07-03-2011, 02:42 PM
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INTRODUCTION
The theory of nonlinear dynamical systems (NDS) ,modelled after biological cellbehaviour.
The technology has the ability to encode, transmit and decode digital information powerfully over a variety of physical channels.
Accept an analog input waveform and output a set of pulse trains with predictable number of pulses in each burst, ie. we have a very powerful means of encoding digital information and communicating it over a variety of physical channels.
• BER is the measure of digital signal quality
• It is a comparision between ber rate of BPSK with that of cellonics technology.
• Here the decrease of the curve shows the decrease of bit error rate with respect to Eb/No dB.
• In the demonstration systems such as the distance of transmission and the data rates are merely for ease of prototyping purposes and are NOT the limitation of the Cellonics technology.
• At the receiver, the data is demodulated using the “N-shaped” Cellonics™ circuit, which in this case uses only two elements - an inductor in series with a tunnel diode.
• To recover the digital information, the decision device simply counts the pulses to determine if it is a logic ‘1’ or ‘0’. The recovered data is then output to an audio player for real time playback.
• New Life to Communication Devices
Carrier-rate Decoding (i.e. extremely fast decoding rate), multilevel capability (spectral efficiency), simple circuitry, low power consumption and low cost.
• Savings on Chip/ PCB Real Estate
Because of its simplicity, a receiver implemented with Cellonics can save as much as 4 times the chip real estate.
• Savings on Power
receiver consumed 3 times less power. This is possible because a Cellonics circuit is built with a few discrete components that are mostly passive and hence consume very little or negligible power.
• Savings in Implementation Time
In a receiver, the Cellonics™ circuit replaces many traditional subsystems such as the amplifier, mixer, PLL, oscillator, filter, crystal quartz, etc. that are necessary in a common Super heterodyne and Super homodyne design.
• Build or Rejuvenate your Products with Cellonics
simplicity, low cost, low power consumption of Cellonics™ makes it ideal for use in your next generation of feature-rich products that need to be small in size and long on power reserve
INTRODUCTION
The theory of nonlinear dynamical systems (NDS) ,modelled after biological cellbehaviour.
The technology has the ability to encode, transmit and decode digital information powerfully over a variety of physical channels.
Accept an analog input waveform and output a set of pulse trains with predictable number of pulses in each burst, ie. we have a very powerful means of encoding digital information and communicating it over a variety of physical channels.
• BER is the measure of digital signal quality
• It is a comparision between ber rate of BPSK with that of cellonics technology.
• Here the decrease of the curve shows the decrease of bit error rate with respect to Eb/No dB.
• In the demonstration systems such as the distance of transmission and the data rates are merely for ease of prototyping purposes and are NOT the limitation of the Cellonics technology.
• At the receiver, the data is demodulated using the “N-shaped” Cellonics™ circuit, which in this case uses only two elements - an inductor in series with a tunnel diode.
• To recover the digital information, the decision device simply counts the pulses to determine if it is a logic ‘1’ or ‘0’. The recovered data is then output to an audio player for real time playback.
• New Life to Communication Devices
Carrier-rate Decoding (i.e. extremely fast decoding rate), multilevel capability (spectral efficiency), simple circuitry, low power consumption and low cost.
• Savings on Chip/ PCB Real Estate
Because of its simplicity, a receiver implemented with Cellonics can save as much as 4 times the chip real estate.
• Savings on Power
receiver consumed 3 times less power. This is possible because a Cellonics circuit is built with a few discrete components that are mostly passive and hence consume very little or negligible power.
• Savings in Implementation Time
In a receiver, the Cellonics™ circuit replaces many traditional subsystems such as the amplifier, mixer, PLL, oscillator, filter, crystal quartz, etc. that are necessary in a common Super heterodyne and Super homodyne design.
• Build or Rejuvenate your Products with Cellonics
simplicity, low cost, low power consumption of Cellonics™ makes it ideal for use in your next generation of feature-rich products that need to be small in size and long on power reserve
