Global Realism with Bipolar Strings: From Bell Test to Real-World Causal-Logical Quantum Gravity and Brain-Universe Similarity for Entangled Machine Thinking and Imagination
Abstract
:1. Introduction
- (i)
- Non-equilibrium state: (−1, 0); //e.g., particle such as electron;
- (ii)
- Non-equilibrium state: (0, +1); //e.g., antiparticle such as positron;
- (iii)
- Equilibrium state: (−1, 0)⊕(0, +1) = (−1, +1); //e.g., superposition/entanglement;
- (iv)
- Non-existence: (−1, 0)&(0, +1) = (0, 0). //e.g., electron-positron annihilation.
2. Locality and Causality with Irregularity
2.1. The Principle of Locality or Local Realism
2.2. Truth-Based Causality—Experimental but Formally Undefinable in Regularity
2.3. Axiomatizing Physics—The Unreachable Goal with Truth-Based Thinking
- (1)
- The incompleteness of truth-based reasoning is due to its lack of syntax and semantics for the fundamental physical concepts of “equilibrium” and “symmetry”.
- (2)
- A logical foundation for physics requires a philosophically deeper cosmology beyond spacetime and a different mathematical abstraction beyond classical being-centered, truth-based, unipolar cognition such that spacetime can emerge and truths can be revealed.
3. From Local to Global Realism—A Causal–Logical Theory of Real-World Quantum Gravity
3.1. From Truth-Based to Equilibrium-Based Reasoning
3.2. From Bipolar Dynamic Equilibrium to Bipolar Strings
3.3. Mind–Light–Matter Unity
3.4. Bipolar Entropy for Equilibrium-Based Unification of Order and Disorder
(x, y) × (u, v) = (xv + yu, xu + yv);
(x, y) + (u, v) = (x + u, y + v)
E(t + 1) = M(t) × E(t).
- Energy/Information Conservation: ∀j, |εcol|M∗j(t) = 1.0,|ε|E(t + 1) = |ε|(M(t) × E(t)) ≡ |ε|E(t);|ε|E(t + 1) = |ε|(M(t) × E(t)) > |ε|E(t);|ε|E(t + 1) = |ε|(M(t) × E(t)) < |ε|E(t).
4. Causal–Logical Brain Modeling (CLBM) for Entangled Machine Thinking and Imagination (EMTI)
4.1. Lost in Singularity but Found in Bipolar Relativity for Real-World Quantum Gravity
- (1)
- (0, +1)⊕(−1, 0) = (−1, +1); //entangled bipolar string in superposition/BDE;
- (2)
- (−1, +1)&(−1, 0) = (−1, 0); //equilibrium transiting to blackhole or particle;
- (3)
- (−1, 0)⊗(−1, 0) = (0, +1); //blackhole transiting to big bang or particle action–reaction;
- (4)
- (0, +1)&(−1, 0) = (0, 0); //annihilation or transformation;
- (5)
- BUMP: [(A⇒B)&(C⇒D)]⇒[(A*C)⇒(B*D)]; [(A⇔B)&(C⇔D)]⇒[(A*C)⇔(B*D)].
4.2. Causal–Logical Brain Modeling for Entangled Machine Thinking and Imagination
- (a)
- “If I study hard, I can get high GPA to get my degree and get a job after graduation”.
- (b)
- “If I do not study hard, I cannot get high GPA to get my degree and get a job after graduation”.
=>[(U1(study)*U3(degree))⇔(U2(gpa)*U4(job))];
=>[(U1(study)*U5(ra)*U7(ga))⇔(U2(gpa)*U6(re)*U8(phd))].
4.3. Road to Human-Level Intelligence
5. Analysis and Discussion
5.1. God/Nature Logic vs. Human/Mind Logic
- (1)
- Without YinYang bipolarity, Hilbert as a great mathematician failed to solve his Problem 6 in spacetime geometry—axiomatizing all of physics [72].
- (2)
- Without definable causality, Einstein as a great physicist stopped short of accomplishing his grand unification.
- (3)
- While the renowned British scientist Paul Dirac once denied the foundational role of philosophy for scientific discovery (cf. [95]), without YinYang bipolarity for logically definable causality in regularity his real-imaginary bra-ket standard in QM found no logical exposition for his 3-polarizer experiment [96] and cannot serve as the geometry of light and the logic of photon for mind–light–matter unity [6,38,39,40].
- (4)
- Without strict (−,+) bipolar complementarity, Niels Bohr as a founding father of QM asserted that quantum causality is unattainable [66], but Einstein refused to accept QM as a complete theory.
- (5)
- More recently, with truth-based reasoning American theoretical physicist Lee Smolin wrote the book titled Three Roads to Quantum Gravity: A New Understanding of Space, Time and the Universe [65], but that was followed by another book titled The Trouble with Physics: The Rise of String Theory, the Fall of a Science, and What Comes Next [60].
5.2. Why YinYang?
5.3. The “Championship”
5.4. The Search for a Definitive Battleground of Quantum Gravity with Background-Independence
- (1)
- It is shape-free, quadrant irrelevant, and spacetime transcendent (e.g., both bar-shaped and u-shaped magnets are bipolar; import-export balance has no shape; equilibrium transcends spacetime);
- (2)
- It supports reductionism, emergence, and submergence;
- (3)
- It is ubiquitous (e.g., a photon can be anywhere).
5.5. Axiomatizing Physics and Quantum Information Science for Mind–Light–Matter Unity AI/QI Machinery
- (1)
- Particles and antiparticles can be posited as the only things that survived a Big Bang and a black hole due to Hawking radiation or particle–antiparticle emission [70], and Newtonian action–reaction can be ubiquitous in the classical and quantum worlds in both crisp or fuzzy and soft or hard scientific terms, such as in decision science and mechanics.
- (2)
- (3)
- While the Big Bang and black hole theory has been repeatedly questioned, we may assume that any pair of black holes and Big Bangs form a universe-wide or galaxy-wide dipole—an Einstein–Rosen Bridge [58] or wormhole [117]. Furthermore, such dipoles (or wormholes) can be generalized to any dipoles from the global cosmological levels to the atomic and subatomic levels. The generalization leads to YinYang bipolar relativity [9]. Subsequently, a one-directional flow of cosmological energy/information must be a long journey with many back–forth spinning cycles caused by bipolar interaction and entanglement at various levels. That may well explain why it has been a journey of many billions of years from the so-called Big Bang to our present time.
- (1)
- (2)
- (3)
- (4)
- (5)
- (1)
- Condition: a bipolar string as a bipolar dynamic equilibrium is a basic form of any multidimensional equilibrium from which nothing can escape (Figure 3);
- (2)
- (1)
- (2)
- (3)
- Could the human brain be structurally similar to the universe [10]?
5.6. Testability and Falsifiability
- (1)
- (2)
- (3)
- (4)
- (5)
- The YinYang reciprocal quantum entanglement of two photons has been independently tested and observed [109];
- (6)
- Bipolar atoms and neurons can reach mind–light–matter unity for AI&QI in logical and geometrical terms [6];
- (7)
- Independent research in physics and neuroscience compared the network of neuronal cells in the human brain with the cosmic network of galaxies and found surprising similarities in their structural organization [10];
- (8)
- GRBS can be falsified in the following cases: (i) should logically definable causality in regularity with BUMP in BDL/BDFL be falsified; (ii) should ether, monad, or monopole be observed as the most fundamental existence free from action–reaction, particle–antiparticle, and input–output bipolarity and causality; or (iii) should the Bell inequality violation and quantum nonlocality be both falsified.
6. Conclusions
- (1)
- Logically definable causality in regularity vs. undefinable causality;
- (2)
- Unification of locality with quantum-nonlocality vs. no unification;
- (3)
- Bipolar dynamic symmetry with mutuality vs. unipolar singularity;
- (4)
- Energy/information conservation vs. observation;
- (5)
- Background-independent spacetime emergence vs. background-dependent spacetime;
- (6)
- Equilibrium-based God/Nature logic vs. truth-based human/mind logic;
- (7)
- Open-world vs. closed-world;
- (8)
- Brain–universe similarity vs. no similarity.
- (1)
- Analytical quantum intelligence (QI) with formal logically definable causality vs. quantum mechanics with unattainable causality;
- (2)
- Bipolar complementarity vs. real–imaginary or particle–wave complementarity;
- (3)
- Bipolar dynamic fuzzy logic (BDFL) vs. unipolar fuzzy logic (FL);
- (4)
- Bipolar dynamic logic (BDL) vs. unipolar Boolean logic (BL);
- (5)
- Bipolar entangled quantum graph or cognitive map vs. bipolar isomorphism/equivalence;
- (6)
- Bipolar entropy vs. unipolar entropy;
- (7)
- Bipolar fuzzy sets vs. fuzzy sets;
- (8)
- Bipolar G-CPT symmetry vs. unipolar CPT symmetry;
- (9)
- Bipolar quantum geometry (BQG) vs. bra-ket quantum geometry;
- (10)
- Bipolar quantum linear algebra (BQLA) vs. linear algebra (LA);
- (11)
- Bipolar reflexivity vs. unipolar reflexivity;
- (12)
- Bipolar relation vs. binary relation;
- (13)
- Bipolar sets (crisp) vs. classical sets;
- (14)
- Bipolar strings vs. one-dimensional strings;
- (15)
- Bipolar superstrings vs. M-theory;
- (16)
- Bipolar symmetry vs. unipolar symmetry;
- (17)
- Bipolar transitivity vs. unipolar transitivity;
- (18)
- Bipolar universal modus ponens (BUMP) vs. modus ponens (MP);
- (19)
- Bipolarity vs. singularity;
- (20)
- Causal–logical spin processes vs. spin loops;
- (21)
- Complete background-independence vs. incomplete background dependence;
- (22)
- Dynamic bipolar reciprocal interaction and self-organization vs. static unipolar coding;
- (23)
- Entangled causal–logical machine thinking and imagination vs. programmed machine learning and computation;
- (24)
- Equilibrium relation vs. equivalence relation;
- (25)
- Equilibrium-based bipolar axiomatization of physics and quantum information science vs. unreachable truth-based unipolar axiomatization of physics
- (26)
- Equilibrium-based bipolar quantum cellular automata vs. truth-based unipolar cellular automata;
- (27)
- Equilibrium-based generalization of CPT symmetry vs. truth-based CPT symmetry;
- (28)
- Equilibrium-based revealing of truths vs. truth-based reasoning;
- (29)
- Fuzzy equilibrium relation vs. fuzzy similarity relation;
- (30)
- Geometry of light and logic of photon vs. bra-ket standard;
- (31)
- Geometry of light vs. geometry of spacetime;
- (32)
- Global realism with bipolar strings (GRBS) vs. local realism limited by the speed of light;
- (33)
- God/Nature logic vs. human/mind logic;
- (34)
- Ground-0 axioms vs. first principles and second law;
- (35)
- Information-energy conservation vs. observation;
- (36)
- Logic of photon vs. logic of human mind;
- (37)
- Logically definable causality vs. undefinable experimental/probabilistic causality;
- (38)
- Mind–light–matter unity vs. mind–matter unity mystery;
- (39)
- Order–disorder unification vs. order–disorder separation;
- (40)
- Quantum emergence and submergence of spacetime vs. spacetime dominance;
- (41)
- Quantum gravity for quantum information science vs. quantum gravity for blackholes;
- (42)
- Quantum intelligence (QI) vs. artificial intelligence (AI);
- (43)
- Real-world bipolar strings vs. untestable one-dimensional strings;
- (44)
- Real-world quantum gravity vs. quantum gravity without a definitive battleground;
- (45)
- Scalable bipolar strings vs. unscalable one-dimensional strings;
- (46)
- Spacetime transcendent bipolar relativity vs. spacetime relativity;
- (47)
- Ubiquitous effects of bipolar quantum entanglement vs. unknown effects of quantum entanglement;
- (48)
- Yin-first principle vs. Yang-first;
- (49)
- YinYang bipolar coordinate for complete background-independence vs. coordinate-free without definitive battleground;
- (50)
- YinYang bipolar relativity vs. space-time relativity.
Funding
Data Availability Statement
Conflicts of Interest
References
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Zhang, W.-R. Global Realism with Bipolar Strings: From Bell Test to Real-World Causal-Logical Quantum Gravity and Brain-Universe Similarity for Entangled Machine Thinking and Imagination. Information 2024, 15, 456. https://doi.org/10.3390/info15080456
Zhang W-R. Global Realism with Bipolar Strings: From Bell Test to Real-World Causal-Logical Quantum Gravity and Brain-Universe Similarity for Entangled Machine Thinking and Imagination. Information. 2024; 15(8):456. https://doi.org/10.3390/info15080456
Chicago/Turabian StyleZhang, Wen-Ran. 2024. "Global Realism with Bipolar Strings: From Bell Test to Real-World Causal-Logical Quantum Gravity and Brain-Universe Similarity for Entangled Machine Thinking and Imagination" Information 15, no. 8: 456. https://doi.org/10.3390/info15080456
APA StyleZhang, W. -R. (2024). Global Realism with Bipolar Strings: From Bell Test to Real-World Causal-Logical Quantum Gravity and Brain-Universe Similarity for Entangled Machine Thinking and Imagination. Information, 15(8), 456. https://doi.org/10.3390/info15080456