mhurhangee/ep-ind-claims huggingface dataset:
A detector module for a positron emission tomography system, said detector module being characterized by: an optical transceiver for receiving an optical data stream from a PET processing system, the data stream including a pulse train carrying a command to generate sync/reset pulses; a synchronization circuitry configured to: simultaneously jitter clean the pulse train and one of: count the pulses of the pulse train; and, monitor the pulse train for a missing pulse; and, in response to counting a predetermined number of pulses or detecting the missing pulse, extract a jitter clean pulse from the pulse train to generate a jitter clean sync/reset pulse; and, an internal clock for receiving the jitter clean sync/reset pulse. an optical transceiver for receiving an optical data stream from a PET processing system, the data stream including a pulse train carrying a command to generate sync/reset pulses; a synchronization circuitry configured to: simultaneously jitter clean the pulse train and one of: count the pulses of the pulse train; and, monitor the pulse train for a missing pulse; and, in response to counting a predetermined number of pulses or detecting the missing pulse, extract a jitter clean pulse from the pulse train to generate a jitter clean sync/reset pulse; and, simultaneously jitter clean the pulse train and one of: count the pulses of the pulse train; and, monitor the pulse train for a missing pulse; and, count the pulses of the pulse train; and, monitor the pulse train for a missing pulse; and, in response to counting a predetermined number of pulses or detecting the missing pulse, extract a jitter clean pulse from the pulse train to generate a jitter clean sync/reset pulse; and, an internal clock for receiving the jitter clean sync/reset pulse.
An apparatus comprising: a remotely operable vehicle that is configured to be submersible into an interior of a transformer tank that includes an electrical transformer submerged in a liquid coolant, the remotely operable vehicle including: a propulsion system with one or more motors for propelling the remotely operable vehicle through the liquid coolant; a signal receiver structured to receive a command through a liquid environment of the liquid coolant from a remote control station; characterized in that the apparatus comprises: a plurality of cameras fixed on the remotely operable vehicle in position relative to one another with an overlapping field of view, each of the plurality of camera being operable to produce a video stream; a processing device configured to determine an observation position of the remotely operable vehicle in the liquid environment based on telemetry data from the remotely operable vehicle and a model of a structure that contains the liquid environment; and a transmitter (68, 74a, 74b, 74c) configured to transmit the video streams to the processing device, the processing device being further configured to process the video streams to output a three dimensional field of view based on the video streams. a propulsion system with one or more motors for propelling the remotely operable vehicle through the liquid coolant; a signal receiver structured to receive a command through a liquid environment of the liquid coolant from a remote control station; characterized in that the apparatus comprises: a plurality of cameras fixed on the remotely operable vehicle in position relative to one another with an overlapping field of view, each of the plurality of camera being operable to produce a video stream; a processing device configured to determine an observation position of the remotely operable vehicle in the liquid environment based on telemetry data from the remotely operable vehicle and a model of a structure that contains the liquid environment; and a transmitter (68, 74a, 74b, 74c) configured to transmit the video streams to the processing device, the processing device being further configured to process the video streams to output a three dimensional field of view based on the video streams. a plurality of cameras fixed on the remotely operable vehicle in position relative to one another with an overlapping field of view, each of the plurality of camera being operable to produce a video stream; a processing device configured to determine an observation position of the remotely operable vehicle in the liquid environment based on telemetry data from the remotely operable vehicle and a model of a structure that contains the liquid environment; and a transmitter (68, 74a, 74b, 74c) configured to transmit the video streams to the processing device, the processing device being further configured to process the video streams to output a three dimensional field of view based on the video streams.
A recombinant microorganism expressing enzymes that catalyze a substrate to product conversion comprising: (a) acetyl-CoA and 4-hydroxybutyryl-CoA to 6-hydroxy-3-oxo-hexanoyl-CoA; malonyl-CoA and 4-hydroxybutyryl-CoA to 6-hydroxy-3-oxo-hexanoyl-CoA; and/or maloyl-ACP and 4-hydroxybutyryl-CoA to 6-hydroxy-3-oxo-hexanoyl-CoA; (b) 6-hydroxy-3-oxo-hexanoyl-CoA to 3,6-dihydroxyhexanoyl-CoA; (c) 3,6-dihydroxyhexanoyl-CoA to 6-hydroxy-2-hexenoyl-CoA; (d) 6-hydroxy-2-hexenoyl-CoA to 6-hydroxyhexanoyl-CoA; and (e) 6-hydroxyhexanoyl-CoA to 6-hydroxycaproic acid, wherein at least one of said enzymes is encoded by an exogenous nucleic acid sequence. (a) acetyl-CoA and 4-hydroxybutyryl-CoA to 6-hydroxy-3-oxo-hexanoyl-CoA; malonyl-CoA and 4-hydroxybutyryl-CoA to 6-hydroxy-3-oxo-hexanoyl-CoA; and/or maloyl-ACP and 4-hydroxybutyryl-CoA to 6-hydroxy-3-oxo-hexanoyl-CoA; (b) 6-hydroxy-3-oxo-hexanoyl-CoA to 3,6-dihydroxyhexanoyl-CoA; (c) 3,6-dihydroxyhexanoyl-CoA to 6-hydroxy-2-hexenoyl-CoA; (d) 6-hydroxy-2-hexenoyl-CoA to 6-hydroxyhexanoyl-CoA; and (e) 6-hydroxyhexanoyl-CoA to 6-hydroxycaproic acid,
Drive rod for driving a movable contact element of a high-voltage switching device, wherein said drive rod comprises a first section for connecting said drive rod to a drive mechanism, a second section for connecting said drive rod to said movable contact element, and an intermediate section between said first section and said second section, wherein said intermediate section comprises coupling means, characterized in that the coupling means rotatably couple said first section to said second section, and wherein said coupling means comprise a bearing assembly having a bearing carrier, a first axial bearing arranged on said bearing carrier, and a second axial bearing arranged on said bearing carrier, wherein said first axial bearing and/or said second axial bearing is an axial ball bearing.
A low dropout regulator that produces an output, comprising: a comparison circuit, configured to compare a signal representative of the output and a reference signal to produce a comparison result; a loop controller, coupled to the comparison circuit, configured to generate an output circuit control signal based at least in part on the comparison result; an output circuit, comprising two or more output stages, configured to adjust a number of active output stages of the two or more output stages based on the output circuit control signal; characterized by comprising: a timer check circuit, configured to compare a running time of a level of the signal representative of the output to a first reference time to produce a time check signal for adjusting the number of active output stages, wherein the running time begins when the output circuit adjusts the number of active output stages, or the running time begins when a previous comparison result changed state. a comparison circuit, configured to compare a signal representative of the output and a reference signal to produce a comparison result; a loop controller, coupled to the comparison circuit, configured to generate an output circuit control signal based at least in part on the comparison result; an output circuit, comprising two or more output stages, configured to adjust a number of active output stages of the two or more output stages based on the output circuit control signal; a timer check circuit, configured to compare a running time of a level of the signal representative of the output to a first reference time to produce a time check signal for adjusting the number of active output stages, wherein the running time begins when the output circuit adjusts the number of active output stages, or the running time begins when a previous comparison result changed state.
An aqueous liquid composition for forming functional coating films, said composition comprising a water-based medium containing water, a polymer having at least one type of groups selected from hydroxyl groups and amino groups, and phosphonobutanetricarboxylic acid, wherein the polymer is at least one polymer selected from the group consisting of a polysaccharide, polyamino acid, polyallylamine, polyvinylamine, a polyamidine, a polyethylenimine, and derivatives thereof, wherein aqueous liquid compositions are excluded which include (i) a chitosan derivative in which one or more functional groups selected from glyceryl groups, polyoxyalkylene ether groups and polyacrylic acid groups are added to a part or all of primary amino groups of chitosan, (ii) a solubilizing agent increasing solubility of chitosan having low water solubility, which solubilizing agent is selected from the group of polycarboxylic acid including citric acid, butanetetracarboxylic acid, mellitic acid, malic acid and fumaric acid, and (iii) a modified polyvinyl alcohol obtained by graft polymerization of a hydrophilic polymer to a side chain of polyvinyl alcohol, wherein aqueous liquid compositions are excluded which contain a water soluble nickel salt and a dispersing agent in the form of gelatin or carboxymethylcellulose, and wherein aqueous liquid compositions are excluded which contain sodium metasilicate, calcium chloride, magnesium sulfate, sodium bicarbonate, 2 mg/L phosphonobutanetricarboxylic acid and 20 mg/L polyvinylamine. wherein aqueous liquid compositions are excluded which include (i) a chitosan derivative in which one or more functional groups selected from glyceryl groups, polyoxyalkylene ether groups and polyacrylic acid groups are added to a part or all of primary amino groups of chitosan, (ii) a solubilizing agent increasing solubility of chitosan having low water solubility, which solubilizing agent is selected from the group of polycarboxylic acid including citric acid, butanetetracarboxylic acid, mellitic acid, malic acid and fumaric acid, and (iii) a modified polyvinyl alcohol obtained by graft polymerization of a hydrophilic polymer to a side chain of polyvinyl alcohol, wherein aqueous liquid compositions are excluded which contain a water soluble nickel salt and a dispersing agent in the form of gelatin or carboxymethylcellulose, and wherein aqueous liquid compositions are excluded which contain sodium metasilicate, calcium chloride, magnesium sulfate, sodium bicarbonate, 2 mg/L phosphonobutanetricarboxylic acid and 20 mg/L polyvinylamine.
A method of forming a multilayer injection moulded article comprising an outer skin of a first material, and a central core of a second material encapsulated by the outer skin, comprising the steps of:-injecting the first and second materials (222, 223) in a single stream into a cavity of an injection mould, with the second material encased within the first material; controlling the flow of the stream by means of flow paths (230, 231a, 231b) within the mould cavity such that both the first and second materials (222, 223) are present in at least one first area of the mould cavity and only the first material is present in at least one second area of the mould cavity, the flow paths including at least one primary flow path in the first mould cavity area, which primary flow path divides into at least two secondary flow paths (231a, 231b); wherein the resistance of a first of the secondary flow paths (231a, 231b) in the first mould cavity area is reduced relative to that of a second of the two secondary flow paths, which is in the second mould cavity area; and wherein the mould cavity is configured to form an outer member of a beverage cartridge including the first mould cavity area forming an annular wall and a secondary wall of the beverage cartridge and the second mould cavity area forms an outer end of a flange portion of the outer member.
A method comprising: storing a map of a deployment area of an autonomous mobile robot, the map containing orientation information representing the structure of the environment in the deployment area, and the map containing meta information; re-exploring at least one part of the deployment area, wherein the robot uses a sensor to detect information regarding the structure of its environment in the deployment area; updating the deployment area map, and storing the updated map for future robot deployments, wherein updating the map comprises: determining changes in the deployment area based on the information regarding the structure of the environment detected during exploring and the orientation information already stored in the map, and updating the orientation information and the meta information based on the determined changes. storing a map of a deployment area of an autonomous mobile robot, the map containing orientation information representing the structure of the environment in the deployment area, and the map containing meta information; re-exploring at least one part of the deployment area, wherein the robot uses a sensor to detect information regarding the structure of its environment in the deployment area; updating the deployment area map, and storing the updated map for future robot deployments, wherein updating the map comprises: determining changes in the deployment area based on the information regarding the structure of the environment detected during exploring and the orientation information already stored in the map, and updating the orientation information and the meta information based on the determined changes. determining changes in the deployment area based on the information regarding the structure of the environment detected during exploring and the orientation information already stored in the map, and updating the orientation information and the meta information based on the determined changes.
A synthetic crystalline material having a composition represented by the formula Bi x Ca y+2z Y 3-x-y-2z Fe 5-y-z Zr y V z O 12, x being greater than or equal to 0.5 and less than or equal to 1.4, y being greater than or equal to 0.3 and less than or equal to 0.55, and z being greater than or equal to 0 and less than or equal to 0.6.
A differential current sensor comprising: a first current conduction path having a first input terminal and a first output terminal and a second current conduction path being insulated from the first current conduction path and having a second input terminal and a second output terminal; the differential current sensor is characterised by: magnetic field sensing elements (22a, 22b) including a first sensing element to sense a magnetic field associated with a first current carried by the first current conduction path and a second sensing element to sense a magnetic field associated with a second current carried by the second current conduction path; circuitry, coupled to the magnetic field sensing elements, to provide an output signal; and wherein the output signal comprises a difference signal indicative of a difference between a magnitude of the first current and a magnitude of the second current. magnetic field sensing elements (22a, 22b) including a first sensing element to sense a magnetic field associated with a first current carried by the first current conduction path and a second sensing element to sense a magnetic field associated with a second current carried by the second current conduction path; circuitry, coupled to the magnetic field sensing elements, to provide an output signal; and wherein the output signal comprises a difference signal indicative of a difference between a magnitude of the first current and a magnitude of the second current.
A method performed by a base station, adapted for scheduling and receiving uplink transmissions from user entities, UEs, in a cell and further forwarding data related to such transmissions to a core network; the base station being adapted for transmitting an absolute grant signal on a control channel (E-AGCH) for a transmission time interval, TTI, for allowing a user entity to transmit an up-link transmission at a granted data rate on a corresponding up-link transmission time interval; wherein the method comprises the steps for said transmission time interval on the control channel, - if an absolute grant is scheduled, transmitting the absolute grant; the method being characterized in that - if an absolute grant is not scheduled, that is, being indicative of a situation in which no change in absolute grant is needed, investigating whether at least one UE in the cell is configured for receiving an absolute grant on the control channel (E-AGCH), and if this is not the case, refraining from transmitting anything; - if an absolute grant is not scheduled, that is, being indicative of a situation in which no change in absolute grant is needed, and at least one UE in the cell is configured for receiving an absolute grant on the control channel (E-AGCH), the method comprising either the step of - transmitting an absolute grant for a non-configured UE in the cell, that is, using a UE identifier that is not allocated to any UE or UE group in the cell; or the steps of- selecting an arbitrary configured UE in the cell; and - transmitting an absolute grant, which was previously transmitted at an earlier transmission time interval, to the selected UE. - if an absolute grant is scheduled, transmitting the absolute grant; the method being characterized in that - if an absolute grant is not scheduled, that is, being indicative of a situation in which no change in absolute grant is needed, investigating whether at least one UE in the cell is configured for receiving an absolute grant on the control channel (E-AGCH), and if this is not the case, refraining from transmitting anything; - if an absolute grant is not scheduled, that is, being indicative of a situation in which no change in absolute grant is needed, and at least one UE in the cell is configured for receiving an absolute grant on the control channel (E-AGCH), the method comprising either the step of - transmitting an absolute grant for a non-configured UE in the cell, that is, using a UE identifier that is not allocated to any UE or UE group in the cell; or the steps of- selecting an arbitrary configured UE in the cell; and - transmitting an absolute grant, which was previously transmitted at an earlier transmission time interval, to the selected UE.
A nonaqueous electrolyte battery comprising: a case; an electrode group provided in the case, comprising a positive electrode, a negative electrode and a separator, and the positive electrode, the negative electrode and the separator being spirally coiled; positive electrode tabs projected from the positive electrode at one end of the electrode group; and negative electrode tabs projected from the negative electrode at the one end, characterized in that the positive electrode, the negative electrode and the separator are spirally coiled in a flat form; a width of the positive electrode tabs is 25% to 95% of an innermost peripheral length of the electrode group a width of the negative electrode tabs is 25% to 95% of an innermost peripheral length of the electrode group; and a distance between the positive electrode tabs of the positive electrode and a distance between the negative electrode tabs of the negative electrode are respectively given by the following equation: 2 nπd where n is a number of a position of the positive electrode tab counted from an inner peripheral side of the electrode group or a number of a position of the negative electrode tab counted from the inner peripheral side of the electrode group, d is a sum of a thickness of the positive electrode, a thickness of the negative electrode and a thickness twice that of the separator and n is a ratio of circumference of a circle to its diameter. a case; an electrode group provided in the case, comprising a positive electrode, a negative electrode and a separator, and the positive electrode, the negative electrode and the separator being spirally coiled; positive electrode tabs projected from the positive electrode at one end of the electrode group; and negative electrode tabs projected from the negative electrode at the one end, a width of the positive electrode tabs is 25% to 95% of an innermost peripheral length of the electrode group a width of the negative electrode tabs is 25% to 95% of an innermost peripheral length of the electrode group; and a distance between the positive electrode tabs of the positive electrode and a distance between the negative electrode tabs of the negative electrode are respectively given by the following equation: 2 nπd
Process for preparing SiOC-based polyethersiloxanes proceeding from linear α,ω-hydroxy group-bearing siloxanes, characterized in that it comprises - in a first step, preparing α,ω-acetoxy group-bearing linear polysiloxanes, - in a second step, converting the α,ω-acetoxy group-bearing linear polysiloxanes with desired organosiloxane units, preferably the number of organosiloxane units in the polysiloxane chain being reduced, wherein the thus converted α,ω-acetoxy group-bearing linear polysiloxanes have α,ω-acetoxy groups, and - in a third step, reacting the α,ω-acetoxy group-bearing linear polysiloxanes from step 2 with polyetherols to give SiOC-based polyethersiloxanes. - in a first step, preparing α,ω-acetoxy group-bearing linear polysiloxanes, - in a second step, converting the α,ω-acetoxy group-bearing linear polysiloxanes with desired organosiloxane units, preferably the number of organosiloxane units in the polysiloxane chain being reduced, wherein the thus converted α,ω-acetoxy group-bearing linear polysiloxanes have α,ω-acetoxy groups, and - in a third step, reacting the α,ω-acetoxy group-bearing linear polysiloxanes from step 2 with polyetherols to give SiOC-based polyethersiloxanes.
A system for generating a 3D model of a surgical site comprising: a 3D endoscope including a camera source and a scanner; and a computing device operably coupled to the 3D endoscope and configured to: generate a 3D model of a surgical site using scan data and image data acquired by the 3D endoscope; detect a change in the surgical site; and characterised in that the computing device is further configured to isolate a region of the surgical site where the change is detected; cause the scanner to scan a surface of the isolated region to generate second scan data of the isolated region; and update the 3D model generated using the second scan data of the isolated region. a 3D endoscope including a camera source and a scanner; and a computing device operably coupled to the 3D endoscope and configured to: generate a 3D model of a surgical site using scan data and image data acquired by the 3D endoscope; detect a change in the surgical site; and characterised in that the computing device is further configured to isolate a region of the surgical site where the change is detected; cause the scanner to scan a surface of the isolated region to generate second scan data of the isolated region; and update the 3D model generated using the second scan data of the isolated region. generate a 3D model of a surgical site using scan data and image data acquired by the 3D endoscope; detect a change in the surgical site; and characterised in that the computing device is further configured to isolate a region of the surgical site where the change is detected; cause the scanner to scan a surface of the isolated region to generate second scan data of the isolated region; and update the 3D model generated using the second scan data of the isolated region.