Hydrostatic balance states Әр əz Equation -1 where p is pressure, z is altitude, p is density and g is the acceleration due to gravity. It can be shown that the reciprocal of hydrostatic balance also applies. That is Equation -2 дz Әр =-pg, 1 pg Use the ideal gas law (p = pRT, where Ra is the gas constant for dry air and T is temperature) to eliminate p from (2). Under geostrophic balance, the following balance is approximately satisfied fu=-g (35), ду Equation -3 where f is the Coriolis parameter, u is the zonal wind, y is meridional distance and z is altitude. (Note that the derivative on the right hand side is taken at constant pressure.) Differentiate (3) with respect to p, and use your expression from part 1 to obtain an expression relating du/ap and T/ay. This expression is called "thermal wind balance".
Hydrostatic balance states Әр əz Equation -1 where p is pressure, z is altitude, p is density and g is the acceleration due to gravity. It can be shown that the reciprocal of hydrostatic balance also applies. That is Equation -2 дz Әр =-pg, 1 pg Use the ideal gas law (p = pRT, where Ra is the gas constant for dry air and T is temperature) to eliminate p from (2). Under geostrophic balance, the following balance is approximately satisfied fu=-g (35), ду Equation -3 where f is the Coriolis parameter, u is the zonal wind, y is meridional distance and z is altitude. (Note that the derivative on the right hand side is taken at constant pressure.) Differentiate (3) with respect to p, and use your expression from part 1 to obtain an expression relating du/ap and T/ay. This expression is called "thermal wind balance".
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![(1) Hydrostatic balance states
Op
Əz
Equation -1
where p is pressure, z is altitude, p is density and g is the acceleration due to gravity.
It can be shown that the reciprocal of hydrostatic balance also applies. That is
Equation -2
дz
Әр
= -Pg,
=
1
pg
Use the ideal gas law (p = pRT, where R is the gas constant for dry air and Tis
temperature) to eliminate p from (2).
(2) Under geostrophic balance, the following balance is approximately satisfied
Equation -3
fu=-g
¹ (3)
where f is the Coriolis parameter, u is the zonal wind, y is meridional distance and
z is altitude. (Note that the derivative on the right hand side is taken at constant
pressure.) Differentiate (3) with respect to p, and use your expression from part
1 to obtain an expression relating du/ap and T/ay. This expression is called
"thermal wind balance".](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Fa1f35219-4275-4f0e-9ae0-0454f308fe84%2Fd8259a57-5def-4147-9566-1de12b6f42c6%2F2u97zu_processed.png&w=3840&q=75)
Transcribed Image Text:(1) Hydrostatic balance states
Op
Əz
Equation -1
where p is pressure, z is altitude, p is density and g is the acceleration due to gravity.
It can be shown that the reciprocal of hydrostatic balance also applies. That is
Equation -2
дz
Әр
= -Pg,
=
1
pg
Use the ideal gas law (p = pRT, where R is the gas constant for dry air and Tis
temperature) to eliminate p from (2).
(2) Under geostrophic balance, the following balance is approximately satisfied
Equation -3
fu=-g
¹ (3)
where f is the Coriolis parameter, u is the zonal wind, y is meridional distance and
z is altitude. (Note that the derivative on the right hand side is taken at constant
pressure.) Differentiate (3) with respect to p, and use your expression from part
1 to obtain an expression relating du/ap and T/ay. This expression is called
"thermal wind balance".
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