Bringing Ghost Stories Up-to-Date: Andrew Lang’s Victorian Reconciliation of Science and the Paranormal

This research aims at understanding teaching, t1ainlng, scientific research of reforming the tactics of China's competitive sport integrate, explore from policy evolution to roles function and countermeasure and proposing. The way studied through analysis of documents and history in this research, consult a large amount of documents and materials is put with analyze in order, approach a subject and propose some following results and propose to this research institute: 1. build and construct the sports universities and colleges and has not reached and built and formed and trained the ideal goal on integrated bases of scientific research for teaching yet, it is that the competitive sport reforms the focal point in the China 21st century 2. put emphasis on it is the policy that China returns to the global sport that science and technology serve the importance with tackling of key scientific arid technical problems, it is to train the integrated idea of scientific research to want the gold medal from science bring the new direction fur the development of sports activity of China, 《fundamental of Rising Contribute Ability for Olympic Games》 policy define teaching train the integrated importance of scientific research3. put forward several great scientific and technological problem research approaches about the fact that the competitive sport of our country is developed》 in initial stage of 21st century, put emphasis on the importance of turning the sports universities and colleges into scientific research, training, teaching and combining by three-in-one on the base again, implement 《fundamental of Rising Contribute Ability for Olympic Games (2001-20l0 years)》, 《the sports reform and development outline of 200l-20l0 year》, and the wanting one of policy of 《scientific and technical development plan of sports of 1991-2000 year》, it is China that becomes the indispensable tactics of powerful country of the competitive sport of the 4orld even more.

The purpose of this study was to explore science teacher's epistemological understanding of science and science teaching and learning, from the perspective of inquiry as the process of scientific knowledge building. Three science teachers participated in this study. The data were collected from individual in-depth interviews and classroom videotaping. The results show a case involving coherent and consistent data. It showed that the teacher's epistemological understanding of science and science teaching and learning consisted of five categories: scientists doing science with scientific thinking; scientific thinking as the process of knowing; science learner in the learning process of scientific thinking; science teacher as a man/woman with good understandings of science; and teaching and learning as the process of knowing science. Based on the results, discussions and implications about science education and science teacher education were presented.

This study broadens the knowledge base about how to use pedometers to further pre-service teachers’ (PT) understanding of measurement: a key concept in science and mathematics education at the elementary level. Two groups of elementary PT—one enrolled in a science methods and the other enrolled in a mathematics methods course at a major university in the MidAtlantic region of United States— completed instruction on how to use pedometers as a technology tool to teach mathematics and science. Lesson plans developed by the PT were collected, and a 40-item instrument to measure attitudes about pedometers, mathematics and science was administered at the end of each course. Data, measurement, and number were the most common mathematics standards targeted by PT lesson plans. No statistically significant differences were found between PT enrolled in science and mathematics methods courses on their perceptions of technology and pedometers as a technology tool. However, PT in the science methods course rated more highly (F = 4.90, p = .03) science-mathematics integration. Future research should examine more extensively a coordinated pedometer experience where the same cohort of PT pose questions and collect data in science methods, then analyze/represent that data in math methods.

The recent decades have seen an increased focus on improving early science education. Goals include helping young children learn about pertinent concepts in science, and fostering early scientific reasoning and inquiry skills (e.g., NRC 2007, 2012, 2015). However, there is still much to learn about what constitutes appropriate frameworks that blend science education with developmentally appropriate learning environments. An important goal for the construction of early science is a better understanding of appropriate learning experiences and expectations for preschool children. This dissertation examines some of these concerns by focusing on three dimensions of science learning in the preschool classroom: (1) the learner; (2) instructional tools and pedagogy; and (3) the social context of learning with peers. In terms of the learner, the dissertation examines some dimensions of preschool children’s scientific reasoning skills in the context of potentially relevant, developing general reasoning abilities. As young children undergo rapid cognitive changes during the preschool years, it is important to explore how these may influence scientific thinking. Two features of cognitive functioning have been carefully studied: (1) the demonstration of an epistemic awareness through an emerging theory of mind, and (2) the rapid improvement in executive functioning capacity. Both continue to develop through childhood and adolescence, but changes in early childhood are especially striking and have been neglected as regards their potential role in scientific thinking. The question is whether such skills relate to young children’s capacity for scientific thinking. Another goal was to determine whether simple physics diagrams serve as effective instructional tools in supporting preschool children’s scientific thinking. Specifically, in activities involving predicting and checking in scientific contexts, the question is whether such diagrams facilitate children’s ability to accurately recall initial predictions, as well as discriminate between the outcome of a scientific manipulation and their original predictions (i.e., to determine whether one’s predictions were confirmed). Finally, this dissertation also explores the social context of learning science with peers in the preschool classroom. Due to little prior research in this area, it is currently unclear whether and how preschool children may benefit from working with peers on science activities in the classroom. This work aims to examine preschoolers’ collaboration on a science learning activity, as well as the developmental function for such collaborative skills over the preschool years.

This study is aimed at determining the correlation between students' scientific thinking ability and students’ learning outcome of the eleventh science (hereafter XI IPA ) in schools at tourism area of the Special Region of Yogyakarta. This research is a quantitative research employing p earson’s correlation analysis. The population of this research is all school at tourism area of the Special Region of Yogyakarta. The sample used in this research is 112 students in high schools located at tourism area of the Special Region of Yogyakarta. The sample of this research is taken through cluster random sampling. The students' scientific thinking skill data were obtained through a scientific thinking skill test consisting of 25 multiple choice questions developed based on aspects of scientific thinking skill. The students' cognitive learning outcomes were obtained through the student's daily tests documentation. The result shows that there is a correlation between the students’ scientific thinking and learning result with the significance level of 0,000 < 0,05 and the Pearson’s correlation value 0.681. This means that there is a strong correlation between the scientific thinking ability and the learning outcome. Based on the finding s , it can be concluded that the scientific thinking ability and the learning outcomes are strongly correlated. The higher the students 'scientific thinking ability , the higher the students' learning outcomes.

This paper describes the scientific learning approach in improving student achievement in madrasah. Scientific approach is a strategy used by teachers in learning activities, which is done through a scientific process. Something learned and acquired learners, done with the senses and minds themselves, so that they directly gain knowledge. The scientific approach is one of the characteristics of the application of the 2013 curriculum, in which students are invited to experience firsthand what is being learned from the theory of science through five processes, namely the process of observing, questioning, experimenting, associating, communicating. By inviting students directly, students are expected to easily achieve the purpose of learning, which then has an impact on improving learning achievement.

NO ONE WOULD ARGUE that research-based nursing practice is not needed or that there should not be a science of nursing. That would be an anathema. Yet, how are students best prepared for practice in ways that reflect the research base of our discipline? There is a nascent and increasingly sophisticated emerging science for nursing education that makes research--based teaching and practice possible. However, the challenges to creating a science of nursing education are substantial. With no funding available from the National Institute for Nursing Research and the need to go outside the discipline for funding, grants are often small, resulting in studies that are rarely generalizable or replicable. There was a time, in the not so distant past, when the same could be said about nursing research addressing clinical problems. Cadres of nurse scholars once pushed for funding, controlled by the profession, to ensure that both current and future nursing practice would be research based. These efforts were substantial. They occurred while scholars and scientists pooled their resources and struggled to work together in grass-roots research that began to define the phenomena of concern and to demonstrate the potential for clinical nursing research to influence future patient care. Perhaps efforts to create an inclusive science of nursing education reflect the discipline's ongoing commitment to research that informs our practice. We are responding now as we did then. The need for substantive funding to support nurse researchers who struggle to sustain educational research programs is imperative. Without funding for educational research, assistant professors, many with recent PhDs, must develop clinical research programs in order to get funding, establish a research trajectory, and secure tenure. Senior nurse researchers are being called to develop sustained educational studies using the methodological sophistication of their clinical research programs. Without tenured faculty studying nursing educational issues over time, the discipline loses the collective wisdom and expertise of senior faculty members and research into preparing future generations of nurses becomes haphazard and of limited utility. The lack of a sustained funding stream in nursing education further precludes examining educational issues over time, from multiple perspectives and using multiple methods. An inclusive science of nursing education demands this level of research expertise to provide an evidence-based nursing education. The discipline also must begin to more actively challenge the belief that research in nursing education is not nursing research but educational research (best conducted within the discipline of education). This belief is based on the assumption, for example, that teaching merely involves taking a learning theory from higher education and applying it to a nursing course with nursing students. Furthermore, while in higher education there are a handful of learning theories, even in the discipline of education the practice of teaching remains largely undertheorized, and a research base for the discipline is likewise depauperate. Calls for an inclusive science of nursing education are becoming more frequent (1,2) as the discipline faces substantive challenges in both academic and practice settings. The call for a science of nursing education resonates and provides an opportunity to study teaching and learning as a disciplinary practice. That is, it allows for the exploration of theories from higher education to shape and inform nursing education as well as to discover and develop pedagogies for nursing education that shape and are shaped by nursing practice. One such pedagogy, Narrative Pedagogy, was developed from studying how nursing teachers, students, and clinicians actually teach and learn nursing (3). Continuing to investigate the practices of schooling, learning, and teaching will further increase our disciplinary understanding of the nature of teaching and learning in nursing and offers a view of research in nursing education that is consistent with the definition of nursing research. …

Every scientific research involves the systematic study of phenomena and processes that occur in nature and society. Such a systematic study is not possible without the use of objective instruments for collecting, processing and analyzing data and without the application of scientific methods for drawing conclusions, propriety and legality of the researching object properties. That is why all systematic scientific studies require advance planning and design, and that in one scientific, operational and planning document, called the research project is devised a way of acquiring scientific knowledge, which will represent a logical, structured unit, rational and purposeful, mutually compatible and functionally related attitudes, judgments and conclusions of the research subject. The general methodology of scientific research has defined the scientific standards, rules and procedures by which a scientific research project is created. The project of scientific research has a standard structure element of the project which consists of: a) draft scientific concept; b) research plans; iv) research instruments, including a plan of arrangement and data processing. Since numerous difficulties encountered by young researchers in establishing draft scientific ideas in theirs Master's and Doctoral Theses in the last edition of the Megatrend journal, we have offered to scientific and professional public the first three elements of the scientific concept structure draft of the research project: formulation of the research problem, determination of research subject and the formulation of scientific and social research objectives. In this edition of the Megatrend journal, according to the strict requirements of the general methodology of science and special methodology of science, scientific and professional community, we present the following three elements of the draft of the scientific concept of research: a hypothetical framework of the research, the method of the survey and the scientific and social justification of the research.

Every scientific research involves the systematic study of phenomena and processes that occur in nature and society. Such a systematic study is not possible without the use of objective instruments for collecting, processing and analyzing data and without the application of scientific methods for drawing conclusions, propriety and legality of the researching object properties. That is why all systematic scientific studies require advance planning and design, and that in one scientific, operational and planning document, called the research project is devised a way of acquiring scientific knowledge, which will represent a logical, structured unit, rational and purposeful, mutually compatible and functionally related attitudes, judgments and conclusions of the research subject. The general methodology of scientific research has defined the scientific standards, rules and procedures by which a scientific research project is created. The project of scientific research has a standard structure element of the project which consists of: a) draft scientific concept; b) research plans; iv) research instruments, including a plan of arrangement and data processing. Since numerous difficulties encountered by young researchers in establishing draft scientific ideas in theirs Master's and Doctoral Theses in the last edition of the Megatrend journal, we have offered to scientific and professional public the first three elements of the scientific concept structure draft of the research project: formulation of the research problem, determination of research subject and the formulation of scientific and social research objectives. In this edition of the Megatrend journal, according to the strict requirements of the general methodology of science and special methodology of science, scientific and professional community, we present the following three elements of the draft of the scientific concept of research: a hypothetical framework of the research, the method of the survey and the scientific and social justification of the research.

This article deals with science development method. The substantion is methods to acquire knowledge from some perspective, development scientific and unscientific knowledge method, concepts and type research throught quantitative and qualitative method, the distinction of knowledge development from other knowledge. From those four substantion then it explained one by one in detail. The scientific method must follow these steps: formulating problem/question, doing observation, formulating a hypothesis, doing experiment, collecting and analyzing results and making conclusion. So that we can understood those knowledge development method itself. Keyword : science development method

This study aimed at analyzing XI grade students’ scientific thinking abilities on the implementation of the scientific approach. 82 students of XI grade science class at three state senior high schools in Surakarta involved in this study. The students’ scientific thinking abilities illustrated as the students’ competence in seven aspects: the purpose of science; science question, science information, science interpretation, science concept, science assumption, science implication (Paul & Elder, 2003). The data on students’ scientific thinking abilities were collected using essay test on worksheet and interview methods. The instrument had been validated by expert judgement and students as a user. The scores were used to represent the students’ scientific thinking abilities in three categories (low, middle,high). The results of the study showed that students’ competence in seven aspects of scientific thinking abilities: purpose of science (62,00%); science question (36,6%), science information (39,66%), science interpretation (41,00%), science concept (43,33), science assumption (38,33%), science implication (21,33%). Therefore, it concluded that the XI grade students’ scientific thinking abilities on the implementation of scientific approach was at the low category. It was suggested that the learning model based scientific approach be conducted for the students’ scientific thinking abilities improvement.

Should scientific facts and methods have an epistemically privileged status in public reason? In Rawls’s public reason account he asserts what we will label the Scientific Standard Stricture: citizens engaged in public reason must be guided by non-controversial scientific methods, and public reason must be in line with non-controversial scientific conclusions. The Scientific Standard Stricture is meant to fulfill important tasks such as enabling the determinateness and publicity of the public reason framework. However, Rawls leaves us without elucidation with regard to when science is and is not ‘non-controversial’ and more importantly, we are left without a justification for a stricture which excludes certain controversial beliefs and methods of inquiry from the realm of political justification. In this article, we offer what we deem to be the most plausible interpretation of Rawls’s Scientific Standards Stricture. We then use Rawls’s general theoretical framework to examine various potential justifications for privileging these ‘non-controversial’ scientific methods and conclusions. We conclude that no viable justification is available to Rawls.

The daily lives of prehistoric Native Americans are often inappreciable to the contemporary researcher and sometimes overlooked by the professional archaeologist. The archaeological record is one source of information that helps us to conceptualize specific tribal events in the distant past. Written historic ethnographic accounts are a second source; a third, and perhaps most continuous, source of information for interpreting the past is traditional tribal knowledge passed down through generations by Native American oral communication. However, much more information is needed. Debates over such archaeological theories—old and new—are ongoing and contribute greatly to our notions of the past. Yet, more important than considering the profession's interpretive community is the definition of each theory's object of study or inquiry. This article discusses many complex cultural theories as composites of scientific and social-scientific approaches and how archaeologists use them to interpret the past.

Machine learning is to make a computer smart enough to analyze a state/situation without human intervention. This is a scientific process of enabling computers to think, listen/see and act/react without being explicitly programmed. Whereas Data science is a multi-disciplinary field that uses scientific methods, algorithms, processes, and systems to extract insights and knowledge from structured and unstructured data. These two concepts have impacted the industry in a very positive manner. Artificial Intelligence is the process to teach the machines to do multiple user actions. In this paper, we will discuss different emergence techniques of AI with the help of Machine learning and data science. This paper also elaborates on different techniques used in Machine learning as well as the relationship between Data Science and Machine Learning. It shows the role of data science in AI. This study reviews how technology changes from a traditional approach to machine learning approach with the rise of machine learning techniques, methods, and algorithms, applications in businesses. This paper emphasis on Machine learning and Data sciences concepts which improved the area of Artificial Intelligence. Keywords: AI, Programming Approach, Machine Learning, Algorithms, Natural Language processing, supervised learning; unsupervised learning; reinforcement learning.

In Daubert v. Merrell Dow Pharmaceuticals, Inc., the U.S. Supreme Court made its first major pronouncement on the evaluation of scientific evidence, calling on judges to act as gatekeepers for scientific knowledge and validity, despite lack of scientific training among judges. Daubert offers the science studies community a case study for examining how judges (and scientists acting as experts) engage in boundary-work and construct scientific validity. In constructing scientific validity under Daubert, judges must evaluate the scientific method behind a particular scientific claim, and will look to the parties' experts and the relevant scientific community for assistance. To combat the oft-cited problem of the battle of the experts, judges may be tempted to obtain assistance from court-appointed neutral experts, an inquisitorial (rather than adversarial) system in the civil law tradition of many European countries. The judicial evaluation of scientific evidence, the resulting construction of scientific validity, and the push for a greater use of court-appointed experts reveal judges' desire to segregate "objective" scientific facts from aspects of the legal process that are infused with adversaries' values. Yet the scientific and judicial construction of validity mixes empirical results and research methods with the personal, political, and institutional values of judges and scientists.