int main(int count, refRefChar strings)
{ bool compiling; // Will we compile the C target file?
char path[maxPathLength]; // An absolute pathname.
set seen; // Command line options seen so far.
refStream source; // Read source files through this.
bool who; // Did the user ask who we are?
// STRING OPTION. Return the string value of OPTION. It's either the string on
// the command line that follows OPTION, or else it's everything but the first
// character of OPTION.
refChar stringOption(refChar option)
{ if (option[1] == eosChar)
{ count -= 1; strings += 1;
if (count > 0 && d(d(strings)) != eosChar)
{ return d(strings); }
else
{ fail("Missing value for '-%c'.", d(option)); }}
else
{ return option + 1; }}
// INT OPTION. Like STRING OPTION, but here we return the INT value of OPTION,
// which must be between MIN and MAX.
int intOption(refChar option, int min, int max)
{ refChar end;
int number;
errno = 0;
number = strtol(stringOption(option), r(end), 10);
if (d(end) != eosChar || errno == outRange || number < min || number > max)
{ fail("Unexpected value for '-%c'.", d(option)); }
else
{ return number; }}
int intOption(refChar option, int min, int max)
{ refChar end;
int number;
errno = 0;
number = strtol(stringOption(option), r(end), 10);
if (d(end) != eosChar || errno == outRange || number < min || number > max)
{ fail("Illegal value for '-%c'.", d(option)); }
else
{ return number; }}
StreamingSounds(int argc, const char * argv[]) : UnitTest(argc, argv)
{
vector<string> files;
string dirIn = stringOption(options, "dirIn");
string dirOut = stringOption(options, "dirOut");
string extension = stringOption(options, "ext");
string fileIn = "";
string fileOut = "";
findFiles(dirIn, files, extension);
for (vector<string>::iterator i = files.begin(); i != files.end(); ++i)
{
fileIn = *i;
fileOut = fileIn.substr(0, fileIn.find_first_of('.')) + ".swf";
cout << fileIn << endl;
#ifdef WIN32
fileOut = dirOut + "\\" + fileOut;
#else
fileOut = dirOut + "/" + fileOut;
#endif
try
{
FSMovie movie;
FSSoundConstructor* soundGenerator = SoundConstructor();
if (soundGenerator->setSoundFromFile(fileIn.c_str()) != TransformUtil::OK)
{
throw FSException("Could not load sound file");
}
float framesPerSecond = 12.0f;
movie.setFrameSize(FSBounds(0, 0, 8000, 4000));
movie.setFrameRate(framesPerSecond);
movie.add(new FSSetBackgroundColor(FSColorTable::lightblue()));
/*
* Calculate the time it takes to play the sound and the number of frames this
* represents.
*/
float duration = ((float) soundGenerator->getSamplesPerChannel()) / ((float) soundGenerator->getSampleRate());
int numberOfFrames = (int) (duration * framesPerSecond);
/*
* Play the Streaming Sound.
*
* Calculate the number of decoded sound samples played for each frame and
* the size, in bytes, of each block compressed sound data.
*/
int samplesPerBlock = soundGenerator->getSampleRate() / (int) framesPerSecond;
int numberOfBlocks = soundGenerator->getSamplesPerChannel() / samplesPerBlock;
/*
* An FSSoundStreamHeader2 object defines the attributes of the streaming sound.
*/
movie.add(soundGenerator->streamHeader(samplesPerBlock));
/*
* Add a streaming block for each frame so the sound is played as each frame
* is displayed.
*/
for (int i=0; i<numberOfBlocks; i++)
{
movie.add(soundGenerator->streamBlock(i, samplesPerBlock));
movie.add(new FSShowFrame());
}
movie.encodeToFile(fileOut.c_str());
delete soundGenerator;
}
catch (FSException e)
{
cerr << e.what();
}
}
}
StreamingSounds(map< string, string>& options)
{
string soundFile = stringOption(options, "file");
FSSoundConstructor* soundGenerator = SoundConstructor();
FSMovie movie;
int status = TransformUtil::OK;
if ((status = soundGenerator->setSoundFromFile(soundFile.c_str())) != TransformUtil::OK)
{
switch (status)
{
case TransformUtil::FileNotFound:
cout << "Could not find sound file" << endl; break;
case TransformUtil::ReadError:
cout << "Could not read sound file" << endl; break;
case TransformUtil::FormatError:
cout << "Could not read sound file" << endl; break;
}
}
if (status == TransformUtil::OK)
{
float framesPerSecond = 12.0f;
/*
* Calculate the time it takes to play the sound and the number of frames
* this represents.
*/
float duration = ((float) soundGenerator->getSamplesPerChannel()) /
((float) soundGenerator->getSampleRate());
int numberOfFrames = (int) (duration * framesPerSecond);
/*
* Calculate the number of decoded sound samples played for each frame and
* the size, in bytes, of each block compressed sound data.
*/
int samplesPerBlock = soundGenerator->getSampleRate() / (int) framesPerSecond;
int numberOfBlocks = soundGenerator->getSamplesPerChannel() / samplesPerBlock;
/*
* Add all the objects together to create the movie.
*/
movie.setFrameSize(FSBounds(0, 0, 8000, 4000));
movie.setFrameRate(framesPerSecond);
movie.add(new FSSetBackgroundColor(FSColorTable::lightblue()));
/*
* An FSSoundStreamHeader2 object defines the attributes of the streaming sound.
*/
movie.add(soundGenerator->streamHeader(samplesPerBlock));
/*
* Add a streaming block for each frame so the sound is played as each frame
* is displayed.
*/
for (int i=0; i<numberOfBlocks; i++)
{
movie.add(soundGenerator->streamBlock(i, samplesPerBlock));
movie.add(new FSShowFrame());
}
saveMovie(movie, stringOption(options, "resultDir"), "StreamingSounds.swf");
}
delete soundGenerator;
}
FillStyles(map< string, string>& options)
{
FSMovie movie;
int width = 3600;
int height = 2700;
string imageFile = stringOption(options, "image");
/*
* A row of five rectangles will be displayed - one for each fill style.
* The additional space is ued to provide padding between the rectangles
* and to the edge of the screen.
*/
movie.setFrameSize(FSBounds(0, 0, (width+800)*5 , height+800));
movie.setFrameRate(1.0f);
movie.add(new FSSetBackgroundColor(FSColorTable::lightblue()));
/*
* Define the rectangle that is filled with the different fill styles.
*/
FSBounds bounds(-width/2, -height/2, width/2, height/2);
FSShape rectangle;
rectangle.add(new FSShapeStyle(1, 1, 0, -width/2, -height/2));
rectangle.add(new FSLine(width, 0));
rectangle.add(new FSLine(0, height));
rectangle.add(new FSLine(-width, 0));
rectangle.add(new FSLine(0, -height));
/*
* The following variables are reused for each fill style to simplify the code.
* In Transform an object assumes ownership for any added to it, so the shape
* and style arrays can be safely reused in the FSDefineShape constructor. A
* shallow copy of the object is made. The FSDefineShape object assumes
* ownership of the objects they contain and no explicit memory management
* is required - the objects will be deleted when the shape is deleted.
*/
int identifier = 0;
FSShape shape;
FSVector<FSLineStyle*> lineStyles(1);
FSVector<FSFillStyle*> fillStyles(1);
/*************************************************
* Create a rectangle filled with a solid colour.
*************************************************/
shape = rectangle;
identifier = movie.newIdentifier();
lineStyles[0] = new FSSolidLine(20, FSColorTable::black());
fillStyles[0] = new FSSolidFill(FSColorTable::red());
movie.add(new FSDefineShape(identifier, bounds, fillStyles, lineStyles, shape));
movie.add(new FSPlaceObject(identifier, 1, 2000, 1600));
/******************************************
* Create a rectangle tiled with an image.
******************************************/
shape = rectangle;
identifier = movie.newIdentifier();
lineStyles[0] = new FSSolidLine(20, FSColorTable::black());
try
{
size_t size = 0;
byte* bytes = dataFromFile(imageFile.c_str(), size);
FSDefineJPEGImage* image = new FSDefineJPEGImage(movie.newIdentifier(), bytes, size);
/*
* Scale the loaded image to half its original size so it will tile four times inside the
* rectangle. When an image is loaded its width and height default to twips rather than
* pixels. An image 300 x 200 pixels will be displayed as 300 x 200 twips (15 x 10 pixels).
* Scaling the image by 20 (20 twips = 1 pixel) would restore it to its original size. Here
* we only scale the image to half its original size so variable sized images passed on the
* command line when the example is run are more easily seen.
*
* The coordinate transform relocates the top left corner of the image to the top left
* corner of the rectangle in which it is displayed.
*/
FSCoordTransform transform = FSCoordTransform(-width/2, -height/2, 10.0, 10.0);
fillStyles[0] = new FSBitmapFill(FSFillStyle::TiledBitmap, image->getIdentifier(), transform);
movie.add(image);
movie.add(new FSJPEGEncodingTable()); // The image will still be displayed with an empty table
movie.add(new FSDefineShape(identifier, bounds, fillStyles, lineStyles, shape));
movie.add(new FSPlaceObject(identifier, 2, 6000, 1600));
}
catch (FSFileOpenException e)
{
cerr << e.what();
}
catch (FSAccessException e)
{
cerr << e.what();
}
/**************************************************
* Create a rectangle filled with a clipped image.
**************************************************/
shape = rectangle;
identifier = movie.newIdentifier();
lineStyles[0] = new FSSolidLine(20, FSColorTable::black());
try
{
size_t size = 0;
byte* bytes = dataFromFile(imageFile.c_str(), size);
FSDefineJPEGImage* image = new FSDefineJPEGImage(movie.newIdentifier(), bytes, size);
/*
* Scale the loaded image to half its original size so variable sized images are
* more easily seen. The coordinate transformation, taking into account the scaling
* factor will display the image centered in the middle of the rectangle.
*/
FSCoordTransform transform = FSCoordTransform(-(image->getWidth()*10)/2, -(image->getHeight()*10)/2, 10.0, 10.0);
fillStyles[0] = new FSBitmapFill(FSFillStyle::ClippedBitmap, image->getIdentifier(), transform);
movie.add(image);
movie.add(new FSJPEGEncodingTable()); // The image will still be displayed with an empty table
movie.add(new FSDefineShape(identifier, bounds, fillStyles, lineStyles, shape));
movie.add(new FSPlaceObject(identifier, 3, 10000, 1600));
}
catch (FSFileOpenException e)
{
cerr << e.what();
}
catch (FSAccessException e)
{
cerr << e.what();
}
/*********************************************************
* Create a rectangle filled with linear gradient colour.
*********************************************************/
shape = rectangle;
identifier = movie.newIdentifier();
/*
* The gradient square must be mapped to the rectangle being filled. The square
* measures 32768 x 32768 twips. The coordinates range from -16384, -16384 at the
* bottom left corner to (16384, 16384) at the top right corner. Mapping takes place
* in three steps:
*
* 1. The coordinate system of the gradient square is translated to match the coordinate
* system of the shape in which the gradient is displayed. In this example, both the
* gradient square and the rectangle in which it will be displayed are both centred at
* (0,0) - see the FSBounds object created above. For this example the full range of the
* gradient will be displayed so no translation is required. The second example that
* displays a radial gradient illustrates how the translation can be calculated to change
* the portion of the gradient being displayed.
*
* 2. The gradient square is scaled so that the full range of the gradient will be
* displayed inside the rectangle. If a smaller scaling factor is set then the
* portion of the gradient being displayed will change. The second example shows
* how the scaling factor affects the gradient.
*
* 3. The gradient can be rotated to change the direction of the colour change. If a
* rotation is not applied then the gradient changes in the positive x axis - front left
* to right on the Flash Player's screen.
*/
// To display the full gradient, calculate the ratio of the shape's width to the width
// of the gradient square. The gradient will be rotated so the width is used rather than
// calculating the length of the diagonal.
float scale = bounds.getWidth() / 32768.0f;
// Since the centre of the rectangle and the gradient square are both at (0,0) no
// additional translation is required.
int translateX = 0;
int translateY = 0;
// The order of composition is important. If the scale transform was the first argument
// then the translation coordinates would also be scaled.
// The scaling is performed in the x and y direction as the gradient is rotated in the
// the following step.
FSCoordTransform transform = FSCoordTransform(translateX, translateY, scale, scale);
// Apply a rotation so the gradient changes across the diagonal of the rectangle.
transform.rotate(45);
/*
* The array of FSGradient objects defines how the colour changes across the gradient
* square. The ratio defines the proportion across the square: 0 is the left side and
* 255 is the right side.
*/
FSVector<FSGradient> gradients(2);
gradients[0] = FSGradient(0, FSColorTable::white());
gradients[1] = FSGradient(255, FSColorTable::black());
lineStyles[0] = new FSSolidLine(20, FSColorTable::black());
fillStyles[0] = new FSGradientFill(FSFillStyle::LinearGradient, transform, gradients);
movie.add(new FSDefineShape(identifier, bounds, fillStyles, lineStyles, shape));
movie.add(new FSPlaceObject(identifier, 4, 14000, 1600));
/*********************************************************
* Create a rectangle filled with radial gradient colour.
*********************************************************/
shape = rectangle;
identifier = movie.newIdentifier();
// Resize the gradients array so the gradient will contain 4 colours.
gradients.resize(4);
/* The gradient will be centred in the bottom left corner of the rectangle
* since the full spectrum of the radial gradient will be displayed the
* gradient square need only be scaled by half the amount compared to the
* linear gradient above.
*/
float scaleX = (bounds.getWidth() / 32768.0f) * 2.0f;
float scaleY = (bounds.getHeight() / 32768.0f) * 2.0f;
/* Here the translation is calculated so the centre is expressed as a percentage
* of the width of the rectangle. The general form of the calculation is:
*
* translateX = bounds.getMinX() + bounds.getWidth() * 0.0;
* translateY = bounds.getMinY() + bounds.getHeight() * 0.25;
*/
translateX = bounds.getMinX();
translateY = bounds.getMinY();
transform = FSCoordTransform(translateX, translateY, scaleX, scaleY);
gradients[0] = FSGradient(15, FSColorTable::red());
gradients[1] = FSGradient(63, FSColorTable::orange());
gradients[2] = FSGradient(127, FSColorTable::yellow());
gradients[3] = FSGradient(255, FSColorTable::green());
lineStyles[0] = new FSSolidLine(1, FSColorTable::black());
fillStyles[0] = new FSGradientFill(FSFillStyle::RadialGradient, transform, gradients);
movie.add(new FSDefineShape(identifier, bounds, fillStyles, lineStyles, shape));
movie.add(new FSPlaceObject(identifier, 5, 18000, 1600));
movie.add(new FSShowFrame());
saveMovie(movie, stringOption(options, "resultDir"), "FillStyles.swf");
}
MovieBasics(map<string, string>& options)
{
FSMovie movie;
/*
* The movie bounds are specified in twips. The bounding rectangle is defined
* by two points: the lower left corner and the upper right corner of the
* rectangle that encloses the area.
*
* The bounding rectangle also defines the coordinate range for the x and y axes.
* Here the coordinates for the x and y axes range from -4000 to +4000. A point with
* the coordinates (0,0) lies in the center of the screen.
*
* If the coordinates of the corners were specified as (0,0) and (4000, 4000) the
* size of the screen is still the same however the center of the screen now
* lies at (2000,2000)
*/
int xLower = -4000;
int yLower = -4000;
int xUpper = 4000;
int yUpper = 4000;
movie.setFrameSize(FSBounds(xLower, yLower, xUpper, yUpper));
/*
* Set the frame rate at which the movie will be played.
*/
float framesPerSecond = 1.0f;
movie.setFrameRate(framesPerSecond);
/*
* Set the movie's background colour to light blue. The background colour
* only be set once and should be the first object added to a movie. If no
* background colour is specified then the Flash Player will set it to white.
*/
movie.add(new FSSetBackgroundColor(FSColorTable::lightblue()));
/*
* Define a shape to be displayed. Each object must be assigned a unique identifier
* which is used to reference the object when adding, updating or removing it from
* the display list. The movie object keeps track of the identifier to guarantee
* each is unique.
*/
int identifier = movie.newIdentifier();
int width = 4000;
int height = 4000;
FSBounds bounds(-2000, -2000, 2000, 2000);
FSVector<FSLineStyle*> lineStyles(1);
FSVector<FSFillStyle*> fillStyles(1);
lineStyles[0] = new FSSolidLine(20, FSColorTable::black());
fillStyles[0] = new FSSolidFill(FSColorTable::red());
/*
* Create the outline of the shape. All drawing is performed using a series
* of line an curve objects. The FSShapeStyle class is used to select the
* current line and fill styles and to perform absolute moves within the
* coordinate space of the shape (relative moves can be performed by drawing
* line when no line style is selected - set the line style to 0).
*/
FSShape shape;
shape.add(new FSShapeStyle(1, 1, 0, -width/2, -height/2));
shape.add(new FSLine(width, 0));
shape.add(new FSLine(0, height));
shape.add(new FSLine(-width, 0));
shape.add(new FSLine(0, -height));
FSDefineShape* rectangle = new FSDefineShape(identifier, bounds, fillStyles, lineStyles, shape);
/*
* Add the rectangle to the movie. All shapes and objects must be defined before
* they can be placed on the display list and rendered on the Flash Player's
* screen.
*/
movie.add(rectangle);
/*
* Place the shape on the display list. See the DisplayList example for the set of
* objects that are used to add, update and remove objects from the display list.
*/
movie.add(new FSPlaceObject(identifier, 1, 0, 0));
/*
* Show the contents of the display list. Frames are delimited by successive
* FSShowFrame objects.
*/
movie.add(new FSShowFrame());
saveMovie(movie, stringOption(options, "resultDir"), "MovieBasics.swf");
}