mhurhangee/ep-ind-claims huggingface dataset:
A vehicle handling assistant apparatus, comprising an environment acquisition means for acquiring an environment signal and an environment presentation means for presenting the environment signal, wherein the apparatus further comprises: an obstacle detection means for detecting an obstacle from the environment signal acquired by the environment acquisition means and outputting an obstacle signal; an obstacle region generation means for generating an obstacle region signal from the environment signal based on the obstacle signal generated by the obstacle detection means; an environment signal adjustment means for adjusting the environment signal presented by the environment presentation means based on the obstacle region signal characterized in that the environment signal adjustment means comprises a track presentation means for presenting a predicted moving track of the vehicle upon the environment signal and wherein the presentation of the track in the "transparent" and in the 'real' presentation is such that the obstacle will occlude the track creating an "overlay" effect. an obstacle detection means for detecting an obstacle from the environment signal acquired by the environment acquisition means and outputting an obstacle signal; an obstacle region generation means for generating an obstacle region signal from the environment signal based on the obstacle signal generated by the obstacle detection means; an environment signal adjustment means for adjusting the environment signal presented by the environment presentation means based on the obstacle region signal characterized in that the environment signal adjustment means comprises a track presentation means for presenting a predicted moving track of the vehicle upon the environment signal and wherein the presentation of the track in the "transparent" and in the 'real' presentation is such that the obstacle will occlude the track creating an "overlay" effect.
A method of generating a waveform for transmission over a communication channel, the method comprising: receiving a plurality of information symbols; creating, using an inverse symplectic Fourier transform with a windowing operation, a plurality of modulation symbols wherein the creating includes using each of the plurality information symbols to modulate one of a plurality of two-dimensional basis functions on a time-frequency plane wherein each of the plurality of two-dimensional basis functions is uniquely associated with one of the plurality of information symbols; and generating a transmit waveform comprised of a plurality of pulse waveforms, each of the plurality of pulse waveforms corresponding to a combination of one of the plurality of modulation symbols and one of a plurality of time-translated and frequency-modulated versions of a fundamental transmit pulse. receiving a plurality of information symbols; creating, using an inverse symplectic Fourier transform with a windowing operation, a plurality of modulation symbols wherein the creating includes using each of the plurality information symbols to modulate one of a plurality of two-dimensional basis functions on a time-frequency plane wherein each of the plurality of two-dimensional basis functions is uniquely associated with one of the plurality of information symbols; and generating a transmit waveform comprised of a plurality of pulse waveforms, each of the plurality of pulse waveforms corresponding to a combination of one of the plurality of modulation symbols and one of a plurality of time-translated and frequency-modulated versions of a fundamental transmit pulse.
A folding food mixer, comprising a base, a support arm and a handpiece, wherein a mixing head is disposed on the handpiece and a motor for driving the mixing head to rotate is disposed in the handpiece and wherein, the bottom of the support arm is connected with the base through a folding structure, and the top of the support arm is connected with a tail end of the handpiece through a folding structure wherein a convex connecting head is disposed on the base, and the bottom of the support arm is movably connected with the connecting head through a first rotation shaft; characterized in that an elastic self-locking device, and a support arm unlocking button for unlocking the elastic self-locking device are disposed between the connecting head and the support arm.
A computer optimized method of electric field treatment planning of a target tissue site, the method comprising: (a) obtaining an image of the target tissue site and storing the image in a computer unit, (b) determining a volume of the target tissue site and inputting into the computer unit one or more electric properties of the target tissue site, (c) the computer unit using the volume and the one or more electric properties of the target tissue site to: (i) determine an optimal number of electrodes to treat the target tissue site with electric fields, the optimal number of electrodes being one or more than one electrode, each electrode having one or more contacts, (ii) determine an optimal placement of the optimal number of electrodes determined in (i) within the target tissue site, and (iii) determine optimal voltages and phase shifts of each of the contacts of the optimal number of electrodes determined in (i) at the optimal placement determined in (ii)that results in a prescribed time average electric field coverage of the entire target tissue site, wherein the electric field is a dynamically oriented electric filed. (a) obtaining an image of the target tissue site and storing the image in a computer unit, (b) determining a volume of the target tissue site and inputting into the computer unit one or more electric properties of the target tissue site, (c) the computer unit using the volume and the one or more electric properties of the target tissue site to: (i) determine an optimal number of electrodes to treat the target tissue site with electric fields, the optimal number of electrodes being one or more than one electrode, each electrode having one or more contacts, (ii) determine an optimal placement of the optimal number of electrodes determined in (i) within the target tissue site, and (iii) determine optimal voltages and phase shifts of each of the contacts of the optimal number of electrodes determined in (i) at the optimal placement determined in (ii)that results in a prescribed time average electric field coverage of the entire target tissue site, wherein the electric field is a dynamically oriented electric filed. (i) determine an optimal number of electrodes to treat the target tissue site with electric fields, the optimal number of electrodes being one or more than one electrode, each electrode having one or more contacts, (ii) determine an optimal placement of the optimal number of electrodes determined in (i) within the target tissue site, and (iii) determine optimal voltages and phase shifts of each of the contacts of the optimal number of electrodes determined in (i) at the optimal placement determined in (ii)that results in a prescribed time average electric field coverage of the entire target tissue site, wherein the electric field is a dynamically oriented electric filed.
A vision testing system, comprising: a display; a computer coupled to said display and configured to display to a test subject: a sequence of test images during a stimulus interval, each including multiple stimulus patterns (304, 306) arranged around a fixation target; and a response pattern image for each of said sequence of test images during a response interval after said stimulus interval, each including multiple response target dots, the multiple response target dots occupying the locations of said multiple stimulus patterns; wherein at least one of said multiple stimulus patterns differs from others of said multiple stimulus patterns; wherein the computer further comprises an input device configured to deliver feedback from said test subject during said response interval, which feedback comprises a selection, for each of said sequence of test images, of at least one of said response target dots of said response pattern image that said test subject indicates corresponds to a location of said at least one of said multiple stimulus patterns that differs from others of said multiple stimulus patterns. a display; a computer coupled to said display and configured to display to a test subject: a sequence of test images during a stimulus interval, each including multiple stimulus patterns (304, 306) arranged around a fixation target; and a response pattern image for each of said sequence of test images during a response interval after said stimulus interval, each including multiple response target dots, the multiple response target dots occupying the locations of said multiple stimulus patterns; a sequence of test images during a stimulus interval, each including multiple stimulus patterns (304, 306) arranged around a fixation target; and a response pattern image for each of said sequence of test images during a response interval after said stimulus interval, each including multiple response target dots, the multiple response target dots occupying the locations of said multiple stimulus patterns; wherein at least one of said multiple stimulus patterns differs from others of said multiple stimulus patterns; wherein the computer further comprises an input device configured to deliver feedback from said test subject during said response interval, which feedback comprises a selection, for each of said sequence of test images, of at least one of said response target dots of said response pattern image that said test subject indicates corresponds to a location of said at least one of said multiple stimulus patterns that differs from others of said multiple stimulus patterns.
A system for safety analysis of failure behavior of a computing unit comprising two or more components (210, 220, 230), wherein each component (210, 220, 230) comprises at least one inport for receiving incoming failure data and one outport for transmitting outcoming failure data, wherein the system is configured for using a safety contract for the analysis of the failure data of the components (210, 220, 230) and/or the computing unit, and wherein the system is configured for generating the safety contract from a model-based safety analysis model comprising separate modules (110, 120, 130) which are related to the components (210, 220, 230) of the computing unit respectively, and wherein the incoming failure data received at the inport are modelled by using an inport failure mode and the outcoming failure data transmitted from the outport are modelled by using an outport failure mode, wherein the inport failure mode and the outport failure mode are defined by the model-based safety analysis model, and wherein an internal failure behavior is defined for each component (210, 220, 230) and/or the computing unit, and wherein the safety contract for the components (210, 220, 230) and/or the computing unit is an interface contract or a component contract, and wherein the model-based safety analysis model is a component fault tree model. each component (210, 220, 230) comprises at least one inport for receiving incoming failure data and one outport for transmitting outcoming failure data, wherein the system is configured for using a safety contract for the analysis of the failure data of the components (210, 220, 230) and/or the computing unit, and wherein the system is configured for generating the safety contract from a model-based safety analysis model comprising separate modules (110, 120, 130) which are related to the components (210, 220, 230) of the computing unit respectively, and wherein the incoming failure data received at the inport are modelled by using an inport failure mode and the outcoming failure data transmitted from the outport are modelled by using an outport failure mode, wherein the inport failure mode and the outport failure mode are defined by the model-based safety analysis model, and wherein an internal failure behavior is defined for each component (210, 220, 230) and/or the computing unit, and wherein the safety contract for the components (210, 220, 230) and/or the computing unit is an interface contract or a component contract, and wherein the model-based safety analysis model is a component fault tree model.
An imaging apparatus comprising: a first imaging unit configured to capture a first image of a subject; a second imaging unit configured to capture a second image of the subject; and at least one processor configured to: selectively obtain one of the first image or the second image to be output as an output image based on a magnification characteristic of the output image; based on the first image being replaced with the second image as the output image, determine a corrected white balance gain (W cgb) by correcting a white balance gain (W gb) obtained for the second image based on a first color balance of the first image and a second color balance of the second image; obtain a filtered white balance gain (W fgb) based on the white balance gain (W gb) and the corrected white balance gain (W cgb) to smoothly change the white balance gain applied to the second image, from the corrected white balance gain (W cgb) to the white balance gain (W gb) during a certain time to obtain the output image; and output the output image based on a correction to the second image based on the filtered white balance gain of the second image. a first imaging unit configured to capture a first image of a subject; a second imaging unit configured to capture a second image of the subject; and at least one processor configured to: selectively obtain one of the first image or the second image to be output as an output image based on a magnification characteristic of the output image; based on the first image being replaced with the second image as the output image, determine a corrected white balance gain (W cgb) by correcting a white balance gain (W gb) obtained for the second image based on a first color balance of the first image and a second color balance of the second image; obtain a filtered white balance gain (W fgb) based on the white balance gain (W gb) and the corrected white balance gain (W cgb) to smoothly change the white balance gain applied to the second image, from the corrected white balance gain (W cgb) to the white balance gain (W gb) during a certain time to obtain the output image; and output the output image based on a correction to the second image based on the filtered white balance gain of the second image. selectively obtain one of the first image or the second image to be output as an output image based on a magnification characteristic of the output image; based on the first image being replaced with the second image as the output image, determine a corrected white balance gain (W cgb) by correcting a white balance gain (W gb) obtained for the second image based on a first color balance of the first image and a second color balance of the second image; obtain a filtered white balance gain (W fgb) based on the white balance gain (W gb) and the corrected white balance gain (W cgb) to smoothly change the white balance gain applied to the second image, from the corrected white balance gain (W cgb) to the white balance gain (W gb) during a certain time to obtain the output image; and output the output image based on a correction to the second image based on the filtered white balance gain of the second image.
A method for precipitating dissolved materials from a solution, the method comprising: (a) introducing the solution containing the dissolved materials into a reactor, (b) causing the dissolved materials in the solution to precipitate into crystals under first reaction conditions, (c) adjusting the reaction condition in the reactor or in a portion of the reactor from the first reaction conditions to second reaction conditions, (d) maintaining the second reaction conditions in the reactor or in a portion of the reactor for a period of time sufficient to cause a sub-population of the crystals to dissolve, wherein the subpopulation of the crystals comprises fine crystals having diameters of less than about 100 microns, (e) adjusting the reaction condition in the reactor or in a portion of the reactor from the second reaction conditions to the first reaction conditions, wherein the solution is an aqueous solution and phosphorus in the aqueous solution is precipitated in the form of phosphate compounds, wherein step (c) comprises decreasing the pH of the solution in the reactor or in a portion of the reactor to below an equilibrium pH, and wherein step (e) comprises increasing the pH of the solution to above an equilibrium pH. (a) introducing the solution containing the dissolved materials into a reactor, (b) causing the dissolved materials in the solution to precipitate into crystals under first reaction conditions, (c) adjusting the reaction condition in the reactor or in a portion of the reactor from the first reaction conditions to second reaction conditions, (d) maintaining the second reaction conditions in the reactor or in a portion of the reactor for a period of time sufficient to cause a sub-population of the crystals to dissolve, wherein the subpopulation of the crystals comprises fine crystals having diameters of less than about 100 microns, (e) adjusting the reaction condition in the reactor or in a portion of the reactor from the second reaction conditions to the first reaction conditions,
A system comprising: an elongated catheter comprising a proximal end configured for operative coupling to an electrical supply module, a distal end with a first electrical connector (4, 33) and a first conducting wire to electrically couple the electrical supply module with the first electrical connector; and an implant having a proximal connecting hub configured to detachably mount to the distal end of the elongated catheter by rotation of the elongated catheter relative to the proximal connecting hub, a second electrical connector configured to mate with the first electrical connector, and an active module electrically coupled to the second electrical connector through a second conducting wire, characterized in that the first electrical connector (4, 33) is rotatably mounted to the distal end of the elongated catheter for rotation about a longitudinal axis of the elongated catheter and the second electrical connector is non-rotatably attached to the proximal connecting hub of the implant such that the elongated catheter can be rotated relative to the implant to detach the elongated catheter from the implant without rotation of the first electrical connector relative to the second electrical connector. an elongated catheter comprising a proximal end configured for operative coupling to an electrical supply module, a distal end with a first electrical connector (4, 33) and a first conducting wire to electrically couple the electrical supply module with the first electrical connector; and an implant having a proximal connecting hub configured to detachably mount to the distal end of the elongated catheter by rotation of the elongated catheter relative to the proximal connecting hub, a second electrical connector configured to mate with the first electrical connector, and an active module electrically coupled to the second electrical connector through a second conducting wire, characterized in that the first electrical connector (4, 33) is rotatably mounted to the distal end of the elongated catheter for rotation about a longitudinal axis of the elongated catheter and the second electrical connector is non-rotatably attached to the proximal connecting hub of the implant such that the elongated catheter can be rotated relative to the implant to detach the elongated catheter from the implant without rotation of the first electrical connector relative to the second electrical connector.
An ophthalmic composition for use in a method for treating an ocular condition comprising a physiologically effective amount of an androgen which is testosterone and castor oil.
A surface-coated cutting tool comprising a base material and a coating formed on the base material, said coating including at least an inner layer and an outer layer, said inner layer being a single layer or a multilayer stack constituted of two or more layers made of at least one element selected from the group consisting of group IVa elements, group Va elements, group VIa elements in the periodic table, Al, and Si, or a compound of at least one element selected from the group consisting of group IVa elements, group Va elements, group VIa elements in the periodic table, Al, and Si and at least one element selected from the group consisting of carbon, nitrogen, oxygen, and boron, and said outer layer including α-aluminum oxide as a main component and exhibiting an equivalent peak intensity PR of a plane of x-ray diffraction of larger than 1.3, characterized in that said outer layer includes α-aluminum oxide crystal grains, at least 50% of α-aluminum oxide crystal grains located in a surface of said outer layer in a cross section of said surface-coated cutting tool cut along a plane including a normal to a surface of said coating satisfies a condition that a tangent intersection angle between intersecting tangents is not less than 100° and not more than 170°, where one of the intersecting tangents extends from a deepest point of a depression formed by one combination of two said α-aluminum oxide crystal grains adjacent to each other among three said α-aluminum oxide crystal grains adjacent to each other and located in the surface of said outer layer, and the other of the intersecting tangents extends from a deepest point of a depression formed by the other combination of two said α aluminum oxide crystal grains adjacent to each other among said three α-aluminum oxide crystal grains.