DielectraEnergy
Technologies
DLCTC$0.48▲ 4.3%ILLUS.
I'm here to

Heat from the inside out.

Radio-frequency direct heat replaces combustion where industry needs heat most: heavy oil, minerals and carbon capture. One platform, three markets, publicly listed in Calgary.

Surface48 °C
Core130 °C

Fig. 1 · RF heat starts in the core. Combustion heats the surface and waits.

1 → 3One Field Core inverter platform, three commercial markets
PaidFeasibility study with a top-3 global diversified miner
$3.4MNon-dilutive government funding to date (fictional)
410 bbl/dProducing heavy oil base, Q2 2026 average (fictional)
Field Core The platform

One inverter. Three markets that burn fuel for heat.

Field Core is a solid-state radio-frequency inverter. It turns grid or on-site power into RF energy tuned to the material in front of it, so heat is generated inside the oil sand, the ore or the amine itself. Nothing is burned and nothing is heated from the outside first.

  • Operating bandsISM 13.56 / 27.12 MHz
  • Module rating0.5–2.0 MW per skid design
  • Wall-plug to RF efficiency>80% target
  • Patents14 granted · 9 pending
01 The physics

Combustion heats the outside. RF heats everything at once.

The same block of material, heated two ways. A burner can only push heat through the surface, so the surface overheats while the core waits and the stack carries a third of the fuel away. RF energy couples into the material's molecules directly, so the whole volume warms together and the core leads. Press play, or drag the timeline.

Cross-section · same material, same target
00.0 min

Combustion

Heat soaks in

Hot gas at 300 °C on every face · conduction does the rest

Core15 °C
Surface15 °C
Lost to stack0 MJ
Fuel energy supplied0 MJ/t
Into the materialOut the stack (35%)

RF direct heat

Heat from within

27.12 MHz field through the volume · power trims at target

Core15 °C
Surface15 °C
Conversion loss0 MJ
Electrical energy supplied0 MJ/t
Into the materialInverter and coupling (12%)
15 °C300 °C

Target: core at 120 °C. Press play.

Illustrative 2-D model · not test data
Faster to temperature

In this model the RF core reaches 120 °C in less than half the time. The bottleneck in combustion heating is conduction, and conduction is slow in ore, oil sand and amine.

No overcooked surface

Burner-side surfaces run near 300 °C to push heat inward. That is where ore cracks, bitumen cokes and amine degrades. RF holds the surface below the core.

No stack

There is no flue gas to carry heat away and no on-site combustion CO₂. The losses that remain are electrical, inside the inverter, and they are measurable.

02 Applications

Same inverter, three places it pays.

Each market is at a different gate, and each gate is evidence for the others. The hardware is common across all three; only the applicator changes. Status below is as of October 2026.

Heavy oil: Field Core inverter at surface drives a downhole RF antenna in a horizontal well, heating the reservoir around it; a producer well below collects mobilized oil. OVERBURDEN HEAVY OIL RESERVOIR FIELD CORERF INVERTER · 2 MW OIL TO SURFACE RF ANTENNAheats reservoir in place PRODUCERmobilized oil drains by gravity NO STEAM · NO WATER · NO SOLVENT
DWG HO-01 · Section, not to scaleAntenna + producer pair
A · 01 Dielectra Heavy Oil

Recover heavy oil without making steam.

A downhole antenna heats the reservoir directly. Oil warms, thins and drains to a producer below it. No water is sourced, boiled, recycled or disposed of, and the surface footprint is one inverter skid per well pair.

0 bblWater or steam per barrel produced
55–70%Lower on-site GHG intensity vs steam-based recovery est.
9 moCommercial-scale pilot run, Alberta, completed 2024
Stage gateNow: commercial deployment
  1. Lab
  2. Field pilot
  3. Paid feasibility
  4. Commercial pilot
  5. Commercial

Partner type: an intermediate Western Canadian heavy oil producer. First commercial FID targeted Q2 2027.

Scope a feasibility study
03 Amine economics

Will it pencil at your plant?

Enter your reboiler duty and your prices. The estimator compares what you burn today, carbon included, with the electricity Field Core would draw, and tells you the power price where they break even. The formula is printed underneath. Sometimes the answer is no, and we would rather you knew that first.

Inputs · your plantDefaults are examples
GJ/h
%
$/GJ
$/MWh
$/t
h
%
Where to find your reboiler dutyYour plant's heat and material balance, or the reboiler datasheet. If you only know circulation rate, a common rule of thumb is 0.25–0.32 GJ per m³ of lean amine circulated (roughly 900–1,200 Btu/US gal). Treat that as a placeholder until you have the balance.
Estimated result · per yearIllustrative estimate, not a quote
Net annual savings $337,000

Break-even electricity price: $57.41/MWh. Below that, RF costs less to run than your reboiler.

Today
$2.61M
Field Core
$2.28M
Fuel gasCarbon costElectricity
  • Fuel gas burned today307,317GJ
  • Fuel + carbon cost today$921,951 + $1,690,244
  • Field Core electricity45,500MWh
  • On-site CO₂e avoided15,366t/yr
Savings at the federal carbon benchmark scheduleyour other inputs held

Scope 1 only. CO₂e avoided counts combustion at your site. Emissions from the electricity supply depend on your power source and are not included. Carbon cost assumes full exposure; your compliance position may differ.

Send these numbers to an engineer
How we estimate formula, factors, assumptions
# per year
fuel_GJ     = duty ÷ efficiency × hours
            = 30 ÷ 0.82 × 8,400 = 307,317 GJ
CO2e_t      = fuel_GJ × 0.050
            = 15,366 t
today_$     = fuel_GJ × gas_$ + CO2e_t × carbon_$
            = $2,612,195
RF_MWh      = duty × (1 − reduction) × hours ÷ 3.6
            = 45,500 MWh
savings_$   = today_$ − RF_MWh × power_$
            = $337,195
breakeven   = today_$ ÷ RF_MWh = $57.41/MWh

0.050 t CO₂e per GJ is a typical combustion factor for pipeline-quality natural gas, including small CH₄ and N₂O contributions. Use your own factor if you report one.

Energy reduction compares Field Core's electrical input with the thermal duty of the steam reboiler it replaces. Our 25–45% range comes from bench-scale testing on MEA and MDEA blends and will be confirmed in the 2027 field pilot.

Not included: capital cost, the value of removing the fired heater from your permit, and lower amine degradation. A feasibility study prices all three.

04 Evidence

Who has paid to test it.

Counterparties are described, not named, until they agree to be named. Every item below was disclosed in a press release or filing, and each card points to where.

Paid studyPhase 2 underway

A top-3 global diversified miner

Paid feasibility study on RF heating for copper heap leach in South America. Phase 1 confirmed heating uniformity across a full-height test column.

Signed
Q4 2025
Disclosed
News release, Nov 2025
Development programGate 2 · Q4 2026

A Saskatchewan potash producer consortium

Stage-gated program for RF drying of potash product, run through a provincial minerals innovation consortium. Members co-fund each gate.

Gate 1 passed
Q1 2026
Disclosed
Q1 2026 MD&A, §4
Field resultCompleted

Commercial-scale heavy oil pilot, Alberta

Nine-month run of a full-length downhole antenna in a producing heavy oil reservoir. Oil rate response confirmed with no water injected.

Completed
Q3 2024
Disclosed
Technical report, Feb 2025
Non-dilutive fundingAwarded

A federal clean-technology program

$2.0M (fictional) toward the amine regeneration field pilot, matched by the host operator's in-kind contribution.

Awarded
Q2 2025
Disclosed
News release, May 2025
Non-dilutive fundingAwarded

A provincial emissions-reduction fund

$1.4M (fictional) toward the heavy oil commercial deployment program, payable against milestones.

Awarded
Q1 2026
Disclosed
Q1 2026 MD&A, §6
Pilot agreementSigned

A Western Canadian midstream operator

Host site for a 2027 slipstream pilot at a sour gas processing plant. Field Core will regenerate a side stream of the plant's existing amine.

Signed
Q3 2026
Disclosed
News release, Aug 2026
05 Investors

A producing base, with a platform on top.

Everything a shareholder checks first, on one screen: the quote, the thesis, what has happened, what happens next, and the latest filings. Full documents live in the investor library.

DLCTTSX Venture · CAD
LastC$0.48
Change+0.02 (+4.3%)
Volume412,600
52-week range0.21–0.61
Market capC$61.6M
Oct 202512 monthsOct 2026

Illustrative — fictional company. Not market data. In the real build this strip reads a delayed exchange feed.As of Oct 6, 2026, 4:00 p.m. ET

The thesis in 60 seconds

Management view
  1. Cash flow pays for the science.

    About 410 bbl/d of heavy oil from the Lloydminster fairway covers corporate G&A at current prices (management estimate), so development capital goes to the platform.

  2. One platform, three shots on goal.

    All three markets run on the same Field Core inverter. A commercial win in any one of them de-risks the hardware, the supply chain and the cost curve for the other two.

  3. Industry pays to prove it.

    A paid study with a top-3 global miner and $3.4M in non-dilutive funding covered roughly 40% of 2025–26 development spend (estimate). Validation is being bought by the customers, not only by shareholders.

Share structure

At Jun 30, 2026
Basic shares outstanding128.4M
Options and RSUs9.8M
Warrants avg. C$0.558.7M
Fully diluted146.9M
Market cap illustrative, at C$0.48C$61.6M
Cash and equivalentsC$7.2M
Bank debtNil
Directors and officers18.0% Aspen Bend Development Corp.2.9% Institutional11.0% Retail and other68.1%

Catalysts

✓ delivered · ○ next, by target quarter
  1. Q3 2024 ✓

    Heavy oil commercial-scale pilot completed

  2. Q1 2025 ✓

    Aspen Bend JV and private placement closed

  3. Q2 2025 ✓

    $2.0M federal funding for amine pilot

  4. Q4 2025 ✓

    Paid feasibility signed with top-3 miner

  5. Q2 2026 ✓

    Phase 1 feasibility results delivered

  6. Q4 2026

    Potash drying gate 2 decision

  7. Q1 2027

    Amine slipstream pilot starts

  8. Q2 2027

    First commercial heavy oil FID

  9. H2 2027

    Minerals commercial pilot, subject to phase 2

Investor updates

Releases and filings, the day they're published.

No marketing. Unsubscribe in one click.

Investor relations
(403) 555-0171 · ir@dielectra.example
06 Partnership

Partners in the work, and in the ownership.

Aspen Bend Development Corporation is wholly owned by a First Nation community in the heavy oil fairway where Dielectra produces (both fictional). The partnership was negotiated before the first Field Core well was permitted on the Nation's traditional territory.

Aspen Bend holds majority ownership of the company that installs and services every Field Core unit in the region, and a direct stake in Dielectra itself. The work and the returns from it stay in the community.

“We were asked to own it, not to sign off on it. That is the difference our members noticed.”

Chief Executive Officer, Aspen Bend Development Corporation (fictional)
51%

Field Core Services LP

Aspen Bend's majority share of the joint venture that installs, operates and maintains every Field Core unit in the fairway.

2.9%

Equity in Dielectra

Purchased in the 2025 private placement, on the same terms as every other subscriber.

24

Field technician roles by 2028

Paid training through a regional polytechnic, with first hiring preference for Nation members. Eight are filled today.

2of 5

Seats on the JV board

Plus an observer seat on Dielectra's own board, with access to the same technical reporting as directors.

07 Contact

Two doors. Pick yours.

Engineers reach a process engineer, not a sales queue. Investors reach investor relations directly. Both reply within two business days.

Head officeSuite 1450, 715 5 Avenue SW
Calgary, Alberta T2P 5X0
ListingTSX Venture: DLCT (fictional)

A process engineer reads every request. Your details are not shared with partners.

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