Full bibliography | SCSU Bibliography

Tolchin, G., Steinfeld, G., & Suchotliff, L. (1970). The mental patient and civil rights: Some moral, legal, and ethical considerations. Professional Psychology, 1(3), 212–216. https://doi.org/10.1037/h0029628

Distinguishes between legal, ethical, and egalitarian principles involving hospitalization of persons alleged to be mentally ill. With regard to the question of legality, the need for compilation and distribution of relevant information and for informing patients of their rights is discussed. The boundaries of psychologists' professional and personal ethics are viewed as helping patients obtain services which they are personally unable to provide and insuring that the welfare of the patient is placed before the interests of the institution. Egalitarian issues are discussed with regard to: (a) judging whether a mental patient is responsible for his words and actions; (b) the patient's right to accept, reject, or select treatment; and (c) hospitalization of general medical patients and their rights to be informed about their condition, to be notified of test results, and to know the name, quantity, and expected reaction to drugs they are given. It is suggested that psychologists have too long been silent on these issues and in the face of abuses, and that more discussion and stands on them are needed. (PsycINFO Database Record (c) 2006 APA, all rights reserved). © 1970 American Psychological Association.

View on content.apa.org

Karas, S. F. (1969). Development of a reduced set of composite equations for three predictors. Psychological Reports, 25(2), 623–630. https://doi.org/10.2466/pr0.1969.25.2.623

View on eric.ed.gov

Karas, S. F. (1968). The analysis of means techniques. Journal of Experimental Education, 37(2), 65–70. https://doi.org/10.1080/00220973.1968.11011113

The theoretical basis for the Analysis of Means Technique is discussed. In addition, a simplified working procedure is outlined, step-by-step for an actual problem. The data for the problem are analyzed by the analysis of means techniques, which compares differences between means instead of population variances estimates. The data are also analyzed by the analysis of variance technique. The conclusions reached by both techniques are the same. The graphical representation of the ANOM is helpful in understanding data. The ANOM technique is usually used in conjunction with the analysis of variance, either as an initial analysis of data or to augment the analysis of variance. © Taylor & Francis Group, LLC.

View on www.jstor.org

Applewhite, H. B. (1978). Political Legitimacy in Revolutionary France, 1788-1791. The Journal of Interdisciplinary History, 9(2), 245–273. JSTOR. https://doi.org/10.2307/203227

View on www.jstor.org

Zeelik, M., & Dalgarno, A. (1973). Ultra-violet argon dayglow lines in the atmosphere of mercury. Planetary and Space Science, 21(3), 383–389. https://doi.org/10.1016/0032-0633(73)90037-8

We investigate the response of an atmosphere of argon to solar ultra-violet radiation. With the assumption that Mercury has an argon atmosphere that is optically thick to ionizing radiation the intensities of the ultra-violet dayglow lines resulting from photoelectron impact are calculated. For most of the model atmospheres, the predicted intensities are above the detection threshold of the 1973 Venus-Mercury ultra-violet spectrometer of Broadfoot, McElroy and Belton. © 1973.

View on adsabs.harvard.edu

Ford, B. (1977). Vd - Guide for Nurses and Counselors - Morton,bm. American Journal of Nursing, 77(3), 499. https://doi.org/10.2307/3424162

Gulati, B. R., Johnson, B. McK., & Koehn, U. (1973). On maximal t-linearly independent sets. Journal of Combinatorial Theory, Series A, 15(1), 45–53. https://doi.org/10.1016/0097-3165(73)90034-4

Consider a finite t + r − 1 dimensional projective space PG(t + r − 1, s) over a Galois field GF(s) of order s = ϱh, where ϱ and h are positive integers and ϱ is the prime characteristic of the field. A collection of k points in PG (t + r − 1, s) constitutes an L(t, k)-set if no t of them are linearly dependent. An L(t, k)-set is maximal if there exists no other L(t, k′)-set with k′ > k. The largest k for which an L(t, k)-set exists is denoted by Mt(t + r, s). K. A. Bush [3] established that Mt(t, s) = t + 1 for t ⩾ s. The purpose of this paper is to generalize this result and study Mt(t + r, s) for t, r, and s in certain relationships.

View on www.sciencedirect.com

Berlinghoff, W. P. (1973). An apparently algebraic property of the integers. Mathematics Magazine, 46(4), 211–213. https://doi.org/10.1080/0025570x.1973.11976312

View on www.jstor.org

Gulati, B. R., & Kounias, E. G. (1973). Maximal sets of points in finite projective space, no t-linearly dependent. Journal of Combinatorial Theory, Series A, 15(1), 54–65. https://doi.org/10.1016/0097-3165(73)90035-6

Consider a finite (t + r - 1)-dimensional projective space PG(t + r - 1, s) based on the Galois field GF(s), where s is prime or power of a prime. A set of k distinct points in PG(t + r - 1, s), no t-linearly dependent, is called a (k, t)-set and such a set is said to be maximal if it is not contained in any other (k*, t)-set with k* > k. The number of points in a maximal (k, t)-set with the largest k is denoted by mt(t + r, s). Our purpose in the paper is to investigate the conditions under which two or more points can be adjoined to the basic set of Ei, i = 1, 2, ..., t + r, where Ei is a point with one in i-th position and zeros elsewhere. The problem has several applications in the theory of fractionally replicated designs and information theory. © 1973.

View on dblp.uni-trier.de

Gulati, B., & Kounias, E. (1973). 3 Level Symmetrical Factorial Designs and Ternary Group Codes. Sankhya-the Indian Journal of Statistics Series A, 35(SEP), 377–392.

Gulati, B. R. (1972). More about maximal (n, r)-sets. Information & Computation, 20(2), 188–191. https://doi.org/10.1016/s0019-9958(72)90387-7

Consider a finite r-dimensional projective space PG(r, s) based on the Galois field GF(s) where s is prime or power of a prime. A set of n distinct points in PG(r, s), no t linearly dependent, is said to be maximal or complete if it is not contained in any other set with n* points with n* > n. The number of points in a maximal set is denoted by mt(r + 1, s). The purpose of this paper is to improve the existing bounds for m5(r + 1, s) for r ≥ 5 and s ≥ 5 (odd). The investigation of maximal sets in certain relationships of t, r and s yields parity check matrices of (r + 1) rows and n columns with elements from GF(s) satisfying the condition that no t columns are linearly dependent. This problem has applications to coding theory and also in the theory of fractionally replicated designs. © 1972 Academic Press, Inc.

View on dblp.uni-trier.de

Gulati, B. R. (1971). On maximal (k,t)-sets. Annals of the Institute of Statistical Mathematics, 23(1), 279–292. https://doi.org/10.1007/bf02479229

This investigation was originally motivated by the problem of determining the maximum number of points in finite n-dimensional projective space PG(n, s) based on the Galois field GF(s) of order s=ph (where p and h are positive integers and p is the prime characteristic of the field), such that no t of these chosen points are linearly dependent. A set of k distinct points in PG(n, s), no t linearly dependent, is called a (k, t)-set for k1 >k. The maximum value of k is denoted by mt (n+1, s). The purpose of this paper is to find new upper bounds for some values of n, s and t. These bounds are of importance in the experimental design and information theory problems. © 1971 Institute of Statistical Mathematics.

View on link.springer.com

Gulati, B. R. (1971). Orthogonal arrays of strength five. Trabajos De Estadistica Y De Investigacion Operativa, 22(3), 51–77. https://doi.org/10.1007/bf03004395

View on link.springer.com

Tate, M. W., & Brown, S. M. (1970). Note on the cochran Q test. Journal of the American Statistical Association, 65(329), 155–160. https://doi.org/10.1080/01621459.1970.10481069

Cochran’s Q test for differences between related-sample percentages or proportions has generally been incorrectly presented in secondary sources. The most common mistake results from failure to recognize that rows containing only 1’s or only 0’s, i.e., only successes or only failures, do not affect the value of Q. The F test, however, is affected by such rows. The probabilities from the χ2 and F approximations are compared with the exact probabilities in three sets of data. A rule of thumb, based on extensive study of the distribution of 0 in small samples, is given as an aid in judging when the χ2 approximation is satisfactory for practical purposes. © Taylor & Francis Group, LLC.

View on amstat.tandfonline.com

Heinritz, F. (1979). Using the Computer for Library Random Sample Selection. College & Research Libraries, 40(3), 261–263. https://doi.org/10.5860/crl_40_03_261

Heinritz, F. (1978). Decision Tables - Tool for Librarians. Library Resources & Technical Services, 22(1), 42–46.

Heinritz, F. (1978). Recommended Procedures for Internal Financial Auditing of University-Libraries - Kurth,wh, Zubatsky,ds. College & Research Libraries, 39(1), 68–69. https://doi.org/10.5860/crl_39_01_68_A

Heinritz, F. (1974). Rate of Growth for Library Collections. College & Research Libraries, 35(2), 95–96. https://doi.org/10.5860/crl_35_02_95

Heinritz, F. (1973). Analysis and Evaluation of Current Library Procedures. Library Trends, 21(4), 522–532.

Heinritz, F. (1970). Systematic Analysis of University Libraries - Application of Cost-Benefit Analysis to Mit Libraries - Raffel,ja and Shishko,r. Library Resources & Technical Services, 14(3), 472–473.