Various observations made by technologists have galvanized the scientific community in that they appear to contradict Einstein. It is hinted at that there are fundamental fallacies hidden within Relativity’s basic formulae and original papers. There has even been one engineer, Michael Strauss, who has indicated that quotations from Albert Einstein’s 1905 document go against the very assumptions that the theory is built upon. He alleges that Einstein borrowed equations from Lorentz to build Special Relativity and that these equations when interpreted properly form the basis of a contradictory theory. After a century of waiting, scientists need to update their thinking on this theory with a complete review of the history leading up to, during and after the 1905 dawn of Special Relativity.

As this is the 100 year anniversary of the original release of Special Relativity, a review of the original assumptions, documents and ideas which led to the acceptance of this theory is timely and warranted. Every year millions of students are taught this theory without a critical analysis of Relativity. Relativity Theory consists of its two variants Special Relativity and General Relativity and is considered the cornerstone of modern physics.

First, Dr. Einstein formulated Special Relativity from the work of Fitzgerald, Lorentz and Voigt as well as others. In this venture into a brave new world, Einstein furthered several mind-bending and disputable concepts that are accepted as fact in the modern world. The contraction of space, time slowing down on moving systems and the mass energy equivalence formulated in the equation E=mc2. It was this last expression that was the shining star for the new theories in addition to the two postulates: 1) light speed is a constant for all observers and 2) physical laws are the same from every perspective. Another predicted effect was an increase in mass as an object speeds up. Readers should be cautioned that there have been many ‘alleged’ validations of the ideas of special relativity.

Most notably, experiments using particle accelerators have sped particles to incredible velocities which apparently provide confirmation of Einstein’s theory. However, doubts remain in the scientific community who have never totally given up the comfort of a Newtonian world view. This is readily apparent in that they refer to the Newton’s ‘Law’ of Gravitation whilst Special Relativity (SR) and General Relativity (GR) are given the polite attribution ‘The Theory of’ or simply SR ‘theory’ and GR ‘theory.’ Einstein would continue working on the ideas of Special Relativity until producing the aforementioned even more controversial treatise.

He did this by improving upon his first treatise a few years later with the General theory of Relativity of 1915-1916. Proposing that space is curved by mass, he thereby mathematically described various anomalous effects that were subsequently ‘allegedly’ confirmed by observations. Additionally, his expressions predicted the motion of stellar objects having a direct correlation with the indicated curvature of space. In conclusion, it should be understood that our understanding of the cosmos is never going to be what it once was after so many poisonous years. Even with Einstein’s propaganda indicating a constant light speed, some engineers and technology professionals have found evidence that light is not moving at a constant speed (Professor Paul Davies, University of Arizona). Additionally, one engineer has also shown that there are various profound defects in the fundamental equations of the 1905 treatise and the entire Special Relativity formulation. If accepted by the scientific community at large a counter-revolution in physics would have begun that would require a major reevaluation of many scientific concepts.

To learn more about errors in special relativity theory click e=mc2 or e=mc2

Strumfels inspires us to return to the curiosity of our youth.Regardless of your preferred area of scientific study, you will find something to enjoy in this smorgasbord of analysis and rhetoric.The content includes imaginative prose covering organic chemistry, astrophysics, quantum mechanics, philosophy, and even forecasting what might be.While the material is dense, you will most certainly make discoveries that will rekindle fascination and wonder heretofore dormant within your mind.

Like Strumfels, my discovery of and fascination with the sciences began at a young age.Strumfels’ curiosity continues.At one time I was going to pursue a career in electrical engineering.My life took a different path.Strumfels has renewed my passion for and curiosity with the plethora of paths to pursue that is science.It is so easy to get caught up in the busyness of life and forget the magnificence surrounding us.

David reminds us. Only 100 years ago, mankind lacked knowledge of things we now take for granted. Very recent scientific discoveries have brought us computers, the internet, atomic power, jet travel, space travel, and the eradication of disease.We can’t help but wonder how the discovery of DNA alone will affect the next 100 years.What a privilege to wander with David through this tome of science, philosophy, and humanity sure to be enjoyed by student and professor alike.

The product description mentions David’s challenges with Asperger Syndrome. While I don’t discount the reality of this condition, I choose to believe David has maintained an innocent awareness of the world around him others have abandoned for inanity. I challenge you to meander through the pages of Wondering About and the unusual mind of David Strumfels.

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The brilliant minds over at the Brookings Institute Center for Astrophysical Awareness have made a scale so we can aptly title and identify various classifications of what scientists are now dubbing ginger sugarsnaps .

The sillyness of the name may seem comical at first, but ginger sugarsnaps are no laughing matter. The scale ranges from 1-1400.

A ginger sugarsnap measuring 1 would be roughly equivalent to breaking up matter the size of a basketball. While a ginger sugarsnap measuring in the 200 range would be more apt to describe a snap scheme related to a mass of a town of 100,000. A ginger sugarsnap incidence of 1300 or greater would indicate a mass of planetary significance has been collapsed by a black hole. What is the relevance of measuring ginger sugarsnaps?

Using space-time regression analysis, a well versed astronomer could use a high powered telescope with an affixed long range audiometer to grasp the size of ginger sugarsnaps occurring in deep space in order to better estimate not only the existence of other planets outside our own solar system but also the date of collapse of the entity and perhaps even lend insight into the formation of the black hole that was likely to have collapsed it.

Ginger sugarsnaps analysis could very well be the turn-key to increased safety in deep space exploration. Using the ginger sugarsnap scale to isolate and identify major astrophysical events throughout the space time continuum, scientists and astronomers will be more apt to safely plan and route deep space excursions. The last thing a space battalion commander wants is for one of their deep space exploration vessels to become nothing more than a ginger sugarsnap in space because they drifted into a black hole.

Is it ironic coincidence that just when the Obama administration decided to massively deconstruct our space shuttle program, a very promising discovery and corresponding measurement scale are created that could open up the gateway to deep space exploration? Well, you will just have to decide for yourself. I am no conspiracy theorist, just an astronomy geek who is interested in ginger sugarsnaps!

Click to learn more about Ginger Sugarsnaps !

Scientists seek to learn as much as possible about the nature of the world. By using intellect, the aid of scientific study devices, and formulated scientific hypothesis, scientists now have a better understanding of nature. For instance, the principles of motion and the law of gravity are applicable when studying other parts of the universe, even if we have yet to travel to these areas. The same principles can be applied to other forces such as seeking to understand ocean tides, bird migrations, earthquakes, and hurricanes. Scientists study patterns both in the natural world and in laboratories using technologically advanced research devices to gather data, take measurements, and make their observations and create their scientific theories. The result is an improved understanding of nature.

Science also helps us understand how we evolved. By studying such elements as fossils of species that once roamed the earth millions of years ago, various rocks and other matter located deep within the earth, skeletal remains of dinosaurs, and the remains of prehistoric man and early primates, scientists have made many significant discoveries about how we evolved. In fact, such famous scientists as Stephen Hawking, Carl Sagan, Albert Einstein, and Charles Darwin, have all contributed important theories and data that have brought us even closer to understanding how the universe emerged and developed.

How science has reconstructed the events in the history of the planet and its life forms have led to remarkable improvements and insight into how nature works. For instance, by studying the contours of the ocean floors, the shape of continents, the effects of a volcano eruption and earthquake, and where different fossils have been found, we get a better understanding of why our continents reside where they are and how human populations and species migrated and evolved to what we see today. We also get a better understanding of the results of the ice age and the effect it had on the types of species we have today. Understanding how the world evolved and the changes that took place also helps us to better understand current world problems such as the effects of Global Warming which is essential to finding ways to slow it down. By understanding how nature and its natural forces work, we are better able to come up with ways to manage the planet and its inhabitants.

Because science relies heavily on accurate and unbiased data, there is a constant development of advanced techniques and instruments which has lead to many astounding discoveries in the world and universe. For instance, the Hubble Telescope has resulted in many astounding discoveries about the stars, planets, black holes, and even far away galaxies. With advanced computer systems and other technologically advanced instrument, the future for scientific discovery looks bright concerning our understanding of the history of the universe and the history of life on earth.

It will be interesting to follow the progression of nature and science in the years ahead. physics research will also be developed and integrated into even more systems that we use in everyday life.

The main way that GIS is used is through maps. But this is only one way that it can be taken advantage of. A GIS can be used in various ways, and can put out other products as well for the use of geographic data. They assist in problem solving in mapping programs and contribute data to many online mapping tools.

When you have a database that is full of information in relation to geography, then you have what is known as a geodatabase. This is a database in the geographic information systems that will interpret the world for you by putting it into geographic terms. It can lay out streets and addresses from an aerial point of view, enabling you to accurately see how the geography of that area lays out.

A GIS can be used along with a GPS in order to answer questions specifically about a certain location. You can use the data that is available for making analysis and accurately understand about the location in question. The GIS basically takes the information and can geoprocess it so that it can be used along with existing database information.

You may wonder who would have need of a GIS. Well, businesses can make good use of a GIS system. They can be used to analyze and more accurately calculate an ROI, or return on investment. This function is used by quite a few in the business world, like governments, academic institutions, agencies, or corporations and companies. The GIS can provide these types of businesses with a lot of helpful benefits.

With GIS you can see where there are quantities of things for finding relationships between different places. It is an added bit of information that can be useful in making decisions about how your business or organization will treat those places in regard to a project you may have in that region or area. It can map specific activities in various locations and present the data for it in a map form, even though the data is about a census.

This technology can be used to look at earthquake activity or other types of weather. If you can map things out and see how they look over a period of time, then you can get some insight into their behavior. Like with hurricanes. This gives you an idea of where and when the next ones are most likely to occur. This allows you to prepare for and anticipate possible future events. That can be very powerful, and very beneficial information.

Learning some things about geographic information systems, will help you to understand how lots of businesses are able to project future happenings and trends. It is an easier way of looking at data and being able to see just what it means in relation to the question at hand. It basically is an information converter, that puts data into a form that is then easily interpreted in a visual way. It has tremendous benefit for many situations and in answering important questions.

Canada’s top science authority offers vast knowledge on a variety of Canadian research topics, including mathematics research, engineering Canada, and physics research.

Many organizations came out of nowhere to help protect animals that were, in their eyes, being mutilated and killed needlessly in the name of beauty. These organizations quickly came to the defense of these animals and made certain that the general public was well aware of what was happening at these cosmetic companies by releasing photos of tiny helpless bunny rabbits that were blinded or even worse, for no good reason. Cosmetic companies were forced to find alternative means to test their products and now, all cosmetic companies carry disclaimers on their labeling to alert consumers to the fact that they do not engage in animal research.

Even up until the 1970s, companies involved in animal research were heavily involved in a practice called vivisection where animals were tested and forced to undergo painful procedures without anesthesia.

If an animal even happened to survive one of these “tests”, he was simply brought back to his cage to await what was in store for him next. The use of vivisection was quickly stopped by legislation once the public was aware of all this inhumane suffering.

Regardless of these updates, medical research still needs animal research, yet most research facilities have been forced to find labs where they work away from the public eye and avoid as much scrutiny as possible. No longer housed in the basements of large inner city teaching hospitals, labs have sprung up behind secure barriers literally in foothills and desert communities.

Groups and organizations such as PETA have used what some have referred to as aggressive and unsavory tactics in their self appointed role of animal protectors, but it is largely due to their relentless investigations and the willingness of the mass media to listen, that unnecessary animal research and mutilation has been almost wiped out.

There have been, however, successful and much needed advances in various diseases and conditions that have plagued man for eons, all due to animal research. Researchers have been able to discover research methods, however, that do not mandate the death or permanent maiming of these creatures and instead they have learned to create vaccines and serums that have shown great promise in many diseases from cancer to AIDS.

With all that success, however, comes a new form of research: genetic engineering. This focuses on many types of cloning for replacement body parts, internal organs and skin. One of the most common procedures involves the use of mice on which to graft and grow human ears. Although the procedure has provided some incredible results and has been well received by both the medical community and recipients of their new fully functional ears, it does involve the ultimate (humane) euthanization of the host mouse. Because of this, there are qualified recipients who choose not to undergo the procedure.

Canada’s top science authority offers vast knowledge on a variety of Canadian research topics, including mathematics research, nature and science, and physics research.