estimate being obtained from step f), e) applying a denoising technique on said 3D patches in order to obtain denoised 3D patches, f) applying a geometrical 3D super-resolution reconstruction based on the denoised 3D patches used as a prior to produce the 3D isotropic image; the geometrical 3D super-resolution reconstruction including estimates of an Augmented Lagrangian algorithm, g) updating the Augmented Lagrangian estimates, h) iterating steps d-h until estimates meet a stopping criteria. a) acquisition of at least two anisotropic 3D images or anisotropic 2D multislice images of an object, b) determining an isotropic 3D image estimate from said at least two anisotropic 3D images, c) applying a denoising technique and a 3D super-resolution reconstruction algorithm, both combined in a constrained optimization problem which is soluble by an Augmented Lagrangian algorithm, by realizing following steps: d) defining 3D patches in the isotropic 3D image estimate, at iteration i=0, this estimate being obtained from step b), at iteration i+1 this estimate being obtained from step f), e) applying a denoising technique on said 3D patches in order to obtain denoised 3D patches, f) applying a geometrical 3D super-resolution reconstruction based on the denoised 3D patches used as a prior to produce the 3D isotropic image; the geometrical 3D super-resolution reconstruction including estimates of an Augmented Lagrangian algorithm, g) updating the Augmented Lagrangian estimates, h) iterating steps d-h until estimates meet a stopping criteria.
Fan wheel with a rotationally symmetrical base body , with a circumferential base body wall which essentially forms a hollow cone, wherein the base body is penetrated centrally by an axis of rotation (y) and in a side view rises continuously from radially outside to radially inside with respect to its outer contour, wherein fan wheel blades are provided which are connected to the base body on the bottom side, wherein furthermore each fan wheel blade has, with respect to the axis of rotation (y), a radially inner blade leading edge which extends away from the base body from an attachment region of the fan wheel blade to the base body , and each fan wheel blade forming radially outwardly a blade exit edge which likewise extends away from the connection region on the base body , wherein in addition the blade leading edge and the blade exit edge are connected in the region of their ends remote from the base body via a blade longitudinal edge , wherein in the transition from the blade longitudinal edge into the blade leading edge fan wheel tips are formed which, viewed in the direction of the axis of rotation (y), form a highest extension of the fan wheel blade , wherein the fan wheel blades end on the bottom side at a distance from an edge of the base body , forming a diffuser region , the fan wheel tips projecting beyond the base body and all the fan wheel tips being arranged in a common plane (ESP) aligned transversely to the axis of rotation (y), which is spaced upwardly in the direction of the axis of rotation (y) from an uppermost base body plane (E0), characterised in that this spacing is selected so that, with respect to a side view against a fan wheel blade above the uppermost base body plane (E0), a partial blade area corresponding to 20 to 50% of the total blade area is produced and that, in a projection in the direction of a lowermost base body plane, the fan wheel blades do not project beyond a circumferential lower base edge.
Cartridge for the preparation of a dialysis solution comprising at least a hollow body defining at least a cavity , adapted to contain a buffering agent, and comprising at least an inlet mouth for the inflow of a solvent in said cavity and an outlet mouth for the outflow of said dialysis solution from said cavity , in which said hollow body comprises at least a reinforced portion interposed between said inlet mouth and said outlet mouth , characterized in that said reinforced portion comprises an outer surface and an inner surface , said outer surface and said inner surface being both wave-shaped, where the thickness of said wave-shaped wall is substantially constant and said outer surface and said inner surface are substantially smooth and provided with a series of indentations and protrusions arranged alternately and in succession the one another and by the fact that said reinforced portion defines an opening access for introducing said buffering agent into said cavity and that said hollow body comprises a lid associated to said reinforced portion for closing said opening access , said lid defining said inlet mouth , said lid being separated from the reinforced portion .
Curing system for printing of 3D objects comprising: at least one extrusion head having an extrusion nozzle ; and at least two sources of curing radiation each comprising a linear Light Emitting Diode (LED) array and moveably attached to the extrusion head flanking from at least two opposite sides thereof and wherein the corresponding central axes of the LED arrays are parallel to each other so as to translate concurrently with the extrusion head and follow the exact course and direction of translation of the extrusion head in 3D space during a curable material deposition process. at least one extrusion head having an extrusion nozzle ; and at least two sources of curing radiation each comprising a linear Light Emitting Diode (LED) array and moveably attached to the extrusion head flanking from at least two opposite sides thereof and wherein the corresponding central axes of the LED arrays are parallel to each other so as to translate concurrently with the extrusion head and follow the exact course and direction of translation of the extrusion head in 3D space during a curable material deposition process.
A composition comprising a population of biologically active nanoparticles comprising one or more MYC-containing polypeptides wherein: a) the average diameter of the biologically active nanoparticles is between 80 nm and 150 nm; and b) the pH of the composition is at least about pH 6.0, and no greater than about pH 8, wherein the MYC-containing polypeptide comprises a MYC fusion protein, comprising a protein transduction domain linked to a MYC polypeptide, and wherein when an anti CD3 or anti CD28 activated T cell is contacted with the MYC-containing polypeptide nanoparticle composition under conditions suitable for T cell proliferation, one or more of the activation, survival, or proliferation of the T cell is augmented compared with when an anti CD3 or anti CD28 activated T cell is not contacted with the MYC-containing polypeptide nanoparticle composition. a) the average diameter of the biologically active nanoparticles is between 80 nm and 150 nm; and b) the pH of the composition is at least about pH 6.0, and no greater than about pH 8, wherein the MYC-containing polypeptide comprises a MYC fusion protein, comprising a protein transduction domain linked to a MYC polypeptide, and wherein when an anti CD3 or anti CD28 activated T cell is contacted with the MYC-containing polypeptide nanoparticle composition under conditions suitable for T cell proliferation, one or more of the activation, survival, or proliferation of the T cell is augmented compared with when an anti CD3 or anti CD28 activated T cell is not contacted with the MYC-containing polypeptide nanoparticle composition.
A liquid ring compressor comprising: an overhung impeller disposed on an end of an impeller shaft ; a radial bearing disposed on the shaft side of the impeller ; characterized in that , a forward thrust bearing is disposed between the impeller and an inlet gas head , wherein a forward thrust bearing rotor is mounted to a forward face of the overhung impeller and a forward thrust bearing stator is mounted to at least one of an inlet gas head surface or compressor casing . an overhung impeller disposed on an end of an impeller shaft ; a radial bearing disposed on the shaft side of the impeller ; characterized in that , a forward thrust bearing is disposed between the impeller and an inlet gas head , wherein a forward thrust bearing rotor is mounted to a forward face of the overhung impeller and a forward thrust bearing stator is mounted to at least one of an inlet gas head surface or compressor casing .
A surveying system, comprising: - a controller ; - a support ; - a mounting structure mounted on the support , wherein the mounting structure is rotatable about a first axis relative to the support ; a first motor controlled by the controller and configured to rotate the mounting structure relative to the support ; a first mirror mounted on the mounting structure , wherein the first mirror is rotatable relative to the mounting structure about a second axis , wherein the second axis substantially coincides with the first axis ; a second motor controlled by the controller and configured to rotate the first mirror relative to the mounting structure ; and a first light source configured to direct a light beam onto the first mirror ; and a first detector configured to detect light having traveled a beam path extending from the first light source via the first mirror to an object and back from the object via the first mirror to the first detector . - a controller ; - a support ; - a mounting structure mounted on the support , wherein the mounting structure is rotatable about a first axis relative to the support ; a first motor controlled by the controller and configured to rotate the mounting structure relative to the support ; a first mirror mounted on the mounting structure , wherein the first mirror is rotatable relative to the mounting structure about a second axis , wherein the second axis substantially coincides with the first axis ; a second motor controlled by the controller and configured to rotate the first mirror relative to the mounting structure ; and a first light source configured to direct a light beam onto the first mirror ; and a first detector configured to detect light having traveled a beam path extending from the first light source via the first mirror to an object and back from the object via the first mirror to the first detector . a first motor controlled by the controller and configured to rotate the mounting structure relative to the support ; a first mirror mounted on the mounting structure , wherein the first mirror is rotatable relative to the mounting structure about a second axis , wherein the second axis substantially coincides with the first axis ; a second motor controlled by the controller and configured to rotate the first mirror relative to the mounting structure ; and a first light source configured to direct a light beam onto the first mirror ; and a first detector configured to detect light having traveled a beam path extending from the first light source via the first mirror to an object and back from the object via the first mirror to the first detector .
A filling system comprising: a conveyance chamber in which an aseptic condition is maintained and in which a conveyance means for conveying vessels (V) is housed inside; a plurality of filling chambers that is connected to the conveyance chamber and where a rotary-type filling machine that comprises a plurality of filling means is housed inside; a rotary-type vessel transfer means, which comprises an inlet/outlet wheel , that hands over the vessels (V) between the conveyance means and the filling machine ; an opening that is provided between the two chambers and that allows conveyance of the vessels (V) via the vessel transfer means; and an opening/closing means for closing the opening ; wherein the vessel transfer means comprises grippers , which are provided on the circumference along the periphery of the inlet/outlet wheel for holding a lip or a neck of the vessel (V), that can retain the vessels (V); and a part of the grippers can be raised and lowered with respect to a rotational axis of the vessel transfer means; and when the opening/closing means closes the opening , a part of the grippers is raised or lowered by a predetermined amount relative to the other grippers , after which the vessel transfer means is rotated by a predetermined amount to a position where it does not interfere with the opening/closing means. a conveyance chamber in which an aseptic condition is maintained and in which a conveyance means for conveying vessels (V) is housed inside; a plurality of filling chambers that is connected to the conveyance chamber and where a rotary-type filling machine that comprises a plurality of filling means is housed inside; a rotary-type vessel transfer means, which comprises an inlet/outlet wheel , that hands over the vessels (V) between the conveyance means and the filling machine ; an opening that is provided between the two chambers and that allows conveyance of the vessels (V) via the vessel transfer means; and an opening/closing means for closing the opening ; wherein the vessel transfer means comprises grippers , which are provided on the circumference along the periphery of the inlet/outlet wheel for holding a lip or a neck of the vessel (V), that can retain the vessels (V); and a part of the grippers can be raised and lowered with respect to a rotational axis of the vessel transfer means; and when the opening/closing means closes the opening , a part of the grippers is raised or lowered by a predetermined amount relative to the other grippers , after which the vessel transfer means is rotated by a predetermined amount to a position where it does not interfere with the opening/closing means.
A method for simultaneously measuring a respiration rate and a heart rate using dual cameras of a smartphone , the method comprising: collecting, at a first step , a PPG signal of a human with a first camera of a smartphone and visual data on chest and abdomen movements of the human with a second camera of the smartphone; converting, at a second step , the visual data to an RGBA signal; applying, at a third step , a bandpass filter such that a frequency only within a range in the RGBA signal passes; removing, at a fourth step , first and last predetermined time-portions of the RGBA signal to which the band-pass filter is applied at the third step; selecting, at a fifth step , a color channel having a highest standard deviation from the RGBA signal where the predetermined portions are removed at the fourth step; applying, at a sixth step , a spline filter to the color channel selected at the fifth step; computing, at a seventh step , power spectrum density using the result of the sixth step; and computing, at an eighth step , a heart rate and a respiration rate using the result of the seventh step. collecting, at a first step , a PPG signal of a human with a first camera of a smartphone and visual data on chest and abdomen movements of the human with a second camera of the smartphone; converting, at a second step , the visual data to an RGBA signal; applying, at a third step , a bandpass filter such that a frequency only within a range in the RGBA signal passes; removing, at a fourth step , first and last predetermined time-portions of the RGBA signal to which the band-pass filter is applied at the third step; selecting, at a fifth step , a color channel having a highest standard deviation from the RGBA signal where the predetermined portions are removed at the fourth step; applying, at a sixth step , a spline filter to the color channel selected at the fifth step; computing, at a seventh step , power spectrum density using the result of the sixth step; and computing, at an eighth step , a heart rate and a respiration rate using the result of the seventh step.