blob: b06716346227a04093d8f695b49bd5994f826c1a [file] [log] [blame]
let unreached = event => {
assert_unreached(event.error.name + ": " + event.error.message);
};
let properties = {
'AmbientLightSensor' : ['timestamp', 'illuminance'],
'Accelerometer' : ['timestamp', 'x', 'y', 'z'],
'LinearAccelerationSensor' : ['timestamp', 'x', 'y', 'z'],
'Gyroscope' : ['timestamp', 'x', 'y', 'z'],
'Magnetometer' : ['timestamp', 'x', 'y', 'z'],
'AbsoluteOrientationSensor' : ['timestamp', 'quaternion'],
'RelativeOrientationSensor' : ['timestamp', 'quaternion']
};
function assert_reading_not_null(sensor) {
for (let property in properties[sensor.constructor.name]) {
let propertyName = properties[sensor.constructor.name][property];
assert_not_equals(sensor[propertyName], null);
}
}
function assert_reading_null(sensor) {
for (let property in properties[sensor.constructor.name]) {
let propertyName = properties[sensor.constructor.name][property];
assert_equals(sensor[propertyName], null);
}
}
function reading_to_array(sensor) {
let arr = new Array();
for (let property in properties[sensor.constructor.name]) {
let propertyName = properties[sensor.constructor.name][property];
arr[property] = sensor[propertyName];
}
return arr;
}
function runGenericSensorTests(sensorType) {
async_test(t => {
let sensor = new sensorType();
sensor.onreading = t.step_func_done(() => {
assert_reading_not_null(sensor);
sensor.stop();
assert_reading_null(sensor);
});
sensor.onerror = t.step_func_done(unreached);
sensor.start();
}, `${sensorType.name}: Test that 'onreading' is called and sensor reading is valid`);
async_test(t => {
let sensor1 = new sensorType();
let sensor2 = new sensorType();
sensor1.onactivate = t.step_func_done(() => {
// Reading values are correct for both sensors.
assert_reading_not_null(sensor1);
assert_reading_not_null(sensor2);
//After first sensor stops its reading values are null,
//reading values for the second sensor remains
sensor1.stop();
assert_reading_null(sensor1);
assert_reading_not_null(sensor2);
sensor2.stop();
assert_reading_null(sensor2);
});
sensor1.onerror = t.step_func_done(unreached);
sensor2.onerror = t.step_func_done(unreached);
sensor1.start();
sensor2.start();
}, `${sensorType.name}: sensor reading is correct`);
async_test(t => {
let sensor = new sensorType();
let cachedTimeStamp1;
sensor.onactivate = () => {
cachedTimeStamp1 = sensor.timestamp;
};
sensor.onerror = t.step_func_done(unreached);
sensor.start();
t.step_timeout(() => {
sensor.onreading = t.step_func_done(() => {
//sensor.timestamp changes.
let cachedTimeStamp2 = sensor.timestamp;
assert_greater_than(cachedTimeStamp2, cachedTimeStamp1);
sensor.stop();
});
}, 1000);
}, `${sensorType.name}: sensor timestamp is updated when time passes`);
async_test(t => {
let sensor = new sensorType();
sensor.onerror = t.step_func_done(unreached);
assert_false(sensor.activated);
sensor.onreading = t.step_func_done(() => {
assert_true(sensor.activated);
sensor.stop();
assert_false(sensor.activated);
});
sensor.start();
assert_false(sensor.activated);
}, `${sensorType.name}: Test that sensor can be successfully created and its states are correct.`);
test(() => {
let sensor, start_return;
sensor = new sensorType();
sensor.onerror = unreached;
start_return = sensor.start();
assert_equals(start_return, undefined);
sensor.stop();
}, `${sensorType.name}: sensor.start() returns undefined`);
test(() => {
try {
let sensor = new sensorType();
sensor.onerror = unreached;
sensor.start();
sensor.start();
assert_false(sensor.activated);
sensor.stop();
} catch (e) {
assert_unreached(e.name + ": " + e.message);
}
}, `${sensorType.name}: no exception is thrown when calling start() on already started sensor`);
test(() => {
let sensor, stop_return;
sensor = new sensorType();
sensor.onerror = unreached;
sensor.start();
stop_return = sensor.stop();
assert_equals(stop_return, undefined);
}, `${sensorType.name}: sensor.stop() returns undefined`);
test(() => {
try {
let sensor = new sensorType();
sensor.onerror = unreached;
sensor.start();
sensor.stop();
sensor.stop();
assert_false(sensor.activated);
} catch (e) {
assert_unreached(e.name + ": " + e.message);
}
}, `${sensorType.name}: no exception is thrown when calling stop() on already stopped sensor`);
promise_test(() => {
return new Promise((resolve,reject) => {
let iframe = document.createElement('iframe');
iframe.srcdoc = '<script>' +
' window.onmessage = message => {' +
' if (message.data === "LOADED") {' +
' try {' +
' new ' + sensorType.name + '();' +
' parent.postMessage("FAIL", "*");' +
' } catch (e) {' +
' parent.postMessage(e.name, "*");' +
' }' +
' }' +
' };' +
'<\/script>';
iframe.onload = () => iframe.contentWindow.postMessage('LOADED', '*');
document.body.appendChild(iframe);
window.onmessage = message => {
if (message.data == 'SecurityError') {
resolve();
} else {
reject();
}
}
});
}, `${sensorType.name}: throw a 'SecurityError' when constructing sensor object within iframe`);
async_test(t => {
let sensor = new sensorType();
sensor.onactivate = t.step_func(() => {
assert_reading_not_null(sensor);
let cachedSensor1 = reading_to_array(sensor);
let win = window.open('', '_blank');
t.step_timeout(() => {
let cachedSensor2 = reading_to_array(sensor);
win.close();
sensor.stop();
assert_array_equals(cachedSensor1, cachedSensor2);
t.done();
}, 1000);
});
sensor.onerror = t.step_func_done(unreached);
sensor.start();
}, `${sensorType.name}: sensor readings can not be fired on the background tab`);
}
function runGenericSensorInsecureContext(sensorType) {
test(() => {
assert_throws('SecurityError', () => { new sensorType(); });
}, `${sensorType.name}: throw a 'SecurityError' when construct sensor in an insecure context`);
}
function runGenericSensorOnerror(sensorType) {
async_test(t => {
let sensor = new sensorType();
sensor.onactivate = t.step_func_done(assert_unreached);
sensor.onerror = t.step_func_done(event => {
assert_false(sensor.activated);
assert_equals(event.error.name, 'NotReadableError');
});
sensor.start();
}, `${sensorType.name}: 'onerror' event is fired when sensor is not supported`);
}