Deterministic Design Criteria for Materials and Energy Systems
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2025
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| _version_ | 1866901414569050112 |
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| author | Kawahara, Toru |
| author_facet | Kawahara, Toru |
| contents | <p>This paper presents a deterministic framework for the design of materials and energy systems,<br>based on the concept of logical zero-resistance. Building on the Genesis Quantum Gravity Theory<br>(EQGT), we introduce a tolerance-based criterion that unifies material structure and energy flow,<br>providing a fundamental design rule for optimizing performance across both fields. Rather than<br>relying on stochastic models, this approach defines a dimensionless tolerance parameter LR,tolerance,<br>derived from the cosmic stretching displacement of 0.148 units induced by the 1002 reflux pres<br>sure. We show that materials and systems operating within this tolerance can achieve near-zero<br>performance degradation, thereby enabling the development of highly efficient materials and en<br>ergy systems. The framework is applied to both crystalline materials and cyclic energy systems,<br>demonstrating its broad applicability</p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_18042745 |
| institution | Zenodo |
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| publishDate | 2025 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | Deterministic Design Criteria for Materials and Energy Systems Kawahara, Toru Logical Zero-Resistance EQGT $L_{R,\text{tolerance}}$ Materials Design Criteria Energy Systems Optimization 161-Rigidity Crystalline Lattice Deviation 1002 Reflux Pressure <p>This paper presents a deterministic framework for the design of materials and energy systems,<br>based on the concept of logical zero-resistance. Building on the Genesis Quantum Gravity Theory<br>(EQGT), we introduce a tolerance-based criterion that unifies material structure and energy flow,<br>providing a fundamental design rule for optimizing performance across both fields. Rather than<br>relying on stochastic models, this approach defines a dimensionless tolerance parameter LR,tolerance,<br>derived from the cosmic stretching displacement of 0.148 units induced by the 1002 reflux pres<br>sure. We show that materials and systems operating within this tolerance can achieve near-zero<br>performance degradation, thereby enabling the development of highly efficient materials and en<br>ergy systems. The framework is applied to both crystalline materials and cyclic energy systems,<br>demonstrating its broad applicability</p> |
| title | Deterministic Design Criteria for Materials and Energy Systems |
| topic | Logical Zero-Resistance EQGT $L_{R,\text{tolerance}}$ Materials Design Criteria Energy Systems Optimization 161-Rigidity Crystalline Lattice Deviation 1002 Reflux Pressure |
| url | https://doi.org/10.5281/zenodo.18042745 |