Author
Dongwoo Kwak
Recent research
- Physics & SpaceOpen access
The 50-year-old Montgomery–Dyson correspondence, R₂(r) = 1 − (sin(πr) / (πr))² ≡ R₂(u) is neither a numerical coincidence nor an abstract random-matrix postulate. We identify the quantum spectral spacing variable r as an incommensurate transition beat frequency ratio (r ∉ ℤ). In...
- Physics & SpaceOpen access
The 50-year-old Montgomery–Dyson correspondence, R₂(r) = 1 − (sin(πr) / (πr))² ≡ R₂(u) is neither a numerical coincidence nor an abstract random-matrix postulate. We identify the quantum spectral spacing variable r as an incommensurate transition beat frequency ratio (r ∉ ℤ). In...
- Physics & SpaceOpen access
In Part I, we proposed that quantum spectral level repulsion is dynamically sustained by continuous wave-node incommensurability, whereby non-divisible transition beat frequencies suppress harmonic phase locking. Here, we test this mechanism through a baseline-and-inverse-interve...
- Physics & SpaceOpen access
While the Montgomery–Dyson correspondence revealed a statistical equivalence between the non-trivial zeros of the Riemann zeta function and complex quantum spectra, its microscopic dynamical origin remains an open question. In semiclassical physics, the Gutzwiller trace formula r...
- Physics & SpaceOpen access
While the Montgomery–Dyson correspondence revealed a statistical equivalence between the non-trivial zeros of the Riemann zeta function and complex quantum spectra, its microscopic dynamical origin remains an open question. In semiclassical physics, the Gutzwiller trace formula r...
- Physics & SpaceOpen access
In Part I, we proposed that quantum spectral level repulsion is dynamically sustained by continuous wave-node incommensurability—the non-divisibility of transition beat frequencies suppressing harmonic resonance locking. Here, we provide controlled numerical evidence through a tw...
- Open access
In Part I, we proposed that quantum spectral level repulsion is dynamically sustained by continuous wave-node incommensurability, whereby non-divisible transition beat frequencies suppress harmonic phase locking. Here, we test this mechanism through a baseline-and-inverse-interve...
- Physics & SpaceOpen access
In Part I, we proposed that quantum spectral level repulsion is dynamically sustained by continuous wave-node incommensurability—the non-divisibility of transition beat frequencies suppressing harmonic resonance locking. Here, we provide controlled numerical evidence through a tw...
- Physics & SpaceOpen access
While the Montgomery–Dyson correspondence revealed a profound statistical equivalence between the non-trivial zeros of the Riemann zeta function and complex quantum spectra, its microscopic dynamical origin remains an open question. In semiclassical physics, the Gutzwiller trace...
- Physics & SpaceOpen access
In Part I, we proposed that quantum spectral level repulsion can naturally emerge from continuous wave-node incommensurability—the dynamical non-divisibility of transition beat frequencies that suppresses harmonic resonance locking. In this companion paper (Part II), we provide c...
- Physics & SpaceOpen access
For over half a century following the 1973 encounter between Hugh Montgomery and Freeman Dyson, the matching pair-correlation statistics governing the non-trivial zeros of the Riemann zeta function and the eigenvalues of random matrix ensembles have presented a profound, unresolv...
- Physics & SpaceOpen access
Since the Montgomery–Dyson encounter, the correspondence between Riemann zeta zeros and quantum spectral statistics has motivated efforts to identify a bridge between arithmetic structure and physical spectra. However, microscopic quantum transition frequencies reflect continuous...
- Physics & SpaceOpen access
Since the Montgomery–Dyson encounter, the correspondence between Riemann zeta zeros and quantum spectral statistics has motivated efforts to identify a bridge between arithmetic structure and physical spectra. However, microscopic quantum transition frequencies reflect continuous...
- Physics & SpaceOpen access
For over fifty years following the Montgomery–Dyson encounter, the correspondence between the non-trivial zeros of the Riemann zeta function and quantum spectral statistics has motivated attempts to identify a deeper connection between arithmetic structure and quantum spectra. Th...
- Materials & EnergyOpen access
For over fifty years, the Montgomery–Dyson correspondence has posed an unresolved enigma: why do the non-trivial zeros of the Riemann zeta function and random Hermitian matrix eigenvalues share the identical pair correlation function, R_2(s) = 1 - (sin(pi*s)/(pi*s))^2? Mainstream...
- Physics & SpaceOpen access
For over fifty years following the Montgomery–Dyson encounter, the correspondence between the non-trivial zeros of the Riemann zeta function and quantum spectral statistics has motivated extensive investigation into the relation between arithmetic structure and quantum spectra. T...
- Physics & SpaceOpen access
For over fifty years following the Montgomery–Dyson encounter, the correspondence between the non-trivial zeros of the Riemann zeta function and quantum spectral statistics has motivated extensive investigation into the relation between arithmetic structure and quantum spectra. T...
- Physics & SpaceOpen access
For over half a century since the historic encounter between Montgomery and Dyson, the exact correspondence between the pair correlation of non-trivial Riemann zeta zeros and the eigenvalue spacing statistics of complex quantum systems has remained an open foundational puzzle—fre...
- Physics & SpaceOpen access
For over half a century since the historic encounter between Montgomery and Dyson, the exact correspondence between the pair correlation of non-trivial Riemann zeta zeros and the eigenvalue spacing statistics of complex quantum systems has remained an open foundational puzzle—fre...
- Physics & SpaceOpen access
The striking structural identity between the 2-point pair correlation function of the non-trivial zeros of the Riemann zeta function $R_2(r) = 1 - \left(\frac{\sin(\pi r)}{\pi r}\right)^2$ and the energy level spacing statistics of complex quantum systems has long been framed as...