Easy · 6×6
🌌 Constellation · Easy #11
You discovered: The Embarrassed Bagel
0
1
1
1
🦉 How to solve it
- The violet nebula has only one possible cell: the star goes in F1.
- The telescope at B6 already sees all its stars: its other neighbors stay empty.
- Row 2 has only one possible cell: the star goes in C2.
- The pink nebula has only one possible cell: the star goes in A3.
- Column B has only one possible cell: the star goes in B5.
- Row 4 has only one possible cell: the star goes in E4.
- Row 6 has only one possible cell: the star goes in D6.
Medium · 8×8
🌌 Constellation · Medium #11
You discovered: The Mysterious Platypus
1
🦉 How to solve it
- The blue nebula has only one possible cell: the star goes in G6.
- The brown nebula has only one possible cell: the star goes in H8.
- Every possible cell of the teal nebula is in row 7: the rest of that row stays empty.
- Every possible cell of the lime nebula is in row 1: the rest of that row stays empty.
- Every possible cell of the pink nebula is in column E: the rest of that column stays empty.
- Row 5 only has possible cells in the red nebula: that nebula's star is here, so the rest of it stays empty.
- Row 4 has only one possible cell: the star goes in F4.
- Row 3 has only one possible cell: the star goes in A3.
- Row 1 has only one possible cell: the star goes in B1.
- Row 2 has only one possible cell: the star goes in E2.
- The telescope at B5 needs every neighbor that's left: star in C5.
- Row 7 has only one possible cell: the star goes in D7.
Hard · 9×9
🌌 Constellation · Hard #11
You discovered: The Lovesick Accordion
1
🦉 How to solve it
- Every possible cell of the brown nebula is in column I: the rest of that column stays empty.
- A star in D1 would leave the pink nebula with no possible cell: D1 stays empty.
- A star in G1 would leave the red nebula with no possible cell: G1 stays empty.
- A star in F2 would leave the pink nebula with no possible cell: F2 stays empty.
- A star in I2 would leave the red nebula with no possible cell: I2 stays empty.
- A star in H3 would leave the red nebula with no possible cell: H3 stays empty.
- A star in E4 would leave the amber nebula with no possible cell: E4 stays empty.
- A star in H5 would leave row 6 with no possible cell: H5 stays empty.
- A star in H6 would leave row 7 with no possible cell: H6 stays empty.
- A star in H7 would leave row 6 with no possible cell: H7 stays empty.
- A star in D8 would leave the blue nebula with no possible cell: D8 stays empty.
- A star in G8 would leave the silver nebula with no possible cell: G8 stays empty.
- A star in F9 would leave the blue nebula with no possible cell: F9 stays empty.
- The pink nebula and the red nebula fit entirely in row 1 and row 2: no other nebula can have a star there.
- The violet nebula has only one possible cell: the star goes in B3.
- Column A only has possible cells in the teal nebula: that nebula's star is here, so the rest of it stays empty.
- The amber nebula and the lime nebula fit entirely in row 4 and row 5: no other nebula can have a star there.
- The blue nebula and the silver nebula fit entirely in row 8 and row 9: no other nebula can have a star there.
- The red nebula and the silver nebula fit entirely in column H and column G: no other nebula can have a star there.
- Every possible cell of the amber nebula is in column F: the rest of that column stays empty.
- Every possible cell of the pink nebula is in column E: the rest of that column stays empty.
- Row 8 has only one possible cell: the star goes in H8.
- Row 1 has only one possible cell: the star goes in E1.
- Row 2 has only one possible cell: the star goes in G2.
- Row 7 has only one possible cell: the star goes in A7.
- Row 6 has only one possible cell: the star goes in I6.
- The telescope at G3 already sees all its stars: its other neighbors stay empty.
- Row 4 has only one possible cell: the star goes in D4.
- Row 5 has only one possible cell: the star goes in F5.
- Row 9 has only one possible cell: the star goes in C9.