mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: accessing workflow data that represents a workflow comprising an ordered set of documents, wherein the workflow data comprises data indicating (a) a plurality of documents and (b) an ordering for the plurality of documents within the workflow; wherein the ordering is neither alphabetical nor date-based; detecting a change in data stored in or output by a first document in the plurality of documents; based on the workflow data, for a second document in the plurality of documents that is ordered after the first document, determining that the second document is dependent upon the data stored in or output by at least the first document; responsive to detecting the change, and further responsive to determining that the second document is dependent upon data stored in or output by at least the first document, updating the second document to reflect the change in the data stored in or output by the first document; and based on the workflow data, displaying in a graphical user interface a representation of the workflow; receiving, via the graphical user interface, input indicating an action to perform with respect to at least the second document; and in response to the input, causing the action to be performed with respect to at least the updated second document; wherein the method is performed by one or more computing devices. accessing workflow data that represents a workflow comprising an ordered set of documents, wherein the workflow data comprises data indicating (a) a plurality of documents and (b) an ordering for the plurality of documents within the workflow; wherein the ordering is neither alphabetical nor date-based; detecting a change in data stored in or output by a first document in the plurality of documents; based on the workflow data, for a second document in the plurality of documents that is ordered after the first document, determining that the second document is dependent upon the data stored in or output by at least the first document; responsive to detecting the change, and further responsive to determining that the second document is dependent upon data stored in or output by at least the first document, updating the second document to reflect the change in the data stored in or output by the first document; and based on the workflow data, displaying in a graphical user interface a representation of the workflow; receiving, via the graphical user interface, input indicating an action to perform with respect to at least the second document; and in response to the input, causing the action to be performed with respect to at least the updated second document; wherein the method is performed by one or more computing devices.
An optical coherence tomography, OCT, method comprising the step of: operating a data acquisition processor of an OCT system to acquire a 3-D data set of a fundus, characterised in that the method further comprises the steps of: deriving a 2-D fundus intensity image from the 3-D data set in real time; and displaying the 2-D fundus intensity image on a display screen to provide immediate feedback to an operator. operating a data acquisition processor of an OCT system to acquire a 3-D data set of a fundus, characterised in that the method further comprises the steps of: deriving a 2-D fundus intensity image from the 3-D data set in real time; and displaying the 2-D fundus intensity image on a display screen to provide immediate feedback to an operator. deriving a 2-D fundus intensity image from the 3-D data set in real time; and displaying the 2-D fundus intensity image on a display screen to provide immediate feedback to an operator.
A battery module (202, 302) comprising: a cell casing; a plurality of battery cells (204, 310) disposed within the cell casing, the battery cells (204, 310) respectively having terminals (318, 632), the terminals (318, 632) having top and peripheral side portions; and at least one buss bar segment (309, 628) that provides an electrical connection between a group of the battery cells (204, 310), the at least one buss bar segment (309, 628) being extended across longitudinal ends of the group of battery cells (204, 310) to contact the tops of the terminals (318, 632), and characterized in that the terminals (318, 632) comprise at least two peripheral sides, and the at least one buss bar segment (309, 628) comprises protrusions that contact the terminals (318, 632), the protrusions having a first side and a second side that are substantially aligned with the at least two peripheral sides of the terminals (318, 632), and a laser weld is established between the terminals (318, 632) and the at least one buss bar segment (309, 628) by directing a laser towards a circumferential face of the peripheral sides of the terminals. a cell casing; a plurality of battery cells (204, 310) disposed within the cell casing, the battery cells (204, 310) respectively having terminals (318, 632), the terminals (318, 632) having top and peripheral side portions; and at least one buss bar segment (309, 628) that provides an electrical connection between a group of the battery cells (204, 310), the at least one buss bar segment (309, 628) being extended across longitudinal ends of the group of battery cells (204, 310) to contact the tops of the terminals (318, 632), and characterized in that the terminals (318, 632) comprise at least two peripheral sides, and the at least one buss bar segment (309, 628) comprises protrusions that contact the terminals (318, 632), the protrusions having a first side and a second side that are substantially aligned with the at least two peripheral sides of the terminals (318, 632), and a laser weld is established between the terminals (318, 632) and the at least one buss bar segment (309, 628) by directing a laser towards a circumferential face of the peripheral sides of the terminals.
A gas isolation valve comprising: a housing with at least one inlet and at least one outlet; a valve member located within the housing and being moveable between between first open and second closed positions for controlling, in use, the flow of a fluid from the inlet to the outlet of the valve; at least two spaced-apart valve seats (110a, 110b) in which the valve member is seated so as to form a cavity bounded by the valve seats, an exterior surface of the valve member and an interior surface of the housing; a first conduit extending between the exterior of the housing and the cavity; and a second conduit extending between the cavity and a bore of the valve member, through which conduits, in use, a purge gas can be introduced into the cavity and bore; wherein the valve member is rotatable between the first and second positions such that the bore aligns with the inlet and the outlet in the first position; characterised that the purge gas is dead-headed by the closed valve when the valve member is in the second position and wherein if the isolation valve is damaged, for example from a scratch on the ball or a corroded valve seat and/or o-ring, harmless inert gas rather than the harmful process gas will leak from the cavity and through the damaged area. a housing with at least one inlet and at least one outlet; a valve member located within the housing and being moveable between between first open and second closed positions for controlling, in use, the flow of a fluid from the inlet to the outlet of the valve; at least two spaced-apart valve seats (110a, 110b) in which the valve member is seated so as to form a cavity bounded by the valve seats, an exterior surface of the valve member and an interior surface of the housing; a first conduit extending between the exterior of the housing and the cavity; and a second conduit extending between the cavity and a bore of the valve member, through which conduits, in use, a purge gas can be introduced into the cavity and bore; wherein the valve member is rotatable between the first and second positions such that the bore aligns with the inlet and the outlet in the first position; characterised that the purge gas is dead-headed by the closed valve when the valve member is in the second position and wherein if the isolation valve is damaged, for example from a scratch on the ball or a corroded valve seat and/or o-ring, harmless inert gas rather than the harmful process gas will leak from the cavity and through the damaged area.
A mouthpiece (135; 335) for a vaporizer device, comprising: a vapor inlet and an aerosol outlet; a first plurality of air inlets disposed between the vapor inlet and the aerosol outlet and configured to provide a first plurality of air streams, the first plurality of air streams forming a first vortex, the first vortex having a first axis of rotation and a first direction of rotation about the first axis of rotation; and a second plurality of air inlets disposed between the vapor inlet and the aerosol outlet and configured to provide a second plurality of air streams, the second plurality of air streams forming a second vortex, the second vortex having a second axis of rotation and a second direction of rotation about the second axis of rotation, wherein the first plurality of air streams and the second plurality of air streams are configured to mix with a vapor entering from the vapor inlet and to form an aerosol exiting through the aerosol outlet. a vapor inlet and an aerosol outlet; a first plurality of air inlets disposed between the vapor inlet and the aerosol outlet and configured to provide a first plurality of air streams, the first plurality of air streams forming a first vortex, the first vortex having a first axis of rotation and a first direction of rotation about the first axis of rotation; and a second plurality of air inlets disposed between the vapor inlet and the aerosol outlet and configured to provide a second plurality of air streams, the second plurality of air streams forming a second vortex, the second vortex having a second axis of rotation and a second direction of rotation about the second axis of rotation, wherein the first plurality of air streams and the second plurality of air streams are configured to mix with a vapor entering from the vapor inlet and to form an aerosol exiting through the aerosol outlet.
A method for producing a coated active material, the coated active material being provided with an active material and a coating layer containing a sulfide solid electrolyte, said method comprising the steps of: a preparation step of preparing a raw material composition containing the active material and the sulfide solid electrolyte, and a kneading step of rotating and revolving a closed vessel having only the raw material composition and forming the coating layer on a surface of the active material, wherein a centrifugal acceleration caused by the rotating and revolving is within a range of 350 G to 500 G. a preparation step of preparing a raw material composition containing the active material and the sulfide solid electrolyte, and a kneading step of rotating and revolving a closed vessel having only the raw material composition and forming the coating layer on a surface of the active material, wherein a centrifugal acceleration caused by the rotating and revolving is within a range of 350 G to 500 G.
A method for measuring velocity and depth of water flowing in a channel, comprising: transmitting, using a transmitter, directed energy comprising a single energy beam slant-wise toward a surface of water in a channel producing off said surface a plurality of reflections, wherein the transmitting comprises modulating a frequency associated with the single energy beam; detecting, at a receiver, received signals from the plurality of reflections of the transmitted energy beam; characterized in that the method further comprises: operatively coupling each of transmit and receive antennas, to a voltage controlled oscillator operating in both continuous wave and frequency modulated continuous wave (FMCW) modes; controlling the voltage controlled oscillators by means of ramping phase locked loops producing pulse trains comprising a set of linear FM chirps; controlling the ramping phase locked loops to produce, alternately, frequency modulated continuous wave (FMCW) chirped transmit signals and continuous wave signals which are transmitted alternately on the same energy beam, whereby the continuous wave signals are used in measuring the water surface velocity and the frequency modulated continuous wave (FMCW) signals are used in measuring the water depth. transmitting, using a transmitter, directed energy comprising a single energy beam slant-wise toward a surface of water in a channel producing off said surface a plurality of reflections, wherein the transmitting comprises modulating a frequency associated with the single energy beam; detecting, at a receiver, received signals from the plurality of reflections of the transmitted energy beam; characterized in that the method further comprises: operatively coupling each of transmit and receive antennas, to a voltage controlled oscillator operating in both continuous wave and frequency modulated continuous wave (FMCW) modes; controlling the voltage controlled oscillators by means of ramping phase locked loops producing pulse trains comprising a set of linear FM chirps; controlling the ramping phase locked loops to produce, alternately, frequency modulated continuous wave (FMCW) chirped transmit signals and continuous wave signals which are transmitted alternately on the same energy beam, whereby the continuous wave signals are used in measuring the water surface velocity and the frequency modulated continuous wave (FMCW) signals are used in measuring the water depth. operatively coupling each of transmit and receive antennas, to a voltage controlled oscillator operating in both continuous wave and frequency modulated continuous wave (FMCW) modes; controlling the voltage controlled oscillators by means of ramping phase locked loops producing pulse trains comprising a set of linear FM chirps; controlling the ramping phase locked loops to produce, alternately, frequency modulated continuous wave (FMCW) chirped transmit signals and continuous wave signals which are transmitted alternately on the same energy beam, whereby the continuous wave signals are used in measuring the water surface velocity and the frequency modulated continuous wave (FMCW) signals are used in measuring the water depth.
A process for reduction or elimination of scale during wet-process phosphoric acid production comprising adding at any step of a wet-process phosphoric acid production stream, a scale inhibiting amount of a reagent comprising a polymer which is a polyamine selected from the group consisting of: i) poly-diallyl dimethyl ammonium chloride; ii) polyethyleneimine derivatives; iii) a linear or branched polyamine according to Formula II wherein n = an integer from 2 to 200; R 1 is chosen from H, C 1 -C 12 alkyl, or C 6 -C 12 aryl; and R 2 is chosen from H, C 1 -C 10 alkyl, C 6 -C 10 aryl, or where R 1, R 2, and n are as defined for Formula II; and iv) mixtures thereof, wherein said scale inhibiting amount corresponds to a ratio of the mass of the reagent to the mass of phosphoric acid of from 10 g/t to 1000 g/t. n = an integer from 2 to 200; R 1 is chosen from H, C 1 -C 12 alkyl, or C 6 -C 12 aryl; and R 2 is chosen from H, C 1 -C 10 alkyl, C 6 -C 10 aryl, or where R 1, R 2, and n are as defined for Formula II; and iv) mixtures thereof,
An implantable medical device, comprising: an implantable housing; and a pulse generator carried by the housing, the pulse generator being programmed with instructions that, when executed: receive at least one patient-specific therapy signal parameter; direct a patient therapy signal to a signal delivery device in accordance with the at least one patient-specific therapy signal parameter; based at least on the at least one patient-specific therapy signal parameter, determine a discharge rate for a battery of the implantable medical device; based at least in part on the discharge rate, determine a therapy run time; and based at least in part on the therapy run time, determine at least one battery charging parameter, and charging the battery of the implantable medical device using the determined at least one battery charging parameter. an implantable housing; and a pulse generator carried by the housing, the pulse generator being programmed with instructions that, when executed: receive at least one patient-specific therapy signal parameter; direct a patient therapy signal to a signal delivery device in accordance with the at least one patient-specific therapy signal parameter; based at least on the at least one patient-specific therapy signal parameter, determine a discharge rate for a battery of the implantable medical device; based at least in part on the discharge rate, determine a therapy run time; and based at least in part on the therapy run time, determine at least one battery charging parameter, and charging the battery of the implantable medical device using the determined at least one battery charging parameter. receive at least one patient-specific therapy signal parameter; direct a patient therapy signal to a signal delivery device in accordance with the at least one patient-specific therapy signal parameter; based at least on the at least one patient-specific therapy signal parameter, determine a discharge rate for a battery of the implantable medical device; based at least in part on the discharge rate, determine a therapy run time; and based at least in part on the therapy run time, determine at least one battery charging parameter, and charging the battery of the implantable medical device using the determined at least one battery charging parameter.
An apparatus for acting as a machine-to-machine, M2M, server, the apparatus comprising a processor and a memory (44, 46), the apparatus further including computer-executable instructions stored in the memory of the apparatus which, when executed by the processor of the apparatus, cause the apparatus to: receive a message comprising an indication an application entity, AE, has undergone a mobility event and further comprising updated AE contact information for the AE applicable after the mobility event, the mobility event corresponding to a change in a registration point for the AE from one service layer entity to a different service layer entity, the message generated by the different service layer entity; assign the updated AE contact information to the AE for services targeting the AE; determine one or more service layer entities affected by the AE mobility event; and transmit, to the one or more service layer entities, a notification message comprising a notification of the AE mobility event. receive a message comprising an indication an application entity, AE, has undergone a mobility event and further comprising updated AE contact information for the AE applicable after the mobility event, the mobility event corresponding to a change in a registration point for the AE from one service layer entity to a different service layer entity, the message generated by the different service layer entity; assign the updated AE contact information to the AE for services targeting the AE; determine one or more service layer entities affected by the AE mobility event; and transmit, to the one or more service layer entities, a notification message comprising a notification of the AE mobility event.
An image processing apparatus for generating a restored image, comprising: a blur kernel estimator configured to estimate a blur kernel of a first image using the first image and a second image, wherein the first image comprises multi-channel color image data, and the second image is of the same scene as the first image and is obtained with a shorter exposure time than the first image; and an image restorer configured to generate a blurred image of the second image using the blur kernel, and to generate a restored image using residual images between images for respective channels of the first image and the blurred image of the second image, the second image, and the blur kernel, CHARACTERISED IN THAT the second image comprises single-channel image data, and in that the blur kernel estimator comprises a channel unification processor configured to perform a channel unification, wherein the channel unification processor converts, in response to receiving a multi-channel image signal, the multi-channel image signal into a gray-scale image, generates edge images for respective channels of the multi-channel image signal, and synthesizes the gray-scale image with the edge images to generate a single-channel image in which edge data for the respective channels is kept up, and the first image is subjected to the channel unification by the channel unification processor to estimate the blur kernel in the blur kernel estimator. a blur kernel estimator configured to estimate a blur kernel of a first image using the first image and a second image, wherein the first image comprises multi-channel color image data, and the second image is of the same scene as the first image and is obtained with a shorter exposure time than the first image; and the first image comprises multi-channel color image data, and the second image is of the same scene as the first image and is obtained with a shorter exposure time than the first image; and an image restorer configured to generate a blurred image of the second image using the blur kernel, and to generate a restored image using residual images between images for respective channels of the first image and the blurred image of the second image, the second image, and the blur kernel, CHARACTERISED IN THAT the second image comprises single-channel image data, and in that the blur kernel estimator comprises a channel unification processor configured to perform a channel unification, wherein the channel unification processor converts, in response to receiving a multi-channel image signal, the multi-channel image signal into a gray-scale image, generates edge images for respective channels of the multi-channel image signal, and synthesizes the gray-scale image with the edge images to generate a single-channel image in which edge data for the respective channels is kept up, and the first image is subjected to the channel unification by the channel unification processor to estimate the blur kernel in the blur kernel estimator.
A construct, comprising an expression cassette which comprises (i) a first promoter operably linked to a first polynucleotide and (ii) a second promoter operably linked to a second polynucleotide, wherein neither the first nor the second polynucleotide is operably linked to a terminator, wherein said construct produces nucleic acid molecules that prevent or reduce expression of a gene or of a gene product, and wherein (a) the first polynuleotide comprises a sequence of at least 23 contiguous nucleotides that shares sequence identity with a target gene a regulatory element that is associated with the target gene, an exon of the target gene, an intron of the target gene, a 5'-untranslated region of the target gene, and/or the 3' untranslated region of the target gene, (b) the second polynucleotide is oriented as an inverted repeat copy of the first polynucleotide, and (c) the first promoter and the second promoter are oriented so as to introduce convergent transcription of the first polynucleotide and the second polynucleotide.
A multi-path interfolding apparatus for multifold towels said apparatus producing either three-panel products or four-panel products within one apparatus, said apparatus having two web paths (118, 120) through the apparatus, with both web paths (118, 120) feeding a common set of interfolding rolls, so that threading a web material through a first web path results in the three-panel product and threading the web material through the second web path results in the four-panel product.