More useful work per evaluation — with less duplicated logic, lower switching power, and better sustained throughput.
SoftChip is developing DRDCL-based near-memory reduction technology for AI inference and other reduction-heavy workloads. Our first application, Soft-NMC, reduces K/V-derived traffic before it crosses the wider memory interface and compute fabric.
Conventional digital logic decomposes computation across many gates and stages.
That increases:
SoftChip takes a different approach.
DRDCL uses differential cascode tree structures with dynamic Cross-Switch output selection. One evaluated tree can support multiple related functions and produce multiple useful outputs per evaluation.
Instead of building separate fixed paths for every related score, select, mask, or control function, DRDCL does more useful work inside fewer evaluated structures.
Instead of hardwiring separate fixed CMOS networks for every function, DRDCL can reuse the same evaluated structure across related operations and, in some cases, produce multiple useful outputs from one evaluation.
The result is not just smaller logic.
It is more useful work per evaluation.
SoftChip’s advantage starts with shared evaluation.
DRDCL can reduce the number of logic stages and duplicated transistor structures required for complex or related operations.
In DRDCL, density is not the starting assumption.
It is the result of doing more useful computation inside fewer structures.

SoftChip’s first commercial products are bounded DRDCL logic blocks designed to be evaluated, characterized, and integrated into existing semiconductor design flows.
These blocks include DRDCL differential cascode trees, Cross-Switch control, precharge/evaluate timing, conventional digital interfaces, and timing/power/area characterization.
This lets customers evaluate DRDCL in specific high-value functions before considering broader DRDCL-enabled architectures.
SoftChip’s first focus is Stream / Reduce / Accumulate logic for workloads that repeatedly score, reduce, accumulate, gate, or update local state as data moves through a system.
These paths appear in AI inference, memory-interface logic, networking, signal processing, sensor fusion, ADAS, and control/dataflow systems.
The goal is to reduce intermediate movement by performing useful local reduction as data streams through the block.
AI inference is increasingly constrained by K/V traffic movement, not peak compute. As context windows grow, attention repeatedly revisits prior K/V entries during decode.
Soft-NMC applies DRDCL near the memory interface to reduce K/V-derived traffic before it travels deeper into the accelerator.
Soft-NMC does not change what attention computes. It changes where selected reduction happens.
SoftChip’s core technology is DRDCL — Dynamically Reconfigurable Differential Cascode Logic.
DRDCL builds on foundational differential cascode logic developed at IBM and extends it with dynamic Cross-Switch reconfiguration.
The result is a logic structure that can share evaluation across related functions and, in some configurations, generate multiple useful outputs from the same input evaluation.
This foundation enables new classes of macro IP for AI, memory-interface logic, control/dataflow, arithmetic, and adaptive compute.
SoftChip works with semiconductor, AI hardware, and foundry ecosystem partners to evaluate DRDCL logic IP against equivalent conventional CMOS implementations.
Initial engagements focus on bounded, characterizable logic blocks with clear PPA targets, integration assumptions, and benchmark criteria.
Soft-NMC, Soft-TTC, and future DRDCL-enabled architectures build on this characterizable-logic foundation.