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Dive into the research topics where Diego Jose Lucero is active.

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Featured researches published by Diego Jose Lucero.


IEEE Transactions on Plasma Science | 2010

Genesis: A 5-MA Programmable Pulsed-Power Driver for Isentropic Compression Experiments

Steven F. Glover; Larry X. Schneider; Kim W. Reed; Gary Pena; J.-P. Davis; C. A. Hall; R.J. Hickman; K.C. Hodge; J.M. Lehr; Diego Jose Lucero; D. H. McDaniel; J. G. Puissant; Joseph M. Rudys; M. E. Sceiford; S.J. Tullar; D. M. Van De Valde; Forest Eugene White

Enabling technologies are being developed at Sandia National Laboratories to improve the performance and flexibility of compact pulsed power drivers for magnetically driven dynamic materials properties research. We have designed a modular system capable of precision current pulse shaping through the selective triggering of pulse forming components into a disk transmission line feeding a strip line load. The system is comprised of two hundred and forty 200 kV, 60 kA modules in a low inductance configuration capable of producing 250–350 kbar of magnetic pressure in a 1.75 nH, 20 mm wide strip line load. The system, called Genesis, measures approximately 5 meters in diameter and is capable of producing shaped currents greater than 5 MA. This performance is enabled through the use of a serviceable solid dielectric insulator system which minimizes the system inductance and reduces the stored energy and operating voltage requirements. Genesis can be programmed by the user to generate precision pulse shapes with rise times of 220–500 ns, allowing characterization of a range of materials from tungsten to polypropylene. This paper provides an overview of the Genesis design including the use of genetic optimization to shape currents through selective module triggering.


ieee international pulsed power conference | 2009

Genesis: A 5 MA programmable pulsed power driver for Isentropic Compression Experiments

Steven F. Glover; Larry X. Schneider; Kim W. Reed; Gary Pena; J.-P. Davis; C. A. Hall; R.J. Hickman; K.C. Hodge; J.M. Lehr; Diego Jose Lucero; D. H. McDaniel; J. G. Puissant; Joseph M. Rudys; M. E. Sceiford; S.J. Tullar; D. M. Van De Valde; Forest Eugene White

Enabling technologies are being developed at Sandia National Laboratories to improve the performance and flexibility of compact pulsed-power drivers for magnetically driven dynamic materials properties research. We have designed a modular system that is capable of precision current pulse shaping through the selective triggering of pulse-forming components into a disk transmission line feeding a strip line load. The system is composed of 240 200-kV 60-kA modules in a low-inductance configuration that is capable of producing 250-350 kbar of magnetic pressure in a 1.75-nH 20-mm-wide strip line load. The system, called Genesis , measures approximately 5 m in diameter and is capable of producing shaped currents that are greater than 5 MA. This performance is enabled through the use of a serviceable solid-dielectric insulator system which minimizes the system inductance and reduces the stored energy and operating voltage requirements. Genesis can be programmed by the user to generate precision pulse shapes with rise times of 220-500 ns, allowing characterization of a range of materials from tungsten to polypropylene. This paper provides an overview of the Genesis design, including the use of genetic optimization to shape currents through selective module triggering.


ieee international pulsed power conference | 2011

Status of genesis a 5 MA programmable pulsed power driver

Steven F. Glover; Forest Eugene White; P. J. Foster; Diego Jose Lucero; Larry X. Schneider; Kim W. Reed; Gary Pena; J.-P. Davis; C. A. Hall; R.J. Hickman; K.C. Hodge; R.W. Lemke; J.M. Lehr; D. H. McDaniel; J. G. Puissant; Joseph M. Rudys; M. E. Sceiford; S.J. Tullar; D. Van De Valde

Genesis is a compact pulsed power platform designed by Sandia National Laboratories to generate precision shaped multi-MA current waves with a rise time of 200–500 ns. In this system, two hundred and forty, 200 kV, 80 kA modules are selectively triggered to produce 280 kbar of magnetic pressure (>500 kbar pressure in high Z materials) in a stripline load for dynamic materials properties research. This new capability incorporates the use of solid dielectrics to reduce system inductance and size, programmable current shaping, and gas switches that must perform over a large range of operating conditions. Research has continued on this technology base with a focus on demonstrating the integrated performance of key concepts into a Genesis-like prototype called Protogen. Protogen measures approximately 1.4 m by 1.4 m and is designed to hold twelve Genesis modules. A fixed inductance load will allow rep-rate operation for component reliability and system lifetime experiments at the extreme electric field operating conditions expected in Genesis.


IEEE Transactions on Plasma Science | 2012

Status of Genesis a 5-MA Programmable Pulsed Power Driver

Steven F. Glover; Forest Eugene White; P. J. Foster; Diego Jose Lucero; Larry X. Schneider; Kim W. Reed; Gary Pena; Jean-Paul Davis; C. A. Hall; R.J. Hickman; K.C. Hodge; R.W. Lemke; J.M. Lehr; D. H. McDaniel; J. G. Puissant; Joseph M. Rudys; M. E. Sceiford; S.J. Tullar; D. M. Van De Valde

Genesis is a compact pulsed power platform designed by Sandia National Laboratories to generate precision shaped multi-MA current waves with a rise time of 200-500 ns. In this system, two hundred and forty, 200 kV, 80 kA modules are selectively triggered to produce 280 kbar of magnetic pressure (>;500 kbar pressure in high Z materials) in a stripline load for dynamic materials properties research. This new capability incorporates the use of solid dielectrics to reduce system inductance and size, programmable current shaping, and gas switches that must perform over a large range of operating conditions. Research has continued on this technology base with a focus on demonstrating the integrated performance of key concepts into a Genesis-like prototype called Protogen. Protogen measures approximately 1.4 m by 1.4 m and is designed to hold 12 Genesis modules. A fixed inductance load will allow rep-rate operation for component reliability and system lifetime experiments at the extreme electric field operating conditions expected in Genesis.


ieee international pulsed power conference | 2011

Impact of time-varying loads on the programmable pulsed power driver called genesis

Steven F. Glover; J.-P. Davis; Larry X. Schneider; Kim W. Reed; Gary Pena; C. A. Hall; H.L. Hanshaw; R.J. Hickman; K.C. Hodge; R.W. Lemke; J.M. Lehr; Diego Jose Lucero; D. H. McDaniel; J. G. Puissant; Joseph M. Rudys; M. E. Sceiford; S.J. Tullar; D. Van De Valde; Forest Eugene White; Larry K. Warne; R. S. Coats; William A. Johnson

The success of dynamic materials properties research at Sandia National Laboratories has led to research into ultra-low impedance, compact pulsed power systems capable of multi-MA shaped current pulses with rise times ranging from 220–500 ns. The Genesis design consists of two hundred and forty 200 kV, 80 kA modules connected in parallel to a solid dielectric disk transmission line and is capable of producing 280 kbar of magnetic pressure (>500 kbar pressure in high Z materials) in a 1.75 nH, 20 mm wide stripline load. Stripline loads operating under these conditions expand during the experiment resulting in a time-varying load that can impact the performance and lifetime of the system. This paper provides analysis of time-varying stripline loads and the impact of these loads on system performance. Further, an approach to reduce dielectric stress levels through active damping is presented as a means to increase system reliability and lifetime.


IEEE Transactions on Plasma Science | 2012

Impact of Time-Varying Loads on the Programmable Pulsed Power Driver Called Genesis

Steven F. Glover; Jean-Paul Davis; Larry X. Schneider; Kim W. Reed; Gary Pena; C. A. Hall; Heath L. Hanshaw; R.J. Hickman; K.C. Hodge; R.W. Lemke; J.M. Lehr; Diego Jose Lucero; D. H. McDaniel; J. G. Puissant; Joseph M. Rudys; M. E. Sceiford; S.J. Tullar; D. M. Van De Valde; Forest Eugene White; Larry K. Warne; R. S. Coats; William A. Johnson

The success of dynamic materials properties research at Sandia National Laboratories has led to research into ultralow impedance, compact pulsed power systems capable of multi-MA shaped current pulses with rise times ranging from 220 to 500 ns. The Genesis design consists of two hundred and forty 200 kV, 80 kA modules connected in parallel to a solid dielectric disk transmission line and is capable of producing 280 kbar of magnetic pressure (>; 500 kbar pressure in high Z materials) in a 1.75 nH, 20-mm wide stripline load. Stripline loads operating under these conditions expand during the experiment resulting in a time-varying load that can impact the performance and lifetime of the system. This paper provides analysis of time-varying stripline loads and the impact of these loads on system performance. Further, an approach to reduce dielectric stress levels through active damping is presented as a means to increase system reliability and lifetime.


Archive | 2018

Current Loss in 0.1 - 100 Terawatt Vacuum Transmission Lines: Experiments and Simulations.

Brian Thomas Hutsel; Jacy Nicole Gansz; Deanna M. Jaramillo; Diego Jose Lucero; James Moore; David Rose; W. A. Stygar


Physical review accelerators and beams | 2016

Conceptual design of a pulsed-power accelerator optimized for megajoule-class 1-TPa dynamic-material-physics experiments

W. A. Stygar; David Barton Reisman; Brian Stoltzfus; Kevin N. Austin; John F. Benage; Eric Wayne Breden; Rodney Cooper; Michael Edward Cuneo; Jean Paul Davis; J. B. Ennis; Paul D. Gard; G. W. Greiser; Frederick Rusticus Gruner; Thomas A. Haill; Brian Thomas Hutsel; Peter Jones; K. R. LeChien; Joshua J. Leckbee; Diego Jose Lucero; G. Randall McKee; James Moore; Thomas D. Mulville; David J. Muron; Seth Root; M. E. Savage; M. E. Sceiford; Rick B. Spielman; E.M. Waisman; M. Wisher


Archive | 2014

Fundamental studies on initiation and evolution of multi-channel discharges and their application to next generation pulsed power machines.

Jens Schwarz; M. E. Savage; Diego Jose Lucero; Deanna M. Jaramillo; Kelly Gene Seals; Todd Alan Pitts; Brenna M. Hautzenroeder; Mark Richard Laine; David B. Karelitz; John L. Porter


Archive | 2012

High Power Switches for LTDs.

Jens Schwarz; M. E. Savage; Diego Jose Lucero; J. R. Woodworth

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M. E. Sceiford

Sandia National Laboratories

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C. A. Hall

Sandia National Laboratories

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D. H. McDaniel

Sandia National Laboratories

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Gary Pena

Sandia National Laboratories

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Joseph M. Rudys

Sandia National Laboratories

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K.C. Hodge

Sandia National Laboratories

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Kim W. Reed

Sandia National Laboratories

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Larry X. Schneider

Sandia National Laboratories

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Steven F. Glover

Sandia National Laboratories

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