#!/usr/bin/env python # Wenchang Yang (wenchang@princeton.edu) # Fri Mar 3 13:21:20 EST 2023 #v2: sensitivity parameter from AM2.5 CTL1860_florSST if __name__ == '__main__': import sys,os from misc.timer import Timer tt = Timer(f'[{os.getcwd()}] start ' + ' '.join(sys.argv)) import sys, os.path, os, glob, datetime import xarray as xr, numpy as np, pandas as pd, matplotlib.pyplot as plt #more imports #from misc import get_kws_from_argv # if __name__ == '__main__': tt.check('end import') # #start from here model = 'FLOR' case = '1pct4XCO2' b_gmst_am2p1 = 2.63 #2.628766826842829 # 2.6 # % per K b_fco2_am2p1 = -2.40 #-2.403719774284724 #-2.4 # % per 2xCO2 forcing #AM2.5 values: see /tigress/wenchang/analysis/misc/AM2.5/wyshow_dprecip.log b_gmst_am2p5 = 2.98 # % per K b_fco2_am2p5 = -2.27 # % per 2xCO2 forcing #HIRAM values: see /tigress/wenchang/analysis/misc/HIRAM/wyshow_dprecip.log b_gmst_hiram = 2.97 # % per K b_fco2_hiram = -2.32 # % per 2xCO2 forcing #AM2.5C360 values: see /tigress/wenchang/analysis/misc/AM2.5/wyshow_dprecip.log b_gmst_am2p5c360 = 3.29 # % per K b_fco2_am2p5c360 = -2.23 # % per 2xCO2 forcing #select the params #b_gmst = b_gmst_am2p5 b_gmst = 3.28 #% per K b_fco2 = b_fco2_am2p5 ifile = 'precip_FLOR_CTL1860_newdiag_tigercpu_intelmpi_18_576PE_2001-2100_glbmean.nc' da = xr.open_dataarray(ifile) da_ctl = da da_ref = da.mean('time') ifile = 'precip_FLOR_CTL1860_newdiag_1pct4xCO2_tigercpu_intelmpi_18_576PE_2001-2140_glbmean.nc' da = xr.open_dataarray(ifile) da_precip = da #Ts ifile = glob.glob('t_surf_FLOR_CTL1860_newdiag_tigercpu_intelmpi_18_576PE_????-????_glbmean.nc')[0] print(ifile) da = xr.open_dataarray(ifile).sel(time=slice('2001','2100')) da_ctl_ts = da da_ref_ts = da.mean('time') ifile = 't_surf_FLOR_CTL1860_newdiag_1pct4xCO2_tigercpu_intelmpi_18_576PE_2001-2140_glbmean.nc' da_ts = xr.open_dataarray(ifile) zz = np.linspace(0, 2, 140*12+1)[1:] # 140 years of monthly CO2 forcing, 1 at 2xCO2 and 2 at 4xCO2 #zz = np.hstack((zz, zz[-1::-1])) da = xr.DataArray(zz, dims=['time',], coords=[da_ts.time,]).assign_attrs(units='2xCO2', long_name='CO2 forcing') da_fco2 = da #da.plot(); plt.show(); sys.exit() if __name__ == '__main__': from wyconfig import * #my plot settings func_lp = lambda x: x.rolling(year=9, center=True, min_periods=1).mean('year') func_pct = lambda x: (x/da_ref*100-100).assign_attrs(units='%') fig, ax = plt.subplots() alpha = 0.3 da_ = da_precip.groupby('time.year').mean('time') da_.pipe(func_pct).plot(color='k', alpha=alpha) da_.pipe(func_pct).pipe(func_lp).plot(label=f'{model} precip ({case})', color='k') ax.set_prop_cycle(None) y = da_.pipe(func_pct) da_ = (da_ts.groupby('time.year').mean('time') - da_ref_ts)*b_gmst + da_fco2.groupby('time.year').mean('time')*b_fco2 da_.plot(color='C0', alpha=alpha) da_.pipe(func_lp).plot(color='C0', label=f'modeled by gmst({b_gmst:.1f}%/K) and co2({b_fco2:.1f}%/2xCO2)') y_hat = da_ da_ = (da_ts.groupby('time.year').mean('time') - da_ref_ts)*b_gmst da_.plot(color='C1', alpha=alpha) da_.pipe(func_lp).plot(color='C1', label='gmst contribution') da_ = -da_fco2.groupby('time.year').mean('time')*b_fco2 da_.plot(color='C2', label='co2 contribution (mirrored)', ls='--') y_hat_co2 = da_ #da_ = (da_ts.groupby('time.year').mean('time') - da_ref_ts)*b_gmst_am2p5 + da_fco2.groupby('time.year').mean('time')*b_fco2_am2p5 #da_.pipe(func_lp).plot(label=f'modeled if AM2.5 coeff: gmst({b_gmst_am2p5}%/K) and co2({b_fco2_am2p5}%/2xCO2)') da_ = y - y_hat da_.plot(color='C3', alpha=alpha) da_.pipe(func_lp).plot(color='C3', label='residual') ax.legend(loc='upper left') ax.set_ylabel('global mean precip change [%]') #ax.set_xticks(range(1000, 1300, 40)) #ax.axvline(1140, color='gray', ls='--') #savefig if 'savefig' in sys.argv or 's' in sys.argv: figname = __file__.replace('.py', f'_{model}_{case}.png') if 'overwritefig' in sys.argv or 'o' in sys.argv: wysavefig(figname, overwritefig=True) else: wysavefig(figname) """ import seaborn as sns fig,ax = plt.subplots() da_res = y - y_hat_co2 dgmst = da_ts.groupby('time.year').mean('time') - da_ref_ts reg = da sns.scatterplot(x=dgmst, y=da_res, color='.1') #sns.histplot(x=dgmst, y=da_res) sns.kdeplot(x=dgmst, y=da_res, fill=True) ax.axline((0,0), slope=b_gmst, color='C1') import xlinregress fig,ax = plt.subplots() dprecip = y dgmst = da_ts.groupby('time.year').mean('time') - da_ref_ts #dprecip = dprecip.isel(year=dgmst<1.35) #dgmst = dgmst.isel(year=dgmst<1.35) reg = dprecip.linregress.on(dgmst) slope, y0 = reg.slope, reg.intercept sns.scatterplot(x=dgmst, y=dprecip, color='.1') #sns.histplot(x=dgmst, y=dprecip) #sns.kdeplot(x=dgmst, y=dprecip, fill=True) ax.axline((0,y0), slope=slope, color='C1') """ tt.check(f'**Done**') print() if 'notshowfig' in sys.argv or 'n' in sys.argv: pass else: if 'plt' in globals(): plt.show()