1997 Nov 04 81
Philips Components
Leaded ceramic multilayer capacitors General data
PACKAGING
The monolithic ceramic capacitors are supplied in bulk packaging, taped on reel, or in ammopack; see Tables 1 and 3.
Mono-axialTM capacitors
Table 1 Packaging quantities and box dimensions
Note
1. Non-standard SPQ for 2222 series and US 15-digit code (including FE 15-digit code with suffix XV) which will be
phased out in the future.
Capacitors on bandolier, Mono-axial series
PACKAGING SIZE CODE SMALLEST PACKAGING QUANTITY (SPQ) BOX DIMENSIONS
L×W×H
(mm)
2252 SERIES
FE 15-digit 2222 SERIES
US 15-digit
Tape on reel 15; 20 7000 5000(1) 370 ×370 ×90
29 4000 2500(1)
Ammopack 15; 20 4000 4000 265 ×85 ×95
29 2000 2000
Fig.1 Capacitors on bandolier, Mono-axial series.
Maximum 0.1% of the total number of capacitors per reel may be missing.
A maximum of 1 consecutive vacant position is followed by 6 consecutive components.
Tape begins and ends with minimum of 60 empty positions (300 mm tape).
Maximum of 5 splices per reel.
For dimensions see Table 2.
MGA347
B
P
C
T
M
S
H
A
1997 Nov 04 82
Philips Components
Leaded ceramic multilayer capacitors General data
Table 2 Dimensions of bandolier; see Fig.1
REEL DATA,MONO-AXIAL SERIES
SYMBOL PARAMETER DIMENSIONS
mm inch
B inside tape spacing 52.4 ±1.5 2.062 ±0.059
C centre-to-tape-spacing ±0.8 ±0.031
P cumulative pitch, 6 consecutive components ±1.5 ±0.059
A components pitch 5 ±0.5 0.197 ±0.015
M lead bend <1.2 <0.047
S exposed adhesive <0.8 <0.031
T tape width 6.35 0.250
H lead sandwich >3.96 >0.156
Fig.2 Reel with capacitors on tape; Mono-axial series.
Dimensions in mm.
Maximum 0.1% of the total number of capacitors per reel may be missing.
A maximum of 1 consecutive vacant position is followed by 6 consecutive components.
Tape begins and ends with minimum of 60 empty positions (300 mm tape).
Maximum of 5 splices per reel.
For capacitor length (L) and diameter (∅D) refer to this handbook,
Chapter
“Leaded ceramic multilayer capacitors”
, Section
“Mono-axial
”
,
“Table 1”
.
355.6
max
arbor hole
MGA351 - 1
direction
of
unreeling Ø 28–
+1
–
+
69.85
1.5
1997 Nov 04 83
Philips Components
Leaded ceramic multilayer capacitors General data
Mono-kapTM capacitors
Table 3 Packaging quantities and box dimensions
Notes
1. SPQ contains 1 or a multiple of poly-bags, 1000 units per bag.
2. Non-standard SPQ for 2222 series and US 15-digit code (including FE 15-digit code with suffix XV) which will be
phased out in the future.
Capacitors on tape, lead spacing 5.0 and 2.5 mm, Mono-kap series
PACKAGING SIZE CODE SMALLEST PACKAGING QUANTITY (SPQ) BOX DIMENSIONS
L×W×H
(mm)
2252 SERIES
FE 15-digit 2222 SERIES
US 15-digit
Bulk; note 1 15; 20 5000 5000 245 ×120 ×65
30 3000 3000
Tape on reel 15 4000 2500(2)
370 ×370 ×6020 3000 2500(2)
30 2500 2500
Ammopack 15; 20 2500 2500 335 ×290 ×50
30 2000 2000
Fig.3 Capacitors, with lead spacing 5.0 and 2.5 mm, for Mono-kap series on tape.
Lead space (F) shall be measured at 3.6 ±0.5 mm from the capacitor seating plane.
Maximum 0.5% of the total number of capacitors per reel may be missing.
A maximum of 1 consecutive vacant position is followed by 6 consecutive components.
Tape begins and ends with minimum of 24 empty positions (300 mm tape).
Maximum of 5 splices per reel.
For dimensions see Table 4.
handbook, full pagewidth
A
detail A
t
CCA017
∆ h
P
H
P0
F
D0d
P1H0
LW1
L1
H
direction of unreeling
W0W
seating
plane
1997 Nov 04 84
Philips Components
Leaded ceramic multilayer capacitors General data
Table 4 Dimensions of tape; see Fig.3
Notes
1. Tape width of 6 mm (0.236 inches) permissible.
2. e = 2.54 mm.
SYMBOL PARAMETER DIMENSIONS
mm inch
L cut off length <11 <0.443
L1lead end protrusion <2 <0.079
H height to seating plane >16 >0.630
H0height to seating plane (formed leads) 16 ±0.5 0.630 ±0.020
H1top of component height <32 <1.260
∆h body inclination 0.0 ±<1.0 0 ±<0.039
W carrier tape width 18 +1.0/−0.5 0.709 +0.039/−0.020
W0hold down tape width 15 ref.; note 1 0.591 ref.; note 1
W1sprocket hole position 9 +0.075/−0.5 0.354 +0.030/−0.020
F1e lead space; note 2 2.5 +0.6/−0.4 0.100 +0.024/−0.016
2e lead space; note 2 5.0 +0.6/−0.4 0.200 +0.024/−0.016
P0sprocket hole pitch 12.7 ±0.3 0.500 ±0.012
P11e sprocket hole centre to lead centre; note 2 5.08 ±0.7 0.200 ±0.028
2e sprocket hole centre to lead centre; note 2 3.85 ±0.7 0.151 ±0.028
D0sprocket hole diameter 4 ±0.3 0.157 ±0.012
t overall tape thickness <0.9 <0.035
d wire lead diameter 0.5 ±0.05 0.02 ±0.002
P taping pitch 12.7 ref. 0.500 ref.
1997 Nov 04 85
Philips Components
Leaded ceramic multilayer capacitors General data
REEL AND TAPE DATA,MONO-KAP SERIES
355.6
max
55.1
max
arbor hole
MGA350 - 1
Ø 28–
+1
48 + 0
– 2.0
direction
of
unreeling
Fig.4 Reel with capacitors on tape; Mono-kap series.
Dimensions in mm.
Maximum 0.5% of the total number of capacitors per reel may be missing.
A maximum of 2 consecutive vacant position is followed by 6 consecutive components.
Tape begins and ends with minimum of 24 empty positions (300 mm tape).
Maximum of 5 splices per reel.
Cumulative pitch tolerance over 20 consecutive units not to exceed ±1.0 mm.
Lead space (F) shall be measured at 3.6 ±0.5 mm from the capacitor seating plane.
1997 Nov 04 86
Philips Components
Leaded ceramic multilayer capacitors General data
Fig.5 Ammopack with capacitors on tape; Mono-kap series.
Dimensions in mm.
Maximum 0.5% of the total number of capacitors per box may be missing.
A maximum of 2 consecutive vacant positions is followed by 6 consecutive components.
Tape begins and ends with minimum of 24 empty positions (300 mm tape).
Maximum of 5 splices per box.
Cumulative pitch tolerance over 20 consecutive units not to exceed ±1.0 mm.
Lead space (F) shall be measured at 3.6 ±0.5 mm from the capacitor seating plane.
CCA878
290
335 50
1997 Nov 04 87
Philips Components
Leaded ceramic multilayer capacitors General data
CHARACTERISTIC CURVES
Fig.6 Typical capacitance change as a function of temperature.
For NP0/C0G.
0.4
−0.8 −50 0
CCA033
0
−0.4
25−25 50 75 100 125
T (oC)
∆ C
C
(%)
Fig.7 Typical capacitance change as a function of temperature.
40
80 50 0
MSA649
0
40
25
25 50 75 100 125
T ( C)
o
∆
C
(%)
C
For Z5U.
1997 Nov 04 88
Philips Components
Leaded ceramic multilayer capacitors General data
Fig.8 Typical capacitance change as a function of temperature.
40
80 50 0
MSA650
0
40
25
25 50 75 100 125
T ( C)
o
∆
C
(%)
C
For X7R.
Fig.9 Typical capacitance change as a function of DC voltage.
handbook, full pagewidth
100 515
MSA651
0
20
45 50
V (V)
40
60
80
20
DC
0202530354010
X7R
Z5U
NP0/COG
∆
C
(%)
C
1997 Nov 04 89
Philips Components
Leaded ceramic multilayer capacitors General data
Fig.10 Typical capacitance change as a function of frequency.
handbook, full pagewidth
15
5
5
10
106107
105
104
103
102
MSA652
0
f (Hz)
Z5U
NP0/COG
X7R
∆
C
(%)
C
1997 Nov 04 90
Philips Components
Leaded ceramic multilayer capacitors General data
TESTS AND REQUIREMENTS
Class 1 capacitors
After manufacture, each capacitor is checked on capacitance, tan δ and test voltage. Apart from this the following quality
checks are carried out by frequent inspections.
Essentially all tests mentioned in the schedule of
“IEC publication 384-8”
, category 55/125/21 (temperature range
−55/+125 °C; damp heat, long term, 21 days) are carried out in accordance with
“IEC publication 68”
.
Table 5 Test procedures and requirements
IEC 384-8
CLAUSE
IEC 68-2
TEST
METHOD TEST PROCEDURE REQUIREMENTS
4.4 robustness of
terminations:
pull-off pull velocity 15 cm/minute; load 5 N no lead breakage
Ua1tensile strength axial force 10 N no lead breakage
Ub bending load 5 N; 4 ×90°no lead breakage
4.6 Ta
method 1 solderability
(solder bath) 235 °C; 2 s good tinning
4.5 Tb
method 1A resistance to
soldering heat 260 °C; 10 s no visible damage
∆C/C: ±≤0.5% or ±0.5 pF
after 1 to 2 hours
4.7 Na rapid change of
temperature 30 minutes at −55 °C and
30 minutes at +125 °C; 5 cycles no damage after 24 hours
∆C/C: ±≤0.5% or ±0.5 pF
4.8 Fc vibration 10 to 55 to 10 Hz;
0.75 mm displacement;
3 directions; 6 hours
no visible damage
4.9 Eb bump 4000 bumps in 2 directions;
40 g; pulse time 6 ms no visible damage
inflammability 15 s; 35 mm above bunsen burner
with flame-height 40 to 60 mm self-extinguishing within 15 s
after removal of bunsen burner
4.3 temperature
coefficient between +20 and −55 °C, and
between +20 and +125 °Cwithin tolerance as specified for
each particular material
1997 Nov 04 91
Philips Components
Leaded ceramic multilayer capacitors General data
4.11 climatic sequence:
4.11.2 B dry heat 16 hours; +125 °C no visible damage
4.11.3 Db damp heat
(accelerated)
1st cycle
12 hours; +55 °C; 90 to 96% RH
12 hours; +25 °C; 95 to 100% RH after recovery of 1 to 2 hours
immediately followed by cold
test
4.11.4 A cold 2 hours; −55 °C no visible damage
4.11.5 M low air pressure 1 hour at 8.5 kPa,
last 2 minutes rated voltage no breakdown or flashover
4.11.6 Db damp heat
(accelerated)
remaining cycle
12 hours; +55 °C; 90 to 96% RH
12 hours; +25 °C; 95 to 100% RH ∆C/C: ±≤1% or ±1pF
tan δ:≤2×specified tan δ
Rins after 1 to 2 hours:
>5000 MΩ
4.12 Ca damp heat,
steady state
(half number of the
lot at rated voltage,
other half at zero
voltage)
21 days; +40 °C; 90 to 95% RH ∆C/C: ±≤1% or ±1pF
tan δ:≤2×specified tan δ
Rins after 1 to 2 hours:
>5000 MΩ
4.13 endurance 1000 hours at maximum
temperature, at 1.5 ×rated voltage ∆C/C: ±≤1% or ±1pF
tan δ:≤1.5 ×specified tan δ
Rins:>3000 MΩ
resistance to
solvents 3 minutes ultrasonic washing in
trichloroethylene;
1 minute drying; 30 °C;
10 brush strokes
marking and colour code must
remain legible and not be
discoloured; no mechanical or
electrical damage or
deterioration of the material
IEC 384-8
CLAUSE
IEC 68-2
TEST
METHOD TEST PROCEDURE REQUIREMENTS
1997 Nov 04 92
Philips Components
Leaded ceramic multilayer capacitors General data
Class 2 capacitors
After manufacture, each capacitor is checked on capacitance, tan δ and test voltage. Apart from this the following quality
checks are carried out by frequent inspections.
Essentially all tests mentioned in the schedule of
“IEC publication 384-9”
, categories 55/125/21 and 10/85/21
respectively for X7R-2C1 and Z5U (temperature ranges −55/+125 °C and +10/+85 °C; damp heat, long term, 21 days)
are carried out in accordance with
“IEC publication 68”
.
Table 6 Test procedures and requirements
IEC 384-9
CLAUSE
IEC 68-2
TEST
METHOD TEST PROCEDURE REQUIREMENTS
4.1 pre-conditioning 1 hour; +150 °C; reference
measurement after 24 hours
4.5 robustness of
terminations:
pull-off pull velocity 15 cm/minute; load 5 N no lead breakage
Ua1tensile strength axial force 10 N no lead breakage
Ub bending load 5 N; 4 ×90°no lead breakage
4.7 Ta
method 1 solderability
(solder bath) 235 °C; 2 s good tinning
4.6 Tb
method 1A resistance to
soldering heat pre-conditioning: 260 °C; 10 s no visible damage
4.8 Na rapid change of
temperature pre-conditioning:
for X7R: −55/+125 °C; 5 cycles;
for Z5U: +10/+85 °C; 5 cycles
no damage
∆C/C after 24 hours:
X7R: ±≤10%
Z5U: ±≤20%
4.9 Fb vibration 10 to 55 to 10 Hz;
0.75 mm displacement;
3 directions; 6 hours
no visible damage
4.10 Eb bump 4000 bumps in 2 directions;
40 g; pulse time 6 ms no visible damage
inflammability 15 s; 35 mm above bunsen burner
with flame-height 40 to 60 mm self-extinguishing within 15 s
after removal of bunsen burner
resistance to
solvents 3 minutes ultrasonic washing in
trichloroethylene; 1 minute drying;
30 °C; 10 brush strokes
marking and colour code must
remain legible and not be
discoloured; no mechanical or
electrical damage or
deterioration of the material
1997 Nov 04 93
Philips Components
Leaded ceramic multilayer capacitors General data
4.12 climatic sequence:
4.12.1 pre-conditioning 1 hour; +150 °C
4.12.2 Ba dry heat 16 hours at maximum temperature no visible damage
4.12.3 Db damp heat
(accelerated)
1st cycle
12 hours; +55 °C; 90 to 96% RH
12 hours; +25 °C; 95 to 100% RH no visible damage; after
recovery of 1 to 2 hours
immediately followed by cold
test
4.12.4 Aa cold 2 hours at minimum temperature no visible damage
4.12.5 M low air pressure 1 hour at 8.5 kPa,
last 2 minutes rated voltage no breakdown or flashover
4.12.6 Db damp heat
(accelerated)
remaining cycle
12 hours; +55 °C; 90 to 96% RH
12 hours; +25 °C; 95 to 100% RH after 24 hours recovery:
∆C/C:
X7R: ±≤15%
Z5U: ±≤20%
tan δ:≤7%
Rins:>1000 MΩ
4.13 Ca damp heat,
steady state
(half number of
samples at rated
voltage, other half
of samples no
voltage applied)
pre-conditioning:
21 days; +40 °C; 90 to 95% RH no visible damage
after 24 hours:
∆C/C:
X7R: ±≤15%
Z5U: ±≤30%
tan δ:≤7%
Rins:>1000 MΩ
4.14 endurance pre-conditioning after 24 hours:
∆C/C:
X7R: ±≤20%
Z5U: ±≤30%
tan δ:≤7%
Rins:>2000 MΩ
4.4 temperature
characteristic pre-conditioning: minimum and
maximum temperature in accordance with specification
IEC 384-9
CLAUSE
IEC 68-2
TEST
METHOD TEST PROCEDURE REQUIREMENTS
