#ifndef RUNTIMETESTS_H
#define RUNTIMETESTS_H

#include <Indoor/sensors/radio/setup/WiFiFingerprint.h>
#include "ipin/Scaler.h"

class RuntimeTests {

public:

	static void run() {
		testFingerprint();
		testScaler();
	}

private:

	static void testScaler() {

		IPINScaler scaler = IPINScaler(1869, 1869, 40.51312440, -3.34959080, -40.73112000, 0.07596002);

		// map center
		const float cenX = 1869/2.0*0.07596002;
		const float cenY = 1869/2.0*0.07596002;

		const IPIN lonlat = scaler.toIPIN3(cenX, cenY, 0);
		Assert::isNear(40.51312440,	lonlat.lat, 0.000001, "scaler error");		// lat = up/down
		Assert::isNear(-3.34959080,	lonlat.lon, 0.000001, "scaler error");		// lon = left/right
		Assert::isNear(0.0,			lonlat.floorNr, 0.1, "scaler error");

		const Point3 p3 = scaler.convert3D(lonlat);
		Assert::isNear(cenX, p3.x, 0.01f, "scaler error");
		Assert::isNear(cenY, p3.y, 0.01f, "scaler error");
		Assert::isNear(0.0f, p3.z, 0.01f, "scaler error");

	}

	static void testFingerprint() {

		MACAddress mac1("00:00:00:00:00:01");
		MACAddress mac2("00:00:00:00:00:02");

		WiFiFingerprint fp;
		fp.measurements.entries.push_back( WiFiMeasurement(AccessPoint(mac1), -60));
		fp.measurements.entries.push_back( WiFiMeasurement(AccessPoint(mac1), -62));
		fp.measurements.entries.push_back( WiFiMeasurement(AccessPoint(mac1), -63));
		fp.measurements.entries.push_back( WiFiMeasurement(AccessPoint(mac2), -71));
		fp.measurements.entries.push_back( WiFiMeasurement(AccessPoint(mac2), -72));
		WiFiMeasurements avg = fp.average();
		Assert::equal(2, (int)avg.entries.size(), "size mismatch");
		Assert::isNear(-61.666f, avg.entries[1].getRSSI(), 0.01f, "rssi avg mismatch");
		Assert::isNear(-71.500f, avg.entries[0].getRSSI(), 0.01f, "rssi avg mismatch");

	}

};

#endif // RUNTIMETESTS_H