http://en.wikipedia.org/wiki/Florentin_Smarandache interesting and different maybe, but on what basis do you call him a crank?HallsofIvy said:Smarandache is a well known crank.
Thank you for spelling correction. Smarandache is not the lead author, the lead author and third author are physicists. I was just interested in hearing if there is any new physics in the merge of the two concepts,e.g, (neutrosophic theory) and (general relativity theory). I find that neutrosophic theory has overlap with neutral monistic philosophy of which I have an interest. Some might argue that quantum mechanics interprets the uninterpretable, no ?HallsofIvy said:Smarandache is a well known crank.
By the way, the word is "neutroSOPHIC", not "neutroSCOPIC". It is, according to Smarandache's own words, a way to "interpret the uninterpretable".
Garth said:http://en.wikipedia.org/wiki/Florentin_Smarandache interesting and different maybe, but on what basis do you call him a crank?
Garth
Agreed!pervect said:I was not particularly familair with this author, but
http://www.gallup.unm.edu/~smarandache/BeginAdventure.pdf
looks pretty cranky to me.
Neutroscopic methods in General Relativity refer to a set of mathematical techniques used to study the behavior of matter in the presence of strong gravitational fields. These methods are based on the principles of General Relativity and are used to describe the effects of gravity on the motion and properties of particles.
Neutroscopic methods are unique in that they focus on the behavior of matter in strong gravitational fields, while other methods in General Relativity may also consider other aspects such as the geometry of space-time or the evolution of the universe. Neutroscopic methods are specifically designed to study the dynamics of particles in the presence of gravity.
Neutroscopic methods have a wide range of applications, including studying the behavior of matter in neutron stars and black holes, understanding the dynamics of galaxies and other celestial bodies, and predicting the behavior of gravitational waves. These methods are also used in developing models for the evolution of the universe.
One of the main challenges in using neutroscopic methods is the complexity of the mathematical equations involved. These methods often require advanced mathematical techniques and can be difficult to solve analytically. Additionally, the accuracy of these methods can be affected by the assumptions and approximations made in the calculations.
Neutroscopic methods continue to be an important tool in current research on General Relativity. With the advancements in technology and computational methods, these techniques are being used to study more complex and realistic scenarios, such as the merging of black holes and the formation of gravitational waves. Neutroscopic methods also play a crucial role in testing the predictions of General Relativity and exploring alternative theories of gravity.