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source: source/entities.js @ 318:38122f4e5fa6

qx-2.0.1

Last change on this file since 318:38122f4e5fa6 was 318:38122f4e5fa6, checked in by Evgeny Stambulchik <Evgeny.Stambulchik@…>, 12 years ago
Added "LTE parameter" (ratio between Ne and the LTE Ne).
File size: 15.4 KB

Rev	Line
[70]	1	var plasma_entities = new Array(
	2	{
[181]	3	id : "plasma_frequency",
[70]	4	name : "Plasma frequency",
	5	dimension : "frequency",
	6	nspecies : 1,
[210]	7	section : "waves",
[96]	8	formula : "%s1.getPlasmaFrequency()",
	9	wikiLink : "Plasma_frequency"
[70]	10	},
	11	{
[181]	12	id : "gyrofrequency",
[70]	13	name : "Gyrofrequency",
	14	dimension : "frequency",
	15	nspecies : 1,
	16	section : "fundamental",
[144]	17	formula : "%s1.getGyroFrequency(this.plasma.B)",
[96]	18	wikiLink : "Gyrofrequency"
[70]	19	},
	20
	21	{
[221]	22	id : "wigner_seitz_radius",
	23	name : "Typical inter-particle distance",
[119]	24	dimension : "length",
	25	nspecies : 1,
	26	section : "fundamental",
[221]	27	formula : "%s1.getTypicalDistance()",
	28	wikiLink : "Wigner-Seitz_radius"
[119]	29	},
	30	{
[181]	31	id : "debye_length",
[70]	32	name : "Debye length",
	33	dimension : "length",
	34	nspecies : 1,
	35	section : "fundamental",
[96]	36	formula : "%s1.getDebyeLength()",
	37	wikiLink : "Debye_length"
[70]	38	},
	39	{
[181]	40	id : "full_debye_length",
[70]	41	name : "Full Debye length",
	42	dimension : "length",
	43	nspecies : 1,
	44	section : "fundamental",
[144]	45	formula : "this.plasma.getFullDebyeLength(%s1)",
[96]	46	wikiLink : "Debye_length"
[70]	47	},
	48	{
[181]	49	id : "gyroradius",
[119]	50	name : "Gyroradius",
[70]	51	dimension : "length",
	52	nspecies : 1,
	53	section : "fundamental",
[144]	54	formula : "%s1.getGyroRadius(this.plasma.B)",
[119]	55	wikiLink : "Gyroradius"
[70]	56	},
	57	{
[181]	58	id : "distance_of_minimal_approach",
[70]	59	name : "Distance of minimal approach",
	60	dimension : "length",
	61	nspecies : 1,
	62	section : "fundamental",
	63	formula : "%s1.getMinApproachDistance()"
	64	},
	65	{
[181]	66	id : "inertial_length",
[70]	67	name : "Inertial length",
	68	dimension : "length",
	69	nspecies : 1,
[210]	70	section : "waves",
[96]	71	formula : "%s1.getInertialLength()",
	72	wikiLink : "Inertial_length"
[70]	73	},
[119]	74	{
[181]	75	id : "de_broglie_wavelength",
[119]	76	name : "De Broglie wavelength",
	77	dimension : "length",
	78	nspecies : 1,
	79	section : "fundamental",
	80	formula : "%s1.getDeBroglieLength()",
	81	wikiLink : "DeBroglie_wavelength"
	82	},
[70]	83
	84	{
[181]	85	id : "thermal_velocity",
[70]	86	name : "Thermal velocity",
	87	dimension : "velocity",
	88	nspecies : 1,
	89	section : "fundamental",
[96]	90	formula : "%s1.getThermalVelocity()",
	91	wikiLink : "Thermal_velocity"
[70]	92	},
	93	{
[181]	94	id : "alfven_velocity",
[70]	95	name : "Alfven velocity",
	96	dimension : "velocity",
[101]	97	nspecies : 0,
[103]	98	section : "waves",
[144]	99	formula : "this.plasma.getAlfvenVelocity(this.plasma.B)",
[96]	100	wikiLink : "Alfven_velocity"
[70]	101	},
	102
	103	{
[181]	104	id : "coupling_parameter",
[70]	105	name : "Coupling parameter",
	106	dimension : "none",
	107	nspecies : 1,
	108	section : "fundamental",
	109	formula : "%s1.getCoupling()"
	110	},
	111	{
[181]	112	id : "typical_debye_screening",
[70]	113	name : "Typical Debye screening",
	114	dimension : "none",
	115	nspecies : 1,
	116	section : "spectroscopy",
[221]	117	formula : "var r = %s1.getTypicalDistance()/%s1.getDebyeLength(); \
[70]	118	(1 + r)*Math.exp(-r)"
	119	},
	120
	121	{
[181]	122	id : "transition_energy",
[70]	123	name : "Transition energy",
	124	dimension : "energy",
	125	nspecies : 0,
	126	section : "spectroscopy",
[295]	127	formula : "this.plasma.r.getTransitionEnergy()"
[70]	128	},
	129	{
[181]	130	id : "natural_linewidth",
[70]	131	name : "Natural linewidth",
	132	dimension : "energy",
	133	nspecies : 0,
	134	section : "spectroscopy",
[295]	135	formula : "this.plasma.r.getNaturalWidth()"
[70]	136	},
	137	{
[312]	138	id : "natural_linewidth_wl",
	139	name : "Natural linewidth (wl)",
	140	dimension : "length",
	141	nspecies : 0,
	142	section : "spectroscopy",
	143	formula : "this.plasma.dE2dWl(this.plasma.r.getNaturalWidth())"
	144	},
	145	{
[190]	146	id : "Fine_structure",
	147	name : "Fine structure",
	148	dimension : "energy",
	149	nspecies : 0,
	150	section : "spectroscopy",
[295]	151	formula : "this.plasma.r.getFineStructure()",
[190]	152	wikiLink : "Fine_structure"
	153	},
	154	{
[312]	155	id : "Fine_structure_wl",
	156	name : "Fine structure (wl)",
	157	dimension : "length",
	158	nspecies : 0,
	159	section : "spectroscopy",
	160	formula : "this.plasma.dE2dWl(this.plasma.r.getFineStructure())",
	161	wikiLink : "Fine_structure"
	162	},
	163	{
[181]	164	id : "doppler_fwhm",
[70]	165	name : "Doppler FWHM",
	166	dimension : "energy",
	167	nspecies : 0,
	168	section : "spectroscopy",
[295]	169	formula : "2*this.plasma.r.getDopplerHwhm()",
[96]	170	wikiLink : "Doppler_broadening"
[70]	171	},
	172	{
[312]	173	id : "doppler_fwhm_wl",
	174	name : "Doppler FWHM (wl)",
	175	dimension : "length",
	176	nspecies : 0,
	177	section : "spectroscopy",
	178	formula : "this.plasma.dE2dWl(2*this.plasma.r.getDopplerHwhm())",
	179	wikiLink : "Doppler_broadening"
	180	},
	181	{
[181]	182	id : "zeeman_splitting",
[70]	183	name : "Zeeman splitting",
	184	dimension : "energy",
	185	nspecies : 0,
	186	section : "spectroscopy",
[144]	187	formula : "2*this.plasma.getZeemanSplitting()"
[70]	188	},
	189	{
[312]	190	id : "zeeman_splitting_wl",
	191	name : "Zeeman splitting (wl)",
	192	dimension : "length",
	193	nspecies : 0,
	194	section : "spectroscopy",
	195	formula : "this.plasma.dE2dWl(2*this.plasma.getZeemanSplitting())"
	196	},
	197	{
[181]	198	id : "total_stark_fwhm",
[70]	199	name : "Total Stark FWHM",
	200	dimension : "energy",
	201	nspecies : 0,
	202	section : "spectroscopy",
[144]	203	formula : "2*this.plasma.getStarkHwhm()"
[70]	204	},
	205	{
[312]	206	id : "total_stark_fwhm_wl",
	207	name : "Total Stark FWHM (wl)",
	208	dimension : "length",
	209	nspecies : 0,
	210	section : "spectroscopy",
	211	formula : "this.plasma.dE2dWl(2*this.plasma.getStarkHwhm())"
	212	},
	213	{
[181]	214	id : "stark_fwhm",
[119]	215	name : "Stark FWHM",
	216	dimension : "energy",
	217	nspecies : 1,
	218	prepos : "due to",
	219	section : "spectroscopy",
[144]	220	formula : "2this.plasma.getQsHwhm(%s1)this.plasma.getStarkQuasistaticity(%s1)"
[119]	221	},
	222
	223	{
[181]	224	id : "qs_stark_fwhm",
[70]	225	name : "QS Stark FWHM",
	226	dimension : "energy",
	227	nspecies : 1,
[87]	228	prepos : "due to",
[70]	229	section : "spectroscopy",
[144]	230	formula : "2*this.plasma.getQsHwhm(%s1)"
[70]	231	},
	232
	233	{
[181]	234	id : "dynamic_stark_range",
[70]	235	name : "Dynamic Stark range",
	236	dimension : "energy",
	237	nspecies : 1,
	238	section : "spectroscopy",
[197]	239	formula : "this.plasma.getMicrofieldFrequency(%s1)"
[70]	240	},
	241
	242	{
[181]	243	id : "minimal_energy_distance",
[70]	244	name : "Minimal energy distance",
	245	dimension : "energy",
	246	nspecies : 0,
	247	section : "spectroscopy",
[295]	248	formula : "this.plasma.r.getMinEnergyDistance()"
[70]	249	},
[75]	250	{
[223]	251	id : "plasmon_energy",
	252	name : "Plasmon energy",
	253	dimension : "energy",
	254	nspecies : 0,
	255	section : "spectroscopy",
[308]	256	formula : "this.plasma.e.getPlasmaFrequencyW()",
[223]	257	wikiLink : "Plasmon"
	258	},
	259	{
[181]	260	id : "fermi_energy",
[75]	261	name : "Fermi energy",
	262	dimension : "energy",
	263	nspecies : 0,
	264	section : "fundamental",
[144]	265	formula : "this.plasma.getFermiEnergy()",
[96]	266	wikiLink : "Fermi_energy"
[75]	267	},
[135]	268	{
[310]	269	id : "fermi_velocity",
	270	name : "Fermi velocity",
	271	dimension : "velocity",
	272	nspecies : 0,
	273	section : "fundamental",
	274	formula : "this.plasma.getFermiVelocity()",
	275	wikiLink : "Fermi_velocity"
	276	},
	277	{
	278	id : "fermi_length",
	279	name : "Fermi screening length",
	280	dimension : "length",
	281	nspecies : 0,
	282	section : "fundamental",
	283	formula : "this.plasma.getFermiLength()",
	284	wikiLink : "Electric-field_screening"
	285	},
	286	{
[181]	287	id : "chemical_potential",
[135]	288	name : "Chemical potential",
	289	dimension : "energy",
	290	nspecies : 1,
	291	section : "fundamental",
	292	formula : "%s1.getChemicalPotential()",
	293	wikiLink : "Chemical_potential"
	294	},
[70]	295
	296	{
[268]	297	id : "mass_density",
	298	name : "Mass density",
	299	dimension : "mass_density",
	300	nspecies : 1,
	301	section : "fundamental",
	302	formula : "%s1.getMassDensity()",
	303	wikiLink : "Density"
	304	},
	305	{
	306	id : "mass_density",
	307	name : "Total mass density",
	308	dimension : "mass_density",
	309	nspecies : 0,
	310	section : "fundamental",
	311	formula : "this.plasma.getMassDensity()",
	312	wikiLink : "Density"
	313	},
	314
	315	{
[181]	316	id : "beta",
[119]	317	name : "Beta",
[70]	318	dimension : "none",
[119]	319	nspecies : 0,
	320	section : "fundamental",
[144]	321	formula : "this.plasma.getBeta()",
[119]	322	wikiLink : "Beta_(plasma_physics)"
[70]	323	},
[119]	324
[70]	325	{
[299]	326	id : "transition_wavelength",
	327	name : "Transition wavelength",
	328	dimension : "length",
	329	nspecies : 0,
	330	section : "spectroscopy",
	331	formula : "pf.base.Bohr.c/this.plasma.r.getTransitionEnergy()(2Math.PI)"
	332	},
	333	{
	334	id : "transition_frequency",
	335	name : "Transition frequency",
	336	dimension : "frequency",
	337	nspecies : 0,
	338	section : "spectroscopy",
	339	formula : "this.plasma.r.getTransitionEnergy()/(2*Math.PI)"
	340	},
	341
	342	{
[288]	343	id : "f_abs",
	344	name : "Oscillator strength",
	345	dimension : "none",
	346	nspecies : 0,
	347	section : "spectroscopy",
[295]	348	formula : "this.plasma.r.getOscillatorStrength()",
[288]	349	wikiLink : "Oscillator_strength"
	350	},
[289]	351	{
	352	id : "A",
	353	name : "Einstein coefficient",
	354	dimension : "frequency",
	355	nspecies : 0,
	356	section : "spectroscopy",
[295]	357	formula : "this.plasma.r.getEinsteinA()",
[289]	358	wikiLink : "Einstein_coefficients"
	359	},
[318]	360
	361	{
	362	id : "LTE_parameter",
	363	name : "LTE parameter",
	364	dimension : "none",
	365	nspecies : 0,
	366	section : "spectroscopy",
	367	formula : "this.plasma.e.getN()/this.plasma.getLteNe()",
	368	wikiLink : "Einstein_coefficients"
	369	},
[288]	370
	371	{
[181]	372	id : "stark_quasistaticity",
[70]	373	name : "Stark quasistaticity",
	374	dimension : "none",
	375	nspecies : 1,
	376	section : "spectroscopy",
[144]	377	formula : "this.plasma.getStarkQuasistaticity(%s1)"
[70]	378	},
[119]	379	{
[181]	380	id : "static_to_dynamic_stark_ratio",
[119]	381	name : "Static/dynamic Stark ratio",
	382	dimension : "none",
	383	nspecies : 1,
	384	section : "spectroscopy",
[144]	385	formula : "this.plasma.getStarkRatio(%s1)"
[119]	386	},
[70]	387
	388	{
[181]	389	id : "holtsmark_field",
[70]	390	name : "Holtsmark field",
	391	dimension : "efield",
	392	nspecies : 1,
	393	section : "spectroscopy",
	394	formula : "%s1.getHoltsmarkField()"
	395	},
	396
	397	{
[181]	398	id : "microfield_frequency",
[70]	399	name : "Microfield frequency",
	400	dimension : "frequency",
	401	nspecies : 1,
	402	section : "spectroscopy",
[144]	403	formula : "this.plasma.getMicrofieldFrequency(%s1)"
[70]	404	},
	405
	406	{
[181]	407	id : "cyclotron_losses",
[70]	408	name : "Cyclotron losses",
	409	dimension : "power_density",
	410	nspecies : 1,
	411	section : "radiation",
[144]	412	formula : "%s1.getCyclotronLosses(this.plasma.B)",
[96]	413	wikiLink : "Cyclotron_radiation"
[70]	414	},
	415
	416	{
[181]	417	id : "free-free_losses",
[70]	418	name : "Free-free losses",
	419	dimension : "power_density",
	420	nspecies : 0,
	421	section : "radiation",
[192]	422	formula : "this.plasma.getBremsstrahlungLosses()",
	423	wikiLink : "Bremsstrahlung"
[70]	424	},
	425
	426	{
[181]	427	id : "dree-free_spectral_density",
[70]	428	name : "Free-free spectral density",
	429	dimension : "spectral_power_density",
	430	nspecies : 0,
	431	section : "radiation",
[192]	432	formula : "this.plasma.getBremsstrahlungSpectralDensity()",
	433	wikiLink : "Bremsstrahlung"
[70]	434	},
	435
	436	{
[181]	437	id : "free-bound_losses",
[70]	438	name : "Free-bound losses",
	439	dimension : "power_density",
	440	nspecies : 0,
	441	section : "radiation",
[144]	442	formula : "this.plasma.getFreeBoundLosses()"
[70]	443	},
	444
	445	{
[181]	446	id : "free-bound_spectral_density",
[70]	447	name : "Free-bound spectral density",
	448	dimension : "spectral_power_density",
	449	nspecies : 0,
	450	section : "radiation",
[144]	451	formula : "this.plasma.getFreeBoundSpectralDensity()"
[70]	452	},
	453
	454	{
[181]	455	id : "ideal_gas_pressure",
[70]	456	name : "Ideal gas pressure",
	457	dimension : "pressure",
	458	nspecies : 1,
	459	section : "fundamental",
[96]	460	formula : "%s1.getPressure()",
	461	wikiLink : "Ideal_gas"
[70]	462	},
	463
	464	{
[181]	465	id : "total_pressure",
[70]	466	name : "Total pressure",
	467	dimension : "pressure",
	468	nspecies : 0,
	469	section : "fundamental",
[144]	470	formula : "this.plasma.getPressure()"
[70]	471	},
	472
	473	{
[181]	474	id : "magnetic_field_pressure",
[70]	475	name : "Magnetic field pressure",
	476	dimension : "pressure",
	477	nspecies : 0,
	478	section : "fundamental",
[144]	479	formula : "this.plasma.getMagneticFieldPressure()",
[96]	480	wikiLink : "Magnetic_pressure"
[70]	481	},
	482
	483	{
[181]	484	id : "coulomb_logarithm",
[102]	485	name : "Coulomb logarithm",
	486	dimension : "none",
[214]	487	nspecies : 2,
[103]	488	section : "collisions",
[215]	489	formula : "this.plasma.getCoulombLog(%s1, %s2)",
[192]	490	wikiLink : "Coulomb_collision"
[102]	491	},
	492
	493	{
[218]	494	id : "relaxation_rate",
	495	name : "Relaxation rate",
	496	dimension : "frequency",
	497	nspecies : 2,
	498	section : "collisions",
	499	formula : "this.plasma.getRelaxationRate(%s1, %s2)"
	500	},
	501
	502	{
[181]	503	id : "thomson_cross-section",
[70]	504	name : "Thomson cross-section",
	505	dimension : "area",
	506	nspecies : 1,
	507	section : "collisions",
[96]	508	formula : "%s1.getThomsonXsTotal()",
	509	wikiLink : "Thomson_cross_section"
[219]	510	},
	511
	512	{
[224]	513	id : "classical_ionization_field",
	514	name : "Classical ionization field",
	515	dimension : "efield",
	516	nspecies : 0,
	517	section : "spectroscopy",
[295]	518	formula : "this.plasma.r.getClassicalIonizationField()"
[227]	519	},
	520	{
	521	id : "inglis_teller_field",
	522	name : "Inglis-Teller field",
	523	dimension : "efield",
	524	nspecies : 0,
	525	section : "spectroscopy",
[295]	526	formula : "this.plasma.r.getInglisTellerField()",
[227]	527	wikiLink : "Inglis-Teller_equation"
[228]	528	},
	529	{
	530	id : "dreicer_field",
	531	name : "Dreicer field",
	532	dimension : "efield",
	533	nspecies : 0,
	534	section : "collisions",
	535	formula : "this.plasma.getDreicerField()"
[70]	536	}
	537	);

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