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How about me?
I am a PCM [Pulse Code Modulation] audio device. My ADC and
DAC are not magnetic but UV laser. My ADC and DAC use 400 nm lasers for the conversions. Once digital everything is magnetic and vulnerable to disruption until the DAC. My Bit-Resolution: unlimited My Bandwidth: unlimited My Sample Rate: unlimited My Headroom: unlimited My SNR: unlimited My SPL: unlimited My Dynamic Range: unlimited My Frequency Response: 1 KHz and higher all the way to infinity Inductive Crosstalk: infinitely sensitive My Advantages: Can handle unlimited amount of decibels without clipping. Can handle high-frequencies [1 KHz and above]. No noise. No 'stammering'. Can amplify an infititely soft signal and make it infinitely loud. My Disadvangtages: I am sensitive to the slightest amount of magnetic interference. An immeasureably weak magnetic disruption occuring from an immeasreably large distance away can gravely affect me.* *My ADC and DAC don't have this drawback because they use 400 nm lasers and not magnetism. Each of my digital magnetic transistors contain many PCM receivers including those that pick up disruption. My audio is thus polluted w/ digital magnetic interference. Here's the scoop: 1. Signal enters ADC 2. Convert to PAM 3. Convert to PCM 4. Convert optical PCM to magnetic PCM 5. Decrease volume of sound indefinitely 6. Amplify volume of sound until loud enough for human ear to perceive 7. On receiving end, convert magnetic PCM back to optical PCM 8. Convert PCM back to PAM 9. Convert to analog via DAC Steps 1-4 and 7-9 are done w/ 400 nm lasers. The speakers' material responds to UV by vibrating analogously. Steps 5 and 6 are repeateadly from the transmitting end to the receiving end. This result in inductive crosstalk. Since I am a parallel device, I am even more sensitive to this crosstalk! |