We as a society need to move underground to help save the environment and I’m not kidding.
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We as a society need to move underground to help save the environment and I’m not kidding.
Resident Evil Science: Temperature
In which I look into the biology factors of the Dimitrescu daughters being made out of insects and create headcanons for them that are so deep and in-depth that they couldn't be any farther from canon.
This episode: the girls and temperature!
Overall
They are quite literally cold-blooded and unable to generate their own body heat. Because of this, they would be ectotherms.
We all know they are weak to temperatures under 50°F, but they are also vulnerable to temperatures over 100°F, similar to how flies are.
Because they can't thermoregulate, their normal body temperature tends to fluctuate with their environment, but the usual for them is around 70°F. So their skin is very cold to the touch.
Their ideal temperature is 85°F.
Cold
They sleep more in winter. Alcina calls this "diapause" and she has dubbed it as a form of hibernation in her notes on her girls, though they don't actually do a long-term hibernation--not normally, at least.
During diapause, their metabolic activity decreases. Because of this, their appetite goes down as well, as they don't really have the energy to digest their food.
Because, despite being inside, I imagine it's still quite cold for them while in the middle of a Romania winter. Again: they can't regulate their body temperature. It won't be the same for them as it is for us. I don't think being in a house, out of the wind and snow, will instantly make them have a comfortable temperature.
But they usually eat very little at this time. Sometimes they go a full day without eating anything, though they'll still drink blood, which they get most of their energy from.
Winter is also where they use their acid vomit the most because sometimes they're just too tired to chew. They rather regurgitate, drink, then go back to sleep.
They can sometimes sleep for eighteen hours a day.
Winter can be very lonely for Alcina at times. It's also eerily quiet.
Cassandra once slept for four days in a row without waking up and Alcina thought she fucking died.
It's really hard to wake them up during diapause. They go into this state of deep sleep in a way. Like, during the Comatose Cassandra incident, Alcina was full-on shaking Cassandra and screaming in her face in a panic, but Cassandra just snoozed on.
Moderately low temperatures make them sleepy.
Very low temperatures cause physical pain, as we see in the game.
Being in extreme cold can make them shiver, but it's not the same way we shiver.
Instead of their muscles contracting to generate thermal energy, it's their fly bodies violently gyrating and buzzing in a vain attempt to get warm, thus causing tremors throughout the body. Unlike normal shivering, however, they get nothing out of this and are unable to produce proper heat.
Heat
Whereas in the winter they slow down and eat less, during the summer they speed up and eat more.
Sleeping hours reduce down to the normal amount, but they can sometimes become fidgety and sleep even less due to a build-up of energy.
In the mornings, they often have a period of sunbathing at their windows to reach a desired thermal optimum, which will give them energy for the rest of the day.
The first few days after winter ends are usually characterized by constant zoomies around the castle because their metabolism suddenly shoots back up and they're full of all this vigor.
They also eat. A lot.
The girls gorge themselves on literally anything they can find to make up for all that time spent without eating.
The maids call this the "feeding frenzy" and it is a very scary time for them because at any moment they could be grabbed and devoured while still alive.
Even when this "feeding frenzy" eventually goes down, they still eat a lot more during the summer months.
Unfortunately, the heat isn't always their safe place.
Similar to the cold, too much heat can be damaging to their bodies, as it won't be able to regulate itself when comfortable becomes uncomfortable.
And even more similar to the cold, they become sluggish when they get too hot.
Fatigue sets in at around 90°F, which is when their metabolism will begin to lower. They will start to eat less and become slower and lethargic rather than just sleepy like in the cold. Moving becomes like a chore and their body gets heavy.
95°F is when discomfort really comes into play. Their breathing shallows and their muscles begin to ache with the exertion of moving. Their body is heavy and slow to respond to movements. Dizziness starts, usually accompanied by ear ringing and double vision.
Anything over 100°F is painful, like how the cold hurts them. Their skin will begin to dry out and flake off, as though they were shedding their exoskeleton. They feel like they're burning from the inside.
They will also begin to "sweat," which doesn't actually cool them down like it would for a human. It just makes them dehydrated and sticky.
Fevers
Obviously because they can't produce excessive body heat, the girls are unable to get fevers on normal occasions. They can, however, get them in two different ways.
One: Behavioral fever.
Despite the actual symptom, they still feel the effects it causes, like dizziness, weakness, fatigue, body aches, trembling, and chills.
Chills usually come up when whatever sickness they have is Really Bad because something like that isn't usual for them. Chills is the feeling of being cold even when it isn't necessarily cold--but they shouldn't be able to make their bodies feel something like that without an actual external source. So it's pretty worrying.
But without the actual heat from a fever, the bacteria inside of them is free to run rampant.
Additionally, their immune system won't do anything, as it isn't stimulated by the fever.
So when they get this feeling, they know something is most likely wrong with them, so they have to do a behavioral fever, which is what cold-blooded creatures do when unwell.
They crawl into a scalding hot bath to wake up their immune system to actually start fighting the infection.
The heat from the water will essentially mimic the effects of a fever and then induce one inside of them, heating up their core.
The second way is through their flies.
Basically, their flies will realize something is wrong and essentially be like "don't worry, Boss, we gotchu."
They will then begin to furiously generate heat through excessive flying and buzzing, as flight does create thermal energy. This is actually the response used in the cold, which causes the “shivering,” but in a moderate climate, it actually works, heating up the body.
This then filters into their human bodies in the form of a fever, warming them up like coals in a furnace. They can even slightly feel the flies doing their work, usually from tingling in their fingers, toes, and orifices.
This process can only be done in certain climates, which is why it doesn’t work in the cold.
And because it is supposed to be a response for something different, the “shivering” symptom of a fever will occur.
However, if either created fever becomes to high, then the girls will start to hurt, especially if it goes over the 100°F mark.
So it's honestly a double-edged sword.
Temperature Regulation
They have to rely on their environment to warm up or cool down since their bodies cannot do so themselves.
For both the cold and the heat, the best go-to solution is a bath. It's the quickest, easiest, and most effective way to help. It's relaxing, too!
However, there are other options, of course.
For the cold, one of their favorite options is to snuggle with their mother. Unlike them, Alcina still produces body heat, so curling up in her side or lap will warm them right up. Plus, sharing body heat is the most effective solution to defrosting.
They will also spend a lot of time by the fireplaces or wrapped in blankets. It isn't uncommon for them to have dozens of covers on their beds and still be chilly.
They wear more layers (i see you, Capcom, stupidly making them wear a dress with their tits hanging out just to get in some more fan service even though it was fucking winter time and they should be more covered up)
They will huddle together for warmth.
They may try to fly more often to get their muscles working, as insects can create a tiny amount of thermal energy while in flight.
And for the heat, there isn't too much they can do, really. It isn't the same. The best thing to do is stay adequately moisturized.
They wear looser clothes. It helps some.
Alcina makes sure they're hydrated. It's very easy for them to become thirsty because their version of hot is literally a human's regular body temperature--even below it.
They like to stay in the cooler areas of the castle, so the basement.
They will sometimes become nocturnal, sleeping through the hotter hours of the day and staying awake during the cooler ones.
Just being in moisture, like lukewarm baths, will usually be enough for them--unless their temperature raises too high.
TLDR: no weather is suitable for these poor girls
I don't generally request stuff and the reason why I am doing this is because I absolutely love your work, especially the Kingdom Series and the Mermaid!Younghoon and I am a little embarassed to put out my little imagination request out
But I would like to request
Sunwoo + colour lavender but could you make it best friends to lovers au too? (It is okay if you can only work on one part too!!! Whatever you are comfortable with)
Thank you so much! Congrats on your 4 years, and thanking for alllllll the amazing work you have put out!!!!! Really big appreciation for you and your writing!!! Ly❤️❤️❤️❤️❤️❤️❤️❤️❤️
hi love! there's no need to be embarrassed at all about this - it's a lovely idea, and thank you so much for your kind words and the request! I hope you enjoy this token of my thanks for your support <3
4 year anniversary drabble game: send me a Stray Kids/The Boyz/Golden Child/Ateez member + a prompt (check out the post for ideas) and I’ll write a drabble for you!
~
Title: Palette
Pairing: Sunwoo x gender neutral!reader
Word count: 1.8k
Triggers: none
~
"What color am I?"
The question comes on a hot day spent on the couch with the air conditioner broken, when everything feels like it's melting under the heat of the sun baking your apartment to a crisp. Somewhere in the building, a repairman is trying to figure out what's wrong.
You and Sunwoo, however, are melting into puddles on the sticky hardwood floor.
"What?" You shake yourself out of the blank state you’ve slipped into, staring at the empty ceiling. You've never spent much time looking at the ceiling. It's off white, maybe eggshell, a little cracked and blemished but not enough for you to say to no to the cheaper rent. Looking at it now, though, it's kind of ugly.
"You said Juyeon is yellow, like sunflowers.” He pauses. “Eric’s... green, I think. Sangyeon was red, Changmin was also green, but brighter than Eric. Right?”
Something tugs at the back of your mind, a memory of using your paints to describe some of your friends. Your eyes drift to the abandoned easel in the corner of the muggy room. You can almost feel the canvas melting off of it into a paint-splattered puddle on the floor. “Right,” you reply, wiping a bead of sweat off of your head.
“You didn’t give me a color,” Sunwoo says. You can’t spare the energy to look in his direction even though he’s literally right next to you, but you imagine he looks about as wiped out as you feel. “So I wondered.”
Colors. Yes, colors like the off-white eggshell of your ceiling, the blue of the sky outside...
What color is Sunwoo?
Hi! I’d like to request a hq match up if you’re still accepting them!! Feel free to ignore if you’re not! Boundaries are important!! I’m a sag sun cap venus. ISFP, 6w5. I’d like a male character match up. My pronouns are she/her. Three words my friends might use to describe me are caring, quiet, & dedicated. Yachi & I’d be best friends!! I’d like my match to choose what to do for our date! I’m cool with a cute kiss on the cheek on the first date if the vibes are right!! Ty & congrats again!!! 💖
❄️ Your Secret Santa Date is... ❄️
Have Yourself a Super Merry Christmas 1/3 Christmas Past: Before those hands pulled me from the earth (Branjie)--athena2
A/N: I love my Powerless babies so much, and I also love Christmas, so I just had to write this! (You probably need to read Powerless and Overpowered if you’re new to this series). Thank you so much to Writ for not only beta-ing, but also encouraging me to keep doing this when I almost gave it up and brainstorming ideas with me. I appreciate you endlessly. Please leave some feedback if you’d like, each comment really does encourage me!!
Chapter title from Like Real People Do by Hozier.
IN THESE TIMES
We have only 12 years to cut greenhouse gas emissions by 4 percent, according to an October report from the Intergovernmental Panel on Climate Change (IPCC). The feat, it admits, would require “rapid, far-reaching” societal transformation. If we fail, coastal cities will be inundated, food will run short and the damage will cost $54 trillion by 2040, when babies born this year will be old enough to graduate from college.
The clear path to curbing these catastrophes involves rapidly phasing out carbonintensive fuels, which requires changes on a scale for which “There is no documented historic precedent,” the report’s authors note.
But more dramatic approaches have crept into policy discussions, like solar radiation management, known as SRM. First imagined by scientists during the Cold War, SRM promises a comparatively cheap, quick fix: the continuous dispersal of aerosols into the atmosphere to reflect and absorb sunlight, cooling the planet. In effect, SRM means dimming the sun.
For proof of concept, advocates look to volcanic eruptions, which spew out plumes of aerosols. The 1883 eruption of Krakatoa, for example, reportedly lowered global temperatures by 1 degree Celsius. The best modeling suggests SRM, too, would work like a charm.
Like a volcano, however, SRM is enormously risky. Side effects could include decreasing crop yields, melting the ozone layer or irreparably altering the water cycle, flooding some parts of the world while causing prolonged droughts in others—and those are just the few we are able to model.
If starting SRM is risky, so is stopping once we’ve started: Stanching the flow of aerosols would risk the Earth rapidly warming by several degrees within a decade, known as a “termination shock.” This sudden heating would do more damage than the current, more gradual warming, disrupting the climate while giving species and ecosystems little time to adapt.
But given the stakes, many SRM boosters say the benefits seem to outweigh the risk. After all, what choice do we have?
If it sounds like we’ve crossed into science fiction, we have: This scenario is more or less the opening narration of Geostorm, a critically panned 2017 film about climate-controlling satellites gone rogue. The better-received 2013 class-struggle flick Snowpiercer also starts with a similar premise: an attempted SRM-like scheme backfires into endless winter.
Yet SRM and other risky high-tech climate interventions inch closer to reality by the day. The IPCC report has reignited a long-running debate: How far are we willing to go, and what risks are we willing to take, to keep the Earth from further warming? Humans have altered the climate for centuries by pumping out greenhouse gases. What’s so different about interfering with the climate to save the world instead of cook it? Do we have any other options left?
Stratospheric Aerosol injection — the type of SRM described above—is one of a suite of technologies aimed at large-scale manipulation of the climate, known as geoengineering. There are two broad categories: solar geoengineering to block or reflect sunlight (like SRM), and “negative emissions technologies” to suck greenhouse gases out of the air. Negative emissions technologies have been factored into climate modeling for years and have a long-established (if controversial) role in IPCC mitigation strategies; solar geoengineering has been more fringe.
But in the past few years, the governments of the United Kingdom and United States have each sponsored research into solar geoengineering, outlets from The New Yorker to the New York Times have commissioned lengthy articles on it, and an editor at The Economist wrote a whole book on the subject, The Planet Remade. Just after the release of the new IPCC report, Council on Foreign Relations President Richard N. Haass opined that world governments should “accelerate R&D on geoengineering,” and Rep. Ro Khanna (D-Calif.) called to “incentivize oil companies to help.”
SRM has even found a research base in the Ivy League. Thanks to Harvard’s Solar Geoengineering Research Program, founded in 2017, the first steps toward implementation may soon float above the United States through the program’s Stratospheric Controlled Perturbation Experiment.
Known as Scopex, the experiment is not an SRM test, per se—to truly test the concept would require a global scale. But it is an attempt to go beyond computer modeling to understand the chemistry and microphysics of how particular aerosols interact with the stratosphere. A propeller-powered balloon will disseminate the aerosols; a small gondola, attached, will carry sensors. Researchers hope to launch in 2019.
Opposition to SRM has increased as well. As IPCC researchers met in South Korea to finalize their report, 110 civil society organizations across five continents, from First Nations peoples to think tanks to environmental NGOs, issued an anti-geoengineering manifesto: Hands Off Mother Earth, or HOME.
It reads, in part: “Geoengineering perpetuates the false belief that today’s unjust, ecologically and socially devastating industrial model of production and consumption cannot be changed and that we therefore need techno-fixes to tame its effects.” Signatories fear the development of SRM will be used as an excuse to continue the carbon status quo, calling it a “dangerous distraction” from real solutions and a “further entrenchment of fossil fuel economies.” Fossil fuel corporations have yet to throw their weight behind SRM specifically, but Shell’s chief climate change advisor, David Hone, praises the “sulphur solution” (referring to SRM) as the simplest in his book, Putting the Genie Back.
Harvard scientist David Keith, a contributor to the Scopex project, has emerged as something of a public face of SRM. He disagrees that geoengineering protects fossil fuel companies, envisioning it instead as a complement to decarbonization. “If solar geoengineering was much better understood, I don’t think it would make all the environmental forces give up and let Exxon win,” he says. “There’s not an alternative to cutting fossil fuels. We have to get them out of the energy system.”
Keith isn’t pushing for SRM deployment—just research— and says it’s important to understand all of the risks before moving forward. He worries about the Trump administration or other fossil fuel-friendly governments grasping onto SRM as a perceived quick fix. Still, he thinks we should be able to simultaneously research SRM and take action against fossil fuels.
The HOME manifesto, however, calls for a ban on open-air field experiments like Scopex. “[Scopex] makes no sense if you are not going to pursue deployment later,” says Silvia Ribeiro, one of the manifesto’s authors and the Latin America director of ETC Group, which addresses the social and environmental impacts of new technologies. “All powerful technologies have started with small experiments.”
Oxford physicist Raymond Pierrehumbert, a lead author on the IPCC’s third assessment report in 2001, sees Scopex as a crossing of the Rubicon. “Proceeding to field experimentation,” he writes, “crosses a thin red line beyond which lies the slippery slope down to ever-larger field trials and, ultimately, deployment.”
Skeptics also note that SRM only addresses some of the effects of global warming—those stemming directly from temperature. It does nothing to reduce the amount of carbon dioxide in the air, which means ocean acidification would continue apace, causing irreversible damage to coral reefs and other ocean life that will reverberate up the food chain. The continued accumulation of greenhouse gases would also heighten the impacts of potential termination shock.
(Continue Reading)
My Life with Solar: the First Month
This post is 2500 words long. Therefore, here’s a preemptive TL;DR so you still experience how cool these solar panels are:
I now own 4 portable solar panels and 2 power banks
Total investment of $320
They store 93.6 Amp hours of energy, which is enough to charge my Galaxy S7 phone for an entire month without sunlight.
You can take these things friggin anywhere, literally.
Hiking, golfing, swimming at the beach, driving, eating at a restaurant, ANYWHERE.
Charge phone at same rate as a wall outlet
If I charge my phone once per day, it will take me more 400 years to pay this off
I need to continue to integrate more devices and appliances to make this investment worth it
I have too much energy and can’t use it quickly enough
Best approach at the moment is to share as much energy per day with as many people as possible
Future outlook: connect laptop, lamps, and smaller appliances in apartment
Despite current financial flaws, it’s just insanely cool and convenient
Free and infinite energy no matter where you go
I am now extremely conscious about how much power I waste doing mindless things on my phone
Alright, there’s your TL;DR. Now let’s get to this.
PART 1: THE TECHNICAL STUFF
May 31, 2017, was the last time I plugged my phone into a wall outlet. That night, my first portable solar panel arrived, and my phone has been disconnected from the grid ever since.
As of my writing this on July 1, I’ve grown my solar production and storage to four panels and two power banks, and I haven’t felt worried about charging my phone at all (anymore). I’m someone who always promotes and advocates for solar energy, but until recently, I never used solar for myself. There came a point when I needed to take my advocacy a step further. As they say, if you’re going to talk the talk, you have to walk the walk. My mission is to show people the power of solar, and what better way to do that than to get some portable panels and show them off?
Such as in a restaurant after a day of golf...
Or, quite literally, while golfing...
My first purchase was one portable solar panel, for just about $50. I purchased it from a company called iNiCE, which, I’ve found, was probably the best company to buy these from for one simple reason: this version of the iNiCE solar panels has 10000 mAh (10 Amp hours) of internal energy storage, which is enough to recharge my Samsung Galaxy S7 a little more than three times (it would charge the iPhone 7 four to five times). This means that with the panel’s 2.4 Amp, 5 Volt output, it takes my phone about 1.2 hours to recharge from empty, which is the same as the wall plug in your house.
For some technical clarity, storage capacity is defined in terms of how long it takes a battery to recharge at 1 Amp/hour. A 10 Amp hours battery (10000 mAh), takes 10 hours to recharge. The iNiCE solar panel functions optimally at 2.4 Amps under direct sunlight, so, optimally, it takes 4.1 hours to charge (but efficiency decreases as the panel heats up, so allow time in the shade or find a way to cool the panel if you want to maintain peak performance in one sitting).
Trust me, these things get HOT.
Looking at other products, most competitors don’t have energy storage attached to their panels. This makes iNiCE convenient and reliable, because I can sit my solar panels out in the sun for a few hours and charge their batteries to full capacity. But if you put a competitor’s panel in the sun all day, it won’t store energy without a separate power bank attached.
That’s the other reason iNiCE panels are so convenient: you can charge them, then drain their batteries into a power bank. Granted, you’ll lose some energy in the transfer, but you won’t notice the loss without physically measuring it yourself.
Along with my first solar panel, I purchased a 26800 mAh power bank (26.8 Amp hours) from Anker, for $60. This power bank can charge my phone just about nine times at full capacity.
In the image below, the power banks are the black boxes behind the panels (each bank is 7 in X 3 in).
Alright, all the technical stuff is out of the way. Let’s get to the fun parts, shall we?
PART 2: SOLAR PANELS ARE FUN AND EXCITING
The sheer awesomeness of owning solar panels definitely put me on a high for a few days. I was, and still am, very conscious of putting my panels in the sun when it’s out. There’s just something so beautiful about opening the panels under the sun and seeing your phone screen light up, indicating a charge has begun. I can be out in the middle of my yard, driving down the road, playing golf, even going for a hike, and these work absolutely everywhere. Solar gives you that freedom. I’d even go so far as to say that solar panels should be a priority for anyone who goes long-term hiking and camping. No need to worry about your phone going dead in an emergency, ever.
The image below was taken as I was driving 9 hours to vacation.
It's just exciting. Every morning, when I need to, I wake up and put my solar panels in the sunlight to make use of every photon the day has to give. I eat breakfast, take a shower, go write my book in a coffee shop for a couple hours, come back, and the panel is fully charged. By then, it’s usually only 10 or 11 in the morning! Three full phone charges – more than enough for two days – all in the time it takes me to edit a few pages in my book and drink a few coffees.
Weeks of phone charge, that is.
You may be wondering about range anxiety, a common issue people bring up about electric cars (the general argument is that gas stations are everywhere, electric chargers are not. If you’re running low on charge, will you make it to an EV charger before you lose power?) I will admit, at first I was definitely using more power than I had available. Wasting time on the phone, bright screen, playing music and videos off the phone a lot, etc.
My restriction on power made me self-conscious of how much power I, as an individual, use every single day. And I consider myself to be on the low end of power usage. I know people who watch YouTube for hours. Play mindless games. Text nonstop. Even more power consuming, using Snapchat for most of their communication. Imagine how many full phone charges a day some people require, maybe even yourself!
I started limiting myself on my phone. I set time restrictions, restrictions on things I’d download, how long I’d use my phone for videos and music, how I would communicate with people. This conscious effort not only made me aware of how much energy I waste, but made me think, if I’m somewhere on the low to middle end of the spectrum, how much energy are we wasting when hundreds of millions of people are combined? What if we, the consumers, are responsible for higher costs of energy because it is so convenient to access, because we almost always near a wall outlet (except for the Starbucks I wrote my fourth book in. That place was a power outlet void).
Let me point something out:
Sunlight, if you didn’t notice, IS FREAKING EVERYWHERE.
As a guy trying to use sunlight to generate electrical energy, to prove the concept that solar panels work and are exciting and should be adopted en masse, I’ve already caught myself wishing for cloudy days. No pun intended, but that’s where I think solar power really shines. The fact that I can literally step outside and immediately charge my phone is amazing in itself, but is, in the end, just a cheap trick I started taking for granted in the first week of owning solar panels. The true proof of concept requires you to sustain yourself day after day like that, even on the cloudy ones.
Even in the rainstorms.
Even in the blizzards.
Even in the asteroid apocalypse.
If the sun is always out, there’s nothing to prove. It gets boring. You stop noticing where your energy is coming from. The real excitement--the stuff that gets your blood pumping--comes when the sun isn’t shining. Are you feeling it now, Mr. Krabs? When that first power level light drops down a bar, does your heart start racing, and your mind start thinking, “I need to recharge, NOW.”
Yes, the proof of concept for bringing solar energy to the world’s infrastructure is not in producing energy, but in storing energy. Fast fact: enough sunlight hits the earth every hour to power the world for an entire year. The trick is, do we have the ability to store that energy and use it later? And if we don’t have enough storage, can we use that energy quickly enough, and begin storing even more energy, in a way that is deemed a successful economic investment? Or is it being used simply to show off, to look flashy?
Ooooh, shiny: the only thing missing is some good ol’ Star Trek lens flare.
Above, I said there is simply too much energy for me to use. I’m not lying. As of writing this, I haven’t even touched my power banks in almost three weeks, because every day, I charge my panels when I’m writing, or at work, or literally driving around town. I am always collecting energy, but that doesn’t mean I’m using it. I know I can fill 100% of my storage capacity in less than two days of sunlight (15 hours of peak performance). But I use less than 4% of that energy per day, which means the rest of the energy is just…existing. Nobody is touching it. I would need to connect every phone in my house, every laptop, and every television, just to use most of the energy I can store each day. And the thing is, I can keep upgrading. I can keep adding storage. I know with my current 48 inches by 12 inches of surface area (all four panels combined), I can collect about 200 Amp hours every day. That’s 24 laptop charges, or 66 cell phone charges. I just need more storage to accomplish that.
Finding more ways to use this energy will help me pay off my investment. At the moment, if I charge my phone once a day, it will take me a whopping 400 years to pay off this entire system. You can see the problem. As I said above, I need to use as much energy as possible, as quickly as possible, to make the return on this investment worth it, and chop down that time. Fortunately, I’m conscious about this sobering fact, and when I see family and friends charging from a power outlet or computer, I immediately connect them to my panels. I also leave the panels in the open, with the cords already attached, to encourage them to connect to the panel instead of plugging into the wall. Going even further than that, I’m going to start offering for other people to plug into my panels and power banks in public, rather than outlets. It’s free energy. It’s there for everyone to use. So here, have some, on me!
Down the line, I plan to integrate my laptop, and build up to where I’m running lamps and appliances in my apartment on solar energy. Only then will the investments will pay off in years, even months, not centuries.
PART THREE: ENERGY USAGE AND AN ECONOMY OF SCALE
The typical phone is recharged twice to three times a day. On average, over the course of a year, that adds up to about $2.40 USD added to your electric bill. Not much money, right? And that money is spread out. You don’t charge just at your house. You charge at work. At the airport. At your friend’s house. At a restaurant. You, the individual, might not be paying that $2.40, but it exists collectively, a few cents here, a few cents there. Someone, somewhere, is paying for a portion of the energy that goes into your phone.
Imagine one million average people charging their phones each year. That’s $2,400,000 spent on energy. Now, let’s say they all drastically change their phone habits and charge just once a day. That price becomes a mere $800,000. By limiting their usage, one million people are saving $1,600,000. That’s an extra $1.60 in every person’s pocket, just by reducing the wasteful time we spend our phones. It might not seem like much on a small scale, but imagine that amplified across the world. The savings in just one year would be incredible.
And that’s just from the energy on a phone. Imagine lights. Refrigerators. Air conditioning. Computers. Televisions. The savings from reducing wasteful usage on a large scale would add billions, perhaps trillions, into the world’s economy.
Let me slow down a bit, because I’m getting ahead of myself. I’m sitting here saying that limiting our energy usage will save the world billions of dollars, but I’m supposed to be talking about solar panels. I made an investment. Sure, not using your phone will save you money, but you want to use your phone, obviously. So how does solar let you get your money’s worth?
In the first week of June, I went to the beach and charged my panel every day, letting my family connect, too, so I could drain the power each day and maximize my energy investment.
By the second week of June, I had four solar panels and two identical power banks. Altogether, 93.6 Amp hours of storage, enough to charge my laptop, from empty, 11 times. Altogether, this investment cost me $320. So again, you ask, “Is it worth the money?”
My answer is complicated.
You know what I’ve found? There is simply too much energy to collect, and I don’t have enough storage to collect it, nor do I have enough devices connected to the solar panels and power banks to make good use of all the energy I do have. As of my writing this, three solar panels and both power banks are 100% charged. The fourth panel is 50% charged, because I’ve had my phone hooked up to it all day during and after extensive use. I even had my panel charging in the middle of a restaurant to gain energy when I didn’t need it.
We take energy for granted. We see a wire that runs into our house, and we know that wire provides us with all the power we can ever hope for. But we never see the substation the energy comes from. We don’t see the coal or gas that gets burned. Energy is simply given to us, with the promise that it will always be there.
What about blackouts, then? When a substation overloads, or a massive storm rampages up the coast, hundreds, thousands, even millions of people can lose power, because suddenly, the single line into their home is no longer receiving energy from the source. Solar energy, and all renewables, I should add, is different because of storage. When you put solar panels on your house, you can also add a box that collects the energy to save surplus energy for later use, and it can be located inside the house, not out in the weather.
What happens when a storm takes out the neighborhood? You won’t lose power.
What happens when a tree smashes through a power line? You won’t lose power.
What happens when lightning strikes the substation, or a transformer explodes? You won’t lose power.
What happens when ice snaps electric wires? You won’t lose power.
There are still pitfalls—such as cloudy days, or not enough storage capacity—but solar energy, in the long term, is meant to be shared. Energy collected on one side of the world can be transferred elsewhere as needed. Live in Portland, Oregon, or the UK? You could be getting your energy from a location that receives copious amounts of sunlight, too much for that area to use. In fact, there are already entire islands running on solar energy, such as the American Somoa, Haiti, the island of Kauai in Hawai’i, and other small islands. And soon, following massive rolling blackouts, southern Australia will be powered by solar, thanks to an initiative by Tesla and Elon Musk that has led to a worldwide solar energy arms race. It is this kind of competition -- healthy competition that forges an energy revolution -- that is steadily rising as renewable energy takes center stage away from limited fossil fuels.
So there it is, the experience of my first month with portable solar panels. It’s been fun, and I’m looking forward to building up my solar array even more! I will continue to update as I experiment and grow, and hopefully one day my life will be running on free, clean, and infinite solar energy, and all the other renewable sources nature has to provide.
In just one month, these four small panels have begun to transform my life and energy awareness. What else are they capable of?
Do you want your own portable solar panels? I purchased mine HERE
Like the power banks I have? I got those HERE
@ursy153 & @imberbimber, can I prevail on you two to read this chapter 3 and tell me your thoughts. I was editing it, and put more in, then edited that... and it’s 3am again. Also tumblr stole the italics, again.
-> “No Quick-Fix for the Common Cold” Unedited Ch3
Chapter 3: Getting Uber Your Differences
The world burns as if Pyro had turned their flamethrower on it, until it’s almost unbearable; then, without any warning whatsoever, turns icier than Spy’s heart.
Someone’s talking at him, he thinks, but he can’t be quite certain. Sounds like they’re asking… something he can’t seem to make out; the words, the sounds… they don’t make any kinda sense?
Failing to understand who or what is being spoken just heightens the sense that something is so very, incredibly wrong… like he was broken, or the world was. And just when he thinks he’s maybe grasped onto a familiar syllable or tone, the voices start again with new phrases that sound alien in origin.
He doesn’t know what they want…