List of usage examples for org.apache.commons.codec.net URLCodec encodeUrl
public static final byte[] encodeUrl(BitSet urlsafe, byte[] bytes)
From source file:com.microsoft.tfs.core.httpclient.util.URIUtil.java
/** * Escape and encode a given string with allowed characters not to be * escaped and a given charset.// w w w.j ava 2 s. c o m * * @param unescaped * a string * @param allowed * allowed characters not to be escaped * @param charset * the charset * @return the escaped string */ public static String encode(final String unescaped, final BitSet allowed, final String charset) throws URIException { final byte[] rawdata = URLCodec.encodeUrl(allowed, EncodingUtil.getBytes(unescaped, charset)); return EncodingUtil.getAsciiString(rawdata); }
From source file:com.jfrog.bintray.client.impl.util.URI.java
/** * Encodes URI string./*from ww w . j a va 2 s .c om*/ * <p/> * This is a two mapping, one from original characters to octets, and * subsequently a second from octets to URI characters: * <p><blockquote><pre> * original character sequence->octet sequence->URI character sequence * </pre></blockquote><p> * <p/> * An escaped octet is encoded as a character triplet, consisting of the * percent character "%" followed by the two hexadecimal digits * representing the octet code. For example, "%20" is the escaped * encoding for the US-ASCII space character. * <p/> * Conversion from the local filesystem character set to UTF-8 will * normally involve a two step process. First convert the local character * set to the UCS; then convert the UCS to UTF-8. * The first step in the process can be performed by maintaining a mapping * table that includes the local character set code and the corresponding * UCS code. * The next step is to convert the UCS character code to the UTF-8 encoding. * <p/> * Mapping between vendor codepages can be done in a very similar manner * as described above. * <p/> * The only time escape encodings can allowedly be made is when a URI is * being created from its component parts. The escape and validate methods * are internally performed within this method. * * @param original the original character sequence * @param allowed those characters that are allowed within a component * @param charset the protocol charset * @return URI character sequence * @throws HttpException null component or unsupported character encoding */ protected static char[] encode(String original, BitSet allowed, String charset) throws HttpException { if (original == null) { throw new IllegalArgumentException("Original string may not be null"); } if (allowed == null) { throw new IllegalArgumentException("Allowed bitset may not be null"); } byte[] rawdata = URLCodec.encodeUrl(allowed, EncodingUtils.getBytes(original, charset)); return EncodingUtils.getAsciiString(rawdata).toCharArray(); }
From source file:bin.httpclient3.uri.URI.java
/** * Encodes URI string.// w w w. ja v a 2s . c o m * * This is a two mapping, one from original characters to octets, and * subsequently a second from octets to URI characters: * <p><blockquote><pre> * original character sequence->octet sequence->URI character sequence * </pre></blockquote><p> * * An escaped octet is encoded as a character triplet, consisting of the * percent character "%" followed by the two hexadecimal digits * representing the octet code. For example, "%20" is the escaped * encoding for the US-ASCII space character. * <p> * Conversion from the local filesystem character set to UTF-8 will * normally involve a two step process. First convert the local character * set to the UCS; then convert the UCS to UTF-8. * The first step in the process can be performed by maintaining a mapping * table that includes the local character set code and the corresponding * UCS code. * The next step is to convert the UCS character code to the UTF-8 encoding. * <p> * Mapping between vendor codepages can be done in a very similar manner * as described above. * <p> * The only time escape encodings can allowedly be made is when a URI is * being created from its component parts. The escape and validate methods * are internally performed within this method. * * @param original the original character sequence * @param allowed those characters that are allowed within a component * @param charset the protocol charset * @return URI character sequence * @throws URIException null component or unsupported character encoding */ protected static char[] encode(String original, BitSet allowed, String charset) throws URIException { if (original == null) { throw new IllegalArgumentException("Original string may not be null"); } if (allowed == null) { throw new IllegalArgumentException("Allowed bitset may not be null"); } byte[] rawdata = URLCodec.encodeUrl(allowed, EncodingUtil.getBytes(original, charset)); return EncodingUtil.getAsciiString(rawdata).toCharArray(); }
From source file:com.microsoft.tfs.core.httpclient.URI.java
/** * Encodes URI string./*from w w w . ja va 2 s . c o m*/ * * This is a two mapping, one from original characters to octets, and * subsequently a second from octets to URI characters: * <p> * <blockquote> * * <pre> * original character sequence->octet sequence->URI character sequence * </pre> * * </blockquote> * <p> * * An escaped octet is encoded as a character triplet, consisting of the * percent character "%" followed by the two hexadecimal digits representing * the octet code. For example, "%20" is the escaped encoding for the * US-ASCII space character. * <p> * Conversion from the local filesystem character set to UTF-8 will normally * involve a two step process. First convert the local character set to the * UCS; then convert the UCS to UTF-8. The first step in the process can be * performed by maintaining a mapping table that includes the local * character set code and the corresponding UCS code. The next step is to * convert the UCS character code to the UTF-8 encoding. * <p> * Mapping between vendor codepages can be done in a very similar manner as * described above. * <p> * The only time escape encodings can allowedly be made is when a URI is * being created from its component parts. The escape and validate methods * are internally performed within this method. * * @param original * the original character sequence * @param allowed * those characters that are allowed within a component * @param charset * the protocol charset * @return URI character sequence * @throws URIException * null component or unsupported character encoding */ protected static char[] encode(final String original, final BitSet allowed, final String charset) throws URIException { if (original == null) { throw new IllegalArgumentException("Original string may not be null"); } if (allowed == null) { throw new IllegalArgumentException("Allowed bitset may not be null"); } final byte[] rawdata = URLCodec.encodeUrl(allowed, EncodingUtil.getBytes(original, charset)); return EncodingUtil.getAsciiString(rawdata).toCharArray(); }
From source file:org.apache.amber.signature.AbstractMethod.java
/** * Applies the percent encoding algorithm to the input text. * * @param text the text has to be encoded. * @return the encoded string./*from w ww . ja v a 2 s . com*/ */ protected static String percentEncode(String text) { return new String(URLCodec.encodeUrl(UNRESERVED_CHARS, toUTF8Bytes(text)), UTF_8); }
From source file:org.apache.clerezza.utils.Uri.java
/** * Encodes URI string./*from ww w . j a v a2 s.c o m*/ * * This is a two mapping, one from original characters to octets, and * subsequently a second from octets to URI characters: * <p><blockquote><pre> * original character sequence->octet sequence->URI character sequence * </pre></blockquote><p> * * An escaped octet is encoded as a character triplet, consisting of the * percent character "%" followed by the two hexadecimal digits * representing the octet code. For example, "%20" is the escaped * encoding for the US-ASCII space character. * <p> * Conversion from the local filesystem character set to UTF-8 will * normally involve a two step process. First convert the local character * set to the UCS; then convert the UCS to UTF-8. * The first step in the process can be performed by maintaining a mapping * table that includes the local character set code and the corresponding * UCS code. * The next step is to convert the UCS character code to the UTF-8 encoding. * <p> * Mapping between vendor codepages can be done in a very similar manner * as described above. * <p> * The only time escape encodings can allowedly be made is when a URI is * being created from its component parts. The escape and validate methods * are internally performed within this method. * * @param original the original character sequence * @param allowed those characters that are allowed within a component * @param charset the protocol charset * @return URI character sequence * @throws URIException null component or unsupported character encoding */ protected static char[] encode(String original, BitSet allowed, String charset) throws UriException { if (original == null) { throw new IllegalArgumentException("Original string may not be null"); } if (allowed == null) { throw new IllegalArgumentException("Allowed bitset may not be null"); } byte[] rawdata = URLCodec.encodeUrl(allowed, EncodingUtils.getBytes(original, charset)); return EncodingUtils.getAsciiString(rawdata).toCharArray(); }
From source file:org.apache.clerezza.utils.UriUtil.java
/** * Escape and encode a given string with allowed characters not to be * escaped and a given charset./*from www . j a v a 2s . co m*/ * * @param unescaped a string * @param allowed allowed characters not to be escaped * @param charset the charset * @return the escaped string */ public static String encode(String unescaped, BitSet allowed, String charset) throws UriException { byte[] rawdata = URLCodec.encodeUrl(allowed, EncodingUtils.getBytes(unescaped, charset)); return EncodingUtils.getAsciiString(rawdata); }
From source file:org.attribyte.util.URIEncoder.java
/** * Encodes a URI from raw components. Any component may be null, but * resulting string may not be a valid URI. * @param scheme The scheme./* ww w . j a v a 2s . c o m*/ * @param authority The authority. * @param path The path. * @param qs The query string. * @param fragment The fragment. * @return The encoded URI as a string. */ public static String encode(final String scheme, final String authority, final String path, final String qs, final String fragment) { StringBuilder buf = new StringBuilder(); if (scheme != null) { buf.append(scheme); buf.append("://"); } byte[] bytes; if (authority != null) { bytes = URLCodec.encodeUrl(authorityBitSet, authority.getBytes(Charsets.UTF_8)); buf.append(new String(bytes, Charsets.US_ASCII)); } if (path != null) { bytes = URLCodec.encodeUrl(pathBitSet, path.getBytes(Charsets.UTF_8)); buf.append(new String(bytes, Charsets.US_ASCII)); } if (qs != null) { buf.append('?'); bytes = URLCodec.encodeUrl(queryBitSet, qs.getBytes(Charsets.UTF_8)); buf.append(new String(bytes, Charsets.US_ASCII)); } if (fragment != null) { buf.append('#'); bytes = URLCodec.encodeUrl(queryBitSet, fragment.getBytes(Charsets.UTF_8)); buf.append(new String(bytes, Charsets.US_ASCII)); } return buf.toString(); }
From source file:org.attribyte.util.URIEncoder.java
/** * Encodes the path component, excluding the query string. * @param path The path.//from w w w.j a v a2 s.c o m * @return The encoded path. */ public static final String encodePath(final String path) { byte[] bytes = URLCodec.encodeUrl(pathBitSet, path.getBytes(Charsets.UTF_8)); return new String(bytes, Charsets.US_ASCII); }
From source file:org.attribyte.util.URIEncoder.java
/** * Encodes a query string component.// w ww . java2 s . co m * @param qs The query string. * @return The encoded path. */ public static final String encodeQueryString(final String qs) { byte[] bytes = URLCodec.encodeUrl(queryBitSet, qs.getBytes(Charsets.UTF_8)); return new String(bytes, Charsets.US_ASCII); }