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Reviewed Papers
A. Bioseparations
Engineering
A1. Predictive global model for
ultrafiltration and microfiltration of bioprocess
fluids
1.
Baruah G. L., and
2.
Baruah G. L., and
3.
Baruah G. L., and
4.
Baruah G. L., and
A2a. Single-step fusion affinity
purification of proteins using controllable self-cleaving intein linkers
5. Miao, J., Wu, W., Spielmann, T., Belfort, M., Derbyshire V. and Belfort G. (2005) Single-step affinity purification of toxic and non-toxic proteins on a fluidics platform, Lab. Chip., 2004, 5, 248-253.
6. Wu, W, Wood, D. W., Belfort, G., Derbyshire V., and Belfort, M. (2002) Intein-mediated purification of cytotoxic endonumclease I-Tev1 by insertional activation and pH-controllable splicing, Nuclei Acids Res., 30, 4864-4871.
7. Wood, D., Derbyshire V. Wu, W., Chartrain, M, Belfort, M., and Belfort G. (2000) Optimized Single-Step Affinity Purification with a Self-Cleaving Intein Applied to a Human Fibroblast Growth Factor, Biotechnology Progress In press.
8.
Wood, D., Wu, W.,
A2b. Molecular imprinting of
surfaces for affinity separations
9.
Han, M, Kane, R, Goto, M, and
A3a. Dean vortex filtration:
Biotechnology applications
10. Schutyser, M, Rupp, R, Wideman, J. and Belfort, G (2002) Dean vortex membrane microfiltration and diafiltration of rBDNF E. coli inclusion bodies, Biotechnol. Prog. 18, 322-329.
11. Luque, S, Mallubhotla, H, Gelhert, G, Kuriyel, R, Dzengeleski, S, Pearl, S and Belfort G, (1999) A new coiled hollow fiber module design for enhanced microfiltration performance, Biotechnol. Bioengr. 65 (3) 247-257.
12.
Kluge, T., Rezende, C., Wood, D. and
13.
Mallubhotla, H, Hoffmann, S, Schmidt, M, Vente, J., and
14.
Gehlert, G., Luque, S. and
15.
Lee, K. H. and
16.
Mallubhotla, H., Nunes, E., and
17.
Dolecek, P., Mikulasek, P. and
18. Belfort, G., Pimbley, J. M., Greiner, A., and Chung, K-Y (1993), Diagnosis of membrane fouling using rotating annular filter 1. Cell culture media, J. Membrane Sci., 77, 1-22.
19.
A3b. Dean vortex filtration:
Fundamentals
20.
Prashant T., Antal1, S. P., Burgoyne, A.,
21.
Schutyser, M, and
22.
Kluge, T. Kalra, A. and
23. Chung, K.-Y., Brewser, M. E. and Belfort, G. (1998), Dean vortices with wall flux in a curved channel membrane system: 3. Concentration polarization in a spiral reverse osmosis slit, Chem. Eng. J. Japan, 31 (5) 683-693.
24.
Mallubhotla, H, Hoffmann, S, Schmidt, M, Vente, J. and
25.
Mallubhotla, H., and
26.
Brewster, M. E., Chung, K.-Y. and
27.
Winzeler, H. B. and
A3c. Magnetic resonance imaging and
modeling of fluid flow in membrane modules and bioreactors
28.
Mallubhotla, H, Edelstein, W. A., Earley, T. A. and
29.
Chung, K.-Y., Bates, R., and
30.
Chung, K.-Y., Edelstein, W. A., and
31. Chung, K-Y, Edelstein, W. A., Li, X. and Belfort, G. (1993), Dean vortices in a curved channel membrane system: 5 Three dimensional magnetic resonance imaging and numerical analysis of the velocity field in a curved impermeable tube, AIChE Journal, 39 (10) 1592-1602.
32.
Hammer, B. E., Heath, C. A., Mirrer, S. D., and
33. Heath, C. A., Belfort, G., Hammer, B. E., Mirrer, S. D., and Pimbley, J. M. (1990), Magnetic resonance imaging and modeling of flow in hollow-fiber bioreactor, AIChE Journal, 36 (4) 547-558.
B. Bioreactor Engineering
B1. Membrane bioreactors and flow
cytometry
34.
35.
Heath, C. A., and
36.
Heath, C. A., Dilwith, R., and
37.
Heath, C. A., and
38.
39.
Heath, C. and
40.
Schonberg, J. A. and
41. Altshuler, G. L., Dilwith, R., Sowek, J., and Belfort, G. (1986), Hybridoma analysis at the cellular level, Biotechnology and Bioengineering Symp., No. 17, John Wiley, NY.
42.
43.
Altshuler, G. L., Dziewulski, D. M., Sowek, J. A., and
B2. Protein overproduction using
stable RNA
44.
Chan, W.K.Y.,
45.
46.
Chan, W.K.Y.,
C. Interfacial Bioengineering
C1a. Protein and polysaccharide
adhesion to membranes
47.
Frank, B. P and
48. Reichert U., Linden, T, Belfort, G., Kula M-R and Tommes J. (2002) Visualizing protein adsorption to ion exchange membranes by confocal microscopy, J. Membrane Sci., 199, 161-166.
49.
Frank, B. P and
50.
Vedantham, G,
51.
Vedantham, G, Corothers, S. L.,
52.
Koehler, J. A., Ulbricht, M. and
53.
Frank, B. F. and
54.
Koehler, J. A., Ulbricht, M. and
55.
Frank, B. and
56.
Pincet, F., Perez, E. and
57.
Pincet, F., Perez, E. and
58.
59.
Lee, C-S and
60.
61.
Lee, C. S. and
62. Gardella, Jr., J. A., Wynne, K. J., McCarthy, T. J., Rabolt, J. F.,and Belfort, G, (1998) "New technologies for surface analysis to assess biofouling resistance", Naval Reseach Reviews, Vol. XLIX, pp. 1-16, April.
63. Myers, A.. L., Belfort, G., and Suzuki, M. (1986), Some discussion on adsorption technology: Equilibrium on the basis of adsorption energy, Chem. Eng. (Japan), 50, No. 3, pp. 151-155.
C3b. Surface roughness correction
for contact angle measurements
64.
Taniguchi, M, and
65.
Taniguchi, M, Pieracci, J., P., and
C1c. Protein re-folding and
aggregation (amyloid formation) in solution and at solid (membrane)
interfaces
66. Sethuraman, A, and Belfort G. (2005) Protein structural perturbation and aggregation on homogeneous surfaces, Biophysical J. 88, 1322-1333.
67.
Sethuraman, A,
Vedantham, G, Przybyccien T., and
68.
Sethuraman, A. Han, M., Kane, R. S. and
69. Han, M., Sethuraman, A., Kane, R. S. and Belfort, G. (2003) Nanometer-scale roughness has little effect on the amount or structural stability of adsorbed protein, Langmuir, 19 (23) 9868-9872.
70. Vedantham, G, Carothers, S. L., Belfort, G, and Przybycien, T. (2003) Structural response of bovine growth hormone to dead ended ultrafiltration, Separaion Sci & Techn., 38 (2) 251-270.
C3a. Membrane surface modification
for low protein adhesion and fouling
71.
Taniguchi, M, and
72.
Taniguchi, M, Pieracci, J., P., Samsonoff W. A. and
73. Pieracci, J, Crivello, J. V. and Belfort, G (2002) Increasing Membrane Permeability of UV-modified Poly(ether sulfone) Ultrafiltration Membranes, J. Membrane Sci., 202, 1-16.
74. Pieracci, J, Crivello, J. V. and Belfort, G (2002) UV-assisted graft polymerization of n-vinyl-2-pyrrolidinone onto poly(ether sulfone) ultrafiltration membranes using selected wavelengths, Chem Mater.14, 256-265.
75.
Kaeslev, B., Pieracci, J. and
76.
Pieracci, J, Crivello, J. V. and
77.
Kilduff, J. E., Mattaraj, S., Sensibaugh, J., Pieracci, J.
P., and
78.
Pieracci, J, Wood, D. W., Crivello, J. V. and
79.
Chen, C., and
80.
Pieracci, J., Crivello, J. V. and
81.
Böhme, P., Vedantham, G., Przybycien T. and
82. Gardella, Jr., J. A., Wynne, K. J., McCarthy, T. J., Rabolt, J. F.,and Belfort, G, (1998) "New technologies for surface analysis to assess biofouling resistance", Naval Reseach Reviews, Vol. XLIX, pp. 1-16, April.
83. Nabe, A., Staude, E. and Belfort, G. (1997) Surface modification of polysulfone ultrafiltration membranes and fouling of BSA solutions, J. Membane Sci., 133, 57-72.
84.
Ulbricht, M. and
85.
Ulbricht, M and
86.
Yamagishi, H., Crivello, J. and
87.
Yamagishi, H., Crivello, J. and
C3b. Membrane surface modification
for low natural organic matter (NOM) adhesion and fouling
88.
Kilduff, J. E., Mattaraj, S, and
89.
Taniguchi, M, Kilduff J, E. and
90.
Taniguchi, M, Kilduff, J. E., and
91. Kilduff, J. E., Mattaraj, S., Sensibaugh, F., Pieracci, J. P., Yuan, Y. and Belfort G. (2002) Modeling Flux Decline During Nanofiltration of NOM with Poly(arylsulfone) Membranes Modified Using UV-Assisted Graft Polymerization. Environ. Engr. Sci., 19 (6), 477-495.
D. Additional
Contributions
D1. Membrane sensors and
fractionation of biological molecules
92.
Serifica, G., Pimbley, J. and
93.
Tescione, L. and
94.
Wu, D. R.,
95.
Wu, D-R, Cramer, S. M., and
D2. Virus recovery and
concentration using ultrafiltration
96. Bicknell, E. A., Dziewulski, D. M., Sturman, L. S., and Belfort, G. (1985), Concentrations of seeded and naturally occurring exteroviruses from waters of varying quality by hollow fiber ultrafiltration, Wat. Sci. Tech., 17, 47-62.
97.
Dziewulski, D. M. and
98.
99.
Rotem-Borensztajn, Y., Katzenelson, E., and
100.
101. Belfort, G., Rotem, Y. and Katzenelson, E. (1976), Virus concentration using hollow fiber membranes, II, Water Research, 10, 279-284.
102.
D3. Particle or cell trajectory and
membrane fouling
103.
Schonberg, J. A., Drew, D. A., and
104.
Otis, J. R., Altena, F. W., Mahar, J. J., and
105.
Altena, F., Weigand, R. J., and
106.
107.
108.
Altena, F. W. and
109.
Altena, F. W.,
110.
111.
112.
Green G. and
D4. Water structure and molecular
mechanism for ion transport in synthetic
membranes
113.
Almagor, E. and
114.
115.
116.
117.
118. Belfort, G. (1976), A molecular friction model or transport of uncharged solutes in neutral hyperfiltration and ultrafiltration membranes containing bound water, Desalination, 18, 3, 259-281.
119.
D5. Direct measurements and
modeling of concentration polarization
120. Mahlab, D., Ben Joseph, N., and Belfort, G. (1980), Interferometric measurement of concentration polarization profile for dissolved species in unstirred batch hyperfiltration (reverse osmosis), Chem. Eng. Commun. 6, pp. 225-243.
121.
Mahlab, D., Ben Joseph, N. and
122. Mahlab, D., Ben Yosef, N., and Belfort, G. (1978), Concentration polarization profile for dissolved species in unstirred batch hyperfiltration (reverse osmosis) - II Transient Case, Desalination, 24, 297-303.
Copyright © 2003 Georges Belfort, Rensselaer Polytechnic Institute