Warsaw’s First Electrification Was Renewable — and It Lit the Path for a Cleaner Future

March 8th 2025 Warsaw

The technology behind today’s TITAN Project owes much to a quiet lineage of innovators who came long before the era of climate targets and carbon markets. Inspired by these early industrialists, TITAN builds upon a legacy where electricity was local, independent, and renewable by necessity, not marketing. We inherit that history with humility and pride.

In the late 19th century, long before municipal power grids were laid, Warsaw quietly switched on — not from coal, but from wood gas, plant oils, and German-built engines. Electricity in Poland did not arrive with smoke and ceremony. It arrived with intention, resilience, and a clear grasp of available resources.

The first confirmed electric lights in Warsaw came on in 1888, inside the military fortress at Żoliborz. A Deutz gasifier engine, burning wood chips and coke, provided a smokeless, off-grid supply of electricity to illuminate tunnels, barracks, and secure magazines. This was Poland’s first renewable electrification, and it was powered by wood — not wires.

That same year, a second Deutz unit was installed at the Towarowa freight yard, where the Vienna–Warsaw Railway extended eastward via the Warsaw–Terespol line. Contrary to common retellings, the Warsaw–Terespol Railway was laid in standard European gauge, only transitioning to Russian broad gauge at the border town of Terespol. In Warsaw, Towarowa had become one of the busiest and most sensitive freight depots in the region — and its electric lights, powered by a local wood gas engine, served a strategic purpose. On dark winter nights, those lights allowed the military to deter undesirables, track movements, and maintain order amid the chaos of the city’s growing trade and customs corridor.

Then, in 1889, Austrian engineer Marschel & Co. delivered Warsaw’s first commercial electric lighting system to the woollen hand-finishing workshops of Praga, not far from where the vodka factory would soon be built. These workshops, connected to the rising Brühl textile estate, operated without chimneys, without soot — and without interruption. Their Deutz generator lit the benches of men and women who worked wool into fine garments for markets east and west. And they did so two full years before the first coal-fired generator ever arrived at the much-acclaimed vodka distillery.

This was decentralised electricity. It was locally fuelled. It was renewable.

It is no exaggeration to say that Marschel and his colleagues, working quietly in the shadow of Warsaw’s industry, helped electrify the textile corridor that ran from Łódź through Praga and Połtków, all the way to Terespol. Their systems didn’t just bring light — they brought structure, predictability, and modernity to an expanding economy.

When the Hotel Bristol opened in 1900, it brought these traditions to their most refined expression. The Crystal Lift — a silent, glass-walled elevator — became the hotel’s crown jewel. It needed power that was silent, reliable, and clean. The man responsible for choosing the engine was Marian Lutosławski, a young engineer educated in Riga, trained in Darmstadt, and already building bridges — both literal and technological.

Lutosławski rejected the coal-fired convention. Instead, he specified a Rudolph Diesel engine, designed not for petroleum, but for plant oil. He knew that Łódź was not only a textile hub, but a producer of high-quality linseed oil. That flax oil powered the lift without soot or noise — and it was grown in Polish soil. Later that year, at the Paris Exhibition, Diesel himself demonstrated his engine running on peanut oil, and proudly announced that his engine had already been adopted in Warsaw.

Like the systems that powered Praga’s wool workshops and Towarowa’s sidings, the Crystal Lift engine likely drove a DC generator. At the time, most elevators, trams, and early vehicles used direct current — simpler to regulate, reliable to operate. Three-phase alternating current (AC) was still new, still rare. But Lutosławski saw where it would go.

In the years that followed, he became one of the first engineers in Poland to implement and promote 3-phase AC systems, helping to usher in a new era of scalable electrification. His mastery of structure extended beyond electrons. In 1908 and 1909, he designed and built two reinforced concrete bridges in Lublin, using the Hennebique system, introducing a new era of material efficiency to Polish infrastructure.

But it all began with wood, vegetable oil, and wool. That was the real foundation. And that’s the foundation TITAN honours today.

Where early engineers used Deutz gasifiers, TITAN uses modern equivalents — converting forest biomass into clean hydrogen-rich gas. Where Marschel wired Praga’s workshops with lamps, TITAN connects modular bio-conversion units to power grids and fuel systems. Where Marian Lutosławski selected linseed oil as a clean fuel, TITAN converts carbon-rich organic residues into usable gases and fermentation feedstocks — an echo of the same logic, advanced by 120 years.

We do not claim to be the first.
But we are proud to stand in this line — from Marschel, to Marian, to TITAN.
This is not just a story of electricity.
This is the renewable inheritance of Poland.


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In the ongoing battle against climate change, innovative solutions are essential to combat the rising levels of carbon dioxide (CO2) in the atmosphere. Enter PEGASUS, a groundbreaking plugin on the TITAN and ASMARA platforms, poised to revolutionise carbon recycling and waste valorisation on a single integrated platform. Let’s delve into the formula for success behind this transformative technology.

TITAN: A Pillar of Sustainability in Rural Landscapes

In rural landscapes, TITAN stands tall as a beacon of sustainability, leveraging forest and agricultural residues to produce hydrogen-producers’ gas. This gas not only powers TITAN’s base-load electricity production but also serves as the feedstock necessary to ferment a diverse array of targeted outcomes through microbial fermentation. By harnessing the abundant resources of rural areas, TITAN drives economic growth while minimising environmental impact.

ASMARA: Transforming Urban Environments

Meanwhile, in urban landscapes, ASMARA takes center stage, converting municipal solid waste (MSW) into hydrogen producer gas. This gas fuels ASMARA’s operations and provides the essential feedstock for microbial fermentation, turning urban waste into valuable resources. ASMARA’s presence in urban areas addresses the pressing need for sustainable waste management solutions, reducing landfill usage and promoting circular economy principles.

The Role of DAC: A Crucial Component in Carbon Neutrality

In the face of escalating CO2 emissions, Direct Air Capture (DAC) emerges as an indispensable technology. DAC removes CO2 directly from the atmosphere, offering a pathway to carbon neutrality and climate stabilization. As the world grapples with the inevitability of DAC adoption, the integration of PEGASUS on the TITAN and ASMARA platforms reinforces the platform’s commitment to carbon recycling and waste valorization.

Why we need be concerned for LOT, not CPK

Rafał M. Socha

Friday 26 January, Warsaw Poland.

Syngas Project has been at the forefront of innovation with the development of the TITAN platform in Poland for almost a decade; specifically tailored for the production of 2nd generation ethanol (2G EtOH), a vital intermediary for fuelling Sustainable Aviation Fuel (SAF) refineries.

Despite the urgency of the situation, the groundbreaking TITAN platform finds itself still sitting on the sidelines, facing the challenge of not yet finalising the allocation of funding required to propel it through the final leg of the EPC tender. This step is crucial in making TITAN investment-ready and leading to groundbreaking, initiating a 25-year-plus construction roll-out. The financial hurdle currently faced by the project puts it in a state of uncertainty, which is particularly frustrating given the imminent 2% EU Sustainable Aviation Fuel (SAF) mandate scheduled for next year and the daunting 20% EU SAF mandate for 2030 looming on the horizon. TITAN’s potential to revolutionise SAF production in Poland and contribute to meeting these mandates makes the need for support and the release of funding even more pressing.

As the destiny of CPK teeters on the brink, the imperative to address LOT’s Sustainable Aviation Fuel (SAF) requirements becomes increasingly urgent. With each passing moment of delay, the pressure mounts on an already precarious situation, akin to an inflated balloon atop the proposed 46 billion Euro bill for CPK. Time is of the essence, and failure to swiftly meet LOT’s SAF needs jeopardises not only the realisation of CPK’s vision but also risks losing an airline and leaving behind a significant financial burden. Swift action is essential to avert this outcome and ensure the sustainable future of aviation in Poland.

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Resilient Landscapes: Navigating National Forest Reserves

Steve Walker 23.10.2023

In the ever-evolving narrative of climate change, Poland’s National Forest Reserves stand as vital guardians of biodiversity and sustainable resource utilisation. Within this intricate tapestry, Syngas Project, through its visionary initiatives “Reach” and “Cache”, is orchestrating a symphony of resilience. This extended exploration uncovers the strategic dance between Syngas Project and Poland’s National Forest Reserves, highlighting the symbiosis between forest management and climate-induced events.

Poland’s National Forest Reserves: Balancing Conservation and Utilization

Before we delve into the intricate strategies of “Reach” and “Cache,” it’s crucial to appreciate the unique character of Poland’s National Forest Reserves. These reserves, vital for preserving biodiversity, are also strategic sources of forest products. Yet, the delicate equilibrium between conservation and utilisation requires careful consideration, especially in the face of temporary disruptions caused by severe weather events.

Understanding Delayed Clear-Cutting: A Balanced Perspective

In the grand scheme of forest management, the delayed clear-cutting dilemma is not a norm but a calculated response to the temporary impact of severe weather events. This delayed harvesting, often prompted by storms, is a risk-mitigation strategy. It allows forest management authorities to adapt and preserve the resilience of the National Forest Reserves, recognizing that these weather events are temporary disruptions rather than perpetual obstacles.

Reach: Extending Syngas Project’s Influence Beyond Boundaries

Within this nuanced context, the Reach initiative becomes a strategic tool for Syngas Project. By harnessing Poland’s extensive electric railway infrastructure and TITAN’s capacity to generate extra carbon-positive electricity on demand, Reach facilitates the acquisition of biomass from various National Forest Reserves. The delayed clear-cutting in one reserve, resulting from a storm, transforms into an opportunity for Syngas Project to strategically acquire biomass from another reserve, thus aligning forest management practices with transient climate-induced events.

Syngas Projects TITAN and ASMARA: “Primed for Carbon Capture Integration”

Warsaw 6 October 2023

In the dynamic landscape of waste transformation, TITAN and ASMARA emerge as adaptive forward-compatible platforms proficient in converting solid waste into producers’ gas, and from hydrogen producers’ gas via microbial fermentation into new and better fuels, chemicals and materials. In a realm where innovation meets sustainability, these platforms unfold a compelling narrative ideal springboards within the realm of Carbon Circular Recycling (CCR).

Future-Proofing for CO2 Integration and Direct Air Capture: A Forward-Thinking Move?

Syngas Project strategically future-proofed TITAN and ASMARA to not only accommodate the intake of third-party CO2 waste from carbon capture devices but also kick-start direct air capture initiatives for CCR. Designed as forward-looking models, these platforms seamlessly integrate with the needs of future carbon capture entrepreneurs, ensuring adaptability for evolving technologies.

“The value proposition for the Direct Air Capture Project is, assured low-cost renewable electricity on demand in addition to an assured long-term off-taker agreement for Co2. For Syngas Projects platforms it’s a valuable and reliable source of CO2 for conversion into new fuels, chemicals and materials.”