04/26/06

490 N. McCarthy Blvd., Milpitas, CA 95035-5112

Tel: 408.263.3214

Fax: 408.263.7846

www.cmd.com

CM9130

PRELIMINARY

Features

2.9V to 6V input voltage range

Powers display backlight and/or flash WLED

Low external parts count, requires no inductor and
ballast resistors

Low EMI and reflected ripple

Adaptive charge pump ratio (1x or 1.5x) maximizes
efficiency at both high and low input voltages

Precision regulation for each output with 2% cur-
rent matching at 20mA

Programmable LED current via ISET pin

Typical 500 KHz fixed switching frequency

Supports up to 300mA, drives three LEDs regu-
lated to 50mA each

Analog and PWM intensity control

Less than 10µA shutdown current

Over-current and over-temperature protection

Undervoltage lockout

Soft-start limits start-up inrush current

TQFN-16 package

Optional RoHS compliant lead free packaging

Applications

Drives white LEDs for STN/TFT Color LCD back-
lighting

Cell phones, PDAs

Digital Still Cameras

Flash for DSC

Product Description

The CM9130 is an adaptive fractional switched capaci-
tor (charge pump) regulator optimized for driving 3
white LEDs. Each LED's driver current is matched to
within 2% for uniform intensity. It supports an input volt-
age range of 2.9V to 6V, with undervoltage lockout. A
failure detection circuit prevents the loss of power when
one or more LEDs fail (short or open). Internal over-
temperature and over-current management provide
short circuit protection.

The CM9130 regulates up to 300mA of output current
to drive WLEDs, allowing up to 50mA per LED channel.
The maximum LED current is programmed with an
external resistor. The EN input allows for Analog and
PWM brightness control. The CM9130 can also be
used for a camera flash. In full shutdown mode, the
CM9130 draws only 10µA.

The CM9130 automatically selects the most efficient
charge pump ratio based on the operating voltage
requirement of the white LEDs. The proprietary design
architecture maintains high efficiency (> 80%), and at
low V

provides longer battery life. With a high V

IN,

when the adapter is powered, it provides cool reliable
operation.

The CM9130 is available in a compact 16 lead TQFN
package. It can operate over the industrial temperature
range of -40°C to 85°C.

Typical Application

CM9130

VOUT

LED1

VIN

LED2

LED3

1.0uF

2.9V to 6.0V

1.0uF

1uF

C1P C1N

C2P C2N

ISET

GND

1uF

SET

Enable

off

PhotonIC

Three Output Driver for White LEDs

490 N. McCarthy Blvd., Milpitas, CA 95035-5112

Tel: 408.263.3214

Fax: 408.263.7846

www.cmd.com

04/26/06

CM9130

PRELIMINARY

Ordering Information

Note 1: Parts are shipped in Tape & Reel form unless otherwise specified.

Specifications

PACKAGE / PINOUT DIAGRAM

Bottom View

16-Lead TQFN Package

(4mm x 4mm)

ISET1

VIN

C1P

LED1

GND

C1N

LED

C2P

C2N

TQFN16

4 X 4

Note: This drawing is not to scale.

PART NUMBERING INFORMATION

Leads

Package

Lead-free Finish

Ordering Part Number

Part Marking

TQFN

CM9130-01QE

ABSOLUTE MAXIMUM RATINGS

PARAMETER

RATING

UNITS

ESD Protection (HBM)

± 2

Pin Voltages

to GND

OUT

to GND

ISET, EN to GND
All other pins to GND

[GND - 0.3] to +6.0
[GND - 0.3] to +7.0
[GND - 0.3] to +5.0
[GND - 0.3] to +5.0

V
V
V

Storage Temperature Range

-65 to +150

°C

Operating Temperature Range

-40 to +85

°C

Lead Temperature (Soldering, 10s)

300

°C

Package Pinout

04/26/06

490 N. McCarthy Blvd., Milpitas, CA 95035-5112

Tel: 408.263.3214

Fax: 408.263.7846

www.cmd.com

CM9130

PRELIMINARY

ELECTRICAL OPERATING CHARACTERISTICS

= 3.6V; All outputs are on. Typical values are at T

= 25°C.

SYMBOL

PARAMETER

CONDITIONS

MIN

TYP

MAX

UNIT

Supply Voltage Range

2.9

6.0

UVLO

Undervoltage Lockout

All outputs are no load.

1.7

1.8

1.9

Quiescent Current

1x mode

500

Shutdown Supply Current

< 0.4V

VOUT Charge Pump

OUT

Output Voltage

OUT

= 0mA to 120mA,

= 3.0 to 5.5V

4.2

5.5

LED TOT

Total I

LED

Current

LED1

thru I

LED3

+photoflash

300

ILED

Accuracy of ISET

= 3.0V to 5.5V

Matching current between LED1
to LED3

= 4.0V, I

LED 1,2,3

= 20mA

LED

per driver

Device total I

LED

< 150mA

EN, ISET

High Level Input Voltage

1.8

Low Level Input Voltage

0.4

Protection

Over-current Limit

400

Over-temperature Limit

135

°C

Over-temperature Hysteresis

°C

Specifications (cont'd)

490 N. McCarthy Blvd., Milpitas, CA 95035-5112

Tel: 408.263.3214

Fax: 408.263.7846

www.cmd.com

04/26/06

CM9130

PRELIMINARY

100 mV/

div

Iin

Vout

Vin

20mA/

div

50mV/

div

1us/div

Typical Waveforms

Cin=C2=C3=Cout=1uF, Iout=120mA

1.5x mode

100 mV/

div

20mA/

div

50mV/

div

Iin

Vout

Vin

1us/div

1.0x mode

Typical Waveforms

Cin=C2=C3=Cout=1uF, Iout=120mA

LED Current vs. Vin

3.0

3.5

4.0

4.5

5.0

5.5

6.0

Input Voltage (V)

D Cu

e
n

t

(
m

)

Iin

Vout

ENB

.5ms/div

Startup

Cin=C2=C3=Cout=1uF, Iout=120mA

2V/

div

200mA/

div

2V/

div

Iout=120mA

Iout=60mA

Iout=30mA

Source Current

100

125

150

175

200

3.0

3.5

4.0

4.5

5.0

5.5

6.0

Input Voltage (V)

I
n

t
Cu

rre

t

(
m

Vled=3.2V

Charge Pump Efficiency

100

3.0

3.5

4.0

4.5

5.0

5.5

6.0

Input Voltage (V)

f
f
i
c
i
en

cy (

)

Vled=3.2V

Iout=30mA

Iout=60mA

Iout=120mA

Typical Performance Curves

04/26/06

490 N. McCarthy Blvd., Milpitas, CA 95035-5112

Tel: 408.263.3214

Fax: 408.263.7846

www.cmd.com

CM9130

PRELIMINARY

Pin Descriptions

CM9130

VOUT

VIN

C1P

UVLO

OSC

500 KHz

Charge Pump x1, x1.5

C1N

C2P C2N

LED1
LED2

Current

Sinks

Bandgap

Mode Select

Failed LED

Condition

LED3

GND

ISET

PIN DESCRIPTIONS

LEAD(s)

NAME

DESCRIPTION

LED1

Cathode of LED1 pin.

C1P

This pin is the plus side of charge pump bucket capacitor C1. Connect a 1.0

ceramic capacitor with a voltage rating of 10 V or greater between C1N and C1P.

VIN

Positive supply voltage input pin. This voltage should be between 2.9V and 6V.

This pin requires a 1.0

F or larger ceramic capacitor to ground.

ISET

Enable pin and Current set pin for drivers, active low.

To set the LED current, a resistor, R

SET

, is connected between this pin and ground.

The regulated LED current is 1000x the current flowing in R

SET

, and is

approximately:

If this resistor is tied to directly ground (and enable function not used) Logic Low=0,
otherwise subtract the voltage drop of the device that drives this pin low.

LED

0.66V

LogicLow

(

)

SET

----------------------------------------------------- 1000

Functional Block Diagram

490 N. McCarthy Blvd., Milpitas, CA 95035-5112

Tel: 408.263.3214

Fax: 408.263.7846

www.cmd.com

04/26/06

CM9130

PRELIMINARY

Application Information

The CM9130 is a switched capacitor, charge pump
voltage converter ideally suited for driving white LEDs
to backlight LCD color displays in portable devices.
The CM9130 charge pump is the perfect driver for por-
table applications such as cellular phones, digital still
cameras, PDAs and any application where small
space, compact overall size, low system cost and mini-
mal EMI are critical.

The CM9130 requires only two external switched
(bucket) capacitors, plus an input and an output capac-
itor, providing for a compact, low profile design. In
many applications, these can all be conveniently the
same value of 1.0µF, available in a compact 0805 sur-
face mount package.

The adaptive conversion ratio selects the most efficient
operating mode. When V

is higher than the needed

OUT

LED

CURRENT_SINK

), the 1x mode is set.

When the input voltage is below the LED forward volt-
age and a voltage boost is needed, the 1.5x mode is
automatically selected. The 1.5x mode uses a frac-
tional charge pump to convert the nominal Li-ion bat-

tery voltage (3.6V) by 1.5 times and regulates the LED
current to the low dropout current sources.

The current regulated sources maintain constant LED
drive in the presence of supply voltage fluctuations. All
LEDs are driven with the same current, even when they
have slightly different forward voltages. The individual
current sources sense the current through each LED
and match this current to less than 2% for uniform
brightness across the color LCD display.

The CM9130 drives up to three WLEDS. The maxi-
mum current programmed by R

SET

determines the

maximum intensity; the display can be further dimmed
by PWM control applied to its EN pin.

CM9130 Operation

When a voltage is applied to the VIN pin, the CM9130
initiates a softstart cycle, typically lasting 100 µS. Soft-
start limits the inrush current while the output capaci-
tors are charged. Following softstart, the CM9130 next
determines the best conversion ratio (1x or 1.5x).

C2N

This pin is the minus side of charge pump bucket capacitor C2. Connect a 1.0

ceramic capacitor between C2N and C2P.

PWM/Analog input pin. Can be used as second Enable pin, active high. Should tied
high when not used.

GND

Ground terminal pin.

C1N

This pin is the minus side of charge pump bucket capacitor C1. Connect a 1.0

ceramic capacitor between C1N and C1P.

C2P

This pin is the plus side of charge pump bucket capacitor C2. Connect a 1.0

ceramic capacitor between C2N and C2P.

LED3

Cathode of LED3 pin.

VOUT

Charge pump output voltage pin, which connects to the anodes of all LEDs. A 1

capacitor to ground is recommended.

LED2

Cathode of LED2 pin.

PIN DESCRIPTIONS

Pin Descriptions (cont'd)

04/26/06

490 N. McCarthy Blvd., Milpitas, CA 95035-5112

Tel: 408.263.3214

Fax: 408.263.7846

www.cmd.com

CM9130

PRELIMINARY

The 1.5x mode employs a fractional charge pump. The
charge pump uses two phases from the internal oscil-
lator to drive switches that are connected to the bucket
capacitors, C1 and C2, as shown in

Figure 1

In the first

switch position, the bucket capacitors are connected in
series and each are charged from V

to a voltage of

/2. The next phase changes the switch positions so

that C1 and C2 are in parallel, and places them on top
of VIN. The resulting voltage across C

OUT

is then

+1/2V

= 1.5 x V

Figure 1. Switch Operation

The CM9130 has over-temperature and over-current
protection circuitry to limit device stress and failure dur-
ing short circuit conditions. An overcurrent condition
will limit the output current (approximately 400~600mA)
and will cause the output voltage to drop, until automat-
ically resetting after removal of the excessive current.
Over-temperature protection disables the IC when the
junction is about 135 °C, and automatically turns on the

IC when the junction temperature drops by approxi-
mately 15 °C.

Efficiency

A conventional charge pump with a fixed gain of 2x will
usually develop more voltage than is needed to drive
paralleled white LEDs from Li-Ion sources. This exces-
sive gain develops a higher internal voltage, reducing
system efficiency and increasing battery drain in porta-
ble devices. A fractional charge pump with a gain of
1.5x is better suited for driving white LEDs in these
applications.

The CM9130 charge pump automatically switches
between the two conversion gains, 1x and 1.5x, allow-
ing high efficiency levels over a wide operating input
voltage range. The 1x mode allows the voltage to pass
directly through to the output when sufficient input volt-
age is available. As the battery discharges to the point
where any one current source no longer has sufficient
voltage headroom to maintain a constant current regu-
lation, the 1.5x charge pump is enabled.

At nominal loads, the switching losses and quiescent
current are negligible. If these losses are ignored for

simplicity, the efficiency,

, for an ideal 1.5x charge

pump can be expressed as the output power divided by
the input power:

For an ideal 1.5x charge pump, I

1.5 x I

OUT

, and the

efficiency may be expressed as;

Many charge pumps are fixed 2x designs. The ideal 2x
charge pump efficiency can be similarly expressed;

In 1x mode, when the input voltage is above the output
voltage, the ideal efficiency is simply V

OUT

Charge C1 and C2 to ½ VIN each

VIN

½ VIN

VOUT

½ VIN

Transfer ½ VIN charge to top of VIN

VIN

½ VIN

OUT

VOUT

OUT

LED

-------------

SINK

CURRENT

LED

OUT

LED

SINK

CURRENT

LED

OUT

)

(

For

)

(

)

(

OUT

-------------

3.9V

2.0 V

-----------------------

Application Information (cont'd)

490 N. McCarthy Blvd., Milpitas, CA 95035-5112

Tel: 408.263.3214

Fax: 408.263.7846

www.cmd.com

04/26/06

CM9130

PRELIMINARY

The typical conversion efficiency plots for these modes,
with some losses, are shown in

Figure 2

Figure 2. Ideal charge pump efficiency

As can be seen, the CM9130, with 1x and 1.5x modes,
has better efficiency in this application than a fixed 2x
charge pump. At low battery voltages, the higher effi-
ciency of the CM9130 charge pump's 1,5x gain
reduces the battery drain. At higher input voltages, typ-
ically seen when the system is running off an AC
adapter, the CM9130, operating the 1x mode, has bet-
ter efficiency than single mode 1.5x or 2x charge
pumps, lowering the power dissipation for cooler circuit
operation and long life.

While the charge pump efficiency is easily determined,
the system efficiency is more difficult due to the current
source outputs, which complicate measuring the output
power. The forward voltage of the white LEDs will vary,
and the constant current sources will adjust to maintain
the current. When comparing systems, it is best to
compare the input current for a specified LED drive
current.

The 1x mode has better efficiency than the 1.5x mode.
Selecting LEDs with low forward voltage (V

LED

)

increases the time spent in the 1x mode as the battery
discharges, extending the operating time.

Failed LED Detection

If a LED is shorted, the CM9130 will continue to oper-
ate and drive the remaining LEDs at the programmed

current. If a LED opens, the other LEDs will still be reg-
ulated at the programmed current.

LED Current Set (ISET)

An external resistor programs a reference current, set-
ting the maximum driver current. This resistor must be
tied to a good analog ground. If it is pulled to ground
through a switch, for example, from the host controller
output, the voltage drop across that switch should not
exceed 10 mV.

The voltage at the ISET pin is provided by a .66V band-
gap reference. The LED current is approximately
1000x the current set by the R

SET

resistor, according to

the following formula:

Logic Low is the voltage on device driving this pin to
ground. If the resistor is tied to ground directly, Logic
low = 0. For 20mA LED current, R

SET

= 33k. When this

pin is driven high or open, the device will enter a sleep
mode with V

OUT

=4.5V and, with no load, I

QUIESCENT

500

Analog Control of Display Intensity

Typically, portable devices control the backlight display
intensity in response to ambient light conditions, or
lower the intensity after a short standby interval to con-
verse battery charge. The luminous intensity of white
LEDs is proportional to the amount of forward current
through them, but the color wavelength emitted is also
dependent upon the forward current. In applications
where color shift is not critical, brightness can be con-
trolled by adjusting the diode's current. A typical white
LED Intensity vs. forward current curve is shown in

Figure 3

3.0

3.5

4.0

4.5

5.0

5.5

6.0

Input Voltage (V)

f
f
i
ci

e
n

cy (

)

VLED=3.5V

1X-1.5X

dual mode

1.5X

SET

0.66V

LogicLow

(

)

LED

----------------------------------------------------- 1000

Application Information (cont'd)

04/26/06

490 N. McCarthy Blvd., Milpitas, CA 95035-5112

Tel: 408.263.3214

Fax: 408.263.7846

www.cmd.com

CM9130

PRELIMINARY

Figure 3. Typical Luminous Intensity vs.

LED Current

The Iset pins of the CM9130 can be used to connect
an analog DC signal for analog dimming of the white
LEDs, as shown in

Figure 4

This requires an additional

resistor, R, and a DC source voltage, Vc.

Figure 4. Analog LED current adjust

A control voltage, V

, applied to the resistor divider will

decrease the current for all LEDs. The maximum LED
current occurs with 0V on V

, which is set by R

is the

parallel combination of R and R

SET

Choose the maximum control voltage, V

, which sets

zero LED current, and then determine the resistor ratio.

The resistors can be determined from the equations
below.

For example, a V

max of 2.5V and a maximum current

setting of 20mA, R=125k, R

SET

=44.8k.

Figure 5

shows

the control curve.

Figure 5. LED Current Control Curve

The circuit in

Figure 6

is an example of logic dimming

control, which changes the LED forward current in dis-
crete steps. The NMOS source is an open drain (or
open collector if bipolar) device, either the output of a
host controller, or a discrete device. Open drain, or
open collector devices sink current in their active, low
voltage state (logic 0), and are high impedance in their
high voltage, non-active state (logic 1). The open drain
must not be pulled high with an external resistor, but
instead connected only to the current setting resistors.

The parallel combination of R and R

SET

determine the

full intensity current. When the drain goes high, R

SET

determines the lower intensity current.

Relative Luminous Intensity

0.0

0.5

1.0

1.5

0.0

5.0

10.0

15.0

20.0

25.0

30.0

Forward Current (mA)

r
m

i
z
ed

20m

CM9130

ISET

SET

0.66V

LED

max

----------------------- 1000

Ratio

0.66V

Vc 0.66

--------------------------

R Ratio

(

) Rp

Ratio

-------------------------------------------

Rset

Ratio R

LED Current vs. Vc

0.0

0.5

1.0

1.5

2.0

2.5

Control Voltage, Vc

LED

r
r
e
nt

(
m

)

Application Information (cont'd)

04/26/06

490 N. McCarthy Blvd., Milpitas, CA 95035-5112

Tel: 408.263.3214

Fax: 408.263.7846

www.cmd.com

CM9130

PRELIMINARY

Figure 6. Logic Signal Dimming

For example, to reduce the luminosity intensity by half,
using the LED curve from

Figure 3

, the current setting

needs to be changed from 20

mA to about 8

mA. The

values in

Figure 6

will accomplish this, are where

obtained using the following equations;

Additional parallel resistors can be added in the same
way.

PWM Control of Display Intensity

Figure 7

. The waveforms are

shown in

Figure 8

The white in white LEDs is typically bichromatic, pro-
duced by a blue or UV LED that excites yellow phos-
phors. The two colors combine and the human eye
sees these them as white light. The forward current of
the LED influences the chromaticity, with higher LED
current increasing the blue content of the color.

Using a PWM signal allows the LEDs to be dimmed
without substantially shifting their color balance due to
chromaticity shifts related to changing white LED for-
ward current. The PWM signal causes the LEDs to
operate either at the full ISET current, or at zero cur-

rent. Only the time averaged current changes. Above a
minimum frequency, the human eye will perceive the
change in duty cycle as a change in brightness.

Figure 7. PWM applied to EN

The recommended frequency is between 100 Hz and
200 Hz, with a duty cycle greater than 20%. If a fre-
quency of less then 100 Hz is used, flicker might be
seen in the LEDs. The frequency should also be
greater than the refresh rate of the TFT display. Higher
frequencies will cause a loss of brightness control lin-
earity. In addition, higher frequency can cause chroma-
ticity shifts because the fixed rise and fall times of the
PWM signal will shift the forward current.

The PWM signal will cause the average LED current to
be reduced. The average current is determined by the
PWM duty cycle, which can vary from 0% to 100%.
Decreased Duty Cycle will linearly lower LED bright-
ness, 0% Duty Cycle will turn off the display LEDs.

Figure 8. PWM Signal Dimming

CM9130

ISET

SET

82.5k

55k

Open Drain

Controller

Output

Rset

(min)

1000

Rset

(max)

1000

LED

CM9130

VOUT

LED1

VIN

LED2

LED3

BATT

Display

GND

SET

ISET

PWM

off

LED (1,2,3)

VOUT

SET

PWM signal

Application Information (cont'd)

04/26/06

490 N. McCarthy Blvd., Milpitas, CA 95035-5112

Tel: 408.263.3214

Fax: 408.263.7846

www.cmd.com

CM9130

PRELIMINARY

CM9130 Design Examples

Cell Phone

Some mobile phone LCD displays (both STN and mini-
TFT) use white LEDs for backlighting. Light guides are
used to distribute the light uniformly behind the LCD. A
typical application is shown in

Figure 9

. The display's

intensity can be lowered by a PWM signal applied to
the EN pin, as determined by ambient light conditions.

Figure 9. Display Backlight

Camera Flash

The CM9130 can support a camera flash in digital still
cameras as well as in camera equipped smart phones
and PDAs. In this case the flash LEDs are supplied 3 x
50

mA = 150

mA. See

Figure 10

Figure 10. Flash Application

Capacitor Selection

For proper performance, use surface-mount, low ESR
ceramic capacitors for all four positions. X7R or X5R
ceramic dielectric provides good stability over the oper-
ating temperature and voltage range,

The capacitance and ESR of the external bucket
capacitors will directly affect the output impedance and
efficiency of the converter. A ceramic 1

F capacitor is

recommended.

Reflected input ripple depends on the impedance of
the V

source, such as the PCB traces and the Li-ion

battery, which have elevated impedance at higher fre-
quencies. The input capacitor located near the con-
verter input reduces this source impedance and ripple.
Any ESR from the capacitor will result in steps and
spikes in the ripple waveform, and possibly produce
EMI. Much of the ripple voltage is due to moving cur-
rent charge in and out of the capacitor and the capaci-
tor's impedance at the charge pump frequency. If ripple
voltage or current on the battery bus is an application
issue, add a small input inductor between the battery
and the capacitor, or just increase the capacitor.

For a given output current, increasing the output
capacitance reduces output ripple in the 1.5x mode.
Increasing the output capacitor will also increase star-
tup current and time. In most LED applications, high
frequency output ripple is not a concern because it will
not cause intensity variations that are visible to the
human eye.

Layout Guide

The charge pump is rapidly charging and discharging
the external capacitors, so external traces to the
capacitors should be made wide and short to minimize
inductance and high frequency ringing. The four
capacitors should be located as close as practical to
the charge pump, particularly C1 and C2, which have
the highest dv/dt. Use a solid ground plane, and con-
nect the ground side of C

, C

OUT

and the package

GND as close as practical.

CM9130

VOUT

LED1

VIN

LED2

LED3

BATT

Display

MENU

GND

SET

ISET

CM9130

VOUT

LED1

VIN

LED2

LED3

GND

SET

BATT

WLED

Flash

EN
ISET

Flash

Application Information (cont'd)

490 N. McCarthy Blvd., Milpitas, CA 95035-5112

Tel: 408.263.3214

Fax: 408.263.7846

www.cmd.com

04/26/06

CM9130

PRELIMINARY

TQFN-16 Mechanical Specifications

The CM9130 is supplied in a 16-lead, 4.0mm x 4.0mm
TQFN package. Dimensions are presented below.

For complete information on the TQFN16, see the Cal-
ifornia Micro Devices TQFN Package Information doc-
ument.

* This is an approximate number which may vary.

Package Dimensions for 16-Lead TQFN

PACKAGE DIMENSIONS

Package

TQFN-16 (4x4)

Leads

Dim.

Millimeters

Inches

Min

Nom

Max

Min

Nom

Max

0.80

0.84

0.031

0.033

0.00

0.04

0.00

0.002

0.20 REF

.008

0.25

0.33

0.010

0.013

4.0 BSC

0.157

1.95 REF

0.077

2.05

2.15

0.081

0.085

4.0 BSC

0.157

1.95 REF

0.077

2.05

2.15

0.081

0.085

0.65 TYP.

0.026

0.55

0.65

0.022

0.026

# per

tube

pieces*

# per

tape and

reel

xxxx pieces

Controlling dimension: millimeters

A3 A1

0.10 C

0.08 C

SIDE VIEW

Mechanical Package Diagrams

0.15 C

BOTTOM VIEW

TOP VIEW

0.10

C A B

16X

DAP SIZE

1.8 X 1.8

Pin 1 Marking

Mechanical Details

Ð­Ð»ÐµÐºÑ‚Ñ€Ð¾Ð½Ð½Ñ‹Ð¹ ÐºÐ¾Ð¼Ð¿Ð¾Ð½ÐµÐ½Ñ‚: CM9130

ÐÐ»ÐµÐºÑ‚Ñ€Ð¾Ð½Ð½Ñ‹Ð¹ ÐºÐ¾Ð¼Ð¿Ð¾Ð½ÐµÐ½Ñ‚: CM9130