Turn the letters inside English words into alphabet positions. The output is a simple, one-way visual encoding with punctuation preserved—not a calculator or natural-language number parser.
Alphabet positions will appear here...
These samples are generated by the current production function and expose capitalization, spaces, punctuation, existing digits, and non-ASCII boundaries.
English
Hello World
Translation
8 5 12 12 15 23 15 18 12 4
Hello World encoded as ten alphabet positions
English
ABC xyz
Translation
1 2 3 24 25 26
Uppercase ABC and lowercase xyz mapped to the same alphabet scale
English
Code-42!
Translation
3 15 4 5-42!
Letters encoded while the hyphen, digits, and exclamation mark remain
English
café
Translation
3 1 6é
ASCII caf encoded while accented é passes through
English
Twenty one
Translation
20 23 5 14 20 25 15 14 5
Number words encoded letter by letter instead of evaluated as twenty-one
English
A B
Translation
1 2
Two one-letter words producing the same visible spacing as adjacent codes
| Input | Example | Output Behavior |
|---|---|---|
| ASCII letter | C | Maps to 3 |
| Existing digit | 7 | Remains 7 |
| Punctuation | - | Remains - |
| Accented letter | é | Remains é |
The converter handles each character class according to a simple and reviewable rule.
Similar-sounding requests can require completely different tools and outputs.
| Task | Input Example | Expected Result |
|---|---|---|
| A1Z26 encoding | one | 15 14 5 |
| Number-word parsing | one | 1 |
| Counting letters | one | 3 |
Encode a few short words and ask learners to verify values using a written alphabet. This reinforces letter order without pretending that the page performs arithmetic or language translation.

Replace source word spaces with a slash before encoding, then state that convention in the clue. Clear grouping makes a later manual decode less ambiguous.

Combine letters, existing digits, punctuation, emoji, and an accented word to see exactly what changes. The output provides a compact demonstration of an ASCII-only regular expression.

Enter twenty one here and compare its letter sequence with the numeric value 21 produced by a calculator or dedicated parser. They solve different problems and should not be substituted for each other.

Every capability follows from a small deterministic alphabet lookup rather than a hidden linguistic or mathematical model.
Basic Latin letters map to integer positions from one through twenty-six, with no separate values for letter case.
Hyphens, commas, sentence marks, existing numerals, emoji, and unmatched characters stay at their source positions.
Accented and non-Latin characters pass through instead of being silently assigned invented alphabet positions.
The interface avoids suggesting exact recovery when case and original word-boundary information have been discarded.
These answers distinguish alphabet-position encoding from number parsing, calculation, and secure cryptography.
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Use the encoder as a disclosed letter-mapping exercise and retain word separators explicitly when a puzzle needs to be decoded later.
Start with a short A-Z phrase and decide how you will represent word breaks. Slash marks or another documented delimiter can prevent ordinary spaces from becoming ambiguous.
Run the page and verify a few values against the alphabet, such as A=1, M=13, and Z=26. Case is intentionally discarded during this lookup.
Save the original message and explain the scheme when sharing a puzzle. A1Z26 is a familiar encoding pattern, not encryption or protection for sensitive information.
Use a short sample, preserve word boundaries deliberately, and keep the plain source alongside the code.