Not exact matches
Heat a large non-stick frying pan with a medium heat, add a 1/4 cup of water, 4 cups of tightly packed bagged spinach and add a lid to the pan, after 2 minutes remove the lid and turn off the fire, mix the spinach and add it to a sieve, using a wooden spoon push down on the spinach to remove all the excess liquid, transfer the spinach to a cutting board, finely mince it and set a
Heat a
large non-stick frying pan with a medium
heat, add a 1/4 cup of water, 4 cups of tightly packed bagged spinach and add a lid to the pan, after 2 minutes remove the lid and turn off the fire, mix the spinach and add it to a sieve, using a wooden spoon push down on the spinach to remove all the excess liquid, transfer the spinach to a cutting board, finely mince it and set a
heat, add a 1/4 cup
of water, 4 cups
of tightly packed bagged spinach and add a lid to the pan, after 2 minutes remove the lid and turn off the fire, mix the spinach and add it to a sieve, using a wooden spoon push down on the spinach to remove all the excess liquid,
transfer the spinach to a cutting board, finely mince it and set aside
Using tongs,
transfer chiles to a
large pot and add 2 cups
of chicken or beef broth, bring to boil, then reduce
heat and simmer uncovered for 25 minutes until chiles are very soft, stirring occasionally to ensure even soaking.
Remove from the
heat and
transfer the mixture to the bowl
of a stand mixer fitted with the whisk attachment or a
large bowl with a handheld mixer.
1) Bring a
large pot
of generously salted water to a boil 2) Pre-
heat the oven to 480 deg Fahrenheit (250 deg Cel) 3) Once salted water has come to a boil, add the raw potato wedges, and let them cook for 3 - 5 minutes 4) After 3 - 5 minutes, strain the potato wedge and remove all water 5) Toss and coat the potato wedges with salt, pepper and cooking oil 6)
Heat up a lightly oiled oven - safe baking dish for a few minutes in the oven 7)
Transfer the salted potato wedges to the greased baking dish, and then bake for 45 minutes, flip them over to the other side, bake another 30 minutes, and flip again, and bake for another 15 minutes until golden brown.
* some bits
of nougat / caramel might melt and stuck to the paper once cold — to avoid that, while the cookies are still warm, gently release them from the paper and reshape the cookies into a circle if the melted bits run off and change their shape; I thought
of using foil instead
of baking paper to avoid the sticking issue, but then I thought the foil would
transfer more
heat to the cookies and make them too flat Makes about 38
large cookies
In a
large pan,
heat about 2 tablespoons
of oil; fry the tofu slices and
transfer to a plate.
Peel and dice the potato into 1⁄2 - inch pieces,
transfer to a
large saucepan, cover with 4 inches
of cold water, and bring to a rolling boil over high
heat.
Once squash and rice has cooked,
transfer both to
large bowl with other ingredients and stir so that spinach wilts slightly from the
heat of the squash and rice.
At the end
of the process, the coco dulce will be boiling relatively rapidly — remove from
heat and, using a silicon spatula,
transfer the dulce to a
large, wide mouth mason jar (or the bowl
of a
heat safe blender like a Vitamix).
Simmer for 10 minutes, turn off the
heat, and use a slotted spoon to
transfer the cooked eggs to the
large bowl
of ice water to chill.
Meanwhile, thinly slice 2 cloves
of garlic and thinly slice 2
large onions,
heat a sauce pan with a medium
heat and add 2 tablespoons
of extra virgin Spanish olive oil, once the oil get's hot add the sliced garlic and onions to the pan, you want to mix this occasionally, after about 15 minutes, add a 1/4 teaspoon
of white sugar (helps to caramelize the onions) and continue to mix occasionally, after 20 minutes season the onions with 1/2 teaspoon
of dried thyme, sea salt and freshly cracked black pepper, mix everything together and
transfer the caramelized onions to a plate and set aside
Heat 1 teaspoon oil in a
large non-stick frying pan; pat each portion
of risotto into a hamburger shape and
transfer to frying pan.
Because
of how
heat transfers, only piles
larger than this critical size will ignite, meaning rearranging debris into smaller piles could prevent fires from breaking out.
Conduction and thermal radiation are two ways in which
heat is
transferred from one object to another: Conduction is the process by which
heat flows between objects in physical contact, such as a pot
of tea on a hot stove, while thermal radiation describes
heat flow across
large distances, such as
heat emitted by the sun.
At the nanoscale, however, evanescent waves can play a
large role in
heat transfer, tunneling between objects and essentially releasing trapped energy in the form
of extra
heat.
Holtec's core
heat transfer equipment business focuses on
large heat transfer equipment essential to the operation
of a power plant.
Ocean currents that may carry
large amounts
of heat are not calculated into the GCM, and thus we do not have a good estimate
of the rate
of energy
transfer at the boundaries
of specific sea - floor methane systems.
No longer free to jiggle around and
transfer heat via this
large scale motion, water molecules in the layer are forced together and
heat is only able to travel through the skin layer by way
of conduction.
The cool skin behaves quite differently to the water below, because it is the boundary where the ocean and air meet, and therefore turbulence (the
transfer of energy /
heat via
large - scale motion) falls away as it approaches this boundary.
Ingredients: 1 head cauliflower, chopped 1 lb carrots, chopped Water Spices Directions: - In a
large pot, add in cauliflower and carrots, cover with water (I usually use 6 - 8 cups)- Add in spices such as cumin, sea salt, and pepper - Allow to simmer on medium
heat for 45 min to an hour -
Transfer to a high powered blender, like a Vitamix - Mix on high for 45 seconds - Enjoy Veggie Broth: This is a great way to get in all
of the veggies!
If a
larger mass
of warm air has to pass through it, more energy is
transferred, through the evaporator's fins (so that even the evaporator's design and, in particular, its exchange surface play an important part) from the air to the liquid refrigerant allowed inside it by the TEV or orifice tube so it expands more and, along with the absolute pressure inside the evaporator, the refrigerant's vapor superheat (the delta between the boiling point
of the fluid at a certain absolute pressure and the temperature
of the vapour) increases, since after expanding into saturated vapour, it has enough time to catch enough
heat to warm up further by vaporizing the remaining liquid (an important property
of a superheated vapour is that no fluid in the liquid state is carried around by the vapour, unlike with saturated vapour).
This new, unique technology combines the advantages
of a floating - calliper brake — lower
heat transfer to the brake fluid and significantly improved ride comfort due to the way the brake pads are located — with the performance
of a
large fixed - calliper brake.
Within reason, a
heat deficit in the ocean is made up by a
larger transfer of energy from ocean to land, which has the side - effect
of producing amplification
of land warming.
However, with open water on both sides resulting in
large transfers of latent
heat, I think the possibility
of water / ice slurries must be considered.
Tropical cyclones do act as a
large mechanism for the
transfer of heat, mass and momentum that can significantly impact on weather system thousands
of kilometers away
The uncertainty is
largest on the regional scale because the horizontal transports
of energy (latent
heat, sensible
heat, geopotential energy) dominate over the radiative
transfer of energy.
While the warming
of global surface temperatures in recent years has slowed in
large part due to the more efficient
heat transfer to the deep oceans, that can't last forever.
In these plants, a
large array
of flat mirrors (called heliostats) is focused on a central tower that contains the
heat -
transfer material.
A recent study highlights results obtained from an aircraft ocean survey that targeted a
large warm core eddy in the eastern Caribbean Sea, where upper ocean measurements are crucial to understanding the complexities
of heat and moisture
transfer during the passage
of tropical cyclones.
In the case
of water surfaces, the
transfer is by convection and may consequently be affected by the horizontal transport
of heat within
large bodies
of water.
As evident in the figures the near surface air temperatures are actually warmer over the Arctic Ocean (by over 1 °C in
large areas) when the sea ice absorbs solar radiation and
transfers some
of this energy as sensible
heat back into the atmosphere.
If you go down, say, to a depth
of a mere 1000 meters, the diffusion
of this
transferred heat, over a volume
of water with a
heat capacity that now is some 400 times
larger than the entire atmosphere, would make it 400 times more undetectable, we suppose.
About 40 years ago, using electrical
heating of horizontal plates
of hot - rolled steel and aluminium to separate natural convective and radiative
heat transfer, I measured the former and deduced the latter by difference as a function
of local GHG composition and temperature to design
large process plant.
Robert Brown says: February 3, 2012 at 8:51 pm «Air has low thermal conductivity, and the bodies
of air involved are very
large, so
transfer of heat by conduction is negligibly small.»
Air has low thermal conductivity, and the bodies
of air involved are very
large, so
transfer of heat by conduction is negligibly small.
It is essentially the result
of a balance between (a) the stabilizing effect
of upward
heat transport in moist and dry convection on both small and
large scales and (b), the destabilizing effect
of radiative
transfer.
Although polynyas only cover a small fraction
of the ocean surface, the
transfer of heat and water vapor is so
large that they play a significant role in the climate system leading to modifications
of both atmosphere and ocean properties.
As you rightly point out, the influence
of oceanic
heat - sinks is potentially a
large factor and I don't really know how the
transfer of energy within it is modelled in terms
of difusion, layer mixing and bulk transport.
The most natural type
of long term variability is in my view based on slowly varying changes in ocean circulation, which doesn't necessarily involve major
transfer of heat from one place to another but influences cloudiness and other
large scale weather patterns and through that the net energy flux
of the Earth system.
I'm still hazy on the mechanics
of exactly how it forms, but I provisionally accept that
large scale motions which
transfer heat via mass
transfer don't happen, the oceans aren't boiling, and it is thicker than LWR can penetrate... so: conductive
transfer is the only way
heat can get through it from below.
As I've shown in earlier comments, the atmosphere overreacts to
large heat transfers, which are redistributions
of heat and not true global warming events.
TOAA is also relevant to reducing the
large errors associated with numerical calculation in climate models
of the
transfer of heat and moisture between ocean and atmosphere.
I presume the answer lies in admitting more
of the complexity
of real case into the computations: if not the spinning, irregularly surfaced sphere, then at least the huge differential in solar
heating «twixt the equatorial and the polar regions, the great daily poleward energy
transfers which compensate thanks in
large part to massive convective systems.
My gut feeling, speaking as a chemical engineer (and
heat transfer is a core chemical engineering area), is that the uncertainty for thermal inertia is not that
large, it ought to depend mainly on the speed
of temperature rise and be estimatable based on the temperature rise history to date (if you do doubt that, I am sure Coby, you or me can do some digging to clear that up).
People write down
heat equations for the ocean but then they pretend that they're not really talking about molecular
heat transfer but some sort
of effective
heat transfer so they use much
larger thermal diffusion coefficients than the molecular ones.
2) On a
large scale (planetary), the method
of heat transfer is radiation.
Something rather crucial that's been entirely missed by the «scientists» and the commenters here is the very
large quantity
of heat which would be
transferred to the Antarctic icecap.
A text on
Heat Transfer will show that the «somehow» is called convection.Research has determined heat transfer coefficients for convection to a water surface — for example, at a wind speed of 3m / s a value of about 400W / m ^ 2 K has been measured.This is relatively large and results in the skin temperature being close to the subsurface value.BUT, this aside, until you perform a proper quantitative surface energy balance, you will struggle to explain the phenomena of interest to
Heat Transfer will show that the «somehow» is called convection.Research has determined heat transfer coefficients for convection to a water surface — for example, at a wind speed of 3m / s a value of about 400W / m ^ 2 K has been measured.This is relatively large and results in the skin temperature being close to the subsurface value.BUT, this aside, until you perform a proper quantitative surface energy balance, you will struggle to explain the phenomena of interest
Transfer will show that the «somehow» is called convection.Research has determined
heat transfer coefficients for convection to a water surface — for example, at a wind speed of 3m / s a value of about 400W / m ^ 2 K has been measured.This is relatively large and results in the skin temperature being close to the subsurface value.BUT, this aside, until you perform a proper quantitative surface energy balance, you will struggle to explain the phenomena of interest to
heat transfer coefficients for convection to a water surface — for example, at a wind speed of 3m / s a value of about 400W / m ^ 2 K has been measured.This is relatively large and results in the skin temperature being close to the subsurface value.BUT, this aside, until you perform a proper quantitative surface energy balance, you will struggle to explain the phenomena of interest
transfer coefficients for convection to a water surface — for example, at a wind speed
of 3m / s a value
of about 400W / m ^ 2 K has been measured.This is relatively
large and results in the skin temperature being close to the subsurface value.BUT, this aside, until you perform a proper quantitative surface energy balance, you will struggle to explain the phenomena
of interest to you.
For example, instead
of a ball with
large spikes, consider a coiled pipe or non-sharp fins like old radiators, or a design like a golf ball or colander so that it'll be easier to load in new snow when the
heat transferred from this device melts...