PRESS RELEASE, May 14, 2026: Imaginary Component Attribution Swaps Theory Proposes Structural Reformulation of Physics; Predictions Confirmed by NANOGrav, P-ACT, DESI, and the Big Ring Detection

A complex-algebra foundation for physics, presented across four volumes totaling approximately 2,350 pages by Dr. Boris Kriger of the Institute of Integrative and Interdisciplinary Research, dissolves seven long-standing problems of twentieth-century physics — including the cosmological constant problem, dark matter, dark energy, and gravitational singularities — through a single foundational shift, with predictions progressively confirmed by independent observations since 2023.

TORONTO, CANADA  —  May 14, 2026

The Institute of Integrative and Interdisciplinary Research today announced the completion of a four-volume monograph series presenting the αLGQV programme (Local Gravitation of Quantum Vacuum) together with its formal companion, Imaginary Component Attribution Swaps Theory (ICAST) — a structural reformulation of the foundations of physics in which the seven principal unsolved problems of the older paradigm are resolved simultaneously through a single foundational shift, and whose quantitative predictions have been progressively confirmed by major independent observations over the past three years.

The series, developed by Dr. Boris Kriger over several years of work, replaces the substantialist picture inherited from the seventeenth century — in which the world is made of distinct particles, fields, and spacetime — with a structural one, in which configurations of a single underlying medium carry attributive markings transformed by a particular antilinear operation. The result is a foundational framework that derives its quantitative cosmological predictions from measured nuclear-physics quantities, with no free parameters fitted to cosmological data. The four volumes total approximately 2,350 pages.

The Seven Problems Resolved

The framework addresses the following long-standing problems of physics simultaneously:

• The cosmological constant problem — the hundred-and-twentieth-power discrepancy between the calculated vacuum energy density and the observed cosmological constant.
• The dark matter problem — the gravitating component of galaxies and clusters not visible in any electromagnetic spectrum, despite decades of dedicated experimental searches.
• The dark energy problem — the unknown cosmic energy component driving accelerating expansion.
• The hierarchy problem and the broader question of fundamental particle masses.
• The singularity problem — the prediction of infinite-density points at the centers of black holes and at the origin of the universe.
• The measurement problem in quantum mechanics — the structurally unexplained collapse from superposition to definite outcome.
• The disunity of the four fundamental forces — gravity, electromagnetism, the weak interaction, and the strong interaction.

In the structural framework, these are not seven independent puzzles but seven manifestations of a single foundational defect: the substantialist commitment to treating the world as made of substances with intrinsic properties. Once the foundational commitment is shifted to structural attributions and the swap operation that transforms them, the seven difficulties dissolve at once.

Video overview: the structural framework, the swap operation, and the resolution of long-standing problems in foundational physics.

Observational Confirmations

The framework's quantitative predictions have been confirmed in four major independent tests since 2023:

• NANOGrav stochastic gravitational-wave background. The framework predicted, in advance, that the cosmological QCD confinement transition would produce a particular spectrum of nanohertz-frequency gravitational waves, with amplitude and spectral slope derived from QCD parameters with no free constants. The mid-2020s NANOGrav detection agreed with this prediction; the supermassive-black-hole-binary interpretation disagreed by approximately two standard deviations in spectral slope.
• P-ACT 2025 baryon-to-photon ratio. The joint analysis of Planck and Atacama Cosmology Telescope data pinned the baryon-to-photon ratio at approximately 6.177 × 10⁻¹⁰. The framework had predicted this value as α⁴ ≈ 6.190 × 10⁻¹⁰, derived from the four-vertex structure of the QCD transition. Agreement to within two parts per thousand.
• DESI year-three dark-energy evolution. The 2025–2026 release indicated a small evolving departure of the dark-energy equation of state from a strict cosmological constant, consistent with the framework's prediction interpreting dark energy as the projection of imaginary gravity from unperturbed vacuum.
• Big Ring cosmic megastructure. The detection of a gigaparsec-scale loop in the galaxy distribution by Lopez and collaborators in 2024, aligned with the cosmic microwave background dipole, confirmed the two-hemisphere cosmological topology predicted by the framework.

The framework also reproduces, with no free parameters, the rotation curves of all 175 galaxies in the SPARC sample without invoking dark matter, attributing the apparent excess gravitation to the perturbation of the surrounding vacuum by visible matter. The continuing null results from dark-matter direct-detection experiments are, in the framework's reading, the expected outcome rather than an experimental shortfall.

The seven problems of the older paradigm are not solved one by one within it. They dissolve when the foundation is shifted. Once the structural reformulation is in place, what had appeared as separate puzzles turns out to have been a single artifact of the substantialist habit. — Dr. Boris Kriger, Author, Institute of Integrative and Interdisciplinary Research

The Four-Volume Series

The full series is published open-access through IIIR Cosmology and Theoretical Physics, Toronto. Volume I develops the local-gravitation-of-quantum-vacuum mechanism and its unified treatment of the dark sector. Volume II demonstrates how the chiral condensate at the Kriger limit dissolves gravitational singularities and how cosmological parameters are derived structurally. Volume III presents the principal observational confirmations of the framework's predictions. Volume IV — the formal apparatus — presents Imaginary Component Attribution Swaps Theory (ICAST), the complex-algebra mathematical foundation across sixteen interlinked articles.

Implications

If the structural framework is correct, the consequences for physics education, research priorities, and the broader scientific enterprise are considerable. The decades-long experimental searches for dark matter particles would be re-read as searches for a non-existent substance; the foundational picture taught in physics courses would shift from substantial particles in substantial spacetime to structural configurations of a single underlying plasma; the cosmological standard model, currently fitted with roughly two dozen parameters, would be replaced by a derivational structure with a single dimensionless coupling fixed by nuclear physics; and the conceptual unity of physics — sought without success in twentieth-century unification programs — would be achieved at the structural level rather than at the substantial one.

The framework remains an active subject of discussion and continuing observational testing within the scientific community. The pattern of confirmed predictions and dissolved long-standing problems is, however, of the kind that in earlier moments of scientific history has indicated genuine foundational change. The community will judge in due course.