Examples with DataBufferShort java.awt.image.DataBufferShort used on opensource projects

Example 11 with DataBufferShort

use of java.awt.image.DataBufferShort in project jdk8u_jdk by JetBrains.

the class IncorrectUnmanagedImageRotatedClip method makeUnmanagedBI.

private static BufferedImage makeUnmanagedBI() {
    final BufferedImage bi = new BufferedImage(500, 200, TYPE_INT_ARGB);
    final DataBuffer db = bi.getRaster().getDataBuffer();
    if (db instanceof DataBufferInt) {
        ((DataBufferInt) db).getData();
    } else if (db instanceof DataBufferShort) {
        ((DataBufferShort) db).getData();
    } else if (db instanceof DataBufferByte) {
        ((DataBufferByte) db).getData();
    } else {
        try {
            bi.setAccelerationPriority(0.0f);
        } catch (final Throwable ignored) {
        }
    }
    return bi;
}

Example 12 with DataBufferShort

use of java.awt.image.DataBufferShort in project jdk8u_jdk by JetBrains.

the class ImageUtil method setPackedBinaryData.

/**
     * Sets the supplied <code>Raster</code>'s data from an array
     * of packed binary data of the form returned by
     * <code>getPackedBinaryData()</code>.
     *
     * @throws IllegalArgumentException if <code>isBinary()</code> returns
     * <code>false</code> with the <code>SampleModel</code> of the
     * supplied <code>Raster</code> as argument.
     */
public static void setPackedBinaryData(byte[] binaryDataArray, WritableRaster raster, Rectangle rect) {
    SampleModel sm = raster.getSampleModel();
    if (!isBinary(sm)) {
        throw new IllegalArgumentException(I18N.getString("ImageUtil0"));
    }
    int rectX = rect.x;
    int rectY = rect.y;
    int rectWidth = rect.width;
    int rectHeight = rect.height;
    DataBuffer dataBuffer = raster.getDataBuffer();
    int dx = rectX - raster.getSampleModelTranslateX();
    int dy = rectY - raster.getSampleModelTranslateY();
    MultiPixelPackedSampleModel mpp = (MultiPixelPackedSampleModel) sm;
    int lineStride = mpp.getScanlineStride();
    int eltOffset = dataBuffer.getOffset() + mpp.getOffset(dx, dy);
    int bitOffset = mpp.getBitOffset(dx);
    int b = 0;
    if (bitOffset == 0) {
        if (dataBuffer instanceof DataBufferByte) {
            byte[] data = ((DataBufferByte) dataBuffer).getData();
            if (data == binaryDataArray) {
                // Optimal case: simply return.
                return;
            }
            int stride = (rectWidth + 7) / 8;
            int offset = 0;
            for (int y = 0; y < rectHeight; y++) {
                System.arraycopy(binaryDataArray, offset, data, eltOffset, stride);
                offset += stride;
                eltOffset += lineStride;
            }
        } else if (dataBuffer instanceof DataBufferShort || dataBuffer instanceof DataBufferUShort) {
            short[] data = dataBuffer instanceof DataBufferShort ? ((DataBufferShort) dataBuffer).getData() : ((DataBufferUShort) dataBuffer).getData();
            for (int y = 0; y < rectHeight; y++) {
                int xRemaining = rectWidth;
                int i = eltOffset;
                while (xRemaining > 8) {
                    data[i++] = (short) (((binaryDataArray[b++] & 0xFF) << 8) | (binaryDataArray[b++] & 0xFF));
                    xRemaining -= 16;
                }
                if (xRemaining > 0) {
                    data[i++] = (short) ((binaryDataArray[b++] & 0xFF) << 8);
                }
                eltOffset += lineStride;
            }
        } else if (dataBuffer instanceof DataBufferInt) {
            int[] data = ((DataBufferInt) dataBuffer).getData();
            for (int y = 0; y < rectHeight; y++) {
                int xRemaining = rectWidth;
                int i = eltOffset;
                while (xRemaining > 24) {
                    data[i++] = (int) (((binaryDataArray[b++] & 0xFF) << 24) | ((binaryDataArray[b++] & 0xFF) << 16) | ((binaryDataArray[b++] & 0xFF) << 8) | (binaryDataArray[b++] & 0xFF));
                    xRemaining -= 32;
                }
                int shift = 24;
                while (xRemaining > 0) {
                    data[i] |= (int) ((binaryDataArray[b++] & 0xFF) << shift);
                    shift -= 8;
                    xRemaining -= 8;
                }
                eltOffset += lineStride;
            }
        }
    } else {
        // bitOffset != 0
        int stride = (rectWidth + 7) / 8;
        int offset = 0;
        if (dataBuffer instanceof DataBufferByte) {
            byte[] data = ((DataBufferByte) dataBuffer).getData();
            if ((bitOffset & 7) == 0) {
                for (int y = 0; y < rectHeight; y++) {
                    System.arraycopy(binaryDataArray, offset, data, eltOffset, stride);
                    offset += stride;
                    eltOffset += lineStride;
                }
            } else {
                // bitOffset % 8 != 0
                int rightShift = bitOffset & 7;
                int leftShift = 8 - rightShift;
                int leftShift8 = 8 + leftShift;
                int mask = (byte) (255 << leftShift);
                int mask1 = (byte) ~mask;
                for (int y = 0; y < rectHeight; y++) {
                    int i = eltOffset;
                    int xRemaining = rectWidth;
                    while (xRemaining > 0) {
                        byte datum = binaryDataArray[b++];
                        if (xRemaining > leftShift8) {
                            // when all the bits in this BYTE will be set
                            // into the data buffer.
                            data[i] = (byte) ((data[i] & mask) | ((datum & 0xFF) >>> rightShift));
                            data[++i] = (byte) ((datum & 0xFF) << leftShift);
                        } else if (xRemaining > leftShift) {
                            // All the "leftShift" high bits will be set
                            // into the data buffer.  But not all the
                            // "rightShift" low bits will be set.
                            data[i] = (byte) ((data[i] & mask) | ((datum & 0xFF) >>> rightShift));
                            i++;
                            data[i] = (byte) ((data[i] & mask1) | ((datum & 0xFF) << leftShift));
                        } else {
                            // Less than "leftShift" high bits will be set.
                            int remainMask = (1 << leftShift - xRemaining) - 1;
                            data[i] = (byte) ((data[i] & (mask | remainMask)) | (datum & 0xFF) >>> rightShift & ~remainMask);
                        }
                        xRemaining -= 8;
                    }
                    eltOffset += lineStride;
                }
            }
        } else if (dataBuffer instanceof DataBufferShort || dataBuffer instanceof DataBufferUShort) {
            short[] data = dataBuffer instanceof DataBufferShort ? ((DataBufferShort) dataBuffer).getData() : ((DataBufferUShort) dataBuffer).getData();
            int rightShift = bitOffset & 7;
            int leftShift = 8 - rightShift;
            int leftShift16 = 16 + leftShift;
            int mask = (short) (~(255 << leftShift));
            int mask1 = (short) (65535 << leftShift);
            int mask2 = (short) ~mask1;
            for (int y = 0; y < rectHeight; y++) {
                int bOffset = bitOffset;
                int xRemaining = rectWidth;
                for (int x = 0; x < rectWidth; x += 8, bOffset += 8, xRemaining -= 8) {
                    int i = eltOffset + (bOffset >> 4);
                    int mod = bOffset & 15;
                    int datum = binaryDataArray[b++] & 0xFF;
                    if (mod <= 8) {
                        // This BYTE is set into one SHORT
                        if (xRemaining < 8) {
                            // Mask the bits to be set.
                            datum &= 255 << 8 - xRemaining;
                        }
                        data[i] = (short) ((data[i] & mask) | (datum << leftShift));
                    } else if (xRemaining > leftShift16) {
                        // This BYTE will be set into two SHORTs
                        data[i] = (short) ((data[i] & mask1) | ((datum >>> rightShift) & 0xFFFF));
                        data[++i] = (short) ((datum << leftShift) & 0xFFFF);
                    } else if (xRemaining > leftShift) {
                        // This BYTE will be set into two SHORTs;
                        // But not all the low bits will be set into SHORT
                        data[i] = (short) ((data[i] & mask1) | ((datum >>> rightShift) & 0xFFFF));
                        i++;
                        data[i] = (short) ((data[i] & mask2) | ((datum << leftShift) & 0xFFFF));
                    } else {
                        // Only some of the high bits will be set into
                        // SHORTs
                        int remainMask = (1 << leftShift - xRemaining) - 1;
                        data[i] = (short) ((data[i] & (mask1 | remainMask)) | ((datum >>> rightShift) & 0xFFFF & ~remainMask));
                    }
                }
                eltOffset += lineStride;
            }
        } else if (dataBuffer instanceof DataBufferInt) {
            int[] data = ((DataBufferInt) dataBuffer).getData();
            int rightShift = bitOffset & 7;
            int leftShift = 8 - rightShift;
            int leftShift32 = 32 + leftShift;
            int mask = 0xFFFFFFFF << leftShift;
            int mask1 = ~mask;
            for (int y = 0; y < rectHeight; y++) {
                int bOffset = bitOffset;
                int xRemaining = rectWidth;
                for (int x = 0; x < rectWidth; x += 8, bOffset += 8, xRemaining -= 8) {
                    int i = eltOffset + (bOffset >> 5);
                    int mod = bOffset & 31;
                    int datum = binaryDataArray[b++] & 0xFF;
                    if (mod <= 24) {
                        // This BYTE is set into one INT
                        int shift = 24 - mod;
                        if (xRemaining < 8) {
                            // Mask the bits to be set.
                            datum &= 255 << 8 - xRemaining;
                        }
                        data[i] = (data[i] & (~(255 << shift))) | (datum << shift);
                    } else if (xRemaining > leftShift32) {
                        // All the bits of this BYTE will be set into two INTs
                        data[i] = (data[i] & mask) | (datum >>> rightShift);
                        data[++i] = datum << leftShift;
                    } else if (xRemaining > leftShift) {
                        // This BYTE will be set into two INTs;
                        // But not all the low bits will be set into INT
                        data[i] = (data[i] & mask) | (datum >>> rightShift);
                        i++;
                        data[i] = (data[i] & mask1) | (datum << leftShift);
                    } else {
                        // Only some of the high bits will be set into INT
                        int remainMask = (1 << leftShift - xRemaining) - 1;
                        data[i] = (data[i] & (mask | remainMask)) | (datum >>> rightShift & ~remainMask);
                    }
                }
                eltOffset += lineStride;
            }
        }
    }
}

Example 13 with DataBufferShort

use of java.awt.image.DataBufferShort in project jdk8u_jdk by JetBrains.

the class ImageUtil method getPackedBinaryData.

/**
     * For the case of binary data (<code>isBinary()</code> returns
     * <code>true</code>), return the binary data as a packed byte array.
     * The data will be packed as eight bits per byte with no bit offset,
     * i.e., the first bit in each image line will be the left-most of the
     * first byte of the line.  The line stride in bytes will be
     * <code>(int)((getWidth()+7)/8)</code>.  The length of the returned
     * array will be the line stride multiplied by <code>getHeight()</code>
     *
     * @return the binary data as a packed array of bytes with zero offset
     * of <code>null</code> if the data are not binary.
     * @throws IllegalArgumentException if <code>isBinary()</code> returns
     * <code>false</code> with the <code>SampleModel</code> of the
     * supplied <code>Raster</code> as argument.
     */
public static byte[] getPackedBinaryData(Raster raster, Rectangle rect) {
    SampleModel sm = raster.getSampleModel();
    if (!isBinary(sm)) {
        throw new IllegalArgumentException(I18N.getString("ImageUtil0"));
    }
    int rectX = rect.x;
    int rectY = rect.y;
    int rectWidth = rect.width;
    int rectHeight = rect.height;
    DataBuffer dataBuffer = raster.getDataBuffer();
    int dx = rectX - raster.getSampleModelTranslateX();
    int dy = rectY - raster.getSampleModelTranslateY();
    MultiPixelPackedSampleModel mpp = (MultiPixelPackedSampleModel) sm;
    int lineStride = mpp.getScanlineStride();
    int eltOffset = dataBuffer.getOffset() + mpp.getOffset(dx, dy);
    int bitOffset = mpp.getBitOffset(dx);
    int numBytesPerRow = (rectWidth + 7) / 8;
    if (dataBuffer instanceof DataBufferByte && eltOffset == 0 && bitOffset == 0 && numBytesPerRow == lineStride && ((DataBufferByte) dataBuffer).getData().length == numBytesPerRow * rectHeight) {
        return ((DataBufferByte) dataBuffer).getData();
    }
    byte[] binaryDataArray = new byte[numBytesPerRow * rectHeight];
    int b = 0;
    if (bitOffset == 0) {
        if (dataBuffer instanceof DataBufferByte) {
            byte[] data = ((DataBufferByte) dataBuffer).getData();
            int stride = numBytesPerRow;
            int offset = 0;
            for (int y = 0; y < rectHeight; y++) {
                System.arraycopy(data, eltOffset, binaryDataArray, offset, stride);
                offset += stride;
                eltOffset += lineStride;
            }
        } else if (dataBuffer instanceof DataBufferShort || dataBuffer instanceof DataBufferUShort) {
            short[] data = dataBuffer instanceof DataBufferShort ? ((DataBufferShort) dataBuffer).getData() : ((DataBufferUShort) dataBuffer).getData();
            for (int y = 0; y < rectHeight; y++) {
                int xRemaining = rectWidth;
                int i = eltOffset;
                while (xRemaining > 8) {
                    short datum = data[i++];
                    binaryDataArray[b++] = (byte) ((datum >>> 8) & 0xFF);
                    binaryDataArray[b++] = (byte) (datum & 0xFF);
                    xRemaining -= 16;
                }
                if (xRemaining > 0) {
                    binaryDataArray[b++] = (byte) ((data[i] >>> 8) & 0XFF);
                }
                eltOffset += lineStride;
            }
        } else if (dataBuffer instanceof DataBufferInt) {
            int[] data = ((DataBufferInt) dataBuffer).getData();
            for (int y = 0; y < rectHeight; y++) {
                int xRemaining = rectWidth;
                int i = eltOffset;
                while (xRemaining > 24) {
                    int datum = data[i++];
                    binaryDataArray[b++] = (byte) ((datum >>> 24) & 0xFF);
                    binaryDataArray[b++] = (byte) ((datum >>> 16) & 0xFF);
                    binaryDataArray[b++] = (byte) ((datum >>> 8) & 0xFF);
                    binaryDataArray[b++] = (byte) (datum & 0xFF);
                    xRemaining -= 32;
                }
                int shift = 24;
                while (xRemaining > 0) {
                    binaryDataArray[b++] = (byte) ((data[i] >>> shift) & 0xFF);
                    shift -= 8;
                    xRemaining -= 8;
                }
                eltOffset += lineStride;
            }
        }
    } else {
        // bitOffset != 0
        if (dataBuffer instanceof DataBufferByte) {
            byte[] data = ((DataBufferByte) dataBuffer).getData();
            if ((bitOffset & 7) == 0) {
                int stride = numBytesPerRow;
                int offset = 0;
                for (int y = 0; y < rectHeight; y++) {
                    System.arraycopy(data, eltOffset, binaryDataArray, offset, stride);
                    offset += stride;
                    eltOffset += lineStride;
                }
            } else {
                // bitOffset % 8 != 0
                int leftShift = bitOffset & 7;
                int rightShift = 8 - leftShift;
                for (int y = 0; y < rectHeight; y++) {
                    int i = eltOffset;
                    int xRemaining = rectWidth;
                    while (xRemaining > 0) {
                        if (xRemaining > rightShift) {
                            binaryDataArray[b++] = (byte) (((data[i++] & 0xFF) << leftShift) | ((data[i] & 0xFF) >>> rightShift));
                        } else {
                            binaryDataArray[b++] = (byte) ((data[i] & 0xFF) << leftShift);
                        }
                        xRemaining -= 8;
                    }
                    eltOffset += lineStride;
                }
            }
        } else if (dataBuffer instanceof DataBufferShort || dataBuffer instanceof DataBufferUShort) {
            short[] data = dataBuffer instanceof DataBufferShort ? ((DataBufferShort) dataBuffer).getData() : ((DataBufferUShort) dataBuffer).getData();
            for (int y = 0; y < rectHeight; y++) {
                int bOffset = bitOffset;
                for (int x = 0; x < rectWidth; x += 8, bOffset += 8) {
                    int i = eltOffset + bOffset / 16;
                    int mod = bOffset % 16;
                    int left = data[i] & 0xFFFF;
                    if (mod <= 8) {
                        binaryDataArray[b++] = (byte) (left >>> (8 - mod));
                    } else {
                        int delta = mod - 8;
                        int right = data[i + 1] & 0xFFFF;
                        binaryDataArray[b++] = (byte) ((left << delta) | (right >>> (16 - delta)));
                    }
                }
                eltOffset += lineStride;
            }
        } else if (dataBuffer instanceof DataBufferInt) {
            int[] data = ((DataBufferInt) dataBuffer).getData();
            for (int y = 0; y < rectHeight; y++) {
                int bOffset = bitOffset;
                for (int x = 0; x < rectWidth; x += 8, bOffset += 8) {
                    int i = eltOffset + bOffset / 32;
                    int mod = bOffset % 32;
                    int left = data[i];
                    if (mod <= 24) {
                        binaryDataArray[b++] = (byte) (left >>> (24 - mod));
                    } else {
                        int delta = mod - 24;
                        int right = data[i + 1];
                        binaryDataArray[b++] = (byte) ((left << delta) | (right >>> (32 - delta)));
                    }
                }
                eltOffset += lineStride;
            }
        }
    }
    return binaryDataArray;
}

Example 14 with DataBufferShort

use of java.awt.image.DataBufferShort in project jdk8u_jdk by JetBrains.

the class ImageUtil method setUnpackedBinaryData.

/**
     * Copies data into the packed array of the <code>Raster</code>
     * from an array of unpacked data of the form returned by
     * <code>getUnpackedBinaryData()</code>.
     *
     * <p> If the data are binary, then the target bit will be set if
     * and only if the corresponding byte is non-zero.
     *
     * @throws IllegalArgumentException if <code>isBinary()</code> returns
     * <code>false</code> with the <code>SampleModel</code> of the
     * supplied <code>Raster</code> as argument.
     */
public static void setUnpackedBinaryData(byte[] bdata, WritableRaster raster, Rectangle rect) {
    SampleModel sm = raster.getSampleModel();
    if (!isBinary(sm)) {
        throw new IllegalArgumentException(I18N.getString("ImageUtil0"));
    }
    int rectX = rect.x;
    int rectY = rect.y;
    int rectWidth = rect.width;
    int rectHeight = rect.height;
    DataBuffer dataBuffer = raster.getDataBuffer();
    int dx = rectX - raster.getSampleModelTranslateX();
    int dy = rectY - raster.getSampleModelTranslateY();
    MultiPixelPackedSampleModel mpp = (MultiPixelPackedSampleModel) sm;
    int lineStride = mpp.getScanlineStride();
    int eltOffset = dataBuffer.getOffset() + mpp.getOffset(dx, dy);
    int bitOffset = mpp.getBitOffset(dx);
    int k = 0;
    if (dataBuffer instanceof DataBufferByte) {
        byte[] data = ((DataBufferByte) dataBuffer).getData();
        for (int y = 0; y < rectHeight; y++) {
            int bOffset = eltOffset * 8 + bitOffset;
            for (int x = 0; x < rectWidth; x++) {
                if (bdata[k++] != (byte) 0) {
                    data[bOffset / 8] |= (byte) (0x00000001 << (7 - bOffset & 7));
                }
                bOffset++;
            }
            eltOffset += lineStride;
        }
    } else if (dataBuffer instanceof DataBufferShort || dataBuffer instanceof DataBufferUShort) {
        short[] data = dataBuffer instanceof DataBufferShort ? ((DataBufferShort) dataBuffer).getData() : ((DataBufferUShort) dataBuffer).getData();
        for (int y = 0; y < rectHeight; y++) {
            int bOffset = eltOffset * 16 + bitOffset;
            for (int x = 0; x < rectWidth; x++) {
                if (bdata[k++] != (byte) 0) {
                    data[bOffset / 16] |= (short) (0x00000001 << (15 - bOffset % 16));
                }
                bOffset++;
            }
            eltOffset += lineStride;
        }
    } else if (dataBuffer instanceof DataBufferInt) {
        int[] data = ((DataBufferInt) dataBuffer).getData();
        for (int y = 0; y < rectHeight; y++) {
            int bOffset = eltOffset * 32 + bitOffset;
            for (int x = 0; x < rectWidth; x++) {
                if (bdata[k++] != (byte) 0) {
                    data[bOffset / 32] |= (int) (0x00000001 << (31 - bOffset % 32));
                }
                bOffset++;
            }
            eltOffset += lineStride;
        }
    }
}

Example 15 with DataBufferShort

use of java.awt.image.DataBufferShort in project imageio-ext by geosolutions-it.

the class TIFFDecompressor method decode.

/**
 * Decodes the input bit stream (located in the
 * <code>ImageInputStream</code> <code>stream</code>, at offset
 * <code>offset</code>, and continuing for <code>byteCount</code>
 * bytes) into the output <code>BufferedImage</code>
 * <code>image</code>.
 *
 * <p> The default implementation analyzes the destination image
 * to determine if it is suitable as the destination for the
 * <code>decodeRaw</code> method.  If not, a suitable image is
 * created.  Next, <code>decodeRaw</code> is called to perform the
 * actual decoding, and the results are copied into the
 * destination image if necessary.  Subsampling and offsetting are
 * performed automatically.
 *
 * <p> The precise responsibilities of this routine are as
 * follows.  The input bit stream is defined by the instance
 * variables <code>stream</code>, <code>offset</code>, and
 * <code>byteCount</code>.  These bits contain the data for the
 * region of the source image defined by <code>srcMinX</code>,
 * <code>srcMinY</code>, <code>srcWidth</code>, and
 * <code>srcHeight</code>.
 *
 * <p> The source data is required to be subsampling, starting at
 * the <code>sourceXOffset</code>th column and including
 * every <code>subsampleX</code>th pixel thereafter (and similarly
 * for <code>sourceYOffset</code> and
 * <code>subsampleY</code>).
 *
 * <p> Pixels are copied into the destination with an addition shift of
 * (<code>dstXOffset</code>, <code>dstYOffset</code>).  The complete
 * set of formulas relating the source and destination coordinate spaces
 * are:
 *
 * <pre>
 * dx = (sx - sourceXOffset)/subsampleX + dstXOffset;
 * dy = (sy - sourceYOffset)/subsampleY + dstYOffset;
 * </pre>
 *
 * Only source pixels such that <code>(sx - sourceXOffset) %
 * subsampleX == 0</code> and <code>(sy - sourceYOffset) %
 * subsampleY == 0</code> are copied.
 *
 * <p> The inverse mapping, from destination to source coordinates,
 * is one-to-one:
 *
 * <pre>
 * sx = (dx - dstXOffset)*subsampleX + sourceXOffset;
 * sy = (dy - dstYOffset)*subsampleY + sourceYOffset;
 * </pre>
 *
 * <p> The region of the destination image to be updated is given
 * by the instance variables <code>dstMinX</code>,
 * <code>dstMinY</code>, <code>dstWidth</code>, and
 * <code>dstHeight</code>.
 *
 * <p> It is possible that not all of the source data being read
 * will contribute to the destination image.  For example, the
 * destination offsets could be set such that some of the source
 * pixels land outside of the bounds of the image.  As a
 * convenience, the bounds of the active source region (that is,
 * the region of the strip or tile being read that actually
 * contributes to the destination image, taking clipping into
 * account) are available as <code>activeSrcMinX</code>,
 * <code>activeSrcMinY</code>, <code>activeSrcWidth</code> and
 * <code>activeSrcHeight</code>.  Thus, the source pixel at
 * (<code>activeSrcMinX</code>, <code>activeSrcMinY</code>) will
 * map to the destination pixel (<code>dstMinX</code>,
 * <code>dstMinY</code>).
 *
 * <p> The sequence of source bands given by
 * <code>sourceBands</code> are to be copied into the sequence of
 * bands in the destination given by
 * <code>destinationBands</code>.
 *
 * <p> Some standard tag information is provided the instance
 * variables <code>photometricInterpretation</code>,
 * <code>compression</code>, <code>samplesPerPixel</code>,
 * <code>bitsPerSample</code>, <code>sampleFormat</code>,
 * <code>extraSamples</code>, and <code>colorMap</code>.
 *
 * <p> In practice, unless there is a significant performance
 * advantage to be gained by overriding this routine, most users
 * will prefer to use the default implementation of this routine,
 * and instead override the <code>decodeRaw</code> and/or
 * <code>getRawImageType</code> methods.
 *
 * @exception IOException if an error occurs in
 * <code>decodeRaw</code>.
 */
public void decode() throws IOException {
    byte[] byteData = null;
    short[] shortData = null;
    int[] intData = null;
    float[] floatData = null;
    double[] doubleData = null;
    int dstOffset = 0;
    int pixelBitStride = 1;
    int scanlineStride = 0;
    if (useTurbo) {
        decodeRaw(byteData, dstOffset, pixelBitStride, scanlineStride);
    } else {
        // Analyze raw image
        this.rawImage = null;
        if (isImageSimple) {
            if (isBilevel) {
                rawImage = this.image;
            } else if (isContiguous) {
                rawImage = image.getSubimage(dstMinX, dstMinY, dstWidth, dstHeight);
            }
        }
        boolean isDirectCopy = rawImage != null;
        if (rawImage == null) {
            rawImage = createRawImage();
            if (rawImage == null) {
                throw new IIOException("Couldn't create image buffer!");
            }
        }
        WritableRaster ras = rawImage.getRaster();
        if (isBilevel) {
            Rectangle rect = isImageSimple ? new Rectangle(dstMinX, dstMinY, dstWidth, dstHeight) : ras.getBounds();
            byteData = ImageUtil.getPackedBinaryData(ras, rect);
            dstOffset = 0;
            pixelBitStride = 1;
            scanlineStride = (rect.width + 7) / 8;
        } else {
            SampleModel sm = ras.getSampleModel();
            DataBuffer db = ras.getDataBuffer();
            boolean isSupportedType = false;
            if (sm instanceof ComponentSampleModel) {
                ComponentSampleModel csm = (ComponentSampleModel) sm;
                dstOffset = csm.getOffset(-ras.getSampleModelTranslateX(), -ras.getSampleModelTranslateY());
                scanlineStride = csm.getScanlineStride();
                if (db instanceof DataBufferByte) {
                    DataBufferByte dbb = (DataBufferByte) db;
                    byteData = dbb.getData();
                    pixelBitStride = csm.getPixelStride() * 8;
                    isSupportedType = true;
                } else if (db instanceof DataBufferUShort) {
                    DataBufferUShort dbus = (DataBufferUShort) db;
                    shortData = dbus.getData();
                    pixelBitStride = csm.getPixelStride() * 16;
                    isSupportedType = true;
                } else if (db instanceof DataBufferShort) {
                    DataBufferShort dbs = (DataBufferShort) db;
                    shortData = dbs.getData();
                    pixelBitStride = csm.getPixelStride() * 16;
                    isSupportedType = true;
                } else if (db instanceof DataBufferInt) {
                    DataBufferInt dbi = (DataBufferInt) db;
                    intData = dbi.getData();
                    pixelBitStride = csm.getPixelStride() * 32;
                    isSupportedType = true;
                } else if (db instanceof DataBufferFloat) {
                    DataBufferFloat dbf = (DataBufferFloat) db;
                    floatData = dbf.getData();
                    pixelBitStride = csm.getPixelStride() * 32;
                    isSupportedType = true;
                } else if (db instanceof DataBufferDouble) {
                    DataBufferDouble dbf = (DataBufferDouble) db;
                    doubleData = dbf.getData();
                    pixelBitStride = csm.getPixelStride() * 64;
                    isSupportedType = true;
                }
            } else if (sm instanceof MultiPixelPackedSampleModel) {
                MultiPixelPackedSampleModel mppsm = (MultiPixelPackedSampleModel) sm;
                dstOffset = mppsm.getOffset(-ras.getSampleModelTranslateX(), -ras.getSampleModelTranslateY());
                pixelBitStride = mppsm.getPixelBitStride();
                scanlineStride = mppsm.getScanlineStride();
                if (db instanceof DataBufferByte) {
                    DataBufferByte dbb = (DataBufferByte) db;
                    byteData = dbb.getData();
                    isSupportedType = true;
                } else if (db instanceof DataBufferUShort) {
                    DataBufferUShort dbus = (DataBufferUShort) db;
                    shortData = dbus.getData();
                    isSupportedType = true;
                } else if (db instanceof DataBufferInt) {
                    DataBufferInt dbi = (DataBufferInt) db;
                    intData = dbi.getData();
                    isSupportedType = true;
                }
            } else if (sm instanceof SinglePixelPackedSampleModel) {
                SinglePixelPackedSampleModel sppsm = (SinglePixelPackedSampleModel) sm;
                dstOffset = sppsm.getOffset(-ras.getSampleModelTranslateX(), -ras.getSampleModelTranslateY());
                scanlineStride = sppsm.getScanlineStride();
                if (db instanceof DataBufferByte) {
                    DataBufferByte dbb = (DataBufferByte) db;
                    byteData = dbb.getData();
                    pixelBitStride = 8;
                    isSupportedType = true;
                } else if (db instanceof DataBufferUShort) {
                    DataBufferUShort dbus = (DataBufferUShort) db;
                    shortData = dbus.getData();
                    pixelBitStride = 16;
                    isSupportedType = true;
                } else if (db instanceof DataBufferInt) {
                    DataBufferInt dbi = (DataBufferInt) db;
                    intData = dbi.getData();
                    pixelBitStride = 32;
                    isSupportedType = true;
                }
            }
            if (!isSupportedType) {
                throw new IIOException("Unsupported raw image type: SampleModel = " + sm + "; DataBuffer = " + db);
            }
        }
        if (isBilevel) {
            // Bilevel data are always in a contiguous byte buffer.
            decodeRaw(byteData, dstOffset, pixelBitStride, scanlineStride);
        } else {
            SampleModel sm = ras.getSampleModel();
            // bits except at the end of a row.
            if (isDataBufferBitContiguous(sm)) {
                // Use byte or float data directly.
                if (byteData != null) {
                    if (DEBUG) {
                        System.out.println("Decoding bytes directly");
                    }
                    if (offset == 0 && byteCount == 0 && noData != null) {
                        setEmptyTile(byteData, dstOffset, pixelBitStride, scanlineStride, noData.byteValue());
                    } else {
                        decodeRaw(byteData, dstOffset, pixelBitStride, scanlineStride);
                    }
                } else if (floatData != null) {
                    if (DEBUG) {
                        System.out.println("Decoding floats directly");
                    }
                    if (offset == 0 && byteCount == 0 && noData != null) {
                        setEmptyTile(floatData, dstOffset, pixelBitStride, scanlineStride, noData.floatValue());
                    } else {
                        decodeRaw(floatData, dstOffset, pixelBitStride, scanlineStride);
                    }
                } else if (doubleData != null) {
                    if (DEBUG) {
                        System.out.println("Decoding doubles directly");
                    }
                    if (offset == 0 && byteCount == 0 && noData != null) {
                        setEmptyTile(doubleData, dstOffset, pixelBitStride, scanlineStride, noData.doubleValue());
                    } else {
                        decodeRaw(doubleData, dstOffset, pixelBitStride, scanlineStride);
                    }
                } else {
                    if (shortData != null) {
                        if (offset == 0 && byteCount == 0 && noData != null) {
                            setEmptyTile(shortData, dstOffset, pixelBitStride, scanlineStride, noData.shortValue());
                        } else if (areSampleSizesEqual(sm) && sm.getSampleSize(0) == 16) {
                            if (DEBUG) {
                                System.out.println("Decoding shorts directly");
                            }
                            // Decode directly into short data.
                            decodeRaw(shortData, dstOffset, pixelBitStride, scanlineStride);
                        } else {
                            if (DEBUG) {
                                System.out.println("Decoding bytes->shorts");
                            }
                            // Decode into bytes and reformat into shorts.
                            int bpp = getBitsPerPixel(sm);
                            int bytesPerRow = (bpp * srcWidth + 7) / 8;
                            byte[] buf = new byte[bytesPerRow * srcHeight];
                            decodeRaw(buf, 0, bpp, bytesPerRow);
                            reformatData(buf, bytesPerRow, srcHeight, shortData, null, dstOffset, scanlineStride);
                        }
                    } else if (intData != null) {
                        if (offset == 0 && byteCount == 0 && noData != null) {
                            setEmptyTile(intData, dstOffset, pixelBitStride, scanlineStride, noData.intValue());
                        } else if (areSampleSizesEqual(sm) && sm.getSampleSize(0) == 32) {
                            if (DEBUG) {
                                System.out.println("Decoding ints directly");
                            }
                            // Decode directly into int data.
                            decodeRaw(intData, dstOffset, pixelBitStride, scanlineStride);
                        } else {
                            if (DEBUG) {
                                System.out.println("Decoding bytes->ints");
                            }
                            // Decode into bytes and reformat into ints.
                            int bpp = getBitsPerPixel(sm);
                            int bytesPerRow = (bpp * srcWidth + 7) / 8;
                            byte[] buf = new byte[bytesPerRow * srcHeight];
                            decodeRaw(buf, 0, bpp, bytesPerRow);
                            reformatData(buf, bytesPerRow, srcHeight, null, intData, dstOffset, scanlineStride);
                        }
                    }
                }
            } else {
                if (DEBUG) {
                    System.out.println("Decoding discontiguous data");
                }
                // Read discontiguous data into bytes and set the samples
                // into the Raster.
                int bpp = getBitsPerPixel(sm);
                int bytesPerRow = (bpp * srcWidth + 7) / 8;
                byte[] buf = new byte[bytesPerRow * srcHeight];
                decodeRaw(buf, 0, bpp, bytesPerRow);
                reformatDiscontiguousData(buf, bytesPerRow, srcWidth, srcHeight, ras);
            }
        }
        if (colorConverter != null) {
            float[] rgb = new float[3];
            if (byteData != null) {
                for (int j = 0; j < dstHeight; j++) {
                    int idx = dstOffset;
                    for (int i = 0; i < dstWidth; i++) {
                        float x0 = (float) (byteData[idx] & 0xff);
                        float x1 = (float) (byteData[idx + 1] & 0xff);
                        float x2 = (float) (byteData[idx + 2] & 0xff);
                        colorConverter.toRGB(x0, x1, x2, rgb);
                        byteData[idx] = (byte) (rgb[0]);
                        byteData[idx + 1] = (byte) (rgb[1]);
                        byteData[idx + 2] = (byte) (rgb[2]);
                        idx += 3;
                    }
                    dstOffset += scanlineStride;
                }
            } else if (shortData != null) {
                if (sampleFormat[0] == BaselineTIFFTagSet.SAMPLE_FORMAT_SIGNED_INTEGER) {
                    for (int j = 0; j < dstHeight; j++) {
                        int idx = dstOffset;
                        for (int i = 0; i < dstWidth; i++) {
                            float x0 = (float) shortData[idx];
                            float x1 = (float) shortData[idx + 1];
                            float x2 = (float) shortData[idx + 2];
                            colorConverter.toRGB(x0, x1, x2, rgb);
                            shortData[idx] = (short) (rgb[0]);
                            shortData[idx + 1] = (short) (rgb[1]);
                            shortData[idx + 2] = (short) (rgb[2]);
                            idx += 3;
                        }
                        dstOffset += scanlineStride;
                    }
                } else {
                    for (int j = 0; j < dstHeight; j++) {
                        int idx = dstOffset;
                        for (int i = 0; i < dstWidth; i++) {
                            float x0 = (float) (shortData[idx] & 0xffff);
                            float x1 = (float) (shortData[idx + 1] & 0xffff);
                            float x2 = (float) (shortData[idx + 2] & 0xffff);
                            colorConverter.toRGB(x0, x1, x2, rgb);
                            shortData[idx] = (short) (rgb[0]);
                            shortData[idx + 1] = (short) (rgb[1]);
                            shortData[idx + 2] = (short) (rgb[2]);
                            idx += 3;
                        }
                        dstOffset += scanlineStride;
                    }
                }
            } else if (intData != null) {
                for (int j = 0; j < dstHeight; j++) {
                    int idx = dstOffset;
                    for (int i = 0; i < dstWidth; i++) {
                        float x0 = (float) intData[idx];
                        float x1 = (float) intData[idx + 1];
                        float x2 = (float) intData[idx + 2];
                        colorConverter.toRGB(x0, x1, x2, rgb);
                        intData[idx] = (int) (rgb[0]);
                        intData[idx + 1] = (int) (rgb[1]);
                        intData[idx + 2] = (int) (rgb[2]);
                        idx += 3;
                    }
                    dstOffset += scanlineStride;
                }
            } else if (floatData != null) {
                for (int j = 0; j < dstHeight; j++) {
                    int idx = dstOffset;
                    for (int i = 0; i < dstWidth; i++) {
                        float x0 = floatData[idx];
                        float x1 = floatData[idx + 1];
                        float x2 = floatData[idx + 2];
                        colorConverter.toRGB(x0, x1, x2, rgb);
                        floatData[idx] = rgb[0];
                        floatData[idx + 1] = rgb[1];
                        floatData[idx + 2] = rgb[2];
                        idx += 3;
                    }
                    dstOffset += scanlineStride;
                }
            }
        // int[] p = new int[3];
        // ras.getPixel(0, 0, p);
        // System.out.println("p00 = " +
        // p[0] + " " + p[1] + " " + p[2]);
        // ras.getPixel(1, 0, p);
        // System.out.println("p10 = " +
        // p[0] + " " + p[1] + " " + p[2]);
        // ras.getPixel(2, 0, p);
        // System.out.println("p20 = " +
        // p[0] + " " + p[1] + " " + p[2]);
        // ras.getPixel(3, 0, p);
        // System.out.println("p30 = " +
        // p[0] + " " + p[1] + " " + p[2]);
        // ColorSpace rgb = ColorSpace.getInstance(ColorSpace.CS_sRGB);
        // ColorConvertOp op = new ColorConvertOp(colorSpace, rgb, null);
        // WritableRaster dest = op.createCompatibleDestRaster(ras);
        // op.filter(ras, dest);
        // ras = dest;
        }
        if (photometricInterpretation == BaselineTIFFTagSet.PHOTOMETRIC_INTERPRETATION_WHITE_IS_ZERO) {
            if (byteData != null) {
                int bytesPerRow = (srcWidth * pixelBitStride + 7) / 8;
                for (int y = 0; y < srcHeight; y++) {
                    int offset = dstOffset + y * scanlineStride;
                    for (int i = 0; i < bytesPerRow; i++) {
                        byteData[offset + i] ^= 0xff;
                    }
                }
            } else if (shortData != null) {
                int shortsPerRow = (srcWidth * pixelBitStride + 15) / 16;
                if (sampleFormat[0] == BaselineTIFFTagSet.SAMPLE_FORMAT_SIGNED_INTEGER) {
                    for (int y = 0; y < srcHeight; y++) {
                        int offset = dstOffset + y * scanlineStride;
                        for (int i = 0; i < shortsPerRow; i++) {
                            int shortOffset = offset + i;
                            // XXX Does this make any sense?
                            shortData[shortOffset] = (short) (Short.MAX_VALUE - shortData[shortOffset]);
                        }
                    }
                } else {
                    for (int y = 0; y < srcHeight; y++) {
                        int offset = dstOffset + y * scanlineStride;
                        for (int i = 0; i < shortsPerRow; i++) {
                            shortData[offset + i] ^= 0xffff;
                        }
                    }
                }
            } else if (intData != null) {
                int intsPerRow = (srcWidth * pixelBitStride + 15) / 16;
                for (int y = 0; y < srcHeight; y++) {
                    int offset = dstOffset + y * scanlineStride;
                    for (int i = 0; i < intsPerRow; i++) {
                        int intOffset = offset + i;
                        // XXX Does this make any sense?
                        intData[intOffset] = Integer.MAX_VALUE - intData[intOffset];
                    }
                }
            } else if (floatData != null) {
                int floatsPerRow = (srcWidth * pixelBitStride + 15) / 16;
                for (int y = 0; y < srcHeight; y++) {
                    int offset = dstOffset + y * scanlineStride;
                    for (int i = 0; i < floatsPerRow; i++) {
                        int floatOffset = offset + i;
                        // XXX Does this make any sense?
                        floatData[floatOffset] = 1.0F - floatData[floatOffset];
                    }
                }
            }
        }
        if (isBilevel) {
            Rectangle rect = isImageSimple ? new Rectangle(dstMinX, dstMinY, dstWidth, dstHeight) : ras.getBounds();
            ImageUtil.setPackedBinaryData(byteData, ras, rect);
        }
        // equals the raster of 'image' or is a child thereof.
        if (isDirectCopy) {
            // rawImage == image) {
            return;
        }
    }
    // Copy the raw image data into the true destination image
    Raster src = rawImage.getRaster();
    // Create band child of source
    Raster srcChild = src.createChild(0, 0, srcWidth, srcHeight, srcMinX, srcMinY, planar ? null : sourceBands);
    WritableRaster dst = image.getRaster();
    // Create dst child covering area and bands to be written
    WritableRaster dstChild = dst.createWritableChild(dstMinX, dstMinY, dstWidth, dstHeight, dstMinX, dstMinY, destinationBands);
    if (subsampleX == 1 && subsampleY == 1 && !adjustBitDepths) {
        srcChild = srcChild.createChild(activeSrcMinX, activeSrcMinY, activeSrcWidth, activeSrcHeight, dstMinX, dstMinY, null);
        dstChild.setRect(srcChild);
    } else if (subsampleX == 1 && !adjustBitDepths) {
        int sy = activeSrcMinY;
        int dy = dstMinY;
        while (sy < srcMinY + srcHeight) {
            Raster srcRow = srcChild.createChild(activeSrcMinX, sy, activeSrcWidth, 1, dstMinX, dy, null);
            dstChild.setRect(srcRow);
            sy += subsampleY;
            ++dy;
        }
    } else {
        // /init vars
        int numBands = srcChild.getNumBands();
        int sy = activeSrcMinY;
        int dy = dstMinY;
        // get the databuffer type
        final int type = srcChild.getDataBuffer().getDataType();
        switch(type) {
            case DataBuffer.TYPE_BYTE:
            case DataBuffer.TYPE_INT:
            case DataBuffer.TYPE_SHORT:
            case DataBuffer.TYPE_USHORT:
                int[] p = srcChild.getPixel(srcMinX, srcMinY, (int[]) null);
                while (sy < activeSrcMinY + activeSrcHeight) {
                    int sx = activeSrcMinX;
                    int dx = dstMinX;
                    while (sx < activeSrcMinX + activeSrcWidth) {
                        srcChild.getPixel(sx, sy, p);
                        if (adjustBitDepths) {
                            for (int band = 0; band < numBands; band++) {
                                p[band] = bitDepthScale[band][p[band]];
                            }
                        }
                        dstChild.setPixel(dx, dy, p);
                        sx += subsampleX;
                        ++dx;
                    }
                    sy += subsampleY;
                    ++dy;
                }
                break;
            case DataBuffer.TYPE_DOUBLE:
                double[] d = srcChild.getPixel(srcMinX, srcMinY, (double[]) null);
                while (sy < activeSrcMinY + activeSrcHeight) {
                    int sx = activeSrcMinX;
                    int dx = dstMinX;
                    while (sx < activeSrcMinX + activeSrcWidth) {
                        srcChild.getPixel(sx, sy, d);
                        // if (adjustBitDepths) {
                        // for (int band = 0; band < numBands; band++) {
                        // d[band] = bitDepthScale[band][d[band]];
                        // }
                        // }
                        dstChild.setPixel(dx, dy, d);
                        sx += subsampleX;
                        ++dx;
                    }
                    sy += subsampleY;
                    ++dy;
                }
                break;
            case DataBuffer.TYPE_FLOAT:
                float[] f = srcChild.getPixel(srcMinX, srcMinY, (float[]) null);
                while (sy < activeSrcMinY + activeSrcHeight) {
                    int sx = activeSrcMinX;
                    int dx = dstMinX;
                    while (sx < activeSrcMinX + activeSrcWidth) {
                        srcChild.getPixel(sx, sy, f);
                        // if (adjustBitDepths) {
                        // for (int band = 0; band < numBands; band++) {
                        // d[band] = bitDepthScale[band][d[band]];
                        // }
                        // }
                        dstChild.setPixel(dx, dy, f);
                        sx += subsampleX;
                        ++dx;
                    }
                    sy += subsampleY;
                    ++dy;
                }
                break;
            default:
                break;
        }
    }
}