Hybrid hydrogen power module
An apparatus for powering trucks including a power module skid and supporting structure for fitting on a truck. The skid housing hydrogen fuel cell modules, battery sub packs, cooling means and cooling management, and integrated power electronics, to provide an electrical drive train of the truck with a constant high voltage DC power supply. An integrated system using renewable energy to reduce greenhouse gases using one or more trucks, in which an integrated system includes: means for providing renewable energy; means for using the renewable energy to synthesise hydrogen; means for storing the synthesised hydrogen; The integrated system includes hybrid hydrogen power modules fitted to each truck including hydrogen fuel cell modules and battery sub packs so that the battery sub packs and the battery sub packs are recharged by the hydrogen fuel cells.
1. A method for retrofitting an integrated power module into an ultra heavy-duty truck, the integrated power module including a plurality of hydrogen fuel cell modules coupled to and supported by a skid, a plurality of battery sub packs coupled to and supported by the skid, and integrated power electronics physically coupled to and supported by the skid and electrically coupled to each of the plurality of hydrogen fuel cell modules and the plurality of battery sub packs, the method comprising:
electrically disconnecting a diesel generator from an electrical drive train of the ultra heavy-duty truck;
physically removing the diesel generator from a structural interface after electrically disconnecting the diesel generator;
physically coupling the skid to the structural interface of the ultra heavy-duty truck such that the integrated power module resides within volumetric and configurational constraints of the diesel generator; and
electrically coupling the integrated power electronics to the electrical drive train of the ultra heavy-duty truck.
2. The method of claim 1 , wherein the integrated power electronics is configured to provide the electrical drive train a constant, high voltage DC electrical output with a power of at least 0.5 MW and a voltage between 400 V and 1500 V.
3. The method of claim 2 , wherein the integrated power electronics includes an individual DC/DC converter coupled to an output of each hydrogen fuel cell module and configured to boost the output voltage thereof, the DC/DC converters collectively operable to compensate for phases and output differences between the plurality of hydrogen fuel cell modules and to enable a shared output to be regulated to allow the integrated power electronics to provide the constant, high voltage DC electrical output.
4. The method of claim 2 , wherein the electrical output has a power of at least 1 MW.
5. The method of claim 2 , wherein the energy storage capacity of the power module is in excess of 1 MWh.
6. The method of claim 1 , wherein the integrated power module further includes a cooling system coupled to and supported by the skid, the cooling system configured to cool the plurality of hydrogen fuel cell modules and the plurality of battery sub packs.
7. The method of claim 6 , wherein the cooling system includes a multi-zone radiator with integrated fans and coolant fluid loops.
8. The method of claim 1 , wherein the plurality of hydrogen fuel cell modules are electrically coupled in parallel such that the integrated power electronics provides an electrical output to a single DC link voltage.