K = ±10% 006 = 6Vdc C = Std ESR S = 13" T&R L = Group A
represent
J = ±5%
010 = 10Vdc L = Low ESR W = Waffle
M = MIL (JAN)
significant
015 = 15Vdc
CWR09
figures 3rd
020 = 20Vdc
See page 6
digit represents
025 = 25Vdc
for additional
multiplier
035 = 35Vdc
(number of
packaging
zeros to follow)
050 = 50Vdc
options.
Reliability Grade
Qualification Termination Finish
Level
Weibull:
0 = N/A
B = 0.1%/1000 hrs.
H = Solder Plated
T = T Level 0 = Fused Solder
90% conf.
C = 0.01%/1000 hrs. 9 = SRC9000
Plated
90% conf.
8 = Hot Solder
D = 0.001%/1000 hrs.
Dipped
90% conf.
9 = Gold Plated
Z = Non-ER
7 = Matte Sn
(COTS-Plus only)
Not RoHS Compliant
LEAD-FREE COMPATI-
BLE
COMPONENT
For RoHS compliant products,
please select correct termination style.
CWR09 P/N CROSS REFERENCE:
CWR09
Type
D
Voltage
Code
C = 4Vdc
D = 6Vdc
F = 10Vdc
H = 15Vdc
J = 20Vdc
K = 25Vdc
M = 35Vdc
N = 50Vdc
^
Termination
Finish
H = Solder Plated
K = Solder Fused
C = Hot Solder
Dipped
B = Gold Plated
686
Capacitance
Code
pF code:
1st two digits
represent
significant
figures 3rd digit
represents
multiplier
(number of zeros
to follow)
*
Capacitance
Tolerance
M = ±20%
K = ±10%
J = ±5%
@
Reliability
Grade
Weibull:
B = 0.1%/1000 hrs.
90% conf.
C = 0.01%/1000 hrs.
90% conf.
D = 0.001%/1000
hrs. 90% conf.
T = T Level
A = Non-ER
+
Surge Test
Option
A = 10 cycles, +25°C
B = 10 cycles,
-55°C & +85°C
C = 10 cycles,
-55°C & +85°C
before Weibull
If blank,
None required
Packaging
Bulk = Standard
\TR = 7" T&R
\TR13 = 13" T&R
\W = Waffle
See page 6
for additional
packaging
options.
Not RoHS Compliant
SPACE LEVEL OPTIONS TO SRC9000*:
TAZ H
Type
Case
Size
686
*
006
C
L
@
9
^
++
Capacitance Capacitance
Voltage
Standard or Packaging Inspection Level
Reliability Grade
Qualification Termination Finish
Surge Test
Code
Tolerance
Code
Low ESR
L = Group A
Level
Option
Weibull:
B = Bulk
pF code:
M = ±20% 004 = 4Vdc
Range
45 = 10 cycles,
9 = SRC9000 H = Solder Plated
B = 0.1%/1000 hrs.
R = 7" T&R
1st two digits
K = ±10% 006 = 6Vdc C = Std ESR S = 13" T&R
-55ºC & +85ºC
90% conf.
0 = Fused Solder
represent
J = ±5%
L = Low ESR
before Weibull
010 = 10Vdc
C = 0.01%/1000 hrs.
Plated
W = Waffle
significant
015 = 15Vdc
90% conf.
8 = Hot Solder
figures 3rd
Not RoHS Compliant
020 = 20Vdc
D = 0.001%/1000 hrs.
Dipped
See page 6
digit represents
025 = 25Vdc
90% conf.
9 = Gold Plated
for additional
multiplier
035 = 35Vdc
(number of
packaging
zeros to follow)
050 = 50Vdc
options.
*Contact factory for AVX SRC9000 Space Level SCD details.
TECHNICAL SPECIFICATIONS
Technical Data:
Capacitance Range:
Capacitance Tolerance:
Rated Voltage: (V
R
)
Category Voltage: (V
C
)
Surge Voltage: (V
S
)
Temperature Range:
Unless otherwise specified, all technical
0.1 μF to 100 μF
±5%; ±10%; ±20%
4
6
10
15
2.7
4
7
10
5.2
8
13
20
3.4
5
8
13
+125°C
data relate to an ambient temperature of 25°C
85°C:
125°C:
85°C:
125°C:
-55°C to
20
13
26
16
25
17
32
20
35
23
46
28
50
33
65
40
8
TAZ Series
CWR09 - MIL-PRF-55365/4
Established Reliability, COTS-Plus & Space Level
RATING & PART NUMBER REFERENCE
CWR09 P/N
AVX MIL & COTS-Plus P/N
TAZ R 334 * 004 C
TAZ R 225 * 004 C
TAZ A 225 * 004 C
TAZ B 475 * 004 C
TAZ C 685 * 004 C
TAZ D 106 * 004 C
TAZ E 156 * 004 C
TAZ F 336 * 004 C
TAZ G 686 * 004 C
TAZ H 107 * 004 C
TAZ A 155 * 006 C
TAZ B 335 * 006 C
TAZ C 475 * 006 C
TAZ D 685 * 006 C
TAZ E 106 * 006 C
TAZ F 226 * 006 C
TAZ G 476 * 006 C
TAZ H 686 * 006 C
TAZ R 334 * 010 C
TAZ R 474 * 010 C
TAZ R 105 * 010 C
TAZ A 105 * 010 C
TAZ B 225 * 010 C
TAZ C 335 * 010 C
TAZ D 475 * 010 C
TAZ E 685 * 010 C
TAZ F 156 * 010 C
TAZ G 336 * 010 C
TAZ H 476 * 010 C
TAZ A 684 * 015 C
TAZ B 155 * 015 C
TAZ C 225 * 015 C
TAZ D 335 * 015 C
TAZ E 475 * 015 C
TAZ F 106 * 015 C
TAZ G 226 * 015 C
TAZ H 336 * 015 C
TAZ A 474 * 020 C
TAZ B 684 * 020 C
TAZ B 105 * 020 C
TAZ C 155 * 020 C
TAZ D 225 * 020 C
TAZ E 335 * 020 C
TAZ F 685 * 020 C
TAZ G 156 * 020 C
TAZ H 226 * 020 C
TAZ A 334 * 025 C
TAZ B 684 * 025 C
TAZ C 105 * 025 C
TAZ D 155 * 025 C
TAZ E 225 * 025 C
TAZ F 475 * 025 C
TAZ G 685 * 025 C
TAZ G 106 * 025 C
TAZ H 156 * 025 C
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
Parametric Specifications by Rating per MIL-PRF-55365/4
Cap
DC Rated ESR @
DCL max
DF Max
@ 120Hz Voltage
100kHz
+25ºC
+85ºC
+125ºC
+25ºC
+(85/125)ºC
μF
V
Ohms
AVX SRC9000 P/N
Case
(μA)
(μA)
(μA)
(%)
(%)
@ 25ºC
@ +85ºC @ +25ºC
R
0.33
4
45
1
10
12
6
8
R
2.2
4
12
1
10
12
6
8
TAZ A 225 * 004 C L @ 9 ^ ++ A
2.2
4
8
1
10
12
6
8
TAZ B 475 * 004 C L @ 9 ^ ++ B
4.7
4
8
1
10
12
6
8
TAZ C 685 * 004 C L @ 9 ^ ++ C
6.8
4
5.5
1
10
12
6
8
TAZ D 106 * 004 C L @ 9 ^ ++ D
10
4
4
1
10
12
8
8
TAZ E 156 * 004 C L @ 9 ^ ++ E
15
4
3.5
1
10
12
8
10
TAZ F 336 * 004 C L @ 9 ^ ++
F
33
4
2.2
2
20
24
8
10
TAZ G 686 * 004 C L @ 9 ^ ++ G
68
4
1.1
3
30
36
10
12
TAZ H 107 * 004 C L @ 9 ^ ++ H
100
4
0.9
4
40
48
10
12
TAZ A 155 * 006 C L @ 9 ^ ++ A
1.5
6
8
1
10
12
6
8
TAZ B 335 * 006 C L @ 9 ^ ++ B
3.3
6
8
1
10
12
6
8
TAZ C 475 * 006 C L @ 9 ^ ++ C
4.7
6
5.5
1
10
12
6
8
TAZ D 685 * 006 C L @ 9 ^ ++ D
6.8
6
4.5
1
10
12
6
8
TAZ E 106 * 006 C L @ 9 ^ ++ E
10
6
3.5
1
10
12
8
10
TAZ F 226 * 006 C L @ 9 ^ ++
F
22
6
2.2
2
20
24
8
10
TAZ G 476 * 006 C L @ 9 ^ ++ G
47
6
1.1
3
30
36
10
12
TAZ H 686 * 006 C L @ 9 ^ ++ H
68
6
0.9
4
40
48
10
12
R
0.33
10
50
1
10
12
6
8
R
0.47
10
50
1
10
12
6
8
R
1
10
10
1
10
12
6
8
TAZ A 105 * 010 C L @ 9 ^ ++ A
1
10
10
1
10
12
6
8
TAZ B 225 * 010 C L @ 9 ^ ++ B
2.2
10
8
1
10
12
6
8
TAZ C 335 * 010 C L @ 9 ^ ++ C
3.3
10
5.5
1
10
12
6
8
TAZ D 475 * 010 C L @ 9 ^ ++ D
4.7
10
4.5
1
10
12
6
8
TAZ E 685 * 010 C L @ 9 ^ ++ E
6.8
10
3.5
1
10
12
6
8
TAZ F 156 * 010 C L @ 9 ^ ++
F
15
10
2.5
2
20
24
8
8
TAZ G 336 * 010 C L @ 9 ^ ++ G
33
10
1.1
3
30
36
10
12
TAZ H 476 * 010 C L @ 9 ^ ++ H
47
10
0.9
5
50
60
10
12
TAZ A 684 * 015 C L @ 9 ^ ++ A
0.68
15
12
1
10
12
6
8
TAZ B 155 * 015 C L @ 9 ^ ++ B
1.5
15
8
1
10
12
6
8
TAZ C 225 * 015 C L @ 9 ^ ++ C
2.2
15
5.5
1
10
12
6
8
TAZ D 335 * 015 C L @ 9 ^ ++ D
3.3
15
5
1
10
12
6
8
TAZ E 475 * 015 C L @ 9 ^ ++ E
4.7
15
4
1
10
12
6
8
TAZ F 106 * 015 C L @ 9 ^ ++
F
10
15
2.5
2
20
24
6
8
TAZ G 226 * 015 C L @ 9 ^ ++ G
22
15
1.1
4
40
48
6
8
TAZ H 336 * 015 C L @ 9 ^ ++ H
33
15
0.9
5
50
60
8
8
TAZ A 474 * 020 C L @ 9 ^ ++ A
0.47
20
14
1
10
12
8
8
TAZ B 684 * 020 C L @ 9 ^ ++ B
0.68
20
10
1
10
12
6
8
TAZ B 105 * 020 C L @ 9 ^ ++ B
1
20
12
1
10
12
6
8
TAZ C 155 * 020 C L @ 9 ^ ++ C
1.5
20
6
1
10
12
6
8
TAZ D 225 * 020 C L @ 9 ^ ++ D
2.2
20
5
1
10
12
6
8
TAZ E 335 * 020 C L @ 9 ^ ++ E
3.3
20
4
1
10
12
6
8
TAZ F 685 * 020 C L @ 9 ^ ++
F
6.8
20
2.4
2
20
24
6
8
TAZ G 156 * 020 C L @ 9 ^ ++ G
15
20
1.1
3
30
36
6
8
TAZ H 226 * 020 C L @ 9 ^ ++ H
22
20
0.9
4
40
48
6
8
TAZ A 334 * 025 C L @ 9 ^ ++ A
0.33
25
15
1
10
12
6
8
TAZ B 684 * 025 C L @ 9 ^ ++ B
0.68
25
7.5
1
10
12
6
8
TAZ C 105 * 025 C L @ 9 ^ ++ C
1
25
6.5
1
10
12
6
8
TAZ D 155 * 025 C L @ 9 ^ ++ D
1.5
25
6.5
1
10
12
6
8
TAZ E 225 * 025 C L @ 9 ^ ++ E
2.2
25
3.5
1
10
12
6
8
TAZ F 475 * 025 C L @ 9 ^ ++
F
4.7
25
2.5
2
20
24
6
8
TAZ G 685 * 025 C L @ 9 ^ ++ G
6.8
25
1.2
2
20
24
6
8
TAZ G 106 * 025 C L @ 9 ^ ++ G
10
25
1.4
3
30
36
6
8
TAZ H 156 * 025 C L @ 9 ^ ++ H
15
25
1
4
40
48
6
8
-55ºC
(%)
8
8
8
8
8
10
12
12
12
12
8
8
8
8
12
12
12
12
8
8
8
8
8
8
8
8
10
12
12
8
8
8
8
8
8
8
10
10
8
8
8
8
8
8
8
8
8
8
8
8
8
8
8
8
8
25ºC
Dissipation
Ripple
A
W
(100kHz)
0.030
0.03
0.030
0.05
0.050
0.08
0.070
0.09
0.075
0.12
0.080
0.14
0.090
0.16
0.100
0.21
0.125
0.34
0.150
0.41
0.050
0.08
0.070
0.09
0.075
0.12
0.080
0.13
0.090
0.16
0.100
0.21
0.125
0.34
0.150
0.41
0.030
0.02
0.030
0.02
0.030
0.05
0.050
0.07
0.070
0.09
0.075
0.12
0.080
0.13
0.090
0.16
0.100
0.20
0.125
0.34
0.150
0.41
0.050
0.06
0.070
0.09
0.075
0.12
0.080
0.13
0.090
0.15
0.100
0.20
0.125
0.34
0.150
0.41
0.050
0.06
0.070
0.08
0.070
0.08
0.075
0.11
0.080
0.13
0.090
0.15
0.100
0.20
0.125
0.34
0.150
0.41
0.050
0.06
0.070
0.10
0.075
0.11
0.080
0.11
0.090
0.16
0.100
0.20
0.125
0.32
0.125
0.30
0.150
0.39
Power
Typical Ripple Data by Rating
85ºC
125ºC
25ºC
Ripple
Ripple
Ripple
A
A
V
(100kHz) (100kHz) (100kHz)
0.02
0.01
1.16
0.05
0.02
0.60
0.07
0.03
0.63
0.08
0.04
0.75
0.11
0.05
0.64
0.13
0.06
0.57
0.14
0.06
0.56
0.19
0.09
0.47
0.30
0.13
0.37
0.37
0.16
0.37
0.07
0.03
0.63
0.08
0.04
0.75
0.11
0.05
0.64
0.12
0.05
0.60
0.14
0.06
0.56
0.19
0.09
0.47
0.30
0.13
0.37
0.37
0.16
0.37
0.02
0.01
1.22
0.02
0.01
1.22
0.05
0.02
0.55
0.06
0.03
0.71
0.08
0.04
0.75
0.11
0.05
0.64
0.12
0.05
0.60
0.14
0.06
0.56
0.18
0.08
0.50
0.30
0.13
0.37
0.37
0.16
0.37
0.06
0.03
0.77
0.08
0.04
0.75
0.11
0.05
0.64
0.11
0.05
0.63
0.14
0.06
0.60
0.18
0.08
0.50
0.30
0.13
0.37
0.37
0.16
0.37
0.05
0.02
0.84
0.08
0.03
0.84
0.07
0.03
0.92
0.10
0.04
0.67
0.11
0.05
0.63
0.14
0.06
0.60
0.18
0.08
0.49
0.30
0.13
0.37
0.37
0.16
0.37
0.05
0.02
0.87
0.09
0.04
0.72
0.10
0.04
0.70
0.10
0.04
0.72
0.14
0.06
0.56
0.18
0.08
0.50
0.29
0.13
0.39
0.27
0.12
0.42
0.35
0.15
0.39
85ºC
Ripple
V
(100kHz)
1.05
0.54
0.57
0.67
0.58
0.51
0.51
0.42
0.33
0.33
0.57
0.67
0.58
0.54
0.51
0.42
0.33
0.33
1.10
1.10
0.49
0.64
0.67
0.58
0.54
0.51
0.45
0.33
0.33
0.70
0.67
0.58
0.57
0.54
0.45
0.33
0.33
0.75
0.75
0.82
0.60
0.57
0.54
0.44
0.33
0.33
0.78
0.65
0.63
0.65
0.51
0.45
0.35
0.38
0.35
125ºC
Ripple
V
(100kHz)
0.46
0.24
0.25
0.30
0.26
0.23
0.22
0.19
0.15
0.15
0.25
0.30
0.26
0.24
0.22
0.19
0.15
0.15
0.49
0.49
0.22
0.28
0.30
0.26
0.24
0.22
0.20
0.15
0.15
0.31
0.30
0.26
0.25
0.24
0.20
0.15
0.15
0.33
0.33
0.37
0.27
0.25
0.24
0.20
0.15
0.15
0.35
0.29
0.28
0.29
0.22
0.20
0.15
0.17
0.15
CWR09C^225*@+
CWR09C^475*@+
CWR09C^685*@+
CWR09C^106*@+
CWR09C^156*@+
CWR09C^336*@+
CWR09C^686*@+
CWR09C^107*@+
CWR09D^155*@+
CWR09D^335*@+
CWR09D^475*@+
CWR09D^685*@+
CWR09D^106*@+
CWR09D^226*@+
CWR09D^476*@+
CWR09D^686*@+
CWR09F^105*@+
CWR09F^225*@+
CWR09F^335*@+
CWR09F^475*@+
CWR09F^685*@+
CWR09F^156*@+
CWR09F^336*@+
CWR09F^476*@+
CWR09H^684*@+
CWR09H^155*@+
CWR09H^225*@+
CWR09H^335*@+
CWR09H^475*@+
CWR09H^106*@+
CWR09H^226*@+
CWR09H^336*@+
CWR09J^474*@+
CWR09J^684*@+
CWR09J^105*@+
CWR09J^155*@+
CWR09J^225*@+
CWR09J^335*@+
CWR09J^685*@+
CWR09J^156*@+
CWR09J^226*@+
CWR09K^334*@+
CWR09K^684*@+
CWR09K^105*@+
CWR09K^155*@+
CWR09K^225*@+
CWR09K^475*@+
CWR09K^685*@+
CWR09K^106*@+
CWR09K^156*@+
All technical data relates to an ambient temperature of +25°C. Capacitance and DF are measured at 120Hz, 0.5V RMS with a maximum DC bias of 2.2 volts. DCL is measured at rated voltage after 5 minutes.
NOTE: AVX reserves the right to supply a higher voltage rating or tighter tolerance part in the same case size, to the same reliability standards.
9
TAZ Series
CWR09 - MIL-PRF-55365/4
Established Reliability, COTS-Plus & Space Level
RATING & PART NUMBER REFERENCE
CWR09 P/N
CWR09M^224*@+
CWR09M^474*@+
CWR09M^684*@+
CWR09M^105*@+
CWR09M^155*@+
CWR09M^335*@+
CWR09M^475*@+
CWR09M^685*@+
CWR09N^104*@+
CWR09N^154*@+
CWR09N^224*@+
CWR09N^334*@+
CWR09N^474*@+
CWR09N^684*@+
CWR09N^105*@+
CWR09N^155*@+
CWR09N^225*@+
CWR09N^335*@+
CWR09N^475*@+
AVX MIL & COTS-Plus p/n
TAZ A 224 * 035 C
TAZ B 474 * 035 C
TAZ C 684 * 035 C
TAZ D 105 * 035 C
TAZ E 155 * 035 C
TAZ F 335 * 035 C
TAZ G 475 * 035 C
TAZ H 685 * 035 C
TAZ A 104 * 050 C
TAZ A 154 * 050 C
TAZ B 224 * 050 C
TAZ B 334 * 050 C
TAZ C 474 * 050 C
TAZ D 684 * 050 C
TAZ E 105 * 050 C
TAZ F 155 * 050 C
TAZ F 225 * 050 C
TAZ G 335 * 050 C
TAZ H 475 * 050 C
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
# @ 0 ^ ++
Parametric Specifications by Rating per MIL-PRF-55365/4
Cap
DC Rated ESR @
DCL max
DF Max
@ 120Hz Voltage
100kHz
+25ºC
+85ºC
+125ºC
+25ºC
+(85/125)ºC
μF
V
Ohms
AVX SRC9000 P/N
Case
(μA)
(μA)
(μA)
(%)
(%)
@ 25ºC
@ +85ºC @ +25ºC
TAZ A 224 * 035 C L @ 9 ^ ++ A
0.22
35
18
1
10
12
6
8
TAZ B 474 * 035 C L @ 9 ^ ++ B
0.47
35
10
1
10
12
6
8
TAZ C 684 * 035 C L @ 9 ^ ++ C
0.68
35
8
1
10
12
6
8
TAZ D 105 * 035 C L @ 9 ^ ++ D
1
35
6.5
1
10
12
6
8
TAZ E 155 * 035 C L @ 9 ^ ++ E
1.5
35
4.5
1
10
12
6
8
TAZ F 335 * 035 C L @ 9 ^ ++
F
3.3
35
2.5
1
10
12
6
8
TAZ G 475 * 035 C L @ 9 ^ ++ G
4.7
35
1.5
2
20
24
6
8
TAZ H 685 * 035 C L @ 9 ^ ++ H
6.8
35
1.3
3
30
36
6
8
TAZ A 104 * 050 C L @ 9 ^ ++ A
0.1
50
22
1
10
12
6
8
TAZ A 154 * 050 C L @ 9 ^ ++ A
0.15
50
17
1
10
12
6
8
TAZ B 224 * 050 C L @ 9 ^ ++ B
0.22
50
14
1
10
12
6
8
TAZ B 334 * 050 C L @ 9 ^ ++ B
0.33
50
12
1
10
12
6
8
TAZ C 474 * 050 C L @ 9 ^ ++ C
0.47
50
8
1
10
12
6
8
TAZ D 684 * 050 C L @ 9 ^ ++ D
0.68
50
7
1
10
12
6
8
TAZ E 105 * 050 C L @ 9 ^ ++ E
1
50
6
1
10
12
6
8
TAZ F 155 * 050 C L @ 9 ^ ++
F
1.5
50
4
1
10
12
6
8
TAZ F 225 * 050 C L @ 9 ^ ++
F
2.2
50
2.5
2
20
24
6
8
TAZ G 335 * 050 C L @ 9 ^ ++ G
3.3
50
2
2
20
24
6
8
TAZ H 475 * 050 C L @ 9 ^ ++ H
4.7
50
1.5
3
30
36
6
8
-55ºC
(%)
8
8
8
8
8
8
8
8
8
8
8
8
8
8
8
8
8
8
8
25ºC
Dissipation
Ripple
A
W
(100kHz)
0.050
0.05
0.070
0.08
0.075
0.10
0.080
0.11
0.090
0.14
0.100
0.20
0.125
0.29
0.150
0.34
0.050
0.05
0.050
0.05
0.070
0.07
0.070
0.08
0.075
0.10
0.080
0.11
0.090
0.12
0.100
0.16
0.100
0.20
0.125
0.25
0.150
0.32
Power
Typical Ripple Data by Rating
85ºC
125ºC
25ºC
Ripple
Ripple
Ripple
A
A
V
(100kHz) (100kHz) (100kHz)
0.05
0.02
0.95
0.08
0.03
0.84
0.09
0.04
0.77
0.10
0.04
0.72
0.13
0.06
0.64
0.18
0.08
0.50
0.26
0.12
0.43
0.31
0.14
0.44
0.04
0.02
1.05
0.05
0.02
0.92
0.06
0.03
0.99
0.07
0.03
0.92
0.09
0.04
0.77
0.10
0.04
0.75
0.11
0.05
0.73
0.14
0.06
0.63
0.18
0.08
0.50
0.23
0.10
0.50
0.28
0.13
0.47
85ºC
Ripple
V
(100kHz)
0.85
0.75
0.70
0.65
0.57
0.45
0.39
0.40
0.94
0.83
0.89
0.82
0.70
0.67
0.66
0.57
0.45
0.45
0.43
125ºC
Ripple
V
(100kHz)
0.38
0.33
0.31
0.29
0.25
0.20
0.17
0.18
0.42
0.37
0.40
0.37
0.31
0.30
0.29
0.25
0.20
0.20
0.19
All technical data relates to an ambient temperature of +25°C. Capacitance and DF are measured at 120Hz, 0.5V RMS with a maximum DC bias of 2.2 volts. DCL is measured at rated voltage after 5 minutes.
NOTE: AVX reserves the right to supply a higher voltage rating or tighter tolerance part in the same case size, to the same reliability standards.
[color=#000][backcolor=rgb(252, 254, 252)][font=微软雅黑][size=15px][b]I have a stm8L development board with the STM8L152k4 chip. How can I configure it so that TIM1 can output pwm to control the brightne...
In some product designs that use cold plate cooling, sometimes due to negligence, the cold plate does not avoid the mark point, causing trouble in subsequent production.Today I will teach you how to u...
General safety requirements for medical electrical equipment part 1 For more resources, please visit [url=http://www.camdi.org/index.jsp]http://www.camdi.org/index.jsp[/url] here to find more resource...
To give back to friends who support the EEWORLD community, the EEWORLD treasure hunt will begin on January 16, 2009! Are you still worried about your pitiful amount of ChipCoins? Do you feel that Chip...
I would like to ask if you have any information about DSP implementation of RAKE receiver. Please give me some information (I will be very grateful!!!)...
After creating a standard helloword program in evc, the following prompt appears when running it: Emulator for windows CE will not run whitin another copy of Emulator for Windows CE. you just bad to t...
Emergency hand-held lamps powered by 6V maintenance-free batteries are widely used in rural areas. The charger used is a transformer step-down and single diode half-wave rectifier, and the charging...[Details]
Traditional broadcasting systems generally need to be operated manually at a fixed time, and can only realize one-way broadcasting with few functions. Traditional bell ringing equipment has a singl...[Details]
1. Introduction
RFID (radio frequency identification) is a non-contact automatic identification technology that emerged in the 1990s. It uses the characteristics of radio frequency signal prop...[Details]
Microchip's PIC18F46J50 is a low-power, high-performance 8-bit USB microcontroller (MCU) using nanoWatt XLP technology. The current in deep sleep mode can be as low as 13nA, the operating voltage i...[Details]
As a wireless broadband metropolitan area network standard, WiMAX technology has greater advantages than previous 3.5GHz MMDS products in terms of non-line-of-sight transmission and spectrum utiliz...[Details]
1. Circuit composition
The whole circuit consists of two parts:
1. Power saving control circuit
As shown in the figure below. Including delay circuit and drive circuit.
(1) Delay ci...[Details]
1. Introduction
With the growth of parking demand, the scale of parking lots is becoming larger and larger. A lot of research has been done on intelligent parking lots in China, but most of th...[Details]
Converged processors meet scalability requirements
In current embedded system design, solutions based on MCU, DSP, FPGA and ASIC account for more than 90% of the market share. These solutions ...[Details]
In recent years, the market for mobile/portable devices such as smartphones and laptops has continued to grow rapidly. While these products continue to integrate more new features to enhance the ...[Details]
Due to the significant increase in electronic devices in automotive and industrial applications, the automotive and industrial markets continue to play an important role in China's electronics in...[Details]
1. Introduction
Light control circuit plays a vital role in urban street lamps or corridor lighting. With light control circuit, the lights can be automatically turned on and off according to ...[Details]
Two simple circuits are implemented to drive two LEDs from a battery powered microprocessor.
This design is based on a circuit that uses three resistors and a microprocessor I/O pin as an input h...[Details]
Electronic systems are located at different points on the automotive power bus and therefore often need to operate under very stringent power requirements. These include load dump, cold crank, very lo...[Details]
Microcalorimetry
is used to determine energy relationships. Microcalorimetry techniques are often required when performing calorimetric experiments with small sample sizes or slow heating rat...[Details]
1. Introduction to CIF Board
Fieldbus integration based on PC system
Whether it is a master or a slave, fieldbus has won unanimous praise in the field of PC-based automation. For more...[Details]
stm32/stm8
京公网安备 11010802033920号
EEWORLD
