public void test_solution_givenAnNumber_returnsMinimalPerimeter(int given, int expected)
{
var target = new MinPerimeterRectangle();
var actual = target.solution(given);
Assert.AreEqual(expected, actual);
}
public void GetMinPerimeter_Composite_ClosestToRoot(int area, int perimeter)
{
var solver = new MinPerimeterRectangle();
var p = solver.GetMinPerimeter(area);
p.Should().Be(perimeter);
}
public void GetMinPerimeter_Prime_NPlus1Twice(int area)
{
var solver = new MinPerimeterRectangle();
var p = solver.GetMinPerimeter(area);
p.Should().Be(2 * (area + 1));
}
public void GetMinPerimeter_Square_4TimesRoot(int area, int perimeter)
{
var solver = new MinPerimeterRectangle();
var p = solver.GetMinPerimeter(area);
p.Should().Be(perimeter);
}
public void WhenSendind30ShouldReturn22()
{
var expectedValue = 22;
var countFactors = new MinPerimeterRectangle();
var actualValue = countFactors.Solution(30);
Assert.AreEqual(expectedValue, actualValue);
}
public void Basic()
{
// Arrange
int n = 30;
int expected = 22;
MinPerimeterRectangle solution = new MinPerimeterRectangle();
// Act
int result = solution.Solution(n);
// Assert
Assert.AreEqual(expected, result);
}
public void LargestValue()
{
// Arrange
int n = 1000000000;
int expected = 126500;
MinPerimeterRectangle solution = new MinPerimeterRectangle();
// Act
int result = solution.Solution(n);
// Assert
Assert.AreEqual(expected, result);
}
public void Initialize()
{
_minPerimeterRectangle = new MinPerimeterRectangle();
}
