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ASI Planet Camera Guide

We have all seen incredible images of the planets online and in books and wanted to see them for ourselves. With ZWO, you can see the rings of Saturn and the great red spot on Jupiter. 

ZWO is committed to providing high-quality astronomical cameras at an affordable price to enthusiasts around the world. 

1.
Guiding

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The gear you need specifically to start guiding is, 

1. Deep space camera

2. Acquisition software/hardware – ZWO ASIAIR

3. Filter Wheel and Filters (optional)

4. Electronic Focus (optional)

5. Guide scope/Off-Axis Guider

6. Guide Camera

To suit everyone's desires, we have created multiple planetary cameras. With this guide, you will be able to pick the one best suited to you!

ASI Planetary Camera

ASI120MM-S / ASI120MC-S


Retail Price – ??? USD 

CMOS AR0130CS 

Resolution – 1280×960

Pixel Size – 3.75μm


Imaging the moon is how most get started in astrophotography. If you are a beginner, you cannot go wrong with the ASI120MC-S. This is the best entry-level camera for lunar and planetary imaging. The ASI120 conquered the CCD camera as the go-to for imaging our solar system. Due to its high sensitivity, high frame rate and ease of use, the ASI120 is the perfect choice for planetary photography.

The ASI120-S series has two models the ASI120MM is black and white, more sensitive and requires different filters to make a colour image and the ASI120MC is a colour camera which is easier to use however slightly less sensitive. Both will yield amazing results!

Planetary photography is different from lunar in that the planets are much smaller. This means a longer focal length and or barlow lens is an advantage.


ASI224MC




Retail Price – ??? USD

CMOS IMX224 

Resolution – 1304×976

Pixel Size – 3.75μm

The ASI224MC is a more advanced choice for planetary photography. It is just as easy to use as the ASI120MC however with a more sensitive sensor and less noise, the results are out of this world (pun intended). It is because of this low noise and sensitivity that the ASI224MC is one of the most popular planetary cameras in the world. 

ASI385MC


Retail Price – ??? USD

CMOS IMX385

Resolution – 1936×1096

Pixel Size – 3.75μm


The ASI385MC is an upgrade from the ASI224MC. With an ultra-low readout noise of 0.7e and an increased resolution of 1936×1096 pixels, it is the most powerful colour planetary camera.


ASI290MM / ASI290MC




Retail Price – ??? USD

CMOS IMX290

Resolution – 1936×1096

Pixel Size – 2.9μm

If you want to go further in improving the details of your planetary imaging, you should consider the ASI290MM. This is a black and white camera and with the use of filters, will produce some of the best planetary images you have ever seen!

With an image resolution of 1936×1096 pixels, a low readout noise of 1e and a maximum frame rate of 170FPS at full resolution, the ASI290MM is more than capable of meeting your planetary imaging needs. 

This image of Jupiter was taken by Damian Peach with an ASI290MM from France.

ASI178MM / ASI178MC


Retail Price – ??? USD

CMOS IMX178

Resolution – 3096×2080

Pixel Size – 2.4μm


For higher resolution planetary imaging, the ASI178 is the answer. With a 6.4 megapixel back-illuminated CMOS sensor and a resolution of 2096×2080 and 2.4um small pixels, the ASI178 has amazing sampling accuracy. To improve the quality even further, you can again choose the black and white option. 

The ASI178 has been regarded as one of the best cameras for use in solar imaging. Ultra-high frame rates, amazing image quality and a global shutter allows for crystal clear solar images and animations. 

ASI174MM


Retail Price – ??? USD

CMOS IMX174

Resolution – 1936×1216

Pixel Size – 5.86μm


The ASI174MM is recognized as the best camera for solar imaging. It features a 1/1.2" large sensor,a high frame rate of 164fps, and uses global shutter. It is also a great camera for imaging high-speed moving objects such as ISS. 

Accessories


Electronic Filter Wheel Mini

The electronic filter wheel mini supports up to five filters and will change automatically depending on how you have set up your sequence in your imaging software. 


Manual Filter Wheel

The manual filter wheel will also support up to five filters, but you instead switch filters manually.


ADC

Atmospheric Chromatic Aberration Correction Mirror (ADC)

ADC is very useful for observing and photographing planets at low angels or during bad seeing. It helps you and your camera see through the turbulence of the atmosphere to produce a clearer image of the planet. 


ASI224MC, the most popular planetary camera

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Thinking Plantetary Photography?

Think ASI224MC!

 

Since it’s creation in 2011, the ASI120 has been a favorite for amateurs to image our solar system. By 2014, the ASI120 became the standard camera for planetary photography. To offer some variety, we released the ASI174, while being an amazing camera, it has different uses from the ASI120 and a larger price tag.

 

By 2015 the astrophotography community was very well accustomed to the ASI120. It was known for producing amazing results and being affordable. This doesn’t mean it had no downside. With a lack of brightness at high gain and a high readout noise there was room for improvement. We know how much everyone loves the ASI120, so we did our best to keep all the best features, such as its resolution, frame size and pixel size while making our new planetary camera. The ASI224MC.

 

The ASI224MC features a SONY 1/3-inch frame and a 1.2-megapixel IMX224 sensor. This sensor supports SONY Exmor and NIR technology. It is a highly sensitive back-illuminated sensor with a QE peak of approximately 75%-80%.

 

The ASI224MC features extremely low read noise (0.8e) and ultra-high sensitivity, especially in the infrared range. Ultra-low readout noise below 0.8e is comparable to sCMOS or EMCCD sensors without the huge price tag!

 

With a resolution of 1304×976 the ASI224 beats it’s younger brother, the ASI120. With a pixel size, the same as the ASI120, the ASI224MC offers the same field of view but with higher resolution and lower noise.

 

With an ultra-low readout noise of 0.8e, images from the ASI224MC have a higher signal-to-noise ratio and a wider gain range than the ASI120. This makes the ASI224MC the ideal camera for planetary photography.

 

As they say, a picture paints a thousand words. Here are some examples of how good the ASI224MC is for planetary imaging.

 

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The ASI224MC is a colour camera and incredibly easy to use. If you are looking for the next step in planetary photography, the ASI224MC is the answer.

 

Because of the ASI224MC’s ultra-low readout noise, it is possible to use this camera for deep space photography as well as planetary. 

 

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I know you have looked at Hubble images and wished you had a space telescope! Well the ASI224 can get you there! Check out this comparison of a Hubble image of the Ring Nebula and an amateur.

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Camera Features

· Supports planetary as well as some deep sky imaging

· Resolution: 1304 x 976 at up to 64 fps (at 12-bit ADC) or 150 fps (at 10-bit ADC)

· Maximum exposure time of 1000 seconds!

· Autoguider port

· Extremely low read noise (1.5e at 60 Gain)

· High Sensitivity, especially in IR range

· Full aluminium housing with standard 2-inch interface

· M42x0.75 internal thread

· Includes 1.25-inch T-adapter

 

ZWO ASI224MC CMOS Color Astronomy Camera Specifications: 

· Sensor: 1/3-inch CMOS IMX224

· Resolution: 1.2 Mega Pixels

· Minimum Exposure Time: 0.000032 seconds

· Maximum Exposure Time: 1000 seconds

· ROI: Supported

· Binning Modes: 2 x 2

· Focus Distance to Sensor: 12.5 mm

· Shutter Type: Rolling

· Window: AR coated

· Operating System Compatability: Mac, Windows, Linus

· Interface: USB 3.0/ USB 2.0

· Bit rate: 12-bit output (12-bit ADC)

· Adapter: 2-inch/ 1.25-inch/ M42X0.75

· Diameter: 62 mm

· Weight: 3.5-ounces (0.26 lb)

· Pixel Array: 1304 x 976

· Pixel Size: 3.75 microns square

· Sensor Size: 4.8 mm x 3.6 mm

· Diagonal Size: 6.09 mm

 
 

 

ASI Deep Space Camera Selection Guide

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Many can confirm that deep space imaging is not the easiest of hobbies, but it is the most rewarding! We want to make this hobby as simple as possible for you, to do this, ZWO offers a lot of what you need to get started on your deep space journey! 

What You Need (Offered by ZWO)

1. Deep space camera

2. Acquisition software/hardware – ZWO ASIAIR

3. Filter Wheel and Filters (optional)

4. Electronic Focus (optional)

5. Guide scope/Off-Axis Guider

6. Guide Camera

What You Need (Not Offered by ZWO)

1. Telescope or Camera Lens

2. GOTO, Electronic Tracking Equatorial Mount

Choosing a Camera

 深空相机_1800 1200

There are several different factors to consider when choosing a deep space camera:

 

Choosing a framing/field of view

There are two parts of your imaging rig which influence your field of view, those are; your telescope focal length and the size of the sensor on your camera. You may want a camera with a smaller chip to image small galaxies with and a larger chip will be useful for big nebula. Here is an example of the field of view for four different ZWO cameras in the same telescope.

 

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Colour or Black and White Camera

Both cameras have their advantages, a colour camera does not take as much time to get a final image and is simpler to use and process. A black and white camera requires filters to separate wavelengths of light to later combine into a colour image. If you are wondering why would you go through the extra effort of a black and white camera, their sensors are more sensitive, meaning the quality of the final image is often better quality.

 

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Pixel Size

Certain cameras work better with different telescopes. Depending on the focal length of the telescope you may want smaller or larger pixels. Typically, larger pixels work best with longer focal lengths.

 

ZWO Deep Space Cameras

 

ASI071MC PRO
With an APS-C size sensor, this camera has one of the largest fields of view supported by most telescopes. With low amp glow and low noise, this is an excellent camera for long exposures.  


ASI294MC PRO

A great bang for buck, colour deep space camera. With the Sony IMX294 back-illuminated CMOS sensor. This camera is capable of stunning deep space images.

 

ASI1600MM PRO

The ASI1600MM PRO has become the most popular black and white deep space camera for a reason. With extremely low noise, this camera can blow anyone’s mind with stunning detail of deep space.

 

ASI183MM/MC PRO

The ASI183MM/MC PRO can take your short focal length telescope deeper than ever. With a high-resolution small sensor and ultra-high quantum efficiency both the colour and black and white versions of this camera compete with the big sensors! Not to mention this camera can double up as a planetary/solar camera using ROI.

 

ZWO’s PRO series of cooling cameras have the following common features:

1. DDR3 256MB cache

2. USB3.0 high-speed data transmission

3. USB2.0 Hub

4. Double-layer semiconductor constant temperature cooling

5. AR multi-layer anti-reflective coating sealing window

 

Vol.1 2019 ZWO ASIWEEK ASTROPHOTOGRAPHY

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The result of the first ASIWEEK ASTROPHOTOGRAPHY COMPETITION has just come out.  

The contest attracted many astrophotographers from different countries and regions to involve in. Thousands of entries were sent to us. Among them, we finally picked out the winner of this competition.    

It is Ariel Cappelletti and the image NGC 3372(Carina Nebula) captured with ZWO ASI1600MM Pro that won the championship.

Photographer: Ariel Cappelletti  

Target: NGC 3372(Carina Nebula)

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Equipment: ZWO #ASI1600MM Pro, SW Explorer 200p, SW Coma Corrector 0.9xSW EQ6-R-Pro

NGC 3372 (also known as Carina Nebula, the Grand Nebula, Great Nebula in Carina, or Eta Carinae Nebula) is a large, complex area of bright and dark nebulosity in the constellation Carina, and is located in the Carina–Sagittarius Arm. The nebula lies at an estimated distance of approximately 8,500 light-years (2,600 pc) from Earth.

Entries from other photographers:

Photographer: Israel Mussi   

Target: NGC 3576(a minor emission nebula from Carina Nebula)

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Equipment: levenhuk RC 250 F8ZWO ASI1600MM ProiOptron CEM 120

NGC 3576 is a minor nebula in the Sagittarius arm of the galaxy a few thousand light-years away from the Eta Carinae nebula. This nebula even received six different classification numbers. Currently, astronomers call the entire nebula NGC 3576. A popular nickname is “The Statue of Liberty Nebula” because of the distinctive shape in the middle of the nebula. The name was first suggested in 2009 by Dr. Steve Mazlin, a member of Star Shadows Remote Observatory (SSRO)

Photographer: Tommy Russell  

Target: Moon

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Equipment: Orion ED80, SkyView Pro Mount, 0.8x Focal Reducer, Baader UV/IR cut filter, ZWO #ASI178MM-Cool, Astrodon LRGB filters

Almost each of us had tried to photograph the moon.  

Its so big and beautiful that we can get a quite grand image if we are lucky and experienced enough.

Photographer: Bruno Bonicontro

Target: NGC 3324(Gabriela Mistral Nebula)

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Equipment: ZWO ASI1600MM Pro, GSO 150F5, HEQ5-Pro

NGC 3324 is an open cluster in the southern constellation Carina, located northwest of the Carina Nebula (NGC 3372) at a distance of 7,560 ly (2,317 pc) from Earth. It is closely associated with the emission nebula IC 2599, also known as Gum 31. The two are often confused as a single object, and together have been nicknamed the “Gabriela Mistral Nebula” due to its resemblance to the Chilean poet. NGC 3324 was first catalogued by James Dunlop in 1826.

Photographer: Metropolitan Skies

Target: NGC 6888Crescent Nebula)

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Equipment: ZWO ASI183MC Pro, Celestron 11″ Rowe-Ackerman Astrograph, Celestron CGE Pro

The Crescent Nebula is an emission nebula in the constellation Cygnus, about 5000 light -years away from Earth. It was discovered by William Herschel in 1792. It is formed by the fast stellar wind from the Worf-Rayet star WR 136 (HD 192163) colliding with and energizing the slower moving wind ejected by the star when it became a red giant around 250,000 to 400,000 years ago. The result of the collision is a shell and two shock waves, one moving outward and one moving inward. The inward moving shock wave heats the stellar wind to X-ray-emitting temperatures.

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Vol.3 2019 ZWO ASIWEEK ASTROPHOTOGRAPHY

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You might be curious why we host this this 2019 ZWO ASIWEEK ASTROPHOTOGRAPHY COMPETITION. It’s all for enhancing our amateurs’ abilities of astro-observation and astrophotography, stimulating the public’s imagination and creativity, and better feeling the beauty of the stars, universe and science. Now it is in full swing. We sincerely invite global astronomers and photographers to participate.

 

Here are the fantastic works from the third edition of 2019 ASIWEEK ASTROPHOTOGRAPHY COMPETITION. Let’s take a look now!

 

It is John Micheal Bellisario and his image M8(also known as the Lagoon Nebula) captured with ZWO ASI178MC-Cool that won the championship.

 

Photographer: John Micheal Bellisario  

Target: M8(Lagoon Nebula)

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Equipment: ZWO #ASI178MC-Cool, ZWO #ASI120MC-S, Explore Scientific 80mm ED TRIPLET APO ED80 Triplet APO Carbon Fiber

 

 

Entries from other photographers:

 

Photographer: Simon Lewis   

Target: NGC 3372(as known as Carina Nebula)

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Equipment: ZWO #ASI071MC Pro, SV80ST, 0.8FRFF, CEM60

 

NGC 3372(also known as the Grand Nebula, Great Nebula in Carina, or Eta Carinae Nebula) is a large, complex area of bright and dark nebulosity in the constellation Carina, and is located in the Carina–Sagittarius Arm. The nebula lies at an estimated distance of approximately 8,500 light-years (2,600 pc) from Earth.

 

 

Photographer: Yat Sze   

Target: IC 1396(as known as Elephant’s Trunk Nebula)

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Equipment: ZWO #ASI1600MM Pro, William Optics Zenithstar 81 APO with Flat6AIII, Celestron AVX

 

The Elephant’s Trunk Nebula is a concentration of interstellar gas and dust within the much larger ionized gas region IC 1396 located in the constellation Cepheus about 2,400 light years away from Earth.

 

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Vol.2 2019 ZWO ASIWEEK ASTROPHOTOGRAPHY

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ASIWEEK is an international astrophotography competition hold by ZWO. Each week, we will choose a photo as the best work of this week.  

Here comes the works from the second edition of 2019 ASIWEEK ASTROPHOTOGRAPHY COMPETITION. All works are brilliant, let’s take a look now!

Just to satisfy your curiosity, it is Ben Marks and his image NGC 6357(also known as the Lobster Nebula) captured with ASI1600MM Pro that won the championship.

 

Photographer: Ben Marks

Target: NGC 6357

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Equipments: ZWO #ASI1600MM Pro, Sky-Watcher Quattro 200 CF, Sky-Watcher EQ6-R Pro

 

NGC 6357 is a diffuse nebula near NGC 6334 in the constellation Scorpius. The nebula contains many proto-stars shielded by dark disks of gas, and young stars wrapped in expanding “cocoons” or expanding gases surrounding these small stars.

 

 

Entries from other photographers:

 

Photographer: Yan Nick

Target: NGC 7023(also known as the Iris Nebula)

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Equipments: ZWO ASI1600 MM Pro, Explore Scientific ED102 CF

 

NGC 7023, is a bright reflection nebula and Caldwell object in the constellation Cepheus. NGC 7023 is actually the cluster within the nebula, LBN 487, and the nebula is lit by a magnitude +7 star, SAO 19158. It shines at magnitude +6.8. It is located near the Mira-type variable star T Cephei, and near the bright magnitude +3.23 variable star Beta Cephei (Alphirk). It lies 1,300 light-years away and is six light-years across.

 

 

Photographer: Yan Nick

Target: Jupiter

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Equipments: ZWO #ASI224MC, C14

 

Jupiter is very bright and easy to observe. When Galileo observed space, he could see Jupiter with a simple self-made 32-fold telescope. I still remember the first time I observe Jupiter, It shocked me so much. It’s so beautiful that I will never forget it in my whole life.

 

 

Photographer: Ariel Cappelletti

Target:NGC 6188 and NGC 6164

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Equipments: ZWO ASI1600MM Pro, Long Perng S400G (66/400 F6 Apo doublet), LP Field Flattener, EQ6-R-Pro

 

NGC 6188, lies about 4,000 light-years away. The emission nebula is found near the edge of a large molecular cloud unseen at visible wavelengths, in the southern constellation Ara.
On this image there is another emission nebula – NGC 6164, also created by one of the region’s massive O-type stars. Similar in appearance to many planetary nebulae, NGC 6164’s striking, symmetric gaseous shroud and faint halo surround its bright central star near the bottom edge. The impressively wide field of view spans over 3 degrees (six full Moons), corresponding to over 200 light years at the estimated distance of NGC 6188. 

 

 

Photographer: Brendan Chen

Target:NGC 3576(a minor emission nebula from Carina Nebula)

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Equipments: ZWO ASI1600MM-Cool

 

NGC 3576 is a minor nebula in the Sagittarius arm of the galaxy a few thousand light-years away from the Eta Carinae nebula. This nebula even received six different classification numbers. Currently, astronomers call the entire nebula NGC 3576. A popular nickname is “The Statue of Liberty Nebula” because of the distinctive shape in the middle of the nebula. The name was first suggested in 2009 by Dr. Steve Mazlin, a member of Star Shadows Remote Observatory (SSRO).

 

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ASI Guide Camera Selection Guide

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Why Do I Need to Guide?

 

It is near impossible to do deep space photography without doing long exposures. To do long exposures and not get star trails, you will need to guide. So, what do you need to start doing deep sky photography? Let’s look.

 

1

Guiding

The gear you need specifically to start guiding is,

· An ASI Guide Camera

· A Guide scope or OAG

· An equatorial mount capable of guiding

· The correct software and hardware to control the guiding. i.e. the ASIAIR

 

 

Selecting Your Guide Camera

 

The ASI Mini series includes three cameras each with different specifications to choose from. What they all have in common is that they are monochrome/black and white and are very sensitive.

 

ASI120MM Mini

ASI120MM Mini 600X540
Retail Price – 149 USD
Sensor – 1/3” CMOS AR0130CS
Resolution – 1280×960
Pixel Size – 3.75μm

The ASI120 Mini is an entry-level guide camera that is more affordable than the two other options. The 3.75μm pixel size provides a good level of sampling accuracy. If you have no special requirements in your guide camera then the ASI120 Mini is for you.

 

ASI290MM Mini

ASI290MM Mini 600 540

Retail Price – 299 USD
Sensor – 1/2.8” CMOS IMX290
Resolution – 1936×1096
Pixel Size – 2.9μm

The ASI290 Mini is positioned as a more precise guide camera as it’s smaller pixel size of 2.9μm provides a higher sampling accuracy than the ASI120. This means that the ASI290 can detect smaller movements in a star to keep your guiding smoother and more accurate.

 

ASI174MM Mini
ASI174MM Mini 600 540

Retail Price – 499 USD
Sensor – 1/1.2” CMOS IMX174LLI
Resolution – 1936×1216
Pixel Size – 5.86μm

The ASI174 Mini is a large-view guide camera. The 1/1.2” sensor is four times the size of the 120 and 290’ sensors. This extra field of view makes it easier to find stars, this comes in especially helpful when using an OAG.

 

ASI Mini Accessories

 

The Mini cameras all have the same threading to attach accessories. They can be fitted with a C-mount lens and a CS-port lens as well as a 1.25” filter.

1.  M28.5-CS adapter ring 2. CS-C adapter ring

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2. 1.25′′ extension tube

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Guide Scopes

ZWO 30F4 Mini Guide Scope

 

As the perfect partner to the ASI Mini series we designed and developed the ZWO 120F4 Mini Guide Scope.

The ZWO Mini Guide Scope was designed to accompany smaller telescopes. This guide scope has an aperture of 30mm and a focal length of 120mm. Weighing in at just 250g this is a perfect light weight and stable guide scope.

mini scope with ASI camera

ZWO 60280 Guide Scope
60280 Finder and Guide Scope 606X540

This classic style guide scope has a 60mm aperture and a 280mm focal length. The ZWO 60280 Guide Scope has a lockable helical focuser to easily achieve and maintain perfect focus. Being a larger guide scope, this is designed towards larger telescopes, with an aperture of 8-10 inches.

 

Off-Axis-Guider

OAG

An off-axis-guider (OAG) is a completely different way of guiding. Instead of having a separate guide scope, the OAG fits between your primary imaging camera and the telescope. Your ASI Mini guide camera sits at the top of the OAG and a small prism will redirect some of the light from your telescope up to the guide camera. However, the prism only redirects a small portion of your field of view, meaning it can be hard to find a star to guide from.

While more difficult to set up due to the guide camera and main having to be parfocal, many people consider OAG’s to yield better results over guide scopes. These results are typically only observable in longer focal length telescopes 1,500mm or more. This is because longer focal length guide scopes are needed to have more accurate guiding with long focal length primary telescopes, so using your main imaging scope as the guide scope as well can give amazing results. Having an OAG also minimises any flexure from the guide scope.

OAG4

 

[ASIAIR GUIDE] 3 Ways to Transfer Images From ASIAIR

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The next step after a long night imaging is transferring the data to your PC for processing in your favorite software. With ASIAIR there are three main methods to copy your data from the device to your PC.

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Transferring Images from ASIAIR to your computer

 

1. Using an SD Card Reader

 

The SD card reader is easy to use and also included in the box with your ASIAIR, or you can use your own SD card reader if you prefer.

Insert the SD card with the red lettering face up and then plug the card reader into your computer’s USB port.

 

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A Windows 10 PC will prompt you to format the card – STOP!

You MUST select CANCEL at this point else you will format the ASIAIR boot system.  

You will lose all data on the card including the ASIAIR operating system if you format the SD card!

 

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Choose Cancel

 

Press Cancel – then double click This Computer to open the File Manager. Click the drive marked BOOT and then select the Images directory. You can then copy the image files from this directory onto your PC. You can delete these images if you are short on drive space on the ASIAIR or leave them in place if you wish.

 

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2. Access via ASIAIR Wi-Fi Connection (Recommended Method)

 

The use of an SD Card Reader is simple, but removing the SD card from the ASIAIR is inconvenient. An alternative method is to access the ASIAIR image data via the ASIAIR Wi-Fi connection.

After connecting to the ASIAIR Wi-Fi network, open the computers File Manager and enter the following in the address bar:

\\asiair 

Or alternatively using the following IP address:

\\10.0.0.1

You will find an ASIAIR shared directory which is set to read-only for security. You can copy the files from this location to your computer.

 

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3. Using a wired LAN connection

 

This method is similar to using the Wi-Fi connection but this time utilizes the wired LAN connection. Connect the ASIAIR to your network using the LAN cable port and access the ASIAIR by name. Using the IP address is not possible when using the wired LAN port.  

 

A BRIEF SUMMARY

 

There are three main methods of downloading image data from the ASIAIR. These vary in ease and convenience depending on your own set up.

We highly recommend using the ASIAIR Wi-Fi connection method due to its ease of use.

 

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Vol.26 2019 ZWO ASIWEEK ASTROPHOTOGRAPHY

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To enhance our amateurs’ abilities of astro-observation and astrophotography, to stimulate the public’s imagination and creativity, and to better feel the beauty of the stars, universe and science. We have the ASIWEEK ASTROPHOTOGRAPHY now. We sincerely invite global astronomers and photographers to participate.

Here are the fantastic works from the 26th edition of 2019 ASIWEEK ASTROPHOTOGRAPHY COMPETITION. Let’s take a look!

It is Roberto Marchena Isla and his target M104 captured with ZWO ASI1600MM-Cool that won the championship.

The winning entry:

Photographer: Roberto Marchena Isla

Target: M104

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Equipment: ZWO ASI1600MM-Cool, Newton 200/f5.

M104 is a lenticular galaxy in the constellation Virgo found 31.1 million light-years from Earth. The galaxy has a diameter of approximately 49,000 light-years, 30% the size of the Milky Way. It has a bright nucleus, an unusually large central bulge, and a prominent dust lane in its inclined disk. The dark dust lane and the bulge give this galaxy the appearance of a sombrero hat.

Entries from other photographers:

Photographer: Blue Mountains Astrophotography

Target: NGC 6188

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Equipment: ZWO ASI1600MM with Filter Wheel, Skywatcher 72ED, HEQ5 Pro Belt Mod

NGC 6188 is an emission nebula located about 4,000 light years away in the constellation Ara. The bright open cluster NGC 6193, visible to the naked eye, is responsible for a region of reflection nebulosity within NGC 6188. NGC 6188 is a star forming nebula, and is sculpted by the massive, young stars that have recently formed there – some are only a few million years old. This spark of formation was probably caused when the last batch of stars went supernova.

Photographer: Murat Sana

Target: IC1396

3

Equipment: ZWO ASI071MC Pro, Meade 130mm APO Refractor, Losmandy G11GT

IC1396 is a concentration of interstellar gas and dust within the much larger ionized gas region IC 1396 located in the constellation Cepheus about 2,400 light years away from Earth. The piece of the nebula shown here is the dark, dense globule IC 1396A; it is commonly called the Elephant’s Trunk nebula because of its appearance at visible light wavelengths, where there is a dark patch with a bright, sinuous rim. The bright rim is the surface of the dense cloud that is being illuminated and ionized by a very bright, massive star (HD 206267) that is just to the east of IC 1396A.

 

Photographer: Luca Fornaciari

Target: NGC 6853

4

Equipment: ZWO ASI294, SharpStar 107

NGC 6853 is a planetary nebula in the constellation Vulpecula, at a distance of about 1227 light-years. This object was the first planetary nebula to be discovered; by Charles Messier in 1764. At its brightness of visual magnitude 7.5 and its diameter of about 8 arcminutes, it is easily visible in binoculars and a popular observing target in amateur telescopes.

 

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Vol.27 2019 ZWO ASIWEEK ASTROPHOTOGRAPHY

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To enhance our amateurs’ abilities of astro-observation and astrophotography, to stimulate the public’s imagination and creativity, and to better feel the beauty of the stars, universe and science. We have the ASIWEEK ASTROPHOTOGRAPHY now. We sincerely invite global astronomers and photographers to participate.

Here are the fantastic works from the 27th edition of 2019 ASIWEEK ASTROPHOTOGRAPHY COMPETITION. Let’s take a look!

It is Pavle Gartner and his target LDN 1251 captured with ZWO ASI1600MM Pro that won the championship.

 

The winning entry:

Photographer: Pavle Gartner

Target: LDN 1251

5-1

Equipment: ZWO ASI1600MM Pro

Stars are forming in Lynds Dark Nebula (LDN) 1251. About 1,000 light-years away and drifting above the plane of our Milky Way galaxy, the dusty molecular cloud is part of a complex of dark nebulae mapped toward the Cepheus flare region.

 

Entries from other photographers:

Photographer: Ariel Cappelletti

Target: M8

5-2

Equipment: ZWO ASI1600MM Pro, SW Explorer 200p, SW Coma Corrector 0.9x, EQ6-R-Pro

M8 (also known as the Lagoon Nebula) is a giant interstellar cloud in the constellation Sagittarius. It is classified as an emission nebula and as an H II region. It was discovered by Giovanni Hodierna before 1654 and is one of only two star-forming nebulae faintly visible to the eye from mid-northern latitudes. Seen with binoculars, it appears as a distinct oval cloudlike patch with a definite core. Within the nebula is the open cluster NGC 6530.

 

Photographer: Andrea Andreotto Maggi

Target: NGC 7635

5-3

Equipment: ZWO ASI294 Gain 120

NGC 7635, also known as the Bubble Nebula, Sharpless 162, or Caldwell 11, is an H II region emission nebula in the constellation Cassiopeia. It lies close to the direction of the open cluster Messier 52. The “bubble” is created by the stellar wind from a massive hot, 8.7 magnitude young central star, SAO 20575 (BD+60°2522). The nebula is near a giant molecular cloud which contains the expansion of the bubble nebula while itself being excited by the hot central star, causing it to glow. It was discovered in 1787 by William Herschel. The star BD+60°2522 is thought to have a mass of about 44 M☉

 

Photographer: Rafael Compassi

Target: Antares and Rho Ophiuchus molecular cloud

5-4

Equipment: ASI1600MM Cool, Nikkor 135mm F/2.8 at F/4

Ophiuchus lies between Aquila, Serpens, Scorpius, Sagittarius, and Hercules, northwest of the center of the Milky Way. The southern part lies between Scorpius to the west and Sagittarius to the east. In the northern hemisphere, it is best visible in summer. It is opposite Orion.

 

Photographer: Adrian Aberdeen

Target: IC 5070 and IC 5067

5-5

Equipment: ZWO ASI1600MM Cool, Rokinon 135mm F2 Lens, Skywatcher AZ-GTi Mount

IC 5070 and IC 5067 (also known as the Pelican Nebula) is an H II region associated with the North America Nebula in the constellation Cygnus. The gaseous contortions of this emission nebula bear a resemblance to a pelican, giving rise to its name. The Pelican Nebula is located nearby first magnitude star Deneb, and is divided from its more prominent neighbour, the North America Nebula, by a molecular cloud filled with dark dust.

 

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3 Steps to Find Deep Space Objects with ASIAIR

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The target searching features of ASIAIR are very powerful and easy to use. No need to switch to another software to find the star anymore. Since ASIAIR’s 1.0.7 version, you just need to take 3 simple steps to find your target.

 

First, you need to click Choose Object, then select your imaging target tonight.

1

Confirm your target.

We can start now!

 

Step one: Press GOTO. The equatorial mount will automatically rotate and eventually point towards the target.

2

 

Step two: Take a photo and Plate Solve it. The software will automatically calculate the current RA and Dec value. Press Sync Mount to synchronize the data to the equatorial mount.

3

 

Step three: Choose GoTo again to let the mount correct the deviation.

4

 

Done. The target is in the center of your FOV. You can formally start photography now. Easy, right?

5

ASIAIR makes astrophotography so easy.

Vol.28 2019 ZWO ASIWEEK ASTROPHOTOGRAPHY

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To enhance our amateurs’ abilities of astro-observation and astrophotography, to stimulate the public’s imagination and creativity, and to better feel the beauty of the stars, universe and science. We have the ASIWEEK ASTROPHOTOGRAPHY now. We sincerely invite global astronomers and photographers to participate.

Here are the fantastic works from the 28th edition of 2019 ASIWEEK ASTROPHOTOGRAPHY COMPETITION. Let’s take a look!

It is Josh Swan and his target LBN 569 captured with ZWO ASI1600MM Cool that won the championship.

 

The winning entry:

Photographer: Josh Swan

Target: LBN 569

6期-1

Equipment: ZWO ASI1600MM Cool, Celestron RASA 620mm

Entries from other photographers:

Photographer: Josh Swan

Target: NGC 6369

6期-2

Equipment: Esprit 80, ZWO ASI294, ZWO EAF

Little Ghost Nebula is a planetary nebula in the constellation Ophiuchus. It was discovered by William Herschel.

Round and planet-shaped, the nebula is also relatively faint. Planetary nebulae are not related to planets at all, but instead are created at the end of a sun-like star’s life as its outer layers expand into space while the star’s core shrinks to become a white dwarf. The transformed white dwarf star, seen near the center, radiates strongly at ultraviolet wavelengths and powers the expanding nebula’s glow. The nebula’s main ring structure is about a light-year across and the glow from ionized oxygen, hydrogen, and nitrogen atoms are colored blue, green, and red respectively.

 

Photographer: Gary Plummeri

Target: M8

6期-3

Equipment: ZWO ASI1600MM Pro

The Lagoon Nebula is estimated to be between 4,000-6,000 light-years from the Earth. In the sky of Earth, it spans 90′ by 40′, which translates to an actual dimension of 110 by 50 light-years. Like many nebulas, it appears pink in time-exposure color photos but is gray to the eye peering through binoculars or a telescope, human vision having poor color sensitivity at low light levels.

 

Photographer: Andrea Andreotto Maggi

Target: NGC 6960

6期-4

Equipment: ZWO ASI071, Optolong L-eNhance, Nikon Lens 300 mm

Ten thousand years ago, before the dawn of recorded human history, a new light would have suddenly have appeared in the night sky and faded after a few weeks. Today we know this light was from a supernova, or exploding star, and record the expanding debris cloud as the Veil Nebula, a supernova remnant. This sharp telescopic view is centered on a western segment of the Veil Nebula cataloged as NGC 6960 but less formally known as the Witch’s Broom Nebula.

 

Photographer: Martin Junius

Target: M65 / M66 Galaxies

6期-5

Equipment: CdC, APT, PHD2, ZWO ASI294MC Pro, Astronomik L2 filter, 29x300s, -10C, gain 120, 30 flats, 30 darkflats, 71 darks, no bias

M65 is an intermediate spiral galaxy about 35 million light-years away in the constellation Leo. It was discovered by Charles Messier in 1780.

M66, is an intermediate spiral galaxy in the equatorial constellation of Leo. Also discovered by Charles Messier.

 

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Vol.29 2019 ZWO ASIWEEK ASTROPHOTOGRAPHY

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To enhance our amateurs’ abilities of astro-observation and astrophotography, to stimulate the public’s imagination and creativity, and to better feel the beauty of the stars, universe and science. We have the ASIWEEK ASTROPHOTOGRAPHY now. We sincerely invite global astronomers and photographers to participate.

Here are the fantastic works from the 29th edition of 2019 ASIWEEK ASTROPHOTOGRAPHY COMPETITION. Let’s take a look!

It is Nicola Calabrese and his target NGC 7023 captured with ZWO ASI294MC Pro that won the championship.

 

The winning entry:

Photographer: Nicola Calabrese

Target: NGC 7023


NGC7023_ZWO-ASI294MC-Pro

Equipment: GSO RC8 f / 8 Carbon, ZWO 60/280, ZWO ASI294MC Pro, ZWO ASI224 MC

NGC 7023 is a bright reflection nebula and Caldwell object in the constellation Cepheus. It is actually the cluster within the nebula, LBN 487, and the nebula is lit by a magnitude +7 star, SAO 19158. It shines at magnitude +6.8. It is located near the Mira-type variable star T Cephei, and near the bright magnitude +3.23 variable star Beta Cephei (Alphirk). It lies 1,300 light-years away and is six light-years across.

 

Entries from other photographers:

Photographer: Ben Marks

Target: M8

M8_ZWO-ASI1600MM-Pro

Equipment: Skywatcher EQ6-R, ZWO ASI1600MM Pro

M8 (also known as the Lagoon Nebula) is a giant interstellar cloud in the constellation Sagittarius. It is classified as an emission nebulaand as an H II region. It was discovered by Giovanni Hodierna before 1654 and is one of only two star-forming nebulae faintly visible to the eye from mid-northern latitudes. Seen with binoculars, it appears as a distinct oval cloudlike patch with a definite core. Within the nebula is the open cluster NGC 6530.

 

Photographer: Brendan Chen

Target: NGC 6188

NGC6188_ZWO-ASI1600MM-Cool

Equipment: ZWO ASI1600MM Cool, ZWO 7nm 1.25” Narrowband filters, AZ-EQ6, TSA120 with reducer, ZWO OAG, ZWO Helical Focuser

NGC 6188 is an emission nebula located about 4,000 light-years away in the constellation Ara. The bright open cluster NGC 6193, visible to the naked eye, is responsible for a region of reflection nebulosity within NGC 6188.

It is a star forming nebula, and is sculpted by the massive, young stars that have recently formed there – some are only a few million years old. This spark of formation was probably caused when the last batch of stars went supernova.

 

Photographer: Tommaso Massimo

Target: M20/NGC6514

M20_NGC6514_ZWO-ASI224MC

Equipment: Sky-Watcher Italia 200/800 Wide Photo, ZWO ASI224MC, Canon 700D, Sky-Watcher Italia AZ-EQ6 GT

M20(also known as and as the Trifid Nebula or NGC 6514) is an H II region located in Sagittarius. It was discovered by Charles Messier in 1764. Its name means ‘divided into three lobes’. The object is an unusual combination of an open cluster of stars; an emission nebula (the lower, red portion), a reflection nebula (the upper, blue portion) and a dark nebula (the apparent ‘gaps’ within the emission nebula that cause the trifurcated appearance; these are also designated Barnard 85). Viewed through a small telescope, the Trifid Nebula is a bright and peculiar object, and is thus a perennial favorite of amateur astronomers.

 

Photographer: Gary Plummer

Target: B72

B72_ZWO-ASI1600MM-Pro

Equipment: ZWO ASI1600MM Pro

B72 is a dark nebula in the Ophiuchus constellation. It is a small but readily apparent S-shaped dust lane that snakes out in front of the Milky Way star clouds from the north-north-west edge of the bowl of the Pipe Nebula. Its thickness runs between 2′ and 3′ and runs around 6′ in the north-west / south-east orientation. A good view in a 4″ to 6″ telescope requires clear dark skies.

 

Photographer: Martin Junius

Target: M65/M66/NGC 3628

 M65-M66-NGC3628_ASI294MC-Pro

Equipment: IAS Observatory Hakos, Namibia, 21.8 mag/”220″ AK3 Newtonian Astrograph, 4″ Wynne Coma Corrector, 1923mm f/3.8English mount with FS2 Off axis guiding with Lodestar X2, ASI294MC Pro

This small group of galaxies consists of the Messier objects M65 (NGC 3623) and M66 (NGC 3627) as well as NGC 3628. All galaxies of the Leo Triplet are Sb type spirals, but they are seen at different angles. M66 has spiral arms which are among those most easily seen visually, but at least 10 inch of aperture will be needed to discern them well. M65 appears much flatter as the disk’s galaxy is more inclined to the line of sight and features several dust lanes. NGC 3628 is seen edge-on with an almost central dust lane. It is one of the sky’s best edge-on galaxies, though its surface brightness is considerable lower than NGC 4565 in Coma Berenices.

 

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Astrophotographers’Story: Victor Van Puyenbroeck

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Victor Van Puyenbroeck is the winner of ZWO 2019 ASIWEEK #31 and has brought us many extraordinary astronomy photos. To make our ZWOers know this excellent astrophotographer better, we make this interview. Let’s all take a look now.

CrescentNebula_ASI1600MM

 

Q1: Hi,Victor. Congratulations! Your work won the ASIWEEK Astrophotography Competition #31. Could you introduce yourself to everyone?

Hi, my name is Victor Van Puyenbroeck and I’m a 30-year-old imager from Belgium. I like to photograph deep sky and I’m fascinated by the science and beauty that lies within these distant objects.

Victor Van Puyenbroeck

Victor Van Puyenbroeck visiting Lowell’s observatory in Arizona, USA

VictorVanPuyenbroeck_ASI1600MM

IC 1805 HaOIII, TS80APO+ASI1600MM, 2.3 hours, Bortle 7

 

Q2: When did you start like astronomy? And when did you have your first telescope? What’s the feeling in first observing?

I was fascinated by astronomy and astrophysics during my teens and loved to read about the history of the universe, star formation and black holes. Unfortunately, I did not look up at the sky very much.

This changed in January 2016 due to a rare alignment of the planets Mercury, Venus, Mars, Jupiter and Saturn. Seeing those bright and colorful ‘stars’ in a line triggered a desire to capture this celestial event in a photograph.

My first telescope was a classic Sky-watcher ST80 achromatic doublet refractor, which I still use today. It’s very easy to setup for visual observing on an alt-az mount, and a great way to show the Moon, planets or bright deepsky objects like M42, M13 or M31 to family and friends.

I can still remember the nights I saw the Galilean moons of Jupiter and the rings of Saturn for the first time. The telescope felt like a window to another world, invisible to the naked eye, and I wondered what the first astronomers must have felt.

moon_ASI120MM

Moon with Earthshine, TS80APO+3X TeleVue barlow, ASI120MM, ZWO RGB filters

 

Q3: We know astrophotography need a lot of practice, it’s really hard to handle it, maybe need years to improve skills. When did you start to do astrophotography? And what equipments did you use?

I started out in 2016, taking pictures from my apartment’s balcony in the middle of the city and from the parks around my home. Equipment-wise, my first photographs were taken with a simple shutter release cable, Canon 450D DLSR and lenses from my photography hobby. Locating objects in the night sky without a go-to mount was quite difficult in the beginning, so I practiced on wide-field constellation shots or bright targets like the Orion Nebula or M31.

After a few weeks, I was totally hooked on astronomy and decided to spend more money on my first tracking mount, a Sky-watcher EQ5 Pro. This mount was the centerpiece of my mobile setup and has served me well on trips to darker suburban sites around my apartment. I only upgraded to an EQ6-R in June 2019, after I moved to a new house with a backyard in Bortle 7 skies.

One of the things that I love to do is looking back at my previous results to see how my skills, equipment and style improves and evolves over the years. I constantly try to learn new things and improve my processing to steer the results towards my artistic desires.

EasternVeilNebula_ASI1600MM

Retrospective: TS80APO+ASI1600MM vs ST80+450D

 

Q4: When did you know about ZWO? And what’s the first ASI camera you have?

My first camera from ZWO was the ASI120MM. Articles from Astronomy Now, Sky at night magazine and Sky & Telescope were praising the performance of this camera and it was priced very competitively. I was looking for a good guide camera and the ASI120 was much more sensitive than the Orion StarShoot guide camera that many other astrophotographers were using at the time. I decided to buy the mono version for maximum guide performance.

I have used the ASI120MM camera for almost 3 years now and it has performed very well, both for autoguiding and for taking pictures of the Moon and planets. For high-resolution work with my f/6 refractor, I added a ZWO RGB filter set and a 3X Barlow to the imaging train.

Deepsky_ASI1600MM

Galaxies from Bortle 7 skies, TS80APO+ASI1600MM, Ha-LRGB or LRGB, 43 hours total exposure

 

Q5: Which ASI camera is your favorite? And why are you choose it?

Definitely the ASI1600MM-C. Photographing objects from the city turned out to be way harder than I thought, at least with the gear that I had in the beginning. At one point I was actually considering giving up the hobby because of light pollution and bad weather.

This changed completely after I bought the ASI1600MM-C, because it allowed me to do narrowband imaging, which is ideal for someone who lives in the middle of heavy light pollution. It was a new generation of mono CMOS cameras with low read noise. This makes it much easier to take sky-limited sub-exposures through narrowband filters when paired with a fast telescope. It was also a much more affordable camera than the CCD alternatives at the time, so I probably wouldn’t have gotten where I am today without ZWO.

VictorVanPuyenbroeck_ASI1600MM_2

NGC 7380 in narrowband bi-color (Ha + OIII), TS80APO+ASI1600MM, 4.8 hours, Bortle 7.

The 16 megapixel sensor in the ASI1600MM-C camera offers a lot of versatility behind a small 80 mm apo. You can either use the full frame to capture wide-field views or large emission nebula, or crop to show fine detail in galaxies and smaller nebula. My setup is slightly under-sampled and drizzle stacking images from a mono sensor often allow me to reveal additional detail in close-ups.

VictorVanPuyenbroeck_ASI1600MM_3

M27 HaOIII + RGB stars, 2x Drizzle, TS80APO+ASI1600MM, 5.4 hours, Bortle 9

 

Q6: What setup do you use currently? Could share a picture of your setup?

When I started out, I designed my setup to be mobile so I could drive my gear to darker areas. The robustness of a refractor is really convenient for a mobile setup, but I would love to have a Newtonian one day for high-resolution DSO work.

My current setup consists of a TS 80mm f/6 apo reduced to 379mm focal length, an ASI1600MM-C V3 camera and a ZWO EFW filterwheel with full ZWO filter sets (31 mm LRGB and HaOIIISII) on a Sky-watcher EQ6-R mount. For guiding, I use an ASI120MM and APM 50/205 mm guidescope.

Deepspace_Photography_ZWO

Current deepsky equipment setup in the backyard

 

Q7: What’s your impression of ZWO?

For me, ZWO is a pioneering company that embraced CMOS cameras in a world dominated by CCD technology. ZWO offers many different products that work well together and their software is very stable.

I believe that the quality and price point of their products has made two big changes in the astrophotography landscape: First, the hobby has become much more accessible. On the other hand, expert imagers have shown that ZWO cameras can produce excellent results on professional equipment, rivaling CCDs.

VictorVanPuyenbroeck_ASI1600MM_4

Imaging collaboration, 31 hours exposure, HaOIII + RGB stars, TS80APO+ASI1600MM

Vol.30 2019 ZWO ASIWEEK ASTROPHOTOGRAPHY

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To enhance our amateurs’ abilities of astro-observation and astrophotography, to stimulate the public’s imagination and creativity, and to better feel the beauty of the stars, universe and science. We have the ASIWEEK ASTROPHOTOGRAPHY now. We sincerely invite global astronomers and photographers to participate.

Here are the fantastic works from the 30th edition of 2019 ASIWEEK ASTROPHOTOGRAPHY COMPETITION. Let’s take a look!

It is Chuck Ayoub and his target NGC 7023 captured with ZWO ASI1600MM Pro that won the championship.

The winning entry:

Photographer: Chuck Ayoub  

Target: IC 1396

Elephant'sTrunkNebula_ZWO-ASI1600MMPro

Equipment: Explore Scientific 127mm ED Refractor (952 focal length), Celestron CGX, ZWO ASI1600MM Pro

IC 1396 is also known as Elephant’s Trunk nebula, it’s a concentration of interstellar gas and dust within the much larger ionized gas region IC 1396 located in the constellation Cepheus about 2,400 light-years away from Earth. The piece of the nebula shown here is the dark, dense globule IC 1396A; it is commonly called the Elephant’s Trunk nebula because of its appearance at visible light wavelengths, where there is a dark patch with a bright, sinuous rim. The bright rim is the surface of the dense cloud that is being illuminated and ionized by a very bright, massive star (HD 206267) that is just to the east of IC 1396A. 

 

Entries from other photographers:

Photographer: Chuck Ayoub  

Target: Sh2-101

Sh2-101_ZWO-ASI1600MMPro

Equipment: Explore Scientific 127mm ED Refractor (952 focal length), ZWO ASI1600MM Cool

Sh2-101 is a H II region emission nebula located in the constellation Cygnus. It is sometimes also called the Tulip Nebula because it appears to resemble the outline of a tulip when imaged photographically. It was catalogued by astronomer Stewart Sharpless in his 1959 catalog of nebulae. It lies at a distance of about 6,000 light-years from Earth.

 

Photographer: Marco Lorenzi

Target: Jupiter

Equipment: Celestron C14 @ f/20, ZWO ASI290MM, Baader RGB filters, Ioptron CEM120.

Jupiter is the fifth planet from the Sun and the largest in the Solar System. It is a gas giant with a mass one-thousandth that of the Sun, but two-and-a-half times that of all the other planets in the Solar System combined. Jupiter has been known to astronomers since antiquity. It is named after the Roman god Jupiter. When viewed from Earth, Jupiter can be bright enough for its reflected light to cast shadows, and is on average the third-brightest natural object in the night sky after the Moon and Venus.

 

SolarSystem_ZWO-ASI178MC

Equipment: Explorer 200P, ZWO ASI178MC (barlow 3X)

Mercury, Venus, Mars, Jupiter, Saturn, Uranus and Neptune. It really took a long time to shoot all of these goals. If you happen to have the plan to shoot some Solar System planet, then this picture may bring you some inspiration.

 

Photographer: Mario Schantl  

Target: NGC 6992

NGC6992_ZWO-ASI1600MMPro

Equipment: SW Esprit 100, ED SW EQ6R, ZWO ASI1600MM Pro 

NGC 6992 is a cloud of heated and ionized gas and dust in the constellation Cygnus. It constitutes the visible portions of the Cygnus Loop, a supernova remnant, many portions of which have acquired their own individual names and catalogue identifiers. The source supernova was a star 20 times more massive than the Sun, which exploded around 8,000 years ago. The remnants have since expanded to cover an area of the sky roughly 3 degrees in diameter (about 6 times the diameter, or 36 times the area, of the full Moon). The distance to the nebula is not precisely known, but Far Ultraviolet Spectroscopic Explorer (FUSE) data supports a distance of about 1,470 light-years.

 

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ASI071MC Pro: What Improvements Have Been Achieved?

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ZWO-ASI071MCPro 1200 628

ASI071MCPro_features

As we may know before, ZWO ASI071MC Pro was made with the Legendary Sony CMOS chip IMX071. It fits telescopes of all sizes and does not have many requirements for flatteners. The perfect performance in dark field with extremely low amp glow makes it an excellent camera for long exposures. Since we already have a cool version of ASI071, in this article, we are going to reveal the differences between these two cameras. Let’s see what changes and improvements ASI071MC Pro has made on earth.

ASI071MCPro_ASI071MCCool_contrast

ASI071MC Pro has been redesigned from the inside out, using a larger 86mm shell to accommodate bigger boards and internal devices.

 

Improvement No.1: 6 tightened screws

The new sealing way brings excellent sealability for the camera, also keeps it safe and sound in rough roads. No matter how bad the weather is, ASI071MC Pro can always stay dry and sealed inside.      

ASI071MCPro_ASI071MCCool_contrast 2

 

Improvement No.2: DDR Memory Buffer

DDR memory buffer can act like computer memory. The image date from CMOS will be saved into DDR memory buffer at a very high speed, then slowly transferred to the hard disk through the USB cable. One advantage to this is that the speed of exporting images can be very fast, while the noise accumulated in the readout process could be greatly decreased. Another advantage is that the images won’t be lost even if something wrong happens with the connection between the camera and computer. It can be re-transferred.  

DDR Memory Buffer

DDR memory buffer is the main difference between ASI “Cool” and “Pro” cameras.

 

Improvement No.3: Dark current 

Thanks to DDR buffer and new improvement of hardware design, ASI071MC Pro’s control ability to dark current has been greatly increased. The dark current is very close to that of a cooled CCD camera now, and will only be 0.00064e/s/pix when it comes to -15℃.

ASI071MCPro_darkcurrent-vs-temperature

 

Improvement No.4: Main parameters

ASI071MC Pro offers very good performance for astrophotography. Low read noise, high dynamic range.

ASI071MCPro_parameters

 

Improvement No.5: QE value

The QE peak value of ASI071MC Pro is about 50%. Such efficiency is not suitable for snapshot obviously, instead, you can use it to take some great long-exposure photos.ASI071MCPro_QE

 

Some other features of ASI071MC Pro:

1. It includes a unique tilt adapter. You can now easily adjust the camera imaging plane with the adapter outside without screwing off the camera cover.

ASI071MCPro_tilt-adapter

 

2. It equips with2 extra USB ports which allow you to connect more USB devices(like guide cameras). That will greatly help solve the USB HUB shortage problem.

ASI071MCPro_USB-ports

 

3. All necessary cables and adapters are included with ASI071MC Pro in the box. You can match them with the 55mm flattener to get 55mm back focus!

ASI071MCPro_accessories

 

 ASI071 Gallery:

 

Rho Ophiuchi and Antares region

ASI071MCPro_gallery

Adam Jesionkiewicz

Imaging telescope or lens: William Optics Star 71 f/4.9 Astrograph

Imaging camera: ZWO ASI071MC-Cool

Mount:iOptron CEM25-EC

M42

M42_ASI071MCPro

HappySkies

Imaging telescope or lens: HyperStar C8 v4

Imaging camera: ZWO ASI071MC Pro

Mount: Celestron AVX

M51

M51_ASI071MCPro

José Luis Bedmar

Imaging telescope or lens: GSO RC12 truss

Imaging camera: ZWO ASI071MC Pro

Mount: Sky-Watcher EQ8 Pro

M33

M33_ASI071MCPro

Reto Bolliger

Imaging telescope or lens: TS Optics TS PHOTOLINE 102/714 APO

Imaging camera: ZWO Company ASI071MC Pro Cooled

Mount: Sky-Watcher AZEQ6 GT

Vol.31 2019 ZWO ASIWEEK ASTROPHOTOGRAPHY

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To enhance our amateurs’ abilities of astro-observation and astrophotography, to stimulate the public’s imagination and creativity, and to better feel the beauty of the stars, universe and science. We have the ASIWEEK ASTROPHOTOGRAPHY now. We sincerely invite global astronomers and photographers to participate.

Here are the fantastic works from the 31st edition of 2019 ASIWEEK ASTROPHOTOGRAPHY COMPETITION. Let’s take a look!

It is Victor Van Puyenbroeck and his target NGC 6888 captured with ZWO ASI1600MM Pro that won the championship.

 

The winning entry:

Photographer: Victor Van Puyenbroeck  

Target: NGC 6888

Crecent nebula_ASI1600MMPro

Equipment: ZWO ASI1600MM Pro, ZWO 7 nm filters, 80 mm apo telescopes, EQ6-R mounts

NGC 6888(also known as Crescent Nebula) is an emission nebula in the constellation Cygnus, about 5000 light-years away from Earth. It was discovered by William Herschelin 1792. It is formed by the fast stellar wind from the Wolf-Rayet star WR 136 (HD 192163) colliding with and energizing the slower moving wind ejected by the star when it became a red giant around 250,000 to 400,000 years ago. The result of the collision is a shell and two shock waves, one moving outward and one moving inward. The inward moving shock wave heats the stellar wind to X-ray-emitting temperatures.

 

Entries from other photographers:

Photographer: Tim M Timrawi  

Target: M31

M31_ASI071MCPro

Equipment: Explore Scientific 80mm ED TRIPLET APO, ZWO ASI071MC Pro, Orion Atlas Pro AZ

M31 is also known as the Andromeda Galaxy, it is a spiral galaxy approximately 780 kiloparsecs (2.5 million light-years) from Earth, and the nearest major galaxy to the Milky Way. The galaxy’s name stems from the area of the Earth’s sky in which it appears, the constellation of Andromeda. The number of stars contained in the Andromeda Galaxy is estimated at one trillion, or roughly twice the number estimated for the Milky Way.

 

Photographer: Wanda Conde Silva  

Target: NGC 2237

NGC2237_ASI1600MM

Equipment: Orion 80 ED Triplet CF & 0.7x focal reducer, ZWO ASI1600MM Cool, Orion Starshoot Autoguider & 50 mm guidescope

NGC 2237 is also known as The Rosette Nebula. It is a large spherical H II region (circular in appearance) located near one end of a giant molecular cloud in the Monoceros region of the Milky Way Galaxy. The open cluster NGC 2244 (Caldwell 50) is closely associated with the nebulosity, the stars of the cluster having been formed from the nebula’s matter. The cluster and nebula lie at a distance of some 5,000 light-years from Earth. The radiation from the young stars excites the atoms in the nebula, causing them to emit radiation themselves producing the emission nebula we see. The mass of the nebula is estimated to be around 10,000 solar masses.

 

Photographer: Janco Moolman  

Target: NGC 3576

NGC3576_ASI1600MM

Equipment: Celestron 9.25″ Edge HD with .7x reducer, ZWO ASI1600MM Cool, ZWO EFW 7x36mm 

NGC 3576 is a minor nebula in the Sagittarius arm of the galaxy a few thousand light-years away from the Eta Carinae nebula. This nebula even received six different classification numbers. Currently, astronomers call the entire nebula NGC 3576. A popular nickname is “The Statue of Liberty Nebula” because of the distinctive shape in the middle of the nebula. The name was first suggested in 2009 by Dr. Steve Mazlin, a member of Star Shadows Remote Observatory (SSRO).

 

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Astrophotographers’ Story: Ariel Cappelletti

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Ariel Cappelletti is the winner of ZWO 2019 ASIWEEK #23 and has brought us many extraordinary astronomy photos. To make our ZWOers know this excellent astrophotographer better, we make this interview. Let’s all take a look now.

 

Q1: At first, congratulation that your nice image win #ASIWEEK. Could you please introduce yourself to us? 

Hi!, I am Ariel Cappelletti. I live in Córdoba, Argentina. Actually it is really hard to define yourself because mainly you are defining what you do, but not actually who you are hehe, but I will give it a try. I am a scientist, I have bachelor’s and Ph.D. degrees in Chemistry. I have several hobbies, music (I play several instruments and write songs only for personal entertainment), I did homebrew beer from several months, conventional photography, among others, but I could say that astrophotography is one of the most gratifying, time and discipline consuming of all the others hobbies.

Thanks to the internet and the images from the Space Hubble Telescope, I started to pay attention to the marvels that are present in the sky. Firstly, I thought that these wonderful images could only be captured by professionally trained people using scientific installations. Then, thanks to local and international astronomy and astrophotography forums I could see that this beautiful hobby was possible to do with amateur equipment. Thanks to the improvement in technology and brands like ZWO, now beginner astrophotographers as me can achieve very impressive results with amateur equipment that are not that expensive as used to be.
ArielCappelletti_astrophotographer
Astrophotography could be very frustrating, economical demanding, but when you achieve that image, and you realize that you are collecting photons who travel millions of years to impact to your camera´s sensor, and that you are travelling in time, as you are capturing the past, for me it is so rewarding, it becomes very addictive. When I finish processing one image, and that image satisfied me (that does not always happen), I feel incredible joy and it is really good to be able to share it with others, although it is not the best image of that object. Then you spent a considerable amount of time, planning, and expecting to capture the next one.

ArielCappelletti-with-his-equipment
I consider myself a beginner astrophotographer, and I think it is very important to share our images, problems and experience to help astrophotographers who are taking their first steps, and be helped by others with more experience. It would have been impossible for me to progress so much in so little time if I had not had the great unconditional help of great astrophotographers to whom I am very grateful.

 

Q2: When did you start like astronomy? And when did you have your first telescope? What’s the feeling in first observing? 

I think I’ve always liked it, but don’t remember an initial point. But maybe, I can mention two main triggers that make me feel that while I could enjoy the beauty on earth, I could also look to the sky and delight in the spectacle that the universe has to offer to us. I think the first trigger was my first Moon eclipse, I was very happy to see it, but I was thinking all the time that it was a shame that I wasn’t able to capture the moment to share with my family and friends.

Another trigger was science fiction books from different authors, but to mention one from Isaac Asimov. It was the fuel for my scientific side.

I could get my first telescope in 2013, after saving for several months, it was a 150/750 Newtonian telescope, with an equatorial mount. The first thing to observe with the telescope it was the moon, and the feelings involved in the first observation it is very difficult to explain, but basically my first thought was “why I wait so much time to start with astronomy”. The views of the moon, 47 tucanae, M42, absolutely blew my mind, but there was an underlying idea really difficult to remove, I was not satisfied with just looking, I wanted to photograph those objects.

ArielCappelletti_ZWO-cameras

 

Q3: When did you start DSO imaging? Can you remember your first DSO image? What’s the feeling?

After one night of visual use of the telescope, I started imaging. My first target was the moon of course because it was simpler.

The second night with clear skies I’ve tried to capture the great Orion nebula (M42), using my DSLR camera and it was my first DSO image. Of course, it is not a good picture, but I was very happy with it. I was very excited to be able to capture different colors that my eyes weren’t able to see.

deepspace_ASIcameras

 

Q4: we know DSO imaging is hard, you need dark sky, good mount & scope, good camera to capture, stable guiding, post-processing skill, what is the most difficult part for you? what is the most important part for you?

Wow, it’s a really hard question to answer. Every step that you have mentioned is very important and can potentially ruin your astrophotography session. However, I would say that for me focusing it is very critical. I use Bahtinov Masks, but I always find that the focus is not perfect as I expected, so that’s a big deal for me.

Guiding is not less important, mostly because my main equipment has a maximum theoretical resolution of 0.89 arcsec, so guiding is very important for me.

And finally Processing is the final step that decides if you have or not a great image, but the good thing about processing is that if you are not satisfied with the result, you can always reprocess the image, but for that, the information that you have acquired has to be of a good quality, involving good guiding, good focus, etc.

deepspace_ZWO-cameras

 

Q5: Astrophotographer usually travel long distances to the darkest places to do DSO imaging, can you tell us about your past unforgettable experience?

I do not have so much experience, but yes, for RGB DSO imaging I have to travel to darker skies, for Narrowband DSO imaging I do it from my backyard in my Bortle 9 light-polluted city sky.

One good thing about been forced to travel for good skies is that you can travel and meet friends that don’t live in the same city and spent a wonderful weekend doing astrophotography.

One of the greatest skies that I was lucky to photograph was the sky of a little location called Juella, it is located in Jujuy, Argentina. My first good milky way was done in Juella, which is why I have a special memory from that place.

deepspace_astronomy_cameras

 

Q6: What equipment are you use currently? can you show us some images of your setup?

I have currently three different setups, one for wide-field astrophotography (35-200 mm), another for mid-range focal length (400 mm), and one with the more focal length for smaller DSO, planetary imaging, etc (1000 mm).

My wide-field setup consists of the main camera, ZWO ASI 1600 mm-pro, and an adapter for Nikon lenses with 2” filter drawer and my Nikon lenses, 35 mm, 50 mm, 70-300 mm. This setup can be mounted on my travel mount, a Sky-Watcher Star Adventurer, or in the main mount, a Sky-Watcher EQ6R-pro. I use a ZWO ASI178MC and a 32/130 mm guidescope for guiding with this setup.

For the mid-range focal length setup, I use ZWO ASI1600MM Pro, with a Long Perng S400G Apo refractor on EQ6R-pro.

And my main equipment, for long focal length, I use ZWO ASI1600MM Pro, with a Sky-Watcher Explorer 200/1000 mm F5 Newtonian on EQ6R-pro. I recently got a ZWO EAF for this setup, I could not try it due to weather conditions, but I am very happy with it, hopefully my focus problems will end!

For both (mid and long focal length) I use a 60/240 mm guidescope with a ZWO ASI120MM Mini for guiding, 2” Optolong Narrowband (Ha, Oiii and Sii) filters, and 2” LRGB Svbony filters with manual 2” filter wheel. I will wait for an automatic 2” filter wheel from ZWO to complete the equipment.

astronomy-photography-gear-ZWO

 

Q7: What kind of telescope is your favorite? Why?

I’ve tried Refractors, newtonian reflectors, and maksutov telescopes. From my experience I prefer Newton reflector telescopes. In my opinion, they offer a great aperture and quality images for a really reasonable price.

deepspace_astronomy_cameras_2

 

Q8: When did you know about ZWO? And what’s the first ASI camera you have? can you tell us your feeling when you get your first ASI camera?

I found ZWO some years ago, but I wasn’t doing astrophotography consistently, so I was using my DSLR camera. But when I was able to get some decent pictures, I didn’t hesitate and I start saving money to get a good mono camera.

My first ZWO ASI camera was the ASI178MC that I bought for planetary imaging, and I can’t describe the happiness when I try it for the first time with the moon. I also used it for imaging M42 with a low cost achromatic refractor and the result was really good, so that helped me decide to go for the ASI1600MM Pro, and I could not be more happy with my decision.

deepspace_astronomy_cameras_3

 

Q9: Which ASI camera is your favorite? And why are you choose it? Do you have any user experience share to users who wish to buy an astro camera?

My favorite will be of course the ZWO ASI1600MM Pro, and the main reason is because I enjoy more DSO than planetary imaging. But I love my ASI178MC and ASI120MM Mini.

I didn’t have any problems with any of the three cameras I have from ZWO, or with the ZWO EAF, so I can only say great things about ZWO, great quality, reasonable price, you won’t regret of getting a ZWO product.

deepspace_astronomy_cameras_4

 

Q10: Did you know our ASIAIR? If yes, what features do you like?any new features you like to add?

I know ASIAIR because I subscribe to some great astrophotography channels of youtube, and I saw some great reviews about it. I love the idea of not use a laptop near the telescope.

I would like ASIAIR were usable with windows and not only android, in my country, due to safety reasons, I will like to control everything (mount, guiding, camera, eaf) with my laptop from inside my house. It is difficult to rob equipment of 50 kg of weight (mount+telescope), but it is easy from someone who enters my backyard to grab the laptop and go away. If this feature were possible I would buy one without a doubt.

deepspace_astronomy_cameras_5

 

Q11: What’s your impression of ZWO?

My impression of ZWO… it is clear in many of the questions, I love it, it gives excellent products, the possibility of have and impressive quality of images for a very reasonable price.

deepspace_astronomy_cameras_6

Vol.32 2019 ZWO ASIWEEK ASTROPHOTOGRAPHY

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To enhance our amateurs’ abilities of astro-observation and astrophotography, to stimulate the public’s imagination and creativity, and to better feel the beauty of the stars, universe and science. We have the ASIWEEK ASTROPHOTOGRAPHY now. We sincerely invite global astronomers and photographers to participate.

Here are the fantastic works from the 32nd edition of 2019 ASIWEEK ASTROPHOTOGRAPHY COMPETITION. Let’s take a look!

It is Reinhold Wittich and his target M45 captured with ZWO ASI094MC Pro that won the championship.

 

The winning entry:

Photographer: Reinhold Wittich  

Target: M45

Pleiades-star-cluster_ZWO

Equipment: ZWO ASI094MC Pro, RASA 11

M45 is also known as the Pleiades and the Seven Sisters, It is an open star cluster containing middle-aged, hot B-type stars located in the constellation of Taurus. It is among the nearest star clusters to Earth and is the cluster most obvious to the naked eye in the night sky.

 

Entries from other photographers:

Photographer: Yannick Dutertre  

Target: IC 5070

IC5070_ASI1600MM

Equipment: 1400mm f7 EdgeHD, ZWO ASI1600MM Cool

IC 5070 is also known as the Pelican Nebula. It’s an H II region associated with the North America Nebula in the constellation Cygnus. The gaseous contortions of this emission nebula bear a resemblance to a pelican, giving rise to its name. The Pelican Nebula is located nearby first magnitude star Deneb, and is divided from its more prominent neighbour, the North America Nebula, by a molecular cloud filled with dark dust.

Photographer: Joe Renzetti  

Target: IC 5070

IC5070_ASI1600

Equipment: C14 & Hyperstar, ZWO ASI1600MM Cool

The Pelican is much studied because it has a particularly active mix of star formation and evolving gas clouds. The light from young energetic stars is slowly transforming cold gas to hot and causing an ionization front gradually to advance outward. Particularly dense filaments of cold gas are seen to still remain, and among these are found two jets emitted from the Herbig–Haro object 555. Millions of years from now this nebula might no longer be known as the Pelican, as the balance and placement of stars and gas will leave something that appears completely different.

 

Photographer: Menezes FO  

Target: NGC 6334

Cat's-Paw-Nebula_ASI1600MM

Equipment: Apo 80mm, ZWO ASI1600MM Cool, ASIAIR

NGC 6334 is also known as the Cat’s Paw Nebula, Bear Claw Nebula, or Gum 64. It is an emission nebula and star-forming region located in the constellation Scorpius. It was discovered by astronomer John Herschel in 1837, who observed it from the Cape of Good Hope in South Africa

 

Photographer: Joe Renzetti  

Target: Sh2-101

Sh2-101_ASI1600

Equipment: C14 & hyperstar, ZWO ASI1600MM Cool

Sh2-101(Sharpless 101) is a H II region emission nebula located in the constellation Cygnus. It is sometimes also called the Tulip Nebula because it appears to resemble the outline of a tulip when imaged photographically. It was catalogued by astronomer Stewart Sharpless in his 1959 catalog of nebulae. It lies at a distance of about 6,000 light-years from Earth.

Be a great deep space photographer with ASIAIR!

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Photographing deep space objects is a very fulfilling activity, also a very hard technical challenge. The high requirements troubled so many newcomers before. But as the launch of ASIAIR, everything changed! Deep space photography is fun and easy now!

 

Traditional deep space photography equipment:

deepspce-equipment

There are so many cables between equipment and laptop. You have nowhere to place the laptop unless putting it on a box. A large power strip and a large-capacity battery are also necessary for you. They occupy your trunk space, force you to abandon other stuff you might want to carry at first.

 

Deep space photography equipment with ASIAIR:

 

 

 

deepspace-equipment-ASIAIR

ASIAIR needs fewer cables and less power, which will greatly save the setup time.  But this is not the best thing, the best part of ASIAIR is that you can control it with your phone or tablet wirelessly. No need to bring out the laptop!

 

ASIAIR

With 5GWifi transferring the data, You can photograph photos anywhere within 20m of the device, no longer need to stand beside the equipment as before.

 

Traditional state of deep space photography:

astrophotograph-mosquitoes

You have to stick to your equipment and fight with mosquitoes and coldness.

 

But with ASIAIR:


astrophotograph-ASIAIR-easy astrophotograph-ASIAIR-relax

astrophotograph-ASIAIR

You can stay wherever you want. The whole photographing process will be easy, safe and relaxing.

astrophotograph-gear-ASIAIR

easy-astrophotograph-ASIAIR

 

Product Features

 

Precise GOTO

With the plant solving solution of ASIAIR, you can locate your target object in seconds.

Precise GOTO-ASIAIR

 

Massive celestial data

We recommend you choose Tonights Best since it is easy for you to search for deep space objects.

Massive celestial data

choose-target-ASIAIR

 

Easy guide

You can control the guider with your phone. And there is a floating window for you to check the position at any time.

Guide-ASIAIR

 

Quick Polar Align

You do not need a polar scope to calibrate the polar axis, try the plant solving function of ASIAIR!

PolarAlign-ASIAIR

 

Wireless Focus

ASIAIR supports EAF electronic automatic focuser. It can be a very good helper for you.wireless-focus-ASIAIR

 

Shooting Schedule

ASIAIR saves your time and energy by automatically shooting the target after you set the shooting plan.

shooting-schedule-ASIAIR

 

More features are waiting for you to explore!ASIAIR

ASIAIR-little-box

Little box, big universe!

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