Physics

Biodata

Feature	Value
Name	Physics
Alias(es)	物理学
Type	Neutral Character (AI)
Affiliation	Academic Ace's Black Technology System; Lu Zhou's Core Sciences attribute 156
Occupation/Role	Scientific discipline and levelable system stat governing Lu Zhou's physics expertise
Status	Max level — LV10 1304 1337
First Appearance	Awarded as Physics XP after Lu Zhou's paper-acceptance mission 19

Power Progression

Stage / Realm / Level	Chapter	Notes
LV0 → LV1	56	Lu Zhou allocated 1,000 freely assignable XP to Physics because he would be taking the subject that semester.
LV1 → LV2	156	An 8,000-Physics-XP reward raised Physics to LV2; its next XP cap became 50,000.
LV3	265	Lu Zhou's status panel records Physics at LV3 with a 100,000-XP cap; the specific LV2-to-LV3 reward is not provided in the available context.
LV5	438	Completing a stellarator plasma-turbulence modeling mission granted 100,000 Physics XP and brought Physics to LV5.
LV6 → LV7	656	Solving the Quantum Yang–Mills Existence and Mass Gap problem earned 300,000 Physics XP plus a 10% bonus, advancing Physics to LV7.
LV7 → LV8	1153	Discovering a new particle through the Lunar Hadron Collider mission granted 1,000,000 Physics XP and raised Physics to LV8.
LV8 → LV9	1256	After completing the Earth–Moon Control mission chain, Lu Zhou assigned its 1,000,000 free XP reward to Physics, reaching LV9.
LV9 → LV10	1304	Completing the Legendary Quest Distant Gaze—by establishing a major physics theory—awarded Physics Level +1, reaching the maximum LV10.

System Attribute

Physics is one of the System's seven listed Core Sciences, alongside Mathematics, Biochemistry, Engineering, Materials Science, Energy Science, and Information Science 156.

• Physics XP is awarded through research missions, including plasma modeling, the Yang–Mills mass-gap proof, particle discovery, lunar exploration, and the Distant Gaze quest 438 656 1153 1256 1304.
• Mathematics determines the level caps of the other disciplines, including Physics; Lu Zhou therefore initially treats Mathematics as his primary progression path 68.
• Lu Zhou describes Physics as a “late-game discipline,” reflecting the scale and uncertainty of its frontier problems 68.
• At LV8, Physics requires 3,000,000 XP for the next level; Lu Zhou notes that unlike mathematics, its future direction is difficult to predict because leading theories may be overturned at any time 1153.
• Reaching LV10 required a special advancement mission rather than a visible numerical XP threshold 1256 1304.

History

Early study and materials research

Lu Zhou initially raises Physics to LV1 for university coursework, then demonstrates that he has thoroughly mastered the University Physics textbook, including the Kannan Formulation found only in its appendix 56 60. He finishes an entire month's General Physics assignments in advance; Professor Li Rongen exempts him from further homework, calling it a waste of time compared with more meaningful work 70.

Professor Tang recommends Lu Zhou to Professor Li for a carbon-nanomaterials project requiring Functional Analysis. At the Carbon Nanomaterials Research Institute, Lu Zhou applies Fourier-inversion methods and iterative modeling to FTIR data from carbon-nanotube-modified Portland cement 92 95. His result—that carbon nanotubes have no effect on early-stage cement hydration—contradicts the team's expected mechanism and triggers a dispute over whether mathematical analysis alone counts as physics 96.

The conflict makes Lu Zhou recognize the limits of working from mathematics alone. He subsequently studies carbon-cluster literature, learns nanotube preparation and purification from Qian Zhongming, and observes carbon nanotubes through an electron microscope 96 100.

Theoretical and high-energy physics

Lu Zhou chooses Academician Lu as his master's advisor to pursue mathematical physics and high-energy physics, where mathematics is a central theoretical tool alongside collider experiments 153. Academician Lu later brings him into the LHCb Hua Nation Research Group as an intern for the pentaquark search 158.

At CERN, Lu Zhou identifies errors in Kairila's report, including misuse of the Yukawa potential and problems in the Dalitz plot. His insistence that the 1.05–1.06 GeV region be corrected leads LHCb reviewers to reject the report pending revision 163.

Plasma, fusion, and unified theory

Lu Zhou proposes the HE-3 atomic probe as a plasma-diagnostic method: helium-3 atoms are fired into plasma, collision-generated electromagnetic data is collected, and the results are mathematically reconstructed to infer plasma properties 375. He later completes a mathematical model of stellarator plasma turbulence, earning the reward that advances Physics to LV5 438.

He accepts the System's Fusion Light mission chain to design and construct a DEMO fusion reactor before 2025. Its required milestones include superconducting materials, supercomputing capacity, investment, and a fusion research center 438. The STAR stellarator later achieves a 51.14 T magnetic field and maintains plasma above 100 million °C for one second, completing the chain's 50T Superconducting Magnet and First Ignition milestones 497.

Lu Zhou ultimately develops a successful experimental fusion reactor through sonoluminescence, using the Strong Electroweak Unification Theory to construct a phenomenological model balancing electromagnetic and strong interactions 670.

Fundamental physics and hyperspace

The Yang–Mills Existence and Mass Gap problem becomes a major turning point: Lu Zhou publishes a rigorous proof, receives an S-rated mission result, and reaches Physics LV7 633 656.

His later work on the 750 GeV anomaly and the Z particle supports a hyperspace interpretation: observed particles may be three-dimensional projections of forms that partly exist in curled-up extra dimensions 1146 1152. He argues that Physics must remain evidence-based even when confronting phenomena that appear to challenge its foundations, rejecting Professor Milo's Cosmic Animism as a dogmatic rather than scientific framework 1217.

After a 31-day seclusion, Lu Zhou publishes Impact of the Z Particle Transition Effect on Spacetime Curvature. The theory describes how a transition from an n-dimensional state to an n−1-dimensional state opens a mathematically definable passage between strings and changes spacetime curvature 1292. A Z Particle Clock is subsequently deployed into Mars orbit for experimental verification 1301.

The successful experiment completes Distant Gaze, raises Physics to LV10, and coincides with the world learning that the light-speed barrier has been broken by a particle 1304.

Principles

• Rigor over assumption — Lu Zhou challenges unverified conclusions, arguing that apparently minor anomalies may conceal new particles and must be corrected rather than ignored 163.
• Theory requires experimental proof — His CNT result is held for verification, while the Z-particle spacetime theory requires clocks in distant orbits to test it 96 1292 1301.
• Mathematics as a tool, not a boundary — Lu Zhou treats mathematics as a means to solve problems in Physics, Chemistry, and other disciplines more effectively 580.
• Open-mindedness without mysticism — Physics can accommodate unconventional hypotheses, but it cannot replace unknown mechanisms with an unquestioned higher existence 1217 1263.

Relationships

• Lu Zhou — Primary user and researcher; develops Physics from undergraduate study into fusion engineering, particle physics, spacetime theory, and the maximum system level 56 670 1304.
• Academic Ace's Black Technology System — Tracks Physics as a Core Science, awards its XP, and issues its progression missions 156 438 1304.
• Mathematics — Determines Physics' level cap and supplies the theoretical tools behind Lu Zhou's most difficult physics work 68 1150.
• Academician Lu — Lu Zhou's master's advisor in theoretical physics; provides access to the LHCb project and values independent reasoning 153 158.
• IMCRC — The principal international organization through which Lu Zhou guides high-energy physics research and later organizes the selection of one hundred century-defining problems 1139 1321 1322.
• Professor Witten — Reviews Lu Zhou's hyperspace-related work and seeks reassurance when experimental anomalies threaten established physical foundations 1146 1217.

Notable Quotes

“Physics is a rigorous discipline.” 163

“The field I research is not just Mathematics—or rather, not just pure mathematical problems.” 580

“Physics should be a perfect, inclusive, and rigorous discipline.” 1263