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Orion can guide you to better quality astrophotos, literally, with our Awesome AutoGuider Refractor Telescope Package. This affordable and effective autoguiding solution can be added to virtually any astrophotography system to improve guiding accuracy so you get awesome astrophotos every time.
No matter what telescope you’re using for long-exposure astrophotography, precise guiding is an absolute requirement to get pinpoint star images. Using both a dedicated autoguider device and guide scope telescope is arguably the best way to optimize the accuracy of any astrophotography pursuit. Employing a complete autoguiding setup is especially useful when going after images of faint deep-sky objects when multiple lengthy exposures are required.
This complete Orion-exclusive package makes autoguiding easy, and its affordable price is easy on your wallet. The Awesome AutoGuider package contains everything you need to obtain precise tracking accuracy for your astrophotography setup. Let’s take a closer look at each of the included items:
Orion ShortTube 80 Refractor Telescope Optical Tube Assembly
The popular Orion ShortTube 80 refractor telescope is included for use as a guide scope. With a short focal length of 400mm, the ShortTube 80 makes an ideal guide scope since the fast f/5.0 optical tube provides an expansive wide field-of-view, making guide star acquisition a breeze. With fully multi-coated optics and a light weight of 2.4 lbs., the ShortTube 80 refractor has become a popular guide scope thanks to its versatile design and no-nonsense performance.
Orion StarShoot AutoGuider
The Orion StarShoot AutoGuider keeps track of a selected guide star and communicates constantly with connected equatorial telescope mount to correct any tracking errors throughout long exposure astrophotography sessions. The sensor inside the StarShoot AutoGuider is a high-resolution, 1/2" format 1.3-megapixel CMOS monochrome chip, with 5.2µ x 5.2µ pixels for highly accurate guiding. The chip resides in a super-compact, anodized aluminum housing that measures just 2.5"wide by 2.35" long and weighs a mere 4.4 oz. Thanks to the small pixel size, the highly accurate sensor makes the StarShoot AutoGuider a perfect match with the short focal length ShortTube 80 refractor guide scope.
Orion 105mm ID Pair of Guide Scope Rings
The included set of two cast-metal rings are designed to hold the ShortTube 80 refractor and provide a wide range of alignment adjustment so the guide scope can be aligned with your astrophotography telescope easily. Each Guide Scope Ring features three non-marring nylon alignment screws for precise alignment of guide scope without scratching.
Orion Guide Scope Ring Mounting Bar
The rigid anodized aluminum Guide Scope Ring Mounting Bar is included to attach the entire Awesome AutoGuider Package to an astrophotography telescope. Attach the Guide Scope Rings to the Mounting Bar with the included hardware and then install the ShortTube 80 refractor into the Guide Scope Rings. Then couple the entire Awesome AutoGuider package to your astrophotography telescope. Pre-drilled through-holes allow easy attachment.
1.25" Orion Telescope Eyepiece Extension Tube
An anodized, machined aluminum 1.25" Orion Eyepiece Extension Tube is included for extra focuser "back travel" on the ShortTube 80 refractor so focus can be achieved easily.
With its total weight of just 4.5 lbs., the Orion Awesome Autoguider package can easily be added to virtually any astro-imaging set-up without exceeding your imaging-capable EQ mount’s payload capacity. If you aspire to be an awesome astrophotographer, get the affordable Orion Awesome AutoGuider Refractor Package today!
Warranty
Limited Warranty against defects in materials or workmanship for one year from date of purchase. This warranty is for the benefit of the original retail purchaser only. For complete warranty details contact us at 800-676-1343.
Warning
Please note this product was not designed or intended by the manufacturer for use by a child 12 years of age or younger.
Product Support
Visit our product support section for instruction manuals and more
Specs
Best for imaging
Deep sky
User level
Beginner - Suited for a wide range of uses, Level 1 telescopes are simple to operate and set up. Some initial assembly may be required. Very good optical and mechanical quality. Great for families, young people, and folks who don't want to mess with equipment but just want to take a look. Any of these scopes will show you countless lunar craters, Saturn's rings and a myriad of star clusters and nebulas! Referring to the manual is recommended.
Intermediate - These scopes offer higher performance and more advanced features than Level 1 models. They typically take a bit longer to learn and need some set-up or adjustments. But anyone with the slightest technical bent will have no problem getting familiar with these models. Referring to the manual is recommended.
Advanced - These scopes provide the best performance but may require more skill to master and appreciate. They have exceptionally fine optics and mechanics. Some are easy to use but are but on the large or heavy side. Some are intended for specialized uses. These scopes will appeal to the more technically inclined. Referring to the manual is highly recommended.
Expert - Expert telescopes offer uncompromising optical and mechanical quality for the most demanding amateur astronomer. They may be technically involved or designed for specialized use, such as astrophotography or detailed deep sky observation. They carry a premium price, but are designed to provide the ultimate performance in the field. Referring to the manual is highly recommended.
Intermediate
Optical design
A small, quality achromatic refractor of 60mm to 80mm aperture makes a fine starter scope for observing the Moon and major planets. They're affordable ($100 to $350), portable, and maintenance-free, all desirable factors if you're just "testing the waters" of Astronomy. If nebulas and galaxies are your main interest, a Newtonian reflector or Schmidt-Cassegrain is the way to go. Moving up to a 90mm or 100mm refractor will snare more objects and provide better performance, for a higher price. Renowned for crisp, sharp images, refractors are the priciest per inch of aperture of all telescope types. A refractor is the scope of choice if you will be doing most of your stargazing from city or suburbs, where the night skies are moderately light-polluted. Since viewing is restricted mostly to the Moon and planets a big scope would only amplify the skyglow, yielding poor washed out images. Reflectors Newtonian reflectors are great all-around scopes, offering generous apertures at affordable prices. They excel for both planetary and deep-sky viewing. Of course, the larger the aperture, the more you'll see. Smaller, 3" and 4.5" equatorially mounted Newtonians will provide a nice "survey" of celestial luminaries, and they maintain their portability. Six-inch and 8" Newts have enough aperture to deliver captivating images of fainter star-clusters, galaxies, and nebulas-especially in a reasonably dark sky. Although the 6" to 8" Newts are bulkier and weigh more, with a Dobsonian mount they are easily manageable by one person making them a wonderful beginner scopes. Dobsonian-mounted reflectors have lower price tags than their equatorial counterparts, starting in the mid-$300s for a 6" Dob. Schmidt-Cassegrains If portability is important to you, you might want to consider a "catadioptric" scope such as a Schmidt-Cassegrain or Maksutov-Cassegrain. They pack a hefty aperture into a very compact tube. An 8" Schmidt-Cassegrain provides excellent views of the Moon, planets, and deep-sky objects, and is well suited for astrophotography. Schmidt-Cassegrains should be considered as an investment priced over $1000 for the most basic 8" models (and hundreds more to outfit it for astrophotography). The Bottom Line Now that you've received the crash course on telescopes, here's some parting advice for aspiring astronomers: Get as much aperture as you can reasonably handle. Big aperture is desirable, however you don't want to end up with a scope that is too big or complicated to conveniently set up, haul around-and use! Also, avoid those gee-whiz, techno-toy scopes with the hefty price tags that are showing up in the big chain stores. For a first telescope, we recommend a basic refractor of 90mm aperture or smaller, or a Newtonian reflector of 6" aperture or less, unless you're really committed. After you've learned the basics of observing and developed an appreciation for the hobby, then you can move up to a bigger, fancier scope.
Refractor
Optical diameter
The optical diameter (also known as aperture), is the size of the telescope's main light collecting lens or mirror, measured in millimeters or inches. As the diameter increases, more light is collected and the resolution increases.
80mm
Focal length
The focal ratio of an optical system is the ratio of a telescope's focal length to its aperture. Short focal ratios (f/5, f/4.5) produce wide fields of view and small image scales, while long focal lengths produce narrower fields of views and larger image scales.
400mm
Focal ratio
The focal ratio of an optical system is the ratio of a telescope's focal length to its aperture. Short focal ratios (f/5, f/4.5) produce wide fields of view and small image scales, while long focal lengths produce narrower fields of views and larger image scales.
f/5.0
Coatings
Lenses are coated with an antireflective material to ensure that as little light as possible is reflected away, so more gets to your eye. Good lenses are at least "fully coated," with a single layer of magnesium fluoride applied to each air-to-glass lens surface. Multiple layers of coatings are even more effective; the term "multi-coated" means one or more lens surfaces have multiple coatings. "Fully multi-coated" is even better, meaning that all lens surfaces are multiple-layer coated.
Mirror star diagonals are coated with a reflective material similar to telescope mirrors in order to reflect the light into the eyepiece. Standard aluminum coatings reflect between 88%-92%, and enhanced aluminum reflects 97%.
Dielectric coatings use a different process to deposit a coating that reflects 99% of the light. In addition to the higher reflectivity, Dielectric coatings are much more durable than aluminum coatings, so they last longer and can be cleaned with less risk of damage.
Fully multi-coated
Optics type
Newtonian reflectors will have either a spherical shaped mirror, which is less expensive to produce, or a higher quality parabola, which does not result in spherical aberration. Cassegrain telescopes routinely use spheres in addition to other lenses in the optical path to correct for residual spherical aberration.
Refractors use a series of lenses to provide a clear image. Designs range from a standard air-spaced doublet (two lenses in a row) to exotic designs such as oil-spaced triplets and 4-element multi group lenses.
Air-spaced doublet
Glass material
Refractors use glass lenses to focus the light, and the glass material plays an important role in the quality of the resulting image. Standard achromatic refractors routinely use Crown and Flint for the two elements, but more expensive apochromatic refractors can use ED (extra low dispersion) glass for one or more of the lenses. Reflector mirrors are made from glass with different levels of thermal expansion. Standard mirrors are made from material such as Soda-Lime Plate glass and BK-7 glass. Glass with Pyrex or other low thermal expansion material will not change shape as dramatically during the cool-down period, resulting in more stable images during this period.
Crown/Flint
Resolving power
The theoretical resolving power of a telescope can be calculated with the following formula: Resolving power (in arc seconds) = 4.56 divided by aperture of telescope (in inches). In metric units, this is: Resolving power (in arc seconds) = 116 divided by aperture of telescope (in millimeters). Note that the formula is independent of the telescope type or model, and is based only upon the aperture of the telescope. So the larger the telescope's aperture, the more it is capable of resolving. This is important to keep in mind when observing astronomical objects which require high resolution for best viewing, such as planets and double stars. However, it is usually atmospheric seeing conditions (not the telescope) which limits the actual resolving power on a given night; rarely is resolution less than one arc-second possible from even the best viewing locations on Earth.
1.45arc*sec
Lowest useful magnification
Lowest useful magnification is the power at which the exit pupil becomes 7mm in diameter. Powers below this can still be reached with the telescope to give wider fields of view, but the image no longer becomes brighter at a lower power. This is due to the fact that the exit pupil of the telescope (the beam of light exiting the eyepiece) is now larger than the average person's dark adapted pupil, and no more light can fit into the eye.
12x
Highest useful magnification
The highest practical limit is different from the often used "highest theoretical magnification" specification. The "theoretical" limit generally is 50x the aperture of the scope in inches (2x the aperture in mm). So for example, an 80mm refractor is capable of 160x, and a 10" telescope is theoretically capable of 500x magnification.
But after approximately 300x, theory breaks down and real world problems take over. The atmosphere above us is constantly in motion, and it will distort the image seen through the telescope. This effect may not be noticeable at lower powers, but at higher powers the atmosphere will dramatically blur the object, reducing the quality of the image. On a good night (a night where the air above is steady and the stars aren't twinkling), the practical upper limit of a large telescope is 300x, even thought the theoretical limit may be much higher. This doesn't mean the scope will never be able to reach those higher "theoretical" powers - there will be that rare night where the atmosphere is perfectly still and the scope can be pushed past it's practical limit, but those nights will be few and far between.
160x
Highest theoretical magnification
160x
Optical quality
"Diffraction Limited" means that the limits of image detail are determined by the physical properties of light, and not by optical defects in the telescope.
Diffraction limited
Focuser
1.25" Rack-and-pinion
Mount type
Optical Tube without Mount
Astro-imaging capability
The astro-photographic capability of the telescope is based on the style, stability, and accuracy of the mount and tripod. Telescopes on either very lightweight mounts or non tracking mounts (such as Dobsonians) are capable of only very short exposures such as lunar photographs. If a motor drive is attached to an equatorial mount, even a small lightweight mount is capable of capturing some planetary detail. Larger EQ mounts that utilize very precise tracking and excellent stability are capable of longer exposure deep-sky photography.
Lunar, planetary & long exposure
Length of optical tube
15.0 in.
Weight, optical tube
3.0 lbs.
Other features
Fully multi-coated, Compatible with Windows XP/Vista/7
In the Box
Orion ShortTube 80 refractor telescope optical tube assembly (OTA)
Orion StarShoot AutoGuider
1.25" Extension tube (for camera focus)
Guide scope rings
Guide scope ring mounting bar
Shipping Info
Orders received by noon Pacific Time for in-stock items ship the same business day. Orders received after noon will ship the next business day. When an item is not in-stock we will ship it as soon as it becomes available. Typically in-stock items will ship first and backordered items will follow as soon as they are available. You have the option in check out to request that your order ship complete, if you'd prefer.
What is Orion’s Standard One Year Limited Warranty?
Orion warranties against defects in materials or workmanship for a period of one year from the date of purchase for Orion brand products. This warranty is for the benefit of the original retail purchaser only. During this warranty period Orion Telescopes & Binoculars will repair or replace, at Orion’s option, any warranted instrument that proves to be defective, provided it is returned postage paid to: Orion Warranty Repair, 89 Hangar Way, Watsonville, CA 95076. If the product is not registered, proof of purchase (such as a copy of the original invoice) is required. This warranty does not apply if, in Orion’s judgment, the instrument has been abused, mishandled, or modified, nor does it apply to normal wear and tear. This warranty gives customer’s specific legal rights, and you may also have other rights, which vary from state to state. For further warranty service information, contact: Customer Service Department, Orion Telescopes & Binoculars, 89 Hangar Way, Watsonville CA 95076; (800) 676-1343.
Some items may be covered by a warranty period shorter or longer than the standard one year warranty. Specific warranty information is available on the product detail page of the website
Does the atmosphere play a role in how good the quality of the image will be?
Atmospheric conditions play a huge part in quality of viewing. In conditions of good “seeing”, star twinkling is minimal and objects appear steady in the eyepiece. Seeing is best over-head, worst at the horizon. Also, seeing generally gets better after midnight, when much of the heat absorbed by the Earth during the day has radiated off into space. Typically, seeing conditions will be better at sites that have an altitude over about 3000 feet. Altitude helps because it decreases the amount of distortion causing atmosphere you are looking through. A good way to judge if the seeing is good or not is to look at bright stars about 40 degrees above the horizon. If the stars appear to “twinkle”, the atmosphere is significantly distorting the incoming light, and views at high magnifications will not appear sharp. If the stars appear steady and do not twinkle, seeing conditions are probably good and higher magnifications will be possible. Also, seeing conditions are typically poor during the day. This is because the heat from the Sun warms the air and causes turbulence. Good “transparency” is especially important for observing faint objects. It simply means the air is free of moisture, smoke, and dust. These tend to scatter light, which reduces an object’s brightness. One good way to tell if conditions are good is by how many stars you can see with your naked eye. If you cannot see stars of magnitude 3.5 or dimmer then conditions are poor. Magnitude is a measure of how bright a star is, the brighter a star is, the lower its magnitude will be. A good star to remember for this is Megrez (mag. 3.4), which is the star in the “Big Dipper” connecting the handle to the “dipper”. If you cannot see Megrez, then you have fog, haze, clouds, smog, light pollution or other conditions that are hindering your viewing. Another hint: Good seeing can vary minute to minute. Watch the planets for a while to pick-up those moments of good seeing.
How do I clean any of the optical lenses?
Any quality optical lens cleaning tissue and optical lens cleaning fluid specifically designed for multi-coated optics can be used to clean the exposed lenses of your eyepieces or finder scope. Never use regular glass cleaner or cleaning fluid designed for eyeglasses. Before cleaning with fluid and tissue, blow any loose particles off the lens with a blower bulb or compressed air. Then apply some cleaning fluid to a tissue, never directly on the optics. Wipe the lens gently in a circular motion, then remove any excess fluid with a fresh lens tissue. Oily finger-prints and smudges may be removed using this method. Use caution; rubbing too hard may scratch the lens. On larger lenses, clean only a small area at a time, using a fresh lens tissue on each area. Never reuse tissues.
What is Periodic Error Correction or PEC?
Periodic Error Correction, or PEC for short, is a system that improves the track accuracy for the drive by reducing the number of the user corrections. PEC is designed to improve photographic quality by reducing the amplitude of the worm errors. Using the PEC function is a two-step process. First you guide for at least 5 ½ minutes (the time it takes the worm to make one revolution) during which the system records the corrections you make. This “teaches” the PEC chip the characteristics of the worm. The second step is to play back the corrections you made during one recording phase. Keep in mind, this feature is for the advanced astrophotographer and requires careful guiding.
Reviews
Orion Awesome AutoGuider Refractor Telescope Package
Optical Quality??
4.4
/
5
Mechanical Quality??
4.4
/
5
7 out of 7 (100% ) reviewers recommend this product.
10
10
The Orion Awesome AutoGuider Package will add tracking accuracy to any astrophotography set-up. Package includes everything you need to autoguide: ShortTube 80 guidescope, StarShoot AutoGuider, guidescope rings & plate, and extension tube for focus.
Optical Quality??
4.4
/
5
Mechanical Quality??
4.4
/
5
7 out of 7 (100% ) reviewers recommend this product.