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The telescope's most powerful ever to fit in your pocket

The telescope's most powerful fits in your pocket

By Nathaniel Douglas

Discount Telescope – "The astronomers over the past 50 years have made discoveries wonderful, expanded our understanding of the universe and open to the vision of humanity beyond the visible electromagnetic spectrum. Our knowledge of how the universe was born and how its phenomena arise has grown exponentially into a single human life. Despite these strides remain fundamental questions that are largely unanswered. To deepen our understanding of how our present universe formed to Following the Big Bang needs a new type of observation with capabilities currently available in the two existing ground-based or telescopes space. "

The bigger is better concept is so embodied in our consciousness, which comes from the idea of small telescopes more efficient seem to defy all laws of science. Yet science still supports Miniature Telescopes Size. It is, however, the lock on the understanding of fundamental principle of interest that deprived us over centuries.

Research in this area has a rich understanding of the science behind functioning optical telescope that has helped to design the next generation of telescopes. The size of the introduction of telescope miniature will be the size of a viewfinder now used the telescopes present. However, these new generations of telescopes have resolving power even larger than the largest known telescope.

Technology in the lens and the manufacture of glass has improved significantly over the centuries. With the help of computers, lasers and technologies of robotics, optics may be made with unprecedented accuracy. Finally, the size telescopes will reduce the portable instrument as small as a pair of eyeglasses, in no distance future. Telescopes will soon be composed of very small (a few centimeters long) tubes mounted in a hat. They have the advantage of precision of movement and shock absorbing human head provides. Large field of view similar to the naked eye, the focus impressive infinite magnification (limited only by light pollution and disturbance) and brightness to color snapshot photography and recording live video.
Hairstyles will be convenient, efficient and versatile. Reservations develop the potential to be upgraded and personalized.
After nearly 400 years of development telescope, we finally have a breakthrough revolutionary now able to reshape science telescopes and create revolutionary optical devices to shrink telescopes size of football to a viewfinder and possibly a pair of glasses. Welcome to the new era of technology telescope.

The impossible made possible - that our technological achievements are shaping the future we will find ways to make the impossible possible. We are constantly improving existing technology, making them smaller and more efficient. In many cases, small drawings most integrated increase the broad category of efficiency. We are now capable of manufacturing instruments on a microscopic scale, except the telescope optics.

Optical telescope is the only instrument that is currently growing in size and not shrink then. As we advance in the Research and development of these instruments, they grow in size with each new generation.
It is a dream astronomer to have access to a telescope with high resolution power, but small enough to be portable. However, it is rooted in our minds that we are not able to increase resolution with a reduced size in a unique design. In relation to this, engineers continue to build instruments bigger and bigger, creating monsters and giants.

The Miniature reason size telescope is considered impossible not just with science perspective, but with poor understanding of the principle of light. We still do not understand the complex interactions that arise in both the display and image capture, until now. For this uncertainty, why we still use two different theories of light. Light is considered as a particle which accelerates from point A to point B and the light is also viewed as waves pass through the wave motion. When one theory fails to provide meaning and the other is applied. Size Miniature Telescope is based on "Unifying theory of light."

The Science – Our eyes are quite unique: a young pupil dilates between 2 and 7 mm, yet the eye has the ability to visualize images of several thousand meters in diameter. Our large field of view provides convincing evidence that we consider converging rays of image and not of parallel rays. Rays converge image obeys the law inverse square of electromagnetic radiation. Rays converge describe the rays that make to a point.

Therefore, images implemented by these departments to reduce their cross-sectional area with travel distance. The images collected by the greater openness the telescope, actually penetrates into the few millimeters of our eyes. Seen in small angle (field of real) in seconds of a degree, however small, the brain's hard to isolate the data they contain for recognition when they are taken into account in our field of vision. These angles little information are packed in our large field of view, and seem to be just a small point or become invisible. However, magnification provides the means by which the angles view small converted into larger ones.

A refractor telescope with an aperture of 30 mm and 120 mm focal length (aperture ratio f / 4), with a magnification of 5x times and will have an exit pupil of 5 mm. This is a telescope very light, tapping close more than 7 mm Opening of the pupil. When a second telescope was built after Aperture Size identical 30 mm, but they have a focal length of 1200 mm (F/40). The magnifying power will be 50x times.
Instead of a student millimeters 5 to exit the telescope this has now Ward output of only 0.5 mm. The same formula to get 50x times magnifying power and an exit pupil of 5 millimeters, the necessary opening is 300 mm.
Refractor telescopes can not get a 7 mm exit pupil without being affected by aberrations. To overcome this obstacle, designers telescope attempt to allocate a balance between magnification and brightness. The resolving power describes this balance. The compromise will reduce the brightness, but the power of magnification increases and image clarity in the same proportion.

The eye plays a role important role in finalizing the image of the visual field apparent. They are able to influence the field of vision, expansion, and exit pupil (brightness). A short focal length eyepiece will provide a large magnifying glass, power small field of view, and the exit pupil short while, a long focal length eyepiece will a small power magnification, large field of view and the exit pupil long.
In this example, we can see that the magnification is inversely proportional to the diameter of the exit pupil and the exit pupil is directly proportional to the luminosity. Formula bigger is better, we know that by increasing the lens opening can increase the exit pupil and therefore the brightness of the image.

There are several aberrations of optical design establishing restrictions on Modem telescope design. In designing optical systems engineering approach must make compromises in the control aberrations to achieve the desired result. Aberrations of errors that result in the imperfection of the image. Such errors may arise design or workmanship or both. Achromatic lenses were developed to reduce chromatic aberration created when the light white is refracted, but even the best designs, chromatic aberrations can not be totally eliminated. Color aberration is also made a side effect called the secondary spectrum. The higher the ratio of focal length, the lowest in the secondary spectrum becomes. Chromatic aberration limits the most refractory an aperture ratio of f/15. Reflectors, which is less affected by the aberration of color, a ration focal length f / 5 for the commercial design and f/2.5 for Professional Designs. Within known design telescope, different conditions for the perfect image is integrated, forcing engineers to make compromises to achieve a balance close that will render the best possible image.

What if the magnification, concentration, and brightness can be separated? The new formula "miniature size Telescopes' isolates each these factors and allow each independently tuned for maximum efficiency.

The desire magnifying Power-"The overwhelmingly Large Telescope (OWL) is an impressive project that requires international efforts. This telescope large mirror primary is over 100 meters in diameter and the resolution 40 times greater than the Hubble Space Telescope. This is a telescope with a primary mirror of the size of a field soccer ball. "

The need for greater magnification power began with the Galilean design. Research and experiments to improve the magnification of the telescope shows that increasing the magnification power is directly proportional to the difference the focal length of lens and ocular (eye), where the focal length eyepiece is the shorter of the two.
The Race to Build Telescope The most powerful began at an early age in developing telescope. The greatest minds when competing for dominance shaping this new technology. During this period, optical tubes were made very long. Sometimes, these tubes reach the length that makes them unstable. In some cases, the tubes were removed from the design of the instrument. Telescopes Tubeless were called telescopes air.
While engineers Telescope compete for telescopes more powerful, they unwittingly encountered a minor problem that limits the length and magnification of these drawings refractor early telescope. They note that the images are darker with the magnification increases. Some how, the magnification is to reduce the amount of light entering and or exiting the lens of the telescope.

The explanation for this phenomenon is that enough light has not been Exit the telescope eyepiece, such as sufficient light was not collected at the target. Increasing the aperture size increases the exit pupil and the problem of the dark image with magnification has been resolved.
At this stage of development of the telescope, Kepler and Galileo refractor telescope was invented. Lens decision was in its infancy and it is difficult to manufacture quality lens. The lens opening was even a greater challenge.

Refractor telescope soon reach its "size limitation, but now the second section of the formula for resolving power is known, the reflecting telescope of several variants was born.
To date, no later than close 400 years, the same formula is still used. Improvements modems simply increase the quality of optics now used, if a change minimize aberrations. We can now build larger telescopes, with resolving power and brightness never taught possible at the time of Galilee, but the formula used in the development of these instruments modem is same as the older design, bigger is better.

The most it's big, better formula is not without limits. For example, chromatic aberration limits the brightness of an astronomical telescope, which requires a report Opening of F / I 5 to filter the aberrations of the secondary spectrum. The ratio of focal requested limit the collection of light capabilities refractors. Reflectors are not affected by the side effect spectrum. Report length of about ff2.5 is reasonable when it asks to close the ward Release to 7 millimeters. However, any attempt to increase the magnification in these telescopes reflectors while the brightness retention will require increased In opening and the focal length in the same proportion. These design features that makes the phrase "bigger is better 'so convincing.

Previous Limitations - understanding the principle of light has rewarded us with the development technology modern optics. This article is written to introduce a breakthrough in research and development of small telescopes powerful.
Most telescopes major producers to inform you that the magnification is not material and that the brightness is a concern over give a buyer would have when shopping for a telescope.

Magnification and lighting are also important for visualization and capture Image distant, but the most important factor in the rendering of details in an image, is the focus. Of all the basic principles involved in capturing a image, the emphasis is less well understood. The awareness of a pixel length and how to obtain a picture focusing can be easily calculated, but what are the interactions electrodynamics composing an image emphasis is still unanswered.

All optical instruments are designed around focus, so it will always be a priority to forming clear picture.
Magnification and brightness are of secondary importance, they are the result after focus is achieved. This is the critical distance of the emphasis that determine the maximum magnification and lighting that an image will be clearly displayed.

Ratio describes the action of converting small angles (field of true) and larger (Apparent Field) or greater, then he really is.

If it were not for the need for specialization, a convex lens single of a magnifier would be a telescope capable of infinite magnification, through the action of the simple variation of distance is taken of the eye.
Unfortunately, there's a critical distance at which the images are orientation through a simple lens or even a lens system. This is also known as the critical distance of the development.

What focus?

FW Webster's Dictionary: '-CUS, is the sharpness and clarity with which one makes the optical system of a picture.

Four Hundred Years of History – The discovery of magnification distance was by chance. Early Maker lens, Jan. Lippershey experimented with two different objectives when he discovered the effect of magnifying distant. He found that by keeping a close negative lens in the eye while taking a positive lens in alignment with the first, far eye, that distant objects appeared much closer than they would to the naked eye. Since then, research to understand and explain the science behind these devices magic is always attempted. Even with current technology, designers telescope still face limitations in design and challenges that forge a compromise between size of the telescope, the brightness and image clarity.
Scientists have always been intrigued by the nature of the light. Sir Isaac Newton as regards light flux of tiny particles traveling in straight lines. Dutch scientist Christiaan Huygens, other hand, believed that light consists of waves into a substance called ether, that meant filling the space, including a vacuum. Huygens concept becomes accepted as the best theory of the two. Today, however, scientists believe that light consists of a stream of pockets wave tiny energy called photons.

The Bigger is Better formula - "With a telescope, which has 10 times the collecting area of each telescope ever built. You would be able to get several thousands of times smaller than the smallest thing to do with telescopes today. "

The formula that has shaped telescopes known over the centuries of development is fairly basic, well known and proven large is better.

This is the same as saying that See Aperture provides brighter, while longer focal length allows a greater magnification. Same so, is this formula written in stone?

Let's put the formula to the test.

Can grow large, be obtained without objective long focal length? The answer is yes. Microscopes provide a magnification very large with relatively shorter focal length lens. Is it possible to collect light without very large opening? Again, the answer is yes. Microscope shows too. So why is it that microscopes provide high magnification with sufficient brightness to a relatively small, while the telescopes are not? This shows that it is not allowed to grow, or brightness, but the design is the instrument limitations emphasize the idea that bigger is better. A telescope's basic plan Keplerian works like a microscope, viewed through the other end of the tube. Because the telescopes are basically an inverted microscope, we can see close relationship between the two.
An international standard complete microscopic size student provides as much as 400x magnification, and yet a microscope consists of a tube less than 20 centimeters in length. Sufficient light is reflected by its "plainoconvex mirror under 7 centimeters diameter. To obtain the same brightness and magnification in a telescope, the ratio of focal length f/2.5 is recommended for the near exit pupil 7 millimeters. Telescope will require an opening of 320 inches (3.2 meters) and a focal length of 800 cm (8 feet), calculating roughly with a 20 mm eyepiece. This represents an increase of nearly 50x size. This shows that the brightness is not limited to open, or magnification limited to long lens. However, the "bigger is better 'formula is a design limitation that the surface in the zoom distance.
Focus of distant images is more difficult to focus close-up images. We can prove this with a magnifying lens one who stands near eye. Other objects, then 2 / 3 of the focal length of the lens will be out of discussion.

All optical systems are of design around discussion. In order to vary the magnification and lighting, emphasis must be constant. We may compromise on magnification for brightness and Visa-a-versa, but we can never compromise development.

As a result, instead of saying that the magnification M is inversely proportional to the luminosity, it is also true to say that magnification M is equal to the point divided by the brightness B, where the emphasis is a D. constant

M = D / B

Magnification (M) = Focus D (constant) / Brightness (B)

Within aware design telescope optics, three factors are integrated. Emphasis was the main factor to make a clear image, while the magnification and brightness is both a secondary factor in the emergence of a focused image. For known systems perspective, orientation, brightness and magnification are inseparable. The resolving power is used for summarize the performance of a telescope. It is established by the ability of the telescope to print details of an image. A picture is footprint of individual dots that gather to form a complete picture. Magnifying a picture involving the stretching of those points. Light magnification is very different image magnification, and grows by changing the angle of the light received from the image.
But there is the question of breakthrough what if these three major factors could be isolated and adapted individually? Hmmmm. Telescope Enginering will not be the same, and the science of astronomy will explode.

Nathaniel Douglas

dougieresearch@yahoo.com

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