Vendor: Analog Bits Inc. Category: High-Speed

Differential Output Driver on TSMC CLN3E

The Differential Output Driver macros provide a low noise, high performance differential output clock.

Overview

The Differential Output Driver macros provide a low noise, high performance differential output clock. The output driver design implements a push-pull differential driver which provides a nominal source driver resistance of 50 ohms (single-ended).

The output driver is implemented in Analog Bits’ proprietary architecture that uses core devices only. There is only one power supply so there are no power-up/power-down sequence restrictions.

Differential Output Buffer Operational Range Description Symbol Min Typ Max Units Input Frequency FCLK 5 100 600 MHz Input Duty Cycle tDI 40 60 % Output Duty Cycle TDO 45 55 % Driver Series Resistor (Single Ended) RS 50 Ohm Output Slew Rate Trf 4 16 V/ns Output Crossing Voltage VCROSS 0.25 0.55 V Output Variation of Common Mode Voltage VCM DELTA 140 mV Output Voltage High (single ended unterminated) VHIGH 0.825 V Output to Output Pad Skew Tskew -50 50 ps Output Slew Rate Matching ΔTrf 20 % Area A 0.0084 sq.mm Total Power @ 600MHz (terminated) IDD 7 9 mW Total Power @ 600MHz (unterminated) IDD 3.5 5 mW Operational Voltage (Analog) VDDA 0.675 0.75 0.825 V Operational Temperature TOP -40 25 125 C Differential Output Buffer Functional Specification

Key features

  • Wide output frequency range support for diverse clocking needs
  • Implemented with Analog Bits’ proprietary architecture
  • Low power consumption
  • Requires no additional on-chip components or band-gaps, minimizing power consumption

Silicon Options

Foundry Node Process Maturity
TSMC 3nm N3E

Specifications

Identity

Part Number
Differential Output Driver on TSMC CLN3E
Vendor
Analog Bits Inc.
Type
Silicon IP

Files

Note: some files may require an NDA depending on provider policy.

Provider

Learn more about High-Speed IP core

M31 High-Speed and Long-Channel MIPI C/D-PHY Solution on TSMC N3P/N3C

With the rapid growth of AR/VR and high-resolution imaging systems such as drones and action cameras, MIPI CSI (Camera Serial Interface) and MIPI DSI (Display Serial Interface) require both high data throughput and low power consumption. M31 provides a MIPI C-PHY and D-PHY IP combo solution implemented on TSMC N3P and N3C processes.

High-Speed SerDes Design: Architecture, Equalization, and CDR Circuits

Today, High-Speed SerDes serves as the foundation of industry standards such as PCIe, Ethernet, USB, and UCIe, making it a critical technology for modern semiconductor systems. As the industry progresses towards higher data rates and increasingly complex architectures, SerDes continues to play a central role in enabling reliable and scalable connectivity, especially at lower nodes.

PCIe 5.0: The universal high-speed interconnect for High Bandwidth and Low Latency Applications Design Challenges & Solutions

Innosilicon, a leading IP provider, offers a complete PCIe 5.0 solution stack that includes both PHY and controller IPs. Although both layers are crucial to achieving a fully compliant and high-performance PCIe interface, this paper deep dives into the technical challenges of PHY design, highlighting insights drawn from real-world design margins, receiver robustness, and advanced jitter analysis in the context of Gen5 systems.

Frequently asked questions about High-Speed I/O Pad IP

What is Differential Output Driver on TSMC CLN3E?

Differential Output Driver on TSMC CLN3E is a High-Speed IP core from Analog Bits Inc. listed on Semi IP Hub. It is listed with support for tsmc.

How should engineers evaluate this High-Speed?

Engineers should review the overview, key features, supported foundries and nodes, maturity, deliverables, and provider information before shortlisting this High-Speed IP.

Can this semiconductor IP be compared with similar products?

Yes. Buyers can compare this product with similar semiconductor IP cores or IP families based on category, provider, process options, and structured technical specifications.

×
Semiconductor IP