throbber
http://www.sony.net/Products/SC-HP/cx_news/vol45/np_icx629.html
`
`2 captures
`8 Jan 2009 - 3 Dec 2016
`
`Go DEC JAN DEC
`08
`2008 2009 2016
`
`👤 ⍰ ❎
`
`
`f 🐦
`▾ About this capture
`
`Support & Contact Us
` Advanced Search
`
`
`HOME > CX-NEWS > Back Number > CX-NEWS Vol.45> New Products
`
`New Product_image
`
`..
`
` High-Resolution Diagonal 7.208 mm (Type 1/2.5)
`7.24M-Effective Pixel Digital Still Camera CCDs for
`Consumer Products Support VGA Resolution Moving
`Picture Imaging
`
`ICX629 Series
`[ICX629AQN/CQV/CQZ]
`
`The compact digital still camera market is now seeing stronger
`demands for higher ISO sensitivities in addition to the earlier
`desires for higher resolution.
`In particular, the market continues to demand evolution in image
`sensors in terms of both smaller pixels sizes and improved
`performance, i.e. higher sensitivity, wider dynamic range, and
`lower noise.
`To respond to these needs, Sony has further improved their
`unique fine fabrication technologies to develop and now release
`the ICX629AQN/CQV/ CQZ diagonal 7.208 mm (Type 1/2.5)
`7.24M-effective pixel interline CCDs.
`These CCDs feature the industry’s smallest unit pixel (1.86 μm)
`yet still achieve superb imaging qualities. These new products
`also include a horizontal and vertical pixel addition function that
`makes it possible for them to achieve 30 frame/s VGA resolution
`moving picture imaging.
`
` ICX629 Series[ICX629AQN/CQV/CQZ]
`* Diagonal 7.208 mm (Type 1/2.5), 7.24M effective pixels (3112H × 2328V)
`* Pixel size: 1.86 μm unit pixel
`* 5-field readout
`* Supports 30 frame/s VGA moving picture imaging
`
`..
`
` Cameras with Type 1/2.5 optical size, good high-ISO sensitivity characteristics, and a resolution of
`6M pixels or higher are expected to become the mainstream in the consumer digital still camera
`market.
`Sony has led the industry in grasping this trend, and in addition to Type 1/2.5 6M-pixel CCDs (the
`ICX624 Series) is now releasing the high-performance 7M-pixel ICX629AQN/CQV/CQZ CCDs (the
`ICX629 Series), which are based on an even further evolution of Sony’s unique fine fabrication
`technologies. (See table 1.)
` Pixel Miniaturization
`By miniaturizing the earlier 2.03 μm unit pixel to a 1.86 μm unit pixel size, which is the industry’s
`smallest unit pixel, Sony has achieved a significant increase in the pixel count in the Type 1/2.5 CCD.
`At the same time, Sony maximized the sizes of the photodiode and the pixel aperture area (see figure
`1), which determine the basic characteristics of the image sensor, to achieve high performance in the
`sensitivity, saturation signal level (dynamic range), and smear characteristics. As a result, even
`though the pixel area was reduced by 16% compared to the 2.03 μm unit pixel, Sony was able to
`maintain the pixel aperture area and photodiode size at essentially the same level as the earlier
`
`APPL-1029 / Page 1 of 4
`APPLE INC. v. COREPHOTONICS LTD.
`
`

`

`👤 ⍰ ❎
`
`
`f 🐦
`▾ About this capture
`
`products by, for example, reducing the size of the vertical transfer register by 16%.
`Go DEC JAN DEC
`http://www.sony.net/Products/SC-HP/cx_news/vol45/np_icx629.html
`08
`Sony also increased the incident light transmittance to the pixel by approximately 15% and improved
`2 captures
`the condensing efficiency by approximately 10%.
` Pixel Characteristics
`2008 2009 2016
`8 Jan 2009 - 3 Dec 2016
`The basic characteristics were improved by about 20% on a per unit area basis from the 2.03 μm unit
`pixel CCDs by these pixel size reducing and basic characteristics improvement technologies. This
`allowed Sony to achieve equivalent or better sensitivity and saturation signal level characteristics
`than the earlier products. (See table 2.)
` Open Source Output Circuit
`In the ICX629 Series, Sony has moved some of the output circuit MOSFETs, which are the largest
`heat sources in the CCD, outside the chip to suppress noise during dark subject imaging. Thus the
`output pin circuits have an open source structure. (See figure 2.) This reduces the CCD internal heat
`generation and reduces the dark current generated from the pixels by about 10% compared to the
`earlier products.
` Buffer IC
`Sony provides the high-speed/low-power CXA3691EN as a buffer IC to handle the open source
`output circuits. It is thought that in the future, the open source output circuit will become standard as a
`noise reduction technology. We strongly recommend that you take advantage of the CXA3691EN
`along with the ICX629 Series CCDs in your next digital still camera product.
`
`•••• Mr. KANI ••••
`Voice face Although we needed many trial and error steps in the development stage, all of the
`team members worked together to advance Sony’s unique fine fabrication
`technology and we succeeded in breaking the 2.0 μm unit pixel size barrier while
`retaining high performance.
`I strongly recommend that you take advantage of the trend-leading ICX629 Series
`devices.
`
`See all articles with figures and tables.
`
` Vol.45
`
`[ Back ]
`
` HOME | Site Map | Information | CX-NEWS
`
`About this Site
`
`Terms of Use
`
`Copyright 2009 Sony Corporation
`
`APPL-1029 / Page 2 of 4
`APPLE INC. v. COREPHOTONICS LTD.
`
`

`

`High-Resolution Diagonal 7.208 mm (Type 1/2.5) 7.24M-Effective Pixel Digital Still Camera CCDs
`for Consumer Products Support VGA Resolution Moving Picture Imaging
`
`ICX629 Series
`[ICX629AQN/CQV/CQZ]
`
`The compact digital still camera market is now seeing stronger demands
`for higher ISO sensitivities in addition to the earlier desires for higher reso-
`lution. In particular, the market continues to demand evolution in image
`sensors in terms of both smaller pixels sizes and improved performance,
`i.e. higher sensitivity, wider dynamic range, and lower noise.
`To respond to these needs, Sony has further improved their unique fine
`fabrication technologies to develop and now release the ICX629AQN/CQV/
`CQZ diagonal 7.208 mm (Type 1/2.5) 7.24M-effective pixel interline CCDs.
`These CCDs feature the industry’s smallest unit pixel (1.86 µµµµµm) yet still
`achieve superb imaging qualities. These new products also include a hori-
`zontal and vertical pixel addition function that makes it possible for them
`to achieve 30 frame/s VGA resolution moving picture imaging.
`
`■ Diagonal 7.208 mm (Type 1/2.5),
`7.24M effective pixels
`(3112H × 2328V)
`■ Pixel size: 1.86 µµµµµm unit pixel
`■ 5-field readout
`
`■ Supports 30 frame/s VGA mov-
`ing picture imaging
`
`Cameras with Type 1/2.5 optical size,
`good high-ISO sensitivity characteristics,
`and a resolution of 6M pixels or higher
`are expected to become the mainstream in
`the consumer digital still camera market.
`Sony has led the industry in grasping this
`trend, and in addition to Type 1/2.5 6M-
`pixel CCDs (the ICX624 Series) is now
`releasing the high-performance 7M-pixel
`ICX629AQN/CQV/CQZ CCDs (the
`ICX629 Series), which are based on an
`even further evolution of Sony’s unique
`fine fabrication technologies. (See table 1.)
`
`V
`
`O
`
`I
`
`C
`
`E
`
`Although we needed many trial
`and error steps in the develop-
`ment stage, all of the team mem-
`bers worked together to advance
`Sony’s unique fine fabrication
`technology and we succeeded in
`breaking the 2.0 µµµµµm unit pixel size
`barrier while retaining high perfor-
`mance. I strongly recommend that
`you take advantage of the trend-
`leading ICX629 Series devices.
`
`Pixel Miniaturization
`By miniaturizing the earlier 2.03 µm unit
`pixel to a 1.86 µm unit pixel size, which
`is the industry’s smallest unit pixel, Sony
`has achieved a significant increase in the
`pixel count in the Type 1/2.5 CCD. At the
`same time, Sony maximized the sizes of
`the photodiode and the pixel aperture area
`(see figure 1), which determine the basic
`characteristics of the image sensor, to
`achieve high performance in the sensitiv-
`ity, saturation signal level (dynamic
`range), and smear characteristics. As a
`result, even though the pixel area was re-
`duced by 16% compared to the 2.03 µm
`unit pixel, Sony was able to maintain the
`pixel aperture area and photodiode size at
`essentially the same level as the earlier
`products by, for example, reducing the size
`of the vertical transfer register by 16%.
`Sony also increased the incident light
`transmittance to the pixel by approxi-
`mately 15% and improved the condens-
`ing efficiency by approximately 10%.
`
`Pixel Characteristics
`The basic characteristics were improved
`by about 20% on a per unit area basis from
`the 2.03 µm unit pixel CCDs by these pixel
`size reducing and basic characteristics
`improvement technologies. This allowed
`Sony to achieve equivalent or better sen-
`sitivity and saturation signal level charac-
`
`teristics than the earlier products. (See
`table 2.)
`
`Open Source Output Circuit
`In the ICX629 Series, Sony has moved
`some of the output circuit MOSFETs,
`which are the largest heat sources in the
`CCD, outside the chip to suppress noise
`during dark subject imaging. Thus the
`output pin circuits have an open source
`structure. (See figure 2.) This reduces the
`CCD internal heat generation and reduces
`the dark current generated from the pixels
`by about 10% compared to the earlier
`products.
`
`Buffer IC
`Sony provides the high-speed/low-power
`CXA3691EN as a buffer IC to handle the
`open source output circuits. It is thought
`that in the future, the open source output
`circuit will become standard as a noise
`reduction technology. We strongly recom-
`mend that you take advantage of the
`CXA3691EN along with the ICX629
`Series CCDs in your next digital still cam-
`era product.
`
`APPL-1029 / Page 3 of 4
`APPLE INC. v. COREPHOTONICS LTD.
`
`

`

`Earlier Sony Product (ICX624)
`
`ICX629 Series
`
`Microlens
`
`Light rays
`
`Light rays
`
`Microlens
`
`Transmittance: increased 15%
`Condensing efficiency:
` increased 10%
`
`Light rays
`
`Light rays
`
`Poly Si
`
`Vertical register
`
`Photodiode
`
`Vertical register
`size reduced by
`16%
`
`Poly Si
`
`Vertical
`register
`
`Photodiode
`
`An equivalent
`aperture is
`assured
`
`Pixel size: 2.03 µm
`
`Pixel size: 1.86 µm
`
`■ Figure 1 Reducing the Pixel Size
`
`Earlier Sony Products
`
`CCD chip
`
`ICX629 Series
`
`CCD chip
`
`Pixel area
`
`OUT
`
`Pixel area
`
`OUT
`
`Output circuit
`block
`
`Output circuit
`block
`
`Dark current generated in the pixel block reduced by
`approximately 10%.
`
`■ Figure 2 Open Source Circuit Adopted
`
`■ Table 1 Device Structure
`
`■ Table 2 Image Sensor Characteristics
`
`ICX629 Series
`
`Item
`
`Sensitivity (G signal)
`
`Saturation
`signal
`
`Frame readout mode
`4/10-line readout mode∗1
`4/20-line readout mode∗1
`Frame readout mode
`
`Smear
`
`4/10-line readout mode
`
`–79 dB (Typ.)
`
`4/20-line readout mode
`
`–73 dB (Typ.)
`
`ICX629 Series
`
`170 mV (Typ.)
`
`420 mV (Min.)
`
`200 mV (Min.)
`
`200 mV (Min.)
`
`–87 dB (Typ.)
`
`Remarks
`3200K, 706 cd/m2,
`1/30 s accumulation, F5.6
`
`Ta = 60°C, per pixel
`
`None when a mechanical
`shutter is used, V/10 method,
`F5.6
`
`Item
`
`Image size
`
`Transfer method
`
`Readout method
`
`Total number of pixels
`
`Number of effective pixels
`
`Number of active pixels
`Number of recommended
`recording pixels
`(Aspect ratio: 4:3)
`
`Unit cell size
`
`Horizontal drive frequency
`
`Package
`
`Diagonal 7.208 mm (Type 1/2.5)
`
`Frame readout interline transfer method
`
`5-field readout
`Approx. 7.41M (3164H × 2342V)
`Approx. 7.24M (3112H × 2328V)
`Approx. 7.20M (3104H × 2320V)
`
`Approx. 7.08M (3072H × 2304V)
`
`1.86 µm (H) × 1.86 µm (V)
`33.75MHz
`AQN: 28-pin SOP (Plastic)
`CQV: 28-pin SON (Ceramic)
`CQZ: 27-pin QFN (Ceramic)
`
`Frame readout mode
`4/10-line readout mode∗1
`4/20-line readout mode∗1
`∗1: With horizontal addition
`∗2: During the horizontal addition operation, two lines of signal are output in a single horizontal period.
`Note: This device was designed for use in consumer digital still cameras and may not be appropriate for other applications. Contact your Sony representative for
` consultation when considering this product for use in other applications.
`
`Frame
`rate
`
`3.33 frame/s
`
`30 frame/s
`60 frame/s
`
`Number of output lines: 466 lines∗2
`Number of output lines: 232 lines∗2
`
`APPL-1029 / Page 4 of 4
`APPLE INC. v. COREPHOTONICS LTD.
`
`

This document is available on Docket Alarm but you must sign up to view it.


Or .

Accessing this document will incur an additional charge of $.

After purchase, you can access this document again without charge.

Accept $ Charge
throbber

Still Working On It

This document is taking longer than usual to download. This can happen if we need to contact the court directly to obtain the document and their servers are running slowly.

Give it another minute or two to complete, and then try the refresh button.

throbber

A few More Minutes ... Still Working

It can take up to 5 minutes for us to download a document if the court servers are running slowly.

Thank you for your continued patience.

This document could not be displayed.

We could not find this document within its docket. Please go back to the docket page and check the link. If that does not work, go back to the docket and refresh it to pull the newest information.

Your account does not support viewing this document.

You need a Paid Account to view this document. Click here to change your account type.

Your account does not support viewing this document.

Set your membership status to view this document.

With a Docket Alarm membership, you'll get a whole lot more, including:

  • Up-to-date information for this case.
  • Email alerts whenever there is an update.
  • Full text search for other cases.
  • Get email alerts whenever a new case matches your search.

Become a Member

One Moment Please

The filing “” is large (MB) and is being downloaded.

Please refresh this page in a few minutes to see if the filing has been downloaded. The filing will also be emailed to you when the download completes.

Your document is on its way!

If you do not receive the document in five minutes, contact support at support@docketalarm.com.

Sealed Document

We are unable to display this document, it may be under a court ordered seal.

If you have proper credentials to access the file, you may proceed directly to the court's system using your government issued username and password.


Access Government Site

We are redirecting you
to a mobile optimized page.





Document Unreadable or Corrupt

Refresh this Document
Go to the Docket

We are unable to display this document.

Refresh this Document
Go to the Docket