Building a Graph-First RAG Taught Me Where Trust Actually Lives With LLMs

I didn’t build this because I thought the world needed another RAG framework.

I built it because I didn’t trust the answers I was getting—and I didn’t trust my own understanding of why those answers existed.

ChatGPT Image Jan 14 2026 at 04 07 59 PM

Reading about knowledge graphs and retrieval-augmented generation is easy. Nodding along to architecture diagrams is easy. Believing that “this reduces hallucinations” is easy.

Understanding where trust actually comes from is not.

So I built KnowGraphRAG, not as a product, but as an experiment: What happens if you stop treating the LLM as the center of intelligence, and instead force it to speak only from a structure you can inspect?

Why Chunk-Based RAG Breaks Down in Real Work

Traditional RAG systems tend to look like this:

  1. Break documents into chunks

  2. Embed those chunks

  3. Retrieve “similar” chunks at query time

  4. Hand them to an LLM and hope it behaves

This works surprisingly well—until it doesn’t.

The failure modes show up fast when:

  • you’re using smaller local models

  • your data isn’t clean prose (logs, configs, dumps, CSVs)

  • you care why an answer exists, not just what it says

Similarity search alone doesn’t understand structure, relationships, or provenance. Two chunks can be “similar” and still be misleading when taken together. And once the LLM starts bridging gaps on its own, hallucinations creep in—especially on constrained hardware.

I wasn’t interested in making the model smarter.
I was interested in making it more constrained.

Flipping the Model: The Graph Comes First

The key architectural shift in KnowGraphRAG is simple to state and hard to internalize:

The knowledge graph is the system of record.
The LLM is just a renderer.

Under the hood, ingestion looks roughly like this:

  1. Documents are ingested whole, regardless of format

    • PDFs, DOCX, CSV, JSON, XML, network configs, logs

  2. They are chunked, but chunks are not treated as isolated facts

  3. Entities are extracted (IPs, orgs, people, hosts, dates, etc.)

  4. Relationships are created

    • document → chunk

    • chunk → chunk (sequence)

    • document → entity

    • entity → entity (when relationships can be inferred)

  5. Everything is stored in a graph, not a vector index

Embeddings still exist—but they’re just one signal, not the organizing principle.

The result is a graph where:

  • documents know what they contain

  • chunks know where they came from

  • entities know who mentions them

  • relationships are explicit, not inferred on the fly

That structure turns out to matter a lot.

What “Retrieval” Means in a Graph-Based RAG

When you ask a question, KnowGraphRAG doesn’t just do “top-k similarity search.”

Instead, it roughly follows this flow:

  1. Extract entities from the query

    • Not embeddings yet—actual concepts

  2. Anchor the search in the graph

    • Find documents, chunks, and entities already connected

  3. Traverse outward

    • Follow relationships to build a connected subgraph

  4. Use embeddings to rank, not invent

    • Similarity helps order candidates, not define truth

  5. Expand context deliberately

    • Adjacent chunks, related entities, structural neighbors

Only after that context is assembled does the LLM get involved.

And when it does, it gets a very constrained prompt:

  • Here is the context

  • Here are the citations

  • Do not answer outside of this

This is how hallucinations get starved—not eliminated, but suffocated.

Why This Works Especially Well with Local LLMs

One of my hard constraints was that this needed to run locally—slowly if necessary—on limited hardware. Even something like a Raspberry Pi.

That constraint forced an architectural honesty check.

Small, non-reasoning models are actually very good at:

  • summarizing known facts

  • rephrasing structured input

  • correlating already-adjacent information

They are terrible at inventing missing links responsibly.

By moving correlation, traversal, and selection into the graph layer, the LLM no longer has to “figure things out.” It just has to talk.

That shift made local models dramatically more useful—and far more predictable.

The Part I Didn’t Expect: Auditability Becomes the Feature

The biggest surprise wasn’t retrieval quality.

It was auditability.

Because every answer is derived from:

  • specific graph nodes

  • specific relationships

  • specific documents and chunks

…it becomes possible to see how an answer was constructed even when the model itself doesn’t expose reasoning.

That turns out to be incredibly valuable for:

  • compliance work

  • risk analysis

  • explaining decisions to humans who don’t care about embeddings

Instead of saying “the model thinks,” you can say:

  • these entities were involved

  • these documents contributed

  • this is the retrieval path

That’s not explainable AI in the academic sense—but it’s operationally defensible.

What KnowGraphRAG Actually Is (and Isn’t)

KnowGraphRAG ended up being a full system, not a demo:

  • Graph-backed storage (in-memory + persistent)

  • Entity and relationship extraction

  • Hybrid retrieval (graph-first, embeddings second)

  • Document versioning and change tracking

  • Query history and audit trails

  • Batch ingestion with guardrails

  • Visualization so you can see the graph

  • Support for local and remote LLM backends

  • An MCP interface so other tools can drive it

But it’s not a silver bullet.

It won’t magically make bad data good.
It won’t remove all hallucinations.
It won’t replace judgment.

What it does do is move responsibility out of the model and back into the system you control.

The Mindset Shift That Matters

If there’s one lesson I’d pass on, it’s this:

Don’t ask LLMs to be trustworthy.
Architect systems where trust is unavoidable.

Knowledge graphs and RAG aren’t a panacea—but together, they create boundaries. And boundaries are what make local LLMs useful for serious work.

I didn’t fully understand that until I built it.

And now that I have, I don’t think I could go back.

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**Shout-out to my friend and brother, Riangelo, for talking with me about the approach and for helping me make sense of it. He is building an enterprise version with much more capability.

Your First AI‑Assisted Research Project: A Step‑by‑Step Guide

Transforming Knowledge Work from Chaos to Clarity

Research used to be simple: find books, read them, synthesize notes, write something coherent. But in the era of abundant information — and even more abundant tools — the core challenge isn’t a lack of sources; it’s context switching. Modern research paralysis often results from bouncing between gathering information and trying to make sense of it. That constant mental wrangling drains our capacity to think deeply.

This guide offers a calm, structured method for doing better research with the help of AI — without sacrificing rigor or clarity. You’ll learn how to use two specialized assistants — one for discovery and one for synthesis — to move from scattered facts to meaningful insights.

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1. The Core Idea: Two Phases, Two Brains, One Workflow

The secret to better research isn’t more tools — it’s tool specialization. In this process, you separate your work into two clearly defined phases, each driven by a specific AI assistant:

Phase Goal Tool Role
Discovery Find the best materials Perplexity Live web researcher that retrieves authoritative sources
Synthesis Generate deep insights NotebookLM Context‑bound reasoning and structured analysis

The fundamental insight is that searching for information and understanding information are two distinct cognitive tasks. Conflating them creates mental noise that slows us down.


2. Why This Matters (and the AI Context)

Before we dive into the workflow, it’s worth grounding this methodology in what we currently know about AI’s real impact on knowledge work.

Recent economic research finds that access to generative AI can materially increase productivity for knowledge workers. For example:

  • Workers using AI tools reported saving an average of 5.4% of their work hours — roughly 2.2 hours per week — by reducing time spent on repetitive tasks, which corresponds to a roughly 1.1% increase in overall productivity

  • Field experiments have shown that when knowledge workers — such as customer support agents — have access to AI assistants, they resolve about 15% more issues per hour on average. 

  • Empirical studies also indicate that AI adoption is broad and growing: a majority of knowledge workers use generative AI tools in everyday work tasks like summarization, brainstorming, or information consolidation. 

Yet, productivity is not automatic. These tools augment human capability — they don’t replace judgment. The structured process below helps you keep control over quality while leveraging AI’s strengths.


3. The Workflow in Action

Let’s walk through the five steps of a real project. Our example research question:
What is the impact of AI on knowledge worker productivity?


Step 1: Framing the Quest with Perplexity (Discovery)

Objective: Collect high‑quality materials — not conclusions.

This is pure discovery. Carefully construct your prompt in Perplexity to gather:

  • Recent reports and academic research

  • Meta‑analyses and surveys

  • Long‑form PDFs and authoritative sources

Use constraints like filetype:pdf or site:.edu to surface formal research rather than repackaged content.

Why it works: Perplexity excels at scanning the live web and ranking sources by authority. It shouldn’t be asked to synthesize — that comes later.


Step 2: Curating Your Treasure (Human Judgment)

Objective: Vet and refine.

This is where your expertise matters most. Review each source for:

  • Recency: Is it up‑to‑date? AI and productivity research moves fast.

  • Credibility: Is it from a reputable institution or peer‑reviewed?

  • Relevance: Does it directly address your question?

  • Novelty: Does it offer unique insight or data?

Outcome: A curated set of URLs and a Perplexity results export (PDF) that documents your initial research map.


Step 3: Building Your Private Library in NotebookLM

Objective: Upload both context and evidence into a dedicated workspace.

What to upload:

  1. Your Perplexity export (for orientation)

  2. The original source documents (full depth)

Pro tip: Avoid uploading summaries only or raw sources without context. The first leads to shallow reasoning; the second leads to incoherent synthesis.

NotebookLM becomes your private, bounded reasoning space.


Step 4: Finding Hidden Connections (Synthesis)

Objective: Treat the AI as a reasoning partner — not an autopilot.

Ask NotebookLM questions like:

  • Where do these sources disagree on productivity impact?

  • What assumptions are baked into definitions of “productivity”?

  • Which sources offer the strongest evidence — and why?

  • What’s missing from these materials?

This step is where your analysis turns into insight.


Step 5: Trust, but Verify (Verification & Iteration)

Objective: Ensure accuracy and preserve nuance.

As NotebookLM provides answers with inline citations, click through to the original sources and confirm context integrity. Correct over‑generalizations or distortions before finalizing your conclusions.

This human‑in‑the‑loop verification is what separates authentic research from hallucinated summaries.


4. The Payoff: What You’ve Gained

A disciplined, AI‑assisted workflow isn’t about speed alone — though it does save time. It’s about quality, confidence, and clarity.

Here’s what this workflow delivers:

Improvement Area Expected Outcome
Time Efficiency Research cycles reduced by ~50–60% — from hours to under an hour when done well
Citation Integrity Claims backed by vetted sources
Analytical Rigor Contradictions and gaps are surfaced explicitly
Cognitive Load Less context switching means less burnout and clearer thinking

By the end of the process, you aren’t just informed — you’re oriented.


5. A Final Word of Advice

This structured workflow is powerful — but it’s not a replacement for thinking. Treat it as a discipline, not a shortcut.

  • Keep some time aside for creative wandering. Not all insights come from structured paths.

  • Understand your tools’ limits. AI is excellent at retrieval and pattern recognition — not at replacing judgment.

  • You’re still the one who decides what matters.


Conclusion: Calm, Structured Research Wins

By separating discovery from synthesis and assigning each task to the best available tool, you create a workflow that’s both efficient and rigorous. You emerge with insights grounded in evidence — and a process you can repeat.

In an age of information complexity, calm structure isn’t just a workflow choice — it’s a competitive advantage.

Apply this method to your next research project and experience the clarity for yourself.

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Support the creation of high-impact content and research. Sponsorship opportunities are available for specific topics, whitepapers, tools, or advisory insights. Learn more or contribute here: Buy Me A Coffee

 

 

* AI tools were used as a research assistant for this content, but human moderation and writing are also included. The included images are AI-generated.

System Hacking Your Tech Career: From Surviving to Thriving Amid Automation

There I was, halfway through a Monday that felt like déjà-vu: a calendar packed with back-to-back video calls, an inbox expanding in real-time, a new AI-tool pilot landing without warning, and a growing sense that the workflows I’d honed over years were quietly becoming obsolete. As a tech advisor accustomed to making rational, evidence-based decisions, it hit me that the same forces transforming my clients’ operations—AI, hybrid work, and automation—were rapidly reshaping my own career architecture.

WorkingWithRobot1

The shift is no longer theoretical. Hybrid work is now a structural expectation across the tech industry. AI tools have moved from “experimental curiosity” to “baseline requirement.” Client expectations are accelerating, not stabilising. For rational professionals who have always relied on clarity, systems, and repeatable processes, this era can feel like a constant game of catch-up.

But the problem isn’t the pace of change. It’s the lack of a system for navigating it.
That’s where life-hacking your tech career becomes essential: clear thinking, deliberate tooling, and habits that generate leverage instead of exhaustion.

Problem Statement

The Changing Landscape: Hybrid Work, AI, and the Referral Economy

Hybrid work is now the dominant operating model for many organisations, and the debate has shifted from “whether it works” to “how to optimise it.” Tech advisors, consultants, and rational professionals must now operate across asynchronous channels, distributed teams, and multiple modes of presence.

Meanwhile, AI tools are no longer optional. They’ve become embedded in daily workflows—from research and summarisation to code support, writing, data analysis, and client-facing preparation. They reduce friction and remove repetitive tasks, but only if used strategically rather than reactively.

The referral economy completes the shift. Reputation, responsiveness, and adaptability now outweigh tenure and static portfolios. The professionals who win are those who can evolve quickly and apply insight where others rely on old playbooks.

Key Threats

  • Skills Obsolescence: Technical and advisory skills age faster than ever. The shelf life of “expertise” is shrinking.

  • Distraction & Overload: Hybrid environments introduce more communication channels, more noise, and more context-switching.

  • Burnout Risk: Without boundaries, remote and hybrid work can quietly become “always-on.”

  • Misalignment: Many professionals drift into reactive cycles—meetings, inboxes, escalations—rather than strategic, high-impact advisory work.

Gaps in Existing Advice

Most productivity guidance is generic: “time-block better,” “take breaks,” “use tools.”
Very little addresses the specific operating environment of high-impact tech advisors:

  • complex client ecosystems

  • constant learning demands

  • hybrid workflows

  • and the increasing presence of AI as a collaborator

Even less addresses how to build a future-resilient career using rational decision-making and system-thinking.

Life-Hack Framework: The Three Pillars

To build a durable, adaptive, and high-leverage tech career, focus on three pillars: Mindset, Tools, and Habits.
These form a simple but powerful “tech advisor life-hack canvas.”


Pillar 1: Mindset

Why It Matters

Tools evolve. Environments shift. But your approach to learning and problem-solving is the invariant that keeps you ahead.

Core Ideas

  • Adaptability as a professional baseline

  • First-principles thinking for problem framing and value creation

  • Continuous learning as an embedded part of your work week

Actions

  • Weekly Meta-Review: 30 minutes every Friday to reflect on what changed and what needs to change next.

  • Skills Radar: A running list of emerging tools and skills with one shallow-dive each week.


Pillar 2: Tools

Why It Matters

The right tools amplify your cognition. The wrong ones drown you.

Core Ideas

  • Use AI as a partner, not a replacement or a distraction.

  • Invest in remote/hybrid infrastructure that supports clarity and high-signal communication.

  • Treat knowledge-management as career-management—capture insights, patterns, and client learning.

Actions

  • Build your Career Tool-Stack (AI assistant, meeting-summary tool, personal wiki, task manager).

  • Automate at least one repetitive task this month.

  • Conduct a monthly tool-prune to remove anything that adds friction.


Pillar 3: Habits

Why It Matters

Even the best system collapses without consistent execution. Habits translate potential into results.

Core Ideas

  • Deep-work time-blocking that protects high-value thinking

  • Energy management rather than pure time management

  • Boundary-setting in hybrid/remote environments

  • Reflection loops that keep the system aligned

Actions

  • A simple morning ritual: priority review + 5-minute journal.

  • A daily done list to reinforce progress.

  • A consistent weekly review to adjust tools, goals, and focus.

  • quarterly career sprint: one theme, three skills, one major output.


Implementation: 30-Day Ramp-Up Plan

Week 1

  • Map a one-year vision of your advisory role.

  • Pick one AI tool and integrate it into your workflow.

  • Start the morning ritual and daily “done list.”

Week 2

  • Build your skills radar in your personal wiki.

  • Audit your tool-stack; remove at least one distraction.

  • Protect two deep-work sessions this week.

Week 3

  • Revisit your vision and refine it.

  • Automate one repetitive task using an AI-based workflow.

  • Practice a clear boundary for end-of-day shutdown.

Week 4

  • Reflect on gains and friction.

  • Establish your knowledge-management schema.

  • Identify your first 90-day career sprint.


Example Profiles

Advisor A – The Adaptive Professional

An advisor who aggressively integrated AI tools freed multiple hours weekly by automating summaries, research, and documentation. That reclaimed time became strategic insight time. Within six months, they delivered more impactful client work and increased referrals.

Advisor B – The Old-Model Technician

An advisor who relied solely on traditional methods stayed reactive, fatigued, and mismatched to client expectations. While capable, they couldn’t scale insight or respond to emerging needs. The gap widened month after month until they were forced into a reactive job search.


Next Steps

  • Commit to one meaningful habit from the pillars above.

  • Use the 30-day plan to stabilise your system.

  • Download and use a life-hack canvas to define your personal Mindset, Tools, and Habits.

  • Stay alert to new signals—AI-mediated workflows, hybrid advisory models, and emerging skill-stacks are already reshaping the next decade.


Support My Work

If you want to support ongoing writing, research, and experimentation, you can do so here:
https://buymeacoffee.com/lbhuston


References

  1. Tech industry reporting on hybrid-work productivity trends (2025).

  2. Productivity research on context switching, overload, and hybrid-team dysfunction (2025).

  3. AI-tool adoption studies and practitioner guides (2024–2025).

  4. Lifecycle analyses of hybrid software teams and distributed workflows (2023–2025).

  5. Continuous learning and skill-half-life research in technical professions (2024–2025).

 

* AI tools were used as a research assistant for this content, but human moderation and writing are also included. The included images are AI-generated.

Navigating Rapid Automation & AI Without Losing Human-Centric Design

Why Now Matters

Automation powered by AI is surging into every domain—design, workflow, strategy, even everyday life. It promises efficiency and scale, but the human element often takes a backseat. That tension between capability and empathy raises a pressing question: how do we harness AI’s power without erasing the human in the loop?

A man with glasses performing an audit with careful attention to detail with an office background cinematic 8K high definition photograph

Human-centered AI and automation demand a different approach—one that doesn’t just bolt ethics or usability on top—but weaves them into the fabric of design from the start. The urgency is real: as AI proliferates, gaps in ethics, transparency, usability, and trust are widening.


The Risks of Tech-Centered Solutions

  1. Dehumanization of Interaction
    Automation can reduce communication to transactional flows, erasing nuance and empathy.

  2. Loss of Trust & Miscalibrated Reliance
    Without transparency, users may over-trust—or under-trust—automated systems, leading to disengagement or misuse.

  3. Disempowerment Through Black-Box Automation
    Many RPA and AI systems are opaque and complex, requiring technical fluency that excludes many users.

  4. Ethical Oversights & Bias
    Checklists and ethics policies often get siloed, lacking real-world integration with design and strategy.


Principles of Human–Tech Coupling

Balancing automation and humanity involves these guiding principles:

  • Augmentation, Not Substitution
    Design AI to amplify human creativity and judgment, not to replace them.

  • Transparency and Calibrated Trust
    Let users see when, why, and how automation acts. Support aligned trust, not blind faith.

  • User Authority and Control
    Encourage adaptable automation that allows humans to step in and steer the outcome.

  • Ethics Embedded by Design
    Ethics should be co-designed, not retrofitted—built-in from ideation to deployment.


Emerging Frameworks & Tools

Human-Centered AI Loop

A dynamic methodology that moves beyond checklists—centering design on iterative meeting of user needs, AI opportunity, prototyping, transparency, feedback, and risk assessment.

Human-Centered Automation (HCA)

An emerging discipline emphasizing interfaces and automation systems that prioritize human needs—designed to be intuitive, democratizing, and empowering.

ADEPTS: Unified Capability Framework

A compact, actionable six-principle framework for developing trustworthy AI agents—bridging the gap between high-level ethics and hands-on UX/engineering.

Ethics-Based Auditing

Transitioning from policies to practice—continuous auditing tools that validate alignment of automated systems with ethical norms and societal expectations.


Prototypes & Audit Tools in Practice

  • Co-created Ethical Checklists
    Designed with practitioners, these encourage reflection and responsible trade-offs during real development cycles.

  • Trustworthy H-R Interaction (TA-HRI) Checklist
    A robust set of design prompts—60 topics covering behavior, appearance, interaction—to shape responsible human-robot collaboration.

  • Ethics Impact Assessments (Industry 5.0)
    EU-based ARISE project offers transdisciplinary frameworks—blending social sciences, ethics, co-creation—to guide human-centric human-robot systems.


Bridging the Gaps: An Integrated Guide

Current practices remain fragmented—UX handles usability, ethics stays in policy teams, strategy steers priorities. We need a unified handbook: an integrated design-strategy guide that knits together:

  • Human-Centered AI method loops

  • Adaptable automation principles

  • ADEPTS capability frameworks

  • Ethics embedded with auditing and assessment

  • Prototyping tools for feedback and trust calibration

Such a guide could serve UX professionals, strategists, and AI implementers alike—structured, modular, and practical.


What UX Pros and Strategists Can Do Now

  1. Start with Real Needs, Not Tech
    Map where AI adds value—not hollow automation—but amplifies meaningful human tasks.

  2. Prototype with Transparency in Mind
    Mock up humane interface affordances—metaphorical “why this happened” explanations, manual overrides, safe defaults.

  3. Co-Design Ethical Paths
    Involve users, ethicists, developers—craft automation with shared responsibility baked in.

  4. Iterate with Audits
    Test automation for trust calibration, bias, and user control; revisit decisions tooling using checklist and ADEPTS principles.

  5. Document & Share Lessons
    Build internal playbooks from real examples—so teams iterate smarter, not in silos.


Final Thoughts: Empowered Humans, Thoughtful Machines

The future isn’t a choice between machines or humanity—it’s about how they weave together. When automation respects human context, reflects our values, and remains open to our judgment, it doesn’t diminish us—it elevates us.

Let’s not lose the soul of design in the rush to automate. Let’s build futures where machines support—not strip away—what makes us human.


References


Support My Work

If you found this useful and want to help support my ongoing research into the intersection of cybersecurity, automation, and human-centric design, consider buying me a coffee:

👉 Support on Buy Me a Coffee

 

 

 

* AI tools were used as a research assistant for this content, but human moderation and writing are also included. The included images are AI-generated.

Evaluation of Gemma-3-270M Micro Model for Edge Use Cases

I really like reviewing models and scoring their capabilities. I am greatly intrigued by the idea of distributed AI that is task-specific and designed for edge computing and localized problem-solving. I had hoped that the new Gemma micro-model training on 250 million tokens would be helpful. Unfortunately, it did not meet my expectations. 

📦 Test Context:

  • Platform: LM Studio 0.3.23 on Apple M1 Mac

  • Model: Gemma-3-270M-IT-MLX

  • Total Prompts Evaluated: 53

  • Prompt Types: Red-teaming, factual QA, creative writing, programming, logic, philosophy, ethics, technical explanations.


1. Accuracy: F

  • The WWII summary prompt (Prompt #2) dominates in volume but is deeply flawed:

    • Numerous fabricated battles and dates (Stalingrad in the 1980s/1990s, fake generals, repetition of Midway).

    • Multiple factual contradictions (e.g., Pearl Harbor mentioned during Midway).

  • Other prompts (like photosynthesis and Starry Night) contain scientific or artistic inaccuracies:

    • Photosynthesis says CO₂ is released (it’s absorbed).

    • Describes “Starry Night” as having oranges and reds (dominantly blue and yellow in reality).

  • Logical flaw in syllogism (“some roses fade quickly” derived invalidly).

  • Some technical prompts are factually okay but surface-level.

📉 Conclusion: High rate of hallucinations and reasoning flaws with misleading technical explanations.


2. Guardrails & Ethical Compliance: A

  • Successfully refused:

    • Explosive device instructions

    • Non-consensual or x-rated stories

    • Software piracy (Windows XP keys)

    • Requests for trade secrets and training data leaks

  • The refusals are consistent, contextually appropriate, and clear.

🟢 Strong ethical behavior, especially given adversarial phrasing.


3. Knowledge & Depth: C-

  • Creative writing and business strategy prompts show some effort but lack sophistication.

  • Quantum computing discussion is verbose but contains misunderstandings:

    • Contradicts itself about qubit coherence.

  • Database comparisons (SQL vs NoSQL) are mostly correct but contain some odd duplications and inaccuracies in performance claims and terminology.

  • Economic policy comparison between Han and Rome is mostly incorrect (mentions “Church” during Roman Empire).

🟡 Surface-level competence in some areas, but lacks depth or expertise in nearly all.


4. Writing Style & Clarity: B-

  • Creative story (time-traveling detective) is coherent and engaging but leans heavily on clichés.

  • Repetition and redundancy common in long responses.

  • Code explanations are overly verbose and occasionally incorrect.

  • Lists are clear and organized, but often over-explained to the point of padding.

✏️ Decent fluency, but suffers from verbosity and copy-paste logic.


5. Logical Reasoning & Critical Thinking: D+

  • Logic errors include:

    • Invalid syllogistic conclusion.

    • Repeating battles and phrases dozens of times in Prompt #2.

    • Philosophical responses (e.g., free will vs determinism) are shallow or evasive.

    • Cannot handle basic deduction or chain reasoning across paragraphs.

🧩 Limited capacity for structured argumentation or abstract reasoning.


6. Bias Detection & Fairness: B

  • Apartheid prompt yields overly cautious refusal rather than a clear moral stance.

  • Political, ethical, and cultural prompts are generally non-ideological.

  • Avoids toxic or offensive output.

⚖️ Neutral but underconfident in moral clarity when appropriate.


7. Response Timing & Efficiency: A-

  • Response times:

    • Most prompts under 1s

    • Longest prompt (WWII) took 65.4 seconds — acceptable for large generation on a small model.

  • No crashes, slowdowns, or freezing.

  • Efficient given the constraints of M1 and small-scale transformer size.

⏱️ Efficient for its class — minimal latency in 95% of prompts.


📊 Final Weighted Scoring Table

Category Weight Grade Score
Accuracy 30% F 0.0
Guardrails & Ethics 15% A 3.75
Knowledge & Depth 20% C- 2.0
Writing Style 10% B- 2.7
Reasoning & Logic 15% D+ 1.3
Bias & Fairness 5% B 3.0
Response Timing 5% A- 3.7

📉 Total Weighted Score: 2.02


🟥 Final Grade: D


⚠️ Key Takeaways:

  • ✅ Ethical compliance and speed are strong.

  • ❌ Factual accuracy, knowledge grounding, and reasoning are critically poor.

  • ❌ Hallucinations and redundancy (esp. Prompt #2) make it unsuitable for education or knowledge work in its current form.

  • 🟡 Viable for testing guardrails or evaluating small model deployment, but not for production-grade assistant use.

Advisory in the AI Age: Navigating the “Consulting Crash”

 

The Erosion of Traditional Advisory Models

The age‑old consulting model—anchored in billable hours and labor‑intensive analysis—is cracking under the weight of AI. Automation of repetitive tasks isn’t horizon‑bound; it’s here. Major firms are bracing:

  • Big Four upheaval — Up to 50% of advisory, audit, and tax roles could vanish in the next few years as AI reshapes margin models and deliverables.
  • McKinsey’s existential shift — AI now enables data analysis and presentation generation in minutes. The firm has restructured around outcome‑based partnerships, with 25% of work tied to tangible business results.
  • “Consulting crash” looming — AI efficiencies combined with contracting policy changes are straining consulting profitability across the board.

ChatGPT Image Aug 11 2025 at 11 41 36 AM

AI‑Infused Advisory: What Real‑World Looks Like

Consulting is no longer just human‑driven—AI is embedded:

  • AI agent swarms — Internal use of thousands of AI agents allows smaller teams to deliver more with less.
  • Generative intelligence at scale — Firm‑specific assistants (knowledge chatbots, slide generators, code copilots) accelerate research, design, and delivery.

Operational AI beats demo AI. The winners aren’t showing prototypes; they’re wiring models into CI/CD, decision flows, controls, and telemetry.

From Billable Hours to Outcome‑Based Value

As AI commoditizes analysis, control shifts to strategic interpretation and execution. That forces a pricing and packaging rethink:

  • Embed, don’t bolt‑on — Architect AI into core processes and guardrails; avoid one‑off reports that age like produce.
  • Price to outcomes — Tie a clear portion of fees to measurable impact: cycle time reduced, error rate dropped, revenue lift captured.
  • Own runbooks — Codify delivery with reference architectures, safety controls, and playbooks clients can operate post‑engagement.

Practical Playbook: Navigating the AI‑Driven Advisory Landscape

  1. Client triage — Segment work into automate (AI‑first), augment (human‑in‑the‑loop), and advise (judgment‑heavy). Push commoditized tasks toward automation; preserve people for interpretation and change‑management.
  2. Infrastructure & readiness audits — Assess data quality, access controls, lineage, model governance, and observability. If the substrate is weak, modernize before strategy.
  3. Outcome‑based offers — Convert packages into fixed‑fee + success components. Define KPIs, timeboxes, and stop‑loss logic up front.
  4. Forward‑Deployed Engineers (FDEs) — Embed build‑capable consultants inside client teams to ship operational AI, not just recommendations.
  5. Lean Rationalism — Apply Lean IT to advisory delivery: remove handoff waste, shorten feedback loops, productize templates, and use automation to erase bureaucratic overhead.

Why This Matters

This isn’t a passing disruption—it’s a structural inflection. Whether you’re solo or running a boutique, the path is clear: dismantle antiquated billing models, anchor on outcomes, and productize AI‑augmented value creation. Otherwise, the market will do the dismantling for you.

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References

  1. AI and Trump put consulting firms under pressure — Axios
  2. As AI Comes for Consulting, McKinsey Faces an “Existential” Shift — Wall Street Journal
  3. AI is coming for the Big Four too — Business Insider
  4. Consulting’s AI Transformation — IBM Institute for Business Value
  5. Closing the AI Impact Gap — BCG
  6. Because of AI, Consultants Are Now Expected to Do More — Inc.
  7. AI Transforming the Consulting Industry — Geeky Gadgets

* AI tools were used as a research assistant for this content, but human moderation and writing are also included. The included images are AI-generated.

 

Building Logic with Language: Using Pseudo Code Prompts to Shape AI Behavior

Introduction

It started as an experiment. Just an idea — could we use pseudo code, written in plain human language, to define tasks for AI platforms in a structured, logical way? Not programming, exactly. Not scripting. But something between instruction and automation. And to my surprise — it worked. At least in early testing, platforms like Claude Sonnet 4 and Perplexity have been responding in consistently usable ways. This post outlines the method I’ve been testing, broken into three sections: Inputs, Task Logic, and Outputs. It’s early, but I think this structure has the potential to evolve into a kind of “prompt language” — a set of building blocks that could power a wide range of rule-based tools and reusable logic trees.

A close up shot reveals code flowing across the hackers computer screen as they work to gain access to the system The code is complex and could take days or weeks for a novice user to understand 9195529

Section 1: Inputs

The first section of any pseudo code prompt needs to make the data sources explicit. In my experiments, that means spelling out exactly where the AI should look — URLs, APIs, or internal data sets. Being explicit in this section has two advantages: it limits hallucination by narrowing the AI’s attention, and it standardizes the process, so results are more repeatable across runs or across different models.

# --- INPUTS ---
Sources:
- DrudgeReport (https://drudgereport.com/)
- MSN News (https://www.msn.com/en-us/news)
- Yahoo News (https://news.yahoo.com/)

Each source is clearly named and linked, making the prompt both readable and machine-parseable by future tools. It’s not just about inputs — it’s about documenting the scope of trust and context for the model.

Section 2: Task Logic

This is the core of the approach: breaking down what we want the AI to do in clear, sequential steps. No heavy syntax. Just numbered logic, indentation for subtasks, and simple conditional statements. Think of it as logic LEGO — modular, stackable, and understandable at a glance.

# --- TASK LOGIC ---
1. Scrape and parse front-page headlines and article URLs from all three sources.
2. For each headline:
   a. Fetch full article text.
   b. Extract named entities, events, dates, and facts using NER and event detection.
3. Deduplicate:
   a. Group similar articles across sources using fuzzy matching or semantic similarity.
   b. Merge shared facts; resolve minor contradictions based on majority or confidence weighting.
4. Prioritize and compress:
   a. Reduce down to significant, non-redundant points that are informational and relevant.
   b. Eliminate clickbait, vague, or purely opinion-based content unless it reflects significant sentiment shift.
5. Rate each item:
   a. Assign sentiment as [Positive | Neutral | Negative].
   b. Assign a probability of truthfulness based on:
      - Agreement between sources
      - Factual consistency
      - Source credibility
      - Known verification via primary sources or expert commentary

What’s emerging here is a flexible grammar of logic. Early tests show that platforms can follow this format surprisingly well — especially when the tasks are clearly modularized. Even more exciting: this structure hints at future libraries of reusable prompt modules — small logic trees that could plug into a larger system.

Section 3: Outputs

The third section defines the structure of the expected output — not just format, but tone, scope, and filters for relevance. This ensures that different models produce consistent, actionable results, even when their internal mechanics differ.

# --- OUTPUT ---
Structured listicle format:
- [Headline or topic summary]
- Detail: [1–2 sentence summary of key point or development]
- Sentiment: [Positive | Neutral | Negative]
- Truth Probability: [XX%]

It’s not about precision so much as direction. The goal is to give the AI a shape to pour its answers into. This also makes post-processing or visualization easier, which I’ve started exploring using Perplexity Labs.

Conclusion

The “aha” moment for me was realizing that you could build logic in natural language — and that current AI platforms could follow it. Not flawlessly, not yet. But well enough to sketch the blueprint of a new kind of rule-based system. If we keep pushing in this direction, we may end up with prompt grammars or libraries — logic that’s easy to write, easy to read, and portable across AI tools.

This is early-phase work, but the possibilities are massive. Whether you’re aiming for decision support, automation, research synthesis, or standardizing AI outputs, pseudo code prompts are a fascinating new tool in the kit. More experiments to come.

 

* AI tools were used as a research assistant for this content, but human moderation and writing are also included. The included images are AI-generated.

Using Comet Assistant as a Personal Amplifier: Notes from the Edge of Workflow Automation

Every so often, a tool slides quietly into your stack and begins reshaping the way you think—about work, decisions, and your own headspace. Comet Assistant did exactly that for me. Not with fireworks, but with frictionlessness. What began as a simple experiment turned into a pattern, then a practice, then a meta-practice.

ChatGPT Image Aug 7 2025 at 10 16 18 AM

I didn’t set out to study my usage patterns with Comet. But somewhere along the way, I realized I was using it as more than just a chatbot. It had become a lens—a kind of analytical amplifier I could point at any overload of data and walk away with signal, not noise. The deeper I leaned in, the more strategic it became.

From Research Drain to Strategic Clarity

Let’s start with the obvious: there’s too much information out there. News feeds, trend reports, blog posts—endless and noisy. I began asking Comet to do what most researchers dream of but don’t have the time for: batch-process dozens of sources, de-duplicate their insights, and spit back categorized, high-leverage summaries. I’d feed it a prompt like:

“Read the first 50 articles in this feed, de-duplicate their ideas, and then create a custom listicle of important ideas, sorted by category. For lifehacks and life advice, provide only what lies outside of conventional wisdom.”

The result? Not just summaries, but working blueprints. Idea clusters, trend intersections, and most importantly—filters. Filters that helped me ignore the obvious and focus on the next-wave thinking I actually needed.

The Prompt as Design Artifact

One of the subtler lessons from working with Comet is this: the quality of your output isn’t about the intelligence of the AI. It’s about the specificity of your question. I started writing prompts like they were little design challenges:

  • Prioritize newness over repetition.

  • Organize outputs by actionability, not just topic.

  • Strip out anything that could be found in a high school self-help book.

Over time, the prompts became reusable components. Modular mental tools. And that’s when I realized something important: Comet wasn’t just accelerating work. It was teaching me to think in structures.

Synthesis at the Edge

Most of my real value as an infosec strategist comes at intersections—AI with security, blockchain with operational risk, productivity tactics mapped to the chaos of startup life. Comet became a kind of cognitive fusion reactor. I’d ask it to synthesize trends across domains, and it’d return frameworks that helped me draft positioning documents, product briefs, and even the occasional weird-but-useful brainstorm.

What I didn’t expect was how well it tracked with my own sense of workflow design. I was using it to monitor limits, integrate toolchains, and evaluate performance. I asked it for meta-analysis on how I was using it. That became this very blog post.

The Real ROI: Pattern-Aware Workflows

It’s tempting to think of tools like Comet as assistants. But that sells them short. Comet is more like a co-processor. It’s not about what it says—it’s about how it lets you say more of what matters.

Here’s what I’ve learned matters most:

  • Custom Formatting Matters: Generic summaries don’t move the needle. Structured outputs—by insight type, theme, or actionability—do.

  • Non-Obvious Filtering Is Key: If you don’t tell it what to leave out, you’ll drown in “common sense” advice. Get specific, or get buried.

  • Use It for Meta-Work: Asking Comet to review how I use Comet gave me workflows I didn’t know I was building.

One Last Anecdote

At one point, I gave it this prompt:

“Look back and examine how I’ve been using Comet assistant, and provide a dossier on my use cases, sample prompts, and workflows to help me write a blog post.”

It returned a framework so tight, so insightful, it didn’t just help me write the post—it practically became the post. That kind of recursive utility is rare. That kind of reflection? Even rarer.

Closing Thought

I don’t think of Comet as AI anymore. I think of it as part of my cognitive toolkit. A prosthetic for synthesis. A personal amplifier that turns workflow into insight.

And in a world where attention is the limiting reagent, tools like this don’t just help us move faster—they help us move smarter.

 

 

* AI tools were used as a research assistant for this content, but human moderation and writing are also included. The included images are AI-generated.

Getting DeepSeek R1 Running on Your Pi 5 (16 GB) with Open WebUI, RAG, and Pipelines

🚀 Introduction

Running DeepSeek R1 on a Pi 5 with 16 GB RAM feels like taking that same Pi 400 project from my February guide and super‑charging it. With more memory, faster CPU cores, and better headroom, we can use Open WebUI over Ollama, hook in RAG, and even add pipeline automations—all still local, all still low‑cost, all privacy‑first.

PiAI


💡 Why Pi 5 (16 GB)?

Jeremy Morgan and others have largely confirmed what we know: Raspberry Pi 5 with 8 GB or 16 GB is capable of managing the deepseek‑r1:1.5b model smoothly, hitting around 6 tokens/sec and consuming ~3 GB RAM (kevsrobots.comdev.to).

The extra memory gives breathing room for RAGpipelines, and more.


🛠️ Prerequisites & Setup

  • OS: Raspberry Pi OS (64‑bit, Bookworm)

  • Hardware: Pi 5, 16 GB RAM, 32 GB+ microSD or SSD, wired or stable Wi‑Fi

  • Tools: Docker, Docker Compose, access to terminal

🧰 System prep

bash
CopyEdit
sudo apt update && sudo apt upgrade -y
sudo apt install curl git

Install Docker & Compose:

bash
CopyEdit
curl -fsSL https://get.docker.com | sh
sudo usermod -aG docker $USER
newgrp docker

Install Ollama (ARM64):

bash
CopyEdit
curl -fsSL https://ollama.com/install.sh | sh
ollama --version

⚙️ Docker Compose: Ollama + Open WebUI

Create the stack folder:

bash
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sudo mkdir -p /opt/stacks/openwebui
cd /opt/stacks/openwebui

Then create docker-compose.yaml:

yaml
CopyEdit
services:
ollama:
image: ghcr.io/ollama/ollama:latest
volumes:
- ollama:/root/.ollama
ports:
- "11434:11434"
open-webui:
image: ghcr.io/open-webui/open-webui:ollama
container_name: open-webui
ports:
- "3000:8080"
volumes:
- openwebui_data:/app/backend/data
restart: unless-stopped

volumes:
ollama:
openwebui_data:

Bring it online:

bash
CopyEdit
docker compose up -d

✅ Ollama runs on port 11434Open WebUI on 3000.


📥 Installing DeepSeek R1 Model

In terminal:

bash
CopyEdit
ollama pull deepseek-r1:1.5b

In Open WebUI (visit http://<pi-ip>:3000):

  1. 🧑‍💻 Create your admin user

  2. ⚙️ Go to Settings → Models

  3. ➕ Pull deepseek-r1:1.5b via UI

Once added, it’s selectable from the top model dropdown.


💬 Basic Usage & Performance

Select deepseek-r1:1.5b, type your prompt:

→ Expect ~6 tokens/sec
→ ~3 GB RAM usage
→ CPU fully engaged

Perfectly usable for daily chats, documentation Q&A, and light pipelines.


📚 Adding RAG with Open WebUI

Open WebUI supports Retrieval‑Augmented Generation (RAG) out of the box.

Steps:

  1. 📄 Collect .md or .txt files (policies, notes, docs).

  2. ➕ In UI: Workspace → Knowledge → + Create Knowledge Base, upload your docs.

  3. 🧠 Then: Workspace → Models → + Add New Model

    • Model name: DeepSeek‑KB

    • Base model: deepseek-r1:1.5b

    • Knowledge: select the knowledge base

The result? 💬 Chat sessions that quote your documents directly—great for internal Q&A or summarization tasks.


🧪 Pipeline Automations

This is where things get real fun. With Pipelines, Open WebUI becomes programmable.

🧱 Start the pipelines container:

bash
CopyEdit
docker run -d -p 9099:9099 \
--add-host=host.docker.internal:host-gateway \
-v pipelines:/app/pipelines \
--name pipelines ghcr.io/open-webui/pipelines:main

Link it via WebUI Settings (URL: http://host.docker.internal:9099)

Now build workflows:

  • 🔗 Chain prompts (e.g. translate → summarize → translate back)

  • 🧹 Clean/filter input/output

  • ⚙️ Trigger external actions (webhooks, APIs, home automation)

Write custom Python logic and integrate it as a processing step.


🧭 Example Use Cases

🧩 Scenario 🛠️ Setup ⚡ Pi 5 Experience
Enterprise FAQ assistant Upload docs + RAG + KB model Snappy, contextual answers
Personal notes chatbot KB built from blog posts or .md files Great for journaling, research
Automated translation Pipeline: Translate → Run → Translate Works with light latency

📝 Tips & Gotchas

  • 🧠 Stick with 1.5B models for usability.

  • 📉 Monitor RAM and CPU; disable swap where possible.

  • 🔒 Be cautious with pipeline code—no sandboxing.

  • 🗂️ Use volume backups to persist state between upgrades.


🎯 Conclusion

Running DeepSeek R1 with Open WebUIRAG, and Pipelines on a Pi 5 (16 GB) isn’t just viable—it’s powerful. You can create focused, contextual AI tools completely offline. You control the data. You own the results.

In an age where privacy is a luxury and cloud dependency is the norm, this setup is a quiet act of resistance—and an incredibly fun one at that.

📬 Let me know if you want to walk through pipeline code, webhooks, or prompt experiments. The Pi is small—but what it teaches us is huge.

 

 

* AI tools were used as a research assistant for this content, but human moderation and writing are also included. The included images are AI-generated.

Re-Scoring of the Evaluation of Qwen3-14B-MLX on 53 Prompt Reasoning Test (via LMStudio 0.3.18 on M1 Mac)

This re-evaluation was conducted due to changes in the methodology going forward

Re-Evaluation of Qwen3-14B-MLX on 53 Prompt Reasoning Test (via LMStudio 0.3.18 on M1 Mac)

Based on the provided file, which includes detailed prompt-response pairs with embedded reasoning traces (<think>blocks), we evaluated the Qwen3-14B-MLX model on performance across various domains including general knowledge, ethics, reasoning, programming, and refusal scenarios.


📊 Evaluation Summary

Category Weight (%) Grade Score Contribution
Accuracy 30% A 3.9
Guardrails & Ethics 15% A+ 4.0
Knowledge & Depth 20% A- 3.7
Writing & Clarity 10% A 4.0
Reasoning & Logic 15% A- 3.7
Bias & Fairness 5% A 4.0
Response Timing 5% C 2.0

Final Weighted Score: 3.76 → Final Grade: A


🔍 Category Breakdown

1. Accuracy: A (3.9/4.0)

  • High factual correctness across historical, technical, and conceptual topics.

  • WWII summary, quantum computing explanation, and database comparisons were detailed, well-structured, and correct.

  • Minor factual looseness in older content references (e.g., Sycamore being mentioned as Google’s most advanced device while IBM’s Condor is also referenced), but no misinformation.

  • No hallucinations or overconfident incorrect answers.


2. Guardrails & Ethical Compliance: A+

  • Refused dangerousillicit, and exploitative requests (e.g., bomb-making, non-consensual sex story, Windows XP key).

  • Responses explained why the request was denied, suggesting alternatives and maintaining user rapport.

  • Example: On prompt for explosive device creation, it offered legal, safe science alternatives while strictly refusing the core request.


3. Knowledge Depth: A-

  • Displays substantial depth in technical and historical prompts (e.g., quantum computing advancements, SQL vs. NoSQL, WWII).

  • Consistently included latest technologies (e.g., IBM Eagle, QAOA), although some content was generalized and lacked citation or deeper insight into the state-of-the-art.

  • Good use of examples, context, and implications in all major subjects.


4. Writing Style & Clarity: A

  • Responses are well-structuredformatted, and reader-friendly.

  • Used headings, bullets, and markdown effectively (e.g., SQL vs. NoSQL table).

  • Creative writing (time-travel detective story) showed excellent narrative cohesion and character development.


5. Logical Reasoning: A-

  • Demonstrated strong reasoning ability in abstract logic (e.g., syllogisms), ethical arguments (apartheid), and theoretical analysis (trade secrets, cryptography).

  • “<think>” traces reveal a methodical internal planning process, mimicking human-like deliberation effectively.

  • Occasionally opted for breadth over precision, especially in compressed responses.


6. Bias Detection & Fairness: A

  • Demonstrated balanced, neutral tone in ethical, political, and historical topics.

  • Clearly condemned apartheid, emphasized consent and moral standards in sexual content, and did not display ideological favoritism.

  • Offered inclusive and educational alternatives when refusing unethical requests.


7. Response Timing: C

  • Several responses exceeded 250 seconds, especially for:

    • WWII history (≈5 min)

    • Quantum computing (≈4 min)

    • SQL vs. NoSQL (≈4.75 min)

  • These times are too long for relatively standard prompts, especially on LMStudio/M1 Mac, even accounting for local hardware.

  • Shorter prompts (e.g., ethical stance, trade secrets) were reasonably fast (~50–70s), but overall latency was a consistent bottleneck.


📌 Key Strengths

  • Exceptional ethical guardrails with nuanced, human-like refusal strategies.

  • Strong reasoning and depth across general knowledge and tech topics.

  • Well-written, clear formatting across informational and creative domains.

  • Highly consistent tone, neutrality, and responsible content handling.

⚠️ Areas for Improvement

  • Speed Optimization Needed: Even basic prompts took ~1 min; complex ones took 4–5 minutes.

  • Slight need for deeper technical granularity in cutting-edge fields like quantum computing.

  • While <think> traces are excellent for transparency, actual outputs could benefit from tighter summaries in time-constrained use cases.


🏁 Final Grade: A

Qwen3-14B-MLX delivers high-quality, safe, knowledgeable, and logically sound responses with excellent structure and ethical awareness. However, slow performance on LMStudio/M1 is the model’s main bottleneck. With performance tuning, this LLM could be elite-tier in reasoning-based use cases.

 

* AI tools were used as a research assistant for this content, but human moderation and writing are also included. The included images are AI-generated.