New approaches to chemical sensing-sensors based on polymer swelling

Analytical Letters

Volumn 39, Issue 9, 2006, Pages 1773-1783

  Lavine, Barry ^a   Kaval, Necati ^a   Westover, David ^a   Oxenford, Leah ^a  

^a OKLAHOMA STATE UNIVERSITY   (United States)

Author keywords

Chemical sensors; Optical monitoring; Polymer swelling

Indexed keywords

EID: 33745633594     PISSN: 00032719     EISSN: 1532236X     Source Type: Journal    
DOI: 10.1080/00032710600721308     Document Type: Short Survey

References (55)

1. Asher, S.A., Alexeev, V.L., Goponenko, A.V., Sharma, C.A., Lednev, I.K., Wilcox, C.S., and Finegold, D.N. 2003. Photonic crystal carbohydrate sensors: Low ionic strength sugar sensing. J. Am. Chem. Soc., 125: 3322-3329.
2. Aussenegg, F.R., Brunner, H., Leitner, A., Lobmaier, Ch., Schalkhammer, Th., and Pittner, F. 1995. Metal island coated swelling polymer over mirror system (MICSPOMS): a new principle for measuring ionic strength. Sensors and Actuators, B29: 204-209.
3. Bai, M. and Seitz, W.R. 1994. A fiber optical sensor for water in organic solvents based on polymer swelling. Talanta, 41 (6): 993-999.
4. Chatzandroulis, S., Tegou, E., Goustouridis, D., Polymenakos, S., and Tsoukalas, D. 2004. Capacitive-type chemical sensors using thin silicon/polymer bimorph membranes. Sensors and Actuators, B103: 392-396.
5. Cole, M., Voelcker, N.H., and Thissen, H.W. 2005. Proceedings of SPIE-International Society for Engineering, 5651, (Biomedical applications of micro- and nanoengineering II), 19-27.
6. Cong, J., Zhang, X., Chen, K., and Xu, J. 2002. Fiber optic Bragg grating sensor based on hydrogels for measuring salinity. Sensors and Actuators, B87: 487-490.
7. Dagani, R. 1997. Intelligent gels. Chem. Eng. News, 75: 26-28.
8. Dong, L.C. and Hoffman, S. 1990. Synthesis and application of thermally-reversible heterogels for drug delivery. J. Controlled Release, 13: 21-30.
9. Elaissari, A. 2003. Colloidal Polymers; Marcel Dekker: New York.
10. Fan, W. 2003. Chemical sensors based on molecularly imprinted polymer microspheres in a hydrogel. University of New Hampshire; Ph.D. Thesis.
11. Fernandez-Barbero, A., Fernandez-Nieves, Grillo, I., and Lopez-Cabarcos, E. 2002. Structural modifications in the swelling of inhomogeneous microgels by light and neutron scattering. Phys. Review E, 66: 051803-1-051803-10.
12. Flory, P.J. 1953. Principles of Polymer Chemistry; Cornell University Press.
13. Flory, P.J. and Rehner, J. 1943. Statistical mechanics of cross-linked polymer networks. II. Swelling. J. Chem. Physics, 11: 521-546.
14. 2+ sensing materials. J. Am. Chem. Soc., 127: 10753-10759.
15. Grimes, C.A., Stoyanov, P.G., Liu, Y., Tong, C., Ong, K.G., Loiselle, K., Shaw, M., Doherty, S.A., and Seitz, W.R. 1999. A magnetostatic-coupling based remote query sensor for environmental monitoring. J. Phys. D: Appl. Phys., 32: 1329-1335.
16. Grossman, B., Yongphiphatwong, T., and Sokol, M. 2005. In situ device for salinity measurements (chloride detection) of ocean surface. Optics and Laser Technology, 37: 217-223.
17. Holtz, J.H. and Asher, S.A. 1997. Polymerized colloidal crystal hydrogel films as intelligent chemical sensing materials. Nature, 389: 829-832.
18. Holtz, J.H., Holtz, J.S.W., Munro, C.H., and Asher, S.A. 1998. Intelligent polymerized crystalline colloidal arrays: novel chemical sensor materials. Anal. Chem., 70: 780-791.
19. Hughes, R.C., Casalnuovo, S.A., Wessendork, K.O., Savignon, D.J., Hietala, L.S., Patel, S.V., and Heller, E.J. 2000. Integrated chemiresistor array for small sensor platforms, Proceedings of SPIE (Part 1. detection and remediation technologies for mines and minelike targets V), 4038: 519-529.
20. Katanoka, K., Miyazaki, H., Bunya, M., Okano, T., and Sakurai, Y. 1998. Totally synthetic polymer gels responding to external glucose concentration: their preparation and application to On-Off regulation of insulin release. J. Am. Chem. Soc., 120: 12694-12695.
21. Lavine, B.K., Westover, D.J., Kaval, N., Mirjankar, N., Oxenford, L., and Mwangi, G.K. 2006. Swellable molecularly imprinted poly N-(N-propyl)acrylamide particles for detection of emerging organic contaminants using surface plasmon resonance spectroscopy. Anal. Chem. submitted.
22. Lee, K. and Asher, A.S. 2000. Photonic crystal chemical sensors: pH and ionic strength. J. Am. Chem. Soc., 122: 9534-9537.
23. Lesho, M.J. and Sheppard, N.F. 1996. Adhesion of polymer films to oxidized silicon and its effect on performance of a conductometric pH sensor. Sensors and Actuators, B37: 61.
24. Liu, X., Zhang, X., Cong, J., Xu, J., and Chen, K. 2003. Demonstration of etched cladding fiber Bragg grating-based sensors with hydrogel coating. Sensors and Actuators, B96: 468-472.
25. Lopez, R.M., Spirin, V.V., Shlyagin, M.G., Miridonov, S.V., Beltran, G., Kuzin, E.A., and Marquez Lucero, A. 2004. Coherent optical frequency domain reflectometry for interrogation of bend-based fiber optic hydrocarbon sensors. Optical Fiber Technology, 10: 79-90.
26. McCurley, M.F. 1994. An optical biosensor using a fluorescent, swelling sensing element. Biosensors & Bioelectronics, 9: 527-533.
27. McCurley, M.F. and Seitz, W.R. 1991. Fiber-optic sensor for Salt concentration based on polymer swelling coupled to optical displacement. Anal. Chim. Acta, 249: 373-380.
28. McCurley, M.F. and Seitz, W.R. 1992. Swelling of a polymer membrane for use in a glucose biosensor. In ACS Symposium Series, 487: 301-309.
29. Misra, G. and Siegel, R.J. 2002. New mode of drug delivery: long term autonomous rhythmic hormone release across a hydrogel membrane. J. Controlled Release, 81: 1-6.
30. Mwangi, G. 2005. Chemical sensors based on swelling polymer microspheres and uncrosslinked fluorescent molecular imprinted polymers. University of New Hampshire; Ph.D. Thesis.
31. Neuburger, G. and Warren, P.C. 1990. Chemically actuated electronic switch. Sensors and Actuators, B1: 326-332.
32. Obaidat, A.A. and Park, K. 1997. Characterization of protein release through glucose-sensitive hydrogel membranes. Biomaterials, 18: 801-806.
33. Pelton, R. 2000. Temperature-sensitive aqueous microgels. Adv. Colloid. Interface Sci., 85: 1-33.
34. Richter, A., Krause, W., Lieng, J., and Arndt, K.F. 2005. Polymer networks as actuator and sensor systems to be used for automation of biomedical devices. Biomed. Tech., 50 (3): 66-68.
35. Rooney, M.T. 1996. Polymer substrates for optical chemical sensing. University of New Hampshire; Ph.D. Thesis.
36. Rooney, M.T.V. and Seitz, W.R. 1999. An optically sensitive membrane for pH based on swellable polymer microspheres in a hydrogel. Anal. Comm., 36: 267-270.
37. Sakai, Y., Sadaoka, H., Matsuguchi, M., and Sakai, H. 1995. Humidity sensor durable at high humidity using simultaneously crosslinked and quaternized poly(chloromethyl styrene). Sensors and Actuators, B24-25: 689-691.
38. Saunders, B.R. and Vincent, B. 1997. Osmotic de-swelling of polystyrene microgel particles. Colloid Polym. Sci., 275: 9-17.
39. Seitz, W.R. 1993. New directions in fiber optic chemical sensors: sensors based on polymer swelling. J. Mol. Structure, 292: 105-114.
40. Seitz, W.R., Rooney, M.T.V., Miele, E.W., Wang, H., Kaval, N., Zhang, L., Doherty, S., Milde, S., and Lenda, J. 1999. Derivatized, swellable polymer microspheres for chemical transduction. Anal. Chim. Acta., 400: 55-64.
41. Shakhser, Z., Odeh, I., Jabr, S., and Seitz, W.R. 2004. An Optical Chemical Sensor Based on Swellable Dicarboxylate functionalized polymer microspheres for pH copper and calcium determination. Microchim. Acta., 144: 147-153.
42. Shakhsher, Z. and Seitz, W.R. 1994. Single fiber-optic pH sensor based on changes in reflection accompanying polymer swelling. Anal. Chem., 66: 1731-1735.
43. Sheppard, N.F., Lesho, M.J., McNally, P., and Francomacaro, S. 1995. Microfabricated conductimetric pH sensor. Sensors and Actuators, B28: 95-102.
44. Sheppard, N.F., Tucker, R.C., and Salehi-Had, S. 1993. Design of a conductimetric pH microsensor based on reversibly swelling hydrogels. Sensors and Actuators, B10: 73-x.
45. Siegel, R.A., Gu, Y., Baldi, A., and Ziare, B. 2004. Novel swelling/shrinking behaviors of glucose-binding hydrogels and their potential use in a microfluidic insulin delivery system. Macromol. Symp., 207: 249-256.
46. Stoyanov, P.G., Doherty, S.A., Grimes, C.A., and Seitz, W.R. 1998. A remotely interrogatable sensor for chemical monitoring. IEEE Transactions on Magnetics, 34 (4): 1315-1317.
47. Taylor, M.J., Tanna, S., Taylor, P.M., and Adams, G. 1995. The delivery of insulin from aqueous and non-aqueous reservoirs governed by a glucose sensitive gel membrane. J. Drug Targeting, 3: 209-216.
48. Thomson, B., Rudin, A., and Lajoie, G. 1995. A mass spectrometric investigation of the water-soluble oligomers remaining after the emulsion polymerization of methyl methacrylate. J. Poly. Sci. Pt. A, 33: 345-357.
49. Wang, H. 2000. Nitrated poly(4-hydroxystyrene) microspheres for optical pH and potassium ion sensing based on turbidity changes accompanying polymer swelling. University of New Hampshire; Ph.D. Thesis.
50. Wang, H. and Seitz, W.R. 1999. pH sensor based on swellable poly(3-nitro-4-hydroxystyrene) microspheres in a hydrogel, Proceedings of SPIE, 3856 (Internal Standardization and Calibration Architecture for Chemical Sensors, Boston, MA), 224-231.
51. Westover, D., Seitz, W.R., and Lavine, B.K. 2003. Synthesis and evaluation of nitrated poly(4-hydroxy-Styrene) microspheres for pH sensing. Microchem. J., 74: 121-129.
52. Yamazoe, N. and Shimizu, Y. 1986. Humidity sensors: principles and applications. Sensors and Actuators, 10: 379-398.
53. Zhang, L., Langmuir, M.E., Bai, M., and Seitz, W.R. 1997. A sensor for pH based on an optical reflective device coupled to the swelling of an aminated polystyrene membrane. Talanta, 44: 1691-1698.
54. Zhang, L. and Seitz, W.R. 2002. A pH sensor based on force generated by pH-dependent polymer swelling. Anal. Bioanal. Chem., 373: 555-559.
55. Zhang, Z., Shakhser, Z., and Seitz, W.R. 1995. Aminated polystyrene membranes for a fiber optic pH sensor based on reflectance changes accompanying polymer swelling. Mikro. Acta, 121 (1-4): 41-50.