Development of an advanced nanocalorimetry system for material characterization

Journal of Loss Prevention in the Process Industries

Volumn 18, Issue 3, 2005, Pages 139-144

  Liu, Yen Shan ^a   Ugaz, Victor M ^a   Rogers, William J ^a   Mannan, M Sam ^a   Saraf, Sanjeev R ^b  

^a Texas AandM University   (United States)

^b IOMOSAIC CORPORATION   (United States)

Author keywords

Energetic materials; Forensics; Material characterisation; Nanocalorimetry; Rapid screening

Indexed keywords

CALORIMETERS; CALORIMETRY; COMPUTER HARDWARE; CONTROL SYSTEMS; DIFFERENTIAL SCANNING CALORIMETRY; INTERFACES (COMPUTER); PRODUCT DEVELOPMENT;

MACROSCOPIC SAMPLE; MATERIAL CHARACTERIZATION; NANOCALORIMETRY SYSTEM; THERMAL INERTIA;

NANOTECHNOLOGY;

CALORIMETRY;

EID: 21944445530     PISSN: 09504230     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.jlp.2005.02.005     Document Type: Article

References (16)

1. D.L. Carrillo Nanosensors' Niche in nanotechnology Chemical Engineering Progress 99 2003 43 47
2. Z.D. Cheng, C.Y. Li, B.H. Calhoun, L. Zhu, and W.W. Zhou Thermal analysis: The next two decades Thermochimica Acta 355 2000 59 68
3. Chervin, S., & Bodman, G. T. (2001). Method of estimating decomposition characteristics of energetic chemicals. Proceedings of the 29th north American thermal analysis society (NATAS), St Louis, MO.
4. L.O. Cisneros, W.J. Rogers, and M.S. Mannan Comparison of the thermal decomposition behavior for members of the hydroxylamine/water family Thermochimica Acta 414 2 2004 177 183
5. L.O. Cisneros, W.J. Rogers, M.S. Mannan, X. Li, and H. Koseki Effect of iron ion in the thermal decomposition of 50 mass% hydroxylamine/water solutions Journal of Chemical and Engineering Data 48 2003 1164 1169
6. L.O. Cisneros, X. Wu, W.J. Rogers, M.S. Mannan, J. Park, and S. North Decomposition products of 50 mass% hydroxylamine/water under runaway reaction conditions Process Safety and Environmental Protection, Transactions of the Institute of Chemical Engineers 81 2003 121 124
7. A. Gary Analytical calorimetry Vol. 1 1976 Plenum Press New York (p. 322)
8. Gevorgian, S. G. (1994). Superconductivity and particle detection. Proceedings of the ninth international workshop, Toledo, Spain.
9. Mathona, C., Bourdin, G., Parazza, C., Daudon, J. L., & Parlouer, P. L. (1998). IC-calorimetry a new field for thermal analysis. Proceedings of the 26th North American thermal analysis society (NATAS), Cleveland, OH.
10. Y. Nakagawa Nanocalorimetry Netsu Sokutei 27 2000 30 38
11. E.A. Olson, M.Y. Efremov, A.T. Kwan, S. Lai, V. Petrova, and F. Schiettekatte Scanning calorimeter for nanoliter-scale liquid samples Applied Physics Letters 77 2000 2671 2673
12. E.A. Olson, M.Y. Efremov, M. Zhang, Z. Zhang, and L.H. Allen The design and operation of a MEMS differential scanning nanocalorimeter for high-speed heat capacity measurements in ultrathin films Journal of Microelectromechanical Systems 12 2003 355 364
13. Parlouer, P. L. (2000). Portable thermal analyzer a new calorimetric concept. Proceedings of the 28th North American thermal analysis society (NATAS), Orlando, FL.
14. D. Ratner, and M.A. Ratner Nanotechnology and homeland security: New weapons for new wars 2004 Prentice Hall/PTR Upper Saddle River, NJ
15. M. Rittner, and M. D'Aquino Nanoparticles - what's now, what's next? Chemical Engineering Progress 99 2003 39 42
16. M.C. Roco International strategy for nanotechnology research Journal of Nanoparticle Research 3 2001 353 360