ttystikk
Well-Known Member
In other words, you don't have one. Thanks for admitting that.RTFT
In other words, you don't have one. Thanks for admitting that.RTFT
No, it's already been said (even though electrolysis is NOT the way most hydrogen is produced, thanks for showing you know even less than I thought).In other words, you don't have one. Thanks for admitting that.
Derp.No, it's already been said (even though electrolysis is NOT the way most hydrogen is produced, thanks for showing you know even less than I thought).
And thanks for admitting you don't remember something rather recent which I think you even commented on. Or that you have no interest in actually reading what has been posted and only wish to behave like a child.
It's one of the two anyway.
Well, that makes it clear which one you are.Derp.
I just give your attitude back to you, with interest.Well, that makes it clear which one you are.
Coming from one who can't even follow a thread properly...I just give your attitude back to you, with interest.
Maybe if you quit being a dick you'd get a better response.
Organize your thoughts.Coming from one who can't even follow a thread properly...
Just keeping you on your toes.I'm just trying to keep up and respond to one subject at a time and not miss so much, ya freakin' manic lol
Dirigibles are anything but a replacement for heavy rail freight service. Just for openers, 'wind' and other weather. Rail is frankly far more efficient than air travel even under ideal conditions, gas bags notwithstanding.
Dedicated power generation plants are almost always far more efficient than small power plants in moving vehicles. Load balancing is easier, too. Electric trains deliver the energy of braking and downgrades back into the grid. Insane it might seem, diesel locomotives also convert momentum into electricity- but then send it to giant heating coils on the roof of the unit where fans blow the heat out into the atmosphere. Gigawatts of electric power wasted every year, every time a train stops.
Solar panels replace other generation. It's a snowball effect and we should keep rolling that snowball bigger and bigger. Wind will help. Geothermal can be throttled and therefore used for load balancing. Fuel cells are an additional option, especially once more of the the necessary methane feedstock can be sourced from organic materials.
Better batteries are on the way. Stationary installations don't need to be compact; they need to be efficient and have high cycle lives. Capacitor tech is also advancing, these have the potential to accept a large charge quickly, reducing wait times and effectively extending practical range.
To be honest, I'd really rather not utilize nuclear power in any form; unless the processes involved leave no radioactive fractions with half lives longer than a few years or so, the price is just too high. Saddling dozens of generations yet unborn with massive amounts of nuclear waste is a cost we humans cannot equitably calculate, nevermind repay.
Stirling engine based solar power has real promise and I'd like to see how this technology matures.
Combined cycle technologies also have enormous potential. One of my favorite examples is the use of stationary natural gas or propane electrical generation onsite at a greenhouse facility; the power can be used onsite for lighting, HVAC, controls, etc, the heat can keep the facility warm in winter and has other uses, and even the CO² generated can be delivered to the plants, nullifying emissions issues even while improving growth! The Dutch are already well ahead of us in developing this approach.
You are correct that H² is cleaner TO BURN but have not proven it's cheaper (in energy needed to realize and money) to produce compared the cost of conventional energy production.The "test run" of them is in my area, all urban with lots of slow twisty bits and not just nice straight runs on open roads so they get the punishment, and a company called Solvay has a fuel station just for H2 fuel cell vehicles, anyone can use it with there being, I think, a few H² trucks in and around the Antwerp harbour.
Obviously that's the biggest difference, this was always planned as a "long term" test involving more than just a fleet of buses as some sort of promotional thing, so there was more thinking done on the supply, etc, front. Another huge difference is that Antwerp has one of the biggest harbours in Europe, so there's obviously easier importation IF the supply is not made by someone like Solvay in the Antwerp harbour industrial complex, plus the ability to use the hydrogen currently treated as a "waste product" of some of the chemical processes in said industrial complex. That bit of forethought and thinking, plus at least some of the supply potentially being there anyway, and the ability to expand as necessary if necessary, puts this one near me in a whole different ball park to the penis-waving which was the Vancouver escapade.
There's a lot of interest here, especially on the public transport and freight side of things as there's a lot of buses that need replaced and a hell of a lot of trucks which do nothing but shuffle around the harbour. That's why there's the H² projects, with viable infrastructure for them, CNG stations for trucks so more can be changed from oil burner to something cleaner, and so on, as there's a hell of an amount of pollution that can be wiped off the map in various places that are high pollution areas thanks to them being large cities which are also transportation/freight hubs due to things like major airports and/or harbours. Start developing the tech for there, get your infrastructure sorted out in these places then you have a "road map" for the real world, THEN move it out into the big bad world instead of the current stupidity of trying to make all cars electric when nobody is telling us when the massive building of power stations is to start because we can't even THINK about being able to charge up more than a small minority of all motor vehicles out there NOW, never mind in 20 years.
A lot of time and money has been wasted over the last couple of decades, especially on a dead end like EV's. They have a niche place, sure, but as a full replacement for the ICE? Don't make me laugh. If only all that time and money had been spent on something truly viable instead of something which has created a time bomb, for nobody's figured out how to recycle the batteries without further cost to the "environment" either..
PS. Forgot to add, as already mentioned there are nanomaterials being developed which are extremely efficient at cracking sea water. Sure, they're "in development" but I reckon they're closer to reality than this "super battery" tech we've been promised for 3 decades.
Could you detail these "many attempts"?Given how many attempts there has been to relaunch the blimp, why do you think none have been able to become viable?
I mean, they're hardly "point to point" as the bigger the load the bigger the "landing area" needed before local distribution and we have that already, they're called airports, harbours, road/rail freight hubs, and so on.
Sorry, but the idea is like trying to fit a square peg into a hole that hasn't been cut out yet.
Solar panels are heavy, which makes them impressive for lighter than air vehicles.Could you detail these "many attempts"?
Do any of them incorporate new tech like carbon nanotubes or graphene that bring new low weight/high tensile strength materials into the equation? I'm not aware of any attempt since the Hindenburg that was not militarily pursued and we all know the oxymoronic tendency of "military intelligence".
Dirigibles don't need to "land" any more than a ocean going freighter needs to traverse land, but do need to be moored to become stationary for loading/unloading. If a "flat" model is used for dirigibles they have an enormous amount of area that can crop solar energy to be used for H² production or motive power and has much less wind resistance and reactivity although does need a light compact storage area (battery) for that solar energy.
Back from erratically enforced vacation.Solar panels are heavy, which makes them impressive for lighter than air vehicles.
Not all batteries need to be compact and energy dense; those for stationary storage applications just need to be able to hold a lot of juice and handle lots of charging cycles. They don't need to be small.
Good conversation!
Cogeneration can be a huge step forward with only a little planning. I think miniaturization will help the practicality aspects and multiply potential applications.
This is my current gig.You ever thought about an occupation in Energy Efficiency architecture design?
When these things are mainstream, inexpensive and do not need subsidies, plus the problem of how the likes of solar is not a permanent and stable generation supply, you'll have a point.Back from erratically enforced vacation.
Solar is making great strides in size, weight, and energy conversion due to graphene.
Batteries (like any other energy source) will always benefit from reduction in size/weight.
Energy density, ease of transport and movement, and smallest storage space are the reasons that oil rules.
This is why electrolysized water for H² production is a "holy grail" since if it would take less energy to realize than it provides it would beat oil all to pieces for energy density.
Any time we get a chance to educate each other it's a good thing!
Miniaturization is exactly what I am a staunch advocate of except that I'm for both the miniaturization of energy production and storage for decentralization and independence.
You ever thought about an occupation in Energy Efficiency architecture design?
I think that's a field of occupation that is only going to become more necessary and desired.
Seems @Fubard had his sacred cow gored which is unfortunate.
I'd like his input on how his project is more efficient/cheaper while being cleaner (which is not in dispute).
To get the required stability you are going to need some very substantial battery packs. There may be relatively small scale schemes in operation but there's now way it's fully viable now.solar can be considered a stable energy source, because of the battery storage. if you have an extended period where there isn't enough sun to keep the system charged, you might want to look into other choices, or augmenting with wind or geothermal
That's some of the issues, but it is one of the few "natural" forms of generation that can be counted upon to provide a guaranteed and stable 24/7 supply, like geothermal.tidal has a shit load of problems, the set up is insanely expensive, and sea water is corrosive, so up keep is a bitch
We still lots of holes for oil and gas, drilling more for geothermal is not going to be a problem.To get the required stability you are going to need some very substantial battery packs. There may be relatively small scale schemes in operation but there's now way it's fully viable now.
Wind is also unstable, which us why I suggest wind to crack seawater for H2. But as a replacement for "conventional" it isn't there.
Geothermal, that's different, that is stable. But we're looking scale here, that's a lot of holes to drill. Tidal is another pretty stable supply, but wind was quicker and cheaper to get on the market whereas, like with the drive to unleaded gasoline and catalytic converters, more research into something more stable and efficient may have been a better direction to take.