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}

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