TEDOM globally
33
YEARS OF
EXPERIENCE
EXPERIENCE
1000
+ EMPLOYEES
OF TEDOM
OF TEDOM
55
+ EXPORT
COUNTRIES
COUNTRIES
8
+ INTERNATIONAL
BRANCHES
BRANCHES
Milestones of Our Development
2024
2023
2022
2020
2019
2016
2015
2012
2011
2010
2008
2006
2003
2002
2000
1996
1995
1994
1993
1991
Milestones of Our Development
2024
Japanese engineering and energy company YANMAR acquires a majority share in TEDOM a.s.
2023
TEDOM is undergoing a complete rebranding, which, in addition to a logo redesign, includes an overall change in brand perception to a company providing broader energy services.
2022
We are expanding our portfolio and starting to offer our customers comprehensive energy services: installation of photovoltaic power plants, support services for ČEPS, design, construction, and operation of energy sources.
2020
The offer of CHP units is expanded with the new FLEXI series.
Vladimír Hlavina is appointed the new CEO of TEDOM a.s.
2019
Jet Investment acquires a majority share in TEDOM a.s. through the Jet2 investment fund.
2016
In October 2016, we acquire SCHNELL Motoren, a significant German manufacturer of biogas CHP units, thus gaining additional production and development facilities as well as an extensive service network in Germany.
2015
We rank 55th in the annual competition of companies Czech Top 100.
2012
CHP units with Swiss Liebherr engines are added to the Cento series. At the end of the year, we introduce a new prototype of TEDOM Polo 100 gas heat pump.
2011
We start building an energy centre at the airport in Sydney, Australia. The production of buses is terminated, and the production of Micro and Cento units is moved from Hořovice to Třebíč.
2010
In order to operate cogeneration energy sources, we create a daughter company called ČEZ Energo in collaboration with ČEZ a.s.
2008
The number of manufactured CHP units reaches 2000. In the territory of Ostrava-Karviná, the 2nd stage of the landfill gas energy utilization project is completed.
2006
In Třebíč, we open a new assembly plant for production of TEDOM city buses with gas engines.
2003
The 1000th TEDOM CHP unit is manufactured. We buy the LIAZ engine plant, thus gaining our own engines for the Cento series CHP units.
2002
In Riga, Latvia an energy centre for the use of landfill gas is build.
2000
We begin the production of new units with 22 kW output called Premi.
1996
CHP units with American Caterpillar engines are launched.
1995
The companies TEDOM and VKS connect their capital. The number of manufactured CHP units reaches 100 pieces.
1994
In order to use the LIAZ diesel engine in CHP units, we convert it to a gas engine.
1993
We begin our partnership with VKS s.r.o. in Hořovice, which becomes a manufacturer of the mechanical components of CHP units.
1991
The business begins: The first TEDOM CHP unit with an output of 22 kW and an engine from Škoda Favorit heats up a family house in Výčapy and lives up to its name – that is because TEDOM stands for TEplo DOMova, which means the warmth of home in Czech.
Innovation and development
of Landfill Gas
As early as 1993, we began to cooperate with the LIAZ engine plant in Jablonec nad Nisou to modify the original diesel engines to gas-ignition engines for use in cogeneration units. This modification meant the development of new cylinders, modification of cylinder heads to accommodate spark plugs instead of injectors and many other things. The engine developed became the basis for our most successful Cento series units.
After the acquisition of the Jablonec engine plant in 2003, we completed the development of an electronically controlled engine for the combustion of compressed natural gas. This engine is particularly suitable for transport vehicles such as buses, trucks or rail cars.
In 2004, we introduced a prototype of our own low-floor bus powered by compressed natural gas. In 2007, we began mass production of these vehicles, but discontinued this in 2011 and focused all our efforts on further development of CHP units.
We operate 22 energy sources at 16 waste landfills in the Czech Republic. This enables us to produce over 42,000 MWh of “green electricity” annually, reducing CO2 emissions by more than 45,000 tons compared to conventional electricity production methods in the Czech Republic.
Flexibility aggregation allows adjusting electricity production to match fluctuations in the supply of electricity from renewable sources. While electricity production recently adapted to consumption patterns, the future model will reverse, with consumption adjusting to production. This may involve shifting electricity consumption to times when more renewable energy is available or utilizing storage, such as batteries in electric vehicles, to store energy from renewable sources for later use.
As early as 1993, we began to cooperate with the LIAZ engine plant in Jablonec nad Nisou to modify the original diesel engines to gas-ignition engines for use in cogeneration units. This modification meant the development of new cylinders, modification of cylinder heads to accommodate spark plugs instead of injectors and many other things. The engine developed became the basis for our most successful Cento series units.
After the acquisition of the Jablonec engine plant in 2003, we completed the development of an electronically controlled engine for the combustion of compressed natural gas. This engine is particularly suitable for transport vehicles such as buses, trucks or rail cars.
In 2004, we introduced a prototype of our own low-floor bus powered by compressed natural gas. In 2007, we began mass production of these vehicles, but discontinued this in 2011 and focused all our efforts on further development of CHP units.
of Landfill Gas
We operate 22 energy sources at 16 waste landfills in the Czech Republic. This enables us to produce over 42,000 MWh of “green electricity” annually, reducing CO2 emissions by more than 45,000 tons compared to conventional electricity production methods in the Czech Republic.
Flexibility aggregation allows adjusting electricity production to match fluctuations in the supply of electricity from renewable sources. While electricity production recently adapted to consumption patterns, the future model will reverse, with consumption adjusting to production. This may involve shifting electricity consumption to times when more renewable energy is available or utilizing storage, such as batteries in electric vehicles, to store energy from renewable sources for later use.
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