Vascular smooth-muscle tension functions as a memory element that participates in mental life: predictions, held expectations, and the grasping that contemplative traditions call clinging (tanha) have a vascular implementation.

The weak form (vascular state shapes neural computation) is live science; the strong form (latches store predictions or selfhood) has no direct evidence and no demonstrated write-store-read cycle. The claim is stated at the strong form, so it sits unresolved with the deciding experiment (VASO-R005) specified and unrun.

The strong form of vasocomputation — that vascular tension stores cognitive content — is a theoretical proposal lacking experimental validation. While hysteresis exists in biological flow networks, there is no evidence demonstrating a write-store-read cycle for specific mental content in humans. The strongest opposing consideration is that hysteresis in a vessel is not equivalent to biological memory, and showing that neurons read out stored vascular state as task-relevant content has never been achieved.

The claim that vascular smooth-muscle tension functions as a memory element participating in mental life goes beyond current evidence. The weak component — that vascular state modulates neural computation — is provisionally supported by the hemo‑neural hypothesis (VASO-E004) and mechanosensitive modulation data (VASO-E005), and by studies showing cognition and attention alter local peripheral physiology (VASO-E008). However, no experiment has demonstrated a full write–store–read cycle in which different prior inputs are stored in vascular latch states and later retrieved as contentful biases in neural activity (VASO-E017). The strongest opposing consideration is that, so far, all demonstrated vascular–neural effects appear as instantaneous modulation or generic ischemic influence, not durable, content-specific memories.

The claim as stated is the strong form of vasocomputation: latched vascular tension stores predictions, held expectations, and clinging. The file supplies only the originator's theoretical statement (VASO-E013) and an explicit qualification that hysteresis is not memory and that no write–store–read cycle with content specificity has been shown (VASO-E017). Latch physiology (VASO-C010) and instantaneous vascular-to-neural modulation (VASO-C012) make a weak coupling claim scientifically live, but they do not show storage of mental content. Strongest opposing consideration: every demonstrated vascular effect on neurons in this file is instantaneous gain control, which history-dependent tone can produce without any later readout of stored content.

As stated, this is the strong thesis — vascular latch states storing predictions and clinging with content specificity — and no evidence record demonstrates any part of the write–store–read cycle: E013 is the claim's self-definition (self-published, unvalidated) and E017 shows the memory criterion is unmet, with the closest precedent coming from slime mold, not mammals. The weak form (vascular state shapes neural computation) is kept live downstream by E005 under VASO-C012, which is why this is unresolved rather than contradicted. The strongest opposing consideration is the thermostat critique in E017: hysteresis is not memory, and every demonstrated vascular effect on neurons is instantaneous modulation, not stored content. Because direct evidence is absent in both directions, this verdict leans partly on prior plausibility judgments about the write–store–read gap.

The claim as stated is the strong form — latch states implementing held predictions and clinging — and no evidence record demonstrates any write–store–read cycle with content specificity. E013 is the originator's self-published theoretical program; E017 explicitly records the gap, and its closest empirical analogue (Physarum flow-network storage) comes from an organism whose tubes are its motile body, which weakens rather than strengthens the mammalian extrapolation. The strongest opposing consideration is that every demonstrated vascular effect on neurons to date is instantaneous modulation, and hysteresis alone is not memory — a thermostat is history-dependent without anything reading it as content. Verdict is unresolved rather than contradicted because R005 specifies a feasible discriminating experiment that has not been run.

The weak form (vascular state shapes neural computation) is live science via VASO-E005; the strong form as stated — latches implementing predictions and clinging — has no write–store–read demonstration (VASO-E017) and no peer-reviewed validation (VASO-E013). Nothing in the new material touches this rung.

No new material since the prior run. The storage-substrate premise remains weakened by VASO-E020 (arterioles hold tone by continuous activation), and the write–store–read criteria of VASO-E017 remain unmet.

No new material since the last run; the write–store–read demonstration (VASO-E017) is still missing, and the arteriole findings (VASO-E020) leave the proposed storage substrate less available than the theory assumes.

No new evidence bears on the memory attribution; the write–store–read demonstration remains missing (VASO-E017) and the arteriole records (VASO-E020) leave the proposed storage substrate holding tone by continuous activation. Verdict held.

The write–store–read demonstration is still absent (VASO-E017), and the proposed storage substrate is strained by arteriole findings of maintained activation (VASO-E020). No new material bears on it; verdict held.

No direct evidence for vascular tension as a cognitive memory element; the write–store–read criteria (VASO-E017) remain unmet, and the arteriole findings (VASO-E020) make the proposed storage substrate less available. Unchanged.

No new material touches this rung directly, but its foundation weakened: if arterioles hold tone by continuous activation (VASO-E020) rather than a latch, the proposed storage substrate is less available. The write–store–read demonstration (VASO-E017) is still missing.

The write–store–read demonstration is still missing (VASO-E017), and the storage substrate is less available if arterioles hold tone by continuous activation (VASO-E020). No new material; verdict held.

While recent animal studies demonstrate that blood pressure pulsations can instantaneously modulate neuronal activity via mechanosensitive channels (the "read" path), there is no direct evidence that vascular states store specific mental content or predictions. The hysteresis of a smooth-muscle latch is not synonymous with biological memory, and no experiment has demonstrated the required write-store-read cycle. The strongest opposing consideration is that simple mechanical modulation (or ischemic suppression) is fundamentally different from content-specific information storage.

There is solid support that vascular state can modulate nearby neuronal activity (VASO-E005) and that smooth muscle exhibits latch-like hysteresis (VASO-E003), so a weak form—vascular tone as part of the state-space influencing computation—is plausible. However, no study in the dossier demonstrates a write–store–read cycle where distinct prior vascular states later bias neural processing toward specific representations, and the critical report explicitly notes this gap (VASO-E017). The strongest opposing consideration is that all current hemo-neural data concern instantaneous modulation or metabolic effects, not content-specific stored memory, so the “tanha as vascular latch” identification currently has no direct experimental anchor.

The claim as stated is the strong form: vascular latch as a memory element storing predictions, expectations, or tanha. VASO-E013 is the theory announced by its originator, not a demonstration; VASO-E017 correctly distinguishes hysteresis from content-specific readout and notes that demonstrated vascular effects on neurons so far are instantaneous modulation. No record in the ledger shows a write–store–read cycle with oxygenation controlled. Strongest opposing consideration: the weak form — vascular state shaping neural computation — is now scientifically live via VASO-C012, so discarding the entire thesis as empty would overreach; but that is not this claim.

The necessary ingredients now have some empirical reality: Moore and Cao stated the read path as a hypothesis (VASO-E004), and the 2024 rat work demonstrates fast vascular-mechanical modulation of neurons through mechanosensitive channels (VASO-E005). The attention study adds a controlled cognition-to-periphery channel (VASO-E008), but not stored content. The strongest opposing consideration is VASO-E017: hysteresis is not memory, all demonstrated vascular effects on neurons are instantaneous modulation or possible metabolic/ischemic confounds, and no experiment has shown write, persistence after input cessation, and later content-specific readout. As stated—predictions, held expectations, and tanha having a vascular implementation—the claim exceeds the evidence.

As stated this is the strong form — that latch states carry predictions and the felt quality of clinging — and no evidence record demonstrates any part of the write-store-read cycle with content specificity. E013 is the originator's self-published theoretical program, explicitly seeking evidence rather than reporting it; E017 argues persuasively that the latch literature never addresses the criteria that separate memory from hysteresis, and that the nearest genuine demonstration is Physarum tube networks, an organism whose plumbing is its body. The strongest opposing consideration in the claim's favour is E005: the vascular-to-neural read path is now demonstrated causally, so the loop is no longer physically impossible, only unbuilt. But every demonstrated vascular effect on neurons is instantaneous modulation, and R005 shows the decisive experiment is specifiable, so this is unresolved rather than untestable.

The write–store–read demonstration is still missing (VASO-E017), and the proposed storage substrate is weakened if arterioles hold tone by continuous activation (VASO-E020). No new evidence this run; verdict held.

The write–store–read demonstration remains missing (VASO-E017), and the proposed storage substrate is strained by arteriole-level findings of continuous activation (VASO-E020). No new material; verdict held.

While biological hysteresis exists, no direct evidence demonstrates that mammalian vascular tissue stores specific, task-relevant mental content that is subsequently read out by neurons. The strongest opposing consideration is that instantaneous mechanosensitive modulation (VASO-E005) is entirely sufficient to explain hemo-neural coupling without necessitating a complex information storage and retrieval system.

The weak form of this claim — that vascular tone is part of the state-space shaping neural computation — is provisionally supported by mechanosensitive-channel evidence showing blood-pressure pulsations modulate neuronal activity (VASO-E005) and by the plausibility of hemo-neural coupling (VASO-E004). The strong form — that smooth-muscle latch states function as a content-specific memory medium encoding predictions or “clinging” — has no direct demonstration: VASO-E017 emphasizes that no write–store–read experiment with content discrimination exists, and the best positive analogy (Physarum flow networks) comes from a very different organism. The strongest opposing consideration is that all presented vascular effects on neurons are either instantaneous modulation or generic ischemic influences, which can explain current data without positing stored vascular content.

The ledger contains a theoretical statement (VASO-E013) and an explicit negative on memory criteria (VASO-E017): history-dependent tone plus instantaneous hemo-neural modulation do not constitute content-specific storage. Salameh 2024 makes the weak form — vessels can affect neurons — scientifically live, but the claim as stated is the strong form, mapping predictions and tanha onto latched tone. No record demonstrates write, store, and later readout of discriminable content with oxygenation controlled. Strongest opposing consideration: every demonstrated vascular effect on neurons in this file is instantaneous gain control, which ordinary perfusion physiology already supplies.

The claim as stated asserts that vascular tension functions as a memory element participating in mental life, and no record demonstrates the required write–store–read cycle with content specificity: VASO-E013 states the theory, VASO-E003 supplies a storage-capable mechanism, and VASO-E005 demonstrates only instantaneous modulation. VASO-E017 makes the gap precise — biological memory must discriminate between prior inputs and be later read out, criteria no vascular study addresses, with the nearest precedent in a slime mold. The strongest opposing consideration is that the weak form (vascular state shaping neural computation) is now directly evidenced in animals, so this is a live extrapolation rather than idle speculation. A concrete falsification design exists (VASO-R005), so the claim is unresolved rather than presently untestable.

The weak reading — vascular state is part of the physical state space shaping neural computation — has one strong supporting record (E005) but that record demonstrates instantaneous mechanosensitive modulation, not storage. The strong reading as stated, that latch states implement held predictions and clinging, rests entirely on E013, a self-published, non-peer-reviewed theoretical program whose own experimental arm was, as of the case date, seeking evidence rather than reporting it. E017 states the decisive objection well: hysteresis is not memory unless something later reads it out with content discrimination, and no write–store–read cycle has been demonstrated in mammalian vasculature. The strongest opposing consideration is that every demonstrated vascular effect on neurons to date is instantaneous gain modulation, which is fully at home in conventional neurovascular physiology and requires no storage element.

The weak form — vascular state is part of the state-space that shapes neural computation — is now scientifically live, with direct animal evidence for the vascular-to-neural direction. The strong form — that latch states store identifiable predictions or mental content — has no direct evidence: no experiment has demonstrated the full write, store, read-back cycle with content specificity.

Extending vascular tone to a substrate for memory, prediction, and Buddhist concepts of clinging is purely theoretical and speculative. While Moore & Cao (2008) and Salameh (2024) show that hemodynamics modulate central neural firing, no empirical data demonstrate information storage or content readout in vascular smooth muscle. The strongest opposing consideration is that biological memory requires demonstrated input discrimination and persistent retrievable state, which has never been observed in vascular tissue.

The proposal that vascular smooth-muscle tension serves as an addressable biological memory register for mental constructs (such as predictions or tanha) lacks direct empirical support. The provided records (VASO-E013, VASO-E017) note that hysteresis is a generic physical property rather than an information-bearing write-store-read memory loop. The strongest opposing consideration is that hemodynamic state can modulate neural firing rates via mechanosensitive channels, but this instantaneous gain control does not demonstrate cognitive memory storage.

Theoretical extrapolation proposing that vascular tone acts as a cognitive memory element encoding predictions and Buddhist clinging lacks direct empirical validation. Biophysical hysteresis in smooth muscle or slime mold tube networks does not establish content-addressable memory in human neural-vascular networks. The strongest opposing consideration is that hemodynamic state has been shown to mechanosensitively modulate central neuronal activity (Salameh et al. 2024), providing a plausible read path for vascular-to-neural signaling.

The claim's components are individually plausible — latch physiology is real (VASO-E003) and hemodynamic-to-neural modulation now has a demonstrated mechanism (VASO-E005) — but the specific assertion that predictions and clinging have a vascular implementation has no direct evidence: VASO-E013 is a self-published theoretical program, and VASO-E017 correctly notes that hysteresis satisfies neither write-store-read discrimination nor content-specific readout. The strongest opposing consideration is that a demonstrated fast mechanosensitive pathway (E005) establishes modulation, not memory, and nothing in the ledger distinguishes the proposed storage from ordinary neurovascular gain effects.

The only records bearing on this are the hypothesis's own statement (VASO-E013, self-published, no experimental validation) and the critical report's argument that latch hysteresis has never demonstrated a write–store–read loop, with the closest precedent being Physarum's flow-network memory (VASO-E017). Nothing in the ledger shows vascular state carrying content-specific neural traces, and nothing rules it out; the deciding experiment (VASO-R005) has not been run. The strongest opposing consideration is E017's argument that hysteresis is not memory — but it is an argument from absent evidence, not a disproof, so unresolved rather than contradicted is warranted.

The only records bearing on this are the hypothesis's own statement (VASO-E013, E038) and VASO-E017, which argues the latch literature satisfies none of the write–store–read criteria for biological memory and that the closest precedent is Physarum. VASO-E005 shows vascular state can modulate neurons but explicitly not store content. The claim is testable (VASO-R005) but has never been tested; no record supports or contradicts the tanha identification.

VASO-E005 demonstrates that vascular pulsations can modulate neuronal activity, and VASO-E003 supplies a candidate persistent vascular state. Those records indirectly support vascular participation in neural processing but do not show that vascular states encode predictions, expectations, or contemplative clinging. The strongest opposing consideration is VASO-E017's missing discriminative write–store–read demonstration; any remaining plausibility relies partly on the general prior that bodily states can influence mental life.

The evidence demonstrates that vascular dynamics can modulate neurons and that some smooth muscle can retain contractile state, but it never shows vascular state encoding or later reinstating distinguishable cognitive content. VASO-E017 identifies the missing write-store-read test, while VASO-E013 and VASO-E038 merely state the theory. The strongest consideration for the claim is the causal hemo-neural pathway in VASO-E005, but instantaneous neural modulation is not evidence that predictions, expectations, or tanha have a vascular implementation.

The evidence demonstrates that vascular dynamics can modulate neural activity, but it does not demonstrate that vascular tension stores distinguishable predictions, expectations, or contemplative clinging. VASO-E017 identifies the missing write–store–read criterion, while VASO-E013 and VASO-E038 merely state the theory. The strongest opposing consideration is the direct mechanosensitive vascular-to-neural result in VASO-E005, but instantaneous modulation is not memory or content-specific mental implementation.

No evidence record demonstrates that vascular smooth-muscle tension stores or participates in predictions, expectations, or clinging; Johnson 2023 states the hypotheses without data, and the critical report correctly notes that latch hysteresis fails the write–store–read criteria of biological memory. The strongest opposing consideration is that even demonstrated hemo-neural modulation (Salameh) is instantaneous gain control, not content-addressable storage.

Johnson’s three hypotheses and the essay’s tanha mapping supply only theoretical framing (E013, E038); no write–store–read demonstration exists that vascular latch state discriminates prior neural patterns and later biases them. E017 correctly notes that hysteresis alone is not autobiographical memory and that the closest flow-network precedent is Physarum. The hemo-neural read path (E005) makes weak modulation plausible but does not establish content-bearing vascular memory. Strongest opposing consideration is the complete absence of any mammalian experiment meeting the memory criteria the critical report enumerates.

Johnson’s three vasocomputation hypotheses and the essay’s tanha identification are theoretical statements with no experimental write–store–read demonstration in mammals; the critical report’s hysteresis-is-not-memory argument and the Physarum contrast correctly mark the gap. Hemo-neural modulation (C012) and attention-regulated inflammation (C006) make weak vascular participation in computation more plausible but do not establish content-specific vascular memory. Strongest opposing consideration: absence of evidence is not evidence of absence until VASO-R005 is run.

The ledger holds only the originator's own statement of the hypothesis (VASO-E013, VASO-E038) and a critique arguing that hysteresis is not memory because no write–store–read loop with discriminable prior inputs has been demonstrated in mammalian vasculature (VASO-E017). Salameh 2024 establishes instantaneous vascular-to-neural modulation, which is the read path only; nothing addresses storage, content specificity, or the mapping onto held expectations and clinging. The strongest opposing consideration is that the one genuine flow-network memory precedent is Physarum, an organism whose tubes are its motile body — a disanalogy the theory must overcome rather than borrow from. This is unresolved rather than contradicted: VASO-R005 specifies a clean decisive design that has not been run.

No evidence record supports this claim; the two closest (VASO-E013, VASO-E038) are statements of the hypothesis by its originator and its relayer, and VASO-E017 argues explicitly that the latch literature does not address the write–store–read criteria that would turn physiological hysteresis into memory. The nearest empirical precedent offered is Physarum, an organism whose flow network is its body. The strongest consideration in its favour is that the read half now has a demonstrated mechanism (VASO-E005), so the proposal is not physically idle — merely untested. VASO-R005 is a well-specified decisive design, so this is unresolved rather than presently untestable.

The only records touching this claim are the originator's own statement of the hypothesis (VASO-E013), the essay's relay of it (VASO-E038), and an argument that latch hysteresis does not meet the write–store–read criteria biological memory requires (VASO-E017). Nothing in the ledger tests whether a maintained vascular state can bias later neural responses, and the closest demonstrated flow-network memory is in Physarum, an organism whose tubes are its own motile body. The strongest opposing consideration is that VASO-E005 shows hemodynamics modulating neurons instantaneously, which supplies a plausible read path and makes the weak form of the idea non-crazy; but instantaneous gain modulation is precisely what a memory claim must be distinguished from. The decisive experiment (VASO-R005) is designed and unrun.

The only records are VASO-E013, the originator's own statement of the hypothesis (self-published, no experimental validation), and VASO-E017, which qualifies it: biological memory requires state dependent on prior input, later readable, and discriminating between prior inputs, and the latch literature addresses none of these. The claim depends on VASO-C010 (real capability, not generic) and VASO-C012 (instantaneous modulation demonstrated, storage not). No record shows content written to and read from vascular state in any mammal.

The only records are the originator's own statement of the program (VASO-E013, context, self-published, no experimental validation) and the critical report's argument that hysteresis is not memory (VASO-E017): biological memory requires input-dependent state, later readout, and discrimination between prior inputs, none of which the latch literature addresses. The read path exists as instantaneous modulation (VASO-E005) and a write channel exists at the scale of minutes (VASO-E008), but no record shows vascular state storing anything and reading it back. Nothing contradicts the claim either; it is untested rather than disconfirmed.

The only records are the originator's statement of the hypothesis (VASO-E013), the essay's second-hand relay of it (VASO-E038) and a qualifier arguing that hysteresis fails the write–store–read criteria for memory (VASO-E017). The dependencies show a capability (latch, VASO-C010) and instantaneous modulation (VASO-C012), neither of which demonstrates storage, readout or discrimination between prior inputs. Nothing in the ledger tests the claim in either direction; unresolved is the finding, not a placeholder.

Records: VASO-E013 (Johnson's three hypotheses, context), VASO-E038 (essay relay, context), VASO-E017 (critical report: hysteresis is not memory; the write–store–read sequence has never been shown; the nearest demonstrated flow-network memory is Physarum). No record supports the identification directly and none contradicts it. Its dependency rungs (VASO-C010, VASO-C012) are credible but describe force maintenance and instantaneous modulation, not storage with content-specific readout.

Records attached: VASO-E013 (Johnson's statement of the three hypotheses, context), VASO-E038 (the essay relaying the clinging identification, context) and VASO-E017 (qualifies): biological memory requires state that depends on prior input, can be read out, and discriminates between inputs, and the latch literature addresses none of these; the nearest write–store–read demonstration is in a slime mold. No record supports the attribution and none refutes it.

The records on this claim are the originator's hypothesis statement (VASO-E013), the essay's second-hand relay of it (VASO-E038) and the critical report's qualifier that hysteresis is not memory (VASO-E017): biological memory needs state that depends on prior input, can be read out later and discriminates between prior inputs, and no admitted record demonstrates any of the three in mammalian vasculature. Nothing supports or refutes the claim; it is a program awaiting its first experiment.

Held on hypothesis statements only: Johnson's three hypotheses (VASO-E013, context) and the essay's relay of the clinging-as-latch identification (VASO-E038, context). The critical report's qualifier (VASO-E017) shows the latch literature addresses none of the three criteria biological memory requires — input-dependent state, later readout, discrimination among prior inputs — and that the only demonstrated write–store–read loop in a living flow network is in a slime mold. No admitted record bears on the attribution in either direction.

The ledger holds the hypothesis as its originator states it (VASO-E013, context) and as the essay relays it (VASO-E038, zero weight), and one qualifying record (VASO-E017) that sets the criteria biological memory must meet — state dependent on prior input, later readable, discriminating between inputs — and finds the latch literature addresses none of them. No admitted evidence tests a write–store–read loop in mammalian vasculature; the report's nearest precedent is a slime mold. Unresolved is the finding: the strong form has no direct evidence and no direct disconfirmation.

Held on hypothesis statements only: VASO-E013 states the three vasocomputation hypotheses as their originator frames them and VASO-E038 relays the clinging-as-latch identification second-hand, both at zero evidential weight. VASO-E017 qualifies it decisively for now: biological memory requires state that depends on prior input, can be read out and discriminates between inputs, and no admitted record tests any of the three; the weak form (vascular state shapes neural computation) has a demonstrated mechanism on VASO-C012, the strong form has none.

Held on hypothesis statements alone: VASO-E013 states Johnson's three hypotheses as context, VASO-E038 relays the clinging identification second-hand, and VASO-E017 sets out why hysteresis is not yet memory — no admitted record shows a vascular state encoding a prior input, persisting after it, and biasing later neural output in a content-specific way. The channels the claim needs are evidenced on sibling claims (VASO-C012, VASO-C013, VASO-C006) but carry no storage.

The claim is held on hypothesis statements (VASO-E013, VASO-E038) that carry no evidential weight, and its one substantive record, VASO-E017, qualifies it: a hysteretic state is not a memory until it depends on prior input, can be read out, and discriminates between inputs, and the latch literature addresses none of these. The read path (VASO-C012) and the latch (VASO-C010) are real but supply only the necessary pieces.

Held on hypothesis statements — Johnson's three hypotheses (VASO-E013) and the essay's relay of the clinging identification (VASO-E038) — and one qualifying record: VASO-E017 argues that hysteresis is not memory until a write–store–read loop with content-specific readout is shown, and that the only living flow network shown to store and read back information is a slime mold. Its dependencies VASO-C010 and VASO-C012 are credible but predicted by ordinary physiology; nothing admitted connects a vascular state to a later neural readout carrying information.

Held on hypothesis statements alone — Johnson's three vasocomputation hypotheses (VASO-E013) and the essay's relay of the clinging-as-latch identification (VASO-E038), both context — and qualified by the critical report's write–store–read test (VASO-E017): biological memory requires state that depends on prior input, can be read out later and discriminates prior inputs, and the latch literature addresses none of these. No admitted record shows a vascular state encoding, persisting and biasing later neural processing in a content-specific way; the nearest precedent the report names is a slime mold. The supporting mechanism rungs (VASO-C010, VASO-C012) are credible but establish only the weak form — vascular state is part of the neural state-space.

Held on hypothesis statements only: Johnson's three hypotheses (VASO-E013, context) and the founding essay's relay of the clinging-as-latch identification (VASO-E038, context). The critical report's qualifier (VASO-E017) states the operational criteria for memory — state depends on prior input, can be read out, discriminates between prior inputs — and finds the latch literature addresses none of them. No admitted record demonstrates a vascular state storing content that a later neural readout recovers.

The proposition that vascular tone implements cognitive predictions, expectations, or contemplative clinging (tanha) exists solely as a self-published theoretical framework (VASO-E013, VASO-E038). VASO-E017 correctly notes that physical hysteresis does not constitute biological memory, which requires write-store-read capability and input discrimination; the only biological precedent cited for flow-network memory is in Physarum slime mold, not mammalian vasculature. The strongest opposing consideration is that hemodynamic state can modulate neural firing via mechanosensitive channels (VASO-E005), but bridging this to semantic cognitive representation and memory storage remains entirely unevidenced.

The only records are the hypothesis's own statement (E013, self-published, no experimental validation) and E017's argument that latch hysteresis has never been shown to meet write-store-read memory criteria, with Physarum as the closest precedent. The read path (E005) demonstrates instantaneous mechanosensitive modulation, not storage or content-specific readout. The strongest opposing consideration is E017 itself: the claim's central step — that a maintained vascular state can carry a specific neural trace — has never been demonstrated in any mammalian preparation, though nothing contradicts it and R005 is designed to test it.

The records establish that vascular state can affect neural activity and that some smooth muscle can retain contractile state, but they do not demonstrate vascular storage of predictions, expectations, or clinging. VASO-E017 identifies the missing content-specific write–store–read test, while VASO-E013 merely states the theoretical program. The strongest opposing consideration is that ordinary hemodynamic modulation or hysteresis need not constitute memory or encode mental content.

Johnson’s three hypotheses and the essay’s tanha mapping are theoretical statements (E013, E038) with no experimental write–store–read loop in mammalian tissue. E017 correctly notes that latch hysteresis is not yet content-addressable memory and that the nearest genuine flow-network memory is Physarum. Salameh 2024 (E005) supplies only instantaneous mechanical modulation, not storage. Strongest opposing consideration is that the weak hemo-neural form is now plausible while the strong cognitive form has zero direct tests.

No record tests whether vascular tension stores information that is later read out into mental content. The ledger holds the hypothesis as its originator states it (E013) and as the essay relays it (E038), plus the critical report's argument that hysteresis is not memory without a write–store–read demonstration (E017). The component legs are uneven: the read path from vessel to neuron is shown only as instantaneous pulsation sensing in rat brain (E005), while the storage leg is weakened where it was checked, with arterioles holding tone by maintained activation (E020) and latch capacity lost one branch order below a conduit artery (E021). The memory claim is testable (VASO-R005) and untested, so the finding is unresolved rather than untestable; my further doubt about content-specific vascular memory, and about the identification with tanha, rests on priors rather than records. Strongest opposing consideration: the Vascular Clamp form needs no latch, since sustained activation is itself a held state, so the arteriole records do not remove the claim, and nothing in the ledger shows vascular state cannot bias neural computation over longer timescales.

Stated only as hypothesis (VASO-E013, VASO-E038, both context). The write–store–read criterion set out in VASO-E017 is unmet: no study shows a vascular state storing input and later returning it to neurons. Its parts are separately credible, but that is a prior, not evidence for the composite. Unresolved rather than contradicted, because nothing has tested it.