diff --git a/ch04.asciidoc b/ch04.asciidoc index fa324132..aa58c6c8 100644 --- a/ch04.asciidoc +++ b/ch04.asciidoc @@ -473,7 +473,7 @@ include::code/key-to-address-ecc-example.py[] ---- ==== -Here's the output from running this code: +<> shows the output from running this code. [[key-to-address_script_run]] .Running key-to-address-ecc-example.py @@ -507,10 +507,10 @@ Compressed Bitcoin Address (b58check) is: ==== -Here's another example, using the Python ECDSA library for the Elliptic Curve math and without using any specialized bitcoin libraries: +<> is another example, using the Python ECDSA library for the elliptic curve math and without using any specialized bitcoin libraries. [[ec_math]] -.A script demonstrating Elliptic Curve math used for bitcoin keys +.A script demonstrating elliptic curve math used for bitcoin keys ==== [source, python] ---- @@ -518,7 +518,7 @@ include::code/ec-math.py[] ---- ==== -Running the script: +<> shows the output produced by running this script. [[ec_math_run]] .Installing the Python ECDSA library and running the ec_math.py script @@ -545,7 +545,7 @@ Another method for making keys is _deterministic key generation_. Here you deriv [TIP] ==== -Wallets contain keys, not coins. The coins are stored on the blockchain in the form of transaction-outputs (often noted as _vout_ or _txout_). Each user has a wallet containing keys. Wallets are really keychains containing pairs of private/public keys (See XREF-public_key]). Users sign transactions with the keys, thereby proving they own the transaction outputs (their coins). +Wallets contain keys, not coins. The coins are stored on the blockchain in the form of transaction-outputs (often noted as _vout_ or _txout_). Each user has a wallet containing keys. Wallets are really keychains containing pairs of private/public keys (see XREF-public_key]). Users sign transactions with the keys, thereby proving they own the transaction outputs (their coins). ==== [[random_wallet]]