<?xml version="1.0" encoding="UTF-8"?><!DOCTYPE article PUBLIC "-//NLM//DTD Journal Publishing DTD v3.0 20080202//EN" "http://dtd.nlm.nih.gov/publishing/3.0/journalpublishing3.dtd">
<article xmlns:mml="http://www.w3.org/1998/Math/MathML" xmlns:xlink="http://www.w3.org/1999/xlink" dtd-version="3.0" xml:lang="en" article-type="research article">
 <front>
  <journal-meta>
   <journal-id journal-id-type="publisher-id">
    ojpp
   </journal-id>
   <journal-title-group>
    <journal-title>
     Open Journal of Philosophy
    </journal-title>
   </journal-title-group>
   <issn pub-type="epub">
    2163-9434
   </issn>
   <issn publication-format="print">
    2163-9442
   </issn>
   <publisher>
    <publisher-name>
     Scientific Research Publishing
    </publisher-name>
   </publisher>
  </journal-meta>
  <article-meta>
   <article-id pub-id-type="doi">
    10.4236/ojpp.2025.153042
   </article-id>
   <article-id pub-id-type="publisher-id">
    ojpp-144866
   </article-id>
   <article-categories>
    <subj-group subj-group-type="heading">
     <subject>
      Articles
     </subject>
    </subj-group>
    <subj-group subj-group-type="Discipline-v2">
     <subject>
      Social Sciences 
     </subject>
     <subject>
       Humanities
     </subject>
    </subj-group>
   </article-categories>
   <title-group>
    Reconciling Quantum Paradoxes through Metaphysical Lenses: Mulla Sadra’s Philosophy and Presentist-Fragmentalism
   </title-group>
   <contrib-group>
    <contrib contrib-type="author" xlink:type="simple">
     <name name-style="western">
      <surname>
       Hassan H.
      </surname>
      <given-names>
       Mohammed
      </given-names>
     </name>
    </contrib>
   </contrib-group> 
   <aff id="affnull">
    <addr-line>
     aCollege of Science, Department of Physics, University of Basrah, Basrah, Iraq
    </addr-line> 
   </aff> 
   <pub-date pub-type="epub">
    <day>
     11
    </day> 
    <month>
     07
    </month>
    <year>
     2025
    </year>
   </pub-date> 
   <volume>
    15
   </volume> 
   <issue>
    03
   </issue>
   <fpage>
    695
   </fpage>
   <lpage>
    706
   </lpage>
   <history>
    <date date-type="received">
     <day>
      16,
     </day>
     <month>
      July
     </month>
     <year>
      2025
     </year>
    </date>
    <date date-type="published">
     <day>
      15,
     </day>
     <month>
      July
     </month>
     <year>
      2025
     </year> 
    </date> 
    <date date-type="accepted">
     <day>
      15,
     </day>
     <month>
      August
     </month>
     <year>
      2025
     </year> 
    </date>
   </history>
   <permissions>
    <copyright-statement>
     © Copyright 2014 by authors and Scientific Research Publishing Inc. 
    </copyright-statement>
    <copyright-year>
     2014
    </copyright-year>
    <license>
     <license-p>
      This work is licensed under the Creative Commons Attribution International License (CC BY). http://creativecommons.org/licenses/by/4.0/
     </license-p>
    </license>
   </permissions>
   <abstract>
    This article explores the potential for reconciling the fundamental paradoxes of quantum mechanics—the measurement problem, entanglement, and Schrödinger’s Cat—with advanced metaphysical frameworks from both classical Islamic philosophy and contemporary Western thought. It specifically examines the compatibility and explanatory power of Mulla Sadra’s transcendent philosophy, particularly his doctrines of Essential Movement, Existential Gradation, and the Primacy of Existence, alongside the modern philosophical interpretation of Presentist-Fragmentalism. By offering conceptual mappings and interpretations, this paper argues that these metaphysical perspectives can provide a more intuitive and coherent understanding of quantum phenomena, moving beyond the limitations of classical intuition and certain prevalent quantum interpretations.
   </abstract>
   <kwd-group> 
    <kwd>
     Mulla Sadra
    </kwd> 
    <kwd>
      Transcendent Philosophy
    </kwd> 
    <kwd>
      Presentist-Fragmentalism
    </kwd> 
    <kwd>
      Fundamental Paradoxes of Quantum Mechanics
    </kwd>
   </kwd-group>
  </article-meta>
 </front>
 <body>
  <sec id="s1">
   <title>1. Introduction</title>
   <p>Quantum mechanics stands as one of the most successful scientific theories in human history, underpinning much of modern technology from lasers to transistors (<xref ref-type="bibr" rid="scirp.144866-14">
     Susskind &amp; Hrabovsky, 2014
    </xref>). Yet, despite its unparalleled empirical accuracy, its implications for the nature of reality remain profoundly perplexing (<xref ref-type="bibr" rid="scirp.144866-4">
     Maudlin, 2019
    </xref>; <xref ref-type="bibr" rid="scirp.144866-10">
     Penrose, 2004
    </xref>). Unlike classical physics, which describes a deterministic world of definite properties, quantum mechanics presents a universe characterized by superposition, non-locality, and inherent uncertainty. These counter-intuitive features give rise to well-known paradoxes such as the measurement problem, entanglement, and Schrödinger’s Cat, which challenge our fundamental understanding of existence, causality, and observation.</p>
   <p>Contemporary efforts to resolve quantum paradoxes frequently draw upon novel metaphysical frameworks. Paul <xref ref-type="bibr" rid="scirp.144866-6">
     Merriam’s 2022
    </xref> article, “Presentist Fragmentalism and quantum mechanics,” (<xref ref-type="bibr" rid="scirp.144866-6">
     Merriam, 2022
    </xref>) offers a significant contribution in this regard, demonstrating how presentist fragmentalism can address long-standing issues like the apparent collapse in Schrödinger’s Cat scenarios and the implications of Bell non-locality. While Merriam’s analysis provides valuable insights into these, our study introduces Mulla Sadra’s philosophy to argue for a more comprehensive solution. Specifically, we show how Mulla Sadra’s unique understanding of existence and becoming, integrated with presentist fragmentalism, not only offers a distinctive reinterpretation of superposition and entanglement but also provides a powerful resolution for the measurement problem—a critical area not directly addressed in Merriam’s aforementioned discussion.</p>
   <p>The persistent challenges posed by quantum mechanical paradoxes, such as superposition and entanglement, have spurred a diverse array of interpretations beyond the standard formalism. Among these, Presentist-Fragmentalism offers a unique perspective, aiming to resolve these conundrums through a particular ontological framework. However, this interpretation is often classified as metaphysical rather than purely scientific due to its foundational commitments. Its key tenets, such as the inherent presentism of “fragments” of reality and their specific interactions, address “why” questions about quantum phenomena (e.g., the measurement problem) that extend beyond empirical description. Unlike testable scientific hypotheses, some of its core claims regarding the nature of “present” and the “becoming” of fragments lack clear falsifiability. Furthermore, the interpretation relies on presuppositions about time and reality (namely, that only the present exists in a fragmented manner), positioning it within philosophical debates rather than solely within empirically verifiable scientific frameworks. Consequently, presentist-fragmentalism is viewed more as an ontological framework for understanding quantum mechanics than a predictive scientific theory amenable to direct experimental refutation or validation. This paper aims to explore the potential for reconciling these quantum paradoxes by examining presentist-fragmentalism through the conceptual lenses of Mulla Sadra’s transcendent philosophy. It can also offer novel avenues for understanding and potentially resolving these quantum paradoxes.</p>
   <p>We will first introduce the core tenets of Mulla Sadra’s transcendent philosophy, an influential school of thought from 17th-century Islamic philosophy, focusing on his doctrines of the Primacy of Existence, Essential Movement, and Existential Gradation (<xref ref-type="bibr" rid="scirp.144866-8">
     Minaee
    </xref><xref ref-type="bibr" rid="scirp.144866-8">
     , 2025
    </xref>). Subsequently, we will delineate the key features of Presentist-Fragmentalism, a contemporary Western philosophical interpretation that addresses issues of time and measurement in quantum mechanics. By offering conceptual mappings and philosophical interpretations for each paradox through the lens of these frameworks, this article seeks to demonstrate their explanatory power and argue that they can provide a more intuitive and coherent understanding of quantum phenomena, moving beyond the limitations of classical intuition and certain prevalent quantum interpretations. Our thesis is that these frameworks offer a robust metaphysical grounding for the strange behaviors observed at the quantum level, not by denying them, but by providing a richer ontological context for their occurrence.</p>
  </sec><sec id="s2">
   <title>2. Conceptual Frameworks</title>
   <p>To understand how these philosophies address quantum paradoxes, it is essential to first establish their core metaphysical principles.</p>
   <sec id="s2_1">
    <title>2.1. Mulla Sadra’s Transcendent Philosophy</title>
    <p>Sadr al-Din Shirazi, known as Mulla Sadra (c. 1571/2-1640), was a Persian philosopher who founded the Transcendent Theosophy (al-Hikmat al-Muta’aliyah) (<xref ref-type="bibr" rid="scirp.144866-12">
      Rizvi, 2009
     </xref>; <xref ref-type="bibr" rid="scirp.144866-9">
      Morris, 2002
     </xref>). His system synthesized earlier Islamic philosophical schools (Peripatetic, Illuminationist) with Gnostic (Irfani) and theological insights, culminating in a radical re-evaluation of metaphysics. Three concepts are particularly pertinent to our discussion:</p>
   </sec>
   <sec id="s2_2">
    <title>2.2. Presentist-Fragmentalism</title>
    <p>Presentist-Fragmentalism (PF), notably developed by Paul Merriam (<xref ref-type="bibr" rid="scirp.144866-6">
      Merriam, 2022
     </xref>), is a contemporary philosophical theory primarily aimed at reconciling presentism (the view that only the present exists) with special relativity and quantum mechanics. It offers a unique ontological structure for reality. Presentist-Fragmentalism circumvents no-hidden-variable theorems by redefining the nature of a pre-existing definite state. Unlike classical hidden variable theories that posit local, underlying properties, Presentist-Fragmentalism asserts that a definite state exists only in a separate, non-local “now”. This unique temporal structure means that the definite values are not “hidden” in the conventional sense within the past or future light cones of a measurement event, but rather emerge from the inherent properties of the present fragment of existence. This framework therefore avoids the assumptions regarding locality and reality that underpin the no-hidden-variable theorems, allowing for a pre-existing definite state without contradiction.</p>
    <p>“Presentist-Fragmentalism fundamentally relies on an ‘A-series time’ framework, where moments are dynamically characterized by ‘past,’ ‘present,’ and ‘future,’ in contrast to the static, tenseless ‘B-series time’ where all events are merely ordered as earlier or later”.</p>
   </sec>
  </sec><sec id="s3">
   <title>3. Reconciling Quantum Paradoxes: A Metaphysical Interpretation</title>
   <p>We now turn to how the conceptual frameworks of Mulla Sadra and Presentist-Fragmentalism can shed light on, and offer resolutions to, the three classic quantum paradoxes.</p>
   <sec id="s3_1">
    <title>3.1. The Measurement Problem: From Superposition to Definite Outcome</title>
    <p>The Quantum Paradox: The measurement problem highlights the perplexing transition of a quantum system from a state of superposition (existing in multiple possible states simultaneously) to a single, definite state upon observation or measurement. For instance, an electron might exist as both spin-up and spin-down until measured. The “collapse” of the wave function lacks a clear physical mechanism within the standard formulation of quantum mechanics (<xref ref-type="bibr" rid="scirp.144866-16">
      Tomaz, et al., 2025
     </xref>). Our discussion on quantum measurement also draws from contemporary perspectives in physics, acknowledging recent developments in the field. For instance, discussions around the Frauchiger-Renner paradox (<xref ref-type="bibr" rid="scirp.144866-17">
      Waaijer &amp; Neerven, 2021
     </xref>) shed light on the foundations of quantum mechanics and the nature of reality, further enriching our understanding of the measurement problem. Similarly, insights from work on quantum foundations, such as that by Brukner, provide a valuable counterpoint and complement to our philosophical analysis of quantum phenomena (<xref ref-type="bibr" rid="scirp.144866-15">
      Tang et al., 2023
     </xref>).</p>
    <p>Simple Quantum Representation: Let the state of a particle (P) be represented as a combination of possibilities: State P = {Spin-Up, Spin-Down} (before measurement)</p>
    <p>After a measurement operation (M): M (State P) → Spin-Up (or Spin-Down, but only one is actualized).</p>
    <p>Mulla Sadra’s Reconciliation: From Sadra’s perspective, the “paradox” stems from conceiving of superposition in a static, classical sense. Instead, he would argue:</p>
    <p>Mathematical Mapping (Sadra): Let EP denote the underlying existence of the particle. Before measurement, EP encompasses the potential for two distinct quiddities (Q Spin-Up, Q Spin-Down): EP ↔ {Q Spin-Up, Q Spin-Down} potential</p>
    <p>Measurement (M) is an interaction that triggers the actualization of one quiddity from EP, as part of its ongoing Essential Movement: M(EP) ⇒ Q Spin-Up (Actualization of potential, a moment in becoming)</p>
    <p>Philosophical Interpretation: The particle isn’t literally both spin-up and spin-down simultaneously in any fixed sense. Its very existence holds the potential for these attributes. Measurement is thus interpreted as the dynamic process where this potential actualizes into one definite form, not a sudden “collapse” of something already ambiguously present, but a becoming of what was existentially possible.</p>
    <p>Presentist-Fragmentalism’s Reconciliation: PF addresses the paradox by challenging the assumption of a single, universal “now” before measurement.</p>
    <p>Mathematical Mapping (PF): Before Measurement (distinct “nows”): (Now Particle: {Spin-Up} OR {Spin-Down}) (definite state within its own fragment) (Now Observer: {Spin-Up, Spin-Down} potential) (perceived superposition from external fragment)</p>
    <p>During Measurement (M), the “nows” synchronize: M (Now Particle, Now Observer) ⇒ (Now Unified System: Spin-Up) (or Spin-Down, now shared).</p>
    <p>Philosophical Interpretation: The “collapse” is not an ontological change in the particle itself (it’s always one or the other in its own “now”), but a shift in the relationship between distinct fragments of reality. The superposition is a descriptive artifact of an unsynchronized reality, not an inherent property of the particle’s fundamental being in its own present.</p>
   </sec>
   <sec id="s3_2">
    <title>3.2. Entanglement: Non-Locality and Interconnectedness</title>
    <p>The Quantum Paradox: Quantum entanglement describes a phenomenon where two or more particles become linked in such a way that the quantum state of each particle cannot be described independently of the others, even when the particles are separated by vast distances. Measuring the state of one entangled particle instantaneously determines the state of the other, without any apparent signal traveling between them. This “non-locality” challenges the classical principle of locality (that distant objects do not affect one another directly, but only through local interactions) (<xref ref-type="bibr" rid="scirp.144866-2">
      Deng, 2023
     </xref>). This unified-existence view, while positing a deep interconnectedness, coexists with relativistic locality constraints because the observed correlations in entanglement do not involve the superluminal transfer of information, but rather reflect a pre-established, holistic reality that is revealed instantaneously across spatially separated events, as further confirmed by recent Bell-test experiments (<xref ref-type="bibr" rid="scirp.144866-1">
      Entangled Quantum Circuits, 2023
     </xref>; <xref ref-type="bibr" rid="scirp.144866-18">
      Wu et al., 2025
     </xref>; <xref ref-type="bibr" rid="scirp.144866-13">
      Ruberti et al., 2024
     </xref>).</p>
    <p>Simple Quantum Representation: Let’s denote the possible states for a single particle as:</p>
    <p>For two entangled particles, P1 and P2, one of the most famous combined entangled states is the Singlet State (<xref ref-type="bibr" rid="scirp.144866-3">
      Guimaraes et al., 2024
     </xref>):</p>
    <p>
     <math display="inline" xmlns="http://www.w3.org/1998/Math/MathML"> <mrow> 
       <mrow> 
        <mo>
          | 
        </mo> 
        <mrow> 
         <msup> 
          <mi>
            Ψ 
          </mi> 
          <mo>
            − 
          </mo> 
         </msup> 
        </mrow> 
        <mo>
          〉 
        </mo> 
       </mrow> 
       <mo>
         = 
       </mo> 
       <mfrac> 
        <mn>
          1 
        </mn> 
        <mrow> 
         <msqrt> 
          <mn>
            2 
          </mn> 
         </msqrt> 
        </mrow> 
       </mfrac> 
       <mrow> 
        <mo>
          ( 
        </mo> 
        <mrow> 
         <msub> 
          <mrow> 
           <mrow> 
            <mo>
              | 
            </mo> 
            <mn>
              0 
            </mn> 
            <mo>
              〉 
            </mo> 
           </mrow> 
          </mrow> 
          <mrow> 
           <mtext>
             P 
           </mtext> 
           <mn>
             1 
           </mn> 
          </mrow> 
         </msub> 
         <msub> 
          <mrow> 
           <mrow> 
            <mo>
              | 
            </mo> 
            <mn>
              1 
            </mn> 
            <mo>
              〉 
            </mo> 
           </mrow> 
          </mrow> 
          <mrow> 
           <mtext>
             P2 
           </mtext> 
          </mrow> 
         </msub> 
         <mo>
           − 
         </mo> 
         <msub> 
          <mrow> 
           <mrow> 
            <mo>
              | 
            </mo> 
            <mn>
              1 
            </mn> 
            <mo>
              〉 
            </mo> 
           </mrow> 
          </mrow> 
          <mrow> 
           <mtext>
             P 
           </mtext> 
           <mn>
             1 
           </mn> 
          </mrow> 
         </msub> 
         <msub> 
          <mrow> 
           <mrow> 
            <mo>
              | 
            </mo> 
            <mn>
              0 
            </mn> 
            <mo>
              〉 
            </mo> 
           </mrow> 
          </mrow> 
          <mrow> 
           <mtext>
             P2 
           </mtext> 
          </mrow> 
         </msub> 
        </mrow> 
        <mo>
          ) 
        </mo> 
       </mrow> 
      </mrow> 
     </math></p>
    <p>where,</p>
    <p>This equation describes a quantum superposition of two possibilities:</p>
    <p>1) P1 is Up AND P2 is Down.</p>
    <p>2) P1 is Down AND P2 is Up.</p>
    <p>Before measurement, neither P1 nor P2 has a definite “ Spin Up”: M(P1) → P1-Up immediately, without any signal or “Down” state M(P2) → P2-Down. Their individual states are indefinite. However, their combined state is definite in that their spins will always be opposite. If you measure P1 and find it “Up,” then you know P2 must be “Down,” instantaneously, regardless of distance. Conversely, if P1 is “Down,” P2 must be “Up.” This inseparable correlation is the hallmark of entanglement.</p>
    <p>Mulla Sadra’s Reconciliation: Sadra’s concept of Existential Gradation offers a profound way to understand entanglement:</p>
    <p>Mathematical Mapping (Sadra): Let UExist represent the underlying unified existence. Entangled particles P1 and P2 are seen as specific degrees (D1, D2) or manifestations of this unified existence: UExist ⇒ (D1 ↔ P1, D2 ↔ P2).</p>
    <p>Their entanglement signifies that their specific manifestations (e.g., spin states) are inherently linked as properties of their common existential root: UExist ⇒ {Spin(D1) is inverse to Spin(D2)}.</p>
    <p>Measurement of one (e.g., D1) reveals a definite aspect of this shared unity, which necessarily determines the other aspect (D2) within the same unified existence: M (D1) → Spin (D1) = Up Therefore, Spin (D2) = Down.</p>
    <p>Philosophical Interpretation: The “spooky action at a distance” is an illusion. The particles are never truly separate in a fundamental sense; they are interwoven aspects of a deeper, unified existence. Their correlation is an intrinsic property of this fundamental unity, not a consequence of communication across space or time.</p>
    <p>Presentist-Fragmentalism’s Reconciliation: PF interprets entanglement as a specific kind of relationship between distinct “nows” or fragments:</p>
    <p>Mathematical Mapping (PF): Let P1 and P2 exist within a potentially unified fragment FP1P2: FP1P2:(NowP1 and NowP2 are inherently linked).</p>
    <p>Before Measurement (from NowObserver): The state describes the potential for their linked “nows” to synchronize with NowObserver. (NowObserver: {P1-Up/P2-Down, P1-Down/P2-Up} potential).</p>
    <p>Measurement of P1 by Observer: M(P1) causes NowP1 and NowP2 to synchronize and become part of the observer’s “now.” This synchronization reveals one definite outcome from FP1P2: (NowUnified P1P2/Obs: P1-Up and P2-Down).</p>
    <p>Philosophical Interpretation: The “instantaneous” correlation isn’t superluminal communication, but the immediate consequence of distinct “nows” (or interconnected sub-fragments) becoming a single, unified “now” upon measurement. The entangled particles were always relationally determined within their own “fragmented” or linked reality; measurement simply makes this relationship apparent within our shared present.</p>
   </sec>
   <sec id="s3_3">
    <title>3.3. Schrödinger’s Cat: The Macroscopic Superposition</title>
    <p>The Quantum Paradox: Erwin Schrödinger’s thought experiment illustrates the absurdity of applying quantum superposition to macroscopic objects. A cat is placed in a sealed box with a radioactive atom (which has a 50% chance of decaying) linked to a vial of poison. According to quantum mechanics, the atom is in a superposition of “decayed” and “not decayed.” Therefore, the cat, being entangled with the atom, is seemingly in a superposition of “alive” and “dead” until the box is opened and observed. This defies our classical intuition that a cat must be definitively either alive or dead (<xref ref-type="bibr" rid="scirp.144866-11">
      Raj, 2022
     </xref>).</p>
    <p>Simple Quantum Representation (The absurdity): StateCat = {Cat-Alive, Cat-Dead} (before observation).</p>
    <p>Upon Observation (O): O(StateCat) → Cat-Alive (or Cat-Dead, but only one is observed).</p>
    <p>Mulla Sadra’s Reconciliation: Sadra’s philosophy provides a way to conceptualize this without resorting to the absurd notion of a “zombie cat”:</p>
    <p>Mathematical Mapping (Sadra): Let ECat-System be the underlying existence of the entire integrated system (cat + atom + poison setup). Before observation, ECat-System contains the potentials for two distinct quiddities to manifest: ECat-System ↔ {QAlive-Cat, QDead-Cat} potential.</p>
    <p>Observation (O) is an interaction that actualizes one quiddity from ECat-System, as part of its Essential Movement: O(ECat-System) ⇒ QAlive-Cat (Actualization of potential from E).</p>
    <p>Philosophical Interpretation: The cat is not “literally” both alive and dead in any classical sense. Its existence is primary, and in this specific experimental setup, that existence carries the potential for two different substantial outcomes. The “superposition” (as represented by Ψ) describes this inherent potential within the system’s dynamic existence, which resolves into a definite state upon interaction, solidifying one specific quiddity. The paradox of the zombie cat is avoided by distinguishing between the primary, dynamic existence (which holds potential) and the secondary, definite quiddity that emerges upon actualization.</p>
    <p>Presentist-Fragmentalism’s Reconciliation: PF elegantly resolves Schrödinger’s Cat by stating that the superposition is not experienced by the cat itself, nor does it exist in a universal “now” before observation:</p>
    <p>Mathematical Mapping (PF): Before Observation (distinct “nows”): (NowCat-Box: {Cat-Alive} OR {Cat-Dead}) (definite state within its own fragment’s now) (NowSchrödinger: {Cat-Alive, Cat-Dead} potential) (perceived superposition from external fragment)</p>
    <p>During Observation (O), the “nows” synchronize: O (NowCat-Box, NowSchrödinger) ⇒ (NowUnified System: Cat-Alive) (or Cat-Dead, now shared)</p>
    <p>Philosophical Interpretation: The paradox vanishes because the contradictory states are never simultaneously real in a single, universal “now.” The cat is always definitely alive or dead in its own “now.” The superposition is merely a description from an unsynchronized “now” of the observer. The observation is the act of merging these temporal realities, bringing the cat’s definite state into the observer’s shared present.</p>
    <p>Limitations and Scope</p>
    <p>It is important to acknowledge that the metaphysical schemes presented, namely Mulla Sadra’s philosophy and Presentist-Fragmentalism, while offering a novel conceptual framework for understanding quantum paradoxes, presently lack falsifiable empirical predictions. This paper is purely philosophical and aims to supply an ontological rather than empirical reconciliation of quantum phenomena. Our objective is to provide an alternative interpretive lens for quantum mechanics, demonstrating how these philosophical ideas can conceptually resolve issues such as the measurement problem, entanglement, and Schrödinger’s Cat without requiring additional physical postulates or modifications to quantum theory itself. The scope of our claims is therefore confined to the philosophical realm, offering a new way of thinking about quantum reality rather than proposing a testable scientific theory.</p>
   </sec>
  </sec><sec id="s4">
   <title>4. Concluding Remarks</title>
   <p>The perplexing nature of quantum mechanics compels us to seek interpretations that transcend purely scientific descriptions. This article has explored the remarkable potential of two distinct metaphysical frameworks—Mulla Sadra’s Transcendent Philosophy and Presentist-Fragmentalism—in offering coherent and intuitive resolutions to the measurement problem, entanglement, and Schrödinger’s Cat paradox.</p>
   <p>Mulla Sadra’s philosophy provides a dynamic, existentially rich ontology where reality is fundamentally unified yet continually transforming. His concepts of the Primacy of Existence, Essential Movement, and Existential Gradation allow us to understand quantum superposition not as a static, contradictory state, but as a representation of the inherent potentiality within a substance’s dynamic existence, actualizing into definite quiddities upon interaction. Entanglement, from this perspective, is not “spooky action at a distance,” but an inevitable consequence of the deep interconnectedness of all things as manifestations of a single, graded reality.</p>
   <p>Presentist-Fragmentalism offers a novel temporal ontology, positing a fragmented reality where different systems can possess distinct “nows.” This framework resolves the paradoxes by arguing that macroscopic superpositions do not exist in a single, universal “now,” but rather reflect a state of unsynchronized realities. Measurement, in this view, becomes the synchronization of these distinct “nows,” leading to the emergence of a definite outcome in a newly shared present.</p>
   <p>While Sadra’s philosophy is rooted in classical Islamic intellectual traditions and Presentist-Fragmentalism in contemporary analytical philosophy of physics, their explanatory power converges on key points. Both frameworks challenge the classical intuition of a static, independently existing reality and emphasize the dynamic, relational, and potentially non-unified nature of existence prior to certain interactions. Sadra’s ideas provide a holistic existential backdrop, while PF offers a specific temporal and ontological mechanism for quantum phenomena.</p>
   <p>Future research could explore more formal mappings between philosophical concepts and quantum mathematical structures, or delve deeper into how these metaphysical interpretations might inform the development of new physical theories or help in adjudicating between existing quantum interpretations (e.g., Many-Worlds, Bohmian Mechanics). By integrating rigorous philosophical inquiry with the insights of quantum physics, we can move closer to a more comprehensive and satisfying understanding of the nature of reality.</p>
  </sec>
 </body><back>
  <ref-list>
   <title>References</title>
   <ref id="scirp.144866-ref1">
    <label>1</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Entangled Quantum Circuits (2023, May 10). ETH Zurich News. &gt;https://ethz.ch/en/news-and-events/eth-news/news/2023/05/entangled-quantum-circuits.html 
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref2">
    <label>2</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Deng, N. (2023). Commentary: “Physical Time within Human Time” and “Bridging the Neuroscience and Physics of Time”. Frontiers in Psychology, 14, Article ID: 1134397. &gt;https://doi.org/10.3389/fpsyg.2023.1134397
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref3">
    <label>3</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Guimaraes, M. S., Roditi, I.,&amp;Sorella, S. P. (2024). Introduction to Bell’s Unequality in Quantum Mechanics.
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref4">
    <label>4</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Maudlin, T. (2019). Philosophy of Physics: Quantum Theory. Princeton University Press.
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref5">
    <label>5</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     McTaggart, J. E. (1908). I.—The Unreality of Time. Mind, 17, 457-474. &gt;https://doi.org/10.1093/mind/xvii.4.457
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref6">
    <label>6</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Merriam, P. (2022). A Theory of the Big Bang in Mctaggart’s Time. Axiomathes, 32, 685-696. &gt;https://doi.org/10.1007/s10516-022-09623-5
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref7">
    <label>7</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Merriam, P. (2022). Presentist Fragmentalism and Quantum Mechanics. Foundations of Physics, 52, Article No. 91. &gt;https://doi.org/10.1007/s10701-022-00606-5
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref8">
    <label>8</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Minaee, A. (2025). Rereading Mulla Sadra’s Substantial Motion in Bridging Whiteheadian Process Philosophy and Quantum Ontology. PhilArchieve. &gt;https://philarchive.org/rec/MINRMS 
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref9">
    <label>9</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Morris, J. W. (2002). The Wisdom of the Throne: An Introduction to the Philosophy of Mulla Sadra. Princeton University Press.
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref10">
    <label>10</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Penrose, R. (2004). The Road to Reality: A Complete Guide to the Laws of the Universe. Alfred A. Knopf.
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref11">
    <label>11</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Raj, R. (2022). A Logical Encounter of the Schrödinger’s Cat Paradox. Axiomathes, 32, 149-152. &gt;https://doi.org/10.1007/s10516-021-09592-1
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref12">
    <label>12</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Rizvi, S. H. (2009). Mulla Sadra and Metaphysics: Modulation of Being and the Act of Existence. Routledge.
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref13">
    <label>13</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Ruberti, M., Averbukh, V.,&amp;Mintert, F. (2024). Bell Test of Quantum Entanglement in Attosecond Photoionization. Physical Review X, 14, Article ID: 041042. &gt;https://doi.org/10.1103/physrevx.14.041042
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref14">
    <label>14</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Susskind, L.,&amp;Hrabovsky, G. (2014). Quantum Mechanics: The Theoretical Minimum. A New York Times Best Seller.
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref15">
    <label>15</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Tang, L., Wu, F., Mo, Z.,&amp;Bai, M. (2023). The Brukner-Zeilinger Invariants in Terms of (N, M)-POVMs. Physica Scripta, 98, Article ID: 125225. &gt;https://doi.org/10.1088/1402-4896/ad0a30
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref16">
    <label>16</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Tomaz, A. A., Mattos, R. S.,&amp;Barbatti, M. (2025). The Quantum Measurement Problem: A Review of Recent Trend.
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref17">
    <label>17</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Waaijer, M.,&amp;Neerven, J. v. (2021). Relational Analysis of the Frauchiger-Renner Paradox and Interaction-Free Detection of Records from the Past. Foundations of Physics, 51, 1-18. &gt;https://doi.org/10.1007/s10701-021-00413-4
    </mixed-citation>
   </ref>
   <ref id="scirp.144866-ref18">
    <label>18</label>
    <mixed-citation publication-type="other" xlink:type="simple">
     Wu, Y., Jiang, R., Ruzi, A., Ban, Y., Yan, X.,&amp;Li, Q. (2025). Testing Bell Inequalities and Probing Quantum Entanglement at CEPC. Physical Review D, 111, Article ID: 036008. &gt;https://doi.org/10.1103/physrevd.111.036008
    </mixed-citation>
   </ref>
  </ref-list>
 </back>
</article>