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This deck focuses on Evaluate Digital Vs Analog Transmission, giving you a quick way to review the definitions, rules, and examples that matter most for Physics.
Study Evaluate Digital Vs Analog Transmission in Physics with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
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Which transmission type is usually easier to encrypt securely for privacy and authentication?
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Digital transmission. Binary data allows mathematical encryption algorithms to be applied directly.
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This deck focuses on Evaluate Digital Vs Analog Transmission, giving you a quick way to review the definitions, rules, and examples that matter most for Physics.
Work through these flashcards in short sessions. Try to answer each prompt before flipping the card, then revisit any cards you miss until the explanation feels automatic.
Answer: Digital transmission. Binary data allows mathematical encryption algorithms to be applied directly.
Answer: Noise adds and cannot be removed, so distortion accumulates. Each amplifier adds more noise that becomes inseparable from the signal.
Answer: Regeneration (using digital repeaters). Restores degraded signals to original bit values.
Answer: Digital. Time-division multiplexing efficiently shares bandwidth.
Answer: Digital transmission. Digital data can use algorithms to reduce redundancy efficiently.
Answer: Analog. Each copy adds new noise to the signal.
Answer: Small noise does not change the detected bit if thresholds are met. Binary detection has built-in noise margin.
Answer: Digital. Perfect bit copies maintain original quality.
Answer: Analog transmission. Continuous signals degrade smoothly, while digital fails abruptly at threshold.
Answer: Noise and distortion add directly to the signal and accumulate. Cannot separate noise from original signal.
Answer: Quality continuously worsens (more hiss, distortion, or snow). Analog degradation is gradual as noise increasingly corrupts signal.
Answer: It can avoid conversion and processing delays from digitization. No ADC/DAC conversion time required.
Answer: Digital. ADCs, DACs, and processing circuits add complexity.
Answer: It may require more bandwidth than an equivalent analog signal. Each bit needs transmission time, potentially exceeding analog bandwidth.
Answer: Analog. Direct wire connection without conversion circuitry.
Answer: Digital. Binary data uses established cryptographic algorithms.
Answer: Analog transmission. No ADC/DAC needed; signal can be directly amplified as-is.
Answer: Repeaters regenerate bits instead of amplifying noise. Digital repeaters recreate clean bits; analog amplifiers boost noise too.
Answer: Multiplexing (especially time-division multiplexing). TDM assigns time slots to different digital streams on one channel.
Answer: Digital. Binary data allows parity bits and checksums.
Answer: It supports error detection and error correction coding. Extra bits can detect/fix errors using mathematical redundancy.
Answer: It introduces quantization error and possible loss of fine detail. Finite sampling cannot capture all analog variations.
Answer: Analog transmission. Simple analog receivers (like AM radios) are cheaper than digital decoders.
Answer: A signal represented by discrete levels, typically binary 0 and 1. Binary representation allows exact reproduction and noise immunity.
Answer: Digital. Repeaters detect bits and retransmit clean signals.
Answer: Analog. Degrades smoothly vs digital's cliff effect.
Answer: A continuously varying signal with infinitely many possible values. Infinite values between any two points enable smooth representation.
Answer: Bit errors occur once noise causes wrong level decisions. Noise flips bits when it pushes signal beyond decision boundary.
Answer: It can be regenerated to the original bit pattern. Repeaters can perfectly reconstruct 0s and 1s, eliminating accumulated noise.
Answer: Quantization error (quantization noise). Rounding continuous values to discrete levels introduces error.
Answer: Digital transmission. Natural signals are analog and must be sampled/quantized first.
Answer: Digital transmission. Discrete levels (0s and 1s) make it easier to distinguish signal from noise.
Answer: No sampling/encoding step, so processing delay can be lower. Direct transmission avoids ADC/DAC conversion delays.
Answer: Digital. Most sensors produce analog voltages initially.
Answer: Digital transmission. Regeneration prevents noise accumulation over distance.
Answer: Digital transmission/recording. Digital copies are perfect clones; analog copies accumulate noise.
Answer: Analog transmission. No sampling means no quantization artifacts.
Answer: Analog. Noise adds directly to signal and cannot be separated.
Answer: Analog transmission. No discrete steps means infinite resolution of the original signal.
Answer: Copies reproduce the same discrete bits, not a varying waveform. Digital copying reproduces exact bit patterns, not degraded waveforms.