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Star Pi1 Gruis B

Yellow star Pi1 Gruis B is located 527 light years away from the Sun. It is a single star of spectral class G0V, that has 100 % of solar mass. For now, there are no known exoplanets in this star system.
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Sun distance
527 light years

Pi1 Gruis B

Spectral class: G0V

Basic characteristic

icon weight
Mass: 100 % M Sun
| 1048 M Jupiter
+
Star mass
Mass of the star Pi1 Gruis B is 1.0 solar masses.

The mass of a star is the total amount of matter it contains. It is one of the most important properties of a star, as it determines almost everything about how the star lives, changes, and dies. In astronomy, star mass is usually measured in solar masses (M☉) — where 1 solar mass is equal to the mass of our Sun... icon More about Star mass in StellarGuide
radius icon
Size: 110 % R Sun
| 11.1 R Jupiter
(estimate)
+
Star size
Radius of the star Pi1 Gruis B is not known. Its estimated value based on other similar stars is about 110 % solar radii.

The size of a star refers to its radius — the distance from its center to its surface. Star size is usually measured in solar radii (R☉), where 1 solar radius equals approximately 696,000 kilometers. Depending on their type and life stage, stars can be much smaller or larger than the Sun... icon More about Star size in StellarGuide
temperature iconTemperature: 6000 K
 (estimate)
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Star temperature
Surface temperature of Pi1 Gruis B is estimated to be 5966 K, which is 104 % of the temperature on the surface of the Sun.

The temperature of a star refers to the temperature at its surface, also called the photosphere. It is measured in kelvins (K), the standard unit for temperature in astronomy. A star’s temperature tells us a lot about its physical properties and where it stands in its evolutionary stage... icon More about Star temperature in StellarGuide

Photometry

Magnitude iconApparent magnitude (V): 10.9
Magnitude iconAbsolute magnitude (V): 4.9
Absolute stellar magnitude in different parts of the electromagnetic spectrum from infrared (K band) to ultraviolet (U band).
5
10
15
20
25
30
35
K
2.1
H
1.6
J
1.2
Grp
0.8
I
0.8
G
0.6
V
0.5
Gbp
0.5
B
0.4
U
0.3
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Pi1 Gruis B system structure

Pi1 Gruis A
Pi1 Gruis B

More about Pi1 Gruis B

       Pi1 Gruis B can be found in southern celestial hemisphere, you cannot see it with naked eye, but you can observe this star with basic telescope. The star is also observable from Northern America, Europe and Asia. 
Other designations of this star
Gaia EDR3 6518817665842868352
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Frequently Asked Questions

How far is the Pi1 Gruis B system from the Sun?

The Pi1 Gruis B system is 527 light years or 161.7 parsecs from the Sun.

What galaxy is the Pi1 Gruis B star in?

The Pi1 Gruis B is in the Milky Way galaxy just like the Sun.

How many stars are in the Pi1 Gruis B system?

The Pi1 Gruis B is a single star, there are no other known stars in the system.

What type of star is the Pi1 Gruis B?

The star Pi1 Gruis B is a Yellow star star.

What temperature is the Pi1 Gruis B?

The primary in the Pi1 Gruis B system has an effective temperature of K ( °C). Find out more about the temperature of stars in Stellar guide
Class of stars Yellow star
Sun-like stars belong mainly to spectral type G and are commonly called yellow dwarfs. They have surface temperatures of roughly 5,300–6,000 K (about 5,000–5,700 °C), giving them a slightly yellow-white appearance. With masses typically between about 0.8 and 1.1 times that of the Sun, they sit between hotter, more massive white stars and cooler orange and red stars on the main sequence. The Sun itself is a standard G2V star and serves as the benchmark for understanding the structure and behavior of this stellar class.

These stars generate energy by fusing hydrogen into helium in their cores through the proton–proton chain. Their total lifetimes on the main sequence are around 10 billion years, during which their brightness slowly increases. After exhausting hydrogen in their cores, Sun-like stars expand into red giants, shed their outer layers to form planetary nebulae, and eventually leave behind dense white dwarfs. Many known exoplanet systems orbit Sun-like stars, making them key targets in the search for potentially habitable worlds.
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