CC6-4812DF-E TDK Corporation, CC6-4812DF-E Datasheet - Page 18
![CONV DC/DC 6W DUAL 48V +-12V PCB](/photos/8/57/85796/cc-e-series-7-dip-module_sml.jpg)
CC6-4812DF-E
Manufacturer Part Number
CC6-4812DF-E
Description
CONV DC/DC 6W DUAL 48V +-12V PCB
Manufacturer
TDK Corporation
Series
CC-Er
Type
Isolatedr
Datasheets
1.CC1R5-0505SF-E.pdf
(2 pages)
2.CC1R5-0505SF-E.pdf
(21 pages)
3.CC6-2412DF-E.pdf
(18 pages)
4.CC10-2412DF-E.pdf
(3 pages)
Specifications of CC6-4812DF-E
Output
±12 ~ ±15V
Number Of Outputs
2
Power (watts)
6W
Mounting Type
Through Hole
Voltage - Input
36 ~ 76V
Package / Case
7-DIP Module
1st Output
12 ~ 15 VDC @ 250mA
2nd Output
-12 ~ -15 VDC @ 250mA
Size / Dimension
1.40" L x 0.89" W x 0.33" H (35.6mm x 22.6mm x 8.5mm)
Power (watts) - Rated
6W
Operating Temperature
-40°C ~ 85°C
Approvals
CE, CSA, EN, UL
Brand/series
CC-E Series
Configuration
Open-Frame
Power, Output
6 W
Primary Type
DC-DC Converter
Special Features
Output Trim, Remote On/Off
Voltage, Input
48 VDC
Voltage, Output
-12, +12 VDC
Lead Free Status / RoHS Status
Lead free / RoHS Compliant
3rd Output
-
4th Output
-
Lead Free Status / Rohs Status
RoHS Compliant part
Other names
445-3322
CC6-4812DF-E
CC64812DFE
CC6-4812DF-E
CC64812DFE
Available stocks
Company
Part Number
Manufacturer
Quantity
Price
Company:
Part Number:
CC6-4812DF-E
Manufacturer:
TDK-LAMBDA
Quantity:
686
Control Functions/Connections
SIP Model
Part No.
CC3–xx03SS–E
CC3–xx05SS–E
CC3–xx12SS–E
CC3–xx12DS–E
Calculate the output voltage Vout(V) from the connected resistance Ra,
Rb(kΩ)
Calculate the connected resistance Ra and Rb(kΩ) from the set output
voltage Vout(V).
Fig.13
Fig.15
• All specifications are subject to change without notice.
+12 to +15V
3.3 to 3.67V, 5 to 6V, 12 to 15V
Set the output voltage higher by adding resistance Ra between
the TRM terminal/–Vout terminal.
Set the output voltage lower by adding resistance Rb between
the TRM terminal/+Vout terminal.
Set the output voltage higher by adding resistance Ra between
the TRM terminal/–Vout terminal.
Set the output voltage lower by adding resistance Rb between
the TRM terminal/+Vout terminal.
∗1
∗2
∗3
∗4
∗5
∗6
∗7
∗8
∗1
∗2
∗3
∗4
∗5
∗6
∗7
∗8
Load Load
Load
Vout=3.3+1.04/(2.83+Ra)
Vout=5+12.75/(12.69+Ra)
Vout=12+48.4/(16.18+Ra)
Vout=12+54.7/(18+Ra)
Vout=3.3–1.69/(3.66+Rb) [Rb
Vout=5–12.78/(17.79+Rb) [Rb
Vout=12–184.1/(35.54+Rb) [Rb
Vout=12–470.3/(61.75+Rb) [Rb
Ra=1.04/(Vout–3.3)–2.83
Ra=12.75/(Vout–5)–12.69
Ra=48.4/(Vout–12)–16.18
Ra=54.7/(Vout–12)–18
Rb=1.69/(3.3–Vout)–3.66
Rb=12.78/(5–Vout)–17.79
Rb=184.1/(12–Vout)–35.54
Rb=470.3/(12–Vout)–61.75
–12 to –15V
Ra
Ra
3.3 to 3.67V
5 to 6V
12 to 15V
Connecting –Vout
with Ra
±12 to ±15V
∗2
∗3
∗1
∗4
Fig.14
Fig.16
+11.4 to +12V
Load Load
3.15 to 3.3V, 4.75 to 5V, 11.4 to 12V
7.6]
Load
33.3]
271.3]
722.1]
Fig.
13
13
13
15
Connecting +Vout
with Rb
3.15 to 3.3V
4.75 to 5V
11.4 to 12V
±11.4 to ±12V
Rb
Rb
–11.4 to –12V
∗6
∗7
∗5
∗8
Fig.
14
14
14
16
002-05 / 20061129 / ea335_cc_e.fm
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