StyleCop fixes.

1 files changed, 50 insertions, 50 deletions

diff --git a/samples/OAuthAuthorizationServer/Code/OAuth2AuthorizationServer.cs b/samples/OAuthAuthorizationServer/Code/OAuth2AuthorizationServer.cs
index ef0d7cd..3be70f0 100644
--- a/samples/OAuthAuthorizationServer/Code/OAuth2AuthorizationServer.cs
+++ b/samples/OAuthAuthorizationServer/Code/OAuth2AuthorizationServer.cs
@@ -17,56 +17,6 @@
 
 		private readonly INonceStore nonceStore = new DatabaseNonceStore();
 
-		/// <summary>
-		/// Creates a symmetric secret used to sign and encrypt authorization server refresh tokens.
-		/// </summary>
-		/// <returns>A cryptographically strong symmetric key.</returns>
-		private static byte[] CreateSecret() {
-			// TODO: Replace this sample code with real code.
-			// For this sample, we just generate random secrets.
-			RandomNumberGenerator crypto = new RNGCryptoServiceProvider();
-			var secret = new byte[32]; // 256-bit symmetric key to protect all protected resources.
-			crypto.GetBytes(secret);
-			return secret;
-		}
-
-		/// <summary>
-		/// Creates the RSA key used by all the crypto service provider instances we create.
-		/// </summary>
-		/// <returns>RSA data that includes the private key.</returns>
-		private static RSAParameters CreateRSAKey() {
-#if SAMPLESONLY
-			// Since the sample authorization server and the sample resource server must work together,
-			// we hard-code a FOR SAMPLE USE ONLY key pair.  The matching public key information is hard-coded into the OAuthResourceServer sample.
-			// In a real app, the RSA parameters would typically come from a certificate that may already exist.  It may simply be the HTTPS certificate for the auth server.
-			return new RSAParameters {
-				Exponent = new byte[] { 1, 0, 1 },
-				Modulus = new byte[] { 210, 95, 53, 12, 203, 114, 150, 23, 23, 88, 4, 200, 47, 219, 73, 54, 146, 253, 126, 121, 105, 91, 118, 217, 182, 167, 140, 6, 67, 112, 97, 183, 66, 112, 245, 103, 136, 222, 205, 28, 196, 45, 6, 223, 192, 76, 56, 180, 90, 120, 144, 19, 31, 193, 37, 129, 186, 214, 36, 53, 204, 53, 108, 133, 112, 17, 133, 244, 3, 12, 230, 29, 243, 51, 79, 253, 10, 111, 185, 23, 74, 230, 99, 94, 78, 49, 209, 39, 95, 213, 248, 212, 22, 4, 222, 145, 77, 190, 136, 230, 134, 70, 228, 241, 194, 216, 163, 234, 52, 1, 64, 181, 139, 128, 90, 255, 214, 60, 168, 233, 254, 110, 31, 102, 58, 67, 201, 33 },
-				P = new byte[] { 237, 238, 79, 75, 29, 57, 145, 201, 57, 177, 215, 108, 40, 77, 232, 237, 113, 38, 157, 195, 174, 134, 188, 175, 121, 28, 11, 236, 80, 146, 12, 38, 8, 12, 104, 46, 6, 247, 14, 149, 196, 23, 130, 116, 141, 137, 225, 74, 84, 111, 44, 163, 55, 10, 246, 154, 195, 158, 186, 241, 162, 11, 217, 77 },
-				Q = new byte[] { 226, 89, 29, 67, 178, 205, 30, 152, 184, 165, 15, 152, 131, 245, 141, 80, 150, 3, 224, 136, 188, 248, 149, 36, 200, 250, 207, 156, 224, 79, 150, 191, 84, 214, 233, 173, 95, 192, 55, 123, 124, 255, 53, 85, 11, 233, 156, 66, 14, 27, 27, 163, 108, 199, 90, 37, 118, 38, 78, 171, 80, 26, 101, 37 },
-				DP = new byte[] { 108, 176, 122, 132, 131, 187, 50, 191, 203, 157, 84, 29, 82, 100, 20, 205, 178, 236, 195, 17, 10, 254, 253, 222, 226, 226, 79, 8, 10, 222, 76, 178, 106, 230, 208, 8, 134, 162, 1, 133, 164, 232, 96, 109, 193, 226, 132, 138, 33, 252, 15, 86, 23, 228, 232, 54, 86, 186, 130, 7, 179, 208, 217, 217 },
-				DQ = new byte[] { 175, 63, 252, 46, 140, 99, 208, 138, 194, 123, 218, 101, 101, 214, 91, 65, 199, 196, 220, 182, 66, 73, 221, 128, 11, 180, 85, 198, 202, 206, 20, 147, 179, 102, 106, 170, 247, 245, 229, 127, 81, 58, 111, 218, 151, 76, 154, 213, 114, 2, 127, 21, 187, 133, 102, 64, 151, 7, 245, 229, 34, 50, 45, 153 },
-				InverseQ = new byte[] { 137, 156, 11, 248, 118, 201, 135, 145, 134, 121, 14, 162, 149, 14, 98, 84, 108, 160, 27, 91, 230, 116, 216, 181, 200, 49, 34, 254, 119, 153, 179, 52, 231, 234, 36, 148, 71, 161, 182, 171, 35, 182, 46, 164, 179, 100, 226, 71, 119, 23, 0, 16, 240, 4, 30, 57, 76, 109, 89, 131, 56, 219, 71, 206 },
-				D = new byte[] { 108, 15, 123, 176, 150, 208, 197, 72, 23, 53, 159, 63, 53, 85, 238, 197, 153, 187, 156, 187, 192, 226, 186, 170, 26, 168, 245, 196, 65, 223, 248, 81, 170, 79, 91, 191, 83, 15, 31, 77, 39, 119, 249, 143, 245, 183, 49, 105, 115, 15, 122, 242, 87, 221, 94, 230, 196, 146, 59, 7, 103, 94, 9, 223, 146, 180, 189, 86, 190, 94, 242, 59, 32, 54, 23, 181, 124, 170, 63, 172, 90, 158, 169, 140, 6, 102, 170, 0, 135, 199, 35, 196, 212, 238, 196, 56, 14, 0, 140, 197, 169, 240, 156, 43, 182, 123, 102, 79, 89, 20, 120, 171, 43, 223, 58, 190, 230, 166, 185, 162, 186, 226, 31, 206, 196, 188, 104, 1 },
-			};
-#else
-			// This is how you could generate your own public/private key pair.  
-			// As we generate a new random key, we need to set the UseMachineKeyStore flag so that this doesn't
-			// crash on IIS. For more information: 
-			// http://social.msdn.microsoft.com/Forums/en-US/clr/thread/7ea48fd0-8d6b-43ed-b272-1a0249ae490f?prof=required
-			var cspParameters = new CspParameters();
-			cspParameters.Flags = CspProviderFlags.UseArchivableKey | CspProviderFlags.UseMachineKeyStore;
-			var keyPair = new RSACryptoServiceProvider(cspParameters);
-
-			// After exporting the private/public key information, read the information out and store it somewhere
-			var privateKey = keyPair.ExportParameters(true);
-			var publicKey = keyPair.ExportParameters(false);
-
-			// Ultimately the private key information must be what is returned through the AccessTokenSigningPrivateKey property.
-			return privateKey;
-#endif
-		}
-
 		#region Implementation of IAuthorizationServer
 
 		public byte[] Secret {
@@ -124,6 +74,56 @@
 			return false;
 		}
 
+		/// <summary>
+		/// Creates a symmetric secret used to sign and encrypt authorization server refresh tokens.
+		/// </summary>
+		/// <returns>A cryptographically strong symmetric key.</returns>
+		private static byte[] CreateSecret() {
+			// TODO: Replace this sample code with real code.
+			// For this sample, we just generate random secrets.
+			RandomNumberGenerator crypto = new RNGCryptoServiceProvider();
+			var secret = new byte[32]; // 256-bit symmetric key to protect all protected resources.
+			crypto.GetBytes(secret);
+			return secret;
+		}
+
+		/// <summary>
+		/// Creates the RSA key used by all the crypto service provider instances we create.
+		/// </summary>
+		/// <returns>RSA data that includes the private key.</returns>
+		private static RSAParameters CreateRSAKey() {
+#if SAMPLESONLY
+			// Since the sample authorization server and the sample resource server must work together,
+			// we hard-code a FOR SAMPLE USE ONLY key pair.  The matching public key information is hard-coded into the OAuthResourceServer sample.
+			// In a real app, the RSA parameters would typically come from a certificate that may already exist.  It may simply be the HTTPS certificate for the auth server.
+			return new RSAParameters {
+				Exponent = new byte[] { 1, 0, 1 },
+				Modulus = new byte[] { 210, 95, 53, 12, 203, 114, 150, 23, 23, 88, 4, 200, 47, 219, 73, 54, 146, 253, 126, 121, 105, 91, 118, 217, 182, 167, 140, 6, 67, 112, 97, 183, 66, 112, 245, 103, 136, 222, 205, 28, 196, 45, 6, 223, 192, 76, 56, 180, 90, 120, 144, 19, 31, 193, 37, 129, 186, 214, 36, 53, 204, 53, 108, 133, 112, 17, 133, 244, 3, 12, 230, 29, 243, 51, 79, 253, 10, 111, 185, 23, 74, 230, 99, 94, 78, 49, 209, 39, 95, 213, 248, 212, 22, 4, 222, 145, 77, 190, 136, 230, 134, 70, 228, 241, 194, 216, 163, 234, 52, 1, 64, 181, 139, 128, 90, 255, 214, 60, 168, 233, 254, 110, 31, 102, 58, 67, 201, 33 },
+				P = new byte[] { 237, 238, 79, 75, 29, 57, 145, 201, 57, 177, 215, 108, 40, 77, 232, 237, 113, 38, 157, 195, 174, 134, 188, 175, 121, 28, 11, 236, 80, 146, 12, 38, 8, 12, 104, 46, 6, 247, 14, 149, 196, 23, 130, 116, 141, 137, 225, 74, 84, 111, 44, 163, 55, 10, 246, 154, 195, 158, 186, 241, 162, 11, 217, 77 },
+				Q = new byte[] { 226, 89, 29, 67, 178, 205, 30, 152, 184, 165, 15, 152, 131, 245, 141, 80, 150, 3, 224, 136, 188, 248, 149, 36, 200, 250, 207, 156, 224, 79, 150, 191, 84, 214, 233, 173, 95, 192, 55, 123, 124, 255, 53, 85, 11, 233, 156, 66, 14, 27, 27, 163, 108, 199, 90, 37, 118, 38, 78, 171, 80, 26, 101, 37 },
+				DP = new byte[] { 108, 176, 122, 132, 131, 187, 50, 191, 203, 157, 84, 29, 82, 100, 20, 205, 178, 236, 195, 17, 10, 254, 253, 222, 226, 226, 79, 8, 10, 222, 76, 178, 106, 230, 208, 8, 134, 162, 1, 133, 164, 232, 96, 109, 193, 226, 132, 138, 33, 252, 15, 86, 23, 228, 232, 54, 86, 186, 130, 7, 179, 208, 217, 217 },
+				DQ = new byte[] { 175, 63, 252, 46, 140, 99, 208, 138, 194, 123, 218, 101, 101, 214, 91, 65, 199, 196, 220, 182, 66, 73, 221, 128, 11, 180, 85, 198, 202, 206, 20, 147, 179, 102, 106, 170, 247, 245, 229, 127, 81, 58, 111, 218, 151, 76, 154, 213, 114, 2, 127, 21, 187, 133, 102, 64, 151, 7, 245, 229, 34, 50, 45, 153 },
+				InverseQ = new byte[] { 137, 156, 11, 248, 118, 201, 135, 145, 134, 121, 14, 162, 149, 14, 98, 84, 108, 160, 27, 91, 230, 116, 216, 181, 200, 49, 34, 254, 119, 153, 179, 52, 231, 234, 36, 148, 71, 161, 182, 171, 35, 182, 46, 164, 179, 100, 226, 71, 119, 23, 0, 16, 240, 4, 30, 57, 76, 109, 89, 131, 56, 219, 71, 206 },
+				D = new byte[] { 108, 15, 123, 176, 150, 208, 197, 72, 23, 53, 159, 63, 53, 85, 238, 197, 153, 187, 156, 187, 192, 226, 186, 170, 26, 168, 245, 196, 65, 223, 248, 81, 170, 79, 91, 191, 83, 15, 31, 77, 39, 119, 249, 143, 245, 183, 49, 105, 115, 15, 122, 242, 87, 221, 94, 230, 196, 146, 59, 7, 103, 94, 9, 223, 146, 180, 189, 86, 190, 94, 242, 59, 32, 54, 23, 181, 124, 170, 63, 172, 90, 158, 169, 140, 6, 102, 170, 0, 135, 199, 35, 196, 212, 238, 196, 56, 14, 0, 140, 197, 169, 240, 156, 43, 182, 123, 102, 79, 89, 20, 120, 171, 43, 223, 58, 190, 230, 166, 185, 162, 186, 226, 31, 206, 196, 188, 104, 1 },
+			};
+#else
+			// This is how you could generate your own public/private key pair.  
+			// As we generate a new random key, we need to set the UseMachineKeyStore flag so that this doesn't
+			// crash on IIS. For more information: 
+			// http://social.msdn.microsoft.com/Forums/en-US/clr/thread/7ea48fd0-8d6b-43ed-b272-1a0249ae490f?prof=required
+			var cspParameters = new CspParameters();
+			cspParameters.Flags = CspProviderFlags.UseArchivableKey | CspProviderFlags.UseMachineKeyStore;
+			var keyPair = new RSACryptoServiceProvider(cspParameters);
+
+			// After exporting the private/public key information, read the information out and store it somewhere
+			var privateKey = keyPair.ExportParameters(true);
+			var publicKey = keyPair.ExportParameters(false);
+
+			// Ultimately the private key information must be what is returned through the AccessTokenSigningPrivateKey property.
+			return privateKey;
+#endif
+		}
+
 		private bool IsAuthorizationValid(HashSet<string> requestedScopes, string clientIdentifier, DateTime issuedUtc, string username) {
 			var grantedScopeStrings = from auth in MvcApplication.DataContext.ClientAuthorizations
 									  where