Agilent HDCP-2010
Image Processor

Data Sheet

Description
The HDCP-2010 provides a
complete image-processing
pipeline for the Agilent family of
CMOS image sensors. This part
transforms the raw output data
from the CMOS sensor into final
images using a high performance
image processor. Complete
sensor control is performed by
the HDCP-2010, including auto-
exposure, illumination compen-
sation, and auto white balance.
Data output is 4:4:4 or 4:2:2 YUV
or compressed JPEG via parallel
or serial interface.

The HDCP-2010 enables imaging
in many different types of
devices, such as handheld
computers, cellular phones, and
notebook computers. The chip-
set combination of the HDCP-
2010 and a HDCS CMOS image

sensor delivers to another device
a complete image in JPEG
format, ready for storage or
transmission. By producing a
high-quality finished picture, the
host system is relieved of all
image-processing, thus allowing
for the incorporation of imaging
technology in a wide range of
products.

For standalone imaging, the
HDCP-2010 can be coupled with
a low-cost micro-controller to
provide a complete camera
solution. The HDCP-2010 con-
tains the entire image processing
system, while the micro-control-
ler controls the image storage,
user interface and power man-
agement. The simple system
designs enabled by the HDCP-
2010 will bring imaging to new
product types and markets.

Features
· High quality image processor --

sophisticated imaging algorithms

· Fully processed image output --

Direct JPEG or YUV format

· Auto-exposure

· Auto white balance

· Pixel correction

· Versatile image pipeline -- fully

programmable gamma correction
and color balance matrices

· Demosaic

· Color space conversion

· Pixel processing rate-- 12 million

pixels/second

· Reference design and evaluation

kit available-- includes USB VGA
camera, PC drivers/software, and
schematics

Sensors Supported
· HDCS-1020 (CIF)

· HDCS-2020 (VGA)

Applications
· PDAs

· Notebook computers

· Video phones

· Low-cost digital still cameras

Package Ball Layout

The HDCP-2010 uses a 49 ball ChipArray TM.

Figure 1. Ball Grid Array (bottom view).

Table 1. Package Pin Assignment and Function.

Pin

Name

Type

Pin

Name

Type

IPC_TWIN_sdata

Input/output

Gnd

Ground

Mode_select[0]

Input

GPIO_0

Input/output

IPC_TWIN_sclk

Input

Vdd_3.3V

Power

Sensor_clock

Output

End_of_frame

Output

Sensor_nRow

Input

End_of_line

Output

Sensor_data_ready

Input

Data_ready

Output

Sensor_nReset

Output

Data_output[0]

Output

Mode_select [1]

Input

Sensor_data[0]

Input

Mode_select [2]

Input

Sensor_data[1]

Input

Reserve/NO CONNECT

Output

Sensor_data[3]

Input

GPIO_1

Input/output

Data_output[3]

Output

nPOR

Input

Data_output[1]

Output

Sensor_TWIN_data

Input/output

Data_output[2]

Output

Sensor_nFrame

Input

Sensor_data[2]

Input

VddA_1.8V

Power

Sensor_data[4]

Input

Vdd_1.8V

Power

Sensor_data[6]

Input

Crystal_output

output

Sensor_data[5]

Input

Gnd

Ground

Data_output[7]

Output

Gnd

Ground

Data_output[5]

Output

Vdd_1.8V

Power

Data_output[4]

Output

Sensor_TWIN_clock

Output

Data_output[6]

Output

Gnd

Ground

Sensor_data[8]

Input

Crystal_input

Input

Sensor_data[9]

Input

Vdd_3.3V

Power

Sensor_data[7]

Input

Gnd

Ground

Pin Descriptions

Power and Ground

Table 2. Power and Ground Pin Numbers and Descriptions.

Pin Name

Pin

Type

Function

Vdd_1.8V

C2, C6

Power

Core Vdd input 1.8V nominal

VddA_1.8V

Power

Analog Vdd input 1.8V nominal

Vdd_3.3V

D3, D7

Power

Pad Vdd input 3.3V nominal

Gnd

C4, C5, D1, D4, D5

Ground

Ground connection

Miscellaneous

Table 3. Mode Select, Clock, General Purpose Input/Output and Reset Pin Numbers and Descriptions.

Pin Name

Pin

Type

Function

Mode_select[0]

Input

Determine clock mode and place HDCP-2010 in suspend/low power mode.

Mode_select[1]

Input

See Table 3.

Mode_select[2]

Input

Crystal_output

Input/output

16 MHz crystal output in normal mode.

Crystal_input

Input

16 MHz crystal or external clock connection in normal mode. Connect to the same
clock (48 MHz) signal as Crystal_output when operating in external mode.

GPIO_0

Input/output

General-purpose input/output connection. Controlled through GPIO register.

GPIO_1

Input/output

General-purpose input/output connection. Controlled through GPIO register.

nPOR

Input

Active low power on reset connection (hold for 100 msec during power on).

Table 4. Clocking and Suspend/Low Power Modes.

Input Logic Level

Mode

Description

Mode_select[2]

Mode_select[1]

Mode_select[0]

Normal

Use crystal/external clock plus internal PLL

External

Use external clock and bypass internal PLL

Tri-state

Tri-state all pads

Two Wire Serial Interface

Table 5. Two Wire Serial Interface (TWIN) Pin Numbers and Descriptions.

Pin Name

Pin

Type

Function

IPC_TWIN_sclk

Input

Receive serial data transfer synchronization signal (SCLK) from a master device.

IPC_TWIN_sdata

Input/output

Send/receive serial data signal (SDATA).

Pin Descriptions,

continued

HDCP-2010 Image Data Output

Table 6. Image Data Output Pin Numbers and Descriptions.

Pin Name

Pin

Type

Function

Data_ready

Output

Transmit Data_ready signal when in parallel output mode. In serial output mode,
Data_ready provides a serial synchronization signal.

End_of_line

Output

Transmit End_of_line signal indicating that an image row has been transmitted
when in parallel mode. In serial mode, End_of_line signals data valid.

End_of_frame

Output

Transmit End_of_frame signal indicating last byte of frame and between frame
states in both parallel and serial modes.

Data_output[0]

Output

Output 8-bit parallel data in parallel mode. In serial mode, Data_output[7] transmits

Data_output[1]

Output

serialized data stream.

Data_output[2]

Output

Data_output[3]

Output

Data_output[4]

Output

Data_output[5]

Output

Data_output[6]

Output

Data_output[7]

Output

Agilent CMOS Sensor Interface

Table 7. Image Sensor Interface Pin Numbers and Descriptions.

Pin Name

Pin

Type

Function

Sensor_clock

Output

Provide system clock signal to image sensor.

Sensor_nReset

Output

Transmit initialization signal to image sensor.

Sensor_TWIN_clock

Output

Transmit serial data transfer synchronization signal.

Sensor_TWIN_data

Input/output

Serial data transmission. This line is used to configure and monitor the sensor.

Sensor_data_ready

Input

Receive data ready signal from image sensor.

Sensor_nRow

Input

Receive signal indicating that an image row has been transmitted.

Sensor_nFrame

Input

Receive signal indicating that an entire image frame has been transmitted.

Sensor_data[0]

Input

Receive parallel digitized pixel data from the image sensor.

Sensor_data[1]

Input

Sensor_data[2]

Input

Sensor_data[3]

Input

Sensor_data[4]

Input

Sensor_data[5]

Input

Sensor_data[6]

Input

Sensor_data[7]

Input

Sensor_data[8]

Input

Sensor_data[9]

Input

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