CUI PES1-S24-S5-M

date
03/19/2013
page
1 of 6
SERIES: PES1-M │ DESCRIPTION: DC-DC CONVERTER
FEATURES
•
•
•
•
•
•
•
•
•
1 W isolated output
smaller package
single unregulated output
3,000 Vdc isolation
continuous short circuit protection
extended temperature range (-40~105°C)
antistatic protection up to 8kV
high efficiency at light load
efficiency up to 81%
MODEL
input
voltage
output
voltage
output
current
output
power
ripple
and noise1
efficiency
typ
(Vdc)
range
(Vdc)
(Vdc)
min
(mA)
max
(mA)
max
(W)
typ
(mVp-p)
typ
(%)
PES1-S5-S5-M
5
4.5~5.5
5
20
200
1
30
80
PES1-S5-S9-M
5
4.5~5.5
9
12
111
1
30
80
PES1-S5-S12-M
5
4.5~5.5
12
9
84
1
30
80
PES1-S5-S15-M
5
4.5~5.5
15
7
67
1
60
80
PES1-S5-S24-M
5
4.5~5.5
24
4
42
1
60
80
PES1-S12-S5-M
12
10.8~13.2
5
20
200
1
30
80
PES1-S12-S9-M
12
10.8~13.2
9
12
111
1
30
80
PES1-S12-S12-M
12
10.8~13.2
12
9
84
1
30
81
PES1-S12-S15-M
12
10.8~13.2
15
7
67
1
60
81
PES1-S15-S15-M
15
13.5~16.5
15
7
67
1
60
81
PES1-S24-S5-M
24
21.6~26.4
5
20
200
1
30
80
PES1-S24-S9-M
24
21.6~26.4
9
11
110
1
30
80
PES1-S24-S15-M
24
21.6~26.4
15
7
67
1
60
81
PES1-S24-S24-M
24
21.6~26.4
24
4
42
1
60
81
Notes:
1. ripple and noise are measured at 20 MHz BW by “parallel cable” method
cui.com
CUI Inc │ SERIES: PES1-M │ DESCRIPTION: DC-DC CONVERTER
date 03/19/2013 │ page 2 of 6
PART NUMBER KEY
PES1 - SXX - SXX - M - X
Base Number
Input Voltage
Output Voltage
INPUT
Packaging Style
SMT
Package Options
"blank" = standard
TR = Tape & Reel
parameter
conditions/description
min
typ
max
units
operating input voltage
5 V input models
12 V input models
15 V input models
24 V input models
4.5
10.8
13.5
21.6
5
12
15
24
5.5
13.2
16.5
26.4
Vdc
Vdc
Vdc
Vdc
surge voltage
for maximum of 1 second
5 V input models
12 V input models
15 V input models
24 V input models
-0.7
-0.7
-0.7
-0.7
9
18
21
30
Vdc
Vdc
Vdc
Vdc
filter
capacitance filter
max
units
±1.2
%
15
%
OUTPUT
parameter
conditions/description
min
line regulation
for Vin change of 1%
load regulation
measured from 10% load to full load
voltage accuracy
see tolerance envelope curve
switching frequency
100% load, nominal input voltage
temperature coefficient
100% load
typ
100
300
kHz
±0.03
%/°C
PROTECTIONS
parameter
conditions/description
short circuit protection
continuous, automatic recovery
min
typ
max
units
min
typ
max
units
SAFETY AND COMPLIANCE
parameter
conditions/description
isolation voltage
for 1 minute at 1 mA max.
3,000
Vdc
isolation resistance
at 500 Vdc
1,000
MΩ
conducted emissions
CISPR22/EN55022, class B, (external circuit required)
radiated emissions
CISPR22/EN55022, class B, (external circuit required)
ESD
IEC/EN61000-4-2, class B, contact ±8kV
MTBF
MIL-HDBK-217F @ 25°C
3,500,000
hours
RoHS compliant
yes
ENVIRONMENTAL
parameter
conditions/description
min
max
units
operating temperature
see derating curve
-40
105
°C
-55
125
°C
95
%
storage temperature
storage humidity
non-condensing
temperature rise
at full load
typ
25
cui.com
°C
CUI Inc │ SERIES: PES1-M │ DESCRIPTION: DC-DC CONVERTER
date 03/19/2013 │ page 3 of 6
SOLDERABILITY
parameter
conditions/description
hand soldering
reflow soldering
min
max
units
1.5 mm from case for 10 seconds
300
°C
see reflow soldering profile
245
°C
max
units
250
245
typ
Peak Temp 245°C(max.)
217
Temperature (°C)
200
60 Sec Max
(>217°C)
150
100
50
MECHANICAL
0
Time (sec.)
parameter
conditions/description
dimensions
12.70 x 8.30 x 7.25 (0.500 x 0.327 x 0.285 inch)
min
case material
epoxy resin (UL94-V0)
typ
mm
weight
1.52
g
MECHANICAL DRAWING
12.70± 0.20
[0.500± 0.008]
units: mm[inch]
tolerance: ±0.20[±0.010]
pin section tolerance: ±0.10[±0.008]
1 2
4
A
°
5
0~ 5
8
8.30± 0.20
[0.327± 0.008]
0.60± 0.10
[0.020± 0.004]
2.54
[0.100]
7.62
[0.300]
2.54± 0.20
[0.100± 0.08]
9.77± 0.20
[0.385± 0.079]
2.25
[0.089]
7.00
[0.276]
A
0.88± 0.20
[0.035± 0.008]
1.45± 0.20
[0.057± 0.008]
0.10
Front View
11.20± 0.30
[0.441± 0.012]
8
1
5
2
4
2.10 [0.083]
1.00 [0.039]
10.20 [0.402]
7.25
[0.285]
Top View
2.54
[0.100]
0.25± 0.10
[0.010± 0.004]
Grid Size:
2.54mm x 2.54mm
7.62
[0.300]
PCB Layout
Top View
cui.com
Side View
PIN CONNECTIONS
PIN
Function
1
GND
2
Vin
4
0V
5
+Vo
8
NC
CUI Inc │ SERIES: PES1-M │ DESCRIPTION: DC-DC CONVERTER
date 03/19/2013 │ page 4 of 6
DERATING CURVES
Tolerance Envelope Curve
Temperature Derating Curve
7.5
100
5
Typica
l
2.5
Load
0
2.5
Line
Rated Output Voltage
-2.5
-2.5
-5
80
60
Safe operating area
40
20
-7.5
-7.5
Load (%)
Output Voltage Accuracy (%)
10
-10
10
20
30
40
50
60
70
Output Current Percentage (%)
(Nominal Input Voltage)
80
90
100
-40
-20
0
20
40
60
80
100105 120
Ambient Temperature (°C)
EMC RECOMMENDED CIRCUIT
L DM
Vi n
Vi n
EUT
C1
G ND
Recommended external circuit patterns
+ Vo
GND
L O AD
0V
C2
Vin
(Vdc)
C1
LDM
C2
5
4.7μF/50V
6.8μH
NC
12
4.7μF/50V
6.8μH
NC
15
4.7μF/50V
6.8μH
470pF/3KV
24
4.7μF/50V
6.8μH
470pF/3KV
TEST CONFIGURATION
Oscilloscope
Lin
Cin
External components
Current
Probe
DC DC
Load
Lin
4.7μH
Cin
220μF, ESR < 1.0Ω
at 100 KHz
Note: Input reflected-ripple current is measured with an inductor Lin and Capacitor Cin to simulate source impedance.
cui.com
CUI Inc │ SERIES: PES1-M │ DESCRIPTION: DC-DC CONVERTER
date 03/19/2013 │ page 5 of 6
APPLICATION NOTES
1. Output load requirement
To ensure this module can operate efficiently and reliably, the minimum output load may not be less than 10% of the full load during
operation. If the actual output power is low, connect a resistor at the output end in parallel to increase the load.
2. Overload Protection
Under normal operating conditions, the output circuit of this product has no protection against overload. The simplest method to add
this is to add a circuit breaker to the circuit.
3. Recommended circuit
If you want to further decrease the input/output ripple, you can increase the capacitance accordingly or choose capacitors with low
ESR (see Figure 1). However, the capacitance of the output filter capacitor must be appropriate. If the capacitance is too high, a
startup problem might arise. For every channel of the output, to ensure safe and reliable operation, the maximum capacitance must
be less than the maximum capacitive load (see Table 1).
Figure 1
+Vo
Vin
DC DC
Cin
GND
Cout
0V
Vin
(Vdc)
Cin
(µF)
Vo
(Vdc)
Table 1
Cout
(µF)
5
4.7
5
10
12
2.2
9
4.7
15
2.2
12
2.2
24
1
15
1
--
--
24
0.47
It’s not recommended to connect any external capacitors in applications with less than 0.5 watt output.
4. Output Voltage Regulation and Over-voltage Protection Circuit
The device for output voltage regulation, over-voltage and over-current protection is a linear regulator and a capacitor filtering network with overheat protection which can be connected to the input or output end in series (see Figure 2). The recommended capacitance of its filter capacitor (see Table 1), and the linear regulator is based on the actual voltage and current required.
Figure 2
Note: Vin
GND
REG
REG
+Vo
DC DC
0V
1. Operation under minimum load will not damage the converter; however, they may not meet all specifications listed.
2. Max. capacitive load tested at input voltage range and full load.
3. All specifications measured at: Ta=25°C, humidity<75%, nominal input voltage and rated output load, unless otherwise specified.
cui.com
CUI Inc │ SERIES: PES1-M │ DESCRIPTION: DC-DC CONVERTER
date 03/19/2013 │ page 6 of 6
REVISION HISTORY
rev.
1.0
description
date
initial release
03/19/2013
The revision history provided is for informational purposes only and is believed to be accurate.
Headquarters
20050 SW 112th Ave.
Tualatin, OR 97062
800.275.4899
Fax 503.612.2383
cui.com
[email protected]
CUI offers a two (2) year limited warranty. Complete warranty information is listed on our website.
CUI reserves the right to make changes to the product at any time without notice. Information provided by CUI is believed to be accurate and reliable. However, no responsibility is
assumed by CUI for its use, nor for any infringements of patents or other rights of third parties which may result from its use.
CUI products are not authorized or warranted for use as critical components in equipment that requires an extremely high level of reliability. A critical
component is any component of a life support device or system whose failure to perform can be reasonably expected to cause the failure of the life support device or system, or to
affect its safety or effectiveness.