RP60Q-11024SRUW/N-HC = 110V Input Voltage, 24V Output Voltage, Single, negative logic and fitted Heat-sink
RP60Q-11015SRUW/P-HC = 110V Input Voltage, 15V Output Voltage, Single, positive logic and fitted Heat-sink
https://www.recom-power.com/pdf/
Powerline_DC-DC/RSPxxx-168.pdf
www.recom-power.com
REV.: 0/2018
PB-1
RP60Q-RUW
DC/DC Converter
Specifications
(measured @ Ta= 25°C, nom. Vin, full load and after warm-up unless otherwise stated)
BASIC CHARACTERISTICS
Parameter
Internal Input Filter
Input Voltage Range
Input Surge Voltage
Under Voltage Lockout (ULVO)
Input Current Range
Quiescent Current
Output Voltage Trimming
Minimum Load
Start-up Time
Rise Time
Positive Logic
ON/OFF Control
(5)
Negative Logic
Input Current of CTRL pin
Standby Current
Internal Operating Frequency
Output Ripple and Noise
(6)
Remote Sense
(7)
Notes:
Note5: The ON/OFF control function can be positive or negative logic. The pin voltage is referenced to -Vin pin
Note6: Measurements are made for 5Vout with a 1µF/25V X7R MLCC and a 22µF/25V E-Cap; for 15Vout
with a 22µF/25V X7R MLCC, for 24Vout with a 4.7µF/50V X7R MLCC and for 48Vout with a 2.2µF/100V X7R MLCC
Note7: Refer to page PB-5 Remote Sense. If not used connect Remote Sense pins to corresponding output pins
measured at 20MHz BW
5Vout
12, 15Vout
24Vout
48Vout
DC-DC OFF
DC-DC ON
DC-DC OFF
DC-DC ON
DC-DC OFF
-0.5mA
constant resistive load
< 1s
nom. Vin = 110VDC
Vin = 16VDC
Vin = 110VDC
Vin = 160VDC
nom. Vin = 110VDC
-20%
0%
75ms
40ms
Open or 3 < V
CTRL
< 12VDC
Short or 0 < V
CTRL
< 1.2VDC
Short or 0 < V
CTRL
< 1.2VDC
Open or 3 < V
CTRL
< 12VDC
1mA
4mA
180kHz
75mVp-p
100mVp-p
200mVp-p
300mVp-p
10%
100ms
nom. Vin = 110VDC
DC-DC ON
DC-DC OFF
10VDC
11VDC
4.2A
0.6A
0.45A
10mA
+10%
16VDC
110VDC
Series
Condition
Min.
Typ.
Max.
Pi-Type
160VDC
185VDC
14VDC
12VDC
5.2A
RP60Q-11005SRW
Efficiency vs. Output Load
100
90
80
100
90
80
Efficiency vs. Input Voltage
Efficiency [%]
Efficiency [%]
24Vin
36Vin
48Vin
72Vin
110Vin
0
10
20
30
40
50
60
70
80
90
100
70
60
50
40
30
20
10
0
70
60
50
40
30
20
10
0
16
30
55
70
85
100
115
100% load
50% load
25% load
130
145
160
Output Load [%]
continued on next page
www.recom-power.com
REV.: 0/2018
Input Voltage [VDC]
PB-2
RP60Q-RUW
DC/DC Converter
Specifications
(measured @ Ta= 25°C, nom. Vin, full load and after warm-up unless otherwise stated)
RP60Q-11005SRW
Power Dissipation vs. Output Current
8
7
Series
Typical Output Ripple and Noise/full load
Power Dissipation [W]
6
5
4
3
2
1
0
0
10
20
30
40
50
60
70
80
24Vin
36Vin
48Vin
72Vin
110Vin
90
100
Output Load [%]
ON/OFF Control Start up Rise Characteristic
Power up Start-up Rise Characteristic
Input Voltage Range
Output Power [%]
100
Continuous full power operation is rated between 16V and 160V,
including full load start-up.
Once running, the converter will operate for short periods of time over
an extended input voltage range down to 14V and up to 185V, thus
covering all EN50155 under-voltage and over-voltage transient
conditions.
0.1s
continuous operation
<1s
0
14.0
16.0
Input Voltage [VDC]
160
185
www.recom-power.com
REV.: 0/2018
PB-3
RP60Q-RUW
DC/DC Converter
Specifications
(measured @ Ta= 25°C, nom. Vin, full load and after warm-up unless otherwise stated)
Series
OUTPUT VOLTAGE TRIMMING
Output Voltage Trimming
It allows the user to increase or decrease the output voltage of the module. This is accomplished by connecting an external resistor between the Trim pin and
either the +Sense or -Sense pins. With an external resistor between the Trim and +Sense pin, the output voltage increases. With an external resistor between
the Trim and -Sense pin, the output voltage decreases. The external Trim resistor needs to be at least 1/8W of rated. The values for trim resistors shown in trim
tables below are according to standard E96 values; therefore, the specified voltage may slightly vary.
Trim up
Trim
R
up
+Sense
Trim
-Sense
Trim down
R
down
Vout
nom
DVout
V
ref
R
up
R
down
= nominal output voltage
= output voltage change
= reference voltage
= trim up resistor
= trim down resistor
[VDC]
[%]
[VDC]
[W]
[W]
[W]
Vout
nom
5VDC
12VDC
15VDC
24VDC
48VDC
R
1
R
2
R
3
V
ref
10k2W
511kW
5k11
1.225VDC
R
1
,R
2,
R
3
= internal resistors
Calculation:
R
up
=
R
3
x Vout
nom
x (100
+
DVout
)
V
ref
x
DVout
-
(R
1
x
DVout)
+ R
2
DVout
R
down
=
R
2
DVout
- R
1
Practical Example RP60Q-xx05SRW +10% / -10%
R
up
=
5k11 x 5 x (100 + 10)
1.225 x 10
-
(10k2 x 10) + 511k
10
=
168kW
R
down
=
511k
10
- 10k2 =
40k9W
R
up
according to E96
≈
169kW
RP60Q-xx05SRW
Trim up
Vout
set
=
R
up
(E96)
≈
Trim up
Vout
set
=
R
up
(E96)
≈
1
5.05
1M58
1
12.12
4M53
2
5.10
806k
2
12.24
2M26
3
5.15
536k
3
12.36
1M54
4
5.20
402k
4
12.48
1M15
5
5.25
324k
5
12.60
931k
6
5.30
247k
6
12.72
787k
R
down
according to E96
≈
41k2W
7
5.35
237k
7
12.84
681k
8
5.4
205k
8
12.96
604k
9
5.45
187k
9
13.08
536k
10
5.50
169k
10
13.20
487k
[%]
[VDC]
[W]
[%]
[VDC]
[W]
RP60Q-xx12SRW
RP60Q-xx15SRW
Trim up
Vout
set
=
R
up
(E96)
≈
1
15.15
5M76
2
15.30
2M94
3
15.45
1M96
4
15.60
1M47
5
15.75
1M21
6
15.90
1M02
7
16.05
866k
8
16.20
768k
9
16.35
698k
10
16.50
619k
[%]
[VDC]
[W]
continued on next page
www.recom-power.com
REV.: 0/2018
PB-4
RP60Q-RUW
DC/DC Converter
Specifications
(measured @ Ta= 25°C, nom. Vin, full load and after warm-up unless otherwise stated)
Series
OUTPUT VOLTAGE TRIMMING
RP60Q-xx24SRW
Trim up
Vout
set
=
R
up
(E96)
≈
Trim up
Vout
set
=
R
up
(E96)
≈
1
24.24
9M53
1
48.48
19M6
2
24.48
4M7
2
48.96
9M94
3
24.72
3M24
3
49.44
6M65
4
24.96
2M94
4
49.92
5M11
5
25.20
2M
5
50.40
4M12
6
25.44
1M69
6
50.88
3M4
7
25.68
1M47
7
51.36
3M01
8
25.92
1M27
8
51.84
2M61
9
26.16
1M15
9
52.32
2M37
10
26.40
1M05
10
52.80
2M15
[%]
[VDC]
[W]
[%]
[VDC]
[W]
RP60Q-xx48SRW
Trim Down all Vout‘s
Trim down
R
down
(E96)
≈
Trim down
R
down
(E96)
≈
1
499k
11
36k5
2
243k
12
32k4
3
162k
13
28k7
4
118k
14
26k1
5
90k9
15
23k7
6
75k
16
21k5
7
63k4
17
19k6
8
53k6
18
18k2
9
46k4
19
16k5
10
41k2
20
15k4
[%]
[W]
[%]
[W]
REMOTE SENSE
+V
in
+V
out
+Sense
R
up
Load
R
down
-V
in
-Sense
-V
out
(GND)
RW
2
Trim
RW
1
The output voltage can be adjusted by both trim and remote sense. The
maximum combined adjustment range is ±10%. Derate the maximum
output power if using the trim or sense function to increase the output
voltage.
RW
1
... wire losses +
RW
2
... wire losses -
R
up
... trim up resistor
R
down
... trim down resistor
REGULATION
Parameter
Output Accuracy
Line Regulation
Load Regulation
Transient Response
low line to high line
0% load to 100% load
25% load step change
Condition
Value
±1.0% max.
±0.1% max.
0.1% max.
250µs typ.
Transient Response to Dynamic Load change from 100% to 75% to 100% of Full Load at nom. Vin
The chip I use is stm32f030c8t6. I want to use the LL library provided by st to receive interrupts. The process is as follows. I used the STM32Cube tool to generate the chip configuration. I used the ...
I recently bought a TMS320F28377S launchpad. Considering that my future graduate major is biomedical signal processing, I think it is necessary to learn about DSP. I would like to take this opportunit...
The problem is this. Originally, burning NK.BIN to the first address of FLASH at 0x60000000 (the physical address of FLASH) can start the image normally. Now we need to move NK to the back to ensure t...
Author: Bai Xin, Unit 94569 of the Chinese People's Liberation Army Abstract : This paper introduces two wireless digital MODEMs designed and implemented based on CMX469A and MSM7512B, explains the ha...
The core of a machine vision system is image acquisition and processing. All information comes from images, and image quality is crucial to the entire vision system. A good image can improve the st...[Details]
The intelligent driving community has its own rhythm. Some are busy pushing new versions and focusing on R&D, others are busy with publicity and promotion, and still others are immersed in mass pro...[Details]
Nios II is a configurable 16-/32-bit RISC processor. Combined with a rich set of peripheral-specific instructions and hardware acceleration units, it provides a highly flexible and powerful SOPC sy...[Details]
As more and more consumers purchase new energy vehicles, the safety of electric vehicles has become a major concern. This has been particularly prominent following a series of electric vehicle fire...[Details]
New energy vehicles are increasingly popular with consumers due to policies and energy conservation. Once you've purchased your vehicle, maintenance is essential. However, due to the different powe...[Details]
Ever since the Tesla fire incident, electric cars, already known for their poor reputation, have been subjected to even more scathing criticism. Despite this, many people are still willing to buy t...[Details]
The digital TV set-top box consists of a tuner, QAM demodulator, TS demultiplexer, MPEG-2 decoder, PAUNTSC video encoder, embedded CPU system and peripheral interfaces, CA module, and uplink data m...[Details]
There are basically three causes of spontaneous combustion of electric vehicles: The first is that the battery components are punctured or suffer fatal damage due to a collision accident, and part ...[Details]
A tubular motor is an electric motor that is typically used to control the movement of machines and equipment. Tubular motors are generally divided into two categories: linear tubular motors and ro...[Details]
A scale, a large, ground-mounted scale, is typically used to measure the tonnage of truck cargo. It's the primary weighing device used in factories, mines, and businesses for bulk cargo measurement...[Details]
1. Introduction
In 2015, Apple's new MacBook and Apple Watch both featured force-sensing technology, which Apple calls Force Touch. Each time a user presses the touchpad, the device not only p...[Details]
On August 20, Huawei Device announced that the all-new M7 is the first to feature an in-cabin laser vision solution. This solution offers enhanced active safety capabilities compared to primary vis...[Details]
introduction
As core electronic components used in vastly different fields, automotive-grade chips and mobile/consumer-grade chips exhibit significant differences in their...[Details]
introduction
The OMAP-L138 dual-core processor is a new generation of low-power single-chip systems (SoCs) from TI. It is widely used in communications, industrial, medical diagnostic, and aud...[Details]
In microwave amplification circuits, the power chip is the core of the entire circuit. A large number of semiconductor devices in the chip will generate a lot of heat when working. If the heat diss...[Details]