THE ROLE OF
STATISTICS IN SCIENCE AND TECHNOLOGY
S
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tatistics
play a vital role in virtually all branches of science. Statistical methods are
commonly used for analyzing experiment results, testing their significance and
displaying the results accordingly.
• In order for a scientist to make an objective judgment as to whether or not a particular hypothesis can be established by a set of collected data, an objective method for either accepting, or rejecting, that hypothesis must be used. This is why, when collating these results, it is essential that statistics are included to ascertain the level or degree of accuracy in the hypothesis.
• Statistics can be used to explain qualitative, as well as the more easily decipher quantitative, results - that is to say it is possible for statistics to reveal elements of an experiment that would ordinarily be referred to by a characteristic value, rather than in a measurable way.
• The significance of statistical figures can be seen best when validating solid arguments or predictions out of hypotheses or conjectures that may seem overwhelming to a layman. It is far easier for the general public to understand the results of an experiment in greater clarity and detail if they have the simple reference point of numbers rather than scientific language, mathematics or equations.
• It could be argued that without the use, and advancements, of statistics and statistical research the empirical observations of today's scientists and inventors would be far less accurate and progressive. We all benefit from the developments and improvements in science that have been made to our day-to-day life, most of the time taking for granted what has been achieved with the aid of statistics.
Statistics are very important in science as well as technology for a number of reasons.
• In order for a scientist to make an objective judgment as to whether or not a particular hypothesis can be established by a set of collected data, an objective method for either accepting, or rejecting, that hypothesis must be used. This is why, when collating these results, it is essential that statistics are included to ascertain the level or degree of accuracy in the hypothesis.
• Statistics can be used to explain qualitative, as well as the more easily decipher quantitative, results - that is to say it is possible for statistics to reveal elements of an experiment that would ordinarily be referred to by a characteristic value, rather than in a measurable way.
• The significance of statistical figures can be seen best when validating solid arguments or predictions out of hypotheses or conjectures that may seem overwhelming to a layman. It is far easier for the general public to understand the results of an experiment in greater clarity and detail if they have the simple reference point of numbers rather than scientific language, mathematics or equations.
• It could be argued that without the use, and advancements, of statistics and statistical research the empirical observations of today's scientists and inventors would be far less accurate and progressive. We all benefit from the developments and improvements in science that have been made to our day-to-day life, most of the time taking for granted what has been achieved with the aid of statistics.
Statistics are very important in science as well as technology for a number of reasons.
- Research
There
are various research methods that use statistics to record their results,
especially when it comes to experiments in the field of science. Once a number
of experiments have been carried out, statistics will show a certain result.
Then, scientists can accumulate all the statistics from each test to identify
if there are any differences or changes over time. It is important to have
statistics because it is the simple and stand-out way of representing a result.
- Significance
Statistics
are a single number or a collection of numbers that show the importance of a
certain change or development. In terms of technology this is important because
statistics can show what the current trends are in terms of various technologies
and the development of them. It is also good market research for companies that
are creating various devices because statistics from areas around the country
can help identify what the best device is to move forward with.
- Predictions
The
value of statistics is strong because they can serve as predictions as well as
probabilities in certain trends. This is especially the case in scientific
experiments and studies because within a lot of scientific research it is about
trial and error and what reactions work best. If there are professionals
working towards substances for medical use, statistics can identify what works
best.
Statistics plays a critical role in any modern
use of technology in science and industry. Statistical concepts and methods are
developed and applied in industries for various problems – for example, in
order to monitor the quality of products, to plan effective and efficient
designs to improve standards, to test and analyze the quality of items
produced, and to accept (reject) conforming (nonconforming) units produced. The
increased attention paid to these problems, and accompanying new statistical
methodologies, has created an active and valuable new area of research and
application-industrial statistics. The principal aim of the series is to
sponsor publications addressing one or more of these critical information
needs.
Publications in the series will contain
statistical information that is accessible to an interdisciplinary audience:
carefully organized authoritative presentations, numerous illustrative examples
based on current practice, reliable methods, realistic data sets, and
discussions of select new emerging methods and their application potential.
Principal Topic Areas
Life Testing * Reliability * Quality Monitoring
* Quality Management * Quality Control * Time Series with Applications *
Decision Theory * Survival Analysis * Prediction and Tolerance Analysis *
Multivariate Statistical Methods * Nondestructive Testing * Accelerated Testing
* Signal Processing * Design of Experiments * Computer Methods for Quality *
Manufacturing * Software Reliability * Neural Networks
The series includes professional expository
monographs, advanced textbooks, handbooks, general references, thematic
compilations of applications/case studies and carefully edited survey books.
Readership
The publications will appeal to a broad
interdisciplinary readership in applied statistics, industrial statistics,
quality control, manufacturing, applied reliability, and general quality
improvement methods. Graduates, researchers, and practitioners in industry and
academia will find the publications accessible presentations and useful
resources.