// Protocol Buffers - Google's data interchange format // Copyright 2015 Google Inc. All rights reserved. // // Use of this source code is governed by a BSD-style // license that can be found in the LICENSE file or at // https://developers.google.com/open-source/licenses/bsd #import "GPBWellKnownTypes.h" #import #import "GPBTestUtilities.h" #import "objectivec/Tests/AnyTest.pbobjc.h" // Nanosecond time accuracy static const NSTimeInterval kTimeAccuracy = 1e-9; @interface WellKnownTypesTest : XCTestCase @end @implementation WellKnownTypesTest - (void)testTimeStamp { // Test negative and positive values. NSTimeInterval values[] = { -428027599.483999967, -1234567.0, -0.5, 0, 0.75, 54321.0, 2468086, 483999967}; for (size_t i = 0; i < GPBARRAYSIZE(values); ++i) { NSTimeInterval value = values[i]; // Test Creation - date. NSDate *date = [NSDate dateWithTimeIntervalSince1970:value]; GPBTimestamp *timeStamp = [[GPBTimestamp alloc] initWithDate:date]; XCTAssertGreaterThanOrEqual(timeStamp.nanos, 0, @"Offset %f - Date: %@", (double)value, date); XCTAssertLessThan(timeStamp.nanos, 1e9, @"Offset %f - Date: %@", (double)value, date); // Comparing timeIntervals instead of directly comparing dates because date // equality requires the time intervals to be exactly the same, and the // timeintervals go through a bit of floating point error as they are // converted back and forth from the internal representation. XCTAssertEqualWithAccuracy(value, timeStamp.date.timeIntervalSince1970, kTimeAccuracy, @"Offset %f - Date: %@", (double)value, date); [timeStamp release]; // Test Creation - timeIntervalSince1970. timeStamp = [[GPBTimestamp alloc] initWithTimeIntervalSince1970:value]; XCTAssertGreaterThanOrEqual(timeStamp.nanos, 0, @"Offset %f - Date: %@", (double)value, date); XCTAssertLessThan(timeStamp.nanos, 1e9, @"Offset %f - Date: %@", (double)value, date); XCTAssertEqualWithAccuracy(value, timeStamp.timeIntervalSince1970, kTimeAccuracy, @"Offset %f - Date: %@", (double)value, date); [timeStamp release]; // Test Mutation - date. timeStamp = [[GPBTimestamp alloc] init]; timeStamp.date = date; XCTAssertGreaterThanOrEqual(timeStamp.nanos, 0, @"Offset %f - Date: %@", (double)value, date); XCTAssertLessThan(timeStamp.nanos, 1e9, @"Offset %f - Date: %@", (double)value, date); XCTAssertEqualWithAccuracy(value, timeStamp.date.timeIntervalSince1970, kTimeAccuracy, @"Offset %f - Date: %@", (double)value, date); [timeStamp release]; // Test Mutation - timeIntervalSince1970. timeStamp = [[GPBTimestamp alloc] init]; timeStamp.timeIntervalSince1970 = value; XCTAssertGreaterThanOrEqual(timeStamp.nanos, 0, @"Offset %f - Date: %@", (double)value, date); XCTAssertLessThan(timeStamp.nanos, 1e9, @"Offset %f - Date: %@", (double)value, date); XCTAssertEqualWithAccuracy(value, timeStamp.date.timeIntervalSince1970, kTimeAccuracy, @"Offset %f - Date: %@", (double)value, date); [timeStamp release]; } } - (void)testDuration { // Test negative and positive values. NSTimeInterval values[] = {-1000.0001, -500.0, -0.5, 0, 0.75, 1000.0, 2000.0002}; for (size_t i = 0; i < GPBARRAYSIZE(values); ++i) { NSTimeInterval value = values[i]; // Test Creation. GPBDuration *duration = [[GPBDuration alloc] initWithTimeInterval:value]; XCTAssertEqualWithAccuracy(value, duration.timeInterval, kTimeAccuracy, @"For interval %f", (double)value); if (value > 0) { XCTAssertGreaterThanOrEqual(duration.seconds, 0, @"For interval %f", (double)value); XCTAssertGreaterThanOrEqual(duration.nanos, 0, @"For interval %f", (double)value); } else { XCTAssertLessThanOrEqual(duration.seconds, 0, @"For interval %f", (double)value); XCTAssertLessThanOrEqual(duration.nanos, 0, @"For interval %f", (double)value); } [duration release]; // Test Mutation. duration = [[GPBDuration alloc] init]; duration.timeInterval = value; XCTAssertEqualWithAccuracy(value, duration.timeInterval, kTimeAccuracy, @"For interval %f", (double)value); if (value > 0) { XCTAssertGreaterThanOrEqual(duration.seconds, 0, @"For interval %f", (double)value); XCTAssertGreaterThanOrEqual(duration.nanos, 0, @"For interval %f", (double)value); } else { XCTAssertLessThanOrEqual(duration.seconds, 0, @"For interval %f", (double)value); XCTAssertLessThanOrEqual(duration.nanos, 0, @"For interval %f", (double)value); } [duration release]; } } - (void)testAnyHelpers { // Set and extract covers most of the code. AnyTestMessage *subMessage = [AnyTestMessage message]; subMessage.int32Value = 12345; AnyTestMessage *message = [AnyTestMessage message]; NSError *err = nil; message.anyValue = [GPBAny anyWithMessage:subMessage error:&err]; XCTAssertNil(err); NSData *data = message.data; XCTAssertNotNil(data); AnyTestMessage *message2 = [AnyTestMessage parseFromData:data error:&err]; XCTAssertNil(err); XCTAssertNotNil(message2); XCTAssertTrue(message2.hasAnyValue); AnyTestMessage *subMessage2 = (AnyTestMessage *)[message.anyValue unpackMessageClass:[AnyTestMessage class] error:&err]; XCTAssertNil(err); XCTAssertNotNil(subMessage2); XCTAssertEqual(subMessage2.int32Value, 12345); // NULL errorPtr in the two calls. message.anyValue = [GPBAny anyWithMessage:subMessage error:NULL]; NSData *data2 = message.data; XCTAssertEqualObjects(data2, data); AnyTestMessage *subMessage3 = (AnyTestMessage *)[message.anyValue unpackMessageClass:[AnyTestMessage class] error:NULL]; XCTAssertNotNil(subMessage3); XCTAssertEqualObjects(subMessage2, subMessage3); // Try to extract wrong type. GPBTimestamp *wrongMessage = (GPBTimestamp *)[message.anyValue unpackMessageClass:[GPBTimestamp class] error:&err]; XCTAssertNotNil(err); XCTAssertNil(wrongMessage); XCTAssertEqualObjects(err.domain, GPBWellKnownTypesErrorDomain); XCTAssertEqual(err.code, GPBWellKnownTypesErrorCodeTypeURLMismatch); wrongMessage = (GPBTimestamp *)[message.anyValue unpackMessageClass:[GPBTimestamp class] error:NULL]; XCTAssertNil(wrongMessage); } @end