Forward

198     void SetUpRotation( Vector3 centerPos, Vector3 headPos )
199     {
200         // Now it's getting hairy. The devil is in the details here, the big issue is jumping of course.
201         // * When jumping up and down we don't want to center the guy in screen space.
202         // This is important to give a feel for how high you jump and avoiding large camera movements.
203         //
204         // * At the same time we dont want him to ever go out of screen and we want all rotations to be totally smooth.
205         //
206         // So here is what we will do:
207         //
208         // 1. We first find the rotation around the y axis. Thus he is always centered on the y-axis
209         // 2. When grounded we make him be centered
210         // 3. When jumping we keep the camera rotation but rotate the camera to get him back into view if his head is above some threshold
211         // 4. When landing we smoothly interpolate towards centering him on screen
212         Vector3 cameraPos = cameraTransform.position;
213         Vector3 offsetToCenter = centerPos - cameraPos;
214
215         // Generate base rotation only around y-axis
216         Quaternion yRotation = Quaternion.LookRotation( new Vector3( offsetToCenter.x, 0, offsetToCenter.z ) );
217
218         Vector3 relativeOffset = Vector3.forward * distance + Vector3.down * height;
219         cameraTransform.rotation = yRotation * Quaternion.LookRotation( relativeOffset );
220
221         // Calculate the projected center position and top position in world space
222         Ray centerRay = m_CameraTransformCamera.ViewportPointToRay( new Vector3( 0.5f, 0.5f, 1 ) );
223         Ray topRay = m_CameraTransformCamera.ViewportPointToRay( new Vector3( 0.5f, clampHeadPositionScreenSpace, 1 ) );
224
225         Vector3 centerRayPos = centerRay.GetPoint( distance );
226         Vector3 topRayPos = topRay.GetPoint( distance );
227
228         float centerToTopAngle = Vector3.Angle( centerRay.direction, topRay.direction );
229
230         float heightToAngle = centerToTopAngle / ( centerRayPos.y - topRayPos.y );
231
232         float extraLookAngle = heightToAngle * ( centerRayPos.y - centerPos.y );
233         if( extraLookAngle < centerToTopAngle )
234         {
235             extraLookAngle = 0;
236         }
237         else
238         {
239             extraLookAngle = extraLookAngle - centerToTopAngle;
240             cameraTransform.rotation *= Quaternion.Euler( -extraLookAngle, 0, 0 );
241         }
242     }

73     // Are we jumping? (Initiated with jump button and not grounded yet)
77     // Are we moving backwards (This locks the camera to not do a 180 degree spin)
81     // When did the user start walking (Used for going into trot after a while)
87     // the height we jumped from (Used to determine for how long to apply extra jump power after jumping.)
101     void Awake()
102     {
103         // PUN: automatically determine isControllable, if this GO has a PhotonView
104         PhotonView pv = this.gameObject.GetComponent();
105         if (pv != null)
106         {
107             isControllable = pv.isMine;
108
109             // The pickup demo assigns this GameObject as the PhotonPlayer.TagObject. This way, we can access this character (controller, position, etc) easily
110             if (this.AssignAsTagObject)
111             {
112                 pv.owner.TagObject = this.gameObject;
113             }
114
115             // please note: we change this setting on ANY PickupController if "DoRotate" is off. not only locally when it's "our" GameObject!
116             if (pv.observed is Transform && !DoRotate)
117             {
118                 pv.onSerializeTransformOption = OnSerializeTransform.OnlyPosition;
119             }
120         }
121
122
123         moveDirection = transform.TransformDirection(Vector3.forward);
124
125         _animation = GetComponent();
126         if (!_animation)
127             Debug.Log("The character you would like to control doesn't have animations. Moving her might look weird.");
128
129         if (!idleAnimation)
130         {
131             _animation = null;
132             Debug.Log("No idle animation found. Turning off animations.");
133         }
134         if (!walkAnimation)
135         {
136             _animation = null;
137             Debug.Log("No walk animation found. Turning off animations.");
138         }
139         if (!runAnimation)
140         {
141             _animation = null;
142             Debug.Log("No run animation found. Turning off animations.");
143         }
144         if (!jumpPoseAnimation && canJump)
145         {
146             _animation = null;
147             Debug.Log("No jump animation found and the character has canJump enabled. Turning off animations.");
148         }
149     }

308     void UpdateSmoothedMovementDirection()
309     {
310         Transform cameraTransform = Camera.main.transform;
311         bool grounded = IsGrounded();
312
313         // Forward vector relative to the camera along the x-z plane
314         Vector3 forward = cameraTransform.TransformDirection(Vector3.forward);
315         forward.y = 0;
316         forward = forward.normalized;
317
318         // Right vector relative to the camera
319         // Always orthogonal to the forward vector
320         Vector3 right = new Vector3(forward.z, 0, -forward.x);
321
322         float v = Input.GetAxisRaw("Vertical");
323         float h = Input.GetAxisRaw("Horizontal");
324
325         // Are we moving backwards or looking backwards
326         if (v < -0.2f)
327             movingBack = true;
328         else
329             movingBack = false;
330
331         bool wasMoving = isMoving;
332         isMoving = Mathf.Abs(h) > 0.1f || Mathf.Abs(v) > 0.1f;
333
334         // Target direction relative to the camera
335         Vector3 targetDirection = h * right + v * forward;
336         // Debug.Log("targetDirection " + targetDirection);
337
338         // Grounded controls
339         if (grounded)
340         {
341             // Lock camera for short period when transitioning moving & standing still
342             lockCameraTimer += Time.deltaTime;
343             if (isMoving != wasMoving)
344                 lockCameraTimer = 0.0f;
345
346             // We store speed and direction seperately,
347             // so that when the character stands still we still have a valid forward direction
348             // moveDirection is always normalized, and we only update it if there is user input.
349             if (targetDirection != Vector3.zero)
350             {
351                 // If we are really slow, just snap to the target direction
352                 if (moveSpeed < walkSpeed * 0.9f && grounded)
353                 {
354                     moveDirection = targetDirection.normalized;
355                 }
356                 // Otherwise smoothly turn towards it
357                 else
358                 {
359                     moveDirection = Vector3.RotateTowards(moveDirection, targetDirection, rotateSpeed * Mathf.Deg2Rad * Time.deltaTime, 1000);
360
361                     moveDirection = moveDirection.normalized;
362                 }
363             }
364
365             // Smooth the speed based on the current target direction
366             float curSmooth = speedSmoothing * Time.deltaTime;
367
368             // Choose target speed
369             //* We want to support analog input but make sure you cant walk faster diagonally than just forward or sideways
370             float targetSpeed = Mathf.Min(targetDirection.magnitude, 1.0f);
371
372             _characterState = PickupCharacterState.Idle;
373
374             // Pick speed modifier
375             if ((Input.GetKey(KeyCode.LeftShift) | Input.GetKey(KeyCode.RightShift)) && isMoving)
376             {
377                 targetSpeed *= runSpeed;
378                 _characterState = PickupCharacterState.Running;
379             }
380             else if (Time.time - trotAfterSeconds > walkTimeStart)
381             {
382                 targetSpeed *= trotSpeed;
383                 _characterState = PickupCharacterState.Trotting;
384             }
385             else if (isMoving)
386             {
387                 targetSpeed *= walkSpeed;
388                 _characterState = PickupCharacterState.Walking;
389             }
390
391             moveSpeed = Mathf.Lerp(moveSpeed, targetSpeed, curSmooth);
392
393             // Reset walk time start when we slow down
394             if (moveSpeed < walkSpeed * 0.3f)
395                 walkTimeStart = Time.time;
396         }
397         // In air controls
398         else
399         {
400             // Lock camera while in air
401             if (jumping)
402                 lockCameraTimer = 0.0f;
403
404             if (isMoving)
405                 inAirVelocity += targetDirection.normalized * Time.deltaTime * inAirControlAcceleration;
406         }
407     }

20     void Start()
21     {
22         m_CameraTransform = transform.GetChild( 0 );
23         m_LocalForwardVector = m_CameraTransform.forward;
24
25         m_Distance = -m_CameraTransform.localPosition.z / m_CameraTransform.forward.z;
26         m_Distance = Mathf.Clamp( m_Distance, MinimumDistance, MaximumDistance );
27         m_LookAtPoint = m_CameraTransform.localPosition + m_LocalForwardVector * m_Distance;
28     }

43     void UpdateZoom()
44     {
45         m_CameraTransform.localPosition = m_LookAtPoint - m_LocalForwardVector * m_Distance;
46     }

30     void Update()
31     {
32         if( m_PhotonView.isMine == true )
33         {
34             ResetSpeedValues();
35
36             UpdateRotateMovement();
37
38             UpdateForwardMovement();
39             UpdateBackwardMovement();
40             UpdateStrafeMovement();
41
42             MoveCharacterController();
43             ApplyGravityToCharacterController();
44
45             ApplySynchronizedValues();
46         }
47
48         UpdateAnimation();
49     }

51     void UpdateAnimation()
52     {
53         Vector3 movementVector = transform.position - m_LastPosition;
54
55         float speed = Vector3.Dot( movementVector.normalized, transform.forward );
56         float direction = Vector3.Dot( movementVector.normalized, transform.right );
57
58         if( Mathf.Abs( speed ) < 0.2f )
59         {
60             speed = 0f;
61         }
62
63         if( speed > 0.6f )
64         {
65             speed = 1f;
66             direction = 0f;
67         }
68
69         if( speed >= 0f )
70         {
71             if( Mathf.Abs( direction ) > 0.7f )
72             {
73                 speed = 1f;
74             }
75         }
76
77         m_AnimatorSpeed = Mathf.MoveTowards( m_AnimatorSpeed, speed, Time.deltaTime * 5f );
78
79         m_Animator.SetFloat( "Speed", m_AnimatorSpeed );
80         m_Animator.SetFloat( "Direction", direction );
81
82         m_LastPosition = transform.position;
83     }

106     void UpdateForwardMovement()
107     {
108         if( Input.GetKey( KeyCode.W ) == true )
109         {
110             m_CurrentMovement = transform.forward * ForwardSpeed;
111         }
112     }

114     void UpdateBackwardMovement()
115     {
116         if( Input.GetKey( KeyCode.S ) == true )
117         {
118             m_CurrentMovement = -transform.forward * BackwardSpeed;
119         }
120     }

190     void SetUpRotation( Vector3 centerPos, Vector3 headPos )
191     {
192         // Now it's getting hairy. The devil is in the details here, the big issue is jumping of course.
193         // * When jumping up and down we don't want to center the guy in screen space.
194         // This is important to give a feel for how high you jump and avoiding large camera movements.
195         //
196         // * At the same time we dont want him to ever go out of screen and we want all rotations to be totally smooth.
197         //
198         // So here is what we will do:
199         //
200         // 1. We first find the rotation around the y axis. Thus he is always centered on the y-axis
201         // 2. When grounded we make him be centered
202         // 3. When jumping we keep the camera rotation but rotate the camera to get him back into view if his head is above some threshold
203         // 4. When landing we smoothly interpolate towards centering him on screen
204         Vector3 cameraPos = cameraTransform.position;
205         Vector3 offsetToCenter = centerPos - cameraPos;
206
207         // Generate base rotation only around y-axis
208         Quaternion yRotation = Quaternion.LookRotation( new Vector3( offsetToCenter.x, 0, offsetToCenter.z ) );
209
210         Vector3 relativeOffset = Vector3.forward * distance + Vector3.down * height;
211         cameraTransform.rotation = yRotation * Quaternion.LookRotation( relativeOffset );
212
213         // Calculate the projected center position and top position in world space
214         Ray centerRay = m_CameraTransformCamera.ViewportPointToRay( new Vector3( 0.5f, 0.5f, 1 ) );
215         Ray topRay = m_CameraTransformCamera.ViewportPointToRay( new Vector3( 0.5f, clampHeadPositionScreenSpace, 1 ) );
216
217         Vector3 centerRayPos = centerRay.GetPoint( distance );
218         Vector3 topRayPos = topRay.GetPoint( distance );
219
220         float centerToTopAngle = Vector3.Angle( centerRay.direction, topRay.direction );
221
222         float heightToAngle = centerToTopAngle / ( centerRayPos.y - topRayPos.y );
223
224         float extraLookAngle = heightToAngle * ( centerRayPos.y - centerPos.y );
225         if( extraLookAngle < centerToTopAngle )
226         {
227             extraLookAngle = 0;
228         }
229         else
230         {
231             extraLookAngle = extraLookAngle - centerToTopAngle;
232             cameraTransform.rotation *= Quaternion.Euler( -extraLookAngle, 0, 0 );
233         }
234     }