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214 results on '"Faltens, A."'

1. Introduction to the NanoHUB Simulation Environment

Author

Faltens, Tanya and Faltens, Tanya

Abstract

This webinar, provided by the Micro Nano Technology Education Center (MNT-EC), explores micro nano technology education. In the webinar, Tanya Faltens discusses the nanoHUB simulation environment and demonstrates how educators can use and navigate nanoHUB. First, Faltens describes nanoHUB, which is an open-access cyberinfrustructure that provides nanotechnology libraries, toolboxes, workspaces, a publishing platform, and a nanotechnology online community. Faltens then highlights software requirements; simulation examples for carbon nanostructures, molecular vibrations, and biological molecules; Jupyter notebooks and biopython; and the nanoHUB dashboard. The video recording runs 55:08 minutes in length.

Published
2021

2. Induction Linac Pulsers

Author

Faltens, Andris, Faltens, Andris, Faltens, Andris, and Faltens, Andris

Published
2011

4. Induction Linac Pulsers

Author

Faltens, Andris, Faltens, Andris, Faltens, Andris, and Faltens, Andris

Published
2011

14. Progress in the development of superconducting quadrupoles for heavy ion fusion

Author

Faltens, A., Faltens, A., Lietzke, A., Sabbi, G., Seidl, P., Lund, S., Manahan, B., Martovetsky, N., Gung, C., Minervini, J., Schultz, J., Myatt, L., Meinke, R., Faltens, A., Faltens, A., Lietzke, A., Sabbi, G., Seidl, P., Lund, S., Manahan, B., Martovetsky, N., Gung, C., Minervini, J., Schultz, J., Myatt, L., and Meinke, R.

Published
2002

15. Progress in the Development of Superconducting Quadrupoles for Heavy-ion Fusion

Author

Faltens, A., Faltens, A., Lietzke, A., Sabbi, G., Seidl, P., Lund, S., Manahan, R., Martovetsky, N., Gung, C., Minervini, J., Schultz, J., Myatt, L., Meinke, R., Faltens, A., Faltens, A., Lietzke, A., Sabbi, G., Seidl, P., Lund, S., Manahan, R., Martovetsky, N., Gung, C., Minervini, J., Schultz, J., Myatt, L., and Meinke, R.

Published
2002

16. Progress in the development of superconducting quadrupoles for heavy ion fusion

Author

Faltens, A., Faltens, A., Lietzke, A., Sabbi, G., Seidl, P., Lund, S., Manahan, B., Martovetsky, N., Gung, C., Minervini, J., Schultz, J., Myatt, L., Meinke, R., Faltens, A., Faltens, A., Lietzke, A., Sabbi, G., Seidl, P., Lund, S., Manahan, B., Martovetsky, N., Gung, C., Minervini, J., Schultz, J., Myatt, L., and Meinke, R.

Published
2002

17. Progress in the Development of Superconducting Quadrupoles for Heavy-ion Fusion

Author

Faltens, A., Faltens, A., Lietzke, A., Sabbi, G., Seidl, P., Lund, S., Manahan, R., Martovetsky, N., Gung, C., Minervini, J., Schultz, J., Myatt, L., Meinke, R., Faltens, A., Faltens, A., Lietzke, A., Sabbi, G., Seidl, P., Lund, S., Manahan, R., Martovetsky, N., Gung, C., Minervini, J., Schultz, J., Myatt, L., and Meinke, R.

Published
2002

18. nanoHUB.org: A Gateway to Undergraduate Simulation-Based Research in Materials Science and Related Fields

Author

Faltens, Tanya A, Bermel, Peter A, Buckles, Amanda, Douglas, K Anna, Strachan, Alejandro H, Zentner, Lynn K, Klimeck, Gerhard, Faltens, Tanya A, Bermel, Peter A, Buckles, Amanda, Douglas, K Anna, Strachan, Alejandro H, Zentner, Lynn K, and Klimeck, Gerhard

Abstract

Our future engineers and scientists will likely be required to use advanced simulations to solve many of tomorrow's challenges in nanotechnology. To prepare students to meet this need, the Network for Computational Nanotechnology (NCN) provides simulation-focused research experiences for undergraduates at an early point in their educational path, to increase the likelihood that they will ultimately complete a doctoral program. The NCN summer research program currently serves over 20 undergraduate students per year who are recruited nationwide, and selected by NCN and the faculty for aptitude in their chosen field within STEM, as well as complementary skills such as coding and written communication. Under the guidance of graduate student and faculty mentors, undergraduates modify or build nanoHUB simulation tools for exploring interdisciplinary problems in materials science and engineering, and related fields. While the summer projects exist within an overarching research context, the specific tasks that NCN undergraduate students engage in range from modifying existing tools to building new tools for nanoHUB and using them to conduct original research. Simulation tool development takes place within nanoHUB, using nanoHUB’s workspace, computational clusters, and additional training and educational resources. One objective of the program is for the students to publish their simulation tools on nanoHUB. These tools can be accessed and executed freely from around the world using a standard web-browser, and students can remain engaged with their work beyond the summer and into their careers. In this work, we will describe the NCN model for undergraduate summer research. We believe that our model is one that can be adopted by other universities, and will discuss the potential for others to engage undergraduate students in simulation-based research using free nanoHUB resources.

Published
2015

19. nanoHUB.org: A Gateway to Undergraduate Simulation-Based Research in Materials Science and Related Fields

Author

Faltens, Tanya A, Bermel, Peter A, Buckles, Amanda, Douglas, K Anna, Strachan, Alejandro H, Zentner, Lynn K, Klimeck, Gerhard, Faltens, Tanya A, Bermel, Peter A, Buckles, Amanda, Douglas, K Anna, Strachan, Alejandro H, Zentner, Lynn K, and Klimeck, Gerhard

Abstract

Our future engineers and scientists will likely be required to use advanced simulations to solve many of tomorrow's challenges in nanotechnology. To prepare students to meet this need, the Network for Computational Nanotechnology (NCN) provides simulation-focused research experiences for undergraduates at an early point in their educational path, to increase the likelihood that they will ultimately complete a doctoral program. The NCN summer research program currently serves over 20 undergraduate students per year who are recruited nationwide, and selected by NCN and the faculty for aptitude in their chosen field within STEM, as well as complementary skills such as coding and written communication. Under the guidance of graduate student and faculty mentors, undergraduates modify or build nanoHUB simulation tools for exploring interdisciplinary problems in materials science and engineering, and related fields. While the summer projects exist within an overarching research context, the specific tasks that NCN undergraduate students engage in range from modifying existing tools to building new tools for nanoHUB and using them to conduct original research. Simulation tool development takes place within nanoHUB, using nanoHUB’s workspace, computational clusters, and additional training and educational resources. One objective of the program is for the students to publish their simulation tools on nanoHUB. These tools can be accessed and executed freely from around the world using a standard web-browser, and students can remain engaged with their work beyond the summer and into their careers. In this work, we will describe the NCN model for undergraduate summer research. We believe that our model is one that can be adopted by other universities, and will discuss the potential for others to engage undergraduate students in simulation-based research using free nanoHUB resources.

Published
2015

20. nanoHUB.org: A Gateway to Undergraduate Simulation-Based Research in Materials Science and Related Fields

Author

Faltens, Tanya A, Bermel, Peter A, Buckles, Amanda, Douglas, K Anna, Strachan, Alejandro H, Zentner, Lynn K, Klimeck, Gerhard, Faltens, Tanya A, Bermel, Peter A, Buckles, Amanda, Douglas, K Anna, Strachan, Alejandro H, Zentner, Lynn K, and Klimeck, Gerhard

Abstract

Our future engineers and scientists will likely be required to use advanced simulations to solve many of tomorrow's challenges in nanotechnology. To prepare students to meet this need, the Network for Computational Nanotechnology (NCN) provides simulation-focused research experiences for undergraduates at an early point in their educational path, to increase the likelihood that they will ultimately complete a doctoral program. The NCN summer research program currently serves over 20 undergraduate students per year who are recruited nationwide, and selected by NCN and the faculty for aptitude in their chosen field within STEM, as well as complementary skills such as coding and written communication. Under the guidance of graduate student and faculty mentors, undergraduates modify or build nanoHUB simulation tools for exploring interdisciplinary problems in materials science and engineering, and related fields. While the summer projects exist within an overarching research context, the specific tasks that NCN undergraduate students engage in range from modifying existing tools to building new tools for nanoHUB and using them to conduct original research. Simulation tool development takes place within nanoHUB, using nanoHUB’s workspace, computational clusters, and additional training and educational resources. One objective of the program is for the students to publish their simulation tools on nanoHUB. These tools can be accessed and executed freely from around the world using a standard web-browser, and students can remain engaged with their work beyond the summer and into their careers. In this work, we will describe the NCN model for undergraduate summer research. We believe that our model is one that can be adopted by other universities, and will discuss the potential for others to engage undergraduate students in simulation-based research using free nanoHUB resources.

Published
2015

21. nanoHUB.org: A Gateway to Undergraduate Simulation-Based Research in Materials Science and Related Fields

Author

Faltens, Tanya A, Bermel, Peter A, Buckles, Amanda, Douglas, K Anna, Strachan, Alejandro H, Zentner, Lynn K, Klimeck, Gerhard, Faltens, Tanya A, Bermel, Peter A, Buckles, Amanda, Douglas, K Anna, Strachan, Alejandro H, Zentner, Lynn K, and Klimeck, Gerhard

Abstract

Our future engineers and scientists will likely be required to use advanced simulations to solve many of tomorrow's challenges in nanotechnology. To prepare students to meet this need, the Network for Computational Nanotechnology (NCN) provides simulation-focused research experiences for undergraduates at an early point in their educational path, to increase the likelihood that they will ultimately complete a doctoral program. The NCN summer research program currently serves over 20 undergraduate students per year who are recruited nationwide, and selected by NCN and the faculty for aptitude in their chosen field within STEM, as well as complementary skills such as coding and written communication. Under the guidance of graduate student and faculty mentors, undergraduates modify or build nanoHUB simulation tools for exploring interdisciplinary problems in materials science and engineering, and related fields. While the summer projects exist within an overarching research context, the specific tasks that NCN undergraduate students engage in range from modifying existing tools to building new tools for nanoHUB and using them to conduct original research. Simulation tool development takes place within nanoHUB, using nanoHUB’s workspace, computational clusters, and additional training and educational resources. One objective of the program is for the students to publish their simulation tools on nanoHUB. These tools can be accessed and executed freely from around the world using a standard web-browser, and students can remain engaged with their work beyond the summer and into their careers. In this work, we will describe the NCN model for undergraduate summer research. We believe that our model is one that can be adopted by other universities, and will discuss the potential for others to engage undergraduate students in simulation-based research using free nanoHUB resources.

Published
2015

32. Developing the Physics Design for NDCX-II, a Unique Pulse Compression Ion Accelerator

Author

Friedman, A., Friedman, A., Barnard, J. J., Cohen, R. H., Grote, D. P., Lund, S. M., Sharp, W. M., Faltens, A., Henestroza, E., Jung, J-Y., Kwan, J. W., Lee, E. P., Leitner, M. A., Logan, B. G., Vay, J.-L., Waldron, W. L., Davidson, R. C., Dorf, M., Gilson, E. P., Kaganovich, I., Friedman, A., Friedman, A., Barnard, J. J., Cohen, R. H., Grote, D. P., Lund, S. M., Sharp, W. M., Faltens, A., Henestroza, E., Jung, J-Y., Kwan, J. W., Lee, E. P., Leitner, M. A., Logan, B. G., Vay, J.-L., Waldron, W. L., Davidson, R. C., Dorf, M., Gilson, E. P., and Kaganovich, I.

Published
2010

33. Design Studies for the induction cells for NDCX-II

Author

Kwan, J.W., Kwan, J.W., Faltens, A., Jung, J.Y., Lee, E.P., Leitner, M., Logan, B.G., Waldron, W.L., Friedman, A., Kwan, J.W., Kwan, J.W., Faltens, A., Jung, J.Y., Lee, E.P., Leitner, M., Logan, B.G., Waldron, W.L., and Friedman, A.

Published
2010

34. Developing the Physics Design for NDCX-II, a Unique Pulse Compression Ion Accelerator

Author

Friedman, A., Friedman, A., Barnard, J. J., Cohen, R. H., Grote, D. P., Lund, S. M., Sharp, W. M., Faltens, A., Henestroza, E., Jung, J-Y., Kwan, J. W., Lee, E. P., Leitner, M. A., Logan, B. G., Vay, J.-L., Waldron, W. L., Davidson, R. C., Dorf, M., Gilson, E. P., Kaganovich, I., Friedman, A., Friedman, A., Barnard, J. J., Cohen, R. H., Grote, D. P., Lund, S. M., Sharp, W. M., Faltens, A., Henestroza, E., Jung, J-Y., Kwan, J. W., Lee, E. P., Leitner, M. A., Logan, B. G., Vay, J.-L., Waldron, W. L., Davidson, R. C., Dorf, M., Gilson, E. P., and Kaganovich, I.

Published
2010

35. Design Studies for the induction cells for NDCX-II

Author

Kwan, J.W., Kwan, J.W., Faltens, A., Jung, J.Y., Lee, E.P., Leitner, M., Logan, B.G., Waldron, W.L., Friedman, A., Kwan, J.W., Kwan, J.W., Faltens, A., Jung, J.Y., Lee, E.P., Leitner, M., Logan, B.G., Waldron, W.L., and Friedman, A.

Published
2010

36. Plans for near-term neutralized drift compression experiments

Author

SEIDL, P.A., SEIDL, P.A., BARNARD, J.J., COLEMAN, J.E., FALTENS, A., FRIEDMAN, A., GILSON, E.P., JUNG, J.Y., LEE, E.P., LEITNER, M., WELCH, D.R., ROY, P.K., SEFKOW, A.B., VAY, J.L., WALDRON, W.L., SEIDL, P.A., SEIDL, P.A., BARNARD, J.J., COLEMAN, J.E., FALTENS, A., FRIEDMAN, A., GILSON, E.P., JUNG, J.Y., LEE, E.P., LEITNER, M., WELCH, D.R., ROY, P.K., SEFKOW, A.B., VAY, J.L., and WALDRON, W.L.

Published
2009

37. Plans for near-term neutralized drift compression experiments

Author

SEIDL, P.A., SEIDL, P.A., BARNARD, J.J., COLEMAN, J.E., FALTENS, A., FRIEDMAN, A., GILSON, E.P., JUNG, J.Y., LEE, E.P., LEITNER, M., WELCH, D.R., ROY, P.K., SEFKOW, A.B., VAY, J.L., WALDRON, W.L., SEIDL, P.A., SEIDL, P.A., BARNARD, J.J., COLEMAN, J.E., FALTENS, A., FRIEDMAN, A., GILSON, E.P., JUNG, J.Y., LEE, E.P., LEITNER, M., WELCH, D.R., ROY, P.K., SEFKOW, A.B., VAY, J.L., and WALDRON, W.L.

Published
2009

38. Critical issues for high-brightness heavy-ion beams -- prioritized

Author

Molvik, A.W., Molvik, A.W., Cohen, R., Davidson, R., Faltens, A., Friedman, A., Grisham, L., Grote, D.P., Haber, I., Kaganovich, I., Kireeff Covo, M., Kwan, J.W., Lee, E., Logan, B.G., Lund, S.M., Qin, H., Seidl, P.A., Sharp, W.M., Vay, J-L., Yu, S.S., Molvik, A.W., Molvik, A.W., Cohen, R., Davidson, R., Faltens, A., Friedman, A., Grisham, L., Grote, D.P., Haber, I., Kaganovich, I., Kireeff Covo, M., Kwan, J.W., Lee, E., Logan, B.G., Lund, S.M., Qin, H., Seidl, P.A., Sharp, W.M., Vay, J-L., and Yu, S.S.

Published
2007

39. Critical issues for high-brightness heavy-ion beams -- prioritized

Author

Molvik, A.W., Molvik, A.W., Cohen, R., Davidson, R., Faltens, A., Friedman, A., Grisham, L., Grote, D.P., Haber, I., Kaganovich, I., Kireeff Covo, M., Kwan, J.W., Lee, E., Logan, B.G., Lund, S.M., Qin, H., Seidl, P.A., Sharp, W.M., Vay, J-L., Yu, S.S., Molvik, A.W., Molvik, A.W., Cohen, R., Davidson, R., Faltens, A., Friedman, A., Grisham, L., Grote, D.P., Haber, I., Kaganovich, I., Kireeff Covo, M., Kwan, J.W., Lee, E., Logan, B.G., Lund, S.M., Qin, H., Seidl, P.A., Sharp, W.M., Vay, J-L., and Yu, S.S.

Published
2007

40. Experimental Study of the Transport Limits of Intense Heavy Ionh BeaMS in the HCX

Author

Prost, L.R., Prost, L.R., Bieniosek, F.M., Celata, C.M., Dugan, C.C., Faltens, A., Seidl, P.A., Waldron, W.L., Cohen, R., Friedman, A., Covo, M. Kireeff, Lund, S.M., Molvik, A.W., Haber, I., Prost, L.R., Prost, L.R., Bieniosek, F.M., Celata, C.M., Dugan, C.C., Faltens, A., Seidl, P.A., Waldron, W.L., Cohen, R., Friedman, A., Covo, M. Kireeff, Lund, S.M., Molvik, A.W., and Haber, I.

Published
2005

41. Highly Compressed Ion Beam for High Energy Density Science

Author

Friedman, A., Friedman, A., Barnard, J.J., Briggs, R.J., Callahan, D.A., Caporaso, G.J., Celata, C.M., Davidson, R.C., Faltens, A., Grisham, L., Grote, D.P., Henestroza, E., Kaganovich I., Lee, E.P., Lee, R.W., Leitner, M., Logan, B.G., Nelson, S.D., Olson, C.L., Penn, G., Reginato, L.R., Renk, T., Rose, D., Seessler, A., Staples, J.W., Tabak, M., Thoma, C., Waldron, W., Welch, D.R., Wurtele, J., Yu, S.S., Friedman, A., Friedman, A., Barnard, J.J., Briggs, R.J., Callahan, D.A., Caporaso, G.J., Celata, C.M., Davidson, R.C., Faltens, A., Grisham, L., Grote, D.P., Henestroza, E., Kaganovich I., Lee, E.P., Lee, R.W., Leitner, M., Logan, B.G., Nelson, S.D., Olson, C.L., Penn, G., Reginato, L.R., Renk, T., Rose, D., Seessler, A., Staples, J.W., Tabak, M., Thoma, C., Waldron, W., Welch, D.R., Wurtele, J., and Yu, S.S.

Published
2005

43. Highly Compressed Ion Beam for High Energy Density Science

Author

Friedman, A., Friedman, A., Barnard, J.J., Briggs, R.J., Callahan, D.A., Caporaso, G.J., Celata, C.M., Davidson, R.C., Faltens, A., Grisham, L., Grote, D.P., Henestroza, E., Kaganovich I., Lee, E.P., Lee, R.W., Leitner, M., Logan, B.G., Nelson, S.D., Olson, C.L., Penn, G., Reginato, L.R., Renk, T., Rose, D., Seessler, A., Staples, J.W., Tabak, M., Thoma, C., Waldron, W., Welch, D.R., Wurtele, J., Yu, S.S., Friedman, A., Friedman, A., Barnard, J.J., Briggs, R.J., Callahan, D.A., Caporaso, G.J., Celata, C.M., Davidson, R.C., Faltens, A., Grisham, L., Grote, D.P., Henestroza, E., Kaganovich I., Lee, E.P., Lee, R.W., Leitner, M., Logan, B.G., Nelson, S.D., Olson, C.L., Penn, G., Reginato, L.R., Renk, T., Rose, D., Seessler, A., Staples, J.W., Tabak, M., Thoma, C., Waldron, W., Welch, D.R., Wurtele, J., and Yu, S.S.

Published
2005

45. Experimental Study of the Transport Limits of Intense Heavy Ionh BeaMS in the HCX

Author

Prost, L.R., Prost, L.R., Bieniosek, F.M., Celata, C.M., Dugan, C.C., Faltens, A., Seidl, P.A., Waldron, W.L., Cohen, R., Friedman, A., Covo, M. Kireeff, Lund, S.M., Molvik, A.W., Haber, I., Prost, L.R., Prost, L.R., Bieniosek, F.M., Celata, C.M., Dugan, C.C., Faltens, A., Seidl, P.A., Waldron, W.L., Cohen, R., Friedman, A., Covo, M. Kireeff, Lund, S.M., Molvik, A.W., and Haber, I.

Published
2005

46. Experimental studies of electrons in a heavy-ion beam

Author

Molvik, A.W., Molvik, A.W., Cohen, R.H., Friedman, A., Covo, M. Kireeff, Lund, S.M., Westenskow, G., Bieniosek, F.M., Eylon, S., Faltens, A., Henestroza, E., Kwan, J.W., Lund, L., Prost, P.K., Roy, P.A., Seidl, P.A., Vay, J-L., Yu, S., Molvik, A.W., Molvik, A.W., Cohen, R.H., Friedman, A., Covo, M. Kireeff, Lund, S.M., Westenskow, G., Bieniosek, F.M., Eylon, S., Faltens, A., Henestroza, E., Kwan, J.W., Lund, L., Prost, P.K., Roy, P.A., Seidl, P.A., Vay, J-L., and Yu, S.

Published
2004

47. Experimental study of space-charge waves in intense heavy ion beams

Author

Bieniosek, F.M., Bieniosek, F.M., Faltens, A., Prost, L., Roy, P.K., Seidl, P.A., Eylon, S., Henestroza, E., Waldron, W., Yu, S.S., Bieniosek, F.M., Bieniosek, F.M., Faltens, A., Prost, L., Roy, P.K., Seidl, P.A., Eylon, S., Henestroza, E., Waldron, W., and Yu, S.S.

Published
2004

48. HIF driver point designs

Author

Yu, S.S., Yu, S.S., Abbott, R.P., Bangerter, R.O., Barnard, J.J., Briggs, R.J., Brown, T., Callahan, D., Celata, C.M., Davidson, R., Debonnel, C.S., Faltens, A., Friedman, A., Grote, D.P., Henestroza, E., Kaganovich, I., Kwan, J.W., Heitzenroeder, P., Latkowski, J.F., Lee, E.P., Leitner, M., Logan, B.G., Lund, S.M., Meier, W., Peterson, P.F., Rose, D., Sabbi, G.-L., Seidl, P.A., Sharp, W.M., Welch, D.R., Yu, S.S., Yu, S.S., Abbott, R.P., Bangerter, R.O., Barnard, J.J., Briggs, R.J., Brown, T., Callahan, D., Celata, C.M., Davidson, R., Debonnel, C.S., Faltens, A., Friedman, A., Grote, D.P., Henestroza, E., Kaganovich, I., Kwan, J.W., Heitzenroeder, P., Latkowski, J.F., Lee, E.P., Leitner, M., Logan, B.G., Lund, S.M., Meier, W., Peterson, P.F., Rose, D., Sabbi, G.-L., Seidl, P.A., Sharp, W.M., and Welch, D.R.

Published
2004

49. The high current transport experiment for heavy ion inertial fusion

Author

Prost, L.R., Prost, L.R., Baca, D., Bieniosek, F.M., Celata, C.M., Faltens, A., Henestroza, E., Kwan, J.W., Leitner, M., Seidl, P.A., Waldron, W.L., Cohen, R., Friedman, A., Grote, D., Lund, S.M., Molvik, A.W., Morse, E., Prost, L.R., Prost, L.R., Baca, D., Bieniosek, F.M., Celata, C.M., Faltens, A., Henestroza, E., Kwan, J.W., Leitner, M., Seidl, P.A., Waldron, W.L., Cohen, R., Friedman, A., Grote, D., Lund, S.M., Molvik, A.W., and Morse, E.

Published
2004

50. Experimental studies of electron and gas sources in a heavy-ion beam

Author

Molvik, A.W., Molvik, A.W., Cohen, R.H., Friedman, A., Kireeff Covo, M., Lund, S.M., Seidl, P.A., Bieniosek, F.M., Faltens, A., Prost, L., Molvik, A.W., Molvik, A.W., Cohen, R.H., Friedman, A., Kireeff Covo, M., Lund, S.M., Seidl, P.A., Bieniosek, F.M., Faltens, A., and Prost, L.

Published
2004

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