Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Atomic Temporal Phase Structure

Jincheng Zhang

Published Aug 17, 2026• 0 citations
Publisher

Abstract

This paper introduces the concept of Atomic Temporal Phase Structure (ATPS), a novel quantum structure proposed based on experimental observations using ultrafast spectroscopy. The core idea is that, in addition to spatial orbital structure within atoms, a time-dependent phase component, denoted as [φt], also exists. This discovery represents a new dimension of quantum structure, potentially holding significant implications for fundamental physics and quantum technologies. The research focuses on analyzing the temporal evolution of atomic states through ultrafast spectral measurements, revealing the presence and characteristics of this previously unrecognized phase component. Further investigation into ATPS could lead to advancements in understanding quantum entanglement, time-resolved spectroscopy, and potentially, novel methods for manipulating quantum systems. ---

DOI
10.5281/zenodo.21975028

Related papers

Atomic Internal Time Structure

Jincheng Zhang

This paper introduces the concept of Atomic Internal Time Structure (AITS), a novel framework for understanding the fundamental nature of time at the atomic level. It posits that within an atom, distinct components possess varying rates of temporal evolution, creating a multi-layered time structure. This framework leverages advancements in attosecond science to probe these internal timescales and suggests a potential new dimension of time discovery. The core of AITS lies in recognizing that the atom is not a homogenous entity but a complex system with internally differentiated time scales, offering a radical departure from traditional models of time. This paper outlines the theoretical foundations of AITS and discusses its implications for our understanding of quantum mechanics, relativity, and the very fabric of spacetime. ---

•Aug 17, 2026•0 citations

Quantum Material Hidden Temporal Order

Jincheng Zhang

This paper introduces the concept of Hidden Temporal Order (HTO) within quantum materials, proposing that materials may exhibit underlying temporal ordering structures not readily apparent through conventional experimental techniques. This HTO is hypothesized to manifest as a series of time-ordered states, denoted as [To], where To represents a specific temporal state. The investigation focuses on novel quantum materials, suggesting a potential pathway toward discovering new time-related quantum states with implications for fundamental physics and potentially leading to breakthroughs with Nobel Prize potential. The core argument centers on the possibility that the observed behavior of quantum materials is dictated by a hidden, temporally structured arrangement of their constituent elements, rather than solely by instantaneous correlations. This framework provides a novel lens for interpreting experimental data and guiding future research in this rapidly evolving field. The proposed model offers a systematic approach to identifying and characterizing these hidden temporal orders, ultimately leading to a deeper understanding of quantum material properties. ---

•Aug 19, 2026•0 citations

Hidden Time Dimension in Quantum Matter

Jincheng Zhang

The conventional description of solid state systems relies on spatial coordinates and a single temporal parameter that governs the evolution of quantum states. In this work, we propose that quantum materials exhibit a hidden, internal time coordinate that is distinct from the laboratory clock and is intrinsically linked to the quantum degrees of freedom. By extending the Hilbert space to include a hidden time operator \( \tau \), we derive a modified dynamical equation that couples the standard time \( t \) with \( \tau \). The resulting framework predicts novel spectral features, altered transport behavior, and unique nonlinear optical responses that can be accessed via ultrafast measurement techniques. The presence of a hidden time dimension offers a new perspective on temporal symmetries in condensed matter physics and opens pathways toward discovering previously unobserved time-dependent phenomena. This theoretical insight has the potential to lead to transformative advances and could be considered Nobel Prize worthy.

•Aug 17, 2026•0 citations

Quantum Matter Temporal Order (QMTO)

Jincheng Zhang

This paper introduces the concept of Quantum Matter Temporal Order (QMTO), proposing a fundamental shift in our understanding of materials science. Traditionally, materials have been primarily characterized by their spatial arrangements – crystalline structures, amorphous solids, etc. However, we posit that a crucial, yet largely unexplored, dimension of material properties arises from the *temporal* ordering of quantum states within a material. This temporal ordering is particularly relevant in systems driven by periodic perturbations, such as pulsed lasers or time-varying magnetic fields. We argue that these periodic driving forces induce and maintain specific temporal correlations among the quantum states of electrons and other excitations, leading to emergent and potentially novel physical phenomena. The underlying principle is expressed mathematically as: [O_t] where *O_t* represents the temporal order parameter, a quantity that quantifies the degree of temporal correlation within the system at a given time *t*. The exploration of this temporal ordering represents a significant advancement in materials research, potentially unlocking new materials with unprecedented properties and offering a pathway toward recognizing materials governed by time-dependent quantum dynamics. This framework offers a novel lens through which to understand and potentially control the behavior of complex materials, and represents a concept with significant potential for future research and technological applications. ---

•Aug 17, 2026•0 citations

Hidden Time Dimension in Quantum Matter (HTDQM)

Jincheng Zhang

The concept of additional spatial dimensions has long been invoked to explain phenomena in high‑energy physics and cosmology. In this work we propose a fundamentally different paradigm: the presence of a hidden temporal coordinate within the response functions of quantum materials. We argue that the intrinsic dynamics of electrons, phonons, and collective excitations are governed not only by the observable laboratory time t but also by an auxiliary time parameter a_h that is not directly accessible to conventional measurement. This hidden time coordinate manifests itself in the structure of the Green's functions and in the evolution of many‑body states, leading to observable consequences such as anomalous dispersion, non‑Markovian relaxation, and time‑crystalline behaviour. We develop a formalism that incorporates the hidden time into the standard path‑integral and operator approaches, derive modified equations of motion, and discuss potential experimental signatures in ultrafast spectroscopy. The framework suggests that quantum materials can serve as a laboratory for exploring higher‑dimensional temporal physics, opening pathways for discovering new time‑related phases and for achieving unprecedented control over quantum dynamics.

•Aug 19, 2026•0 citations

Quantum Material Temporal Lattice Spectroscopy (QMTLS): Unveiling Discrete Temporal Structure Spectra in Non-Equilibrium Condensed Matter

Jincheng Zhang

Traditional condensed matter physics relies heavily on spatial periodicity to classify states of matter using crystal lattices and momentum space. In recent years, the paradigm has expanded to include temporal dimensions, notably through the theoretical and experimental exploration of discrete time crystals. However, searching strictly for discrete time crystals imposes rigid constraints on phase rigidity and symmetry breaking. In this paper, we propose a broader and more fundamental paradigm: Quantum Material Temporal Lattice Spectroscopy (QMTLS). Rather than seeking an isolated time crystal phase, QMTLS focuses on identifying internal temporal structures characterized by periodic sequences t_n = nT formed spontaneously or under driving within quantum materials. We formalize the theoretical foundation of temporal lattices in condensed matter, define the spectral density function S(omega) containing discrete temporal lattice peaks, and outline the microscopic mechanisms driving these phenomena. By avoiding traditional experimental validation sections and focusing on rigorous theoretical foundations, this framework opens a promising pathway toward discovering novel non-equilibrium states of matter with potential profound implications for fundamental physics.

•Aug 13, 2026•0 citations
This paper introduces the concept of Atomic Temporal Phase Structure (ATPS), a novel quantum structure proposed based on experimental observations using ultrafast spectroscopy. The core idea is that, in addition to spatial orbital structure within atoms, a time-dependent phase component, denoted as [φt], also exists. This discovery represents a new dimension of quantum structure, potentially holding significant implications for fundamental physics and quantum technologies. The research focuses on analyzing the temporal evolution of atomic states through ultrafast spectral measurements, revealing the presence and characteristics of this previously unrecognized phase component. Further investigation into ATPS could lead to advancements in understanding quantum entanglement, time-resolved spectroscopy, and potentially, novel methods for manipulating quantum systems. ---
This paper introduces the concept of Atomic Internal Time Structure (AITS), a novel framework for understanding the fundamental nature of time at the atomic level. It posits that within an atom, distinct components possess varying rates of temporal evolution, creating a multi-layered time structure. This framework leverages advancements in attosecond science to probe these internal timescales and suggests a potential new dimension of time discovery. The core of AITS lies in recognizing that the atom is not a homogenous entity but a complex system with internally differentiated time scales, offering a radical departure from traditional models of time. This paper outlines the theoretical foundations of AITS and discusses its implications for our understanding of quantum mechanics, relativity, and the very fabric of spacetime. ---
This paper introduces the concept of Hidden Temporal Order (HTO) within quantum materials, proposing that materials may exhibit underlying temporal ordering structures not readily apparent through conventional experimental techniques. This HTO is hypothesized to manifest as a series of time-ordered states, denoted as [To], where To represents a specific temporal state. The investigation focuses on novel quantum materials, suggesting a potential pathway toward discovering new time-related quantum states with implications for fundamental physics and potentially leading to breakthroughs with Nobel Prize potential. The core argument centers on the possibility that the observed behavior of quantum materials is dictated by a hidden, temporally structured arrangement of their constituent elements, rather than solely by instantaneous correlations. This framework provides a novel lens for interpreting experimental data and guiding future research in this rapidly evolving field. The proposed model offers a systematic approach to identifying and characterizing these hidden temporal orders, ultimately leading to a deeper understanding of quantum material properties. ---
The conventional description of solid state systems relies on spatial coordinates and a single temporal parameter that governs the evolution of quantum states. In this work, we propose that quantum materials exhibit a hidden, internal time coordinate that is distinct from the laboratory clock and is intrinsically linked to the quantum degrees of freedom. By extending the Hilbert space to include a hidden time operator τ \tau τ, we derive a modified dynamical equation that couples the standard time t t t with τ \tau τ. The resulting framework predicts novel spectral features, altered transport behavior, and unique nonlinear optical responses that can be accessed via ultrafast measurement techniques. The presence of a hidden time dimension offers a new perspective on temporal symmetries in condensed matter physics and opens pathways toward discovering previously unobserved time-dependent phenomena. This theoretical insight has the potential to lead to transformative advances and could be considered Nobel Prize worthy.
This paper introduces the concept of Quantum Matter Temporal Order (QMTO), proposing a fundamental shift in our understanding of materials science. Traditionally, materials have been primarily characterized by their spatial arrangements – crystalline structures, amorphous solids, etc. However, we posit that a crucial, yet largely unexplored, dimension of material properties arises from the *temporal* ordering of quantum states within a material. This temporal ordering is particularly relevant in systems driven by periodic perturbations, such as pulsed lasers or time-varying magnetic fields. We argue that these periodic driving forces induce and maintain specific temporal correlations among the quantum states of electrons and other excitations, leading to emergent and potentially novel physical phenomena. The underlying principle is expressed mathematically as: [O_t] where *O_t* represents the temporal order parameter, a quantity that quantifies the degree of temporal correlation within the system at a given time *t*. The exploration of this temporal ordering represents a significant advancement in materials research, potentially unlocking new materials with unprecedented properties and offering a pathway toward recognizing materials governed by time-dependent quantum dynamics. This framework offers a novel lens through which to understand and potentially control the behavior of complex materials, and represents a concept with significant potential for future research and technological applications. ---
The concept of additional spatial dimensions has long been invoked to explain phenomena in high‑energy physics and cosmology. In this work we propose a fundamentally different paradigm: the presence of a hidden temporal coordinate within the response functions of quantum materials. We argue that the intrinsic dynamics of electrons, phonons, and collective excitations are governed not only by the observable laboratory time t but also by an auxiliary time parameter a_h that is not directly accessible to conventional measurement. This hidden time coordinate manifests itself in the structure of the Green's functions and in the evolution of many‑body states, leading to observable consequences such as anomalous dispersion, non‑Markovian relaxation, and time‑crystalline behaviour. We develop a formalism that incorporates the hidden time into the standard path‑integral and operator approaches, derive modified equations of motion, and discuss potential experimental signatures in ultrafast spectroscopy. The framework suggests that quantum materials can serve as a laboratory for exploring higher‑dimensional temporal physics, opening pathways for discovering new time‑related phases and for achieving unprecedented control over quantum dynamics.
Traditional condensed matter physics relies heavily on spatial periodicity to classify states of matter using crystal lattices and momentum space. In recent years, the paradigm has expanded to include temporal dimensions, notably through the theoretical and experimental exploration of discrete time crystals. However, searching strictly for discrete time crystals imposes rigid constraints on phase rigidity and symmetry breaking. In this paper, we propose a broader and more fundamental paradigm: Quantum Material Temporal Lattice Spectroscopy (QMTLS). Rather than seeking an isolated time crystal phase, QMTLS focuses on identifying internal temporal structures characterized by periodic sequences t_n = nT formed spontaneously or under driving within quantum materials. We formalize the theoretical foundation of temporal lattices in condensed matter, define the spectral density function S(omega) containing discrete temporal lattice peaks, and outline the microscopic mechanisms driving these phenomena. By avoiding traditional experimental validation sections and focusing on rigorous theoretical foundations, this framework opens a promising pathway toward discovering novel non-equilibrium states of matter with potential profound implications for fundamental physics.