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Overview
Mixed-signal integration into system-on-chips has become common these days. Integrating analog functions cuts system BOM cost, lowers board-space, and improves power-consumption. Often times, the analog functions to be integrated are non-standard. They would have to be tailored for the application. However, developing the analog functions internally usually distracts away from the core system design and can be expensive. Analog functions, due to their nature, could end up being a long-drawn design activity and cost time-to-market for SoC design companies. Moreover, the kind of functions that need integration can be varied. For example, the requirement might include an analog-to-digital converter, a digital-to-analog converter, a PLL and a voltage regulator. It becomes virtually impossible for startups and new business entities to develop this internally in reasonable time, making it necessary to procure these functions from outside.
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Mixed-signal integration into system-on-chips has become common these days. Integrating analog functions cuts system BOM cost, lowers board-space, and improves power-consumption. Often times, the analog functions to be integrated are non-standard. They would have to be tailored for the application. However, developing the analog functions internally usually distracts away from the core system design and can be expensive. Analog functions, due to their nature, could end up being a long-drawn design activity and cost time-to-market for SoC design companies. Moreover, the kind of functions that need integration can be varied. For example, the requirement might include an analog-to-digital converter, a digital-to-analog converter, a PLL and a voltage regulator. It becomes virtually impossible for startups and new business entities to develop this internally in reasonable time, making it necessary to procure these functions from outside.
The Result:
- Quicker and hence time-to-market advantage
- Possible with high confidence on success of the project
- Optimal for the system application
- Cost effective with a low total cost of ownership
- And best of all, a differentiated solution
- Reduce BOM cost, increase battery life, and reduce board real-estate by integrating power-regulators on-chip.
- Cosmic’s Power-On-SoC family includes DC-DC buck and boost converters, LDO regulators and charge-pumps.
- Ability to connect directly to battery and USB power.
- Battery charger for SoC integration
- For monitoring applications
- 8-10 resolution and 200KHz to 20MHz operation
- Portfolio of more than 20 converters
- For Video, Graphics and Communications applications
- Up to 12-bit 200MHz performance
- Low power and die-area
- With hooks for Video and Graphics
- Available as Double or Triple in 90nm and 130nm
- For Wireless-LAN, WiMax, DVB and other wireless applications
- Platform of data-converter cores
- Low-area with multi-channel (MIM)
- Low-power suitable for battery powered applications
- Unique amplifier-less architecture
- For Portable and Consumer applications
- 18-bit high-performance Sigma-Delta DAC for superior quality audio
- Audio quality Class-AB amplifier
- Digital Class-D amplifiers to increase battery life
- 16-bit Audio Sigma-Delta ADC
- For Communications and Video
- Triple Video DAC in 65nm
- Dual matched DACs silicon proven in 90nm and 65nm
- Fractional and Integer PLLs
- Low-jitter performance, High PSRR
- Pll Silicon oscillators and Crystal oscillators
- Frequency up to 2.4GHz
- Accurate temperature sensors with digital readout
- Uses a 14-bit sigma-delta A/D converter
- Configurable with multiple on-chip sensors
- MIPI D-PHY Standard Version 0.9 compliant transmitter and receiver
- Up to 1Gbps performance
- Includes PLL