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| Exploit the potential of high-performance CMOS by selecting best interface | Go-WWW |
| Signal-integrity modeling of gigabit backplanes, cables, and connectors using TDR | Go-WWW | |
| Growing your own IC clock tree | Go-WWW | |
| Breaking up a pair | Go-WWW | |
| Differential signaling | Go-WWW | |
| Protecting high-speed buses at 1 Gbps and beyond | Go-WWW | |
| Testing gigabit serial buses: First, get physical | Go-WWW | |
| High-Speed Digital Design | Go-WWW | |
| Really cool bus | Go-WWW | |
| Comparators form 3 to 5V or 5 to 3V translator/transceiver | Go-WWW | |
| Driving two loads | Go-WWW | |
| Use local bypass capacitors to meet rigorous high-speed-system demands | Go-WWW | |
| Clock-jitter propagation | Go-WWW | |
| Don't let rules of thumb set decoupling-capacitor values | Go-WWW | |
| Design and layout rules eliminate noise coupling in communication systems | Go-WWW | |
| Useful Tips Ease Interfacing Of Logic Devices In Mixed 3-V And 5-V Systems | Go-WWW | |
| Choose termination and topology to maximize signal integrity and timing | Go-WWW | |
| Minimize Ringing | Go-WWW | |
| TTL to RS-232 interfacing | Go-WWW | |
| Equalizing cables | Go-WWW | |
| Circuit converts between TTL and shifted ECL | Go-WWW | |
| Grounding Rules for High Speed Circuits | Go-WWW | |
| Designing with PECL (ECL at +5.0V) | Go-WWW | |
| Decoupling capacitors: use them or fail | Go-WWW | |
| Crosstalk, The Practical Way | Go-WWW | |
| Characteristic impedance of lossy line | Go-WWW | |
| Differential-to-common-mode conversion | Go-WWW | |
| Beware of analog effects in pc-board conductors of fast digital systems | Go-WWW | |
| Negative Delay | Go-WWW | |
| Modeling and simulation capabilities smooth signal-integrity problems | Go-WWW | |
| Reducing Emissions | Go-WWW | |
| Mysterious ground | Go-WWW | |
| Why 50 ohms? | Go-WWW | |
| Interfacing between CML, PECL and LVDS requires level-shift components | Go-WWW | |
| High-speed-connector systems | Go-WWW | |
| Ground Bouche in 8-Bit High Speed Logic | Go-WWW | |
| Useful Tips Ease Interfacing Of Logic Devices In Mixed 3-V And 5-V Systems.(Technology Information) | Go-WWW | |
| Differential receivers tolerate high-frequency losses | Go-WWW | |
| Ground Bounce in CMOS Devices | Go-WWW | |
| Two-transistor circuit replaces IC | Go-WWW | |
| High-speed connectors' electrical properties eclipse mechanical traits | Go-WWW | |
| Low-cost circuit programs EEPROMs | Go-WWW | |
| How to make a processor with the delay between instructions less than a half nano second in standard 1u CMOS. (GHz instruction frequence) | Go-WWW | |
| Reducing EMI with differential signaling | Go-WWW | |
| Signal Integrity: Words of wisdom | Go-WWW | |
| Ground-current control enhances dynamic range in high-speed circuits | Go-WWW | |
| Mixed Voltage Systems: Interfacing 3.3 Volt and 5 Volt devices | Go-WWW | |
| Modeling skin effect | Go-WWW | |
| Solving signal-integrity problems in high-speed digital systems | Go-WWW | |
| Designing for minimal jitter when using clock buffers | Go-WWW | |
| The nuts and bolts of signal-integrity analysis | Go-WWW | |
| PC-board layout eases high-speed transmission | Go-WWW | |
| Both-ends termination | Go-WWW | |
| Delivering the High-Speed Clock: It's Not Easy To Be On Time | Go-WWW | |
| Two transistors form bidirectional level translator | Go-WWW | |
| Practical timing analysis for 100-MHz digital designs | Go-WWW | |
| Tapered transitions | Go-WWW | |
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