TFC in MecanIST In the past day march 26, Técnico Fuel Cell was invited and took part in the MecanIST event in order to show younger audiences and enterprises our project and the concept of FCEV*. We consider it important to reach the new generations as they are an essential force for innovation and change …
TFC in Semana Aeroespacial Técnico Fuel Cell has participated in the most recent AeroTéc’s Semana Aerospacial and took the chance to engage directly with college students from various fields and to show the advantages of hydrogen in a green economy and TFC’s possible contributions in that regard. Other News TFC no Dia aberto do Taguspark …
MEAN WELL Converters MEAN WELL has been working as a “reliable partner” with customers, suppliers, contractors, and employees to build long lasting mutual trust relationships based on the spirit of “good intentions.” Now we are happy to announce our Partnership with MEAN WELL EUROPE B.V. The SD-1000L-24 and SD-100C-12 DC-DC converters sponsored and gently provided …
Decarbonizing the Home Mini-challenge with Shell Energy Congratulations to our team Técnico Fuel Cell on an international level!In our first participation in the virtual competition Pitch the Future Shell Eco-marathon we were able to reach the Top 5 of the Europe and Africa regions in the “Decarbonizing the Home Mini-challenge with Shell Energy”. The competition …
Read more “Decarbonizing the Home Mini-challenge with Shell Energy”
Steering Knuckle The steering knuckles are the components responsible for joining the control arms to the vehicle’s wheels, providing support for the steering tie rods and the brake jaws as well. The rear steering knuckle is designed with the objective of minimizing the component’s weight, while also allowing it to be used in both rear …
Suspension Arm A vehicle’s suspension arms are essential structural elements. The majority of the competing vehicles have a double arm independent system, which is quite efficient, rigid and low-weighted. The TFC team responsible for the project and development of the suspension arms has accepted the challenge of minimizing the weight of each element by designing …
![F stands for Fuel!
And WE… (someone in the audience screams “HYDROGEN!”) *Crickets sound*
Ok, well, who are we fooling. It is pretty clear by now that our car will run on hydrogen. BUT, did you know there are three different kinds? Actually, there are more; but for the sake of simplicity, let’s stick with these. Based on its production process, hydrogen may be labeled as:
1. Grey hydrogen: it is the most common form and is generated from natural gas, or methane, in a process called “steam reforming”. Essentially, a hydrocarbon reacts with water resulting in hydrogen and carbon dioxide. The hydrogen is grey when the carbon dioxide (CO2) byproduct is released into the atmosphere;
2. Blue hydrogen: the same exact process as before however – and this is a big “IF” – the CO2 is captured and stored. Sometimes, blue hydrogen is referred to as “carbon neutral”, although that is not entirely true. In a best-case scenario, a blue hydrogen facility manages to capture 90% of the carbon dioxide;
3. Green hydrogen: everything you have ever dreamed off; a clean, carbon-free, marvelous piece of bottled energy. Green hydrogen is produced when the electric current generated by a renewable source (e.g., solar photovoltaic panel or wind turbine) runs through water breaking the bonds between hydrogen and oxygen (electrolysis).
So, why don’t we use only green hydrogen for energy production? For one, there is price. Fossil fuels are still abundant and marketed comparatively at very low prices. Green hydrogen requires great amounts of scarce renewable electricity together with electrolyzers which are only now reaching commercial-scale sizes. And, to be honest, how do you grow supply when demand is not growing? Or vice-versa [1, 2].
But as governments around the world start investing, this might start to change. Green hydrogen is expected to beat blue hydrogen’s cost by 2030 and natural gas’ by 2050.
It should be quick enough. And while you wait, feel free to check all our channels at https://linktr.ee/tfc.vehicle (link in the bio).
We look forward to hearing from you!](https://scontent.cdninstagram.com/v/t51.29350-15/278051815_413087840530391_4534979455928370909_n.jpg?_nc_cat=107&ccb=1-7&_nc_sid=8ae9d6&_nc_ohc=90rcIrISM8UAX-gKJbt&_nc_ht=scontent.cdninstagram.com&edm=ANo9K5cEAAAA&oh=00_AfA-GYWPi4cmKxoWNDcGHCGTJPezYTQXKQ48I2K2nTdZ_Q&oe=6422B8F9)
![F stands for Fuel!
And WE… (someone in the audience screams “HYDROGEN!”) *Crickets sound*
Ok, well, who are we fooling. It is pretty clear by now that our car will run on hydrogen. BUT, did you know there are three different kinds? Actually, there are more; but for the sake of simplicity, let’s stick with these. Based on its production process, hydrogen may be labeled as:
1. Grey hydrogen: it is the most common form and is generated from natural gas, or methane, in a process called “steam reforming”. Essentially, a hydrocarbon reacts with water resulting in hydrogen and carbon dioxide. The hydrogen is grey when the carbon dioxide (CO2) byproduct is released into the atmosphere;
2. Blue hydrogen: the same exact process as before however – and this is a big “IF” – the CO2 is captured and stored. Sometimes, blue hydrogen is referred to as “carbon neutral”, although that is not entirely true. In a best-case scenario, a blue hydrogen facility manages to capture 90% of the carbon dioxide;
3. Green hydrogen: everything you have ever dreamed off; a clean, carbon-free, marvelous piece of bottled energy. Green hydrogen is produced when the electric current generated by a renewable source (e.g., solar photovoltaic panel or wind turbine) runs through water breaking the bonds between hydrogen and oxygen (electrolysis).
So, why don’t we use only green hydrogen for energy production? For one, there is price. Fossil fuels are still abundant and marketed comparatively at very low prices. Green hydrogen requires great amounts of scarce renewable electricity together with electrolyzers which are only now reaching commercial-scale sizes. And, to be honest, how do you grow supply when demand is not growing? Or vice-versa [1, 2].
But as governments around the world start investing, this might start to change. Green hydrogen is expected to beat blue hydrogen’s cost by 2030 and natural gas’ by 2050.
It should be quick enough. And while you wait, feel free to check all our channels at https://linktr.ee/tfc.vehicle (link in the bio).
We look forward to hearing from you!](https://scontent.cdninstagram.com/v/t51.29350-15/277908986_1668712800148656_2339964147328141335_n.jpg?_nc_cat=103&ccb=1-7&_nc_sid=8ae9d6&_nc_ohc=cpi7fvL8hcEAX_kTUHW&_nc_ht=scontent.cdninstagram.com&edm=ANo9K5cEAAAA&oh=00_AfBiTqyJzVXqFxE-033IfaWzN-2liyyyR_BAdET-t9BuxQ&oe=642268BF)
![F stands for Fuel!
And WE… (someone in the audience screams “HYDROGEN!”) *Crickets sound*
Ok, well, who are we fooling. It is pretty clear by now that our car will run on hydrogen. BUT, did you know there are three different kinds? Actually, there are more; but for the sake of simplicity, let’s stick with these. Based on its production process, hydrogen may be labeled as:
1. Grey hydrogen: it is the most common form and is generated from natural gas, or methane, in a process called “steam reforming”. Essentially, a hydrocarbon reacts with water resulting in hydrogen and carbon dioxide. The hydrogen is grey when the carbon dioxide (CO2) byproduct is released into the atmosphere;
2. Blue hydrogen: the same exact process as before however – and this is a big “IF” – the CO2 is captured and stored. Sometimes, blue hydrogen is referred to as “carbon neutral”, although that is not entirely true. In a best-case scenario, a blue hydrogen facility manages to capture 90% of the carbon dioxide;
3. Green hydrogen: everything you have ever dreamed off; a clean, carbon-free, marvelous piece of bottled energy. Green hydrogen is produced when the electric current generated by a renewable source (e.g., solar photovoltaic panel or wind turbine) runs through water breaking the bonds between hydrogen and oxygen (electrolysis).
So, why don’t we use only green hydrogen for energy production? For one, there is price. Fossil fuels are still abundant and marketed comparatively at very low prices. Green hydrogen requires great amounts of scarce renewable electricity together with electrolyzers which are only now reaching commercial-scale sizes. And, to be honest, how do you grow supply when demand is not growing? Or vice-versa [1, 2].
But as governments around the world start investing, this might start to change. Green hydrogen is expected to beat blue hydrogen’s cost by 2030 and natural gas’ by 2050.
It should be quick enough. And while you wait, feel free to check all our channels at https://linktr.ee/tfc.vehicle (link in the bio).
We look forward to hearing from you!](https://scontent.cdninstagram.com/v/t51.29350-15/277938642_542166173932703_6715883394979619285_n.jpg?_nc_cat=102&ccb=1-7&_nc_sid=8ae9d6&_nc_ohc=ajRk5DiA6HYAX9N_e-2&_nc_ht=scontent.cdninstagram.com&edm=ANo9K5cEAAAA&oh=00_AfAdJ5BNqyzjEAQdLkUCuf3_Skpd14XK11Btsvy4x2i8Hw&oe=6421A3DC)
![F stands for Fuel!
And WE… (someone in the audience screams “HYDROGEN!”) *Crickets sound*
Ok, well, who are we fooling. It is pretty clear by now that our car will run on hydrogen. BUT, did you know there are three different kinds? Actually, there are more; but for the sake of simplicity, let’s stick with these. Based on its production process, hydrogen may be labeled as:
1. Grey hydrogen: it is the most common form and is generated from natural gas, or methane, in a process called “steam reforming”. Essentially, a hydrocarbon reacts with water resulting in hydrogen and carbon dioxide. The hydrogen is grey when the carbon dioxide (CO2) byproduct is released into the atmosphere;
2. Blue hydrogen: the same exact process as before however – and this is a big “IF” – the CO2 is captured and stored. Sometimes, blue hydrogen is referred to as “carbon neutral”, although that is not entirely true. In a best-case scenario, a blue hydrogen facility manages to capture 90% of the carbon dioxide;
3. Green hydrogen: everything you have ever dreamed off; a clean, carbon-free, marvelous piece of bottled energy. Green hydrogen is produced when the electric current generated by a renewable source (e.g., solar photovoltaic panel or wind turbine) runs through water breaking the bonds between hydrogen and oxygen (electrolysis).
So, why don’t we use only green hydrogen for energy production? For one, there is price. Fossil fuels are still abundant and marketed comparatively at very low prices. Green hydrogen requires great amounts of scarce renewable electricity together with electrolyzers which are only now reaching commercial-scale sizes. And, to be honest, how do you grow supply when demand is not growing? Or vice-versa [1, 2].
But as governments around the world start investing, this might start to change. Green hydrogen is expected to beat blue hydrogen’s cost by 2030 and natural gas’ by 2050.
It should be quick enough. And while you wait, feel free to check all our channels at https://linktr.ee/tfc.vehicle (link in the bio).
We look forward to hearing from you!](https://scontent.cdninstagram.com/v/t51.29350-15/277982298_547501573347705_3730291461623659916_n.jpg?_nc_cat=100&ccb=1-7&_nc_sid=8ae9d6&_nc_ohc=9bf70qeHxGwAX_teMDU&_nc_ht=scontent.cdninstagram.com&edm=ANo9K5cEAAAA&oh=00_AfDDWQAJqghYUn5xSpIhSBlDgZSvbSksnkfAqD8RsCGfRQ&oe=6423086B)
![F stands for Fuel!
And WE… (someone in the audience screams “HYDROGEN!”) *Crickets sound*
Ok, well, who are we fooling. It is pretty clear by now that our car will run on hydrogen. BUT, did you know there are three different kinds? Actually, there are more; but for the sake of simplicity, let’s stick with these. Based on its production process, hydrogen may be labeled as:
1. Grey hydrogen: it is the most common form and is generated from natural gas, or methane, in a process called “steam reforming”. Essentially, a hydrocarbon reacts with water resulting in hydrogen and carbon dioxide. The hydrogen is grey when the carbon dioxide (CO2) byproduct is released into the atmosphere;
2. Blue hydrogen: the same exact process as before however – and this is a big “IF” – the CO2 is captured and stored. Sometimes, blue hydrogen is referred to as “carbon neutral”, although that is not entirely true. In a best-case scenario, a blue hydrogen facility manages to capture 90% of the carbon dioxide;
3. Green hydrogen: everything you have ever dreamed off; a clean, carbon-free, marvelous piece of bottled energy. Green hydrogen is produced when the electric current generated by a renewable source (e.g., solar photovoltaic panel or wind turbine) runs through water breaking the bonds between hydrogen and oxygen (electrolysis).
So, why don’t we use only green hydrogen for energy production? For one, there is price. Fossil fuels are still abundant and marketed comparatively at very low prices. Green hydrogen requires great amounts of scarce renewable electricity together with electrolyzers which are only now reaching commercial-scale sizes. And, to be honest, how do you grow supply when demand is not growing? Or vice-versa [1, 2].
But as governments around the world start investing, this might start to change. Green hydrogen is expected to beat blue hydrogen’s cost by 2030 and natural gas’ by 2050.
It should be quick enough. And while you wait, feel free to check all our channels at https://linktr.ee/tfc.vehicle (link in the bio).
We look forward to hearing from you!](https://scontent.cdninstagram.com/v/t51.29350-15/277841605_5255296967848283_4123800407963857834_n.jpg?_nc_cat=110&ccb=1-7&_nc_sid=8ae9d6&_nc_ohc=LD-nDed1iDYAX82J2jk&_nc_ht=scontent.cdninstagram.com&edm=ANo9K5cEAAAA&oh=00_AfDHN9_FnqXXP4cD-HA62u_AVPRn0NV4rUGHexgvW3rWqA&oe=64223B22)