Übersetzung für "Decarbonizing" in Deutsch

Phasing out coal represents a major step towards decarbonizing electricity generation.

Furthermore, over the long term it offers us new technological options for decarbonizing steel production.

"The German automotive industry has been working intensively for many years on decarbonizing road traffic.

The US is decarbonizing its economy and this will continue.

It sets out the key points for decarbonizing the transport sector after 2020 and makes some proposals for specific measures.

Read more about 8th POLIMP Webinar: Are EU Climate Policies up to the Challenge of Decarbonizing Europe?

Because we do not yet know which innovations will be the most important in decarbonizing the economy, investment must be allocated to a wide array of choices.

Fully decarbonizing our energy and transportation systems in four decades will require a herculean effort, but it is not impossible.

By decarbonizing the global economy and limiting climate change, world leaders can unleash a wave of innovation, support the emergence of new industries and jobs, and generate vast economic opportunities.

Decarbonizing the world’s energy system requires preventing our production of vast and growing amounts of electricity from boosting atmospheric CO2 emissions.

Second, “decarbonizing” the energy system is technologically complicated.

The Paris accord is a universal agreement among 193 UN member states to cooperate in decarbonizing the world’s energy system and thereby head off the dangers of climate disaster, such as a multi-meter sea-level rise, extreme storms, massive droughts, and other threats identified by the global scientific community.

Costa Rica, for its part, has set what President Carlos Alvarado has called the “titanic and beautiful task” of decarbonizing the economy.

Point 1.5 – "Nonetheless, the framework for this policy is known: the commitments made at COP21, marked geopolitical instability in the field of energy, European climate and energy targets, security of supply, energy efficiency, decarbonizing the EU's economies, infrastructure development and the completion of the internal energy market.

Decarbonizing the Austrian energy system by 2050 while using the existing gas infrastructure would be economically more viable than a pathway purely based on electrification.

All posts The goal of decarbonizing steel production by 2050 poses both technical and economic challenges for the steel industry and the energy sector.

Therfore, decarbonizing developing and emerging countries' economies is of crucial importance in order to prevent dangerous climate change.

The use of the US-produced HBI in the voestalpine blast furnaces and steel shops broadens the raw material base and offers significantly more flexibility in that regard, lowers the energy footprint, reduces the site-specific CO2 emissions by up to 5%, and provides technological options with regard to decarbonizing the steel production.

The above object for manufacturing stainless steel of the mentioned steel quality is solved in that, for the stainless steel production of all stainless qualities in the austenitic range as well as in the ferritic range, the slag-free liquid pig-iron quantity pretreated in the blast furnace and in a DDD installation is separated and introduced into two classic “Twin” AOD-L converters, in which the required chemical process steps (heating, decarbonizing, and alloying) are carried out with the use of autogenic chemical energy in a parallel contrary sequence with the use of autogenic chemical energy, wherein charging and heating are initially carried out in the first Twin AOD-L converter and decarbonization is initially carried out in the second Twin AOD-L converter.

The above object for manufacturing stainless steel of the mentioned steel quality is solved with the characterizing features of claim 1 in that, for the stainless steel production of all stainless qualities in the austenitic range as well as in the ferritic range, the slag-free liquid pig-iron quantity pretreated in the blast furnace is separated and introduced into two classic “Twin” AOD-L converters, in which the required chemical process steps (heating, decarbonizing, and alloying) are carried out with the use of autogenic chemical energy in a parallel contrary sequence with the use of autogenic chemical energy, wherein initially the DDD treatment is carried out in the first “Twin” AOD-L converter and decarbonization is initially carried out in the second “Twin” AOD-L converter.

The above object for manufacturing stainless steel of the mentioned steel quality is solved in that, for the stainless steel production of all stainless qualities in the austenitic range as well as in the ferritic range, the slag-free liquid pig-iron quantity pretreated in the blast furnace is separated and introduced into two classic “Twin” AOD-L converters, in which the required chemical process steps (heating, decarbonizing, and alloying) are carried out with the use of autogenic chemical energy in a parallel contrary sequence with the use of autogenic chemical energy, wherein initially the DDD treatment is carried out in the first “Twin” AOD-L converter and decarbonization is initially carried out in the second “Twin” AOD-L converter.