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NE snow event March 4th


tiger_deF

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2 minutes ago, dryslot said:

Did you get up in front of the class and work out the equation on the chalkboard?   lol

Lol...no, thank God....it was mostly an inside joke with Chris since he went to Cornell too...we all had to derive it in mesoscale meteorology and it is as bad it sounds. I think it literally takes up like 2-3 pages in a notebook. I'm not sure how other programs deal with that horrific equation.

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1 minute ago, ORH_wxman said:

Lol...no, thank God....it was mostly an inside joke with Chris since he went to Cornell too...we all had to derive it in mesoscale meteorology and it is as bad it sounds. I think it literally takes up like 2-3 pages in a notebook.

I always liked that stuff...fronto....QG height tendency...QG omega......friction....spherical coordinates

those were the days

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Just now, ORH_wxman said:

HREF gone wild......

 

 

 

F = 1 | ∇ θ | ⋅ ∂ θ ∂ x { 1 C p ( p ∘ p ) κ [ ∂ ∂ x ( d Q d t ) ] − ( ∂ u ∂ x ∂ θ ∂ x ) − ( ∂ v ∂ x ∂ θ ∂ y ) − ( ∂ w ∂ x ∂ θ ∂ z ) } + ∂ θ ∂ y { 1 C p ( p ∘ p ) κ [ ∂ ∂ y ( d Q d t ) ] − ( ∂ u ∂ y ∂ θ ∂ x ) − ( ∂ v ∂ y ∂ θ ∂ y ) − ( ∂ w ∂ y ∂ θ ∂ z ) } + ∂ θ ∂ z { p ∘ κ C p [ ∂ ∂ z ( p − κ d Q d t ) ] − ( ∂ u ∂ z ∂ θ ∂ x ) − ( ∂ v ∂ z ∂ θ ∂ y ) − ( ∂ w ∂ z ∂ θ ∂ z ) } {\displaystyle {\begin{alignedat}{3}F={\frac {1}{|\nabla \theta |}}\cdot {\frac {\partial \theta }{\partial x}}\left\{{\frac {1}{C_{p}}}\left({\frac {p_{\circ }}{p}}\right)^{\kappa }\left[{\frac {\partial }{\partial x}}\left({\frac {dQ}{dt}}\right)\right]-\left({\frac {\partial u}{\partial x}}{\frac {\partial \theta }{\partial x}}\right)-\left({\frac {\partial v}{\partial x}}{\frac {\partial \theta }{\partial y}}\right)-\left({\frac {\partial w}{\partial x}}{\frac {\partial \theta }{\partial z}}\right)\right\}\\+{\frac {\partial \theta }{\partial y}}\left\{{\frac {1}{C_{p}}}\left({\frac {p_{\circ }}{p}}\right)^{\kappa }\left[{\frac {\partial }{\partial y}}\left({\frac {dQ}{dt}}\right)\right]-\left({\frac {\partial u}{\partial y}}{\frac {\partial \theta }{\partial x}}\right)-\left({\frac {\partial v}{\partial y}}{\frac {\partial \theta }{\partial y}}\right)-\left({\frac {\partial w}{\partial y}}{\frac {\partial \theta }{\partial z}}\right)\right\}\\+{\frac {\partial \theta }{\partial z}}\left\{{\frac {p_{\circ }^{\kappa }}{C_{p}}}\left[{\frac {\partial }{\partial z}}\left(p^{-\kappa }{\frac {dQ}{dt}}\right)\right]-\left({\frac {\partial u}{\partial z}}{\frac {\partial \theta }{\partial x}}\right)-\left({\frac {\partial v}{\partial z}}{\frac {\partial \theta }{\partial y}}\right)-\left({\frac {\partial w}{\partial z}}{\frac {\partial \theta }{\partial z}}\right)\right\}\end{alignedat}}} {\begin{alignedat}{3}F={\frac  {1}{|\nabla \theta |}}\cdot {\frac  {\partial \theta }{\partial x}}\left\{{\frac  {1}{C_{p}}}\left({\frac  {p_{\circ }}{p}}\right)^{\kappa }\left[{\frac  {\partial }{\partial x}}\left({\frac  {dQ}{dt}}\right)\right]-\left({\frac  {\partial u}{\partial x}}{\frac  {\partial \theta }{\partial x}}\right)-\left({\frac  {\partial v}{\partial x}}{\frac  {\partial \theta }{\partial y}}\right)-\left({\frac  {\partial w}{\partial x}}{\frac  {\partial \theta }{\partial z}}\right)\right\}\\+{\frac  {\partial \theta }{\partial y}}\left\{{\frac  {1}{C_{p}}}\left({\frac  {p_{\circ }}{p}}\right)^{\kappa }\left[{\frac  {\partial }{\partial y}}\left({\frac  {dQ}{dt}}\right)\right]-\left({\frac  {\partial u}{\partial y}}{\frac  {\partial \theta }{\partial x}}\right)-\left({\frac  {\partial v}{\partial y}}{\frac  {\partial \theta }{\partial y}}\right)-\left({\frac  {\partial w}{\partial y}}{\frac  {\partial \theta }{\partial z}}\right)\right\}\\+{\frac  {\partial \theta }{\partial z}}\left\{{\frac  {p_{\circ }^{\kappa }}{C_{p}}}\left[{\frac  {\partial }{\partial z}}\left(p^{{-\kappa }}{\frac  {dQ}{dt}}\right)\right]-\left({\frac  {\partial u}{\partial z}}{\frac  {\partial \theta }{\partial x}}\right)-\left({\frac  {\partial v}{\partial z}}{\frac  {\partial \theta }{\partial y}}\right)-\left({\frac  {\partial w}{\partial z}}{\frac  {\partial \theta }{\partial z}}\right)\right\}\end{alignedat}}

Lol 

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1 minute ago, ORH_wxman said:

HREF gone wild......

 

 

 

F = 1 | ∇ θ | ⋅ ∂ θ ∂ x { 1 C p ( p ∘ p ) κ [ ∂ ∂ x ( d Q d t ) ] − ( ∂ u ∂ x ∂ θ ∂ x ) − ( ∂ v ∂ x ∂ θ ∂ y ) − ( ∂ w ∂ x ∂ θ ∂ z ) } + ∂ θ ∂ y { 1 C p ( p ∘ p ) κ [ ∂ ∂ y ( d Q d t ) ] − ( ∂ u ∂ y ∂ θ ∂ x ) − ( ∂ v ∂ y ∂ θ ∂ y ) − ( ∂ w ∂ y ∂ θ ∂ z ) } + ∂ θ ∂ z { p ∘ κ C p [ ∂ ∂ z ( p − κ d Q d t ) ] − ( ∂ u ∂ z ∂ θ ∂ x ) − ( ∂ v ∂ z ∂ θ ∂ y ) − ( ∂ w ∂ z ∂ θ ∂ z ) } {\displaystyle {\begin{alignedat}{3}F={\frac {1}{|\nabla \theta |}}\cdot {\frac {\partial \theta }{\partial x}}\left\{{\frac {1}{C_{p}}}\left({\frac {p_{\circ }}{p}}\right)^{\kappa }\left[{\frac {\partial }{\partial x}}\left({\frac {dQ}{dt}}\right)\right]-\left({\frac {\partial u}{\partial x}}{\frac {\partial \theta }{\partial x}}\right)-\left({\frac {\partial v}{\partial x}}{\frac {\partial \theta }{\partial y}}\right)-\left({\frac {\partial w}{\partial x}}{\frac {\partial \theta }{\partial z}}\right)\right\}\\+{\frac {\partial \theta }{\partial y}}\left\{{\frac {1}{C_{p}}}\left({\frac {p_{\circ }}{p}}\right)^{\kappa }\left[{\frac {\partial }{\partial y}}\left({\frac {dQ}{dt}}\right)\right]-\left({\frac {\partial u}{\partial y}}{\frac {\partial \theta }{\partial x}}\right)-\left({\frac {\partial v}{\partial y}}{\frac {\partial \theta }{\partial y}}\right)-\left({\frac {\partial w}{\partial y}}{\frac {\partial \theta }{\partial z}}\right)\right\}\\+{\frac {\partial \theta }{\partial z}}\left\{{\frac {p_{\circ }^{\kappa }}{C_{p}}}\left[{\frac {\partial }{\partial z}}\left(p^{-\kappa }{\frac {dQ}{dt}}\right)\right]-\left({\frac {\partial u}{\partial z}}{\frac {\partial \theta }{\partial x}}\right)-\left({\frac {\partial v}{\partial z}}{\frac {\partial \theta }{\partial y}}\right)-\left({\frac {\partial w}{\partial z}}{\frac {\partial \theta }{\partial z}}\right)\right\}\end{alignedat}}} {\begin{alignedat}{3}F={\frac  {1}{|\nabla \theta |}}\cdot {\frac  {\partial \theta }{\partial x}}\left\{{\frac  {1}{C_{p}}}\left({\frac  {p_{\circ }}{p}}\right)^{\kappa }\left[{\frac  {\partial }{\partial x}}\left({\frac  {dQ}{dt}}\right)\right]-\left({\frac  {\partial u}{\partial x}}{\frac  {\partial \theta }{\partial x}}\right)-\left({\frac  {\partial v}{\partial x}}{\frac  {\partial \theta }{\partial y}}\right)-\left({\frac  {\partial w}{\partial x}}{\frac  {\partial \theta }{\partial z}}\right)\right\}\\+{\frac  {\partial \theta }{\partial y}}\left\{{\frac  {1}{C_{p}}}\left({\frac  {p_{\circ }}{p}}\right)^{\kappa }\left[{\frac  {\partial }{\partial y}}\left({\frac  {dQ}{dt}}\right)\right]-\left({\frac  {\partial u}{\partial y}}{\frac  {\partial \theta }{\partial x}}\right)-\left({\frac  {\partial v}{\partial y}}{\frac  {\partial \theta }{\partial y}}\right)-\left({\frac  {\partial w}{\partial y}}{\frac  {\partial \theta }{\partial z}}\right)\right\}\\+{\frac  {\partial \theta }{\partial z}}\left\{{\frac  {p_{\circ }^{\kappa }}{C_{p}}}\left[{\frac  {\partial }{\partial z}}\left(p^{{-\kappa }}{\frac  {dQ}{dt}}\right)\right]-\left({\frac  {\partial u}{\partial z}}{\frac  {\partial \theta }{\partial x}}\right)-\left({\frac  {\partial v}{\partial z}}{\frac  {\partial \theta }{\partial y}}\right)-\left({\frac  {\partial w}{\partial z}}{\frac  {\partial \theta }{\partial z}}\right)\right\}\end{alignedat}}

Just plug it into mathematica.

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6 minutes ago, ORH_wxman said:

Lol...no, thank God....it was mostly an inside joke with Chris since he went to Cornell too...we all had to derive it in mesoscale meteorology and it is as bad it sounds. I think it literally takes up like 2-3 pages in a notebook. I'm not sure how other programs deal with that horrific equation.

What does it say about me that it was more my style to rip a 6 pack or bottle of wine back in Advanced Forecasting while we talked about the Indian Monsoon?

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2 minutes ago, OceanStWx said:

What does it say about me that it was more my style to rip a 6 pack or bottle of wine back in Advanced Forecasting while we talked about the Indian Monsoon?

I don't think I remember my entire 2nd semester senior year except for dates of snow events...there was advanced forecasting in there somewhere as a blurry memory.

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3 minutes ago, OceanStWx said:

What does it say about me that it was more my style to rip a 6 pack or bottle of wine back in Advanced Forecasting while we talked about the Indian Monsoon?

There was actually some wine that wasn't to bad that had screw caps.

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3 minutes ago, HoarfrostHubb said:

 

5E858419-0E5F-4F99-BEFD-2C757234ABD7.jpeg

F-gen is really pretty simple, because you're just dealing with changes in fronts (temp differences). Shear, diffluence, and tilt. 

So you stretch or shrink temp gradients (u), you diverge or converge temp gradients (v), or you tilt them up or down (w). 

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3 minutes ago, ORH_wxman said:

I don't think I remember my entire 2nd semester senior year except for dates of snow events...there was advanced forecasting in there somewhere as a blurry memory.

Somewhere in there you taught me GFS biases and what the Gun Hill Effect was.

1 minute ago, dendrite said:

My first attempt at met school I think I saw Mekster more in Sherbrooke than at LSC.

:axe:

Can confirm.

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