Everyday Grids Hashi Answer Today: May 24, 2026

This page has the complete Everyday Grids Hashi answers for May 24, 2026 (24 May 2026): the solved grids for both the Normal and Hard Hashi levels, plus a full solution walkthrough with a step by step explanation of every move. Need a quick cheat to check your grid, a hint to get unstuck, or a complete Hashi guide? It’s all below, and each Everyday Grids Hashi solution is verified against the puzzle rules, so it matches the May 24, 2026 puzzle in the app exactly.
About Everyday Grids Hashi
Everyday Grids is a relaxing daily logic-puzzle game by Fanatee with seven different grids: Zip, Gems, Lotus, Panda, Libra, Sums and Hashi. Everyday Grids Hashi is one of them. Join all islands with straight bridges. An island’s number is how many bridges touch it; max 2 per pair, no crossing, and everything must connect. Every level can be solved with pure logic, with no guessing and no luck, and a brand-new Normal and Hard Hashi puzzle is released every day. The game is free to download on Android and iPhone.
Everyday Grids Hashi Answers and Solutions for May 24, 2026
Each level below shows the solved Hashi grid first, so you can copy the answer straight away. If you’d rather learn how it’s done, tap Step by Step Explanation under the grid: the grid and the current step stay on screen together while you follow the solution one logical move at a time (R = row, C = column, counted from the top-left).
Everyday Grids Hashi Normal Answer, May 24, 2026
9×9 grid- 0/33Each island's number is how many bridges touch it. Bridges are straight, at most 2 between the same pair, never cross, and everything must join up. Tap Start to follow all 33 logical steps, no guessing.
- 1/33The 4 at R1C1 needs 4 bridges. Its possible links (bridges allowed): R1C3 (0-2), R3C1 (0-2). The other links can carry at most 2, so R1C3 needs at least 2 → exactly 2 bridges; the other links can carry at most 2, so R3C1 needs at least 2 → exactly 2 bridges.
- 2/33The 4 at R1C7 needs 4 bridges. Its possible links (bridges allowed): R1C3 (0-2), R1C9 (0-2). The other links can carry at most 2, so R1C3 needs at least 2 → exactly 2 bridges; the other links can carry at most 2, so R1C9 needs at least 2 → exactly 2 bridges.
- 3/33The 4 at R1C3 needs 4 bridges. Its possible links (bridges allowed): R1C1 (2), R1C7 (2), R3C3 (0-2). The other links already carry at least 4, so R3C3 can take none.
- 4/33The 3 at R1C9 needs 3 bridges. Its possible links (bridges allowed): R1C7 (2), R6C9 (0-2). The other links can carry at most 2, so R6C9 needs at least 1, and the other links already carry at least 2, so R6C9 can take at most 1 → exactly 1 bridge.
- 5/33The 2 at R2C2 needs 2 bridges. Its possible links (bridges allowed): R2C4 (0-2). It has no other link, so R2C4 must carry both → exactly 2 bridges.
- 6/33The 4 at R2C8 needs 4 bridges. Its possible links (bridges allowed): R2C4 (0-2), R4C8 (0-2). The other links can carry at most 2, so R2C4 needs at least 2 → exactly 2 bridges; the other links can carry at most 2, so R4C8 needs at least 2 → exactly 2 bridges.
- 7/33The 4 at R2C4 needs 4 bridges. Its possible links (bridges allowed): R2C2 (2), R2C8 (2), R4C4 (0-2). The other links already carry at least 4, so R4C4 can take none.
- 8/33The 3 at R3C1 needs 3 bridges. Its possible links (bridges allowed): R1C1 (2), R3C3 (0-2), R6C1 (0-2). The other links already carry at least 2, so R3C3 can take at most 1; the other links already carry at least 2, so R6C1 can take at most 1.
- 9/33The 4 at R3C3 needs 4 bridges. Its possible links (bridges allowed): R3C1 (0-1), R3C6 (0-2), R6C3 (0-2). The other links can carry at most 3, so R3C6 needs at least 1; the other links can carry at most 3, so R6C3 needs at least 1.
- 10/33The 2 at R3C6 needs 2 bridges. Its possible links (bridges allowed): R3C3 (1-2), R5C6 (0-2). The other links already carry at least 1, so R5C6 can take at most 1.
- 11/33The 3 at R4C4 needs 3 bridges. Its possible links (bridges allowed): R4C8 (0-2), R7C4 (0-2). The other links can carry at most 2, so R4C8 needs at least 1; the other links can carry at most 2, so R7C4 needs at least 1.
- 12/33There is already a bridge on R4C4–R4C8. Bridges can't cross, so R3C6–R5C6 is now impossible.
- 13/33There is already a bridge on R4C4–R7C4. Bridges can't cross, so R6C3–R6C9 is now impossible.
- 14/33The 2 at R3C6 needs 2 bridges. Its possible links (bridges allowed): R3C3 (1-2). It has no other link, so R3C3 must carry both → exactly 2 bridges.
- 15/33The 4 at R4C8 needs 4 bridges. Its possible links (bridges allowed): R2C8 (2), R4C4 (1-2), R7C8 (0-2). The other links already carry at least 3, so R7C8 can take at most 1.
- 16/33The 2 at R5C6 needs 2 bridges. Its possible links (bridges allowed): R7C6 (0-2). It has no other link, so R7C6 must carry both → exactly 2 bridges.
- 17/33The 2 at R6C9 needs 2 bridges. Its possible links (bridges allowed): R1C9 (1), R9C9 (0-2). The other links can carry at most 1, so R9C9 needs at least 1, and the other links already carry at least 1, so R9C9 can take at most 1 → exactly 1 bridge.
- 18/33The 5 at R7C4 needs 5 bridges. Its possible links (bridges allowed): R4C4 (1-2), R7C6 (0-2), R9C4 (0-2). The other links can carry at most 4, so R7C6 needs at least 1; the other links can carry at most 4, so R9C4 needs at least 1.
- 19/33The 8 at R7C6 needs 8 bridges. Its possible links (bridges allowed): R5C6 (2), R7C4 (1-2), R7C8 (0-2), R9C6 (0-2). The other links can carry at most 6, so R7C4 needs at least 2 → exactly 2 bridges; the other links can carry at most 6, so R7C8 needs at least 2 → exactly 2 bridges; the other links can carry at most 6, so R9C6 needs at least 2 → exactly 2 bridges.
- 20/33The 2 at R7C8 needs 2 bridges. Its possible links (bridges allowed): R4C8 (0-1), R7C6 (2). The other links already carry at least 2, so R4C8 can take none.
- 21/33The 4 at R4C8 needs 4 bridges. Its possible links (bridges allowed): R2C8 (2), R4C4 (1-2). The other links can carry at most 2, so R4C4 needs at least 2 → exactly 2 bridges.
- 22/33The 3 at R4C4 needs 3 bridges. Its possible links (bridges allowed): R4C8 (2), R7C4 (1-2). The other links already carry at least 2, so R7C4 can take at most 1 → exactly 1 bridge.
- 23/33The 5 at R7C4 needs 5 bridges. Its possible links (bridges allowed): R4C4 (1), R7C6 (2), R9C4 (1-2). The other links can carry at most 3, so R9C4 needs at least 2 → exactly 2 bridges.
- 24/33The 2 at R8C3 needs 2 bridges. Its possible links (bridges allowed): R6C3 (0-2). It has no other link, so R6C3 must carry both → exactly 2 bridges.
- 25/33The 4 at R6C3 needs 4 bridges. Its possible links (bridges allowed): R3C3 (1-2), R6C1 (0-2), R8C3 (2). The other links already carry at least 3, so R6C1 can take at most 1.
- 26/33The 3 at R9C1 needs 3 bridges. Its possible links (bridges allowed): R6C1 (0-2), R9C4 (0-2). The other links can carry at most 2, so R6C1 needs at least 1; the other links can carry at most 2, so R9C4 needs at least 1.
- 27/33The 6 at R9C4 needs 6 bridges. Its possible links (bridges allowed): R7C4 (2), R9C1 (1-2), R9C6 (0-2). The other links can carry at most 4, so R9C1 needs at least 2 → exactly 2 bridges; the other links can carry at most 4, so R9C6 needs at least 2 → exactly 2 bridges.
- 28/33The 3 at R9C1 needs 3 bridges. Its possible links (bridges allowed): R6C1 (1-2), R9C4 (2). The other links already carry at least 2, so R6C1 can take at most 1 → exactly 1 bridge.
- 29/33The 6 at R9C6 needs 6 bridges. Its possible links (bridges allowed): R7C6 (2), R9C4 (2), R9C9 (0-2). The other links can carry at most 4, so R9C9 needs at least 2 → exactly 2 bridges.
- 30/33Putting 1 bridge on R3C1–R6C1 would use up every remaining bridge of the 20 islands in that group, cutting them off from the rest. Everything has to join up, so R3C1–R6C1 gets at most no bridge.
- 31/33The 3 at R3C1 needs 3 bridges. Its possible links (bridges allowed): R1C1 (2), R3C3 (0-1). The other links can carry at most 2, so R3C3 needs at least 1 → exactly 1 bridge.
- 32/33The 4 at R3C3 needs 4 bridges. Its possible links (bridges allowed): R3C1 (1), R3C6 (2), R6C3 (1-2). The other links already carry at least 3, so R6C3 can take at most 1 → exactly 1 bridge.
- 33/33The 2 at R6C1 needs 2 bridges. Its possible links (bridges allowed): R6C3 (0-1), R9C1 (1). The other links can carry at most 1, so R6C3 needs at least 1 → exactly 1 bridge. ✅ Solved!
Hashi Normal answer as text
Everyday Grids Hashi Hard Answer, May 24, 2026
9×9 grid- 0/39Each island's number is how many bridges touch it. Bridges are straight, at most 2 between the same pair, never cross, and everything must join up. Tap Start to follow all 39 logical steps, no guessing.
- 1/39The 1 at R1C1 needs 1 bridge. Its possible links (bridges allowed): R3C1 (0-1). It has no other link, so R3C1 must carry it → exactly 1 bridge.
- 2/39The 4 at R2C7 needs 4 bridges. Its possible links (bridges allowed): R2C5 (0-2), R2C9 (0-2), R4C7 (0-1). The other links can carry at most 3, so R2C5 needs at least 1; the other links can carry at most 3, so R2C9 needs at least 1.
- 3/39The 4 at R2C9 needs 4 bridges. Its possible links (bridges allowed): R2C7 (1-2), R4C9 (0-2). The other links can carry at most 2, so R2C7 needs at least 2 → exactly 2 bridges; the other links can carry at most 2, so R4C9 needs at least 2 → exactly 2 bridges.
- 4/39The 3 at R3C4 needs 3 bridges. Its possible links (bridges allowed): R3C1 (0-2), R3C6 (0-2). The other links can carry at most 2, so R3C1 needs at least 1; the other links can carry at most 2, so R3C6 needs at least 1.
- 5/39There is already a bridge on R3C1–R3C4. Bridges can't cross, so R2C3–R4C3 is now impossible.
- 6/39There is already a bridge on R3C4–R3C6. Bridges can't cross, so R2C5–R4C5 is now impossible.
- 7/39The 1 at R2C3 needs 1 bridge. Its possible links (bridges allowed): R2C5 (0-1). It has no other link, so R2C5 must carry it → exactly 1 bridge.
- 8/39The 3 at R2C5 needs 3 bridges. Its possible links (bridges allowed): R2C3 (1), R2C7 (1-2). The other links can carry at most 1, so R2C7 needs at least 2 → exactly 2 bridges.
- 9/39The 4 at R2C7 needs 4 bridges. Its possible links (bridges allowed): R2C5 (2), R2C9 (2), R4C7 (0-1). The other links already carry at least 4, so R4C7 can take none.
- 10/39The 3 at R3C1 needs 3 bridges. Its possible links (bridges allowed): R1C1 (1), R3C4 (1-2), R5C1 (0-2). The other links already carry at least 2, so R5C1 can take at most 1.
- 11/39The 4 at R3C8 needs 4 bridges. Its possible links (bridges allowed): R3C6 (0-2), R5C8 (0-2). The other links can carry at most 2, so R3C6 needs at least 2 → exactly 2 bridges; the other links can carry at most 2, so R5C8 needs at least 2 → exactly 2 bridges.
- 12/39There is already a bridge on R3C8–R5C8. Bridges can't cross, so R4C7–R4C9 is now impossible.
- 13/39The 4 at R3C6 needs 4 bridges. Its possible links (bridges allowed): R3C4 (1-2), R3C8 (2), R5C6 (0-2). The other links already carry at least 3, so R5C6 can take at most 1.
- 14/39The 2 at R4C3 needs 2 bridges. Its possible links (bridges allowed): R4C5 (0-2), R8C3 (0-1). The other links can carry at most 1, so R4C5 needs at least 1.
- 15/39The 4 at R4C5 needs 4 bridges. Its possible links (bridges allowed): R4C3 (1-2), R4C7 (0-1), R7C5 (0-2). The other links can carry at most 3, so R7C5 needs at least 1.
- 16/39There is already a bridge on R4C5–R7C5. Bridges can't cross, so R5C1–R5C6 is now impossible.
- 17/39The 1 at R4C7 needs 1 bridge. Its possible links (bridges allowed): R4C5 (0-1). It has no other link, so R4C5 must carry it → exactly 1 bridge.
- 18/39There is already a bridge on R4C5–R4C7. Bridges can't cross, so R3C6–R5C6 is now impossible.
- 19/39The 4 at R3C6 needs 4 bridges. Its possible links (bridges allowed): R3C4 (1-2), R3C8 (2). The other links can carry at most 2, so R3C4 needs at least 2 → exactly 2 bridges.
- 20/39The 3 at R3C4 needs 3 bridges. Its possible links (bridges allowed): R3C1 (1-2), R3C6 (2). The other links already carry at least 2, so R3C1 can take at most 1 → exactly 1 bridge.
- 21/39The 3 at R3C1 needs 3 bridges. Its possible links (bridges allowed): R1C1 (1), R3C4 (1), R5C1 (0-1). The other links can carry at most 2, so R5C1 needs at least 1 → exactly 1 bridge.
- 22/39The 4 at R4C9 needs 4 bridges. Its possible links (bridges allowed): R2C9 (2), R8C9 (0-2). The other links can carry at most 2, so R8C9 needs at least 2 → exactly 2 bridges.
- 23/39The 3 at R5C1 needs 3 bridges. Its possible links (bridges allowed): R3C1 (1), R9C1 (0-2). The other links can carry at most 1, so R9C1 needs at least 2 → exactly 2 bridges.
- 24/39The 5 at R5C8 needs 5 bridges. Its possible links (bridges allowed): R3C8 (2), R5C6 (0-2), R7C8 (0-2). The other links can carry at most 4, so R5C6 needs at least 1; the other links can carry at most 4, so R7C8 needs at least 1.
- 25/39The 2 at R5C6 needs 2 bridges. Its possible links (bridges allowed): R5C8 (1-2), R8C6 (0-2). The other links already carry at least 1, so R8C6 can take at most 1.
- 26/39The 2 at R7C8 needs 2 bridges. Its possible links (bridges allowed): R5C8 (1-2), R7C5 (0-2), R9C8 (0-2). The other links already carry at least 1, so R7C5 can take at most 1; the other links already carry at least 1, so R9C8 can take at most 1.
- 27/39The 3 at R8C9 needs 3 bridges. Its possible links (bridges allowed): R4C9 (2), R8C6 (0-2). The other links can carry at most 2, so R8C6 needs at least 1, and the other links already carry at least 2, so R8C6 can take at most 1 → exactly 1 bridge.
- 28/39There is already a bridge on R8C6–R8C9. Bridges can't cross, so R7C8–R9C8 is now impossible.
- 29/39The 3 at R9C1 needs 3 bridges. Its possible links (bridges allowed): R5C1 (2), R9C5 (0-2). The other links can carry at most 2, so R9C5 needs at least 1, and the other links already carry at least 2, so R9C5 can take at most 1 → exactly 1 bridge.
- 30/39The 4 at R9C5 needs 4 bridges. Its possible links (bridges allowed): R7C5 (0-2), R9C1 (1), R9C8 (0-2). The other links can carry at most 3, so R7C5 needs at least 1; the other links can carry at most 3, so R9C8 needs at least 1.
- 31/39There is already a bridge on R7C5–R9C5. Bridges can't cross, so R8C3–R8C6 is now impossible.
- 32/39The 1 at R8C3 needs 1 bridge. Its possible links (bridges allowed): R4C3 (0-1). It has no other link, so R4C3 must carry it → exactly 1 bridge.
- 33/39The 2 at R4C3 needs 2 bridges. Its possible links (bridges allowed): R4C5 (1-2), R8C3 (1). The other links already carry at least 1, so R4C5 can take at most 1 → exactly 1 bridge.
- 34/39The 4 at R4C5 needs 4 bridges. Its possible links (bridges allowed): R4C3 (1), R4C7 (1), R7C5 (1-2). The other links can carry at most 2, so R7C5 needs at least 2 → exactly 2 bridges.
- 35/39The 3 at R7C5 needs 3 bridges. Its possible links (bridges allowed): R4C5 (2), R7C8 (0-1), R9C5 (1-2). The other links already carry at least 3, so R7C8 can take none; the other links already carry at least 2, so R9C5 can take at most 1 → exactly 1 bridge.
- 36/39The 2 at R7C8 needs 2 bridges. Its possible links (bridges allowed): R5C8 (1-2). It has no other link, so R5C8 must carry both → exactly 2 bridges.
- 37/39The 5 at R5C8 needs 5 bridges. Its possible links (bridges allowed): R3C8 (2), R5C6 (1-2), R7C8 (2). The other links already carry at least 4, so R5C6 can take at most 1 → exactly 1 bridge.
- 38/39The 2 at R5C6 needs 2 bridges. Its possible links (bridges allowed): R5C8 (1), R8C6 (0-1). The other links can carry at most 1, so R8C6 needs at least 1 → exactly 1 bridge.
- 39/39The 4 at R9C5 needs 4 bridges. Its possible links (bridges allowed): R7C5 (1), R9C1 (1), R9C8 (1-2). The other links can carry at most 2, so R9C8 needs at least 2 → exactly 2 bridges. ✅ Solved!
Hashi Hard answer as text
How to Solve Everyday Grids Hashi: Quick Tips
- Islands with few neighbours are easiest: a 4 with two neighbours needs two bridges to each.
- Two 1-islands can't connect to each other, they would be cut off from the rest.
- Bridges never cross, so a placed bridge blocks every crossing link.
- Everything must join into one group, so never close off a small set of islands.