The War of 1812 was a conflict fought from 1812 to 1815 primarily between the United States and Great Britain, with fighting concentrated in North America and at sea. It’s often described as a “second war of independence” by Americans and a defensive war by British North America (today’s Canada).
1. Why the War Happened (Causes)
There wasn’t a single cause, but several overlapping ones:
🇬🇧 British actions
Impressment: The British Royal Navy forcibly took sailors—many of whom were American—from U.S. ships to serve in the British navy.
Trade restrictions: Britain limited U.S. trade with France during the Napoleonic Wars through blockades and orders in council.
🇺🇸 American motives
National honor & sovereignty: Many Americans felt Britain was treating the U.S. like a former colony.
Westward expansion: The U.S. accused Britain of supporting Indigenous resistance to American expansion in the Northwest Territory.
War Hawks in Congress: Young politicians (like Henry Clay) pushed for war, some believing Canada could be easily conquered.
🪶 Indigenous resistance
Indigenous nations, led in part by Tecumseh, opposed U.S. expansion and often allied with Britain, seeing them as the lesser threat.
2. Who Fought
United States
British Empire
British North America (Upper & Lower Canada) – militias and settlers
Indigenous confederacies allied with Britain
Notably, Britain was preoccupied with Napoleon in Europe, which limited resources early in the war.
3. Major Campaigns & Battles
🇨🇦 Canadian Front
American invasions of Canada (1812–1813) failed.
Key battles:
Queenston Heights (1812) – British and Indigenous forces repel U.S. invasion.
Battle of the Thames (1813) – U.S. victory; Tecumseh killed.
Canadian militias played a major role in defense.
🌊 Naval War
Early U.S. naval victories (e.g., USS Constitution).
Battle of Lake Erie (1813) – U.S. victory; “We have met the enemy and they are ours.”
🔥 Chesapeake & Southern Campaigns
Burning of Washington (1814): British forces burned the White House and Capitol.
Battle of Baltimore (1814): U.S. successfully defended the city; inspired “The Star-Spangled Banner.”
Battle of New Orleans (1815): Major U.S. victory led by Andrew Jackson—fought after the peace treaty was signed (news traveled slowly).
4. How It Ended
📜 Treaty of Ghent (1814)
Signed December 24, 1814.
Restored pre-war borders (status quo ante bellum).
Said nothing about impressment or neutral rights (the issues faded after Napoleon’s defeat).
5. Consequences & Significance
🇺🇸 United States
Surge of national pride and identity.
Andrew Jackson becomes a national hero (and later president).
Strengthened federal authority and military confidence.
Accelerated decline of Indigenous resistance in the Midwest.
🇨🇦 Canada
Strengthened sense of Canadian identity.
Reinforced resistance to U.S. annexation.
Elevated figures like Laura Secord and Isaac Brock (who died early in the war).
🪶 Indigenous Nations
Major loss: Britain abandoned support after the war.
Indigenous lands increasingly seized by U.S. expansion.
🇬🇧 Britain
Achieved its main goal: defending Canada.
The war was a minor sideshow compared to the Napoleonic Wars.
6. Why It’s Remembered Differently
United States: Seen as a successful defense of independence.
Canada: Remembered as a victory that prevented U.S. conquest.
Britain: Largely forgotten.
Indigenous peoples: Viewed as a tragic turning point.
7. One-Sentence Summary
The War of 1812 was a messy, inconclusive conflict that nonetheless reshaped national identities in the U.S. and Canada and decisively weakened Indigenous resistance in North America.
Short answer: Bitcoin and Ethereum, as is, cannot function as a single, strongly consistent global blockchains across interplanetary distances. The speed of light breaks their assumptions.
Below is how this likely evolves.
1. The fundamental constraint: light-speed latency
Even at light speed:
Earth ↔ Moon: ~1.3 seconds
Earth ↔ Mars: ~3–22 minutes (one-way)
Earth ↔ Alpha Centauri: ~4.3 years
Bitcoin:
Block time ≈ 10 minutes
Global propagation already struggles on Earth
Ethereum:
Slot time ≈ 12 seconds
Finality ≈ 12–15 minutes
➡️ Interplanetary latency makes real-time consensus impossible.
2. What breaks first
Bitcoin
Massive fork rates between planets
Mining becomes planet-local
Long reorgs when chains reconnect
“Longest chain” rule becomes meaningless across light-minutes
Ethereum
Validators can’t attest in time
Finality stalls or fragments
Slashing becomes unfair (latency ≠ fault)
Result: chain fragmentation
3. Likely evolution: a multi-layer, multi-chain reality
Instead of “one chain to rule them all,” we get hierarchical and federated systems.
🪐 Planetary chains (Layer 1)
Each planet runs its own sovereign chain:
Earth Bitcoin
Mars Bitcoin
Titan Ethereum
Orbital habitat rollups
Consensus remains local, fast, and fair.
🌌 Interplanetary settlement layers
Slow, high-latency chains act as settlement and reconciliation layers:
Checkpoint summaries
State commitments
Merkle roots exchanged every days/weeks/years
Disputes resolved asynchronously
Think:
“SWIFT, but cryptographic and trust-minimized”
⚡ Local execution, delayed finality
Payments on Mars finalize instantly on Mars
Interplanetary transfers finalize only after long delays
Time becomes a first-class protocol parameter
4. Ethereum adapts better than Bitcoin
Ethereum’s roadmap already points here:
Rollups
Data availability layers
Modular consensus
Validium / Sovereign rollups
Future Ethereum ≈ coordination layer, not a monolithic chain.
Bitcoin, by contrast:
Extremely conservative
Likely remains local digital gold
Used as planetary reserve asset
Interplanetary BTC ≈ wrapped, bonded, or escrowed representations
The idea for the original article, Why is Knowledge like Steam?, came to me while attending the 2002 McMaster World Congress on Intellectual Capital hosted by Dr. Nick Bontis and McMaster University.
Ten Reasons why Agents are like Steam
10. Like steam, agents will collect (and connect) somewhere.
9. Even though agents can collect anywhere at any time, this doesn’t imply they are easy to create, find, or use – so too with steam.
8. Small amounts of steam do not appear significant until they are collected and put to work – so too it is with agents. Small numbers of agents do not appear significant until they connect, collect, and their energies combine.
7. There is no danger of there being too much steam. Excess steam can be vented or sold. Is this true with agents?
6. The greater the number of sources of steam you have around you, the more likely you are to have it when you need it. So too it is with agents – teams of agents working collectively, whenever you need them, across multiple parties, locations, organizations, and jurisdictions – simultaneously.
(Want to accomplish something that isn’t possible in your jurisdiction? Use an agent in a different jurisdiction.)
5. The commercial value of steam is highest when it is new and concentrated – so too it is with agents (initially).
4. Steam can be used to create more steam – so too it is with agents.
3. Steam can be condensed into a purer, distilled form – so too it is with teams of agents (agentillation).
2. There are many fuels and methods that can be used to create steam and put it to work – not all of which will be economic at a given point in time – so too it is with agents.
1. If you don’t create it, capture it, channel it, and put it to work, its value is marginalized. So too it is with agents.
Michael Herman, Decentralized Systems Architect, Web 7.0™. December 2025.
Below is a clean correlation analysis between the 7 Rights in the Manifesto of the Digital Age and the original 7 Principles for managing identic AI. Both lists that were provided in the book You To The Power Two by Don Tapscott and co. but not matched or correlated. This article presents an new, independent, extended correlation analysis highlighting:
Strength of alignment,
Direction of influence, and
Gaps.
Big Picture First
The 7 Principles are design and governance constraints on AI systems.
The 7 Rights are human and societal outcomes those systems must serve.
In short:
Principles are the “how”
Rights are the “why.”
Rights vs. Principles Correlation Matrix
Legend
●●● = strong, direct correlation
●● = moderate correlation
● = indirect or enabling correlation
Manifesto Rights ↓ / AI Principles →
Reliability
Transparency
Human Agency
Adaptability
Fairness
Accountability
Safety
1. Security of personhood
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2. Education
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3. Health & well-being
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4. Economic security & work
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5. Climate stability
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6. Peace & security
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7. Institutional accountability
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Narrative
Right 1. Security of Personhood
Strongest alignment overall
Human Agency → personal sovereignty, autonomy, consent
Transparency → knowing how identity/data are used
Fairness → protection from discriminatory profiling
Accountability → redress for misuse or surveillance
Safety → protection from manipulation and coercion
🧭 Interpretation: This right is essentially the human-centered synthesis of five of your principles. It operationalizes them at the level of individual dignity.
Right 2. Education
Primarily about adaptability and agency
Human Agency → empowerment through learning
Adaptability → lifelong learning in AI-shaped labor markets
Fairness → equitable access to infrastructure and tools
🧭 Interpretation: Education is the human adaptation layer required for your principles not to become elitist or exclusionary.
Right 3. Health and Well-being
Reliability + Safety dominate
Reliability → clinical accuracy and robustness
Safety → “do no harm” in physical and mental health
Accountability → liability for harm or negligence
🧭 Interpretation: Healthcare is where your principles become non-negotiable, because failure has immediate human cost.
Right 4. Economic Security & Meaningful Work
Human agency + fairness + adaptability
Human Agency → meaningful work vs. automation domination
Fairness → equitable distribution of AI-generated value
Adaptability → redefining work and income models
🧭 Interpretation: This right extends your principles into political economy. The principles constrain AI behavior; this right constrains AI-driven capitalism.
Right 5. Climate Stability
Safety + accountability at planetary scale
Safety → ecological harm prevention
Accountability → responsibility for environmental impact
Adaptability → climate-responsive systems
🧭 Interpretation: This right introduces non-human stakeholders (future generations, ecosystems), which your principles imply but do not explicitly name.
Right 6. Peace and Security
Safety and accountability dominate
Safety → prohibition of autonomous violence
Accountability → attribution of harm in warfare
Fairness → prevention of asymmetric technological domination
🧭 Interpretation: This is the hard boundary case: where your principles become geopolitical norms, not just business ethics.
Post-anthropocentric society describes a worldview, system, or society in which humans are no longer treated as the sole, default, or supreme center of value, agency, or decision-making. Post-anthropocentric does not mean anti-human or anti-humanity. It means humans are no longer the only meaningful actors. Humans are one class of actors among several.
Neuromorphic refers to brain-inspired computing that designs hardware and software to mimic the human brain’s structure and functions, using artificial neurons and synapses to process information with extreme energy efficiency, parallelism, and adaptability, moving beyond traditional binary logic for tasks like pattern recognition and real-time learning. [Google]
Coding is a process of DiscontinuousTransformation. When is the coding process discontinuous? Whenever there is a human in the middle. [Michael Herman. December 21, 2025.]
Orthogonal Categories
Coding is a process of Discontinuous Transformation. The following is the list of 61 items from The Discontinuous Code Transformation Problem 0.1 (the original with item numbers preserved), organized into 6 orthogonal, spanning set categories:
Abstract ⇄ Formal Code (Intent and conceptual to executable code)
Code Representation & Structure (Different internal/code structures without altering fundamental semantics)
Code Quality & Behavioural Transformation (Improvements or regressions in code behaviour, performance, structure)
Code ↔ Data, Formats & External Artefacts
Execution Context, Platforms & Environment
Human-Cognitive & Sensory Interfaces with Code
1. Abstract ⇄ Formal Code(Intent and conceptual to executable code)
These transformations involve moving between ideas, designs, algorithms, pseudocode, prompts and formal code.
Coding is a process of DiscontinuousTransformation. What makes/when is the coding process discontinuous? Whenever there is a human in the middle. [Michael Herman. December 21, 2025.]