Unlock 30% off on Manual Testing Annual Plans this Holiday Season.

Copied to Clipboard!

How to use toRadians method of main Package

Best K6 code snippet using main.toRadians

app.go

Source:app.go

...76}77func log(msg string, v interface{}) {78	fmt.Fprintf(os.Stderr, "%s: %+v\n", msg, v)79}80func toRadians(a float64) float64 {81	return regularizeAngle(float64(a * math.Pi / 180))82}83func toDegrees(a float64) float64 { return float64(a * 180 / math.Pi) }84func regularizeAngle(a float64) float64 {85	if a > math.Pi {86		a -= 2 * math.Pi87	}88	if a < -math.Pi {89		a += 2 * math.Pi90	}91	return a92}93func regularizeAngleDegree(a float64) float64 {94	if a > 180 {95		a -= 36096	}97	if a <= -180 {98		a += 36099	}100	return a101}102func diffAngle(a1 float64, a2 float64) float64 {103	return regularizeAngle(a2 - a1)104}105func restrictAngle(current float64, requested float64) float64 {106	return clampAngle(requested, current-toRadians(MAX_ANGLE_DIFF_DEGREE), current+toRadians(MAX_ANGLE_DIFF_DEGREE))107}108func clampAngle(a float64, minA float64, maxA float64) float64 {109	if diffAngle(minA, a) >= 0 && diffAngle(a, maxA) >= 0 {110		return a111	}112	if math.Abs(diffAngle(a, minA)) <= math.Abs(diffAngle(a, maxA)) {113		return minA114	} else {115		return maxA116	}117}118func initCar() Car {119	return Car{120		coord: Coord{121			x: float64(randInt(0+PADDING, MAP_WIDTH-PADDING)),122			y: float64(randInt(0+PADDING, MAP_HEIGHT-PADDING)),123		},124		vel: Vector{125			x: 0,126			y: 0,127		},128		angle: 0,129	}130}131// func setup() {132// 	rand.Seed(time.Now().UnixNano())133// 	p5.Canvas(MAP_WIDTH*SCALE+500, MAP_HEIGHT*SCALE)134// 	p5.Background(color.Gray{Y: 220})135// 	allMaps = make([][]Coord, 0, MAPS_PANEL_SIZE)136// 	for i := 0; i < MAPS_PANEL_SIZE; i++ {137// 		allMaps = append(allMaps, randomMap())138// 	}139// 	go searchCarParams()140// }141func randInt(min int, max int) int {142	return rand.Intn(max-min) + min143}144func dist(c1 Coord, c2 Coord) float64 {145	x := (c2.x - c1.x)146	y := (c2.y - c1.y)147	return math.Sqrt(x*x + y*y)148}149func oneCPIsTooClose(cps []Coord, c Coord) bool {150	const MIN_SPACING = 1200151	for i := 0; i < len(cps); i++ {152		if dist(cps[i], c) < MIN_SPACING {153			return true154		}155	}156	return false157}158func randomMap() []Coord {159	cpCount := randInt(3, 9)160	res := make([]Coord, 0, cpCount)161	for iCheckpoint := 0; iCheckpoint < cpCount; iCheckpoint++ {162		randCoord := Coord{float64(-1), float64(-1)}163		for randCoord.x == -1 || randCoord.y == -1 || oneCPIsTooClose(res, randCoord) {164			randCoord.x = float64(randInt(0+PADDING, MAP_WIDTH-PADDING))165			randCoord.y = float64(randInt(0+PADDING, MAP_HEIGHT-PADDING))166		}167		res = append(res, randCoord)168	}169	return res170}171// func drawCheckpoints(checkpoints []Coord) {172// 	p5.Fill(color.White)173// 	p5.TextSize(24)174// 	for i := 0; i < len(checkpoints); i++ {175// 		x := checkpoints[i].x * SCALE176// 		y := checkpoints[i].y * SCALE177// 		p5.Circle(x, y, CP_DIAMETER*SCALE)178// 		p5.Text(strconv.Itoa(i), x, y)179// 	}180// }181// func drawCar(car Car) {182// 	p5.Fill(color.RGBA{R: 255, A: 255})183// 	p5.Circle(car.coord.x*SCALE, car.coord.y*SCALE, 50)184// }185func norm(v Vector) float64 {186	return math.Sqrt(v.x*v.x + v.y*v.y)187}188func normalVector(v Vector) Vector {189	n := norm(v)190	if n > 0 {191		return Vector{192			x: v.x / n,193			y: v.y / n,194		}195	} else {196		return Vector{197			x: 1,198			y: 0,199		}200	}201}202func multVector(v Vector, factor float64) Vector {203	return Vector{204		x: v.x * factor,205		y: v.y * factor,206	}207}208func truncVector(v Vector) Vector {209	return Vector{210		x: math.Trunc(v.x),211		y: math.Trunc(v.y),212	}213}214func truncCoord(c Coord) Coord {215	return Coord{216		x: math.Trunc(c.x),217		y: math.Trunc(c.y),218	}219}220func addVector(v1 Vector, v2 Vector) Vector {221	return Vector{222		x: v1.x + v2.x,223		y: v1.y + v2.y,224	}225}226func applyVector(c Coord, v Vector) Coord {227	return Coord{228		x: c.x + v.x,229		y: c.y + v.y,230	}231}232func vectorBetween(c1 Coord, c2 Coord) Vector {233	return Vector{234		c2.x - c1.x,235		c2.y - c1.y,236	}237}238func assert(v float64, v2 float64) {239	diff := v2 - v240	if math.Abs(diff) > 0.0000001 {241		panic(fmt.Sprintf("%f did not equal %f diff %.100f", v, v2, diff))242	}243}244func normalVectorFromAngle(a float64) Vector {245	return Vector{246		x: math.Cos(a),247		y: math.Sin(a),248	}249}250func searchCarParams() {251	cnt := 0252	for {253		cnt += 1254		totalSteps = 0255		for checkpointsMapIndex := 0; checkpointsMapIndex < len(allMaps); checkpointsMapIndex += 1 {256			displayCheckpoints = allMaps[checkpointsMapIndex]257			displayCheckpointsMapIndex = checkpointsMapIndex258			state := State{259				car:               initCar(),260				idxCheckpoint:     0,261				lap:               0,262				passedCheckpoints: 0,263			}264			displayLap = 0265			thisMapSteps = 0266			for over, turn := false, 0; !over; turn += 1 {267				over, state = update(turn, state, checkpointsMapIndex)268				displayCar = state.car269				if !fastSim {270					waitTime := 20000 * time.Microsecond271					time.Sleep(time.Duration(waitTime))272				}273			}274			// log("Done map ", fmt.Sprintf("map %d in %d steps", checkpointsMapIndex, thisMapSteps))275		}276	}277}278func applyAction(car Car, angle float64, thrust int) Car {279	toTargetAngleRestricted := restrictAngle(toRadians(car.angle), angle)280	car.angle = toDegrees(toTargetAngleRestricted)281	acc := Vector{0, 0}282	if thrust != 0 {283		acc = multVector(normalVectorFromAngle(toTargetAngleRestricted), float64(thrust))284	}285	car.vel = addVector(car.vel, acc)286	car.coord = applyVector(car.coord, car.vel)287	car.vel = multVector(car.vel, 0.85)288	car.vel = truncVector(car.vel)289	car.angle = regularizeAngleDegree(math.Round(car.angle))290	car.coord = truncCoord(car.coord)291	return car292}293func applyActionOnState(checkpoints []Coord, state State, angle float64, thrust int) State {294	newCar := applyAction(state.car, angle, thrust)295	target := checkpoints[state.idxCheckpoint]296	dTarget := dist(Coord{newCar.coord.x, newCar.coord.y}, target)297	newLap := state.lap298	newCheckpointIndex := state.idxCheckpoint299	newPassedCheckpoints := state.passedCheckpoints300	if dTarget <= CP_RADIUS {301		if state.idxCheckpoint == 0 {302			newLap += 1303		}304		newCheckpointIndex = (newCheckpointIndex + 1) % len(checkpoints)305		newPassedCheckpoints += 1306	}307	return State{308		car:               newCar,309		idxCheckpoint:     newCheckpointIndex,310		lap:               newLap,311		passedCheckpoints: newPassedCheckpoints,312	}313}314func update(turn int, state State, checkpointsMapIndex int) (bool, State) {315	checkpoints := allMaps[checkpointsMapIndex]316	turnStart := getTime()317	bestAction, _ := beamSearch(turn, turnStart, checkpoints, state)318	displayTarget = state.car.coord319	log("output", fmt.Sprintf("Turn %d best action is %+v with target %d", turn, bestAction, state.idxCheckpoint))320	newState := applyActionOnState(checkpoints, state, toRadians(float64(bestAction.angle)), bestAction.thrust)321	newState.passedCheckpoints = 0322	return newState.lap == MAX_LAP, newState323}324// func drawStats(checkpointsMapIndex int, lap int) {325// 	p5.Text(fmt.Sprintf("totalStep %d\nstep %d\nmap %d/%d\nlap %d/%d", totalSteps, thisMapSteps, checkpointsMapIndex+1, MAPS_PANEL_SIZE, lap, MAX_LAP), 10, 50)326// }327// func drawTarget(from Coord, to Coord) {328// 	p5.Line(from.x*SCALE, from.y*SCALE, to.x*SCALE, to.y*SCALE)329// }330// func draw() {331// 	if len(displayCheckpoints) > 0 {332// 		drawCheckpoints(displayCheckpoints)333// 	}334// 	drawCar(displayCar)335// 	drawTarget(Coord{displayCar.coord.x, displayCar.coord.y}, displayTarget)336// 	drawStats(displayCheckpointsMapIndex, displayLap)337// }338func hashCar(c Car) int {339	res := 7340	res = 31*res + int(c.angle)341	res = 31*res + int(c.coord.x)342	res = 31*res + int(c.coord.y)343	res = 31*res + int(c.vel.x)344	res = 31*res + int(c.vel.y)345	return res346}347func hashState(s State) int {348	res := 7349	res = 31*res + s.idxCheckpoint350	res = 31*res + s.lap351	res = 31*res + s.passedCheckpoints352	res = 31*res + hashCar(s.car)353	return res354}355func seenState(cacheMap map[int]bool, key int) bool {356	_, found := cacheMap[key]357	return found358}359func getTime() int64 {360	return time.Now().UnixNano() / int64(time.Millisecond)361}362func getElapsedMs(start int64) int64 {363	return (getTime() - start)364}365func timeout(curTurn int, start int64) bool {366	elapsed := getElapsedMs(start)367	maxAllowed := 0368	if curTurn == 0 {369		maxAllowed = 900370	} else {371		maxAllowed = 40372	}373	return elapsed >= int64(maxAllowed)374}375var population = make([]Trajectory, 0, POPULATION_SIZE)376var newCandidates = make([]Trajectory, 0, POPULATION_SIZE*5)377type byScore []Trajectory378func (s byScore) Len() int {379	return len(s)380}381func (s byScore) Swap(i, j int) {382	s[i], s[j] = s[j], s[i]383}384func (s byScore) Less(i, j int) bool {385	return s[i].score > s[j].score386}387func beamSearch(turn int, turnStart int64, checkpoints []Coord, state State) (Action, Car) {388	population = population[:0]389	for iCandidate := 0; iCandidate < POPULATION_SIZE; iCandidate++ {390		population = append(population, Trajectory{391			firstAction:  Action{},392			currentState: state,393			score:        -1,394		})395	}396	exitTimeout := false397	depth := 0398	seen := 0399	for depth = 0; !exitTimeout; depth += 1 {400		// log("Depth", fmt.Sprintf("%d: %d candidates", depth, len(population)))401		seenMap := make(map[int]bool, POPULATION_SIZE*5)402		newCandidates = newCandidates[:0]403		// log("newCandidates len after clear", len(newCandidates))404		// log("newCandidates cap after clear", cap(newCandidates))405		for iCandidate := 0; iCandidate < len(population) && !exitTimeout; iCandidate += 1 {406			candidate := population[iCandidate]407			for offsetAngle := -18; offsetAngle <= 18; offsetAngle += 36 {408				angle := regularizeAngle(toRadians(float64(offsetAngle)) + toRadians(candidate.currentState.car.angle))409				for thrust := 0; thrust <= 200; thrust += 200 {410					newState := applyActionOnState(checkpoints, candidate.currentState, angle, thrust)411					h := hashState(newState)412					if !seenState(seenMap, h) {413						firstAction := Action{414							thrust:             thrust,415							angle:              int(toDegrees(angle)),416							offsetAngleDegrees: offsetAngle,417						}418						firstActionCarResult := newState.car419						if depth > 0 {420							firstAction = candidate.firstAction421							firstActionCarResult = candidate.firstActionCarResult422						}423						newCandidates = append(newCandidates, Trajectory{424							firstAction:          firstAction,425							firstActionCarResult: firstActionCarResult,426							currentState:         newState,427							score:                float64(newState.passedCheckpoints)*100000 - dist(newState.car.coord, checkpoints[newState.idxCheckpoint]),428						})429						seenMap[h] = true430					} else {431						// log("already seen", fmt.Sprintf("#%d: %v", seen, newState))432						seen += 1433					}434				}435			}436			if timeout(turn, turnStart) {437				exitTimeout = true438			}439		}440		// log("seenMap size", len(seenMap))441		if !timeout(turn, turnStart) {442			// log("population before sort", len(newCandidates))443			// log("skipped", seen)444			sort.Sort(byScore(newCandidates))445		}446		if !timeout(turn, turnStart) {447			// if depth == 7 {448			// 	for i := 0; i < 10; i++ {449			// 		log("candidate", fmt.Sprintf("%d %f %v %v", i, newCandidates[i].score, newCandidates[i].history, newCandidates[i].currentState))450			// 	}451			// }452			copy(population, newCandidates)453		}454	}455	// log("population sorted", fmt.Sprintf("pop %+v", population))456	best := population[0]457	log("best", fmt.Sprintf("cp %d at depth %d: %v skipped %d", best.currentState.passedCheckpoints, depth, best.score, seen))458	return best.firstAction, best.firstActionCarResult459}460func assertSameCar(car Car, car2 Car) {461	assert(car.angle, car2.angle)462	assert(car.coord.x, car2.coord.x)463	assert(car.coord.y, car2.coord.y)464	assert(car.vel.x, car2.vel.x)465	assert(car.vel.y, car2.vel.y)466}467func mainCG() {468	// checkpoints: Count of checkpoints to read469	var checkpoints int470	fmt.Scan(&checkpoints)471	checkpointsList := make([]Coord, 0, checkpoints)472	for i := 0; i < checkpoints; i++ {473		// checkpointX: Position X474		// checkpointY: Position Y475		var checkpointX, checkpointY int476		fmt.Scan(&checkpointX, &checkpointY)477		checkpointsList = append(checkpointsList, Coord{float64(checkpointX), float64(checkpointY)})478	}479	turn := 0480	turnStart := int64(0)481	// lastCarExpected := Car{}482	for ; ; turn += 1 {483		// checkpointIndex: Index of the checkpoint to lookup in the checkpoints input, initially 0484		// x: Position X485		// y: Position Y486		// vx: horizontal speed. Positive is right487		// vy: vertical speed. Positive is downwards488		// angle: facing angle of this car489		var checkpointIndex, x, y, vx, vy, angle int490		fmt.Scan(&checkpointIndex, &x, &y, &vx, &vy, &angle)491		turnStart = getTime()492		currentCar := Car{493			vel: Vector{494				x: float64(vx),495				y: float64(vy),496			},497			coord: Coord{498				x: float64(x),499				y: float64(y),500			},501			angle: regularizeAngleDegree(float64(angle)),502		}503		log("before", currentCar)504		// if lastCarExpected.coord.x != 0 || lastCarExpected.coord.y != 0 {505		// 	assertSameCar(lastCarExpected, currentCar)506		// }507		state := State{508			car:               currentCar,509			idxCheckpoint:     checkpointIndex,510			lap:               0,511			passedCheckpoints: 0,512		}513		bestAction, newCar := beamSearch(turn, turnStart, checkpointsList, state)514		log("after", newCar)515		// lastCarExpected = newCar516		log("output", fmt.Sprintf("best action is %+v with target %d", bestAction, state.idxCheckpoint))517		// fmt.Fprintln(os.Stderr, "Debug messages...")518		offsetAngle := bestAction.offsetAngleDegrees519		log("offsetAngle", offsetAngle)520		fmt.Printf("EXPERT %d %d\n", offsetAngle, int(bestAction.thrust))521	}522}523func main() {524	defer func() {525		if r := recover(); r != nil {526			log("error", fmt.Sprintf("error %v\nstacktrace from panic:\n%s", r, string(debug.Stack())))527		}528	}()529	assert(toRadians(0), 0)530	assert(toRadians(180), math.Pi)531	assert(toRadians(360), 0)532	assert(toRadians(390), toRadians(30))533	assert(toRadians(-180), -math.Pi)534	assert(toRadians(-360), 0)535	assert(diffAngle(toRadians(10), toRadians(30)), toRadians(20))536	assert(diffAngle(toRadians(30), toRadians(10)), toRadians(-20))537	assert(diffAngle(toRadians(10), toRadians(-30)), toRadians(-40))538	assert(diffAngle(toRadians(10), toRadians(330)), toRadians(-40))539	assert(diffAngle(toRadians(350), toRadians(-350)), toRadians(20))540	assert(clampAngle(toRadians(30), toRadians(20), toRadians(40)), toRadians(30))541	assert(clampAngle(toRadians(20), toRadians(20), toRadians(40)), toRadians(20))542	assert(clampAngle(toRadians(10), toRadians(20), toRadians(40)), toRadians(20))543	assert(clampAngle(toRadians(50), toRadians(20), toRadians(40)), toRadians(40))544	assert(restrictAngle(toRadians(30), toRadians(30)), toRadians(30))545	assert(restrictAngle(toRadians(30), toRadians(0)), toRadians(12))546	assert(restrictAngle(toRadians(30), toRadians(60)), toRadians(48))547	// flag.Parse()548	// log("starting CPU profile", true)549	// f, err := os.Create("out.prof")550	// if err != nil {551	// 	log("could not create CPU profile: ", err)552	// }553	// defer f.Close()554	// runtime.SetCPUProfileRate(500)555	// if err := pprof.StartCPUProfile(f); err != nil {556	// 	log("could not start CPU profile: ", err)557	// }558	// time.AfterFunc(30*time.Second, pprof.StopCPUProfile)559	// p5.Run(setup, draw)560	mainCG()...

defibrillators.go

Source:defibrillators.go

...12  scanner.Buffer(make([]byte, 1000000), 1000000)13  var longitude string14  scanner.Scan()15  fmt.Sscan(scanner.Text(), &longitude)16  var lon = toRadians(longitude)17  var latitude string18  scanner.Scan()19  fmt.Sscan(scanner.Text(), &latitude)20  var lat = toRadians(latitude)21  22  var n int23  scanner.Scan()24  fmt.Sscan(scanner.Text(), &n)25  26  var min = math.Inf(1)27  var name = ""28  for i := 0; i < n; i++ {29    scanner.Scan()30    defib := strings.Split(scanner.Text(), ";")31    var defibLon = toRadians(defib[4])32    var defibLat = toRadians(defib[5])33    var x = (defibLon - lon) * math.Cos((lat + defibLat) / 2)34    var y = defibLat - lat35    var distance = math.Hypot(x, y) * 637136    if distance < min {37      min = distance38      name = defib[1]39    }40  }41  42  fmt.Println(name)43}44// Convert degrees to radians45func toRadians(angle string) float64 {46  var degrees, _ = strconv.ParseFloat(strings.Replace(angle, ",", ".", -1), 64)47  return degrees * math.Pi / 18048}...

ac-methods.go

Source:ac-methods.go

...12	angle     float6413	something string14}15// method16func (deg Degrees) toRadians() float64 {17	return deg.angle * (3.14 / 180.0)18}19func main() {20	angle1 := Degrees{90.0, "Inclination Angle"}21	fmt.Println("angle1 =", angle1) // {90 Inclination Angle}22	fmt.Println("angle1.toRadians() =", angle1.toRadians()) // 1.569999999999999823}24// assignment: Round off the result to two digits, after decimal...

toRadians

Using AI Code Generation

1import "fmt"2import "math"3type Vertex struct {4}5func (v Vertex) Abs() float64 {6    return math.Sqrt(v.X*v.X + v.Y*v.Y)7}8func main() {9    v := Vertex{3, 4}10    fmt.Println(v.Abs())11}12import "fmt"13import "math"14type Vertex struct {15}16func (v Vertex) Abs() float64 {17    return math.Sqrt(v.X*v.X + v.Y*v.Y)18}19func main() {20    v := Vertex{3, 4}21    fmt.Println(v.Abs())22}23import "fmt"24import "math"25type Vertex struct {26}27func (v Vertex) Abs() float64 {28    return math.Sqrt(v.X*v.X + v.Y*v.Y)29}30func main() {31    v := Vertex{3, 4}32    fmt.Println(v.Abs())33}34import "fmt"35import "math"36type Vertex struct {37}38func (v Vertex) Abs() float64 {39    return math.Sqrt(v.X*v.X + v.Y*v.Y)40}41func main() {42    v := Vertex{3, 4}43    fmt.Println(v.Abs())44}45import "fmt"46import "math"47type Vertex struct {48}49func (v Vertex) Abs() float64 {50    return math.Sqrt(v.X*v.X + v.Y*v.Y)51}52func main() {53    v := Vertex{3, 4}54    fmt.Println(v.Abs())55}56import "fmt"57import "math"58type Vertex struct {59}60func (v Vertex) Abs() float64 {61    return math.Sqrt(v.X*v.X + v.Y*v.Y)62}63func main() {64    v := Vertex{3, 4}

toRadians

Using AI Code Generation

1import (2type Vertex struct {3}4func (v Vertex) Abs() float64 {5	return math.Sqrt(v.X*v.X + v.Y*v.Y)6}7func toRadians(v Vertex) Vertex {8	return Vertex{v.X * math.Pi / 180, v.Y * math.Pi / 180}9}10func main() {11	v := Vertex{3, 4}12	fmt.Println(v.Abs())13	fmt.Println(toRadians(v))14}

toRadians

Using AI Code Generation

1import (2type Circle struct {3}4func (c Circle) area() float64 {5}6func (c Circle) circumference() float64 {7}8func main() {9	circle := Circle{4}10	fmt.Println(circle.area())11	fmt.Println(circle.circumference())12}13import (14type Circle struct {15}16func (c Circle) area() float64 {17}18func (c Circle) circumference() float64 {19}20func main() {21	circle := Circle{4}22	fmt.Println(circle.area())23	fmt.Println(circle.circumference())24	fmt.Println(circle.toRadians())25}26func (c Circle) toRadians() float64 {27}28import (29type Circle struct {30}31func (c Circle) area() float64 {32}33func (c Circle) circumference() float64 {34}35func main() {36	circle := Circle{4}37	fmt.Println(circle.area())38	fmt.Println(circle.circumference())39	fmt.Println(circle.toRadians())40}41func (c Circle) toRadians() float64 {42}43import (44type Circle struct {45}46func (c Circle) area() float64 {47}48func (c Circle) circumference() float64 {49}50func main() {51	circle := Circle{4}52	fmt.Println(circle.area())53	fmt.Println(circle.circumference())54	fmt.Println(circle.toRadians())55}56func (c Circle) toRadians() float64 {

toRadians

Using AI Code Generation

1import "fmt"2import "math"3func main() {4   fmt.Printf("radian = %.6f", radian)5}6import "fmt"7import "math"8func main() {9   fmt.Printf("radian = %.6f", radian)10}

toRadians

Using AI Code Generation

1import "fmt"2import "math"3func main() {4   fmt.Printf("%.1f degree is %.1f radian", degree, radian)5}6import "fmt"7import "math"8func main() {9   fmt.Printf("%.1f degree is %.1f radian", degree, radian)10}11func toRadians(degree float64) float64 {12}13import "fmt"14import "math"15func main() {16   radian = toRadians(degree)17   fmt.Printf("%.1f degree is %.1f radian", degree, radian)18}19func toRadians(degree float64) float64 {20}21import "fmt"22import "math"23func main() {24   radian = toRadians(degree)25   fmt.Printf("%.1f degree is %.1f radian", degree, radian)26}27func toRadians(degree float64) float64 {28}29import "fmt"30import "math"31func main() {32   radian = toRadians(degree)33   fmt.Printf("%.1f degree is %.1f radian", degree, radian)34}35func toRadians(degree float64) float64 {36}

toRadians

Using AI Code Generation

1import (2type Point struct {3}4func distance(p1, p2 Point) float64 {5	return math.Sqrt(math.Pow(p1.x-p2.x, 2) + math.Pow(p1.y-p2.y, 2))6}7func (p Point) distance(p2 Point) float64 {8	return math.Sqrt(math.Pow(p.x-p2.x, 2) + math.Pow(p.y-p2.y, 2))9}10func (p Point) toRadians() float64 {11	return math.Atan2(p.y, p.x)12}13func main() {14	p1 := Point{3, 4}15	p2 := Point{0, 0}16	fmt.Println("Distance between p1 and p2 is:", distance(p1, p2))17	fmt.Println("Distance between p1 and p2 is:", p1.distance(p2))18	fmt.Println("Radians of p1 is:", p1.toRadians())19}20import (21type Point struct {22}23func distance(p1, p2 Point) float64 {24	return math.Sqrt(math.Pow(p1.x-p2.x, 2) + math.Pow(p1.y-p2.y, 2))25}26func (p Point) distance(p2 Point) float64 {27	return math.Sqrt(math.Pow(p.x-p2.x, 2) + math.Pow(p.y-p2.y, 2))28}29func (p Point) toRadians() float64 {30	return math.Atan2(p.y, p.x)31}32func main() {33	p1 := Point{3, 4}34	p2 := Point{0, 0}35	fmt.Println("Distance between p1 and p2 is:", distance(p1, p2))36	fmt.Println("Distance between p1 and p2 is:", p1.distance(p2))37	fmt.Println("Radians of p1 is:", p1.toRadians())38}

toRadians

Using AI Code Generation

1import (2func main() {3	fmt.Printf("Radians: %f", radian)4}5import (6func main() {7	fmt.Printf("Radians: %f", radian)8}9import (10func main() {11	fmt.Printf("Radians: %f", radian)12}13import (14func main() {15	fmt.Printf("Radians: %f", radian)16}17import (18func main() {19	fmt.Printf("Radians: %f", radian)20}21import (22func main() {23	fmt.Printf("Radians: %f", radian)24}25import (26func main() {27	fmt.Printf("Radians: %f", radian)28}29import (30func main() {

toRadians

Using AI Code Generation

1import (2func main() {3	fmt.Println("Enter the degree: ")4	fmt.Scanln(&degree)5	fmt.Println(toRadians(degree))6}7func toRadians(degree float64) float64 {8}9import (10func main() {11	fmt.Println("Enter the degree: ")12	fmt.Scanln(&degree)13	fmt.Println(math.ToRadians(degree))14}15import (16func main() {17	fmt.Println("Enter the degree: ")18	fmt.Scanln(&degree)19	fmt.Println(math.Pi * degree / 180)20}

toRadians

Using AI Code Generation

1import (2func main() {3	fmt.Printf("Degree is: %f and Radian is: %f", degree, radian)4}5import (6func main() {7	fmt.Printf("Radian is: %f and Degree is: %f", radian, degree)8}9import (10func main() {11	radian = toRadians(degree)12	fmt.Printf("Degree is: %f and Radian is: %f", degree, radian)13}14func toRadians(degree float64) float64 {15}16import (17func main() {18	degree = toDegrees(radian)19	fmt.Printf("Radian is: %f and Degree is: %f", radian, degree)20}21func toDegrees(radian float64) float64 {22}23import

toRadians

Using AI Code Generation

1import java.lang.Math;2public class Main {3    public static void main(String[] args) {4        double angle = 30;5        double radians = Math.toRadians(angle);6        double sine = Math.sin(radians);7        System.out.println(sine);8    }9}10import java.lang.Math;11public class Main {12    public static void main(String[] args) {13        double angle = 60;14        double radians = Math.toRadians(angle);15        double sine = Math.sin(radians);16        System.out.println(sine);17    }18}19import java.lang.Math;20public class Main {21    public static void main(String[] args) {22        double angle = 90;23        double radians = Math.toRadians(angle);24        double sine = Math.sin(radians);25        System.out.println(sine);26    }27}28import java.lang.Math;29public class Main {30    public static void main(String[] args) {31        double angle = 120;32        double radians = Math.toRadians(angle);33        double sine = Math.sin(radians);34        System.out.println(sine);35    }36}37import java.lang.Math;38public class Main {39    public static void main(String[] args) {40        double angle = 150;41        double radians = Math.toRadians(angle);42        double sine = Math.sin(radians);43        System.out.println(sine);44    }45}

Automation Testing Tutorials

Learn to execute automation testing from scratch with LambdaTest Learning Hub. Right from setting up the prerequisites to run your first automation test, to following best practices and diving deeper into advanced test scenarios. LambdaTest Learning Hubs compile a list of step-by-step guides to help you be proficient with different test automation frameworks i.e. Selenium, Cypress, TestNG etc.