Arthur J. Horowitz
Georgia State University
Network
Latest external collaboration on country level. Dive into details by clicking on the dots.
Publication
Featured researches published by Arthur J. Horowitz.
Environmental Science & Technology | 1986
Arthur J. Horowitz
Yamamoto, D.; Koichi, Y.; Osamu, A. “proceedings, Cooling Tower Institute Annual Meeting”; Houston, TX, 1975. Kunin, R. “Amber Hi-Lites No. 151”; Rohm and Haas Co.: Philadelphia, May 1976. Newman, J.; Reed, L. “Proceedings, Water-1979”; AIChE, 1980; Vol. 197, no. 76. Richardson, E.; Stobbe, E.; Bernstein, S. Enuiron. Sc. and Technol. 1968,2, 1006. Butler, J. N. “Ionic Equilibrium”; Addison-Wesley: New York, 1967. Tong, J. Y.; King, E. L. J. Am. Chem. SOC. 1953,75,6180. Arden, T. V.; Giddings, M. J. Appl . Chem. 1961,11,229. Sengupta, A. K., Ph.D. Dissertation, University of Houston-University Park, Houston, TX, 1984. Sengupta, A. K,; Clifford, D. Ind. Eng. Chem. Fundam., in press. Sengupta, A. K.; Clifford, D. Reactive Polymers, Ion Exchangers, Sorbents, 1985, in press. APHA-AWAWA-WPCF “Standard Methods for the Examination of Water and Wastewater”; Washington, D.C., 1980. Reichenberg, D.; McCauley, D. J. J. Chem. SOC. 1955,
Environmental Science & Technology | 2013
Arthur J. Horowitz
Successful environmental/water quality-monitoring programs usually require a balance between analytical capabilities, the collection and preservation of representative samples, and available financial/personnel resources. Due to current economic conditions, monitoring programs are under increasing pressure to do more with less. Hence, a review of current sampling and analytical methodologies, and some of the underlying assumptions that form the bases for these programs seems appropriate, to see if they are achieving their intended objectives within acceptable error limits and/or measurement uncertainty, in a cost-effective manner. That evaluation appears to indicate that several common sampling/processing/analytical procedures (e.g., dip (point) samples/measurements, nitrogen determinations, total recoverable analytical procedures) are generating biased or nonrepresentative data, and that some of the underlying assumptions relative to current programs, such as calendar-based sampling and stationarity are no longer defensible. The extensive use of statistical models as well as surrogates (e.g., turbidity) also needs to be re-examined because the hydrologic interrelationships that support their use tend to be dynamic rather than static. As a result, a number of monitoring programs may need redesigning, some sampling and analytical procedures may need to be updated, and model/surrogate interrelationships may require recalibration.
Environmental Science & Technology | 1996
Arthur J. Horowitz; Ken R. Lum; John R. Garbarino; G.E.M. Hall; Claire Lemieux; Charles R. Demas
Environmental Science & Technology | 2006
Peter C. Van Metre; Arthur J. Horowitz; Barbara J. Mahler; William T. Foreman; Christopher C. Fuller; Mark R. Burkhardt; Kent A. Elrick; Edward T. Furlong; Stanley C. Skrobialowski; James J. Smith; Jennifer T. Wilson; Stephen D. Zaugg
Open-File Report | 1985
Kent A. Elrick; Arthur J. Horowitz
Open-File Report | 1992
Arthur J. Horowitz; Kent A. Elrick; John A. Robbins; Robert B. Cook
IAHS-AISH publication | 1989
Arthur J. Horowitz; F. A. Rinella; P. Lamothe; T. L. Miller; T. K. Edwards; R. L. Roche; D. A. Rickert
Hydrological Processes | 2015
Arthur J. Horowitz; Robin T. Clarke; Gustavo Henrique Merten
Chemical Geology | 2015
John E. Gray; Peter C. Van Metre; Michael J. Pribil; Arthur J. Horowitz
Environmental Science & Technology | 1996
Arthur J. Horowitz; Ken R. Lum; John R. Garbarino; G.E.M. Hall; Claire Lemieux; Charles R. Demas