• Miku Tanaka
    Miku Tanaka
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  • TITAN BUFFALO CAULIFLOWER & RANCH DEEP DISH

    Ingredients:
    2 cups pizza dough
    3 cups cauliflower florets, roasted
    ½ cup buffalo sauce
    1 ½ cups shredded mozzarella
    ½ cup ranch dressing
    Optional: chopped chives

    Instructions:
    1⃣ Toss cauliflower in buffalo sauce, roast till tender.
    2⃣ Press dough into deep dish pan, layer cheese & buffalo cauliflower.
    3⃣ Bake till crust is golden & cheese melty.
    4⃣ Drizzle ranch, sprinkle chives, dig in!

    Prep: 15 min | Cook: 30 min | Total: 45 min | Serves: 6
    TITAN BUFFALO CAULIFLOWER & RANCH DEEP DISH Ingredients: 2 cups pizza dough 3 cups cauliflower florets, roasted ½ cup buffalo sauce 1 ½ cups shredded mozzarella ½ cup ranch dressing Optional: chopped chives Instructions: 1⃣ Toss cauliflower in buffalo sauce, roast till tender. 2⃣ Press dough into deep dish pan, layer cheese & buffalo cauliflower. 3⃣ Bake till crust is golden & cheese melty. 4⃣ Drizzle ranch, sprinkle chives, dig in! Prep: 15 min | Cook: 30 min | Total: 45 min | Serves: 6
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  • Miku Tanaka 田中美久
    Miku Tanaka 田中美久
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  • A real photograph of a single strontium atom suspended in an electric field.

    This image was taken by David Nadlinger, a physicist at the University of Oxford, and it won the 2018 Engineering and Physical Sciences Research Council (EPSRC) science photo competition.

    In the photograph, the atom is held almost motionless in place by a pair of metal electrodes.

    The purple glow is the result of a laser causing the atom to emit visible light, which is then captured using a standard camera with a long exposure.

    Atoms are typically millions of times smaller than anything a regular camera can capture.

    However, when they are excited by lasers, certain atoms emit enough light to be photographed individually — as is the case here.

    The atom appears as a tiny dot in the middle of the apparatus, made visible through a phenomenon called laser cooling and trapping, which slows down its motion to keep it still long enough for imaging.

    This photo is considered historic because it's one of the few times humanity has visually captured a single atom with the naked eye (through the camera lens), instead of via electron microscopy or indirect imaging methods.
    A real photograph of a single strontium atom suspended in an electric field. This image was taken by David Nadlinger, a physicist at the University of Oxford, and it won the 2018 Engineering and Physical Sciences Research Council (EPSRC) science photo competition. In the photograph, the atom is held almost motionless in place by a pair of metal electrodes. The purple glow is the result of a laser causing the atom to emit visible light, which is then captured using a standard camera with a long exposure. Atoms are typically millions of times smaller than anything a regular camera can capture. However, when they are excited by lasers, certain atoms emit enough light to be photographed individually — as is the case here. The atom appears as a tiny dot in the middle of the apparatus, made visible through a phenomenon called laser cooling and trapping, which slows down its motion to keep it still long enough for imaging. This photo is considered historic because it's one of the few times humanity has visually captured a single atom with the naked eye (through the camera lens), instead of via electron microscopy or indirect imaging methods.
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  • In a groundbreaking step for clean energy, scientists have discovered how just 480 grams of thorium—a silvery metal more abundant than uranium—can power a human life. Unlike conventional nuclear reactors, thorium reactors produce far less toxic waste, are meltdown-resistant, and can even consume existing nuclear waste as fuel. Researchers estimate that a golf ball–sized amount could meet one person’s energy needs for an entire lifetime.

    China recently made history by reloading a molten salt thorium reactor without shutting it down—an achievement that may change the future of energy. Built in the Gobi Desert, this reactor runs safer and more efficiently than uranium-based systems. If scaled globally, thorium power could eliminate energy poverty, slash emissions, and deliver clean electricity to billions using a fraction of the material—and risk.

    #ThoriumReactor #CleanEnergy #NuclearInnovation #EnergyBreakthrough #ChinaEnergy
    In a groundbreaking step for clean energy, scientists have discovered how just 480 grams of thorium—a silvery metal more abundant than uranium—can power a human life. Unlike conventional nuclear reactors, thorium reactors produce far less toxic waste, are meltdown-resistant, and can even consume existing nuclear waste as fuel. Researchers estimate that a golf ball–sized amount could meet one person’s energy needs for an entire lifetime. China recently made history by reloading a molten salt thorium reactor without shutting it down—an achievement that may change the future of energy. Built in the Gobi Desert, this reactor runs safer and more efficiently than uranium-based systems. If scaled globally, thorium power could eliminate energy poverty, slash emissions, and deliver clean electricity to billions using a fraction of the material—and risk. #ThoriumReactor #CleanEnergy #NuclearInnovation #EnergyBreakthrough #ChinaEnergy
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