Files
hectorqinandClaude Opus 5.5 415a9f5dd3 chore: drop CNB config; Android package is com.htmake.readerpro
- Remove .cnb.yml and CNB references in the Dockerfile and Compose file; the
  Compose default image is hectorqin/reader-pro:latest.
- Rename the Android applicationId/namespace and Kotlin package from
  cool.cnb.reader to com.htmake.readerpro (shortcuts, ProGuard, shell check).
  Installs under the old package are a different app and are not migrated.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-30 02:03:45 +00:00

146 lines
7.0 KiB
Bash
Executable File

#!/bin/sh
# Static checks on the Android shell that do not need a JDK or the Android SDK.
#
# CI compiles the shell for real, but that job needs a large SDK image and takes
# minutes. This runs in a second, so a typo in a package declaration or a bridge
# method that the web client calls but the shell does not expose is caught before
# anyone waits for a build — which matters more than usual here, because the two
# halves of the bridge are written in different languages and cannot be
# type-checked against each other.
set -eu
script_dir=$(CDPATH= cd -- "$(dirname -- "$0")" && pwd)
android_dir=$(dirname -- "$script_dir")
repo_dir=$(dirname -- "$android_dir")
fail=0
note() { printf '%s\n' "$1"; }
err() { printf 'FAIL: %s\n' "$1" >&2; fail=1; }
# 1. Package declaration must match the file's directory under src/main/java.
note "==> checking package declarations match directory layout"
for file in $(find "$android_dir/app/src" -name '*.kt'); do
pkg=$(sed -n 's/^package \(.*\)$/\1/p' "$file" | head -1)
# Any source set (main, test, androidTest): the package is the path under its java/.
rel=${file#"$android_dir"/app/src/*/java/}
expected=$(dirname "$rel" | tr '/' '.')
if [ "$pkg" != "$expected" ]; then
err "$file declares '$pkg' but lives in '$expected'"
fi
done
# 2. Every import of our own code must resolve to a file that exists.
note "==> checking project imports resolve"
for file in $(find "$android_dir/app/src" -name '*.kt'); do
sed -n 's/^import com\.htmake\.readerpro\.\(.*\)$/\1/p' "$file" | while read -r symbol; do
# `BuildConfig` is generated, and a class name is the last dot segment.
case "$symbol" in
BuildConfig) continue ;;
esac
path="$android_dir/app/src/main/java/com/htmake/readerpro/$(printf '%s' "$symbol" | tr '.' '/').kt"
if [ ! -f "$path" ]; then
err "$file imports com.htmake.readerpro.$symbol but $path does not exist"
fi
done
done
# 3. Every bridge method the web client calls must exist, and every bridge method
# the shell exposes must be declared. This is the cross-language seam.
#
# There are two interfaces, not one. `ReaderAndroid` is the top-level object;
# `SpeechBridge` is registered as a *separate* interface on the platform side
# (`addJavascriptInterface` can expose objects, not properties of one) and the
# web layer re-parents it onto `ReaderAndroid.speech`. So the check walks both
# declarations against both implementations — comparing the nested interface's
# methods against `ReaderBridge.kt` is what produced eleven false failures the
# first time this was run.
note "==> checking the JS bridge contract in both directions"
bridge_file="$android_dir/app/src/main/java/com/htmake/readerpro/bridge/ReaderBridge.kt"
speech_file="$android_dir/app/src/main/java/com/htmake/readerpro/bridge/SpeechBridge.kt"
types_file="$repo_dir/web/src/android-bridge.d.ts"
# A method is "implemented" if either bridge class exposes it to the page: a
# method-level `fun` directly under `@JavascriptInterface`. Both files are searched
# for both interfaces: the Kotlin class a method happens to live in is an
# implementation detail, not part of the contract. A `fun` without the annotation
# is Kotlin-only (SpeechBridge.interruptForMedia is called by the media bridge,
# never by the page), and the page cannot call it, so declaring it would be wrong.
implemented=$(awk '
/^ fun [A-Za-z][A-Za-z0-9_]*\(/ && exposed { name = $2; sub(/\(.*/, "", name); print name }
NF { exposed = ($0 ~ /^[[:space:]]*@JavascriptInterface[[:space:]]*$/) }
' "$bridge_file" "$speech_file" | sort -u)
# The declaration side has two shapes, and the difference matters:
#
# - top-level members are `name(args): type;` inside `interface AndroidBridge`;
# - `speech` is a *property* whose type is a nested interface, and the nested
# interface's own methods are the second shape.
#
# Reading only the first shape is what let the speech methods go unchecked; reading
# only the second is what made an early version of this check fail on every
# ordinary method of the first.
declared_top=$(sed -n 's/^ \([a-z][A-Za-z0-9_]*\)[?]\{0,1\}(.*/\1/p' "$types_file" | sort -u)
# The nested interface's members, delimited by its own declaration.
nested_block=$(sed -n '/^export interface SpeechBridge {/,/^}/p' "$types_file")
declared_nested=$(printf '%s\n' "$nested_block" | sed -n 's/^ \([a-z][A-Za-z0-9_]*\)[?]\{0,1\}(.*/\1/p' | sort -u)
for method in $declared_top $declared_nested; do
if ! printf '%s\n' "$implemented" | grep -qx "$method"; then
err "android-bridge.d.ts declares $method() but no bridge class implements it"
fi
done
# The nested interface must be exposed, or the re-parenting in
# `promoteSpeechInterface` would attach nothing at runtime.
if printf '%s\n' "$declared_top" | grep -qx "speech"; then
if ! grep -q '^ fun speech()' "$bridge_file"; then
err "android-bridge.d.ts declares ReaderAndroid.speech but ReaderBridge.kt does not expose it"
fi
fi
# Every implemented method must also be declared, or the next person writing
# client code will not know it is available. `speech()` is the exception: it is
# declared as the nested interface's name, not as a method returning one.
for method in $implemented; do
[ "$method" = "speech" ] && continue
if ! printf '%s\n%s\n' "$declared_top" "$declared_nested" | grep -qx "$method"; then
err "a bridge class implements $method() but android-bridge.d.ts does not declare it"
fi
done
# 4. The render-mode split has to agree with itself across three languages.
#
# The whole "EPUB in the WebView, fixed pages natively" decision rests on the
# client labelling a page as `image`/`document`/`reflowable` and the shell
# accepting exactly the ones it can draw. Nothing type-checks that, and a
# mismatch fails in the worst way: every page silently falls back to the slow
# path, or a page is handed to a view that cannot decode it.
note "==> checking the render-mode vocabulary matches"
web_modes=$(sed -n "s/^export type RenderMode = \(.*\);/\1/p" "$repo_dir/web/src/formats/types.ts" \
| tr -d "'" | tr -d ' ' | tr '|' '\n' | sort -u)
shell_modes=$(sed -n 's/.*mode != "\([a-z]*\)".*/\1/p' \
"$android_dir/app/src/main/java/com/htmake/readerpro/bridge/ReaderBridge.kt" | sort -u)
if [ -z "$web_modes" ]; then
err "cannot read RenderMode from web/src/formats/types.ts"
fi
for mode in $shell_modes; do
if ! printf '%s\n' "$web_modes" | grep -qx "$mode"; then
err "ReaderBridge.kt branches on render mode '$mode' which RenderMode does not define"
fi
done
# The shell draws images natively, so it must know the client's image vocabulary.
decodable=$(sed -n '/private val DECODABLE = setOf(/,/)/p' \
"$android_dir/app/src/main/java/com/htmake/readerpro/web/NativePageView.kt" \
| sed -n 's/.*"\(image\/[a-z]*\)".*/\1/p' | sort -u)
for mediaType in "image/jpeg" "image/png" "image/webp"; do
if ! printf '%s\n' "$decodable" | grep -qx "$mediaType"; then
err "NativePageView cannot decode $mediaType, which the client routinely produces"
fi
done
if [ "$fail" -ne 0 ]; then
note "==> shell checks failed"
exit 1
fi
note "==> shell checks passed"