earthpeltier... · gradient richardson number at c=o, and r=3. linear stability theory predicts...

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Page 1: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 2: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 3: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 4: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 5: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 6: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 7: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 8: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 9: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 10: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 11: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 12: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 13: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 14: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 15: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 16: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 17: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 18: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 19: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 20: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 21: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 22: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 23: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 24: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 25: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 26: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 27: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 28: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 29: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 30: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 31: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 32: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 33: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 34: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 35: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 36: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 37: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 38: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 39: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 40: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 41: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J
Page 42: Earthpeltier... · gradient Richardson number at C=O, and R=3. Linear stability theory predicts that the flow will develop Holmboe instability when J exceeds some critical value J