The best microservices sites and exchange experiences
- WebSite 001 - Click here
- WebSite 002 - Click here
- WebSite 003 - Click here
- WebSite 004 - Click here
- WebSite 005 - Click here
Additional information for the current page content
Scientific inquiry generally aims to gain knowledge in the form of testable explanations, which scientists use to predict the results of future experiments. This allows scientists to better understand the subject of study, and later use that understanding to interfere with its causal mechanisms (such as treating diseases). The higher the quality of the interpretation in formulating predictions, the higher its usefulness, and the more likely it is to continue to interpret the arsenal of evidence over its other alternatives. More successful explanations that account for and formulate accurate predictions over a wide range of circumstances are called scientific theory.
Most experimental results do not result in massive changes in human understanding. A theoretical scientific understanding develops in a gradual process of developments over time, sometimes in different fields of science.
Scientific models vary in their ability to be tested experimentally, in terms of time, and in their acceptance in the scientific community. Scientific explanations are generally accepted over time as evidence accumulates on a particular topic, and as the answers that an explanation gives about its alternatives demonstrate the merit of explaining the evidence. Researchers reframe explanations over time, or merge explanations together to produce new explanations.
David Hunter Tao views the scientific method as an evolutionary algorithm applied to science and technology.
Characteristics of scientific inquiry
Scientific knowledge is closely related to empirical results, and they may remain vulnerable to disproportionate inconsistency with new empirical observations. Any theory is not considered final; Because the problematic evidence is emerging again. If evidence exists, a new theory is proposed, or (this is more common) some modifications to the previous theory are added to explain the new evidence. Some may argue about the strength of the theory by how long it persisted without major changes to its core principles.
Theories may fall under the umbrella of other theories. Newton's laws, for example, have interpreted thousands of years of scientific observations of the planets with great precision. But it turns out later that they represent special cases of a more general theory (relativity), which explains exceptions (which Newton had not previously explained) and predicts and explains other observations such as the bending of light by the action of gravity. That is why independent scientific observations are related to each other in certain cases, and are united by principles of great explanatory power.
Since the new theories may be more comprehensive than the previous ones, and thus have greater explanatory power, later theories meet higher standards by explaining a large amount of observations about the earlier theories. The theory of evolution explains, for example, the diversity of life on Earth, how species adapt to their environments, and a number of patterns observed in the natural world, the most notable recent modification of which was their combination with genetics to form an expanded evolutionary structure. It also incorporated various aspects from other fields such as biochemistry and molecular biology.
Scientific inquiry generally aims to gain knowledge in the form of testable explanations, which scientists use to predict the results of future experiments. This allows scientists to better understand the subject of study, and later use that understanding to interfere with its causal mechanisms (such as treating diseases). The higher the quality of the interpretation in formulating predictions, the higher its usefulness, and the more likely it is to continue to interpret the arsenal of evidence over its other alternatives. More successful explanations that account for and formulate accurate predictions over a wide range of circumstances are called scientific theory.
Most experimental results do not result in massive changes in human understanding. A theoretical scientific understanding develops in a gradual process of developments over time, sometimes in different fields of science.
Scientific models vary in their ability to be tested experimentally, in terms of time, and in their acceptance in the scientific community. Scientific explanations are generally accepted over time as evidence accumulates on a particular topic, and as the answers that an explanation gives about its alternatives demonstrate the merit of explaining the evidence. Researchers reframe explanations over time, or merge explanations together to produce new explanations.
David Hunter Tao views the scientific method as an evolutionary algorithm applied to science and technology.
Characteristics of scientific inquiry
Scientific knowledge is closely related to empirical results, and they may remain vulnerable to disproportionate inconsistency with new empirical observations. Any theory is not considered final; Because the problematic evidence is emerging again. If evidence exists, a new theory is proposed, or (this is more common) some modifications to the previous theory are added to explain the new evidence. Some may argue about the strength of the theory by how long it persisted without major changes to its core principles.
Theories may fall under the umbrella of other theories. Newton's laws, for example, have interpreted thousands of years of scientific observations of the planets with great precision. But it turns out later that they represent special cases of a more general theory (relativity), which explains exceptions (which Newton had not previously explained) and predicts and explains other observations such as the bending of light by the action of gravity. That is why independent scientific observations are related to each other in certain cases, and are united by principles of great explanatory power.
Since the new theories may be more comprehensive than the previous ones, and thus have greater explanatory power, later theories meet higher standards by explaining a large amount of observations about the earlier theories. The theory of evolution explains, for example, the diversity of life on Earth, how species adapt to their environments, and a number of patterns observed in the natural world, the most notable recent modification of which was their combination with genetics to form an expanded evolutionary structure. It also incorporated various aspects from other fields such as biochemistry and molecular biology.
No comments:
Post a Comment