Chapter 4 :
Vector-valued Functions
U 1
.
:
Acceleration and Newton's Second Law
Differentiation of Paths :
i
Rules :
1 . /b(t) + TH) :
b) + It is sum rule
P(tclt)
.&(pHH)]
2 =
pCt(t) + scalar multiplication a
re
.
3 (Ct . H :
(t) · (t) + b() . (t) dot product re o
.
4 (t)xJ(t)] :
bt)xi(t) + b) x cross product rule
q't) Iql
5
d([19(t))) chain rule
:
.
velocity
:
['It)
acceleration :
"(t)
ex :
(0) =
-
i , alt) -u :
Y(0) i + Y
=
[10) :
i
- (t) =
(x (t) y(t) , ,
z (t))
& (t) :
(X (t) Y'() z'(t)
, ,
>
-
<110) (1 :
,
1, 01
& "It) :
(X"(t) Y"(t) z" (t))
, ,
+
5 "10) =
10 , 0 , -1)
" (t) 10 =
,
0 , -1)
GE (t) (1 :
,
1
,
+)
6 i (t) (t =
, t ,
1-1/2) original position
1 t
-
=
0
Z
E =
t
↑ (2) (2 82 0)
=
, ,
Newton's second law :
Force :
E
E([(t) malt) =
Vector-valued Functions
U 1
.
:
Acceleration and Newton's Second Law
Differentiation of Paths :
i
Rules :
1 . /b(t) + TH) :
b) + It is sum rule
P(tclt)
.&(pHH)]
2 =
pCt(t) + scalar multiplication a
re
.
3 (Ct . H :
(t) · (t) + b() . (t) dot product re o
.
4 (t)xJ(t)] :
bt)xi(t) + b) x cross product rule
q't) Iql
5
d([19(t))) chain rule
:
.
velocity
:
['It)
acceleration :
"(t)
ex :
(0) =
-
i , alt) -u :
Y(0) i + Y
=
[10) :
i
- (t) =
(x (t) y(t) , ,
z (t))
& (t) :
(X (t) Y'() z'(t)
, ,
>
-
<110) (1 :
,
1, 01
& "It) :
(X"(t) Y"(t) z" (t))
, ,
+
5 "10) =
10 , 0 , -1)
" (t) 10 =
,
0 , -1)
GE (t) (1 :
,
1
,
+)
6 i (t) (t =
, t ,
1-1/2) original position
1 t
-
=
0
Z
E =
t
↑ (2) (2 82 0)
=
, ,
Newton's second law :
Force :
E
E([(t) malt) =