CDM10V [INFINEON]

CDM10V 是一个完全集成的 0-10V 调光接口 IC，采用6引脚 SOT 封装，可以满足小型 PCB 的空间要求。该装置适用于各种调光应用。该 IC 可用于将基于模拟电压的信号以基于电流的PWM信号形式从0-10V调光器或电位器传输到照明控制器IC的调光或PWM输入，以驱动外部光电耦合器。;


型号：	CDM10V
厂家：	Infineon
描述：	CDM10V 是一个完全集成的 0-10V 调光接口 IC，采用6引脚 SOT 封装，可以满足小型 PCB 的空间要求。该装置适用于各种调光应用。该 IC 可用于将基于模拟电压的信号以基于电流的PWM信号形式从0-10V调光器或电位器传输到照明控制器IC的调光或PWM输入，以驱动外部光电耦合器。 PC 驱动控制器 CD 光电装置电位器
文件：	总20页 (文件大小：1195K)
中文：	中文翻译
下载：	下载PDF数据表文档文件

CDM10V

Flexible 0-10V Dimming Solution

Features

•

Simplest 0-10 V design on the market. CDM10V comes with default settings:

5% minimum duty cycle

1kHz PWM frequency

200μA Dimmer/Resistor Bias current

Dim-To-Oﬀ disabled

•

The simple one time programmable option allows setting in a wide range:

Minimum duty cycle: 1%, 2%, 5%, 10%

PWM output frequency: 200Hz, 500Hz, 1kHz, 2kHz

Dimmer/Resistor Bias Current: 50μA, 100μA, 200μA, 500μA

Dim-to-Oﬀ: disabled/enabled

•

Wide input V_ccrange from 11 to 25 V

Transparent PWM mode (PWM Bypass Mode in DIM-TO-OFF enabled mode)

Replaces many external components with a single chip reducing BOM and PCB space

Minimum variation from device to device

Applications

•

LED Drivers needing 0-10 V Dimming Circuits

Industrial and Commercial Dimmable Applications:

Luminaires, Troﬀers, Downlights, Sconces, Undercabinet, Oﬀice Lighting, Signage applications,

Dali applications

Product Type

Package

CDM10V

SOT23-6

Description

CDM10V is a fully integrated 0-10 V dimming interface IC and comes in a SOT-23-6 package to cover space

requirements on small PCBs.

The device is targeted for various dimming applications in lighting. The IC can be used to transmit analog

voltage based signals from a 0-10 V dimmer or potentiometer to the dimming or PWM input of a lighting

controller IC in the form of a 5 mA current based PWM signal to drive an external opto-coupler. It replaces many

components in a traditional solution and reduces BOM and PCB space significantly.

The CDM10V IC outputs a 0 - 100% PWM current signal at programmable frequency with an amplitude value of 5

mA.

The duty cycle of the PWM signal can be limited to a dedicated minimum value. Dim-to-oﬀ feature is supported

as well and can be enabled on demand.

Embedded digital signal processing maintains minimum variations from device to device.

Please read the Important Notice and Warnings at the end of this document

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Flexible 0-10V Dimming Solution

Table of contents

Features . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1

Applications . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .1

Description . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .1

Table of contents . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2

Block Diagram . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .3

Pin Configuration . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .3

Functional Description . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .4

Electrical Characteristics and Parameters . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .13

Chip Configuration . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 15

Package Dimensions . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 17

References . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 19

Revision History . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 19

Trademarks . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 20

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Flexible 0-10V Dimming Solution

Block Diagram

Figure 1

Block Diagram of the CDM10V

Pin Configuration

Table 1

Pin configutation

Name

V_CC

Function

Input voltage 11V - 25V

GND

I_out

PWM output current 5mA

RxD

V_FSS

RxD for eFuse programming, connect to GND for normal operation

Fusing voltage (4,1V) eFuse programming, connect to GND for

normal operation (internal pull-down)

R_dim+

Dimmer current output /Voltage sense

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Flexible 0-10V Dimming Solution

Functional Description

Typical Application Circuit

Figure 2

Typical Application Circuit

Note:

The Diode marked with * is for the protection of the R_dim+-Pin when active dimming is used. This is

because the voltage on this Pin is not allowed to be higher than V_CC+0.5V. It is advised to use a low

leakage, low reverse current Schottky-Diode in order to not influence the dimming performance (e.g.

MMSD301T1G).

Note:

The capacitor connected to the R_dim+-Pin reduces the amount of coupled noise to the dimming signal.

The size of this capacitance should be in the range of 2.2 - 10 nF (typ. 4.7 nF), where a small capacitor

allows steeper edges of the dimming signal, a larger capacitor enhances the noise reduction.

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Flexible 0-10V Dimming Solution

Functional Description

Recommended cooling area

In order to guarantee the full functionality of the CDM10V device, the required cooling area has to be selected

according to the graph in Figure 3.

Figure 3

Cooling area over ambient temperature CDM10V

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Flexible 0-10V Dimming Solution

Functional Description

Dimming Characteristic

Table 2

PWM Output current referring to R_dim+-Pin Voltage

R_dim+

I_out

<1 V

1 - 9 V

PWM @ min duty cycle or Dim-to-OFF

min duty cycle (@ 1V)…100% (@ 9V)

Always active

>9V (max. applicable Voltage: V_cc)

Calculation of the lower dimming voltage boundary for entering min duty cycle:

1 V + min Duty Cycle 8 V

Figure 4

Dimming Characteristic

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Flexible 0-10V Dimming Solution

Functional Description

Transparent Mode

CDM10V device can be configured for usage in transparent mode. In this mode the PWM signal on R_dim+input

will be provided directly to I_out

Pre-condition to enable the transparent mode is to fuse the DIM2OFF bit to HIGH and PWM frequency to 2 kHz,

PWM minimum duty cycle is not used in this mode and can stay in default configuration.

Figure 5

Table 3

Transparent mode timing diagram

Conditions for the transparent mode

Condition

R_dimH

Name

Min

9.3 V

-0.5 V

Nom

Max

V_CC+0,5V

0.5 V

R_dim+High Value

R_dim+Low Value

I_outHigh Value

R_dimL

I_outH

I_outL

t_IO

R_Iout* 5mA¹

0.0 V

I_outLow Value

Propagation delay

Min puls width High

Min puls width Low

Rising edge time

Falling edge time

8.8 μs

t_H

2.6 μs

t_L

t_R

1.8 μs

t_F

Note:

¹R_Ioutis the resistance connected between the I_outand the GND-PIN

Image shows the maximum I_outresolution versus the R_dim+frequency. The dependency can be calculated using

following formula:

resolution

out

f_Rdim

100

× 2 . 6 μs

For 1% resolution we get:

f_Rdim

≈

3 . 85 kHz

100

× 2 . 6 μs

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Flexible 0-10V Dimming Solution

Functional Description

Figure 6

I_outresolution versus the R_dim+frequency

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CDM10V

Flexible 0-10V Dimming Solution

Functional Description

Optocupler Selection Guide

CDM10V converts an analog dimming signal into a PWM waveform. In the majority of applications the dimming

signal needs to be isolated from the rest of the application and an optocoupler is used to implement either

functional or reinforced isolation. Optocouplers are an excellent choice since they are very cost eﬀective but

nevertheless able to comply with virtually all safety standards.

The most common and cost eﬀective optocouplers are four-pin devices consisting of a LED and a photo-

sensitive BJT. With four pin devices only collector and emitter of the BJT are connected to pins. This limits

device performance, especially switching times, as will be discussed later. Six-pin devices having the base of the

BJT as well connected to a pin are seen less oꢀen. With these six-pin devices bandwidth of the transmission can

be improved if necessary. Finally there are high-speed digital couplers available that are designed for very high

data rates and oﬀer a buﬀered output with a nearly perfect PWM signal. While oﬀering superior performance

high speed couplers are considerably more expensive than simple LED-BJT couplers.

Generating an Analog Signal from PWM

Although the PWM signal itself can be used, either by implementing PWM dimming or using a dedicated SMPS

controller that is able to extract the dimming information directly from the PWM waveform, in many

applications a DC voltage that is proportional to the desired dimming level is needed. Fortunately it is easy to

create an analog signal from PWM: a low pass filter with the right corner frequency will do the job.

As a rule of thumb a corner frequency of f_PWM/100 for a first order filter and f_PWM/10 for second order filter

should be used. With this selection ripple on the generated DC signal is around 150 mV_ppat medium dimming

levels and goes down to a few 10 mV_ppat very low and high dimming levels. The first order filter will have a

slower time response due to the low corner frequency. Consequently, if for some reason a f_PWMlower than 1 kHz

has to be used, as second order filter will give the better response. With a third order filter it is possible to

achieve either negligible ripple on the DC voltage or superior response time.

Since the generated DC voltage not only depends on the duty-cycle of the PWM signal but is directly

proportional to its amplitude as well it is mandatory to stabilize the amplitude e.g. with a Zener-Diode.

Image shows a simplified schematic with second order filter. According to the design guideline given above,

good starting values for C₁and C₂would be:

kHz

C₁

C₂

150 nF

PWm

Note:

Using the ICL8105 the capacitor connected to the UART/Dim-Pin is not allowed to exceed 1nF in order

to provide proper UART communication if needed.

Inverted / Non-Inverted Output

Figure 7

Simplified schematic of CDM10V with inverted (leꢀ) and non-inverted (right) output signal.

Both are equivalent in terms of performance

Optocouplers are most oꢀen used in the configuration shown on the leꢀ of Image i.e. the output signal is

derived from the collector of the BJT and thus inverted compared to the input signal. An inverted signal is not

favorable at all since it will result in an inverted dimming characteristic with the majority of controllers. An

additional inverter stage could be used of course, resulting in the proper dimming curve. But there is a simpler

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CDM10V

Flexible 0-10V Dimming Solution

Functional Description

solution as well since the four pin optocoupler can be viewed as current controlled current source if V_CEof the

BJT is suﬀiciently high. Consequently the load can be connected either to collector or emitter without

significant change in parameters or performance. Therefore the configuration on the right of Image is favorable

for most SMPS controllers.

Optocoupler selection

There are two parameters of an optocoupler that are most important for use with CDM10V: the current transfer

ratio CTR and the switching times T_rand T_f.

Image is a typical plot of T_rand T_fvs, R_Ltaken from the data sheet of a widely used 4-pin optocoupler. Both

parameters depend on the load resistance R_L. But while T_rdoesn’t vary too much and shows a moderate

maximum for R_Lof few hundred ohms, T_fis constantly increasing with R_L, reaching about 100 µs for R_Laround

10 kΩ. These times are much longer than the minimum pulse length generated by CDM10V shown in table Table

4. Consequently relative low values for R_Laround 100 Ω seem to be necessary in order to achieve reasonable

switching times. But it’s important to mention, that switching times shown in Image are determined with

saturated BJT (this means the load resistance limits the IC to a lower value than would be determined by LED

current) and with non-saturated BJT switching times can be small, even with higher load resistance.

Figure 8

Typical optocoupler switching times vs. load resistance together with test circuit.

Before discussing influence of load resistance on switching performance further, the second important

parameter of the coupler, CTR, needs investigation.

Table 4

Shortest pulse length for diﬀerent frequencies and minimum dimming levels of CDM10V

Frequency

Dim-to-oﬀ

1.2 μs

10%

500 μs

200 μs

100 μs

50 μs

200 Hz

500 Hz

1 kHz

50 μs

20 μs

10 μs

5 μs

100 μs

40 μs

20 μs

10 μs

250 μs

100 μs

50 μs

25 μs

7.84 μs

3.92 μs

1.96 μs

2 kHz

As the name implies, CTR is simply the ratio between the forward current I_Fof the LED and the resulting

collector current IC of the phototransistor and usually expressed in percent. A CTR of 50% for example means

that the collector current is 50% or half of the LED current. CTR is of course not constant but depends on the

LED current as well as on temperature. For many optocouplers CTR is specified for a nominal current of 5mA but

can have considerably higher CTR at higher currents while being much lower at currents below 5 mA. Since

CDM10V drives a constant current of 5 mA it fits very well to the most common couplers on the market. For a

given coupler the CTR shows wide variation from device to device, varying for example from 50% to 600% for a

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Flexible 0-10V Dimming Solution

Functional Description

widely used coupler. Therefore selections are available with a CTR variation of 1:2 ranging e.g. from 100% to

200%.

As said before, the 4-pin coupler with phototransistor can be seen as a current-controlled current source and

CDM10V is driving a current of 5 mA, resulting in a collector current (= emitter current) ranging from 2.5 mA to 30

mA for a non-selected coupler. With a 100 Ω load resistor the output signal thus would vary from 250 mV to 3V.

This leads to the conclusion that small load resistance is desirable for good switching behavior but leads to

small output signal and this signal varies too much with CTR instead of having a constant amplitude as

requested initially. A solution for achieving constant amplitude could be to make the load resistance big enough

that the transistor would go into saturation. The voltage drop across a BJT in saturation is small and doesn’t

vary much with temperature but switching speed is very poor in this condition.

Figure 9

Simplified schematic showing second order filter and best configuration of coupler

All of the above put together results in a set of simple rules of optocoupler selection:

1. Use the lowest PWM frequency that gives reasonable dimming response.

Example: With f_PWM= 1kHz a second order filter with a corner frequency of 100 Hz should be used. The

response time of this filter to a step from 10% to 90% dimming level is about 10 ms and aꢀer 20 ms the final

level is reached.

2. Use an optocoupler with a selected CTR range like e.g. 100% to 200%.

3. Use a load resistance that allows the desired output voltage even with lowest CTR over all possible operating

conditions.

Example:

CTR_min= 80 %, V_Out= 5 V, I_{LED, max}= 4.5 mA

out

5 V

0 . 8 × 4 . 5 mA

R_L

1 . 388 kΩ

CTR

× I

min LED, min

4. To prevent saturated switching, use a supply voltage V_CCthat is at least 2V higher than the desired output

voltage V_Out. V_CCshouldn’t be too high on the other hand to limit power losses.

Example:

V_CC= 15 V, CTR_max= 200 %, I_LED,max= 5.45 mA, Dimm-Level 100 %

P_{Loss, max}

2 . 2

5 . 45 mA

15 V

179 . 85 mW

Obviously with a V_CCof 7.5 V these losses would be halved to about 90 mW. It's important to keep in mind,

that this is the maximum loss that only occurs at maximum light output. At minimum dimming level or dim-

to-oﬀ the loss added by the optocoupler circuit will be negligible.

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CDM10V

Flexible 0-10V Dimming Solution

Functional Description

5. Use a Zener diode to limit and stabilize the output voltage to the desired value. In the above example a 5.1 V

Zener with 2% accuracy should be used.

A circuit that complies with all the above is shown in Image. An optocoupler device that complies with the

above mentioned rules and has actually been tested in the application is VO617A-2 by Vishay Semiconductor.

There are of course many devices available that have very similar, if not identical, technical data regarding

switching times vs. load resistance and CTR selection. As an example devices as FOD817A, HCPL-817-xxAE or

LTV-817A, EL817A or TLP183 GRL, to name only a few, can be used in this application. Nevertheless the desired

performance has to be verified in the application in each single case.

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Flexible 0-10V Dimming Solution

Electrical Characteristics and Parameters

Table 5

Absolute Maximum Ratings

Name

Values

Unit

Note or Test

Condition

Min.

Max.

V_cc

GND

I_out

Point of reference

-0.5

3.63

Depending on the

optocupler voltage

@ 5mA

RxD

-0.25

-0.5

0.1

Connect to GND

during operation

V_FSS

R_dim+

During operation

Connect to GND

V_CC+ 0.5

An applied voltage

above max value

leads to the

destruction of the

device. Also valid if

V_CCis 0 V.

Absolute maximum ratings (Table 5) are defined as ratings which when being exceeded may lead to destruction

of the integrated circuit. Exposure to absolute maximum rating conditions for extended periods may aﬀect

device reliability. Maximum ratings are absolute ratings; exceeding only one of these values may cause

irreversible damage to the integrated circuit. These values are not tested during production test.

Table 6

Electrical Characteristics

Programmable Symbol

Parameter

Values

Typ.

Unit Note or Test

Condition

Min.

Max.

Input Voltage

V_in

T_J

Operating

Voltage

Junction

Temperature Range

-40

135

105

°C

Ambient

Temperature Range

T_A

Power Dissipation

P_tot

6.05 @ 1% 130 @ 100% 160 @ mW

Dimmer

current

included

duty cycle;

duty cycle

100%

PWM

& 25

V_in

6.6 @ 2%

83.2 @ 70%

duty cycle

duty cycle;

8.25 @ 5% 54 @ 50% duty

duty cycle;

cycle

11 @ 10%

duty cycle

30.4 @ 30%

duty cycle

Current

Consumption

I_CC

Current

Consumption

of the IC for

self supply

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Flexible 0-10V Dimming Solution

Electrical Characteristics and Parameters

Table 6

Electrical Characteristics (continued)

Programmable Symbol

Parameter

Values

Typ.

Unit Note or Test

Condition

Min.

Max.

Output Current for

Dimmer

yes

I_dim

-10%

50/100/200/500 +10% μA

Current flow

out of R_dim+

Output Current for

Optocoupler

I_out

-10%

-6%

+10% mA

+6% Hz

PWM frequency

yes

f_PWM

200/500/

1000/2000

Min. duty cycle

PW_PWM

-0.2

-3

1/2/5/10

+0.2

Percentage of

the pulse

width

Dimming accuracy

Fusing Voltage

With active

dimming incl.

all variations

V_FSS

4.0

4.1

4.2

For eFuse

programming,

connect to

GND for

normal

operation

Wake-up Time

ESD capability HBM

ESD capability CDM

t_w

μs Time from V_CC

= 11 V to first

output current

V_HAB

1500

500

according to

ANSI/ESDA/

JEDEC JS-001

V_CDM

according to

JESD22 C101

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Flexible 0-10V Dimming Solution

Chip Configuration

Typical eFuse programming Circuit

Figure 10 Typical eFuse programming Circuit

Serial Port

The serial port enables a one time reconfiguration of parameters for device function.

Characteristics of the communication:

Baudrate: 9600Bd; one stop bit; no parity bit

Timing diagram:

Data frame

Startbit

8 Data bits

Stopbit

Figure 11 Timing diagram for the serial communication

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Flexible 0-10V Dimming Solution

Chip Configuration

Data frame format:

Figure 12 Data frame format for the Serial Communication

Table 7

Bit setting for the one time reconfiguration

Bit group

CMD

Value

Meaning

Always high

200 µA

100 µA

50 µA

Comment

reserved

Default

Dimmer/Resistor Bias

500 µA

NOT ENABLED

Enable

1 kHz

Dim-to-Oﬀ

Default

PWM Frequency

500 Hz

200 Hz

2 kHz

Minimum duty cycle

5 %

Default

2 %

1 %

10 %

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Flexible 0-10V Dimming Solution

Package Dimensions

All dimensions in mm.

Package Drawings

Figure 13 Package Drawings

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Flexible 0-10V Dimming Solution

Package Dimensions

Footprint

Figure 14 Footprint

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CDM10V

Flexible 0-10V Dimming Solution

References

Packing Description

Packing Type

Tape and Reel

∅ Reel: 180

Pieces / Reel:

3000

Reels / Box: 1

Figure 15 Packing

References

Additional support material can be found under the following link.

Related information

http://www.infineon.com/CDM10V

Revision History

Major changes since previous revision

Revision History

Reference

v1.0

Description

Initial Version

v1.1

Typos, added Table 5

v1.2

Typos p 12, p 13

v1.3

Additional information about the max rating of Rdim-Pin (Image, Table 5)

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Trademarks of Infineon Technologies AG

µHVIC^™, µIPM^™, µPFC^™, AU-ConvertIR^™, AURIX^™, C166^™, CanPAK^™, CIPOS^™, CIPURSE^™, CoolDP^™, CoolGaN^™, COOLiR^™, CoolMOS^™, CoolSET^™, CoolSiC^™, DAVE^™,

DI-POL^™, DirectFET^™, DrBlade^™, EasyPIM^™, EconoBRIDGE^™, EconoDUAL^™, EconoPACK^™, EconoPIM^™, EiceDRIVER^™, eupec^™, FCOS^™, GaNpowIR^™, HEXFET^™,

HITFET^™, HybridPACK^™, iMOTION^™, IRAM^™, ISOFACE^™, IsoPACK^™, LEDrivIR^™, LITIX^™, MIPAQ^™, ModSTACK^™, my-d^™, NovalithIC^™, OPTIGA^™, OptiMOS^™, ORIGA^™,

PowIRaudio^™, PowIRStage^™, PrimePACK^™, PrimeSTACK^™, PROFET^™, PRO-SIL^™, RASIC^™, REAL3^™, SmartLEWIS^™, SOLID FLASH^™, SPOC^™, StrongIRFET^™,

SupIRBuck^™, TEMPFET^™, TRENCHSTOP^™, TriCore^™, UHVIC^™, XHP^™, XMC^™.

Trademarks Update 2015-12-22

Other Trademarks

All referenced product or service names and trademarks are the property of their respective owners.

Edition 2017-01-27

Published by

IMPORTANT NOTICE

WARNINGS

The information given in this document shall in no

event be regarded as a guarantee of conditions or

characteristics (“Beschaﬀenheitsgarantie”) .

With respect to any examples, hints or any typical values

stated herein and/or any information regarding the

application of the product, Infineon Technologies

hereby disclaims any and all warranties and liabilities of

any kind, including without limitation warranties of

non-infringement of intellectual property rights of any

third party.

In addition, any information given in this document is

subject to customer’s compliance with its obligations

stated in this document and any applicable legal

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customer’s products and any use of the product of

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dangerous substances. For information on the types

in question please contact your nearest Infineon

Technologies oﬀice.

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