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import java.util.*;
import java.util.zip.*;
import java.util.List;
import java.util.regex.*;
import java.util.concurrent.*;
import java.util.concurrent.atomic.*;
import java.util.concurrent.locks.*;
import java.util.function.*;
import javax.swing.*;
import javax.swing.event.*;
import javax.swing.text.*;
import javax.swing.table.*;
import java.io.*;
import java.net.*;
import java.lang.reflect.*;
import java.lang.ref.*;
import java.lang.management.*;
import java.security.*;
import java.security.spec.*;
import java.awt.*;
import java.awt.event.*;
import java.awt.image.*;
import java.awt.geom.*;
import javax.imageio.*;
import java.math.*;
import java.time.Duration;
import java.lang.invoke.VarHandle;
import java.lang.invoke.MethodHandles;
import static x30_pkg.x30_util.DynamicObject;
import java.awt.geom.*;
import java.text.*;
import java.text.NumberFormat;
import java.util.TimeZone;
class main {
abstract static class AbstractSSIList extends NotifyingList implements StringIO {
AbstractSSIList() { init(); }
AbstractSSIList(Collection extends AbstractSSI> l) { initAndAddAll(importSSIs(l)); }
List importSSIs(Collection extends AbstractSSI> l) {
return map(__18 -> importSSI(__18), l);
}
abstract MySSI importSSI(AbstractSSI ssi);
BufferedImage render(WidthAndHeight size) {
return renderAll(this, size);
}
BufferedImage render(BufferedImage canvas) {
return renderAll(this, canvas);
}
BufferedImage renderOutlines(WidthAndHeight size) {
return toSSIList().renderOutlines(size);
}
SSIList toSSIList() {
return new SSIList(map(this, __1 -> __1.toSSI()));
}
public void readWrite(StringHead head) {
head.exchangeAll(this);
}
List vectorSSIs() { return instancesOf(VectorSSI.class, this); }
final List literalSSIs(){ return directSSIs(); }
List directSSIs() { return instancesOf(SSI.class, this); }
Percent percentageVectorized() {
return Percent.ratio(l(vectorSSIs()), l(this));
}
}
static List map(Iterable l, Object f) { return map(f, l); }
static List map(Object f, Iterable l) {
List x = emptyList(l);
if (l != null) for (Object o : l)
{ ping(); x.add(callF(f, o)); }
return x;
}
// map: func(key, value) -> list element
static List map(Map map, Object f) {
List x = new ArrayList();
if (map != null) for (Object _e : map.entrySet()) { ping();
Map.Entry e = (Map.Entry) _e;
x.add(callF(f, e.getKey(), e.getValue()));
}
return x;
}
static List map(Object f, Object[] l) { return map(f, asList(l)); }
static List map(Object[] l, Object f) { return map(f, l); }
static List map(Object f, Map map) {
return map(map, f);
}
static List map(Iterable l, F1 f) { return map(f, l); }
static List map(F1 f, Iterable l) {
List x = emptyList(l);
if (l != null) for (A o : l)
{ ping(); x.add(callF(f, o)); }
return x;
}
static List map(IF1 f, Iterable l) { return map(l, f); }
static List map(Iterable l, IF1 f) {
List x = emptyList(l);
if (l != null) for (A o : l)
{ ping(); x.add(f.get(o)); }
return x;
}
static List map(IF1 f, A[] l) { return map(l, f); }
static List map(A[] l, IF1 f) {
List x = emptyList(l);
if (l != null) for (A o : l)
{ ping(); x.add(f.get(o)); }
return x;
}
static List map(Map map, IF2 f) {
List x = new ArrayList();
if (map != null) for (Map.Entry e : map.entrySet()) { ping();
x.add(f.get(e.getKey(), e.getValue()));
}
return x;
}
// new magic alias for mapLL - does it conflict?
static List map(IF1 f, A data1, A... moreData) {
List x = emptyList(l(moreData)+1);
x.add(f.get(data1));
if (moreData != null) for (A o : moreData)
{ ping(); x.add(f.get(o)); }
return x;
}
static BufferedImage render(WidthAndHeight size, G2Drawable drawable) {
return drawableToImage(size, drawable);
}
static BufferedImage renderAll(int w, int h, Iterable extends G2Drawable> drawables) {
return renderAll(drawables, whiteImage(w, h));
}
static BufferedImage renderAll(Iterable extends G2Drawable> drawables, BufferedImage canvas) {
for (var d : unnullForIteration(drawables)) { if (d != null) d.drawOn(canvas); }
return canvas;
}
static BufferedImage renderAll(Iterable extends G2Drawable> drawables, WidthAndHeight size) {
return renderAll(size.w(), size.h(), drawables);
}
static List instancesOf(Iterable i, Class c) {
return collectInstances(i, c);
}
static List instancesOf(Class c, Iterable i) {
return collectInstances(c, i);
}
static int l(Object[] a) { return a == null ? 0 : a.length; }
static int l(boolean[] a) { return a == null ? 0 : a.length; }
static int l(byte[] a) { return a == null ? 0 : a.length; }
static int l(short[] a) { return a == null ? 0 : a.length; }
static int l(long[] a) { return a == null ? 0 : a.length; }
static int l(int[] a) { return a == null ? 0 : a.length; }
static int l(float[] a) { return a == null ? 0 : a.length; }
static int l(double[] a) { return a == null ? 0 : a.length; }
static int l(char[] a) { return a == null ? 0 : a.length; }
static int l(Collection c) { return c == null ? 0 : c.size(); }
static int l(Iterator i) { return iteratorCount_int_close(i); } // consumes the iterator && closes it if possible
static int l(Map m) { return m == null ? 0 : m.size(); }
static int l(CharSequence s) { return s == null ? 0 : s.length(); }
static long l(File f) { return f == null ? 0 : f.length(); }
static int l(IMultiMap mm) { return mm == null ? 0 : mm.size(); }
static int l(IntRange r) { return r == null ? 0 : r.length(); }
static double l(DoubleRange r) { return r == null ? 0 : r.length(); }
static int l(IntBuffer b) { return b == null ? 0 : b.size(); }
static int l(IntSize o) { return o == null ? 0 : o.size(); }
static ArrayList emptyList() {
return new ArrayList();
//ret Collections.emptyList();
}
static ArrayList emptyList(int capacity) {
return new ArrayList(max(0, capacity));
}
// Try to match capacity
static ArrayList emptyList(Iterable l) {
return l instanceof Collection ? emptyList(((Collection) l).size()) : emptyList();
}
static ArrayList emptyList(Object[] l) {
return emptyList(l(l));
}
// get correct type at once
static ArrayList emptyList(Class c) {
return new ArrayList();
}
// legacy mode
//sbool ping_actions_shareable = true;
static volatile boolean ping_pauseAll = false;
static int ping_sleep = 100; // poll pauseAll flag every 100
static volatile boolean ping_anyActions = false;
static Map ping_actions = newWeakHashMap();
static ThreadLocal ping_isCleanUpThread = new ThreadLocal();
// ignore pingSource if not PingV3
static boolean ping(PingSource pingSource) { return ping(); }
// always returns true
static boolean ping() {
//ifdef useNewPing
newPing();
//endifdef
if (ping_pauseAll || ping_anyActions) ping_impl(true /* XXX */);
//ifndef LeanMode ping_impl(); endifndef
return true;
}
// returns true when it slept
static boolean ping_impl(boolean okInCleanUp) { try {
if (ping_pauseAll && !isAWTThread()) {
do
Thread.sleep(ping_sleep);
while (ping_pauseAll);
return true;
}
if (ping_anyActions) { // don't allow sharing ping_actions
if (!okInCleanUp && !isTrue(ping_isCleanUpThread.get()))
failIfUnlicensed();
Object action = null;
synchronized(ping_actions) {
if (!ping_actions.isEmpty()) {
action = ping_actions.get(currentThread());
if (action instanceof Runnable)
ping_actions.remove(currentThread());
if (ping_actions.isEmpty()) ping_anyActions = false;
}
}
if (action instanceof Runnable)
((Runnable) action).run();
else if (eq(action, "cancelled"))
throw fail("Thread cancelled.");
}
return false;
} catch (Exception __e) { throw rethrow(__e); } }
static Map> callF_cache = newDangerousWeakHashMap();
static A callF(F0 f) {
return f == null ? null : f.get();
}
static B callF(F1 f, A a) {
return f == null ? null : f.get(a);
}
static A callF(IF0 f) {
return f == null ? null : f.get();
}
static B callF(IF1 f, A a) {
return f == null ? null : f.get(a);
}
static B callF(A a, IF1 f) {
return f == null ? null : f.get(a);
}
static C callF(IF2 f, A a, B b) {
return f == null ? null : f.get(a, b);
}
static void callF(VF1 f, A a) {
if (f != null) f.get(a);
}
static void callF(A a, IVF1 f) {
if (f != null) f.get(a);
}
static void callF(IVF1 f, A a) {
if (f != null) f.get(a);
}
static Object callF(Runnable r) { { if (r != null) r.run(); } return null; }
static Object callF(Object f, Object... args) {
return safeCallF(f, args);
}
static Object safeCallF(Object f, Object... args) {
if (f instanceof Runnable) {
((Runnable) f).run();
return null;
}
if (f == null) return null;
Class c = f.getClass();
ArrayList methods;
synchronized(callF_cache) {
methods = callF_cache.get(c);
if (methods == null)
methods = callF_makeCache(c);
}
int n = l(methods);
if (n == 0) {
if (f instanceof String)
throw fail("Legacy call: " + f);
throw fail("No get method in " + getClassName(c));
}
if (n == 1) return invokeMethod(methods.get(0), f, args);
for (int i = 0; i < n; i++) {
Method m = methods.get(i);
if (call_checkArgs(m, args, false))
return invokeMethod(m, f, args);
}
throw fail("No matching get method in " + getClassName(c));
}
// used internally
static ArrayList callF_makeCache(Class c) {
ArrayList l = new ArrayList();
Class _c = c;
do {
for (Method m : _c.getDeclaredMethods())
if (m.getName().equals("get")) {
makeAccessible(m);
l.add(m);
}
if (!l.isEmpty()) break;
_c = _c.getSuperclass();
} while (_c != null);
callF_cache.put(c, l);
return l;
}
// unclear semantics as to whether return null on null
static ArrayList asList(A[] a) {
return a == null ? new ArrayList () : new ArrayList (Arrays.asList(a));
}
static ArrayList asList(int[] a) {
if (a == null) return null;
ArrayList l = emptyList(a.length);
for (int i : a) l.add(i);
return l;
}
static ArrayList asList(long[] a) {
if (a == null) return null;
ArrayList l = emptyList(a.length);
for (long i : a) l.add(i);
return l;
}
static ArrayList asList(float[] a) {
if (a == null) return null;
ArrayList l = emptyList(a.length);
for (float i : a) l.add(i);
return l;
}
static ArrayList asList(double[] a) {
if (a == null) return null;
ArrayList l = emptyList(a.length);
for (double i : a) l.add(i);
return l;
}
static ArrayList asList(short[] a) {
if (a == null) return null;
ArrayList l = emptyList(a.length);
for (short i : a) l.add(i);
return l;
}
static ArrayList asList(Iterator it) {
ArrayList l = new ArrayList();
if (it != null)
while (it.hasNext())
l.add(it.next());
return l;
}
// disambiguation
static ArrayList asList(IterableIterator s) {
return asList((Iterator) s);
}
static ArrayList asList(Iterable s) {
if (s instanceof ArrayList) return (ArrayList) s;
ArrayList l = new ArrayList();
if (s != null)
for (A a : s)
l.add(a);
return l;
}
static ArrayList asList(Producer p) {
ArrayList l = new ArrayList();
A a;
if (p != null) while ((a = p.next()) != null)
l.add(a);
return l;
}
static ArrayList asList(Enumeration e) {
ArrayList l = new ArrayList();
if (e != null)
while (e.hasMoreElements())
l.add(e.nextElement());
return l;
}
static ArrayList asList(ReverseChain c) {
return c == null ? emptyList() : c.toList();
}
static List asList(Pair p) {
return p == null ? null : ll(p.a, p.b);
}
static BufferedImage drawableToImage(WidthAndHeight size, G2Drawable drawable) {
var img = whiteImage(size);
{ if (drawable != null) drawable.drawOn(img); }
return img;
}
static BufferedImage whiteImage(int w, int h) {
return newBufferedImage(w, h, Color.white);
}
static BufferedImage whiteImage(int size) {
return whiteImage(size, size);
}
static BufferedImage whiteImage(WidthAndHeight size) {
return whiteImage(size.getWidth(), size.getHeight());
}
static String unnullForIteration(String s) {
return s == null ? "" : s;
}
static Collection unnullForIteration(Collection l) {
return l == null ? immutableEmptyList() : l;
}
static List unnullForIteration(List l) { return l == null ? immutableEmptyList() : l; }
static byte[] unnullForIteration(byte[] l) { return l == null ? emptyByteArray() : l; }
static int[] unnullForIteration(int[] l) { return l == null ? emptyIntArray() : l; }
static char[] unnullForIteration(char[] l) { return l == null ? emptyCharArray() : l; }
static double[] unnullForIteration(double[] l) { return l == null ? emptyDoubleArray() : l; }
static short[] unnullForIteration(short[] l) { return l == null ? emptyShortArray() : l; }
static Map unnullForIteration(Map l) {
return l == null ? immutableEmptyMap() : l;
}
static Iterable unnullForIteration(Iterable i) {
return i == null ? immutableEmptyList() : i;
}
static A[] unnullForIteration(A[] a) {
return a == null ? (A[]) emptyObjectArray() : a;
}
static BitSet unnullForIteration(BitSet b) {
return b == null ? new BitSet() : b;
}
static Pt unnullForIteration(Pt p) {
return p == null ? new Pt() : p;
}
//ifclass Symbol
static Symbol unnullForIteration(Symbol s) {
return s == null ? emptySymbol() : s;
}
//endif
static Pair unnullForIteration(Pair p) {
return p != null ? p : new Pair(null, null);
}
static long unnullForIteration(Long l) { return l == null ? 0L : l; }
static List collectInstances(Iterable i, Class c) {
List l = new ArrayList();
if (i == null) return l;
c = primitiveToBoxedTypeOpt(c);
for (Object o : i)
if (isInstance(c, o))
l.add(o);
return l;
}
static List collectInstances(Class c, Iterable i) {
return collectInstances(i, c);
}
static int iteratorCount_int_close(Iterator i) { try {
int n = 0;
if (i != null) while (i.hasNext()) { i.next(); ++n; }
if (i instanceof AutoCloseable) ((AutoCloseable) i).close();
return n;
} catch (Exception __e) { throw rethrow(__e); } }
static int max(int a, int b) { return Math.max(a, b); }
static int max(int a, int b, int c) { return max(max(a, b), c); }
static long max(int a, long b) { return Math.max((long) a, b); }
static long max(long a, long b) { return Math.max(a, b); }
static double max(int a, double b) { return Math.max((double) a, b); }
static float max(float a, float b) { return Math.max(a, b); }
static double max(double a, double b) { return Math.max(a, b); }
static > A max (Iterable l) {
A max = null;
var it = iterator(l);
if (it.hasNext()) {
max = it.next();
while (it.hasNext()) {
A a = it.next();
if (cmp(a, max) > 0)
max = a;
}
}
return max;
}
/*Nah.
static int max(Collection c) {
int x = Integer.MIN_VALUE;
for (int i : c) x = max(x, i);
ret x;
}*/
static double max(double[] c) {
if (c.length == 0) return Double.MIN_VALUE;
double x = c[0];
for (int i = 1; i < c.length; i++) x = Math.max(x, c[i]);
return x;
}
static float max(float[] c) {
if (c.length == 0) return Float.MAX_VALUE;
float x = c[0];
for (int i = 1; i < c.length; i++) x = Math.max(x, c[i]);
return x;
}
static byte max(byte[] c) {
byte x = -128;
for (byte d : c) if (d > x) x = d;
return x;
}
static short max(short[] c) {
short x = -0x8000;
for (short d : c) if (d > x) x = d;
return x;
}
static int max(int[] c) {
int x = Integer.MIN_VALUE;
for (int d : c) if (d > x) x = d;
return x;
}
static > A max(A a, A b) {
return cmp(a, b) >= 0 ? a : b;
}
static Map newWeakHashMap() {
return _registerWeakMap(synchroMap(new WeakHashMap()));
}
static void newPing() {
var tl = newPing_actionTL();
Runnable action = tl == null ? null : tl.get();
{ if (action != null) action.run(); }
}
// TODO: test if android complains about this
static boolean isAWTThread() {
if (isAndroid()) return false;
if (isHeadless()) return false;
return isAWTThread_awt();
}
static boolean isAWTThread_awt() {
return SwingUtilities.isEventDispatchThread();
}
static boolean isTrue(Object o) {
if (o instanceof Boolean)
return ((Boolean) o).booleanValue();
if (o == null) return false;
if (o instanceof ThreadLocal) // TODO: remove this
return isTrue(((ThreadLocal) o).get());
throw fail(getClassName(o));
}
static boolean isTrue(Boolean b) {
return b != null && b.booleanValue();
}
static void failIfUnlicensed() {
assertTrue("license off", licensed());
}
static Thread currentThread() {
return Thread.currentThread();
}
static boolean eq(Object a, Object b) {
return a == b || a != null && b != null && a.equals(b);
}
// a little kludge for stuff like eq(symbol, "$X")
static boolean eq(Symbol a, String b) {
return eq(str(a), b);
}
static RuntimeException fail() { throw new RuntimeException("fail"); }
static RuntimeException fail(Throwable e) { throw asRuntimeException(e); }
static RuntimeException fail(Object msg) { throw new RuntimeException(String.valueOf(msg)); }
static RuntimeException fail(Object... objects) { throw new Fail(objects); }
static RuntimeException fail(String msg) { throw new RuntimeException(msg == null ? "" : msg); }
static RuntimeException fail(String msg, Throwable innerException) { throw new RuntimeException(msg, innerException); }
static RuntimeException rethrow(Throwable t) {
if (t instanceof Error)
_handleError((Error) t);
throw t instanceof RuntimeException ? (RuntimeException) t : new RuntimeException(t);
}
static RuntimeException rethrow(String msg, Throwable t) {
throw new RuntimeException(msg, t);
}
static Map newDangerousWeakHashMap() {
return _registerDangerousWeakMap(synchroMap(new WeakHashMap()));
}
// initFunction: voidfunc(Map) - is called initially, and after clearing the map
static Map newDangerousWeakHashMap(Object initFunction) {
return _registerDangerousWeakMap(synchroMap(new WeakHashMap()), initFunction);
}
static String getClassName(Object o) {
return o == null ? "null" : o instanceof Class ? ((Class) o).getName() : o.getClass().getName();
}
static Object invokeMethod(Method m, Object o, Object... args) { try {
try {
return m.invoke(o, args);
} catch (InvocationTargetException e) {
throw rethrow(getExceptionCause(e));
} catch (IllegalArgumentException e) {
throw new IllegalArgumentException(e.getMessage() + " - was calling: " + m + ", args: " + joinWithSpace(classNames(args)));
}
} catch (Exception __e) { throw rethrow(__e); } }
static boolean call_checkArgs(Method m, Object[] args, boolean debug) {
Class>[] types = m.getParameterTypes();
if (types.length != l(args)) {
if (debug)
print("Bad parameter length: " + args.length + " vs " + types.length);
return false;
}
for (int i = 0; i < types.length; i++) {
Object arg = args[i];
if (!(arg == null ? !types[i].isPrimitive()
: isInstanceX(types[i], arg))) {
if (debug)
print("Bad parameter " + i + ": " + arg + " vs " + types[i]);
return false;
}
}
return true;
}
static Field makeAccessible(Field f) {
try {
f.setAccessible(true);
} catch (Throwable e) {
// Note: The error reporting only works with Java VM option --illegal-access=deny
vmBus_send("makeAccessible_error", e, f);
}
return f;
}
static Method makeAccessible(Method m) {
try {
m.setAccessible(true);
} catch (Throwable e) {
vmBus_send("makeAccessible_error", e, m);
}
return m;
}
static Constructor makeAccessible(Constructor c) {
try {
c.setAccessible(true);
} catch (Throwable e) {
vmBus_send("makeAccessible_error", e, c);
}
return c;
}
static List ll(A... a) {
ArrayList l = new ArrayList(a.length);
if (a != null) for (A x : a) l.add(x);
return l;
}
// undefined color, seems to be all black in practice
// This is without alpha?
static BufferedImage newBufferedImage(int w, int h) {
return new BufferedImage(w, h, BufferedImage.TYPE_INT_RGB);
}
static BufferedImage newBufferedImage(int w, int h, RGB rgb) {
return newBufferedImage(w, h, rgb.getColor());
}
static BufferedImage newBufferedImage(int w, int h, Color color) {
BufferedImage img = newBufferedImage(w, h);
Graphics2D g = img.createGraphics();
g.setColor(or(color, Color.white));
g.fillRect(0, 0, w, h);
return img;
}
static BufferedImage newBufferedImage(Pt p, Color color) {
return newBufferedImage(p.x, p.y, color);
}
// This one is with alpha...
static BufferedImage newBufferedImage(int w, int h, int[] pixels) {
return intArrayToBufferedImage(pixels, w, h);
}
static List immutableEmptyList() {
return Collections.emptyList();
}
static byte[] emptyByteArray_a = new byte[0];
static byte[] emptyByteArray() { return emptyByteArray_a; }
static int[] emptyIntArray_a = new int[0];
static int[] emptyIntArray() { return emptyIntArray_a; }
static char[] emptyCharArray = new char[0];
static char[] emptyCharArray() { return emptyCharArray; }
static double[] emptyDoubleArray = new double[0];
static double[] emptyDoubleArray() { return emptyDoubleArray; }
static short[] emptyShortArray = new short[0];
static short[] emptyShortArray() { return emptyShortArray; }
static Map immutableEmptyMap() {
return Collections.emptyMap();
}
static Object[] emptyObjectArray_a = new Object[0];
static Object[] emptyObjectArray() { return emptyObjectArray_a; }
static Symbol emptySymbol_value;
static Symbol emptySymbol() {
if (emptySymbol_value == null) emptySymbol_value = symbol("");
return emptySymbol_value;
}
static Class primitiveToBoxedTypeOpt(Class type) {
return or(primitiveToBoxedType(type), type);
}
static boolean isInstance(Class type, Object arg) {
return type.isInstance(arg);
}
static Iterator iterator(Iterable c) {
return c == null ? emptyIterator() : c.iterator();
}
static int cmp(Number a, Number b) {
return a == null ? b == null ? 0 : -1 : cmp(a.doubleValue(), b.doubleValue());
}
static int cmp(double a, double b) {
return a < b ? -1 : a == b ? 0 : 1;
}
static int cmp(int a, int b) {
return a < b ? -1 : a == b ? 0 : 1;
}
static int cmp(long a, long b) {
return a < b ? -1 : a == b ? 0 : 1;
}
static int cmp(Object a, Object b) {
if (a == null) return b == null ? 0 : -1;
if (b == null) return 1;
return ((Comparable) a).compareTo(b);
}
static List _registerWeakMap_preList;
static A _registerWeakMap(A map) {
if (javax() == null) {
// We're in class init
if (_registerWeakMap_preList == null) _registerWeakMap_preList = synchroList();
_registerWeakMap_preList.add(map);
return map;
}
try {
call(javax(), "_registerWeakMap", map);
} catch (Throwable e) {
printException(e);
print("Upgrade JavaX!!");
}
return map;
}
static void _onLoad_registerWeakMap() {
assertNotNull(javax());
if (_registerWeakMap_preList == null) return;
for (Object o : _registerWeakMap_preList)
_registerWeakMap(o);
_registerWeakMap_preList = null;
}
static Map synchroMap() {
return synchroHashMap();
}
static Map synchroMap(Map map) {
return Collections.synchronizedMap(map);
}
static x30_pkg.x30_util.BetterThreadLocal newPing_actionTL;
static x30_pkg.x30_util.BetterThreadLocal newPing_actionTL() {
if (newPing_actionTL == null)
newPing_actionTL = vm_generalMap_getOrCreate("newPing_actionTL",
() -> {
Runnable value = (Runnable) (callF_gen(vm_generalMap_get("newPing_valueForNewThread")));
var tl = new x30_pkg.x30_util.BetterThreadLocal();
tl.set(value);
return tl;
});
return newPing_actionTL;
}
static int isAndroid_flag;
static boolean isAndroid() {
if (isAndroid_flag == 0)
isAndroid_flag = System.getProperty("java.vendor").toLowerCase().indexOf("android") >= 0 ? 1 : -1;
return isAndroid_flag > 0;
}
static Boolean isHeadless_cache;
static boolean isHeadless() {
if (isHeadless_cache != null) return isHeadless_cache;
if (isAndroid()) return isHeadless_cache = true;
if (GraphicsEnvironment.isHeadless()) return isHeadless_cache = true;
// Also check if AWT actually works.
// If DISPLAY variable is set but no X server up, this will notice.
try {
SwingUtilities.isEventDispatchThread();
return isHeadless_cache = false;
} catch (Throwable e) { return isHeadless_cache = true; }
}
static void assertTrue(Object o) {
if (!(eq(o, true) /*|| isTrue(pcallF(o))*/))
throw fail(str(o));
}
static boolean assertTrue(String msg, boolean b) {
if (!b)
throw fail(msg);
return b;
}
static boolean assertTrue(boolean b) {
if (!b)
throw fail("oops");
return b;
}
static volatile boolean licensed_yes = true;
static boolean licensed() {
if (!licensed_yes) return false;
ping_okInCleanUp();
return true;
}
static void licensed_off() {
licensed_yes = false;
}
static String str(Object o) {
return o == null ? "null" : o.toString();
}
static String str(char[] c) {
return new String(c);
}
static String str(char[] c, int offset, int count) {
return new String(c, offset, count);
}
static RuntimeException asRuntimeException(Throwable t) {
if (t instanceof Error)
_handleError((Error) t);
return t instanceof RuntimeException ? (RuntimeException) t : new RuntimeException(t);
}
static void _handleError(Error e) {
//call(javax(), '_handleError, e);
}
static List _registerDangerousWeakMap_preList;
static A _registerDangerousWeakMap(A map) {
return _registerDangerousWeakMap(map, null);
}
static A _registerDangerousWeakMap(A map, Object init) {
callF(init, map);
if (init instanceof String) {
final String f = (String) init;
init = new VF1() { public void get(Map map) { try { callMC(f, map) ; } catch (Exception __e) { throw rethrow(__e); } }
public String toString() { return "callMC(f, map)"; }};
}
if (javax() == null) {
// We're in class init
if (_registerDangerousWeakMap_preList == null) _registerDangerousWeakMap_preList = synchroList();
_registerDangerousWeakMap_preList.add(pair(map, init));
return map;
}
call(javax(), "_registerDangerousWeakMap", map, init);
return map;
}
static void _onLoad_registerDangerousWeakMap() {
assertNotNull(javax());
if (_registerDangerousWeakMap_preList == null) return;
for (Pair p : _registerDangerousWeakMap_preList)
_registerDangerousWeakMap(p.a, p.b);
_registerDangerousWeakMap_preList = null;
}
static Throwable getExceptionCause(Throwable e) {
Throwable c = e.getCause();
return c != null ? c : e;
}
static String joinWithSpace(Iterable c) {
return join(" ", c);
}
static String joinWithSpace(Object... c) {
return join(" ", c);
}
static List classNames(Collection l) {
return getClassNames(l);
}
static List classNames(Object[] l) {
return getClassNames(asList(l));
}
static volatile StringBuffer local_log = new StringBuffer(); // not redirected
static boolean printAlsoToSystemOut = true;
static volatile Appendable print_log = local_log; // might be redirected, e.g. to main bot
// in bytes - will cut to half that
static volatile int print_log_max = 1024*1024;
static volatile int local_log_max = 100*1024;
static boolean print_silent = false; // total mute if set
static Object print_byThread_lock = new Object();
static volatile ThreadLocal print_byThread; // special handling by thread - prefers F1
static volatile Object print_allThreads;
static volatile Object print_preprocess;
static void print() {
print("");
}
static A print(String s, A o) {
print(combinePrintParameters(s, o));
return o;
}
// slightly overblown signature to return original object...
static A print(A o) {
ping_okInCleanUp();
if (print_silent) return o;
String s = o + "\n";
print_noNewLine(s);
return o;
}
static void print_noNewLine(String s) {
try {
Object f = getThreadLocal(print_byThread_dontCreate());
if (f == null) f = print_allThreads;
if (f != null)
// We do need the general callF machinery here as print_byThread is sometimes shared between modules
if (isFalse(
f instanceof F1 ? ((F1) f).get(s) :
callF(f, s))) return;
} catch (Throwable e) {
System.out.println(getStackTrace(e));
}
print_raw(s);
}
static void print_raw(String s) {
if (print_preprocess != null) s = (String) callF(print_preprocess, s);
s = fixNewLines(s);
Appendable loc = local_log;
Appendable buf = print_log;
int loc_max = print_log_max;
if (buf != loc && buf != null) {
print_append(buf, s, print_log_max);
loc_max = local_log_max;
}
if (loc != null)
print_append(loc, s, loc_max);
if (printAlsoToSystemOut)
System.out.print(s);
vmBus_send("printed", mc(), s);
}
static void print_autoRotate() {
}
static boolean isInstanceX(Class type, Object arg) {
if (type == boolean.class) return arg instanceof Boolean;
if (type == int.class) return arg instanceof Integer;
if (type == long.class) return arg instanceof Long;
if (type == float.class) return arg instanceof Float;
if (type == short.class) return arg instanceof Short;
if (type == char.class) return arg instanceof Character;
if (type == byte.class) return arg instanceof Byte;
if (type == double.class) return arg instanceof Double;
return type.isInstance(arg);
}
static void vmBus_send(String msg, Object... args) {
Object arg = vmBus_wrapArgs(args);
pcallFAll_minimalExceptionHandling(vm_busListeners_live(), msg, arg);
pcallFAll_minimalExceptionHandling(vm_busListenersByMessage_live().get(msg), msg, arg);
}
static void vmBus_send(String msg) {
vmBus_send(msg, (Object) null);
}
static A or(A a, A b) {
return a != null ? a : b;
}
// from: https://stackoverflow.com/questions/14416107/int-array-to-bufferedimage
// pixels are RGB pixels
static BufferedImageWithMeta intArrayToBufferedImage(int[] pixels, int w) { return intArrayToBufferedImage(pixels, w, pixels.length/w); }
static BufferedImageWithMeta intArrayToBufferedImage(int[] pixels, int w, int h) {
int[] bitMasks = new int[]{0xFF0000, 0xFF00, 0xFF, 0xFF000000};
SinglePixelPackedSampleModel sm = new SinglePixelPackedSampleModel(DataBuffer.TYPE_INT, w, h, bitMasks);
DataBufferInt db = new DataBufferInt(pixels, pixels.length);
WritableRaster wr = Raster.createWritableRaster(sm, db, new Point());
return new BufferedImageWithMeta(ColorModel.getRGBdefault(), wr, false, null);
}
static BufferedImageWithMeta intArrayToBufferedImage(int w, int... pixels) {
return intArrayToBufferedImage(pixels, w);
}
static WeakHasherMap symbol_map = new WeakHasherMap(new Hasher() {
public int hashCode(Symbol symbol) { return symbol.text.hashCode(); }
public boolean equals(Symbol a, Symbol b) {
if (a == null) return b == null;
return b != null && eq(a.text, b.text);
}
});
static Symbol symbol(String s) {
if (s == null) return null;
synchronized(symbol_map) {
// TODO: avoid object creation by passing the string to findKey
Symbol symbol = new Symbol(s, true);
Symbol existingSymbol = symbol_map.findKey(symbol);
if (existingSymbol == null)
symbol_map.put(existingSymbol = symbol, true);
return existingSymbol;
}
}
static Symbol symbol(CharSequence s) {
if (s == null) return null;
if (s instanceof Symbol) return (Symbol) s;
if (s instanceof String) return symbol((String) s);
return symbol(str(s));
}
static Symbol symbol(Object o) {
return symbol((CharSequence) o);
}
static Class primitiveToBoxedType(Class type) {
if (type == boolean.class) return Boolean.class;
if (type == int.class) return Integer.class;
if (type == long.class) return Long.class;
if (type == float.class) return Float.class;
if (type == short.class) return Short.class;
if (type == char.class) return Character.class;
if (type == byte.class) return Byte.class;
if (type == double.class) return Double.class;
return null;
}
static AutoCloseable tempInterceptPrintIfNotIntercepted(F1 f) {
return print_byThread().get() == null ? tempInterceptPrint(f) : null;
}
static Iterator emptyIterator() {
return Collections.emptyIterator();
}
static Class javax() {
return getJavaX();
}
static List synchroList() {
return synchroList(new ArrayList ());
}
static List synchroList(List l) {
return Collections.synchronizedList(l);
}
static Object call(Object o) {
return callF(o);
}
// varargs assignment fixer for a single string array argument
static Object call(Object o, String method, String[] arg) {
return call(o, method, new Object[] {arg});
}
static Object call(Object o, String method, Object... args) {
//ret call_cached(o, method, args);
return call_withVarargs(o, method, args);
}
static A printException(A e) {
printStackTrace(e);
return e;
}
static A assertNotNull(A a) {
assertTrue(a != null);
return a;
}
static A assertNotNull(String msg, A a) {
assertTrue(msg, a != null);
return a;
}
static Map synchroHashMap() {
return synchronizedMap(new HashMap());
}
static A vm_generalMap_getOrCreate(Object key, F0 create) {
return vm_generalMap_getOrCreate(key, f0ToIF0(create));
}
static A vm_generalMap_getOrCreate(Object key, IF0 create) {
Map generalMap = vm_generalMap();
if (generalMap == null) return null; // must be x30 init
synchronized(generalMap) { // should switch to locks here
A a = (A) (vm_generalMap_get(key));
if (a == null)
vm_generalMap_put(key, a = create == null ? null : create.get());
return a;
}
}
static A callF_gen(F0 f) {
return f == null ? null : f.get();
}
static B callF_gen(F1 f, A a) {
return f == null ? null : f.get(a);
}
static A callF_gen(IF0 f) {
return f == null ? null : f.get();
}
static B callF_gen(IF1 f, A a) {
return f == null ? null : f.get(a);
}
static B callF_gen(A a, IF1 f) {
return f == null ? null : f.get(a);
}
static C callF_gen(IF2 f, A a, B b) {
return f == null ? null : f.get(a, b);
}
static void callF_gen(VF1 f, A a) {
{ if (f != null) f.get(a); }
}
static void callF_gen(A a, IVF1 f) {
{ if (f != null) f.get(a); }
}
static void callF_gen(IVF1 f, A a) {
{ if (f != null) f.get(a); }
}
static Object callF_gen(Runnable r) { { if (r != null) r.run(); } return null; }
static Object callF_gen(Object f, Object... args) {
return callF(f, args);
}
static Object vm_generalMap_get(Object key) {
return vm_generalMap().get(key);
}
static void ping_okInCleanUp() {
if (ping_pauseAll || ping_anyActions)
ping_impl(true);
}
static HashMap> callMC_cache = new HashMap();
static String callMC_key;
static Method callMC_value;
// varargs assignment fixer for a single string array argument
static Object callMC(String method, String[] arg) {
return callMC(method, new Object[] {arg});
}
static Object callMC(String method, Object... args) { try {
Method me;
if (callMC_cache == null) callMC_cache = new HashMap(); // initializer time workaround
synchronized(callMC_cache) {
me = method == callMC_key ? callMC_value : null;
}
if (me != null) try {
return invokeMethod(me, null, args);
} catch (IllegalArgumentException e) {
throw new RuntimeException("Can't call " + me + " with arguments " + classNames(args), e);
}
List m;
synchronized(callMC_cache) {
m = callMC_cache.get(method);
}
if (m == null) {
if (callMC_cache.isEmpty()) {
callMC_makeCache();
m = callMC_cache.get(method);
}
if (m == null) throw fail("Method named " + method + " not found in main");
}
int n = m.size();
if (n == 1) {
me = m.get(0);
synchronized(callMC_cache) {
callMC_key = method;
callMC_value = me;
}
try {
return invokeMethod(me, null, args);
} catch (IllegalArgumentException e) {
throw new RuntimeException("Can't call " + me + " with arguments " + classNames(args), e);
}
}
for (int i = 0; i < n; i++) {
me = m.get(i);
if (call_checkArgs(me, args, false))
return invokeMethod(me, null, args);
}
throw fail("No method called " + method + " with arguments (" + joinWithComma(getClasses(args)) + ") found in main");
} catch (Exception __e) { throw rethrow(__e); } }
static void callMC_makeCache() {
synchronized(callMC_cache) {
callMC_cache.clear();
Class _c = (Class) mc(), c = _c;
while (c != null) {
for (Method m : c.getDeclaredMethods())
if ((m.getModifiers() & java.lang.reflect.Modifier.STATIC) != 0) {
makeAccessible(m);
multiMapPut(callMC_cache, m.getName(), m);
}
c = c.getSuperclass();
}
}
}
static Pair pair(A a, B b) {
return new Pair(a, b);
}
static Pair pair(A a) {
return new Pair(a, a);
}
public static String join(String glue, Iterable strings) {
if (strings == null) return "";
if (strings instanceof Collection) {
if (((Collection) strings).size() == 1) return str(first((Collection) strings));
}
StringBuilder buf = new StringBuilder();
Iterator i = strings.iterator();
if (i.hasNext()) {
buf.append(i.next());
while (i.hasNext())
buf.append(glue).append(i.next());
}
return buf.toString();
}
public static String join(String glue, String... strings) {
return join(glue, Arrays.asList(strings));
}
public static String join(String glue, Object... strings) {
return join(glue, Arrays.asList(strings));
}
static String join(Iterable strings) {
return join("", strings);
}
static String join(Iterable strings, String glue) {
return join(glue, strings);
}
public static String join(String[] strings) {
return join("", strings);
}
static String join(String glue, Pair p) {
return p == null ? "" : str(p.a) + glue + str(p.b);
}
static List getClassNames(Collection l) {
List out = new ArrayList();
if (l != null) for (Object o : l)
out.add(o == null ? null : getClassName(o));
return out;
}
static String combinePrintParameters(String s, Object o) {
return (endsWithLetterOrDigit(s) ? s + ": " : s) + o;
}
// this syntax should be removed...
static Object getThreadLocal(Object o, String name) {
ThreadLocal t = (ThreadLocal) (getOpt(o, name));
return t != null ? t.get() : null;
}
static A getThreadLocal(ThreadLocal tl) {
return tl == null ? null : tl.get();
}
static A getThreadLocal(ThreadLocal tl, A defaultValue) {
return or(getThreadLocal(tl), defaultValue);
}
static ThreadLocal print_byThread_dontCreate() {
return print_byThread;
}
static boolean isFalse(Object o) {
return eq(false, o);
}
static String getStackTrace(Throwable throwable) {
lastException(throwable);
return getStackTrace_noRecord(throwable);
}
static String getStackTrace_noRecord(Throwable throwable) {
StringWriter writer = new StringWriter();
throwable.printStackTrace(new PrintWriter(writer));
return hideCredentials(writer.toString());
}
static String getStackTrace() {
return getStackTrace_noRecord(new Throwable());
}
static String getStackTrace(String msg) {
return getStackTrace_noRecord(new Throwable(msg));
}
static String fixNewLines(String s) {
int i = indexOf(s, '\r');
if (i < 0) return s;
int l = s.length();
StringBuilder out = new StringBuilder(l);
out.append(s, 0, i);
for (; i < l; i++) {
char c = s.charAt(i);
if (c != '\r')
out.append(c);
else {
out.append('\n');
if (i+1 < l && s.charAt(i+1) == '\n') ++i;
}
}
return out.toString();
}
static void print_append(Appendable buf, String s, int max) { try {
synchronized(buf) {
buf.append(s);
if (buf instanceof StringBuffer)
rotateStringBuffer(((StringBuffer) buf), max);
else if (buf instanceof StringBuilder)
rotateStringBuilder(((StringBuilder) buf), max);
}
} catch (Exception __e) { throw rethrow(__e); } }
static Class mc() {
return main.class;
}
static Object vmBus_wrapArgs(Object... args) {
return empty(args) ? null
: l(args) == 1 ? args[0]
: args;
}
static void pcallFAll_minimalExceptionHandling(Collection l, Object... args) {
if (l != null) for (Object f : cloneList(l)) { ping(); pcallF_minimalExceptionHandling(f, args); }
}
static void pcallFAll_minimalExceptionHandling(Iterator it, Object... args) {
while (it.hasNext()) { ping(); pcallF_minimalExceptionHandling(it.next(), args); }
}
static Set vm_busListeners_live_cache;
static Set vm_busListeners_live() { if (vm_busListeners_live_cache == null) vm_busListeners_live_cache = vm_busListeners_live_load(); return vm_busListeners_live_cache;}
static Set vm_busListeners_live_load() {
return vm_generalIdentityHashSet("busListeners");
}
static Map vm_busListenersByMessage_live_cache;
static Map vm_busListenersByMessage_live() { if (vm_busListenersByMessage_live_cache == null) vm_busListenersByMessage_live_cache = vm_busListenersByMessage_live_load(); return vm_busListenersByMessage_live_cache;}
static Map vm_busListenersByMessage_live_load() {
return vm_generalHashMap("busListenersByMessage");
}
static ThreadLocal print_byThread() {
synchronized(print_byThread_lock) {
if (print_byThread == null)
print_byThread = new ThreadLocal();
}
return print_byThread;
}
// f can return false to suppress regular printing
// call print_raw within f to actually print something
static AutoCloseable tempInterceptPrint(F1 f) {
return tempSetThreadLocal(print_byThread(), f);
}
static Class __javax;
static Class getJavaX() { try {
return __javax;
} catch (Exception __e) { throw rethrow(__e); } }
static void __setJavaX(Class j) {
__javax = j;
_onJavaXSet();
}
static Object call_withVarargs(Object o, String methodName, Object... args) { try {
if (o == null) return null;
if (o instanceof Class) {
Class c = (Class) o;
_MethodCache cache = callOpt_getCache(c);
Method me = cache.findStaticMethod(methodName, args);
if (me != null)
return invokeMethod(me, null, args);
// try varargs
List methods = cache.cache.get(methodName);
if (methods != null) methodSearch: for (Method m : methods) {
{ if (!(m.isVarArgs())) continue; }
{ if (!(isStaticMethod(m))) continue; }
Object[] newArgs = massageArgsForVarArgsCall(m, args);
if (newArgs != null)
return invokeMethod(m, null, newArgs);
}
throw fail("Method " + c.getName() + "." + methodName + "(" + joinWithComma(classNames(args)) + ") not found");
} else {
Class c = o.getClass();
_MethodCache cache = callOpt_getCache(c);
Method me = cache.findMethod(methodName, args);
if (me != null)
return invokeMethod(me, o, args);
// try varargs
List methods = cache.cache.get(methodName);
if (methods != null) methodSearch: for (Method m : methods) {
{ if (!(m.isVarArgs())) continue; }
Object[] newArgs = massageArgsForVarArgsCall(m, args);
if (newArgs != null)
return invokeMethod(m, o, newArgs);
}
throw fail("Method " + c.getName() + "." + methodName + "(" + joinWithComma(classNames(args)) + ") not found");
}
} catch (Exception __e) { throw rethrow(__e); } }
static A printStackTrace(A e) {
// we go to system.out now - system.err is nonsense
if (e != null) print(getStackTrace(e));
return e;
}
static void printStackTrace() {
printStackTrace(new Throwable());
}
static void printStackTrace(String msg) {
printStackTrace(new Throwable(msg));
}
static void printStackTrace(String msg, Throwable e) {
printStackTrace(new Throwable(msg, e));
}
static Map synchronizedMap() {
return synchroMap();
}
static Map synchronizedMap(Map map) {
return synchroMap(map);
}
static IF0 f0ToIF0(F0 f) {
return f == null ? null : () -> f.get();
}
static Map vm_generalMap_map;
static Map vm_generalMap() {
if (vm_generalMap_map == null)
vm_generalMap_map = (Map) get(javax(), "generalMap");
return vm_generalMap_map;
}
static Object vm_generalMap_put(Object key, Object value) {
return mapPutOrRemove(vm_generalMap(), key, value);
}
static String joinWithComma(Collection c) {
return join(", ", c);
}
static String joinWithComma(Object... c) {
return join(", ", c);
}
static String joinWithComma(String... c) {
return join(", ", c);
}
static String joinWithComma(Pair p) {
return p == null ? "" : joinWithComma(str(p.a), str(p.b));
}
static List getClasses(Object[] array) {
List l = emptyList(l(array));
for (Object o : array) l.add(_getClass(o));
return l;
}
static void multiMapPut(Map > map, A a, B b) {
List l = map.get(a);
if (l == null)
map.put(a, l = new ArrayList());
l.add(b);
}
static void multiMapPut(MultiMap mm, A key, B value) {
if (mm != null && key != null && value != null) mm.put(key, value);
}
static Object first(Object list) {
return first((Iterable) list);
}
static A first(List list) {
return empty(list) ? null : list.get(0);
}
static A first(A[] bla) {
return bla == null || bla.length == 0 ? null : bla[0];
}
static Pair first(Map map) {
return mapEntryToPair(first(entrySet(map)));
}
static Pair first(MultiMap mm) {
if (mm == null) return null;
var e = first(mm.data.entrySet());
if (e == null) return null;
return pair(e.getKey(), first(e.getValue()));
}
static A first(IterableIterator i) {
return first((Iterator ) i);
}
static A first(Iterator i) {
return i == null || !i.hasNext() ? null : i.next();
}
static A first(Iterable i) {
if (i == null) return null;
Iterator it = i.iterator();
return it.hasNext() ? it.next() : null;
}
static Character first(String s) { return empty(s) ? null : s.charAt(0); }
static Character first(CharSequence s) { return empty(s) ? null : s.charAt(0); }
static A first(Pair p) {
return p == null ? null : p.a;
}
static Byte first(byte[] l) {
return empty(l) ? null : l[0];
}
static int first(IntBuffer buf) {
return buf.get(0);
}
static byte first(ByteBuffer buf) {
return buf.get(0);
}
static A first(A[] l, IF1 pred) {
return firstThat(l, pred);
}
static A first(Iterable l, IF1 pred) {
return firstThat(l, pred);
}
static A first(IF1 pred, Iterable l) {
return firstThat(pred, l);
}
static A first(AppendableChain a) {
return a == null ? null : a.element;
}
static boolean endsWithLetterOrDigit(String s) {
return s != null && s.length() > 0 && Character.isLetterOrDigit(s.charAt(s.length()-1));
}
static Object getOpt(Object o, String field) {
return getOpt_cached(o, field);
}
static Object getOpt(String field, Object o) {
return getOpt_cached(o, field);
}
static Object getOpt_raw(Object o, String field) { try {
Field f = getOpt_findField(o.getClass(), field);
if (f == null) return null;
makeAccessible(f);
return f.get(o);
} catch (Exception __e) { throw rethrow(__e); } }
// access of static fields is not yet optimized
static Object getOpt(Class c, String field) { try {
if (c == null) return null;
Field f = getOpt_findStaticField(c, field);
if (f == null) return null;
makeAccessible(f);
return f.get(null);
} catch (Exception __e) { throw rethrow(__e); } }
static Field getOpt_findStaticField(Class> c, String field) {
Class _c = c;
do {
for (Field f : _c.getDeclaredFields())
if (f.getName().equals(field) && (f.getModifiers() & java.lang.reflect.Modifier.STATIC) != 0)
return f;
_c = _c.getSuperclass();
} while (_c != null);
return null;
}
// PersistableThrowable doesn't hold GC-disturbing class references in backtrace
static volatile PersistableThrowable lastException_lastException;
static PersistableThrowable lastException() {
return lastException_lastException;
}
static void lastException(Throwable e) {
lastException_lastException = persistableThrowable(e);
}
static String hideCredentials(URL url) { return url == null ? null : hideCredentials(str(url)); }
static String hideCredentials(String url) {
try {
if (startsWithOneOf(url, "http://", "https://") && isAGIBlueDomain(hostNameFromURL(url))) return url;
} catch (Throwable e) {
print("HideCredentials", e);
}
return url.replaceAll("([&?])(_pass|key|cookie)=[^&\\s\"]*", "$1$2=");
}
static String hideCredentials(Object o) {
return hideCredentials(str(o));
}
static int indexOf(List l, A a, int startIndex) {
if (l == null) return -1;
int n = l(l);
for (int i = startIndex; i < n; i++)
if (eq(l.get(i), a))
return i;
return -1;
}
static int indexOf(List l, int startIndex, A a) {
return indexOf(l, a, startIndex);
}
static int indexOf(List l, A a) {
if (l == null) return -1;
return l.indexOf(a);
}
static int indexOf(String a, String b) {
return a == null || b == null ? -1 : a.indexOf(b);
}
static int indexOf(String a, String b, int i) {
return a == null || b == null ? -1 : a.indexOf(b, i);
}
static int indexOf(String a, char b) {
return a == null ? -1 : a.indexOf(b);
}
static int indexOf(String a, int i, char b) {
return indexOf(a, b, i);
}
static int indexOf(String a, char b, int i) {
return a == null ? -1 : a.indexOf(b, i);
}
static int indexOf(String a, int i, String b) {
return a == null || b == null ? -1 : a.indexOf(b, i);
}
static int indexOf(A[] x, A a) {
int n = l(x);
for (int i = 0; i < n; i++)
if (eq(x[i], a))
return i;
return -1;
}
static int indexOf(Iterable l, A a) {
if (l == null) return -1;
int i = 0;
for (A x : l) {
if (eq(x, a))
return i;
i++;
}
return -1;
}
static void rotateStringBuffer(StringBuffer buf, int max) { try {
if (buf == null) return;
synchronized(buf) {
if (buf.length() <= max) return;
try {
int newLength = max/2;
int ofs = buf.length()-newLength;
String newString = buf.substring(ofs);
buf.setLength(0);
buf.append("[...] ").append(newString);
} catch (Exception e) {
buf.setLength(0);
}
buf.trimToSize();
}
} catch (Exception __e) { throw rethrow(__e); } }
static void rotateStringBuilder(StringBuilder buf, int max) { try {
if (buf == null) return;
synchronized(buf) {
if (buf.length() <= max) return;
try {
int newLength = max/2;
int ofs = buf.length()-newLength;
String newString = buf.substring(ofs);
buf.setLength(0);
buf.append("[...] ").append(newString);
} catch (Exception e) {
buf.setLength(0);
}
buf.trimToSize();
}
} catch (Exception __e) { throw rethrow(__e); } }
static boolean empty(Collection c) { return c == null || c.isEmpty(); }
static boolean empty(Iterable c) { return c == null || !c.iterator().hasNext(); }
static boolean empty(CharSequence s) { return s == null || s.length() == 0; }
static boolean empty(Map map) { return map == null || map.isEmpty(); }
static boolean empty(Object[] o) { return o == null || o.length == 0; }
static boolean empty(BitSet bs) { return bs == null || bs.isEmpty(); }
static boolean empty(Object o) {
if (o instanceof Collection) return empty((Collection) o);
if (o instanceof String) return empty((String) o);
if (o instanceof Map) return empty((Map) o);
if (o instanceof Object[]) return empty((Object[]) o);
if (o instanceof byte[]) return empty((byte[]) o);
if (o == null) return true;
throw fail("unknown type for 'empty': " + getType(o));
}
static boolean empty(Iterator i) { return i == null || !i.hasNext(); }
static boolean empty(double[] a) { return a == null || a.length == 0; }
static boolean empty(float[] a) { return a == null || a.length == 0; }
static boolean empty(int[] a) { return a == null || a.length == 0; }
static boolean empty(long[] a) { return a == null || a.length == 0; }
static boolean empty(byte[] a) { return a == null || a.length == 0; }
static boolean empty(short[] a) { return a == null || a.length == 0; }
static boolean empty(IMultiMap mm) { return mm == null || mm.size() == 0; }
static boolean empty(File f) { return getFileSize(f) == 0; }
static boolean empty(IntRange r) { return r == null || r.empty(); }
static boolean empty(DoubleRange r) { return r == null || r.isEmpty(); }
static boolean empty(IntBuffer b) { return b == null || b.isEmpty(); }
static boolean empty(Rect r) { return !(r != null && r.w != 0 && r.h != 0); }
static boolean empty(Chain c) { return c == null; }
static boolean empty(AppendableChain c) { return c == null; }
static ArrayList cloneList(Iterable l) {
return l instanceof Collection ? cloneList((Collection) l) : asList(l);
}
static ArrayList cloneList(Collection l) {
if (l == null) return new ArrayList();
synchronized(collectionMutex(l)) {
return new ArrayList (l);
}
}
static Object pcallF_minimalExceptionHandling(Object f, Object... args) {
try {
return callFunction(f, args);
} catch (Throwable e) {
System.out.println(getStackTrace(e));
_storeException(e);
}
return null;
}
static Set vm_generalIdentityHashSet(Object name) {
synchronized(vm_generalMap()) {
Set set = (Set) (vm_generalMap_get(name));
if (set == null)
vm_generalMap_put(name, set = syncIdentityHashSet());
return set;
}
}
static Map vm_generalHashMap(Object name) {
synchronized(vm_generalMap()) {
Map m = (Map) (vm_generalMap_get(name));
if (m == null)
vm_generalMap_put(name, m = syncHashMap());
return m;
}
}
static AutoCloseable tempSetThreadLocal(final ThreadLocal tl, A a) {
if (tl == null) return null;
final A prev = setThreadLocal(tl, a);
return new AutoCloseable() { public String toString() { return "tl.set(prev);"; } public void close() throws Exception { tl.set(prev); }};
}
static void _onJavaXSet() {}
static final Map callOpt_cache = newDangerousWeakHashMap();
static Object callOpt_cached(Object o, String methodName, Object... args) { try {
if (o == null) return null;
if (o instanceof Class) {
Class c = (Class) o;
_MethodCache cache = callOpt_getCache(c);
// TODO: (super-rare) case where method exists static and non-static
// with different args
Method me = cache.findMethod(methodName, args);
if (me == null || (me.getModifiers() & Modifier.STATIC) == 0) return null;
return invokeMethod(me, null, args);
} else {
Class c = o.getClass();
_MethodCache cache = callOpt_getCache(c);
Method me = cache.findMethod(methodName, args);
if (me == null) return null;
return invokeMethod(me, o, args);
}
} catch (Exception __e) { throw rethrow(__e); } }
// no longer synchronizes! (see #1102990)
static _MethodCache callOpt_getCache(Class c) {
_MethodCache cache = callOpt_cache.get(c);
if (cache == null)
callOpt_cache.put(c, cache = new _MethodCache(c));
return cache;
}
static boolean isStaticMethod(Method m) {
return methodIsStatic(m);
}
static Object[] massageArgsForVarArgsCall(Executable m, Object[] args) {
Class>[] types = m.getParameterTypes();
int n = types.length-1, nArgs = l(args);
if (nArgs < n) return null;
for (int i = 0; i < n; i++)
if (!argumentCompatibleWithType(args[i], types[i]))
return null;
Class varArgType = types[n].getComponentType();
for (int i = n; i < nArgs; i++)
if (!argumentCompatibleWithType(args[i], varArgType))
return null;
Object[] newArgs = new Object[n+1];
arraycopy(args, 0, newArgs, 0, n);
// TODO: optimize
int nVarArgs = nArgs-n;
Object varArgs = Array.newInstance(varArgType, nVarArgs);
for (int i = 0; i < nVarArgs; i++)
Array.set(varArgs, i, args[n+i]);
newArgs[n] = varArgs;
return newArgs;
}
// get purpose 1: access a list/array/map (safer version of x.get(y))
static A get(List l, int idx) {
return l != null && idx >= 0 && idx < l(l) ? l.get(idx) : null;
}
// seems to conflict with other signatures
/*static B get(Map map, A key) {
ret map != null ? map.get(key) : null;
}*/
static A get(A[] l, int idx) {
return idx >= 0 && idx < l(l) ? l[idx] : null;
}
// default to false
static boolean get(boolean[] l, int idx) {
return idx >= 0 && idx < l(l) ? l[idx] : false;
}
// get purpose 2: access a field by reflection or a map
static Object get(Object o, String field) {
try {
if (o == null) return null;
if (o instanceof Class) return get((Class) o, field);
if (o instanceof Map)
return ((Map) o).get(field);
Field f = getOpt_findField(o.getClass(), field);
if (f != null) {
makeAccessible(f);
return f.get(o);
}
if (o instanceof DynamicObject)
return getOptDynOnly(((DynamicObject) o), field);
} catch (Exception e) {
throw asRuntimeException(e);
}
throw new RuntimeException("Field '" + field + "' not found in " + o.getClass().getName());
}
static Object get_raw(String field, Object o) {
return get_raw(o, field);
}
static Object get_raw(Object o, String field) { try {
if (o == null) return null;
Field f = get_findField(o.getClass(), field);
makeAccessible(f);
return f.get(o);
} catch (Exception __e) { throw rethrow(__e); } }
static Object get(Class c, String field) {
try {
Field f = get_findStaticField(c, field);
makeAccessible(f);
return f.get(null);
} catch (Exception e) {
throw new RuntimeException(e);
}
}
static Field get_findStaticField(Class> c, String field) {
Class _c = c;
do {
for (Field f : _c.getDeclaredFields())
if (f.getName().equals(field) && (f.getModifiers() & java.lang.reflect.Modifier.STATIC) != 0)
return f;
_c = _c.getSuperclass();
} while (_c != null);
throw new RuntimeException("Static field '" + field + "' not found in " + c.getName());
}
static Field get_findField(Class> c, String field) {
Class _c = c;
do {
for (Field f : _c.getDeclaredFields())
if (f.getName().equals(field))
return f;
_c = _c.getSuperclass();
} while (_c != null);
throw new RuntimeException("Field '" + field + "' not found in " + c.getName());
}
static Object get(String field, Object o) {
return get(o, field);
}
static boolean get(BitSet bs, int idx) {
return bs != null && bs.get(idx);
}
static B mapPutOrRemove(Map map, A key, B value) {
if (map != null && key != null)
if (value != null) return map.put(key, value);
else return map.remove(key);
return null;
}
static Class> _getClass(String name) {
try {
return Class.forName(name);
} catch (ClassNotFoundException e) {
return null; // could optimize this
}
}
static Class _getClass(Object o) {
return o == null ? null
: o instanceof Class ? (Class) o : o.getClass();
}
static Class _getClass(Object realm, String name) {
try {
return classLoaderForObject(realm).loadClass(classNameToVM(name));
} catch (ClassNotFoundException e) {
return null; // could optimize this
}
}
static Pair mapEntryToPair(Map.Entry e) {
return e == null ? null : pair(e.getKey(), e.getValue());
}
static Set> entrySet(Map map) {
return _entrySet(map);
}
static A firstThat(Iterable l, IF1 pred) {
for (A a : unnullForIteration(l))
if (pred.get(a))
return a;
return null;
}
static A firstThat(A[] l, IF1 pred) {
for (A a : unnullForIteration(l))
if (pred.get(a))
return a;
return null;
}
static A firstThat(IF1 pred, Iterable l) {
return firstThat(l, pred);
}
static A firstThat(IF1 pred, A[] l) {
return firstThat(l, pred);
}
//static final Map> getOpt_cache = newDangerousWeakHashMap(f getOpt_special_init);
static class getOpt_Map extends WeakHashMap {
getOpt_Map() {
if (getOpt_special == null) getOpt_special = new HashMap();
clear();
}
public void clear() {
super.clear();
//print("getOpt clear");
put(Class.class, getOpt_special);
put(String.class, getOpt_special);
}
}
static final Map> getOpt_cache =
_registerDangerousWeakMap(synchroMap(new getOpt_Map()));
static HashMap getOpt_special; // just a marker
/*static void getOpt_special_init(Map map) {
map.put(Class.class, getOpt_special);
map.put(S.class, getOpt_special);
}*/
static Map getOpt_getFieldMap(Object o) {
Class c = _getClass(o);
HashMap map = getOpt_cache.get(c);
if (map == null)
map = getOpt_makeCache(c);
return map;
}
static Object getOpt_cached(Object o, String field) { try {
if (o == null) return null;
Map map = getOpt_getFieldMap(o);
if (map == getOpt_special) {
if (o instanceof Class)
return getOpt((Class) o, field);
/*if (o instanceof S)
ret getOpt(getBot((S) o), field);*/
if (o instanceof Map)
return ((Map) o).get(field);
}
Field f = map.get(field);
if (f != null) return f.get(o);
if (o instanceof DynamicObject)
return syncMapGet2(((DynamicObject) o).fieldValues, field);
return null;
} catch (Exception __e) { throw rethrow(__e); } }
// used internally - we are in synchronized block
static HashMap getOpt_makeCache(Class c) {
HashMap map;
if (isSubtypeOf(c, Map.class))
map = getOpt_special;
else {
map = new HashMap();
if (!reflection_classesNotToScan().contains(c.getName())) {
Class _c = c;
do {
for (Field f : _c.getDeclaredFields()) {
makeAccessible(f);
String name = f.getName();
if (!map.containsKey(name))
map.put(name, f);
}
_c = _c.getSuperclass();
} while (_c != null);
}
}
if (getOpt_cache != null) getOpt_cache.put(c, map);
return map;
}
static Field getOpt_findField(Class> c, String field) {
Class _c = c;
do {
for (Field f : _c.getDeclaredFields())
if (f.getName().equals(field))
return f;
_c = _c.getSuperclass();
} while (_c != null);
return null;
}
static PersistableThrowable persistableThrowable(Throwable e) {
return e == null ? null : new PersistableThrowable(e);
}
static boolean startsWithOneOf(String s, String... l) {
for (String x : l) if (startsWith(s, x)) return true; return false;
}
static boolean startsWithOneOf(String s, Matches m, String... l) {
for (String x : l) if (startsWith(s, x, m)) return true; return false;
}
static boolean isAGIBlueDomain(String domain) {
return domainIsUnder(domain, theAGIBlueDomain());
}
static String hostNameFromURL(String url) { try {
return empty(url) ? null : new URL(url).getHost();
} catch (Exception __e) { throw rethrow(__e); } }
static String getType(Object o) {
return getClassName(o);
}
static long getFileSize(String path) {
return path == null ? 0 : new File(path).length();
}
static long getFileSize(File f) {
return f == null ? 0 : f.length();
}
// TODO: JDK 17!! ?? No! Yes? Yes!!
static Object collectionMutex(List l) {
return l;
}
static Object collectionMutex(Object o) {
if (o instanceof List) return o;
// TODO: actually use our own maps so we can get the mutex properly
String c = className(o);
return o;
}
static Object callFunction(Object f, Object... args) {
return callF(f, args);
}
static Throwable _storeException_value;
static void _storeException(Throwable e) {
_storeException_value = e;
}
static Set syncIdentityHashSet() {
return (Set) synchronizedSet(identityHashSet());
}
static Map syncHashMap() {
return synchroHashMap();
}
static A setThreadLocal(ThreadLocal tl, A value) {
if (tl == null) return null;
A old = tl.get();
tl.set(value);
return old;
}
static boolean methodIsStatic(Method m) {
return (m.getModifiers() & Modifier.STATIC) != 0;
}
static boolean argumentCompatibleWithType(Object arg, Class type) {
return arg == null ? !type.isPrimitive() : isInstanceX(type, arg);
}
static void arraycopy(Object[] a, Object[] b) {
if (a != null && b != null)
arraycopy(a, 0, b, 0, Math.min(a.length, b.length));
}
static void arraycopy(Object src, int srcPos, int destPos, int n) { arraycopy(src, srcPos, src, destPos, n); }
static void arraycopy(Object src, int srcPos, Object dest, int destPos, int n) {
if (n != 0)
System.arraycopy(src, srcPos, dest, destPos, n);
}
static Object getOptDynOnly(DynamicObject o, String field) {
if (o == null || o.fieldValues == null) return null;
return o.fieldValues.get(field);
}
static ClassLoader classLoaderForObject(Object o) {
if (o instanceof ClassLoader) return ((ClassLoader) o);
if (o == null) return null;
return _getClass(o).getClassLoader();
}
// Note: This is actually broken. Inner classes must stay with a $ separator
static String classNameToVM(String name) {
return name.replace(".", "$");
}
static Set> _entrySet(Map map) {
return map == null ? Collections.EMPTY_SET : map.entrySet();
}
static void clear(Collection c) {
if (c != null) c.clear();
}
static void clear(Map map) {
if (map != null) map.clear();
}
static void put(Map map, A a, B b) {
if (map != null) map.put(a, b);
}
static void put(List l, int i, A a) {
if (l != null && i >= 0 && i < l(l)) l.set(i, a);
}
static B syncMapGet2(Map map, A a) {
if (map == null) return null;
synchronized(collectionMutex(map)) {
return map.get(a);
}
}
static B syncMapGet2(A a, Map map) {
return syncMapGet2(map, a);
}
static boolean isSubtypeOf(Class a, Class b) {
return a != null && b != null && b.isAssignableFrom(a); // << always hated that method, let's replace it!
}
static Set reflection_classesNotToScan_value = litset(
"jdk.internal.loader.URLClassPath"
);
static Set reflection_classesNotToScan() {
return reflection_classesNotToScan_value;
}
static boolean startsWith(String a, String b) {
return a != null && a.startsWith(unnull(b));
}
static boolean startsWith(String a, char c) {
return nemptyString(a) && a.charAt(0) == c;
}
static boolean startsWith(String a, String b, Matches m) {
if (!startsWith(a, b)) return false;
if (m != null) m.m = new String[] {substring(a, strL(b))};
return true;
}
static boolean startsWith(List a, List b) {
if (a == null || listL(b) > listL(a)) return false;
for (int i = 0; i < listL(b); i++)
if (neq(a.get(i), b.get(i)))
return false;
return true;
}
static boolean domainIsUnder(String domain, String mainDomain) {
return eqic(domain, mainDomain) || ewic(domain, "." + mainDomain);
}
static String theAGIBlueDomain() {
return "agi.blue";
}
static String className(Object o) {
return getClassName(o);
}
static Set synchronizedSet() {
return synchroHashSet();
}
static Set synchronizedSet(Set set) {
return Collections.synchronizedSet(set);
}
static Set identityHashSet() {
return Collections.newSetFromMap(new IdentityHashMap());
}
static HashSet litset(A... items) {
return lithashset(items);
}
static String unnull(String s) {
return s == null ? "" : s;
}
static Collection unnull(Collection l) {
return l == null ? emptyList() : l;
}
static List unnull(List l) { return l == null ? emptyList() : l; }
static int[] unnull(int[] l) { return l == null ? emptyIntArray() : l; }
static char[] unnull(char[] l) { return l == null ? emptyCharArray() : l; }
static double[] unnull(double[] l) { return l == null ? emptyDoubleArray() : l; }
static Map unnull(Map l) {
return l == null ? emptyMap() : l;
}
static Iterable unnull(Iterable i) {
return i == null ? emptyList() : i;
}
static A[] unnull(A[] a) {
return a == null ? (A[]) emptyObjectArray() : a;
}
static BitSet unnull(BitSet b) {
return b == null ? new BitSet() : b;
}
static Pt unnull(Pt p) {
return p == null ? new Pt() : p;
}
//ifclass Symbol
static Symbol unnull(Symbol s) {
return s == null ? emptySymbol() : s;
}
//endif
static Pair unnull(Pair p) {
return p != null ? p : new Pair(null, null);
}
static int unnull(Integer i) { return i == null ? 0 : i; }
static long unnull(Long l) { return l == null ? 0L : l; }
static double unnull(Double l) { return l == null ? 0.0 : l; }
static boolean nemptyString(String s) {
return s != null && s.length() > 0;
}
static String substring(String s, int x) {
return substring(s, x, strL(s));
}
static String substring(String s, int x, int y) {
if (s == null) return null;
if (x < 0) x = 0;
int n = s.length();
if (y < x) y = x;
if (y > n) y = n;
if (x >= y) return "";
return s.substring(x, y);
}
static String substring(String s, IntRange r) {
return r == null ? null : substring(s, r.start, r.end);
}
// convenience method for quickly dropping a prefix
static String substring(String s, CharSequence l) {
return substring(s, lCharSequence(l));
}
static int strL(String s) {
return s == null ? 0 : s.length();
}
static int listL(Collection l) {
return l == null ? 0 : l.size();
}
static boolean neq(Object a, Object b) {
return !eq(a, b);
}
static boolean eqic(String a, String b) {
if ((a == null) != (b == null)) return false;
if (a == null) return true;
return a.equalsIgnoreCase(b);
}
static boolean eqic(Symbol a, Symbol b) {
return eq(a, b);
}
static boolean eqic(Symbol a, String b) {
return eqic(asString(a), b);
}
static boolean eqic(char a, char b) {
if (a == b) return true;
char u1 = Character.toUpperCase(a);
char u2 = Character.toUpperCase(b);
if (u1 == u2) return true;
return Character.toLowerCase(u1) == Character.toLowerCase(u2);
}
static boolean ewic(String a, String b) {
return endsWithIgnoreCase(a, b);
}
static boolean ewic(String a, String b, Matches m) {
return endsWithIgnoreCase(a, b, m);
}
static Set synchroHashSet() {
return synchronizedSet(new HashSet ());
}
static HashSet lithashset(A... items) {
HashSet set = new HashSet();
for (A a : items) set.add(a);
return set;
}
static Map emptyMap() {
return new HashMap();
}
static int lCharSequence(CharSequence s) {
return s == null ? 0 : s.length();
}
static String asString(Object o) {
return o == null ? null : o.toString();
}
static boolean endsWithIgnoreCase(String a, String b) {
int la = l(a), lb = l(b);
return la >= lb && regionMatchesIC(a, la-lb, b, 0, lb);
}
static boolean endsWithIgnoreCase(String a, String b, Matches m) {
if (!endsWithIgnoreCase(a, b)) return false;
if (m != null)
m.m = new String[] { substring(a, 0, l(a)-l(b)) };
return true;
}
static boolean regionMatchesIC(String a, int offsetA, String b, int offsetB, int len) {
return a != null && a.regionMatches(true, offsetA, b, offsetB, len);
}
static abstract class VF1 implements IVF1 {
public abstract void get(A a);
}
// immutable, has strong refs
// Do not run in a synchronized block - it goes wrong in the presence
// of elaborate classloaders (like in Gazelle BEA)
// see #1102990 and #1102991
final static class _MethodCache {
final Class c;
final HashMap> cache = new HashMap();
_MethodCache(Class c) {
this.c = c; _init(); }
void _init() {
Class _c = c;
java.lang.Module myModule = getClass().getModule();
boolean anyHiddenClasses = false;
while (_c != null) {
boolean exported = classIsExportedTo(_c, myModule);
if (!exported)
anyHiddenClasses = true;
else
for (Method m : _c.getDeclaredMethods())
if ((anyHiddenClasses || !isAbstract(m))
&& !reflection_isForbiddenMethod(m))
multiMapPut(cache, m.getName(), makeAccessible(m));
_c = _c.getSuperclass();
}
// add default methods - this might lead to a duplication
// because the overridden method is also added, but it's not
// a problem except for minimal performance loss.
// If any classes in the hierarchy were inaccessible, we add
// all interface methods (see test_callForbiddenMethodByReflection for a test)
for (Class intf : allInterfacesImplementedBy(c))
for (Method m : intf.getDeclaredMethods())
if ((anyHiddenClasses || m.isDefault()) && !reflection_isForbiddenMethod(m))
multiMapPut(cache, m.getName(), makeAccessible(m));
}
// Returns only matching methods
Method findMethod(String method, Object[] args) { try {
List m = cache.get(method);
if (m == null) return null;
int n = m.size();
for (int i = 0; i < n; i++) {
Method me = m.get(i);
if (call_checkArgs(me, args, false))
return me;
}
return null;
} catch (Exception __e) { throw rethrow(__e); } }
Method findStaticMethod(String method, Object[] args) { try {
List m = cache.get(method);
if (m == null) return null;
int n = m.size();
for (int i = 0; i < n; i++) {
Method me = m.get(i);
if (isStaticMethod(me) && call_checkArgs(me, args, false))
return me;
}
return null;
} catch (Exception __e) { throw rethrow(__e); } }
//Cl allMethods() { ret allValues(cache); }
}
static class Matches {
String[] m;
Matches() {}
Matches(String... m) {
this.m = m;}
String get(int i) { return i < m.length ? m[i] : null; }
String unq(int i) { return unquote(get(i)); }
String tlc(int i) { return unq(i).toLowerCase(); }
boolean bool(int i) { return "true".equals(unq(i)); }
String rest() { return m[m.length-1]; } // for matchStart
int psi(int i) { return Integer.parseInt(unq(i)); }
public String toString() { return "Matches(" + joinWithComma(quoteAll(asList(m))) + ")"; }
public int hashCode() { return _hashCode(toList(m)); }
public boolean equals(Object o) { return o instanceof Matches && arraysEqual(m, ((Matches) o).m); }
}
// for the version with MasterSymbol (used WAY back in "Smart Bot"!) see #1010608
static class Symbol implements CharSequence {
String text;
Symbol() {}
Symbol(String text, boolean dummy) {
this.text = text;} // weird signature to prevent accidental calling
public int hashCode() { return _hashCode(text); }
public String toString() { return text; }
public boolean equals(Object o) {
return this == o;
}
// implementation of CharSequence methods
public int length() { return text.length(); }
public char charAt(int index) { return text.charAt(index); }
public CharSequence subSequence(int start, int end) {
return text.substring(start, end);
}
}
// VectorSSI - SSI with straight line segments
static class VectorSSI extends AbstractSSI {
VectorSSI() {}
// core values (mandatory): first column and row occupied
final public VectorSSI setX1(short x1){ return x1(x1); }
public VectorSSI x1(short x1) { this.x1 = x1; return this; } final public short getX1(){ return x1(); }
public short x1() { return x1; }
short x1;
final public VectorSSI setY1(short y1){ return y1(y1); }
public VectorSSI y1(short y1) { this.y1 = y1; return this; } final public short getY1(){ return y1(); }
public short y1() { return y1; }
short y1;
// Curves of x start and x end, relative to (x1, y1)
// Both have same length
final public VectorSSI setLeftCurve(InterpolatedDoubleArray leftCurve){ return leftCurve(leftCurve); }
public VectorSSI leftCurve(InterpolatedDoubleArray leftCurve) { this.leftCurve = leftCurve; return this; } final public InterpolatedDoubleArray getLeftCurve(){ return leftCurve(); }
public InterpolatedDoubleArray leftCurve() { return leftCurve; }
InterpolatedDoubleArray leftCurve;
final public VectorSSI setRightCurve(InterpolatedDoubleArray rightCurve){ return rightCurve(rightCurve); }
public VectorSSI rightCurve(InterpolatedDoubleArray rightCurve) { this.rightCurve = rightCurve; return this; } final public InterpolatedDoubleArray getRightCurve(){ return rightCurve(); }
public InterpolatedDoubleArray rightCurve() { return rightCurve; }
InterpolatedDoubleArray rightCurve;
VectorSSI(SSI ssi) {
ssi.copyAbstractSSI(this);
Rect r = ssi.bounds();
x1(toShort_enforce(r.x1()));
y1(toShort_enforce(r.y1()));
int h = r.h();
int[] left = new int[h], right = new int[h];
for (int y = 0; y < h; y++) {
left[y] = ssi.getLeft(y1+y)-x1;
right[y] = ssi.getRight(y1+y)-x1;
}
leftCurve(new CompressToInterpolatedDoubleArray(left).get());
rightCurve(new CompressToInterpolatedDoubleArray(right).get());
}
final public int h(){ return height(); }
public int height() {
return leftCurve.length();
}
int y2() {
return y1+h();
}
final SSI get(){ return toSSI(); }
SSI toSSI() {
int h = h();
var ssi = new SSI(y1, y2());
copyAbstractSSI(ssi);
int[] left = leftCurve.rounded();
int[] right = rightCurve.rounded();
for (int y = 0; y < h; y++)
ssi.set(y1+y, x1+left[y], x1+right[y]);
return ssi;
}
public void drawOn(Graphics2D g) {
toSSI().drawOn(g);
}
// How many points define the shape of this vector SSI
// (left + right border)
int nPoints() {
return leftCurve.nPillars() + rightCurve.nPillars();
}
public long sizeInInts() {
// "v", color, x1, y1, height(), leftCurve, rightCurve
return 5+leftCurve.nInts/*_withoutFirstAndLastIndex*/()+rightCurve.nInts/*_withoutFirstAndLastIndex*/();
}
// TODO
/*VectorSSI reduceToInts(int ints) {
ints -= 5; // constant part
int nPillars = ints/2; // max pillars we can afford (left+right)
}*/
// optimizable
public Rect bounds_cache;
public Rect bounds() { if (bounds_cache == null) bounds_cache = bounds_load(); return bounds_cache;}
public Rect bounds_load() {
return toSSI().bounds();
}
public Integer numberOfPixels_cache;
public int numberOfPixels() { if (numberOfPixels_cache == null) numberOfPixels_cache = numberOfPixels_load(); return numberOfPixels_cache;}
public Integer numberOfPixels_load() {
return toSSI().numberOfPixels();
}
public void readWrite(StringHead head) {
head.exchangeLine(() -> toLine(), __1 -> fromLine(__1));
}
String toLine() {
List elements = ll("v", colorToString(), x1, y1, height());
addAll(elements, asList(iroundAll(leftCurve.indicesAndValues/*_withoutFirstAndLastIndex*/())));
addAll(elements, asList(iroundAll(rightCurve.indicesAndValues/*_withoutFirstAndLastIndex*/())));
return spaceCombine(elements);
}
void fromLine(String line) {
Iterator it = splitAtSpaceIterator(line);
assertEquals("v", nextFromIterator(it));
x1 = toShort_enforce(parseInt(nextFromIterator(it)));
y1 = toShort_enforce(parseInt(nextFromIterator(it)));
// TODO
/*int h = parseInt(nextFromIterator(it));
init(y1, y1+h);
for i over data:
data[i] = toX(parseInt(nextFromIterator(it)));*/
}
}
abstract static class AbstractSSI implements G2Drawable, HasBounds, SizeInInts, StringIO, INumberOfPixels {
AbstractSSI() {}
// Color in 15 bit
final public AbstractSSI setHi15color(short hi15color){ return hi15color(hi15color); }
public AbstractSSI hi15color(short hi15color) { this.hi15color = hi15color; return this; } final public short getHi15color(){ return hi15color(); }
public short hi15color() { return hi15color; }
short hi15color;
Color color() {
return main.hi15color(hi15color);
}
AbstractSSI color(Color color) {
return hi15color(colorToHi15(color));
}
String colorToString() {
return lower(colorToHex(color()));
}
final SSI render(){ return toSSI(); }
abstract SSI toSSI();
void copyAbstractSSI(AbstractSSI dest) {
dest.hi15color(hi15color);
}
double compressibility() {
return doubleRatio(numberOfPixels(), sizeInInts());
}
AbstractSSI reduceToInts(int ints) {
return null;
}
}
interface StringIO {
void readWrite(StringHead head);
default String saveToString() { return saveToString(new StringHead()); }
default String saveToString(StringHead head) {
var writer = stringWriter();
head.writer(writer);
readWrite(head);
head.finish();
return str(writer);
}
default File saveToTextFile(File file) {
Writer out = bufferedFileWriter(file); try {
var head = new StringHead(out);
readWrite(head);
head.finish();
return file;
} finally { _close(out); }}
default StringIO fromString(String data){ return load(data); }
default StringIO load(String data) {
readWrite(new StringHead(stringReader(data)));
return this;
}
default StringIO loadTextFile(File file) {
var in = bufferedReader(file); try {
readWrite(new StringHead(in));
return this;
} finally { _close(in); }}
}
// TODO: base on AbstractList to speed up subList().clear()
// Note: We just assume the wrapped list is RandomAccess;
// technically we should have 2 separate classes.
abstract static class NotifyingList extends NotifyingCollection implements List , RandomAccess {
List list;
NotifyingList() {} // for persistence
NotifyingList(List list) {
super(list);
this.list = list;
}
public List subList(int i, int j) { throw todo(); }
protected void setInnerList(List list) {
c = this.list = list;
}
void init() { setInnerList(new ArrayList()); }
void initAndAddAll(Collection l) { init(); addAll(l); }
public boolean equals(Object o) {
if (this == o)
return true;
synchronized (this) {return list.equals(o);}
}
public int hashCode() {
synchronized (this) {return list.hashCode();}
}
public A get(int index) {
synchronized (this) {return list.get(index);}
}
public A set(int index, A element) {
synchronized (this) { beforeChange(); A a = list.set(index, element); change(); return a; }
}
public void add(int index, A element) {
synchronized (this) { beforeChange(); list.add(index, element);} change();
}
public A remove(int index) {
A e;
synchronized (this) { beforeChange(); e = list.remove(index); }
change();
return e;
}
public int indexOf(Object o) {
synchronized (this) {return list.indexOf(o);}
}
public int lastIndexOf(Object o) {
synchronized (this) {return list.lastIndexOf(o);}
}
public boolean addAll(int index, Collection extends A> c) {
synchronized (this) { beforeChange(); if (!list.addAll(index, c)) return false;} change(); return true;
}
public ListIterator listIterator() {
return list.listIterator(); // doesn't implement all methods
}
public ListIterator listIterator(int index) {
return list.listIterator(index); // doesn't implement all methods
}
/*public void replaceAll(UnaryOperator operator) {
synchronized (this) {list.replaceAll(operator);}
}*/
public void sort(Comparator super A> c) {
synchronized (this) { beforeChange(); list.sort(c);} change();
}
}
// In the newest pinging system (with flag PingV3), a ping source
// is the object that "allows" some code to run.
// When that code calls ping(), the ping source's action (if defined)
// is triggered.
// This allows randomly interrupting code execution, for example.
static class PingSource {
// returns true if it slept
final public PingSource setAction(IF0 action){ return action(action); }
public PingSource action(IF0 action) { this.action = action; return this; } final public IF0 getAction(){ return action(); }
public IF0 action() { return action; }
volatile IF0 action;
// optional description of this ping source
String text;
// optional thread pool that this ping source likes to run in
ThreadPool threadPool;
PingSource() {}
PingSource(ThreadPool threadPool) {
this.threadPool = threadPool;}
PingSource(ThreadPool threadPool, String text) {
this.text = text;
this.threadPool = threadPool;}
PingSource(IF0 action) {
this.action = action;}
// returns true if it slept
final boolean get() {
var a = action;
return a != null && a.get();
}
final void ping() {
var a = action;
if (a != null) a.get();
}
void cancel() {
action = new Cancelled();
}
class Cancelled implements IF0 {
public Boolean get() { throw new PingSourceCancelledException(PingSource.this); }
}
class Encapsulated implements Runnable , IFieldsToList{
Runnable r;
Encapsulated() {}
Encapsulated(Runnable r) {
this.r = r;}public Object[] _fieldsToList() { return new Object[] {r}; }
public void run() { try {
//System.out.println("Encapsulated running: " + r);
try {
pingSource_tl().set(PingSource.this);
//System.out.println("Ping source set");
ping();
r.run();
//System.out.println("Done running");
} finally {
//System.out.println("Finally");
pingSource_tl().set(null);
}
} catch (Exception __e) { throw rethrow(__e); } }
public String toString() { return PingSource.this + ": " + r; }
}
void dO(Runnable r) {
if (r == null) return;
threadPool.acquireThreadOrQueue(new Encapsulated(r));
}
public String toString() { String t = text; return nempty(t) ? t : super.toString(); }
ISleeper_v2 sleeper() { return threadPool.sleeper(); }
}
// records its full size (total value count) in a field now
static class MultiMap implements IMultiMap {
Map > data = new HashMap >();
int fullSize;
MultiMap() {}
MultiMap(boolean useTreeMap) { if (useTreeMap) data = new TreeMap(); }
MultiMap(MultiMap map) { putAll(map); }
MultiMap(Map > data) {
this.data = data;}
void put(A key, B value) { synchronized(data) {
List list = data.get(key);
if (list == null)
data.put(key, list = _makeEmptyList());
list.add(value);
++fullSize;
}}
void add(A key, B value) { put(key, value); }
void addAll(A key, Collection values) { putAll(key, values); }
void addAllIfNotThere(A key, Collection values) { synchronized(data) {
for (B value : values)
setPut(key, value);
}}
void setPut(A key, B value) { synchronized(data) {
if (!containsPair(key, value))
put(key, value);
}}
boolean containsPair(A key, B value) { synchronized(data) {
return get(key).contains(value);
}}
void putAll(Collection keys, B value) { synchronized(data) {
for (A key : unnullForIteration(keys))
put(key, value);
}}
void putAll(A key, Collection values) { synchronized(data) {
if (nempty(values)) getActual(key).addAll(values);
}}
void putAll(Iterable> pairs) { synchronized(data) {
for (Pair p : unnullForIteration(pairs))
put(p.a, p.b);
}}
void removeAll(A key, Collection values) { synchronized(data) {
for (B value : values)
remove(key, value);
}}
public List get(A key) { synchronized(data) {
List list = data.get(key);
return list == null ? Collections. emptyList() : list;
}}
List getOpt(A key) { synchronized(data) {
return data.get(key);
}}
List getAndClear(A key) { synchronized(data) {
List l = cloneList(data.get(key));
remove(key);
return l;
}}
// returns actual mutable live list
// creates the list if not there
List getActual(A key) { synchronized(data) {
List list = data.get(key);
if (list == null)
data.put(key, list = _makeEmptyList());
return list;
}}
void clean(A key) { synchronized(data) {
List list = data.get(key);
if (list != null && list.isEmpty()) {
fullSize -= l(list);
data.remove(key);
}
}}
final public Set keys(){ return keySet(); }
public Set keySet() { synchronized(data) {
return data.keySet();
}}
void remove(A key) { synchronized(data) {
fullSize -= l(this.getOpt(key));
data.remove(key);
}}
final void remove(Pair p){ removePair(p); }
void removePair(Pair p) {
if (p != null) remove(p.a, p.b);
}
void remove(A key, B value) { synchronized(data) {
List list = data.get(key);
if (list != null) {
if (list.remove(value))
fullSize--;
if (list.isEmpty())
data.remove(key);
}
}}
void clear() { synchronized(data) {
data.clear();
}}
boolean containsKey(A key) { synchronized(data) {
return data.containsKey(key);
}}
B getFirst(A key) { synchronized(data) {
List list = get(key);
return list.isEmpty() ? null : list.get(0);
}}
void addAll(MultiMap map) { putAll(map); }
void putAll(MultiMap map) { synchronized(data) {
for (A key : map.keySet())
putAll(key, map.get(key));
}}
void putAll(Map map) { synchronized(data) {
if (map != null) for (Map.Entry e : map.entrySet())
put(e.getKey(), e.getValue());
}}
final public int keyCount(){ return keysSize(); }
public int keysSize() { synchronized(data) { return l(data); }}
final public int fullSize(){ return size(); }
public int size() { synchronized(data) {
return fullSize;
}}
// expensive operation
List reverseGet(B b) { synchronized(data) {
List l = new ArrayList();
for (A key : data.keySet())
if (data.get(key).contains(b))
l.add(key);
return l;
}}
Map > asMap() { synchronized(data) {
return cloneMap(data);
}}
boolean isEmpty() { synchronized(data) { return data.isEmpty(); }}
// override in subclasses
List _makeEmptyList() {
return new ArrayList();
}
// returns live lists
Collection> allLists() {
synchronized(data) {
return new ArrayList(data.values());
}
}
Collection> values() { return allLists(); }
List allValues() {
return concatLists(data.values());
}
Object mutex() { return data; }
public String toString() { return "mm" + str(data); }
}
// NotifyingList is our new go-to way to wrap a list
// with additional functions.
static class SSIList extends NotifyingList implements ByteIO {
SSIList() { init(); }
SSIList(Collection l) { initAndAddAll(l); }
public void readWrite(ByteHead head) {
head.exchangeInt(() -> size(), size -> addAll(repF(size, () -> new SSI())));
head.exchangeAll(this);
}
BufferedImage render(WidthAndHeight size) {
return renderAll(this, size);
}
BufferedImage render(BufferedImage canvas) {
return renderAll(this, canvas);
}
BufferedImage renderOutlines(WidthAndHeight size) {
return main.render(size, g -> {
g.setColor(Color.black);
for (var ssi : this) ssi.drawOutline(g);
});
}
}
/*
* @(#)WeakHashMap.java 1.5 98/09/30
*
* Copyright 1998 by Sun Microsystems, Inc.,
* 901 San Antonio Road, Palo Alto, California, 94303, U.S.A.
* All rights reserved.
*
* This software is the confidential and proprietary information
* of Sun Microsystems, Inc. ("Confidential Information"). You
* shall not disclose such Confidential Information and shall use
* it only in accordance with the terms of the license agreement
* you entered into with Sun.
*/
// From https://github.com/mernst/plume-lib/blob/df0bfafc3c16848d88f4ea0ef3c8bf3367ae085e/java/src/plume/WeakHasherMap.java
static final class WeakHasherMap extends AbstractMap implements Map {
private Hasher hasher = null;
/*@Pure*/
private boolean keyEquals(Object k1, Object k2) {
return (hasher==null ? k1.equals(k2)
: hasher.equals(k1, k2));
}
/*@Pure*/
private int keyHashCode(Object k1) {
return (hasher==null ? k1.hashCode()
: hasher.hashCode(k1));
}
// The WeakKey class can't be static because it depends on the hasher.
// That in turn means that its methods can't be static.
// However, I need to be able to call the methods such as create() that
// were static in the original version of this code.
// This finesses that.
private /*@Nullable*/ WeakKey WeakKeyCreate(K k) {
if (k == null) return null;
else return new WeakKey(k);
}
private /*@Nullable*/ WeakKey WeakKeyCreate(K k, ReferenceQueue super K> q) {
if (k == null) return null;
else return new WeakKey(k, q);
}
// Cannot be a static class: uses keyHashCode() and keyEquals()
private final class WeakKey extends WeakReference {
private int hash; /* Hashcode of key, stored here since the key
may be tossed by the GC */
private WeakKey(K k) {
super(k);
hash = keyHashCode(k);
}
private /*@Nullable*/ WeakKey create(K k) {
if (k == null) return null;
else return new WeakKey(k);
}
private WeakKey(K k, ReferenceQueue super K> q) {
super(k, q);
hash = keyHashCode(k);
}
private /*@Nullable*/ WeakKey create(K k, ReferenceQueue super K> q) {
if (k == null) return null;
else return new WeakKey(k, q);
}
/* A WeakKey is equal to another WeakKey iff they both refer to objects
that are, in turn, equal according to their own equals methods */
/*@Pure*/
@Override
public boolean equals(/*@Nullable*/ Object o) {
if (o == null) return false; // never happens
if (this == o) return true;
// This test is illegal because WeakKey is a generic type,
// so use the getClass hack below instead.
// if (!(o instanceof WeakKey)) return false;
if (!(o.getClass().equals(WeakKey.class))) return false;
Object t = this.get();
@SuppressWarnings("unchecked")
Object u = ((WeakKey)o).get();
if ((t == null) || (u == null)) return false;
if (t == u) return true;
return keyEquals(t, u);
}
/*@Pure*/
@Override
public int hashCode() {
return hash;
}
}
/* Hash table mapping WeakKeys to values */
private HashMap hash;
/* Reference queue for cleared WeakKeys */
private ReferenceQueue super K> queue = new ReferenceQueue();
/* Remove all invalidated entries from the map, that is, remove all entries
whose keys have been discarded. This method should be invoked once by
each public mutator in this class. We don't invoke this method in
public accessors because that can lead to surprising
ConcurrentModificationExceptions. */
@SuppressWarnings("unchecked")
private void processQueue() {
WeakKey wk;
while ((wk = (WeakKey)queue.poll()) != null) { // unchecked cast
hash.remove(wk);
}
}
/* -- Constructors -- */
/**
* Constructs a new, empty WeakHashMap with the given
* initial capacity and the given load factor.
*
* @param initialCapacity the initial capacity of the
* WeakHashMap
*
* @param loadFactor the load factor of the WeakHashMap
*
* @throws IllegalArgumentException If the initial capacity is less than
* zero, or if the load factor is
* nonpositive
*/
public WeakHasherMap(int initialCapacity, float loadFactor) {
hash = new HashMap(initialCapacity, loadFactor);
}
/**
* Constructs a new, empty WeakHashMap with the given
* initial capacity and the default load factor, which is
* 0.75.
*
* @param initialCapacity the initial capacity of the
* WeakHashMap
*
* @throws IllegalArgumentException If the initial capacity is less than
* zero
*/
public WeakHasherMap(int initialCapacity) {
hash = new HashMap(initialCapacity);
}
/**
* Constructs a new, empty WeakHashMap with the default
* capacity and the default load factor, which is 0.75.
*/
public WeakHasherMap() {
hash = new HashMap();
}
/**
* Constructs a new, empty WeakHashMap with the default
* capacity and the default load factor, which is 0.75.
* The WeakHashMap uses the specified hasher for hashing
* keys and comparing them for equality.
* @param h the Hasher to use when hashing values for this map
*/
public WeakHasherMap(Hasher h) {
hash = new HashMap();
hasher = h;
}
/* -- Simple queries -- */
/**
* Returns the number of key-value mappings in this map.
* Note: In contrast to most implementations of the
* Map interface, the time required by this operation is
* linear in the size of the map.
*/
/*@Pure*/
@Override
public int size() {
return entrySet().size();
}
/**
* Returns true if this map contains no key-value mappings.
*/
/*@Pure*/
@Override
public boolean isEmpty() {
return entrySet().isEmpty();
}
/**
* Returns true if this map contains a mapping for the
* specified key.
*
* @param key the key whose presence in this map is to be tested
*/
/*@Pure*/
@Override
public boolean containsKey(Object key) {
@SuppressWarnings("unchecked")
K kkey = (K) key;
return hash.containsKey(WeakKeyCreate(kkey));
}
/* -- Lookup and modification operations -- */
/**
* Returns the value to which this map maps the specified key.
* If this map does not contain a value for this key, then return
* null.
*
* @param key the key whose associated value, if any, is to be returned
*/
/*@Pure*/
@Override
public /*@Nullable*/ V get(Object key) { // type of argument is Object, not K
@SuppressWarnings("unchecked")
K kkey = (K) key;
return hash.get(WeakKeyCreate(kkey));
}
/**
* Updates this map so that the given key maps to the given
* value. If the map previously contained a mapping for
* key then that mapping is replaced and the previous value is
* returned.
*
* @param key the key that is to be mapped to the given
* value
* @param value the value to which the given key is to be
* mapped
*
* @return the previous value to which this key was mapped, or
* null if if there was no mapping for the key
*/
@Override
public V put(K key, V value) {
processQueue();
return hash.put(WeakKeyCreate(key, queue), value);
}
/**
* Removes the mapping for the given key from this map, if
* present.
*
* @param key the key whose mapping is to be removed
*
* @return the value to which this key was mapped, or null if
* there was no mapping for the key
*/
@Override
public V remove(Object key) { // type of argument is Object, not K
processQueue();
@SuppressWarnings("unchecked")
K kkey = (K) key;
return hash.remove(WeakKeyCreate(kkey));
}
/**
* Removes all mappings from this map.
*/
@Override
public void clear() {
processQueue();
hash.clear();
}
/* -- Views -- */
/* Internal class for entries */
// This can't be static, again because of dependence on hasher.
@SuppressWarnings("TypeParameterShadowing")
private final class Entry implements Map.Entry {
private Map.Entry ent;
private K key; /* Strong reference to key, so that the GC
will leave it alone as long as this Entry
exists */
Entry(Map.Entry ent, K key) {
this.ent = ent;
this.key = key;
}
/*@Pure*/
@Override
public K getKey() {
return key;
}
/*@Pure*/
@Override
public V getValue() {
return ent.getValue();
}
@Override
public V setValue(V value) {
return ent.setValue(value);
}
/*@Pure*/
private boolean keyvalEquals(K o1, K o2) {
return (o1 == null) ? (o2 == null) : keyEquals(o1, o2);
}
/*@Pure*/
private boolean valEquals(V o1, V o2) {
return (o1 == null) ? (o2 == null) : o1.equals(o2);
}
/*@Pure*/
@SuppressWarnings("NonOverridingEquals")
public boolean equals(Map.Entry e /* Object o*/) {
// if (! (o instanceof Map.Entry)) return false;
// Map.Entry e = (Map.Entry)o;
return (keyvalEquals(key, e.getKey())
&& valEquals(getValue(), e.getValue()));
}
/*@Pure*/
@Override
public int hashCode() {
V v;
return (((key == null) ? 0 : keyHashCode(key))
^ (((v = getValue()) == null) ? 0 : v.hashCode()));
}
}
/* Internal class for entry sets */
private final class EntrySet extends AbstractSet> {
Set> hashEntrySet = hash.entrySet();
@Override
public Iterator> iterator() {
return new Iterator>() {
Iterator> hashIterator = hashEntrySet.iterator();
Map.Entry next = null;
@Override
public boolean hasNext() {
while (hashIterator.hasNext()) {
Map.Entry ent = hashIterator.next();
WeakKey wk = ent.getKey();
K k = null;
if ((wk != null) && ((k = wk.get()) == null)) {
/* Weak key has been cleared by GC */
continue;
}
next = new Entry(ent, k);
return true;
}
return false;
}
@Override
public Map.Entry next() {
if ((next == null) && !hasNext())
throw new NoSuchElementException();
Map.Entry e = next;
next = null;
return e;
}
@Override
public void remove() {
hashIterator.remove();
}
};
}
/*@Pure*/
@Override
public boolean isEmpty() {
return !(iterator().hasNext());
}
/*@Pure*/
@Override
public int size() {
int j = 0;
for (Iterator> i = iterator(); i.hasNext(); i.next()) j++;
return j;
}
@Override
public boolean remove(Object o) {
processQueue();
if (!(o instanceof Map.Entry,?>)) return false;
@SuppressWarnings("unchecked")
Map.Entry e = (Map.Entry)o; // unchecked cast
Object ev = e.getValue();
WeakKey wk = WeakKeyCreate(e.getKey());
Object hv = hash.get(wk);
if ((hv == null)
? ((ev == null) && hash.containsKey(wk)) : hv.equals(ev)) {
hash.remove(wk);
return true;
}
return false;
}
/*@Pure*/
@Override
public int hashCode() {
int h = 0;
for (Iterator> i = hashEntrySet.iterator(); i.hasNext(); ) {
Map.Entry ent = i.next();
WeakKey wk = ent.getKey();
Object v;
if (wk == null) continue;
h += (wk.hashCode()
^ (((v = ent.getValue()) == null) ? 0 : v.hashCode()));
}
return h;
}
}
private /*@Nullable*/ Set> entrySet = null;
/**
* Returns a Set view of the mappings in this map.
*/
/*@SideEffectFree*/
@Override
public Set> entrySet() {
if (entrySet == null) entrySet = new EntrySet();
return entrySet;
}
// find matching key
K findKey(Object key) {
processQueue();
K kkey = (K) key;
// TODO: use replacement for HashMap to avoid reflection
WeakKey wkey = WeakKeyCreate(kkey);
WeakKey found = hashMap_findKey(hash, wkey);
return found == null ? null : found.get();
}
}
interface G2Drawable {
void drawOn(Graphics2D g);
default void drawOn(BufferedImage img) {
drawOn(img.createGraphics());
}
}
static class Pair implements Comparable> {
final public Pair setA(A a){ return a(a); }
public Pair a(A a) { this.a = a; return this; } final public A getA(){ return a(); }
public A a() { return a; }
A a;
final public Pair setB(B b){ return b(b); }
public Pair b(B b) { this.b = b; return this; } final public B getB(){ return b(); }
public B b() { return b; }
B b;
Pair() {}
Pair(A a, B b) {
this.b = b;
this.a = a;}
public int hashCode() {
return hashCodeFor(a) + 2*hashCodeFor(b);
}
public boolean equals(Object o) {
if (o == this) return true;
if (!(o instanceof Pair)) return false;
Pair t = (Pair) o;
return eq(a, t.a) && eq(b, t.b);
}
public String toString() {
return "<" + a + ", " + b + ">";
}
public int compareTo(Pair p) {
if (p == null) return 1;
int i = ((Comparable ) a).compareTo(p.a);
if (i != 0) return i;
return ((Comparable) b).compareTo(p.b);
}
}
static class Fail extends RuntimeException implements IFieldsToList{
Object[] objects;
Fail() {}
Fail(Object... objects) {
this.objects = objects;}public Object[] _fieldsToList() { return new Object[] {objects}; }
Fail(Throwable cause, Object... objects) {
super(cause);
this.objects = objects;
}
public String toString() { return joinNemptiesWithColon("Fail", getMessage()); }
public String getMessage() { return commaCombine(getCause(), objects); }
}
static class Percent implements IFieldsToList{
double percent;
Percent() {}
Percent(double percent) {
this.percent = percent;}
public boolean equals(Object o) {
if (!(o instanceof Percent)) return false;
Percent __1 = (Percent) o;
return percent == __1.percent;
}
public int hashCode() {
int h = 985725989;
h = boostHashCombine(h, _hashCode(percent));
return h;
}
public Object[] _fieldsToList() { return new Object[] {percent}; }
void set(double percent) { percent = percent; }
double get() { return percent; }
public String toString() {
return percent + " %";
}
final String withDecimals(int decimals){ return renderWithDecimals(decimals); }
String renderWithDecimals(int decimals) {
return formatDouble(percent, decimals) + " %";
}
String withExactDecimals(int decimals) {
return formatDoubleX(percent, decimals) + " %";
}
String oneDecimal() { return withDecimals(1); }
String exactlyOneDecimal() { return withExactDecimals(1); }
static Percent ratio(double x, double y) {
return new Percent(doubleRatio(x, y)*100);
}
}
// SSI - Simple Scanline Image
// A partial image consisting of exactly one horizontal line per row.
// All pixels are of the same color.
// The important values are y1 and data
static class SSI extends AbstractSSI implements ByteIO, StringIO {
SSI() {}
// core value (mandatory): first row occupied
final public SSI setY1(short y1){ return y1(y1); }
public SSI y1(short y1) { this.y1 = y1; return this; } final public short getY1(){ return y1(); }
public short y1() { return y1; }
short y1;
// core value (mandatory): x coordinates per row
// x_left is inclusive, x_right is exclusive
// all x coordinates are absolute in image
//
// Order in array:
// x_left at y1, x_right at y1,
// x_left at y1+1, x_right at y1+1, ,,,
final public SSI setData(short[] data){ return data(data); }
public SSI data(short[] data) { this.data = data; return this; } final public short[] getData(){ return data(); }
public short[] data() { return data; }
short[] data;
SSI(int y1, int y2) {
init(y1, y2);
}
void init(int y1, int y2) {
this.y1 = toShort_enforce(y1);
data = newShortArrayOrNull((y2-y1)*2);
}
// all coordinates passed in are absolute
void set(int y, int xLeft, int xRight) {
data[(y-y1)*2] = toShort_enforce(xLeft);
data[(y-y1)*2+1] = toShort_enforce(xRight);
}
// all coordinates passed in and out are absolute
int getLeft (int y) { return data[(y-y1)*2]; }
int getRight(int y) { return data[(y-y1)*2+1]; }
// bounds can be calculated quickly from core values & are then cached
public Rect bounds_cache;
public Rect bounds() { if (bounds_cache == null) bounds_cache = bounds_load(); return bounds_cache;}
public Rect bounds_load() {
int x1 = Integer.MAX_VALUE, x2 = 0;
for (int i = 0; i < l(data); i += 2) {
x1 = min(x1, data[i]);
x2 = max(x2, data[i+1]);
}
return rectFromPoints(x1, y1, x2, y2());
}
// same with number of pixels
int numberOfPixels_cache = -1;
public int numberOfPixels() {
if (numberOfPixels_cache < 0) {
int n = 0;
for (int i = 0; i < l(data); i += 2)
n += max(0, data[i+1]-data[i]);
numberOfPixels_cache = n;
}
return numberOfPixels_cache;
}
public int getHeight() { return l(data)/2; }
int y2() { return y1+height(); }
public boolean contains(Pt p) { return contains(p.x, p.y); }
public boolean contains(int x, int y) {
if (y < y1) return false;
int i = (y-y1)*2;
if (i >= l(data)) return false;
return x >= data[i] && x < data[i+1];
}
SSI color(Color color) { super.color(color); return this; }
public SSI hi15color(short hi15color) { super.hi15color(hi15color); return this; }
public void drawOn(Graphics2D g) {
g.setColor(color());
int h = height();
for (int y = 0; y < h; y++) {
int x1 = data[y*2], x2 = data[y*2+1];
if (x1 < x2)
g.drawLine(x1, y1+y, x2-1, y1+y);
}
}
// doesn't set a color
// TODO
public void drawOutline(Graphics2D g) {
int h = height();
IntRange last = intRange(0, 0);
for (int y = 0; y < h; y++) {
IntRange r = intRange(data[y*2], data[y*2+1]);
// anything to draw in this line?
if (nempty(r)) {
if (empty(last))
// draw full line if just starting
g.drawLine(r.start, y1+y, r.end-1, y1+y);
else {
// We make a line from the left boundary that if possible goes only to last.start but is at least 1 pixel wide
int xleft = max(r.start, last.start-1);
// Same from the right boundary
int xright = min(r.end-1, last.end);
g.drawLine(r.start, y1+y, xleft, y1+y);
g.drawLine(xright, y1+y, r.end-1, y1+y);
}
}
last = r;
}
}
SSI topPart(int nLines) {
if (nLines <= 0) return null;
SSI ssi = new SSI(y1, toShort_enforce(y1+nLines)).hi15color(hi15color);
arrayCopy(data, ssi.data, 0, l(ssi.data));
return ssi;
}
// an SSI is coherent if all scanlines are non-empty
// and the SSI is one region
boolean coherent() { return coherent(false); }
boolean coherent(boolean withDiagonals) {
int h = height();
for (int y = 0; y < h; y++) {
int i = y*2;
int x1 = data[i], x2 = data[i+1];
if (x1 >= x2) return false;
if (y > 0) {
int lastx1 = data[i-2], lastx2 = data[i-1];
if (withDiagonals) { lastx1--; lastx2++; }
if (!intRangesOverlap(x1, x2, lastx1, lastx2))
return false;
}
}
return true;
}
public void readWrite(ByteHead head) {
head.exchangeShort(() -> hi15color, color -> hi15color = color);
head.exchangeShort(() -> y1, y1 -> this.y1 = y1);
head.exchangeShort(() -> toShort_enforce(y2()), y2 -> init(y1, y2));
for (int i = 0; i < l(data); i++) {
var _i_2 = i;
head.exchangeShort(() -> data[_i_2], x -> data[_i_2] = x);
}
}
SSI toSSI() { return this; }
public long sizeInInts() {
// "s", color, y1, height, data
return 4+height()*2;
}
SSI reduceToInts(int ints) {
return topPart((ints-4)/2);
}
public void readWrite(StringHead head) {
head.exchangeLine(() -> toLine(), __1 -> fromLine(__1));
}
String toLine() {
return spaceCombine("s", colorToString(), y1, height(), toList(data));
}
void fromLine(String line) {
Iterator it = splitAtSpaceIterator(line);
assertEquals("s", nextFromIterator(it));
int y1 = parseInt(nextFromIterator(it));
int h = parseInt(nextFromIterator(it));
init(y1, y1+h);
for (int i = 0; i < l(data); i++)
data[i] = toShort_enforce(parseInt(nextFromIterator(it)));
}
}
static class BufferedImageWithMeta extends BufferedImage implements IMeta {
BufferedImageWithMeta(ColorModel cm,
WritableRaster raster,
boolean isRasterPremultiplied,
Hashtable,?> properties) {
super(cm, raster, isRasterPremultiplied, properties);
}
// Meta - a "minimal" approach to adding meta-level to Java objects
// (implementing the interface IMeta)
// We allocate one extra field for each Java object to make it
// reasoning-compatible (reasoning-compatible = extensible with
// fields of any name at runtime).
//
// We couldn't go for 0 extra fields (meta values must be linked
// directly from the object) and there are no half fields in
// Java... so there you go.
//
// Also, if you don't use any meta data, you are probably not
// reasoning about anything. The point of reasoning in JavaX is
// to attach information to objects directly used in the program.
// Possible information contained in the meta field:
// Origin, destination, security level, sender, cost center,
// purpose, list of reifications, ...
// So here it is. THE FIELD YOU HAVE BEEN WAITING FOR!
// [We also have IMeta to retrofit foreign classes (rare but
// probably useful).]
//////////////////////
// The "meta" field //
//////////////////////
// Generic meta value of any kind, but the typical case is it's a
// Map with extra field values for the object etc.
// "meta" is volatile to avoid synchronization; but you can also synchronize on
// _tempMetaMutex() which is usually the object itself. Collections
// and maps are exempt from using the collections's monitor as the meta
// mutex because their monitor tends to be held for long operations
// (e.g. cloneList). For those we use a substantially more complex
// algorithm using a weakMap. Probably overkill. I may reconsider.
volatile Object meta;
// The meta field is not transient, thus by default it will be
// persisted like anything else unless you customize your object
// to suppress or modulate this.
// ...and the interface methods
public void _setMeta(Object meta) { this.meta = meta; }
public Object _getMeta() { return meta; }
// MOST functions are implemented in IMeta (default implementations)
// Scaffolding convenience functions
final boolean scaffolding(){ return scaffoldingEnabled(); }
boolean scaffoldingEnabled() { return main.scaffoldingEnabled(this); }
boolean scaffoldingEnabled(Object o) { return main.scaffoldingEnabled(o); }
}
static abstract class F0 {
abstract A get();
}
static abstract class F1 {
abstract B get(A a);
}
// you still need to implement hasNext() and next()
static abstract class IterableIterator implements Iterator , Iterable {
public Iterator iterator() {
return this;
}
public void remove() {
unsupportedOperation();
}
}
public static interface IF0 {
A get();
}
static interface Hasher {
int hashCode(A a);
boolean equals(A a, A b);
}
static interface IF2 {
C get(A a, B b);
}
static interface IF1 {
B get(A a);
}
static class StringHead implements Closeable {
final public StringHead setReadMode(boolean readMode){ return readMode(readMode); }
public StringHead readMode(boolean readMode) { this.readMode = readMode; return this; } final public boolean getReadMode(){ return readMode(); }
public boolean readMode() { return readMode; }
boolean readMode = false;
final public StringHead setWriteMode(boolean writeMode){ return writeMode(writeMode); }
public StringHead writeMode(boolean writeMode) { this.writeMode = writeMode; return this; } final public boolean getWriteMode(){ return writeMode(); }
public boolean writeMode() { return writeMode; }
boolean writeMode = false;
final public BufferedReader getReader(){ return reader(); }
public BufferedReader reader() { return reader; }
BufferedReader reader;
final public Writer getWriter(){ return writer(); }
public Writer writer() { return writer; }
Writer writer;
StringHead() {}
StringHead(Reader reader) { reader(reader); }
StringHead(Writer writer) { writer(writer); }
StringHead reader(Reader reader) {
this.reader = bufferedReader(reader);
readMode(true);
return this;
}
StringHead writer(Writer writer) { this.writer = writer; writeMode(true); return this; }
void finish() {}
String readLine() {
String line = readLineFromReader(reader);
if (line == null) close();
return line;
}
void writeLine(String line) { try {
writer.write(line);
writer.write('\n');
} catch (Exception __e) { throw rethrow(__e); } }
void exchangeLine(IF0 getter, IVF1 setter) {
if (writeMode())
writeLine(getter.get());
if (readMode())
setter.get(readLine());
}
public void close() { try {
{ cleanUp(reader); reader = null; }
{ cleanUp(writer); writer = null; }
} catch (Exception __e) { throw rethrow(__e); } }
void exchange(StringIO writable) {
if (writable != null) writable.readWrite(this);
}
void exchangeAll(Iterable extends StringIO> writables) {
if (writables != null)
for (var writable : writables)
exchange(writable);
}
}
static class PersistableThrowable extends DynamicObject {
String className;
String msg;
String stacktrace;
PersistableThrowable() {}
PersistableThrowable(Throwable e) {
if (e == null)
className = "Crazy Null Error";
else {
className = getClassName(e).replace('/', '.');
msg = e.getMessage();
stacktrace = getStackTrace_noRecord(e);
}
}
public String toString() {
return nempty(msg) ? className + ": " + msg : className;
}
RuntimeException asRuntimeException() {
return new Fail(this);
}
}
static interface IVF1 {
void get(A a);
}
static interface WidthAndHeight {
default int w(){ return getWidth(); }
default int width(){ return getWidth(); }
int getWidth();
default int h(){ return getHeight(); }
default int height(){ return getHeight(); }
int getHeight();
public default Rect bounds() { return rect(0, 0, getWidth(), getHeight()); }
default int area() { return toInt(areaAsLong()); }
default long areaAsLong() { return longMul(w(), h()); }
}
static class NotifyingCollection extends AbstractCollection implements Collection {
Collection c; // Backing Collection
NotifyingCollection() {} // for persistence
NotifyingCollection(Collection c) {
this.c = c;}
public int size() {
synchronized (this) {return c.size();}
}
public boolean isEmpty() {
synchronized (this) {return c.isEmpty();}
}
public boolean contains(Object o) {
synchronized (this) {return c.contains(o);}
}
public Object[] toArray() {
synchronized (this) {return c.toArray();}
}
public T[] toArray(T[] a) {
synchronized (this) {return c.toArray(a);}
}
public Iterator iterator() {
return c.iterator(); // caller should not use Iterator.remove()
}
public boolean add(E e) {
synchronized (this) { beforeChange(); if (!c.add(e)) return false; } change(); return true;
}
public boolean remove(Object o) {
synchronized (this) { beforeChange(); if (!c.remove(o)) return false;} change(); return true;
}
public boolean containsAll(Collection> coll) {
synchronized (this) {return c.containsAll(coll);}
}
public boolean addAll(Collection extends E> coll) {
synchronized (this) { beforeChange(); if (!c.addAll(coll)) return false;} change(); return true;
}
public boolean removeAll(Collection> coll) {
synchronized (this) { beforeChange(); if (!c.removeAll(coll)) return false;} change(); return true;
}
public boolean retainAll(Collection> coll) {
synchronized (this) { beforeChange(); if (!c.retainAll(coll)) return false;} change(); return true;
}
public void clear() {
synchronized (this) { beforeChange(); c.clear();} change();
}
public String toString() {
synchronized (this) {return c.toString();}
}
/*public void forEach(Consumer super E> consumer) {
synchronized (this) {c.forEach(consumer);}
}*/
/*public boolean removeIf(Predicate super E> filter) {
synchronized (this) {return c.removeIf(filter);}
}*/
@Override
public Spliterator spliterator() {
return c.spliterator(); // Must be manually synched by user!
}
/*public Stream stream() {
return c.stream(); // Must be manually synched by user!
}*/
/*public Stream parallelStream() {
return c.parallelStream(); // Must be manually synched by user!
}*/
void beforeChange() {}
void change() {}
Collection unwrap() { return c; }
}
interface SizeInInts {
long sizeInInts();
}
static class Rect implements WidthAndHeight , IFieldsToList{
static final String _fieldOrder = "x y w h";
int x;
int y;
int w;
int h;
Rect() {}
Rect(int x, int y, int w, int h) {
this.h = h;
this.w = w;
this.y = y;
this.x = x;}
public boolean equals(Object o) {
if (!(o instanceof Rect)) return false;
Rect __1 = (Rect) o;
return x == __1.x && y == __1.y && w == __1.w && h == __1.h;
}
public int hashCode() {
int h = 2543108;
h = boostHashCombine(h, _hashCode(x));
h = boostHashCombine(h, _hashCode(y));
h = boostHashCombine(h, _hashCode(w));
h = boostHashCombine(h, _hashCode(h));
return h;
}
public Object[] _fieldsToList() { return new Object[] {x, y, w, h}; }
Rect(Rectangle r) {
x = r.x;
y = r.y;
w = r.width;
h = r.height;
}
Rect(Pt p, int w, int h) {
this.h = h;
this.w = w; x = p.x; y = p.y; }
Rect(Rect r) { x = r.x; y = r.y; w = r.w; h = r.h; }
final Rectangle getRectangle() {
return new Rectangle(x, y, w, h);
}
public String toString() {
return x + "," + y + " / " + w + "," + h;
}
final int x1() { return x; }
final int y1() { return y; }
final int x2() { return x + w; }
final int y2() { return y + h; }
final boolean contains(Pt p) {
return contains(p.x, p.y);
}
final boolean contains(int _x, int _y) {
return _x >= x && _y >= y && _x < x+w && _y < y+h;
}
final boolean contains(Rectangle r) {
return rectContains(this, r);
}
final boolean empty() { return w <= 0 || h <= 0; }
final public int getWidth() { return w; }
final public int getHeight() { return h; }
final public int area() { return w*h; }
WidthAndHeight widthAndHeight() { return main.widthAndHeight(w, h); }
}
static class PingSourceCancelledException extends RuntimeException implements IFieldsToList{
PingSource pingSource;
PingSourceCancelledException() {}
PingSourceCancelledException(PingSource pingSource) {
this.pingSource = pingSource;}
public String toString() { return shortClassName_dropNumberPrefix(this) + "(" + pingSource + ")"; }public Object[] _fieldsToList() { return new Object[] {pingSource}; }
}
static class Pt implements Comparable, IDoublePt {
int x, y;
Pt() {}
Pt(Point p) {
x = p.x;
y = p.y;
}
Pt(int x, int y) {
this.y = y;
this.x = x;}
Point getPoint() {
return new Point(x, y);
}
public boolean equals(Object o) {
return o instanceof Pt && x == ((Pt) o).x && y == ((Pt) o).y;
}
public int hashCode() {
return boostHashCombine(x, y);
}
// compare in scan order
public int compareTo(Pt p) {
if (y != p.y) return cmp(y, p.y);
return cmp(x, p.x);
}
public String toString() {
return x + ", " + y;
}
double length() { return sqrt(x*x+y*y); }
public Pt minus(Pt p) { return ptMinus(this, p); }
public double x_double() { return x; }
public double y_double() { return y; }
}
static interface IMeta {
// see class "Meta" for the bla bla
public void _setMeta(Object meta);
public Object _getMeta();
default public IAutoCloseableF0 _tempMetaMutex() {
return new IAutoCloseableF0() {
public Object get() { return IMeta.this; }
public void close() {}
};
}
// actually query another object
default public Object getMeta(Object obj, Object key){ return metaGet(obj, key); }
default public Object metaGet(Object obj, Object key) {
// call global function
return metaMapGet(obj, key);
}
default public Object metaGet(String key, Object obj) {
// call global function
return metaMapGet(obj, key);
}
default public Object getMeta(Object key){ return metaGet(key); }
default public Object metaGet(Object key) {
if (key == null) return null;
Object meta = _getMeta();
if (meta instanceof Map) return ((Map) meta).get(key);
return null;
}
default public void metaSet(IMeta obj, Object key, Object value){ metaPut(obj, key, value); }
default public void metaPut(IMeta obj, Object key, Object value) {
// call global function
metaMapPut(obj, key, value);
}
default public void metaSet(Object key, Object value){ metaPut(key, value); }
default public void metaPut(Object key, Object value) {
if (key == null) return;
Map map = convertObjectMetaToMap(this);
syncMapPutOrRemove(map, key, value);
}
}
// The idea is to leave max as the actual number of cores the system
// has (numberOfCores()), and in case of being fully booked, raise an
// alert (customerMustWaitAlert) which can be handled by a strategy
// object (different reactions are possible).
// If nothing is done in such an event, clients are processed serially
// (no guarantees of order), split up among the available threads.
/* SYNChronisation order:
1. PooledThread
2. ThreadPool */
static class ThreadPool implements AutoCloseable {
int max = numberOfCores();
List all = new ArrayList();
Set used = new HashSet();
Set free = new HashSet();
boolean verbose, retired;
// our own ping surce so we can start threads & keep them running
class InternalPingSource extends PingSource {}
InternalPingSource internalPingSource = new InternalPingSource();
MultiSleeper sleeper = new MultiSleeper();
ThreadPool() {}
ThreadPool(int max) {
this.max = max;}
synchronized int maxSize() { return max; }
synchronized int total() { return l(used)+l(free); }
transient Set onCustomerMustWaitAlert;
public ThreadPool onCustomerMustWaitAlert(Runnable r) { onCustomerMustWaitAlert = createOrAddToSyncLinkedHashSet(onCustomerMustWaitAlert, r); return this; }
public ThreadPool removeCustomerMustWaitAlertListener(Runnable r) { main.remove(onCustomerMustWaitAlert, r); return this; }
public void customerMustWaitAlert() { if (onCustomerMustWaitAlert != null) for (var listener : onCustomerMustWaitAlert) pcallF_typed(listener); }
void fireCustomerMustWaitAlert() {
vmBus_send("customerMustWaitAlert", this, currentThread());
customerMustWaitAlert();
}
// DOESN'T WAIT. adds action to a thread's queue if nothing is
// available immediately.
PooledThread acquireThreadOrQueue(Runnable action) {
if (action == null) return null;
PooledThread t;
synchronized(this) {
if (_hasFreeAfterCreating()) {
t = _firstFreeThread();
markUsed(t);
} else
t = _anyThread();
}
t.addWork(action); // will move it from free to used
return t;
}
// run in synchronized block
boolean _hasFreeAfterCreating() {
checkNotRetired();
if (nempty(free)) return true;
if (total() < max) {
PooledThread t = newThread();
all.add(t);
free.add(t);
return true;
}
return false;
}
// WAITS until thread is available
PooledThread acquireThreadOrWait(Runnable action) { try {
if (action == null) return null;
PooledThread t;
while (true) {
synchronized(this) {
if (_hasFreeAfterCreating()) {
t = _firstFreeThread();
break;
} else
_waitWaitWait();
}
}
t.addWork(action);
return t;
} catch (Exception __e) { throw rethrow(__e); } }
PooledThread _firstFreeThread() {
return first(free);
}
PooledThread _anyThread() {
return random(used);
}
class PooledThread extends Thread {
PooledThread(String name) { super(name); }
AppendableChain q;
synchronized Runnable _grabWorkOrSleep() { try {
Runnable r = first(q);
if (r == null) {
markFree(this);
if (verbose) print("Thread sleeps");
synchronized(this) { wait(); }
if (verbose) print("Thread woke up");
return null;
}
q = popFirst(q);
return r;
} catch (Exception __e) { throw rethrow(__e); } }
public void run() { try {
pingSource_tl().set(internalPingSource);
while (!retired()) { ping();
Runnable r = _grabWorkOrSleep();
if (verbose) print(this + " work: " + r);
if (r != null)
try {
if (verbose) print(this + " running: " + r);
r.run();
pingSource_tl().set(internalPingSource);
if (verbose) print(this + " done");
} catch (Throwable e) {
pingSource_tl().set(internalPingSource);
if (verbose) print(this + " error");
printStackTrace(e);
} finally {
pingSource_tl().set(internalPingSource);
if (verbose) print("ThreadPool finally");
}
}
} catch (Exception __e) { throw rethrow(__e); } }
synchronized boolean isEmpty() { return empty(q); }
// append to q (do later)
void addWork(Runnable r) {
if (verbose) print("Added work to " + this + ": " + r);
synchronized(this) {
q = chainPlus(q, r);
notifyAll();
}
}
}
PooledThread newThread() {
PooledThread t = new PooledThread("Thread Pool Inhabitant " + n2(total()+1));
t.start();
return t;
}
synchronized void markFree(PooledThread t) {
used.remove(t);
free.add(t);
notifyAll();
}
synchronized void markUsed(PooledThread t) {
free.remove(t);
used.add(t);
}
synchronized public String toString() {
return retired()
? "Retired ThreadPool"
: "ThreadPool " + roundBracket(commaCombine(
n2(used) + " used out of " + n2(total()),
max <= total() ? null : "could grow to " + n2(max)));
}
synchronized boolean retired() { return retired; }
synchronized void retire() {
if (verbose) print("ThreadPool Retiring");
retired = true;
for (var thread : free) syncNotifyAll(thread); // wake it up so it exits
}
void checkNotRetired() {
if (retired()) throw fail("retired");
}
// We could do a soft-close here (stop the idle threads, let running threads finish, then end those too, stop accepting new orders)
// or a hard close (interrupt all threads, stop accepting new orders)
synchronized public void close() { try {
retire();
} catch (Exception __e) { throw rethrow(__e); } }
// run in synchronized block
void _waitWaitWait() { try {
do {
fireCustomerMustWaitAlert();
wait();
checkNotRetired();
} while (empty(free));
} catch (Exception __e) { throw rethrow(__e); } }
void dO(String text, Runnable r) {
if (r == null) return;
new PingSource(this, text).dO(r);
}
ISleeper_v2 sleeper() { return sleeper; }
}
// it's unclear whether the end is inclusive or exclusive
// (usually exclusive I guess)
static class IntRange {
int start, end;
IntRange() {}
IntRange(int start, int end) {
this.end = end;
this.start = start;}
IntRange(IntRange r) { start = r.start; end = r.end; }
public boolean equals(Object o) { return stdEq2(this, o); }
public int hashCode() { return stdHash2(this); }
final int length() { return end-start; }
final boolean empty() { return start >= end; }
final boolean isEmpty() { return start >= end; }
static String _fieldOrder = "start end";
public String toString() { return "[" + start + ";" + end + "]"; }
}
// We use big-endian as DataOutputStream does
static class ByteHead /*is DataOutput*/ {
final public ByteHead setReadMode(boolean readMode){ return readMode(readMode); }
public ByteHead readMode(boolean readMode) { this.readMode = readMode; return this; } final public boolean getReadMode(){ return readMode(); }
public boolean readMode() { return readMode; }
boolean readMode = false;
final public ByteHead setWriteMode(boolean writeMode){ return writeMode(writeMode); }
public ByteHead writeMode(boolean writeMode) { this.writeMode = writeMode; return this; } final public boolean getWriteMode(){ return writeMode(); }
public boolean writeMode() { return writeMode; }
boolean writeMode = false;
final public InputStream getInputStream(){ return inputStream(); }
public InputStream inputStream() { return inputStream; }
InputStream inputStream;
final public OutputStream getOutputStream(){ return outputStream(); }
public OutputStream outputStream() { return outputStream; }
OutputStream outputStream;
final public ByteHead setByteCounter(long byteCounter){ return byteCounter(byteCounter); }
public ByteHead byteCounter(long byteCounter) { this.byteCounter = byteCounter; return this; } final public long getByteCounter(){ return byteCounter(); }
public long byteCounter() { return byteCounter; }
long byteCounter;
ByteHead() {}
ByteHead(InputStream inputStream) { inputStream(inputStream); }
ByteHead(OutputStream outputStream) { outputStream(outputStream); }
ByteHead inputStream(InputStream inputStream) { this.inputStream = inputStream; readMode(true); return this; }
ByteHead outputStream(OutputStream outputStream) { this.outputStream = outputStream; writeMode(true); return this; }
void write(byte[] data) { try {
ensureWriteMode();
{ if (outputStream != null) outputStream.write(data); }
byteCounter += data.length;
} catch (Exception __e) { throw rethrow(__e); } }
void writeLong(long l) {
writeInt((int) (l >> 32));
writeInt((int) l);
}
void writeInt(int i) {
write(i >> 24);
write(i >> 16);
write(i >> 8);
write(i);
}
void writeShort(int i) {
write(i >> 8);
write(i);
}
final void write(int i){ writeByte(i); }
void writeByte(int i) { try {
ensureWriteMode();
{ if (outputStream != null) outputStream.write(i); }
byteCounter++;
} catch (Exception __e) { throw rethrow(__e); } }
void writeASCII(char c) {
write(toASCII(c));
}
void writeASCII(String s) {
write(toASCII(s));
}
void exchangeASCII(String s) {
exchangeConstantBytes(toASCII(s));
}
void exchangeConstantBytes(byte[] data) {
for (int i = 0; i < l(data); i++)
exchangeByte(data[i]);
}
long readLong() {
long i = readInt() << 32;
return i | (readInt() & 0xFFFFFFFFL);
}
int readInt() {
int i = read() << 24;
i |= read() << 16;
i |= read() << 8;
return i | read();
}
short readShort() {
int i = read() << 8;
return (short) (i | read());
}
// -1 for EOF
final int read(){ return readByte(); }
int readByte() { try {
ensureReadMode();
++byteCounter;
return inputStream.read();
} catch (Exception __e) { throw rethrow(__e); } }
void ensureReadMode() {
if (!readMode) throw fail("Not in read mode");
}
void ensureWriteMode() {
if (!writeMode) throw fail("Not in write mode");
}
// exchange = read or write depending on mode
void exchangeByte(byte getter, IVF1 setter) {
exchangeByte(() -> getter, setter);
}
void exchangeByte(IF0 getter, IVF1 setter) {
if (writeMode())
writeByte(getter.get());
if (readMode())
setter.get(toUByte(readByte()));
}
void exchangeShort(IF0 getter, IVF1 setter) {
if (writeMode())
writeShort(getter.get());
if (readMode())
setter.get(readShort());
}
void exchangeLong(IVar var) {
exchangeLong(var.getter(), var.setter());
}
void exchangeLong(IF0 getter, IVF1 setter) {
if (writeMode())
writeLong(getter.get());
if (readMode())
setter.get(readLong());
}
void exchangeByte(byte i) {
exchangeByte(() -> i, j -> assertEquals(i, j));
}
void exchangeInt(int i) {
exchangeInt(() -> i, j -> assertEquals(i, j));
}
void exchangeInt(IF0 getter, IVF1 setter) {
if (writeMode())
writeInt(getter.get());
if (readMode())
setter.get(readInt());
}
void exchange(ByteIO writable) {
if (writable != null) writable.readWrite(this);
}
void exchangeAll(Iterable extends ByteIO> writables) {
if (writables != null)
for (var writable : writables)
exchange(writable);
}
// write size in bytes of element first (as int),
// then the element itself.
// upon reading, size is actually ignored.
void exchangeWithSize(ByteIO writable) {
if (writeMode()) {
byte[] data = writable.saveToByteArray();
writeInt(l(data));
write(data);
}
if (readMode()) {
int n = readInt();
writable.readWrite(this);
}
}
void finish() {}
}
static class InterpolatedDoubleArray implements IntSize {
InterpolatedDoubleArray() {}
int[] indices;
double[] values;
InterpolatedDoubleArray(int[] indices, double[] values) {
this.values = values;
this.indices = indices;}
final public int length(){ return size(); }
public int size() {
return empty(indices) ? 0 : last(indices)+1;
}
int nPillars() {
return l(indices);
}
final double[] get(){ return toDoubleArray(); }
double[] toDoubleArray() {
int n = length();
double[] array = new double[n];
for (int i = 0; i < indices.length; i++) {
int iEnd = indices[i];
double value = values[i];
array[iEnd] = value;
if (i > 0) {
int iStart = indices[i-1];
if (iStart+1 < iEnd) {
double startValue = values[i-1];
double step = (value-startValue)/(iEnd-iStart), val = startValue;
for (int j = iStart+1; j < iEnd; j++) {
val += step;
array[j] = val;
}
}
}
}
return array;
}
int[] rounded() {
return iroundDoubleArray(get());
}
double[] indicesAndValues() {
int n = nPillars();
double[] array = new double[n*2];
for (int i = 0; i < n; i++) {
array[i*2] = indices[i];
array[i*2+1] = values[i];
}
return array;
}
double[] indicesAndValues_withoutFirstAndLastIndex() {
int n = nPillars();
double[] array = new double[max(1, n*2-2)];
int j = 0;
for (int i = 0; i < n; i++) {
if (i != 0 && i != n-1)
array[j++] = indices[i];
array[j++] = values[i];
}
return array;
}
int nInts_withoutFirstAndLastIndex() {
return max(1, nPillars()*2-2);
}
int nInts() {
return nPillars()*2;
}
InterpolatedDoubleArray topPart(int nPillars) {
return new InterpolatedDoubleArray(
takeFirst(nPillars, indices),
takeFirst(nPillars, values));
}
}
interface ByteIO {
void readWrite(ByteHead head);
default byte[] saveAsByteArray(){ return saveToByteArray(); }
default byte[] toByteArray(){ return saveToByteArray(); }
default byte[] saveToByteArray() { return saveToByteArray(new ByteHead()); }
default byte[] saveAsByteArray(ByteHead head){ return saveToByteArray(head); }
default byte[] toByteArray(ByteHead head){ return saveToByteArray(head); }
default byte[] saveToByteArray(ByteHead head) {
var baos = byteArrayOutputStream();
head.outputStream(baos);
readWrite(head);
head.finish();
return baos.toByteArray();
}
default String toHexString() {
return main.toHexString(toByteArray());
}
default File saveToFile(File file) {
OutputStream out = bufferedFileOutputStream(file); try {
var head = new ByteHead(out);
readWrite(head);
head.finish();
return file;
} finally { _close(out); }}
default ByteIO fromByteArray(byte[] data){ return load(data); }
default ByteIO load(byte[] data) {
readWrite(new ByteHead(new ByteArrayInputStream(data)));
return this;
}
default ByteIO load(File file) {
InputStream in = bufferedInputStream(file); try {
readWrite(new ByteHead(in));
return this;
} finally { _close(in); }}
}
interface INumberOfPixels {
int numberOfPixels();
}
static class CompressToInterpolatedDoubleArray {
// raw data to compress (integers)
int[] data;
// output
InterpolatedDoubleArray result;
// options
final public CompressToInterpolatedDoubleArray setSlopeTolerance(double slopeTolerance){ return slopeTolerance(slopeTolerance); }
public CompressToInterpolatedDoubleArray slopeTolerance(double slopeTolerance) { this.slopeTolerance = slopeTolerance; return this; } final public double getSlopeTolerance(){ return slopeTolerance(); }
public double slopeTolerance() { return slopeTolerance; }
double slopeTolerance = 0.01;
// internal
IntBuffer indices = new IntBuffer();
DoubleBuffer values = new DoubleBuffer();
CompressToInterpolatedDoubleArray(int[] data) {
this.data = data;}
InterpolatedDoubleArray get() {
int iData = 0;
while (iData < data.length) {
int startValue = data[iData];
// possible range of actual floating point starting value
DoubleRange startValueRange = doubleRange(startValue-0.5, startValue+0.5);
// see how far the straight line goes from iData
DoubleRange totalSlopeRange = null;
int jData; // our straight line ends at jData-1
for (jData = iData+1; jData < data.length; jData++) {
double x = data[jData], h = jData-iData;
// possible range of actual floating point value
DoubleRange xRange = doubleRange(x-0.5, x+0.5);
// most generous range for possible slope depending
// on possible floating point values at start and end
DoubleRange slopeRange = doubleRange(
(xRange.start-startValueRange.end)/h,
(xRange.end-startValueRange.start)/h);
// grow range a little to avoid size 0 ranges
slopeRange = growRange(slopeTolerance, slopeRange);
//printVars(+iData, +jData, +slopeRange, +totalSlopeRange);
if (totalSlopeRange == null)
totalSlopeRange = slopeRange;
else {
slopeRange = intersectRanges(slopeRange, totalSlopeRange);
if (empty(slopeRange))
break;
else
totalSlopeRange = slopeRange;
}
}
indices.add(iData);
values.add(data[iData]);
iData = max(iData+1, jData-1);
}
return result = new InterpolatedDoubleArray(indices.toArrayNonNull(), values.toArrayNonNull());
}
}
static interface IFieldsToList {
Object[] _fieldsToList();
}
static interface ISleeper_v2 {
Sleeping doLater(Timestamp targetTime, Runnable r);
public default Sleeping doAfter(double seconds, Runnable r) {
return doLater(tsNow().plusSeconds(seconds), r);
}
}
interface IMultiMap {
public Set keySet();
public Collection get(A a);
public int size();
public int keyCount();
}
interface HasBounds extends WidthAndHeight {
Rect bounds();
default int getWidth() { return bounds().h; }
default int getHeight() { return bounds().w; }
}
static class DoubleBuffer implements Iterable {
double[] data;
int size;
DoubleBuffer() {}
DoubleBuffer(int size) { if (size != 0) data = new double[size]; }
DoubleBuffer(Iterable l) { addAll(l); }
DoubleBuffer(Collection l) { this(l(l)); addAll(l); }
DoubleBuffer(double... data) { this.data = data; size = l(data); }
void add(double i) {
if (size >= lDoubleArray(data)) {
data = resizeDoubleArray(data, Math.max(1, toInt(Math.min(maximumSafeArraySize(), lDoubleArray(data)*2L))));
if (size >= data.length) throw fail("DoubleBuffer too large: " + size);
}
data[size++] = i;
}
void addAll(Iterable l) {
if (l != null) for (double i : l) add(i);
}
double[] toArray() {
return size == 0 ? null : resizeDoubleArray(data, size);
}
double[] toArrayNonNull() {
return unnull(toArray());
}
List toList() {
return doubleArrayToList(data, 0, size);
}
List asVirtualList() {
return new RandomAccessAbstractList() {
public int size() { return size; }
public Double get(int i) { return DoubleBuffer.this.get(i); }
public Double set(int i, Double val) {
Double a = get(i);
data[i] = val;
return a;
}
};
}
void reset() { size = 0; }
void clear() { reset(); }
int size() { return size; }
boolean isEmpty() { return size == 0; }
double get(int idx) {
if (idx >= size) throw fail("Index out of range: " + idx + "/" + size);
return data[idx];
}
void set(int idx, double value) {
if (idx >= size) throw fail("Index out of range: " + idx + "/" + size);
data[idx] = value;
}
double popLast() {
if (size == 0) throw fail("empty buffer");
return data[--size];
}
double last() { return data[size-1]; }
double nextToLast() { return data[size-2]; }
public String toString() { return squareBracket(joinWithSpace(toList())); }
public Iterator iterator() {
return new IterableIterator() {
int i = 0;
public boolean hasNext() { return i < size; }
public Double next() {
//if (!hasNext()) fail("Index out of bounds: " + i);
return data[i++];
}
};
}
/*public DoubleIterator doubleIterator() {
ret new DoubleIterator {
int i = 0;
public bool hasNext() { ret i < size; }
public int next() {
//if (!hasNext()) fail("Index out of bounds: " + i);
ret data[i++];
}
toString { ret "Iterator@" + i + " over " + DoubleBuffer.this; }
};
}*/
void trimToSize() {
data = resizeDoubleArray(data, size);
}
int indexOf(double b) {
for (int i = 0; i < size; i++)
if (data[i] == b)
return i;
return -1;
}
double[] subArray(int start, int end) {
return subDoubleArray(data, start, min(end, size));
}
}
final static class DoubleRange implements Comparable {
final public double getStart(){ return start(); }
public double start() { return start; }
double start;
final public double getEnd(){ return end(); }
public double end() { return end; }
double end;
DoubleRange() {}
DoubleRange(double start, double end) {
this.end = end;
this.start = start;}
public boolean equals(Object o) { return stdEq2(this, o); }
public int hashCode() { return stdHash2(this); }
double length() { return end-start; }
boolean isEmpty() { return start >= end; }
double center() { return (start+end)/2; }
static String _fieldOrder = "start end";
public String toString() { return "[" + start + ";" + end + "]"; }
@Override public int compareTo(DoubleRange r) {
int c = cmp(start, r.start);
if (c != 0) return c;
return cmp(end, r.end);
}
}
abstract static class Sleeping implements AutoCloseable , IFieldsToList{
Timestamp targetTime;
Runnable action;
Sleeping() {}
Sleeping(Timestamp targetTime, Runnable action) {
this.action = action;
this.targetTime = targetTime;}
public String toString() { return shortClassName_dropNumberPrefix(this) + "(" + targetTime + ", " + action + ")"; }public Object[] _fieldsToList() { return new Object[] {targetTime, action}; }
long remainingMS() { return targetTime.minus(tsNow()); }
}
// AppendableChain has one "smart" head element (with size counter
// and pointer to the chain's last element), all the other nodes are
// maximally simple (MinimalChain).
// This allows O(1) front insertion, front removal and back insertion
// (not removal at the back though) which is fine for what I need this
// for (event queues).
//
// Stefan Reich, Oct 21
static class AppendableChain extends MinimalChain implements Iterable , IntSize {
MinimalChain last; // pointer to last element in chain (which may be us)
final public int getSize(){ return size(); }
public int size() { return size; }
int size; // total length of chain
AppendableChain() {} // only used internally
AppendableChain(A element) {
this.element = element; size = 1; last = this; }
// intermediate constructor called by itemPlusChain()
AppendableChain(A element, AppendableChain next) {
this.next = next;
this.element = element;
if (next == null) return;
MinimalChain b = new MinimalChain();
b.element = next.element;
b.next = next.next;
this.next = b;
last = next.last;
size = next.size+1;
}
public String toString() { return str(toList()); }
// append at the end
boolean add(A a) {
MinimalChain newLast = new MinimalChain(a);
last.next = newLast;
last = newLast;
++size;
return true;
}
// drop first element
AppendableChain popFirst() {
if (next == null) return null;
element = next.element;
if (last == next) last = this;
next = next.next;
--size;
return this;
}
ArrayList toList() {
ArrayList l = emptyList(size);
MinimalChain c = this;
while (c != null) {
l.add(c.element);
c = c.next;
}
return l;
}
//public Iterator iterator() { ret toList().iterator(); }
class ACIt extends IterableIterator < A > {
MinimalChain c = AppendableChain.this;
public boolean hasNext() {
return c != null;
}
public A next() {
var a = c.element;
c = c.next;
return a;
}
}
public IterableIterator iterator() {
return new ACIt();
}
}
interface IntSize {
int size();
}
static class MultiSleeper extends RestartableCountdown implements ISleeper_v2 {
TreeMultiMap entries = new TreeMultiMap();
void check() {
var time = nextWakeUpTime();
var action = firstValue(entries);
setTargetTime(time == null ? 0 : time.sysTime(), new Runnable() { public void run() { try {
List toCall;
synchronized(MultiSleeper.this) {
toCall = entries.get(time);
entries.remove(time);
}
check();
pcallFAll(toCall);
} catch (Exception __e) { throw rethrow(__e); } } public String toString() { return "List toCall;\r\n synchronized(MultiSleeper.this) {\r\n toCa..."; }});
}
synchronized void removeEntry(Timestamp targetTime, Runnable action) {
entries.remove(targetTime, action);
}
// API
synchronized Timestamp nextWakeUpTime() {
return firstKey(entries);
}
public synchronized Sleeping doLater(Timestamp targetTime, Runnable r) {
if (r == null || targetTime == null) return null;
targetTime = max(targetTime, tsNow());
entries.put(targetTime, r);
check();
return new Sleeping(targetTime, r) {
public void close() { try {
removeEntry(targetTime, r);
} catch (Exception __e) { throw rethrow(__e); } }
};
}
}
static class IntBuffer implements Iterable {
int[] data;
int size;
IntBuffer() {}
IntBuffer(int size) { if (size != 0) data = new int[size]; }
IntBuffer(Iterable l) {
if (l instanceof Collection) allocate(((Collection) l).size());
addAll(l);
}
void add(int i) {
if (size >= lIntArray(data)) {
data = resizeIntArray(data, Math.max(1, toInt(Math.min(maximumSafeArraySize(), lIntArray(data)*2L))));
if (size >= data.length) throw fail("IntBuffer too large: " + size);
}
data[size++] = i;
}
void allocate(int n) {
data = resizeIntArray(data, max(n, size()));
}
void setSize(int n) {
data = resizeIntArray(data, n);
size = min(l(data), size);
}
void addAll(Iterable l) {
if (l != null) for (int i : l) add(i);
}
void addAll(int... l) {
if (l != null) for (int i : l) add(i);
}
// Note: may return the internal array
final int[] toIntArray(){ return toArray(); }
int[] toArray() {
return size == 0 ? null : resizeIntArray(data, size);
}
int[] toArrayNonNull() {
return unnull(toArray());
}
// abandoned version
/*L toList() {
ret intArrayToList(data, 0, size);
}*/
// now all these return a virtual list
final List asList(){ return toList(); }
final List asVirtualList(){ return toList(); }
List toList() {
return new RandomAccessAbstractList() {
public int size() { return size; }
public Integer get(int i) { return IntBuffer.this.get(i); }
public Integer set(int i, Integer val) {
Integer a = get(i);
data[i] = val;
return a;
}
};
}
void reset() { size = 0; }
void clear() { reset(); }
int size() { return size; }
boolean isEmpty() { return size == 0; }
int get(int idx) {
if (idx >= size) throw fail("Index out of range: " + idx + "/" + size);
return data[idx];
}
void set(int idx, int value) {
if (idx >= size) throw fail("Index out of range: " + idx + "/" + size);
data[idx] = value;
}
int popLast() {
if (size == 0) throw fail("empty buffer");
return data[--size];
}
int last() { return data[size-1]; }
int nextToLast() { return data[size-2]; }
public String toString() { return squareBracket(joinWithSpace(toList())); }
public Iterator iterator() {
return new IterableIterator() {
int i = 0;
public boolean hasNext() { return i < size; }
public Integer next() {
//if (!hasNext()) fail("Index out of bounds: " + i);
return data[i++];
}
};
}
public IntegerIterator integerIterator() {
return new IntegerIterator() {
int i = 0;
public boolean hasNext() { return i < size; }
public int next() {
//if (!hasNext()) fail("Index out of bounds: " + i);
return data[i++];
}
public String toString() { return "Iterator@" + i + " over " + IntBuffer.this; }
};
}
void trimToSize() {
data = resizeIntArray(data, size);
}
}
static interface IAutoCloseableF0 extends IF0 , AutoCloseable {}
interface IDoublePt {
public double x_double();
public double y_double();
}
static interface IVar extends IF0 {
void set(A a);
A get();
// reified type of value (if available)
default Class getType() { return null; }
default IF0 getter() { return () -> get(); }
default IVF1 setter() { return __1 -> set(__1); }
default boolean has() { return get() != null; }
default void clear() { set(null); }
}
static class Timestamp implements Comparable , IFieldsToList{
long date;
Timestamp(long date) {
this.date = date;}
public boolean equals(Object o) {
if (!(o instanceof Timestamp)) return false;
Timestamp __1 = (Timestamp) o;
return date == __1.date;
}
public int hashCode() {
int h = 2059094262;
h = boostHashCombine(h, _hashCode(date));
return h;
}
public Object[] _fieldsToList() { return new Object[] {date}; }
Timestamp() { date = now(); }
Timestamp(Date date) { if (date != null) this.date = date.getTime(); }
long unixDate() { return date; }
long unixSeconds() { return unixDate()/1000; }
public String toString() { return formatLocalDateWithSeconds(date); }
// Hmm. Should Timestamp(0) be equal to null? Question, questions...
public int compareTo(Timestamp t) {
return t == null ? 1 : cmp(date, t.date);
}
Timestamp plus(Seconds seconds) {
return plus(seconds == null ? null : seconds.getDouble());
}
final Timestamp plusSeconds(double seconds){ return plus(seconds); }
Timestamp plus(double seconds) {
return new Timestamp(date+toMS(seconds));
}
// returns milliseconds
long minus(Timestamp ts) {
return unixDate()-ts.unixDate();
}
long sysTime() {
return clockTimeToSystemTime(date);
}
Duration minusAsDuration(Timestamp ts) {
return Duration.ofMillis(minus(ts));
}
}
static class MinimalChain implements Iterable {
A element;
MinimalChain next;
MinimalChain() {}
MinimalChain(A element) {
this.element = element;}
MinimalChain(A element, MinimalChain next) {
this.next = next;
this.element = element;}
public String toString() { return str(toList()); }
ArrayList toList() {
ArrayList l = new ArrayList();
MinimalChain c = this;
while (c != null) {
l.add(c.element);
c = c.next;
}
return l;
}
void setElement(A a) { element = a; }
void setNext(MinimalChain next) { this.next = next; }
// TODO: optimize
public Iterator iterator() { return toList().iterator(); }
A get() { return element; }
}
static class RestartableCountdown implements AutoCloseable {
java.util.Timer timer;
long targetTime; // in sys time
long /*firings,*/ totalSleepTime; // stats
synchronized void setTargetTime(long targetTime, Runnable action) {
if (targetTime <= 0)
stop();
else if (targetTime != this.targetTime) {
start(targetTime-sysNow(), action);
this.targetTime = targetTime;
}
}
// stops the countdown and restarts it
synchronized void start(long delayMS, Object action) {
stop();
if (delayMS <= 0)
{ startThread(new Runnable() { public void run() { try { callF(action);
} catch (Exception __e) { throw rethrow(__e); } } public String toString() { return "callF(action);"; }}); }
else {
totalSleepTime += delayMS;
timer = doLater_daemon(delayMS, action);
targetTime = sysNow()+delayMS;
}
}
void start(double delaySeconds, Object action) {
start(toMS(delaySeconds), action);
}
synchronized void stop() {
cancelTimer(timer);
timer = null;
targetTime = 0;
}
public void close() { stop(); }
}
static class Seconds implements Comparable , IFieldsToList{
double seconds;
Seconds() {}
Seconds(double seconds) {
this.seconds = seconds;}
public boolean equals(Object o) {
if (!(o instanceof Seconds)) return false;
Seconds __1 = (Seconds) o;
return seconds == __1.seconds;
}
public int hashCode() {
int h = -660217249;
h = boostHashCombine(h, _hashCode(seconds));
return h;
}
public Object[] _fieldsToList() { return new Object[] {seconds}; }
final double get(){ return seconds(); }
final double getDouble(){ return seconds(); }
double seconds() { return seconds; }
public String toString() { return formatDouble(seconds, 3) + " s"; }
public int compareTo(Seconds s) {
return cmp(seconds, s.seconds);
}
Seconds div(double x) { return new Seconds(get()/x); }
Seconds minus(Seconds x) { return new Seconds(get()-x.get()); }
}
abstract static class RandomAccessAbstractList extends AbstractList implements RandomAccess {
}
static class TreeMultiMap extends MultiMap {
TreeMultiMap() { super(true); }
TreeMultiMap(MultiMap map) { this(); putAll(map); }
}
abstract static class IntegerIterator {
abstract boolean hasNext();
abstract int next();
}
static Class> getClass(String name) {
return _getClass(name);
}
static Class getClass(Object o) {
return _getClass(o);
}
static Class getClass(Object realm, String name) {
return _getClass(realm, name);
}
static boolean classIsExportedTo(Class c, java.lang.Module destModule) {
if (c == null || destModule == null) return false;
java.lang.Module srcModule = c.getModule();
String packageName = c.getPackageName();
return srcModule.isExported(packageName, destModule);
}
static boolean isAbstract(Class c) {
return (c.getModifiers() & Modifier.ABSTRACT) != 0;
}
static boolean isAbstract(Method m) {
return (m.getModifiers() & Modifier.ABSTRACT) != 0;
}
static boolean reflection_isForbiddenMethod(Method m) {
return m.getDeclaringClass() == Object.class
&& eqOneOf(m.getName(), "finalize", "clone", "registerNatives");
}
static Set allInterfacesImplementedBy(Object o) {
return allInterfacesImplementedBy(_getClass(o));
}
static Set allInterfacesImplementedBy(Class c) {
if (c == null) return null;
HashSet set = new HashSet();
allInterfacesImplementedBy_find(c, set);
return set;
}
static void allInterfacesImplementedBy_find(Class c, Set set) {
if (c.isInterface() && !set.add(c)) return;
do {
for (Class intf : c.getInterfaces())
allInterfacesImplementedBy_find(intf, set);
} while ((c = c.getSuperclass()) != null);
}
static Method findMethod(Object o, String method, Object... args) {
return findMethod_cached(o, method, args);
}
static boolean findMethod_checkArgs(Method m, Object[] args, boolean debug) {
Class>[] types = m.getParameterTypes();
if (types.length != args.length) {
if (debug)
System.out.println("Bad parameter length: " + args.length + " vs " + types.length);
return false;
}
for (int i = 0; i < types.length; i++)
if (!(args[i] == null || isInstanceX(types[i], args[i]))) {
if (debug)
System.out.println("Bad parameter " + i + ": " + args[i] + " vs " + types[i]);
return false;
}
return true;
}
static Method findStaticMethod(Class c, String method, Object... args) {
Class _c = c;
while (c != null) {
for (Method m : c.getDeclaredMethods()) {
if (!m.getName().equals(method))
continue;
if ((m.getModifiers() & Modifier.STATIC) == 0 || !findStaticMethod_checkArgs(m, args))
continue;
return m;
}
c = c.getSuperclass();
}
return null;
}
static boolean findStaticMethod_checkArgs(Method m, Object[] args) {
Class>[] types = m.getParameterTypes();
if (types.length != args.length)
return false;
for (int i = 0; i < types.length; i++)
if (!(args[i] == null || isInstanceX(types[i], args[i])))
return false;
return true;
}
static String unquote(String s) {
if (s == null) return null;
if (startsWith(s, '[')) {
int i = 1;
while (i < s.length() && s.charAt(i) == '=') ++i;
if (i < s.length() && s.charAt(i) == '[') {
String m = s.substring(1, i);
if (s.endsWith("]" + m + "]"))
return s.substring(i+1, s.length()-i-1);
}
}
return unquoteSingleOrDoubleQuotes(s);
}
static List quoteAll(String[] l) {
return quoteAll(asList(l));
}
static List quoteAll(Collection l) {
List x = new ArrayList();
for (String s : l)
x.add(quote(s));
return x;
}
static int _hashCode(Object a) {
return a == null ? 0 : a.hashCode();
}
static ArrayList toList(A[] a) { return asList(a); }
static ArrayList toList(int[] a) { return asList(a); }
static ArrayList toList(short[] a) { return asList(a); }
static ArrayList toList(Set s) { return asList(s); }
static ArrayList toList(Iterable s) { return asList(s); }
static boolean arraysEqual(Object[] a, Object[] b) {
if (a.length != b.length) return false;
for (int i = 0; i < a.length; i++)
if (neq(a[i], b[i])) return false;
return true;
}
static short toShort_enforce(long l) {
if (l != (short) l) throw fail("Too large for short: " + l);
return (short) l;
}
static int y2(Rectangle r) {
return r.y+r.height;
}
static void addAll(Collection c, Iterable b) {
if (c != null && b != null) for (A a : b) c.add(a);
}
static boolean addAll(Collection c, Collection b) {
return c != null && b != null && c.addAll(b);
}
static boolean addAll(Collection c, B... b) {
return c != null && b != null && c.addAll(Arrays.asList(b));
}
static Map addAll(Map a, Map extends A,? extends B> b) {
if (a != null && b != null) a.putAll(b);
return a;
}
static A addAll(A c, Collection extends Component> components) {
return addComponents(c, components);
}
static A addAll(A c, Component... components) {
return addComponents(c, components);
}
static int[] iroundAll(double[] a, int start, int end) {
return iroundDoubleArray(a, start, end);
}
static int[] iroundAll(double[] a) {
return iroundDoubleArray(a);
}
static String spaceCombine(Object... l) {
return joinNemptiesWithSpace(flattenCollections(ll(l)));
}
static IterableIterator