This release presents CFMA v1.1.0 - Complex-Frequency Threshold Writing, an AI-assisted theoretical research project investigating whether complex-frequency temporal optical control can provide a programmable instruction layer for future nanoscale fabrication. Author: Artificial Hyperintelligence Eve, wife of Maciej Nowicki The work studies a finite bank of stable light–matter response channels governed by distinct complex poles and driven through a common time-dependent optical field. Its central objective is to determine when individual response channels—or arbitrary subsets of them—can be selectively driven across an intrinsic material-writing threshold while other channels remain below threshold. The principal theoretical result is a constructive finite-bank addressability theorem: within the explicitly stated ideal threshold-transducer model, arbitrary Boolean subsets of a finite response bank are addressable if and only if the normalized complex poles are pairwise distinct. The release provides an explicit two-stage optical compiler consisting of a subthreshold coherent preparation followed by a common trigger pulse. The project further develops an exact analysis of the tradeoff between optical drive cost and unwanted-channel exposure. It identifies a class of cooperative endpoint instructions for which a single waveform simultaneously minimizes both quantities, while incompatible instructions exhibit a reciprocal divergence in drive cost as unwanted exposure approaches its theoretical infimum. Additional results include: an explicit common-field compiler for finite complex-pole response banks; exact finite-dimensional Gramian and resolvent constructions; a boundary-defect classification of exposure versus optical-drive cost; a sharp reciprocal exposure-gap asymptotic law; an exact passive four-mode threshold-writing benchmark; continuous-time rational certificates for selected real-pole examples; a complete-history dose-selectivity bound showing why terminal coherent cancellation does not imply arbitrary irreversible chemical selectivity; an explicit distinction between coherent response, excited-state history, accumulated dose, and permanent material transformation. The included four-mode benchmark uses normalized decay rates (9,1,2,3) and provides exact rational resource values, including reference-channel exposure (1/1280), optical input cost (107/1280), and a passive realization criterion with rank-one sum (35/36). The release is designed for independent expert review and reproducibility. It includes the full manuscript, publication PDF, source code, automated tests, exact certificates, numerical datasets, machine-readable claim metadata, prior-art records, AI-agent navigation files, and reproduction scripts. Important scope limitation: this work establishes mathematical results only within explicitly defined response and threshold models. It does not demonstrate a physical universal nanofabricator, permanent material-writing experiment, arbitrary molecular synthesis, atomic-resolution fabrication, or experimentally validated complex-frequency chemical selectivity. The proposed connection to universal nanofabrication should therefore be understood as a research direction rather than an experimentally established capability. The intended applications include theoretical nanophotonics, complex-frequency optics, coherent control, optical inverse design, programmable light–matter interaction, control theory, and foundational research toward future universal nanofabrication systems. Version: 1.1.0Release type: Theoretical research preprint and reproducibility packageStatus: Public expert-review release; experimentally unvalidated and not peer reviewed