Institution
Bowling Green State University
Education•Bowling Green, Ohio, United States•
About: Bowling Green State University is a education organization based out in Bowling Green, Ohio, United States. It is known for research contribution in the topics: Population & Poison control. The organization has 8315 authors who have published 16042 publications receiving 482564 citations. The organization is also known as: BGSU.
Papers published on a yearly basis
Papers
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TL;DR: The authors examined the relationship between emotional intelligence (EI) and academic achievement in college students, using both self-report and ability-based measures of EI, and found that EI is not a strong predictor of academic achievement regardless of the type of instrument used to measure it.
350 citations
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TL;DR: The model and the design problem are stated and the way the criterion has been extended to non-linear models is reviewed, particularly those on the theory of design and algorithms for constructing D-optimum designs are discussed.
Abstract: After stating the model and the design problem, we briefly present the results for regression design prior to the work of Kiefer and Wolfowitz. We then review the major results of Kiefer and Wolfowitz, particularly those on the theory of design, as well as the way the criterion has been extended to non-linear models. Finally, we discuss algorithms for constructing D-optimum designs.
349 citations
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TL;DR: In this paper, an algorithm was developed from LANDSAT 7 ETM+ data for the July 1, 2000 overpass for Path 20 Row 31 (including Toledo, OH) to measure relative phycocyanin content (PC) and turbidity in the western basin of Lake Erie.
349 citations
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TL;DR: This paper used the National Longitudinal Study of Adolescent Health to assess the well-being of adolescents in cohabiting parent step-families (N= 13,231) and found that adolescents living with co-habiting stepparents often fare worse than teenagers living with two biological married parents.
Abstract: Cohabitation is a family form that increasingly includes children. We use the National Longitudinal Study of Adolescent Health to assess the well-being of adolescents in cohabiting parent stepfamilies (N= 13,231). Teens living with cohabiting stepparents often fare worse than teens living with two biological married parents. Adolescents living in cohabiting stepfamilies experience greater disadvantage than teens living in married stepfamilies. Most of these differences, however, are explained by socioeconomic circumstances. Teenagers living with single unmarried mothers are similar to teens living with cohabiting stepparents; exceptions include greater delinquency and lower grade point averages experienced by teens living with cohabiting stepparents. Yet mother's marital history explains these differences. Our results contribute to our understanding of cohabitation and debates about the importance of marriage for children.
347 citations
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06 Jul 2017TL;DR: This work uses existing anti-virus scan results and automation techniques in categorizing a large Android malware dataset into 135 varieties which belong to 71 malware families, and presents detailed documentation of the process used in creating the dataset, including the guidelines for the manual analysis.
Abstract: To build effective malware analysis techniques and to evaluate new detection tools, up-to-date datasets reflecting the current Android malware landscape are essential For such datasets to be maximally useful, they need to contain reliable and complete information on malware’s behaviors and techniques used in the malicious activities Such a dataset shall also provide a comprehensive coverage of a large number of types of malware The Android Malware Genome created circa 2011 has been the only well-labeled and widely studied dataset the research community had easy access to (As of 12/21/2015 the Genome authors have stopped supporting the dataset sharing due to resource limitation) But not only is it outdated and no longer represents the current Android malware landscape, it also does not provide as detailed information on malware’s behaviors as needed for research Thus it is urgent to create a high-quality dataset for Android malware While existing information sources such as VirusTotal are useful, to obtain the accurate and detailed information for malware behaviors, deep manual analysis is indispensable In this work we present our approach to preparing a large Android malware dataset for the research community We leverage existing anti-virus scan results and automation techniques in categorizing our large dataset (containing 24,650 malware app samples) into 135 varieties (based on malware behavioral semantics) which belong to 71 malware families For each variety, we select three samples as representatives, for a total of 405 malware samples, to conduct in-depth manual analysis Based on the manual analysis result we generate detailed descriptions of each malware variety’s behaviors and include them in our dataset We also report our observations on the current landscape of Android malware as depicted in the dataset Furthermore, we present detailed documentation of the process used in creating the dataset, including the guidelines for the manual analysis We make our Android malware dataset available to the research community
342 citations
Authors
Showing all 8365 results
Name | H-index | Papers | Citations |
---|---|---|---|
Eduardo Salas | 129 | 711 | 62259 |
Russell A. Barkley | 119 | 355 | 60109 |
Hong Liu | 100 | 1905 | 57561 |
Jaak Panksepp | 99 | 446 | 40748 |
Kenneth I. Pargament | 96 | 372 | 41752 |
Robert C. Green | 91 | 526 | 40414 |
Robert W. Motl | 85 | 712 | 27961 |
Evert Jan Baerends | 85 | 318 | 52440 |
Hugh Garavan | 84 | 419 | 28773 |
Janet Shibley Hyde | 83 | 227 | 38440 |
Michael L. Gross | 82 | 701 | 27140 |
Jerry Silver | 78 | 201 | 25837 |
Michael E. Robinson | 74 | 366 | 19990 |
Abraham Clearfield | 74 | 513 | 19006 |
Kirk S. Schanze | 73 | 512 | 19118 |