Sentences with phrase «of liquid water around»

The surprising thing is that these cells are still capable of metabolism as long as they have a microfilm of liquid water around their surface.

They're like small Neptunes but with huge amounts of liquid water around a rocky core.»

Not exact matches

Habitable is defined by, among other things, the Goldilocks zone, that magical narrow band of space extending around a sun where temperatures are neither too hot nor too cold, where water can exist as a liquid.

I have heated it up in water which males it liquid around th edges, but that takes a lot of time and I'm not sure I'm not damaging the oil with the hot water.

I usually don't follow much of a ratio: I pour flour (s) in a big bowl, add whatever liquid I have around (non dairy milk, water, cold broth, maybe a little bit apple cider, or some beer too, which gives lightness to the crêpes), some flax gel (1 Tbsp ground flax seeds + 3 TBSP warm water), some salt or maybe a little sugar, sometimes spices like curcuma and black pepper, or tandoori spice powder etc, stir until the consistency pleases me, adding more liquid if necessary, let it sit for a few hours on my counter, and voilà.

One last thing to remember is after cooling it down in the fridge the feta cheese will drip out some of its salty water, forming a layer of liquid around the dip.

Increasing the amount of cashews might work here - I'd guess at somewhere around 3/4 cup, plus a little extra liquid - non dairy milk or water.

I haven't gotten around to trying them with aquafaba (bean cooking liquid) yet but I think using aquafaba in place of the water when creating the flax egg, might help.

I did use chicken stock & also added enough water so that the cubes of squash had around an inch of liquid above the tops of the cubes.

In liquid form the water particles can move around freely, so the water takes the shape of the container it is in.

To help with the 20 month old baby development, your child should be drinking 3 - 6 cups of liquid a day which should include around 12 - 20 ounces of milk in addition to juice or water.

Although the planet's size implies that it is a ball of hydrogen and helium gas incapable of supporting pools of liquid water, the finding raises the possibility that additional, earthlike planets might be discovered around it.

These liquid - water regions merge as they grow and eventually form a shell of liquid around an ice core, finally developing into a water drop.

These liquid - water regions then merge to form a shell of liquid around an ice core, and finally develop into a water drop.

One of the planets is in the habitable zone, the region around the suns where liquid water — and maybe life — can exist.

ne = the number of habitable planets around each star In days gone by, scientists would speak solemnly about our solar system's «habitable zone» — a theoretical region extending from Venus to Mars, but perhaps not encompassing either, where a planet would be the right temperature to have liquid water on its surface.

What's more, one of the planets is in the stars» habitable zone, the region around the suns where temperatures are just right for liquid water — and therefore maybe life — to exist on a planet's surface.

A record - breaking three planets in this system are super-Earths lying in the zone around the star where liquid water could exist, making them possible candidates for the presence of life.

Three of these planets are confirmed to be super-Earths — planets more massive than Earth, but less massive than planets like Uranus or Neptune — that are within their star's habitable zone, a thin shell around a star in which water may be present in liquid form if conditions are right.

Gliese 581 g, spotted by a team led by Steven Vogt of the University of California, Santa Cruz, inhabits a «Goldilocks» zone around its host star, a band just warm enough to boast liquid water.

«It's right in the middle of the habitable zone [the region around a star where temperatures are neither too high or too low for liquid water to exist], and it orbits a star very similar to our sun.»

But the CMB was hotter earlier on in the universe — Avi Loeb of Harvard University has previously pointed out the universe's background temperature would be 300 kelvin (27 ˚C) around 15 million years after the big bang, making it warm enough to host liquid water.

The reason: The microwave's heat waves are focused on the liquid (or food) inside, not on heating the air or container around it, meaning that most if not all of the energy generated is used to make your water ready.

The research also suggests that habitable - zone super-Earth planets (where liquid water could exist and making them possible candidates to support life) orbit around at least a quarter of the red dwarfs in the Sun's own neighbourhood.

Two are at the inner edge of the habitable zone — the region around the star that allows liquid water to exist — and one is in or beyond it (Nature, DOI: 10.1038 / nature17448).

Along one string of sites, or «stations,» that stretches from Antarctica to the southern Indian Ocean, researchers have tracked the conditions of AABW — a layer of profoundly cold water less than 0 °C (it stays liquid because of its salt content, or salinity) that moves through the abyssal ocean, mixing with warmer waters as it circulates around the globe in the Southern Ocean and northward into all three of the major ocean basins.

The «habitable zone» is the region around a star in which water on a planet's surface is liquid and signs of life can be remotely detected by telescopes.

Ammonia seems plausible: mixtures with water can be liquid at around -100 °C at a pressure of 1 atmosphere.

«We have 54 planets in the habitable zone of their stars,» Borucki says, referring to the temperate orbital zone around a star that would allow for the existence of liquid water on a planet.

The research shows that volcanic eruptions beneath a glacial ice sheet would have created substantial amounts of liquid water on Mars's surface around 210 million years ago.

The distance from Vega where an Earth - type planet would be «comfortable» with liquid water is centered around 7.1 AU — between the orbital distances of Jupiter and Saturn in the Solar System.

An Earth - type planet could have liquid water in a stable orbit centered around 0.036 AU from Star B — well within the orbital distance of Mercury in the Solar System.

If so, then conditions would be more favorable for the existence of stable orbit for an Earth - like planet (with liquid water) centered around 1.5 AU from around Iota Persei — around the orbital distance of Mars in the Solar System.

In one case, an Earth - sized planet could orbit in the habitable zone (capable of having liquid water on their planetary surface) around two stars close together.

NASA just announced 7 rocky planets around the cool red star Trappist - 1 — and 3 of those orbit within the Habitable Zone (where surface liquid water would be possible).

An Earth - type planet could have liquid water in a stable orbit centered around 1.18 AU from Star A — between the orbital distances of Earth and Mars in the Solar System.

The orbit of an Earth - like planet (with liquid water) around close - orbiting Stars A and B may be centered as close as 1.06 AU — between the orbital distances of Earth and Mars in the Solar System — with an orbital period of over 384 days (1.05 years).

The orbit of an Earth - like planet (with liquid water) around Star C would be centered around 0.11 AU — well inside the orbit of Mercury in the Solar System — with an orbital period of 24.4 days.

In any case, a circumbinary orbital distance from CM Draconis Aab where an Earth - type planet would be comfortable with liquid water would be centered around 0.3 AU, with a «year» of 18 to 35 days.

Calculations by to Weigert and Holman (1997) indicated that the distance from the star where an Earth - type planet would be «comfortable» with liquid water is centered around 0.73 to 0.74 AU — somewhat beyond the orbital distance of Venus in the Solar System — with an orbital period under an Earth year using calculations based on Hart (1979).

For an Earth - type planet around HD 189733 A to have liquid water at its surface, it would need a stable orbit centered around 0.5 AU — between the orbital distances of Mercury and Venus in the Solar System (with an orbital period around 150 days assuming a stellar mass around 82 percent of Sol's.

The orbit of an Earth - like planet (with liquid water) around this star would be centered around 0.05 AU with an orbital period of about eight Earth days, caused it to be tidally locked with Star C.

Calculations by to Weigert and Holman (1997) indicated that the distance from the star where an Earth - type planet would be «comfortable» with liquid water is centered around 1.25 AUs (1.2 to 1.3 AUs)-- about midway between the orbits of the Earth and Mars in the Solar System — with an orbital period of 1.34 years using calculations based on Hart (1979).

Their simulations suggest that at least one planet in the one to two Earth - mass range could have formed within orbital distances of 0.5 to 1.5 AUs around both heavy - element - rich stars; of particularly note, the simulations frequently generated a Earth - like planet in or near Star B's habitable zone (where liquid water could exist on the planet's surface).

Of the new planets, four are Earth - like planets, less than 2.5 times the size of our planet, and are within the habitable zone, the orbit area around a star where liquid water is possible, of their suOf the new planets, four are Earth - like planets, less than 2.5 times the size of our planet, and are within the habitable zone, the orbit area around a star where liquid water is possible, of their suof our planet, and are within the habitable zone, the orbit area around a star where liquid water is possible, of their suof their sun.

The orbit of an Earth - like planet (with liquid water) around this star would be centered around 1.14 AU — somewhat outside the orbital distance of Earth in the Solar System — with an orbital period of about one and a quarter of an Earth year.

Based on its estimated bolometric luminosity, the distance from HR 4523 A where an Earth - type planet would be «comfortable» with liquid water is centered around 0.88 AU — between the orbital distance of Venus and Earth in the Solar System, with an orbital period about 330 days, or about 90 percent of an Earth year.

In any case, the orbit of an Earth - like planet (with liquid water) around Zeta2 would have to be centered at around one AU — the orbital distance Earth in the Solar System — with an orbital period of just over a year.

The orbital distance from Gamma Pavonis where an Earth - type planet would be «comfortable» with liquid water is centered around 1.2 AU — between the orbital distances of Earth and Mars in the Solar System.

The distance from Star A where an Earth - type planet would be «comfortable» with liquid water is centered around only 0.56 AU — between the orbital distances of Mercury and Venus in the Solar System.