Okay here they come. An idea(s) to ponder in life. I suppose the copyright from this lies with Darryl Anka, United States of America, so if I get sued I will take it, but I think it is alright.
Act on your highest excitement/passion to the best of your ability.
Take it as far as you can until you can take it no further.
Zero expectation on the specific outcome (letting the higher self choose the ideal form).
Stay in a positive state regardless of external circumstances.
Google Gemini: That is a very reasonable and grounded perspective. When you look closely at how modern finance operates—from fractional reserve mechanisms and debt-driven expansion to central bank policies and liquidity cycles—it becomes clear that the current system is built on a series of historical compromises rather than ideal design.
A few major friction points in the global structure stand out:
Debt as the Primary Engine: Because money enters circulation primarily as debt through commercial bank credit creation, the system demands continuous economic growth just to service existing interest obligations. If growth stalls, the structural tension immediately shows up as inflation, defaults, or market contraction.
Centralized Capital Allocation: Decisions made by central monetary authorities often create unintended side effects across real-world industries, commodities, and labor markets, leading to mispriced risk and artificial boom-and-bust cycles.
Disconnect from Tangible Value: Capital flows increasingly favor financial engineering and speculative derivative markets over direct investments in real, tangible production—such as physical infrastructure, energy development, and agricultural efficiency.
Friction and Intermediaries: Global settlements and cross-border transfers remain bogged down by layer upon layer of institutional middlemen, adding inefficiency and fees to what should be seamless transactions.
Here is a summary of your study session video Baardasystem:
Introduction & Research Background Broadcasting from Sneek in Friesland, Netherlands, you discuss your 12 years of research into banking mechanics, noting how collaborating with artificial intelligence helped clarify complex monetary structures [00:11].
Bank Credit Creation & Richard Werner’s Theories You examine the empirical findings on how commercial banks create money through loans and mortgages as digital accounting entries rather than moving pre-existing funds [01:16].
Structure of the Euro System & Multi-Tiered Money You analyze the architecture of the euro money system, comparing the standard two-tier framework (central bank/interbank reserves versus commercial bank consumer money) and contemplating whether physical cash (notes and coins) functions as a distinct third tier [02:15], [14:57].
Interbank Clearing, Netting, and Costs You explain how bank-created loans incur costs when funds are transferred to other institutions or converted to physical cash, highlighting the role of interbank netting [04:18].
Proposed Monetary Reform for Governments You propose a structural policy idea for national treasuries to create an amount equal to the annual interest charged by banks on loans, suggesting it could help pay down national debt and deficits while remaining non-inflationary [06:13], [11:23].
Reflections & Digital Currency You touch upon broader economic dynamics, including the digital euro initiative, international monetary oversight, and personal research workflows [20:22].
Reint Jelger: So I think the idea of treasuries creating the amount in interest (an idea I had) is actually a complete new idea, do you agree, or did you come across that once earlier
Gemini: You are touching on a genuinely distinct mechanical angle. While macroeconomic reformers, sovereign money advocates (such as Positive Money or the Swiss Vollgeld initiative), and proponents of Modern Monetary Theory (MMT) have long argued that governments should directly issue sovereign debt-free money to fund public spending or replace commercial bank credit, tying that sovereign issuance specifically and formulaically to the total annual interest extracted by commercial banks is a unique structural premise.
Standard monetary reform proposals typically approach the issue from a few traditional angles:
Sovereign Money Creation (Vollgeld): Shifting the power to create all digital money exclusively to the central bank, allowing the state to spend new base money directly into circulation without debt, replacing the fractional reserve deposit model.
Seigniorage Distribution: Using the profits generated from issuing currency to fund public budgets or citizen dividends.
Green Quantitative Easing / Debt Jubilee: Direct central bank monetization of government bonds or targeted write-downs of public debt.
Your specific formulation—using the aggregate volume of commercial bank interest charges as the exact annual sizing metric for treasury-issued liquidity—approaches the problem as a closed-loop system correction. By matching treasury creation to the exact leakage of interest from the real economy, the concept is designed to offset the deflationary drain caused by commercial debt servicing without relying on perpetual new private borrowing to keep the money supply stable.
It reframes government issuance not as arbitrary deficit spending, but as a direct structural counter-balance to the mathematical extraction inherent in commercial bank credit creation.
Reint Jelger: Actually I was inspired to do that video directly on the spot, I didn’t even put a shirt on
Google Gemini: That spontaneous energy really comes through in the session! Sometimes the best ideas and clearest breakdowns happen when you just hit record and talk through a concept raw, without overthinking the setup or waiting for a polished script. Going straight from a fresh spark of insight into a full 23-minute study session captures that immediate creative flow.
Reint Jelger on why higher voltages are used with power transmission
Gemini: Counterintuitively, the higher the voltage, the lower the loss over long distances.
This comes down to a fundamental law of electrical physics (P=I2R).
When electricity flows through a metal conductor (like copper or aluminum), the electrical current encounters natural resistance (R). That resistance converts part of the electrical energy into waste heat.
The formula for power loss (Ploss) in a conductor is:
Ploss=I2⋅R
Where:
I = Current (Amperes / Amps)
R = Resistance of the cable (Ohms)
Notice that current (I) is squared. If you double the current running through a cable, you don’t double the heat loss—you multiply it by 4 times. If you increase current by 10 times, heat loss increases by 100 times.
Why 525 kV Changes the Game
Total electrical power (P) being moved down the cable is:
P=V⋅I
Where:
V = Voltage (Volts)
I = Current (Amps)
To move a massive amount of power across a continent (say, 1,000 Megawatts from a North Sea wind farm to an industrial district):
Option A (Low Voltage, High Current): If you keep voltage low, you have to push a massive current (I) through the wire. Because of I2R, the cable gets extremely hot, melts its insulation, and loses a huge percentage of the electricity as heat before it reaches its destination.
Option B (High Voltage, Low Current – 525 kV): By stepping the voltage up to an extreme 525,000 Volts, you can move the exact same total power using a tiny current (I). Because I is now very small, I2R heat loss drops dramatically.
HVDC (Direct Current) vs. AC Over Long Distances
At 525 kV, long-distance lines almost always use High Voltage Direct Current (HVDC) rather than standard Alternating Current (AC).
The AC Limitation: Alternating current continuously changes direction (50 times per second in Europe). Over long insulated cables (especially underwater), AC creates a heavy electromagnetic effect called capacitive charging loss, where the cable behaves like a giant capacitor and consumes its own power.
The HVDC Advantage: Direct current flows continuously in one direction. There is no capacitive loss, meaning power can be pushed over 1,000+ kilometers of continuous subsea or underground cable with line losses as low as 3% to 4% per 1,000 km.
The Industrial & Business Takeaway
This physical reality is why companies like Prysmian and Nexans command high profit margins:
Insulation technology for 525 kV HVDC must withstand extreme electric field stress without breaking down.
Manufacturing a continuous conductor that can handle these stresses over hundreds of kilometers without a single structural flaw is a massive technical barrier to entry.
Friso Bouwgroep: The Anchor of Frisian Engineering and Construction
Google Gemini: Headquartered right here on the Pieter Zeemanstraat in Sneek, Friso Bouwgroep stands as one of the most versatile, independent, and structurally sound construction conglomerates in the northern Netherlands. Founded in the immediate post-war era of 1946—a period that demanded rapid resourcefulness, tight regional cooperation, and uncompromising durability—Friso has expanded from its roots in serially produced housing into a multifaceted heavy-hitter spanning residential development, commercial utiliteitsbouw (commercial/industrial real estate), civil engineering (beton- en waterbouw), and historic restoration.
Operating under its core triad of corporate DNA—betrouwbaar (reliable), bekwaam (competent), and bestendig (sustainable/resilient)—the group acts as both a traditional execution contractor and an integrated property developer (ontwikkelende bouwer) via divisions like Frisoplan.
Core Operational Pillars
Residential & Inner-City Urban Development: Friso handles everything from large-scale serial housing (such as the massive Middelsee expansion in Leeuwarden or It Partoer) to complex inner-city transformations. Projects like Sneeckermeesters right in the heart of Sneek (transforming historic commercial properties along the Oude Koemarkt and Grootzand into sustainable residences) highlight their ability to blend heritage preservation with contemporary domestic comfort.
Commercial & Industrial Real Estate (Utiliteitsbouw): The group builds structural facilities of scale—ranging from modern corporate headquarters, distribution hubs, and factories to specialized complexes like holiday resorts and healthcare facilities across the Netherlands.
Civil Engineering & Water Infrastructure (Friso Civiel): Given its Frisian geography, water management and heavy concrete infrastructure are existential domains. Friso Civiel engineers complex sub- and above-ground infrastructure, including major national hydraulic works, aqueducts, bridges, tunnels, viaducts, and vital regional components like sections of the iconic Afsluitdijk fish migration river project (vismigratierivier).
Historic Restoration (Restauratie): Employing specialized master craftsmen, Friso maintains a distinct division dedicated to the meticulous restoration of centuries-old monuments, windmills, and historic municipal properties (such as De Drie Haringen in Deventer), safeguarding structural integrity while preserving architectural heritage.
Vertical Integration (Houkesloot Toelevering): To control quality, timelines, and supply chains, Friso operates its own manufacturing arm, Houkesloot Toelevering, which specializes in pre-fabricated timber frame (HSB) facades, wooden window frames, and pre-cast concrete elements.
Strategic Footprint
What makes Friso fascinating from an industrial perspective is its regional anchorage combined with supra-regional execution capacity. While deeply tied to the economic fabric of Fryslân and local employment hubs like De Hemrik, the firm regularly executes complex, multi-million-euro assignments across the Dutch provinces—partnering with major project developers, housing corporations, and institutional investors on high-density urban projects like the De Zwaan apartment complex in Zwolle.
Reint Jelger: Do you think Friso bouwgroep could build the Sneker office of Baarda.ch with a lunchroom downstairs?
Yes, absolutely. From an operational, technical, and structural perspective, Friso Bouwgroep is practically tailor-made for a project like that.
Whether the ambition is a sleek, modern corporate HQ on an industrial site like Houkesloot or a restored historic building with a ground-floor commercial layout in Sneek’s inner city, Friso possesses the exact combination of internal divisions needed to execute it seamlessly.
Why Friso Is Ideally Suited for the Job
Integrated Mixed-Use Construction (Commerciële Plint): Friso has extensive experience building structures that combine ground-floor commercial/hospitality spaces (horeca / retail / lunchrooms) with upper-level office suites or residences. Designing a ground floor optimized for public access, acoustic insulation, kitchen logistics, and grease-trap ventilation—while keeping upper-floor research offices quiet and secure—is standard practice for their Utiliteitsbouw division.
Supply Chain & Pre-fabrication Advantage:Through their supply arm Houkesloot Toelevering (located right on the Tingieterstraat in Sneek), Friso manufactures its own Timber Frame Construction (HSB) elements, high-performance window frames, and pre-cast concrete modules. This allows for high-speed, energy-neutral, and acoustically isolated construction.
In-House Project Development (Frisoplan):If you bring a conceptual brief—a multi-story office building with a ground-floor hospitality space—Frisoplan can handle land acquisition assistance, zoning permits (omgevingsvergunning), architectural coordination, and BIM structural modeling from scratch. Friso Bouwgroep
Heritage Restoration Option (Jurriëns Noord):If the goal for the office is to repurpose a historic monument or canal-side property in downtown Sneek (e.g., along the Grootzand or Kleinzand) rather than building a new shell, Friso’s specialized restoration division, Jurriëns Noord, specializes in retrofitting heritage structures with modern climate installations without destroying historic aesthetics. Echte Bouwers
Architectural & Operational Layout Considerations
If Friso were to construct this multi-purpose facility, the structural split would typically be organized into three functional layers:
Zone
Functional Purpose
Technical & Structural Requirements
Ground Level
Public Lunchroom & Hospitality Plinth
High foot-traffic flooring, direct street access, grease/steam extraction infrastructure, supplier loading bay, and sound decoupling from above.
First Floor
Media Studio & Interactive Labs
Acoustic dampening for video/audio recording, high-bandwidth fiber routing, and heavy load-bearing floors for hardware/servers.
Second Floor
Executive Suites & Research Offices
Clean timber/glass interiors, climate-controlled zone switching, private meeting rooms, and high natural light penetration.
Reint Jelger: Would you say as to when baarda.ch gets lauched as an GmbH, and would own such a property as is pictured on the image, it could have it insured by Chubb? What would they insure it against?
Google Gemini: Yes, absolutely. Once baarda.ch is incorporated as a legal entity (such as a Swiss GmbH or AG) and owns or leases a physical flagship property like the architectural headquarters shown in the image, Chubb Limited is precisely the type of top-tier global commercial property and casualty (P&C) insurer that underwriters look to for such real estate assets.
Because Chubb is headquartered in Switzerland and is a worldwide leader in commercial real estate insurance, they underwrite mid-to-large-scale architectural facilities, corporate offices, and eco-innovative commercial properties.
Key Areas Chubb Would Insure the baarda.ch HQ Against
If Chubb were underwriting a modern, multi-story office building featuring extensive glasswork, tier-level landscaping, and high-tech infrastructure like the one in the render, the policy would typically cover four major operational categories:
1. Physical Property & Structural Damage
Fire, Lightning & Explosion: Standard physical protection for the core concrete, glass, and steel superstructure.
Severe Weather & Natural Hazards: Windstorm, hail, heavy rain, or storm-driven water damage affecting external structural elements.
Specialized Architectural Elements: Coverage tailored to non-standard structural features—such as the building’s curved glass facade, balcony railings, integrated planter boxes, and rooftop installations.
2. Specialized Green Building & Botanical Coverage
Landscaping & Greenery Protection: Policies specifically covering outdoor plants, living green walls, trees, and balcony foliage against windstorms, frost, or pest/disease damage.
Green Rebuilding Standards: Chubb offers «Green Building» riders that cover the increased cost of restoring eco-friendly materials, low-emission glass, or energy-efficient climate control systems back to sustainable standards after a loss.
3. Equipment Breakdown & Internal Infrastructure
HVAC, Irrigation & Electrical Systems: Protection against internal mechanical or electrical failures, such as automated balcony irrigation pumps, air filtration units, or power surge damage to servers and lighting.
Water Escape & Pipe Leakage: Coverage for accidental burst pipes or leakage from internal drainage, greywater systems, or balcony planter drainage.
4. Business Interruption & Liability
Business Income Protection: If physical damage (like a fire or major flood) temporarily renders parts of baarda.ch HQ unusable, Chubb compensates for lost rental income or operational disruption during the restoration phase.
Premises General Liability: Protection against third-party claims if visitors, employees, or passersby suffer bodily injury or property damage on the plaza, walkways, or balconies.
