static void Main()
{
DataCheckerBot DB = new DataCheckerBot();
MemberBox tbox = new MemberBox();
Console.WriteLine(tbox.Name);
Console.ReadKey();
}
public MemberBox MemberBoxFull()
{
MemberBox MBox = new MemberBox();
//MBox.Email = button;
//MBox.MemberType = button;
//MBox.Mobile = button;
//MBox.Name = button;
//MBox.NUSID = button.ToUpper();
return(MBox);
}
private static MemberBox ExtractSetMethod(Type type, MemberBox[] methods, bool isStatic)
{
//
// Note: it may be preferable to allow NativeJavaMethod.findFunction()
// to find the appropriate setter; unfortunately, it requires an
// instance of the target arg to determine that.
//
// Make two passes: one to find a method with direct type assignment,
// and one to find a widening conversion.
for (int pass = 1; pass <= 2; ++pass)
{
foreach (MemberBox method in methods)
{
if (!isStatic || method.IsStatic())
{
Type[] @params = method.argTypes;
if (@params.Length == 1)
{
if (pass == 1)
{
if (@params[0] == type)
{
return method;
}
}
else
{
if (pass != 2)
{
Kit.CodeBug();
}
if (@params[0].IsAssignableFrom(type))
{
return method;
}
}
}
}
}
}
return null;
}
private static MemberBox ExtractGetMethod(MemberBox[] methods, bool isStatic)
{
// Inspect the list of all MemberBox for the only one having no
// parameters
foreach (MemberBox method in methods)
{
// Does getter method have an empty parameter list with a return
// value (eg. a getSomething() or isSomething())?
if (method.argTypes.Length == 0 && (!isStatic || method.IsStatic()))
{
Type type = method.Method().ReturnType;
if (type != typeof(void))
{
return method;
}
break;
}
}
return null;
}
private void Reflect(Scriptable scope, bool includeProtected, bool includePrivate)
{
// We reflect methods first, because we want overloaded field/method
// names to be allocated to the NativeJavaMethod before the field
// gets in the way.
MethodInfo[] methods = DiscoverAccessibleMethods(cl, includeProtected, includePrivate);
foreach (MethodInfo method in methods)
{
int mods = method.Attributes;
bool isStatic = Modifier.IsStatic(mods);
IDictionary<string, object> ht = isStatic ? staticMembers : members;
string name = method.Name;
object value = ht.Get(name);
if (value == null)
{
ht.Put(name, method);
}
else
{
ObjArray overloadedMethods;
if (value is ObjArray)
{
overloadedMethods = (ObjArray)value;
}
else
{
if (!(value is MethodInfo))
{
Kit.CodeBug();
}
// value should be instance of Method as at this stage
// staticMembers and members can only contain methods
overloadedMethods = new ObjArray();
overloadedMethods.Add(value);
ht.Put(name, overloadedMethods);
}
overloadedMethods.Add(method);
}
}
// replace Method instances by wrapped NativeJavaMethod objects
// first in staticMembers and then in members
for (int tableCursor = 0; tableCursor != 2; ++tableCursor)
{
bool isStatic = (tableCursor == 0);
IDictionary<string, object> ht = isStatic ? staticMembers : members;
foreach (KeyValuePair<string, object> entry in ht.EntrySet())
{
MemberBox[] methodBoxes;
object value = entry.Value;
if (value is MethodInfo)
{
methodBoxes = new MemberBox[1];
methodBoxes[0] = new MemberBox((MethodInfo)value);
}
else
{
ObjArray overloadedMethods = (ObjArray)value;
int N = overloadedMethods.Size();
if (N < 2)
{
Kit.CodeBug();
}
methodBoxes = new MemberBox[N];
for (int i = 0; i != N; ++i)
{
MethodInfo method_1 = (MethodInfo)overloadedMethods.Get(i);
methodBoxes[i] = new MemberBox(method_1);
}
}
NativeJavaMethod fun = new NativeJavaMethod(methodBoxes);
if (scope != null)
{
ScriptRuntime.SetFunctionProtoAndParent(fun, scope);
}
ht.Put(entry.Key, fun);
}
}
// Reflect fields.
FieldInfo[] fields = GetAccessibleFields(includeProtected, includePrivate);
foreach (FieldInfo field in fields)
{
string name = field.Name;
int mods = field.Attributes;
try
{
bool isStatic = Modifier.IsStatic(mods);
IDictionary<string, object> ht = isStatic ? staticMembers : members;
object member = ht.Get(name);
if (member == null)
{
ht.Put(name, field);
}
else
{
if (member is NativeJavaMethod)
{
NativeJavaMethod method_1 = (NativeJavaMethod)member;
FieldAndMethods fam = new FieldAndMethods(scope, method_1.methods, field);
IDictionary<string, FieldAndMethods> fmht = isStatic ? staticFieldAndMethods : fieldAndMethods;
if (fmht == null)
{
fmht = new Dictionary<string, FieldAndMethods>();
if (isStatic)
{
staticFieldAndMethods = fmht;
}
else
{
fieldAndMethods = fmht;
}
}
fmht.Put(name, fam);
ht.Put(name, fam);
}
else
{
if (member is FieldInfo)
{
FieldInfo oldField = (FieldInfo)member;
// If this newly reflected field shadows an inherited field,
// then replace it. Otherwise, since access to the field
// would be ambiguous from Java, no field should be
// reflected.
// For now, the first field found wins, unless another field
// explicitly shadows it.
if (oldField.DeclaringType.IsAssignableFrom(field.DeclaringType))
{
ht.Put(name, field);
}
}
else
{
// "unknown member type"
Kit.CodeBug();
}
}
}
}
catch (SecurityException)
{
// skip this field
Context.ReportWarning("Could not access field " + name + " of class " + cl.FullName + " due to lack of privileges.");
}
}
// Create bean properties from corresponding get/set methods first for
// static members and then for instance members
for (int tableCursor_1 = 0; tableCursor_1 != 2; ++tableCursor_1)
{
bool isStatic = (tableCursor_1 == 0);
IDictionary<string, object> ht = isStatic ? staticMembers : members;
IDictionary<string, BeanProperty> toAdd = new Dictionary<string, BeanProperty>();
// Now, For each member, make "bean" properties.
foreach (string name in ht.Keys)
{
// Is this a getter?
bool memberIsGetMethod = name.StartsWith("get");
bool memberIsSetMethod = name.StartsWith("set");
bool memberIsIsMethod = name.StartsWith("is");
if (memberIsGetMethod || memberIsIsMethod || memberIsSetMethod)
{
// Double check name component.
string nameComponent = Sharpen.Runtime.Substring(name, memberIsIsMethod ? 2 : 3);
if (nameComponent.Length == 0)
{
continue;
}
// Make the bean property name.
string beanPropertyName = nameComponent;
char ch0 = nameComponent[0];
if (System.Char.IsUpper(ch0))
{
if (nameComponent.Length == 1)
{
beanPropertyName = nameComponent.ToLower();
}
else
{
char ch1 = nameComponent[1];
if (!System.Char.IsUpper(ch1))
{
beanPropertyName = System.Char.ToLower(ch0) + Sharpen.Runtime.Substring(nameComponent, 1);
}
}
}
// If we already have a member by this name, don't do this
// property.
if (toAdd.ContainsKey(beanPropertyName))
{
continue;
}
object v = ht.Get(beanPropertyName);
if (v != null)
{
// A private field shouldn't mask a public getter/setter
if (!includePrivate || !(v is MemberInfo) || !Modifier.IsPrivate(((MemberInfo)v).Attributes))
{
continue;
}
}
// Find the getter method, or if there is none, the is-
// method.
MemberBox getter = null;
getter = FindGetter(isStatic, ht, "get", nameComponent);
// If there was no valid getter, check for an is- method.
if (getter == null)
{
getter = FindGetter(isStatic, ht, "is", nameComponent);
}
// setter
MemberBox setter = null;
NativeJavaMethod setters = null;
string setterName = System.String.Concat("set", nameComponent);
if (ht.ContainsKey(setterName))
{
// Is this value a method?
object member = ht.Get(setterName);
if (member is NativeJavaMethod)
{
NativeJavaMethod njmSet = (NativeJavaMethod)member;
if (getter != null)
{
// We have a getter. Now, do we have a matching
// setter?
Type type = getter.Method().ReturnType;
setter = ExtractSetMethod(type, njmSet.methods, isStatic);
}
else
{
// No getter, find any set method
setter = ExtractSetMethod(njmSet.methods, isStatic);
}
if (njmSet.methods.Length > 1)
{
setters = njmSet;
}
}
}
// Make the property.
BeanProperty bp = new BeanProperty(getter, setter, setters);
toAdd.Put(beanPropertyName, bp);
}
}
// Add the new bean properties.
foreach (string key in toAdd.Keys)
{
object value = toAdd.Get(key);
ht.Put(key, value);
}
}
// Reflect constructors
ConstructorInfo<object>[] constructors = GetAccessibleConstructors(includePrivate);
MemberBox[] ctorMembers = new MemberBox[constructors.Length];
for (int i_1 = 0; i_1 != constructors.Length; ++i_1)
{
ctorMembers[i_1] = new MemberBox(constructors[i_1]);
}
ctors = new NativeJavaMethod(ctorMembers, cl.Name);
}
internal FieldAndMethods(Scriptable scope, MemberBox[] methods, FieldInfo field) : base(methods)
{
this.field = field;
SetParentScope(scope);
SetPrototype(ScriptableObject.GetFunctionPrototype(scope));
}
private static void PrintDebug(string msg, MemberBox member, object[] args)
{
}
/// <summary>Create a JavaScript function object from a Java method.</summary>
/// <remarks>
/// Create a JavaScript function object from a Java method.
/// <p>The <code>member</code> argument must be either a java.lang.reflect.Method
/// or a java.lang.reflect.Constructor and must match one of two forms.<p>
/// The first form is a member with zero or more parameters
/// of the following types: Object, String, boolean, Scriptable,
/// int, or double. The Long type is not supported
/// because the double representation of a long (which is the
/// EMCA-mandated storage type for Numbers) may lose precision.
/// If the member is a Method, the return value must be void or one
/// of the types allowed for parameters.<p>
/// The runtime will perform appropriate conversions based
/// upon the type of the parameter. A parameter type of
/// Object specifies that no conversions are to be done. A parameter
/// of type String will use Context.toString to convert arguments.
/// Similarly, parameters of type double, boolean, and Scriptable
/// will cause Context.toNumber, Context.toBoolean, and
/// Context.toObject, respectively, to be called.<p>
/// If the method is not static, the Java 'this' value will
/// correspond to the JavaScript 'this' value. Any attempt
/// to call the function with a 'this' value that is not
/// of the right Java type will result in an error.<p>
/// The second form is the variable arguments (or "varargs")
/// form. If the FunctionObject will be used as a constructor,
/// the member must have the following parameters
/// <pre>
/// (Context cx, Object[] args, Function ctorObj,
/// boolean inNewExpr)</pre>
/// and if it is a Method, be static and return an Object result.<p>
/// Otherwise, if the FunctionObject will <i>not</i> be used to define a
/// constructor, the member must be a static Method with parameters
/// <pre>
/// (Context cx, Scriptable thisObj, Object[] args,
/// Function funObj) </pre>
/// and an Object result.<p>
/// When the function varargs form is called as part of a function call,
/// the <code>args</code> parameter contains the
/// arguments, with <code>thisObj</code>
/// set to the JavaScript 'this' value. <code>funObj</code>
/// is the function object for the invoked function.<p>
/// When the constructor varargs form is called or invoked while evaluating
/// a <code>new</code> expression, <code>args</code> contains the
/// arguments, <code>ctorObj</code> refers to this FunctionObject, and
/// <code>inNewExpr</code> is true if and only if a <code>new</code>
/// expression caused the call. This supports defining a function that
/// has different behavior when called as a constructor than when
/// invoked as a normal function call. (For example, the Boolean
/// constructor, when called as a function,
/// will convert to boolean rather than creating a new object.)<p>
/// </remarks>
/// <param name="name">the name of the function</param>
/// <param name="methodOrConstructor">
/// a java.lang.reflect.Method or a java.lang.reflect.Constructor
/// that defines the object
/// </param>
/// <param name="scope">enclosing scope of function</param>
/// <seealso cref="Scriptable">Scriptable</seealso>
public FunctionObject(string name, MemberInfo methodOrConstructor, Scriptable scope)
{
// API class
if (methodOrConstructor is ConstructorInfo)
{
member = new MemberBox((ConstructorInfo<object>)methodOrConstructor);
isStatic = true;
}
else
{
// well, doesn't take a 'this'
member = new MemberBox((MethodInfo)methodOrConstructor);
isStatic = member.IsStatic();
}
string methodName = member.GetName();
this.functionName = name;
Type[] types = member.argTypes;
int arity = types.Length;
if (arity == 4 && (types[1].IsArray || types[2].IsArray))
{
// Either variable args or an error.
if (types[1].IsArray)
{
if (!isStatic || types[0] != ScriptRuntime.ContextClass || types[1].GetElementType() != ScriptRuntime.ObjectClass || types[2] != ScriptRuntime.FunctionClass || types[3] != typeof(bool))
{
throw Context.ReportRuntimeError1("msg.varargs.ctor", methodName);
}
parmsLength = VARARGS_CTOR;
}
else
{
if (!isStatic || types[0] != ScriptRuntime.ContextClass || types[1] != ScriptRuntime.ScriptableClass || types[2].GetElementType() != ScriptRuntime.ObjectClass || types[3] != ScriptRuntime.FunctionClass)
{
throw Context.ReportRuntimeError1("msg.varargs.fun", methodName);
}
parmsLength = VARARGS_METHOD;
}
}
else
{
parmsLength = arity;
if (arity > 0)
{
typeTags = new byte[arity];
for (int i = 0; i != arity; ++i)
{
int tag = GetTypeTag(types[i]);
if (tag == JAVA_UNSUPPORTED_TYPE)
{
throw Context.ReportRuntimeError2("msg.bad.parms", types[i].FullName, methodName);
}
typeTags[i] = unchecked((byte)tag);
}
}
}
if (member.IsMethod())
{
MethodInfo method = member.Method();
Type returnType = method.ReturnType;
if (returnType == typeof(void))
{
hasVoidReturn = true;
}
else
{
returnTypeTag = GetTypeTag(returnType);
}
}
else
{
Type ctorType = member.GetDeclaringClass();
if (!ScriptRuntime.ScriptableClass.IsAssignableFrom(ctorType))
{
throw Context.ReportRuntimeError1("msg.bad.ctor.return", ctorType.FullName);
}
}
ScriptRuntime.SetFunctionProtoAndParent(this, scope);
}
internal NativeJavaMethod(MemberBox[] methods, string name)
{
this.functionName = name;
this.methods = methods;
}
internal NativeJavaMethod(MemberBox[] methods)
{
this.functionName = methods[0].GetName();
this.methods = methods;
}
/// <summary>
/// Find the index of the correct function to call given the set of methods
/// or constructors and the arguments.
/// </summary>
/// <remarks>
/// Find the index of the correct function to call given the set of methods
/// or constructors and the arguments.
/// If no function can be found to call, return -1.
/// </remarks>
internal static int FindFunction(Context cx, MemberBox[] methodsOrCtors, object[] args)
{
if (methodsOrCtors.Length == 0)
{
return -1;
}
else
{
if (methodsOrCtors.Length == 1)
{
MemberBox member = methodsOrCtors[0];
Type[] argTypes = member.argTypes;
int alength = argTypes.Length;
if (member.vararg)
{
alength--;
if (alength > args.Length)
{
return -1;
}
}
else
{
if (alength != args.Length)
{
return -1;
}
}
for (int j = 0; j != alength; ++j)
{
if (!NativeJavaObject.CanConvert(args[j], argTypes[j]))
{
return -1;
}
}
return 0;
}
}
int firstBestFit = -1;
int[] extraBestFits = null;
int extraBestFitsCount = 0;
for (int i = 0; i < methodsOrCtors.Length; i++)
{
MemberBox member = methodsOrCtors[i];
Type[] argTypes = member.argTypes;
int alength = argTypes.Length;
if (member.vararg)
{
alength--;
if (alength > args.Length)
{
goto search_continue;
}
}
else
{
if (alength != args.Length)
{
goto search_continue;
}
}
for (int j = 0; j < alength; j++)
{
if (!NativeJavaObject.CanConvert(args[j], argTypes[j]))
{
goto search_continue;
}
}
if (firstBestFit < 0)
{
firstBestFit = i;
}
else
{
// Compare with all currently fit methods.
// The loop starts from -1 denoting firstBestFit and proceed
// until extraBestFitsCount to avoid extraBestFits allocation
// in the most common case of no ambiguity
int betterCount = 0;
// number of times member was prefered over
// best fits
int worseCount = 0;
// number of times best fits were prefered
// over member
for (int j_1 = -1; j_1 != extraBestFitsCount; ++j_1)
{
int bestFitIndex;
if (j_1 == -1)
{
bestFitIndex = firstBestFit;
}
else
{
bestFitIndex = extraBestFits[j_1];
}
MemberBox bestFit = methodsOrCtors[bestFitIndex];
if (cx.HasFeature(Context.FEATURE_ENHANCED_JAVA_ACCESS) && (bestFit.Member().Attributes & Modifier.PUBLIC) != (member.Member().Attributes & Modifier.PUBLIC))
{
// When FEATURE_ENHANCED_JAVA_ACCESS gives us access
// to non-public members, continue to prefer public
// methods in overloading
if ((bestFit.Member().Attributes & Modifier.PUBLIC) == 0)
{
++betterCount;
}
else
{
++worseCount;
}
}
else
{
int preference = PreferSignature(args, argTypes, member.vararg, bestFit.argTypes, bestFit.vararg);
if (preference == PREFERENCE_AMBIGUOUS)
{
break;
}
else
{
if (preference == PREFERENCE_FIRST_ARG)
{
++betterCount;
}
else
{
if (preference == PREFERENCE_SECOND_ARG)
{
++worseCount;
}
else
{
if (preference != PREFERENCE_EQUAL)
{
Kit.CodeBug();
}
// This should not happen in theory
// but on some JVMs, Class.getMethods will return all
// static methods of the class hierarchy, even if
// a derived class's parameters match exactly.
// We want to call the derived class's method.
if (bestFit.IsStatic() && bestFit.GetDeclaringClass().IsAssignableFrom(member.GetDeclaringClass()))
{
// On some JVMs, Class.getMethods will return all
// static methods of the class hierarchy, even if
// a derived class's parameters match exactly.
// We want to call the derived class's method.
if (j_1 == -1)
{
firstBestFit = i;
}
else
{
extraBestFits[j_1] = i;
}
}
goto search_continue;
}
}
}
}
}
if (betterCount == 1 + extraBestFitsCount)
{
// member was prefered over all best fits
firstBestFit = i;
extraBestFitsCount = 0;
}
else
{
if (worseCount == 1 + extraBestFitsCount)
{
}
else
{
// all best fits were prefered over member, ignore it
// some ambiguity was present, add member to best fit set
if (extraBestFits == null)
{
// Allocate maximum possible array
extraBestFits = new int[methodsOrCtors.Length - 1];
}
extraBestFits[extraBestFitsCount] = i;
++extraBestFitsCount;
}
}
}
search_continue: ;
}
search_break: ;
if (firstBestFit < 0)
{
// Nothing was found
return -1;
}
else
{
if (extraBestFitsCount == 0)
{
// single best fit
return firstBestFit;
}
}
// report remaining ambiguity
StringBuilder buf = new StringBuilder();
for (int j_2 = -1; j_2 != extraBestFitsCount; ++j_2)
{
int bestFitIndex;
if (j_2 == -1)
{
bestFitIndex = firstBestFit;
}
else
{
bestFitIndex = extraBestFits[j_2];
}
buf.Append("\n ");
buf.Append(methodsOrCtors[bestFitIndex].ToJavaDeclaration());
}
MemberBox firstFitMember = methodsOrCtors[firstBestFit];
string memberName = firstFitMember.GetName();
string memberClass = firstFitMember.GetDeclaringClass().FullName;
if (methodsOrCtors[0].IsCtor())
{
throw Context.ReportRuntimeError3("msg.constructor.ambiguous", memberName, ScriptSignature(args), buf.ToString());
}
else
{
throw Context.ReportRuntimeError4("msg.method.ambiguous", memberClass, memberName, ScriptSignature(args), buf.ToString());
}
}
internal static object ConstructInternal(object[] args, MemberBox ctor)
{
Type[] argTypes = ctor.argTypes;
if (ctor.vararg)
{
// marshall the explicit parameter
object[] newArgs = new object[argTypes.Length];
for (int i = 0; i < argTypes.Length - 1; i++)
{
newArgs[i] = Context.JsToJava(args[i], argTypes[i]);
}
object varArgs;
// Handle special situation where a single variable parameter
// is given and it is a Java or ECMA array.
if (args.Length == argTypes.Length && (args[args.Length - 1] == null || args[args.Length - 1] is NativeArray || args[args.Length - 1] is NativeJavaArray))
{
// convert the ECMA array into a native array
varArgs = Context.JsToJava(args[args.Length - 1], argTypes[argTypes.Length - 1]);
}
else
{
// marshall the variable parameter
Type componentType = argTypes[argTypes.Length - 1].GetElementType();
varArgs = System.Array.CreateInstance(componentType, args.Length - argTypes.Length + 1);
for (int i_1 = 0; i_1 < Sharpen.Runtime.GetArrayLength(varArgs); i_1++)
{
object value = Context.JsToJava(args[argTypes.Length - 1 + i_1], componentType);
Sharpen.Runtime.SetArrayValue(varArgs, i_1, value);
}
}
// add varargs
newArgs[argTypes.Length - 1] = varArgs;
// replace the original args with the new one
args = newArgs;
}
else
{
object[] origArgs = args;
for (int i = 0; i < args.Length; i++)
{
object arg = args[i];
object x = Context.JsToJava(arg, argTypes[i]);
if (x != arg)
{
if (args == origArgs)
{
args = origArgs.Clone();
}
args[i] = x;
}
}
}
return ctor.NewInstance(args);
}
internal static Scriptable ConstructSpecific(Context cx, Scriptable scope, object[] args, MemberBox ctor)
{
object instance = ConstructInternal(args, ctor);
// we need to force this to be wrapped, because construct _has_
// to return a scriptable
Scriptable topLevel = ScriptableObject.GetTopLevelScope(scope);
return cx.GetWrapFactory().WrapNewObject(cx, topLevel, instance);
}
private static MemberBox ExtractSetMethod(MemberBox[] methods, bool isStatic)
{
foreach (MemberBox method in methods)
{
if (!isStatic || method.IsStatic())
{
if (method.Method().ReturnType == typeof(void))
{
if (method.argTypes.Length == 1)
{
return method;
}
}
}
}
return null;
}
internal NativeJavaMethod(MemberBox method, string name)
{
this.functionName = name;
this.methods = new MemberBox[] { method };
}
internal BeanProperty(MemberBox getter, MemberBox setter, NativeJavaMethod setters)
{
this.getter = getter;
this.setter = setter;
this.setters = setters;
}
public NativeJavaConstructor(MemberBox ctor)
{
this.ctor = ctor;
}