Mapping out correct digits
I'm analyzing the puzzle to identify the correct code, noting each guess has exactly 2 accurate digits in non-adjacent positions. This ensures a unique solution.
Ensuring distinct digits
I’m pulling together a plan to ensure no duplicate digits and identify the correct non-adjacent digits for each guess, leading to a unique 6-digit code.
Isolating digit patterns
I’m isolating digits from each guess to identify patterns. Repeated digits in consistent positions across guesses could be critical clues, helping pinpoint the correct code positions.
Spotting digit repeats
Noticing digit "1" appears twice in position 3, reveals interesting potential for it to be correct in both guesses A and C, pointing towards a possible solution.
Piecing together correct positions
OK, I’m thinking each digit's position is right once among the guesses. This method ensures two accurate digits for each guess while keeping non-adjacent constraints intact.
Mapping digits
I'm working through each digit's positions to ensure no duplicates and track their correct alignment across guesses, assuming each position is accurately guessed once.
Piecing together matrix
I'm crafting a matrix with guesses as columns, aiming to pinpoint one accurate digit per column, while ensuring each guess has two correct digits in non-adjacent positions.
Mapping non-adjacent selections
I’m identifying possible ways to partition 6 positions into 3 non-adjacent pairs for guesses A, B, and C, ensuring each has 2 correct digits. This leads to viable code configurations.
Ensuring completeness
I’m covering all positions with three distinct non-adjacent pairs, ensuring each guess has two correct digits. This method guarantees a thorough and systematic approach.
Examining partition options
Analyzing different partitions to ensure each guess has two correct digits in non-adjacent positions, I find the valid partition: (1,3), (2,5), (4,6).
Piecing together valid partitions
I’m pinpointing partitions with non-adjacent pairs for guesses A, B, and C. Valid partitions include (1,4), (2,5), (3,6) and (1,5), (2,4), (3,6). Progress is evident.
Finalizing partitions
I’m working through partitions with non-adjacent pairs for guesses A, B, and C. Valid partitions identified include (1,6), (2,4), (3,5) and (1,6), (2,5), (3,4).
Mapping the partition puzzle
I’m piecing together five partitions for guesses A, B, and C, each with non-adjacent pairs. The goal is to assign these pairs consistently to validate each guess's constraints.
Assigning pairs
I’m systematically assigning pairs from each partition to guesses A, B, and C, ensuring each guess has two correct digits in non-adjacent positions, and each digit is distinct.
Trying new ways
I’m testing different pair assignments to A, B, and C. Ensuring unique digits for each code position, I’m verifying if any configuration meets the constraints without duplication or conflicts.
Ensuring digit uniqueness
Cross-referencing permutations to confirm no repeating digits. The valid code sequence found is 5 9 7 8 3 6.
Confirming accuracy
I’m cross-checking the valid code sequence against guesses A and B. Each guess aligns with two correct, non-adjacent digits in the specific positions, ensuring consistency and accuracy.
Confirming alignment
I’m verifying the valid code sequence against guesses A, B, and C. Each guess has two correct digits in non-adjacent positions, ensuring the code fits all constraints.
Pulled together permutations
I’m pulling together permutations of partition #1 to spot the correct code. Progress is evident in matching constraints and ensuring each guess has two non-adjacent correct digits.
Assessing permutation validity
I’m testing various permutations to ensure no digit repeats and each guess has two correct digits in non-adjacent positions. Only one permutation meets all criteria.
Testing permutations
I’m digging into permutations of partition #2, ensuring no repeating digits and meeting all constraints. Each guess must have two non-adjacent, correct digits.
Trying permutations
I’m testing permutations of partition #3, ensuring no repeated digits and all constraints are met. Each guess needs two non-adjacent, correct digits. Progress is becoming clearer.
Testing partition permutations
I’m trying permutations of partition #4 to ensure no digit repetitions and validate all constraints. Each guess should have two non-adjacent, correct digits.
Ensuring code validity
I’m piecing together permutations of partition #4 to confirm no digit repetitions and validate constraints. The valid code sequence 5 9 1 7 8 6 checks out for all guesses.
Pinpointing errors
I’m examining the valid code sequence against guesses A, B, and C. Each guess has two correct digits in non-adjacent positions, but I’m realizing that the solution still needs refinement.
Evaluating permutations
I’m examining permutations of partition #5 to ensure no digit repetitions and validate all constraints. Progress is evident in meeting the requirement of two non-adjacent, correct digits for each guess.
Testing configurations
I’m trying permutations of partition #5 to ensure no digit repetitions and validate constraints. The code 5 2 1 8 3 4 meets all requirements.
Confirming accuracy
I’m mapping out the code sequence against guesses A, B, and C. Each guess aligns with two correct digits in non-adjacent positions, meeting all constraints and ensuring a unique solution.
Finalizing permutations
I’m working through permutations of partition #6, ensuring no digit repeats and all constraints are met. Each guess should have two non-adjacent, correct digits for a valid code sequence.
Thought about密码推理게임,持续 1m 13s