Lista de exoplanetas descobertos em 2019

Esta é uma Lista de exoplanetas descobertos em 2019.[1][2]

Para exoplanetas detectados apenas pela velocidade radial, o valor da massa é na verdade um limite inferior. (Consulte a massa mínima para obter mais informações)

Nome	Massa (MJ)	Raio (RJ)	Período (dais)	Semieixo maior (AU)	Temp. (K)[3]	Método de descoberta	Distância (ly)	Massa da estrela-mãe (M☉)	Temperatura da estrela-mãe (K)	Observações
7 Canis Majoris c	0.87		996.00	2.153		Vel. radial	64.6	1.34	4826	[4]
Beta Pictoris c	9		1200	2.7		Vel. radial	64.43	1.76		[5]
DS Tucanae Ab		0.509±0.015	8.138268±0.000011		850	Trânsito	143.89±0.22	1.01±0.06	5428±80	[6]
Epsilon Indi Ab	3.25		16510	11.55	64.25	Vel. radial	11.87	0.75		[7]
G 9-40 b		0.1807	5.746007	0.0385	456	Trânsito	91.1	0.290	3348	[8][9]
Gliese 49 b	0.0177+0.0021 −0.0021		13.8508+0.0053 −0.0051	0.0905±0.0011		Vel. radial	32.145±0.01	0.515±0.019	3805±51	[10]
Gliese 357 b	0.00579	0.1086	3.93072	0.035	525	Trânsito	30.80	0.342	3505	[11]
Gliese 357 c	0.0107		9.1247	0.061	401.2	Vel. radial	30.80	0.342	3505	[11]
Gliese 357 d	0.019		55.661	0.204	219.6	Vel. radial	30.80	0.342	3505	Exoplaneta potencialmente habitável[11]
Gliese 378 b	0.04097±0.006		3.822±0.001	0.082±0.002		Vel. radial	48.79	0.56±0.01	3879±67	[12]
Gliese 411 b	0.00941±0.00145		12.9532±0.0079		349.83±0.32	Vel. radial	8.284	0.386±0.039	3563±60	[13] Estrela-mãe também conhecida como Lalande 21185
Gliese 685 b	0.028+0.0053 −0.0057		24.160+0.061 −0.047	0.1344+0.0052 −0.0051		Vel. radial	46.7102	0.3816±0.069	0.55±0.06	[14]
Gliese 686 b	0.022±0.003		15.53209+0.00166 −0.00167	0.091±0.004	379+24 −25	Vel. radial	26.612±0.008	0.42±0.05	3663±68	[15]
Gliese 3512 b	0.463		203.59	0.3380		Vel. radial	30.95	0.123	3081	[16]
Gliese 4276 b	0.05213+0.00296 −0.00299		13.352±0.003	0.082±0.002		Vel. radial	69.6±0.1	0.41±0.03	3387±51	Podem ser dois exoplanetas em ressonância orbital 2:1[17]
HAT-P-69b	3.58	1.676	4.7869491	0.06555	1930	Trânsito	1122	1.65	7394	[18]
HAT-P-70b	<6.78	1.87	2.74432452	0.04739	4000	Trânsito	1073	1.89	8450	[18][19]
HD 8326 b	0.210±0.062		158.991±1.440	0.533±0.011		Vel. radial	100.2	0.80±0.05	4914+51 −32	[20]
HD 13724 b	26.77+4.40 −2.20		14763.405+4901.655 −1599.795	12.40+2.60 −0.90		Vel. radial	141.9±0.17	0.76±0.71	5868±27	[21]
HD 15337 b	0.0236+0.0034 −0.0032	0.146±0.005	4.75615±0.00017	0.0522±0.0012	1001.0±11.5	Trânsito	146.36±0.23	0.90±0.03	5125±50	Estrela-mãe também conhecida como TOI-402[22]
HD 15337 c	0.0255+0.0057 −0.0053	0.213±0.011	17.1784±0.0016	0.1268±0.0038	642±10	Trânsito	146.36±0.23	0.90±0.03	5125±50	Estrela-mãe também conhecida como TOI-402[22]
HD 21411 b	0.207±0.081		84.288±0.127	0.362±0.007		Vel. radial	±95.11	0.89±0.05	5605+247 −132	[20]
HD 21749 b	0.073+0.007 −0.006	0.254+0.023 −0.020	35.61253+0.00060 −0.00062	0.1915+0.0058 −0.0063	422+15 −14	Trânsito	53.261±0.023	0.73±0.07	4640±100	[23]
HD 21749 c	<0.0116	0.0796+0.0057 −0.0052	7.78993+0.00051 −0.00044	0.0695+0.0021 −0.0023	701+25 −23	Trânsito	53.261±0.023	0.73±0.07	4640±100	[23]
HD 24085 b	0.0371±0.0098		2.0455±0.0002	0.034±0.001		Vel. radial	179.4	1.22±0.07	6034+32 −53	[20]
HD 25015 b	4.48+0.30 −0.28		6019.320+679.365 −262.980	6.19+0.45 −0.23		Vel. radial	122.2±0.22	0.86±0.05	5160±63	[20]
HD 39855 b	0.027±0.005		3.2498±0.0004	0.041±0.001		Vel. radial	75.93	0.87±0.05	5576+50 −46	[20]
HD 64114 b	0.0560±0.0110		45.791±0.070	0.246±0.005		Vel. radial	102.9	0.95±0.05	5676+32 −87	[20]
HD 65216c	1.295±0.062		577.6±1.328	1.301±0.020		Vel. radial	114.7±0.1	0.95±0.01	5718±8	Redescoberto em 2019 após falso positivo em 2013[24]
HD 85628 A b	1.675±0.241	1.515±0.044	2.8240932±0.0000046	0.0474±0.0013	1865±25	Trânsito	560±3	1.75±0.05	7800±200	Estrela-mãe também conhecida como MASCARA-4[25][26][27]
HD 92788 c	3.67+0.30 −0.25		11611.2975+5055.06 −905.820	10.50+2.90 −0.55		Vel. radial	113.1385	1.15±0.07	5744±24	[28]
HD 92987 b	16.88+0.69 −0.65		10354.8375+551.5275 −270.2850	9.62+0.36 −0.26		Vel. radial	142.2±0.22	1.08±0.06	5770±36	[21][29]
HD 97048 b	2.5			130		Imagem direta	603	2.4	10000	Descoberto usando o estudo da cinemática do disco,[30] Não confirmado.
HD 102843 b	0.3584±0.0456		3090.942±295.049	4.074±0.270		Vel. radial	205.05	0.95±0.05	5436+144 −69	[20]
HD 103949 b	0.0352±0.0072		120.878±0.446	0.439±0.009		Vel. radial	86.50	0.77±0.04	4792+66 −54	[20]
HD 181234 b	8.37+0.34 −0.36		7462.0575+80.3550 −76.7025	12.40+2.60 −0.90		Vel. radial	155.9±0.42	1.01±0.06	5386±60	[21]
HD 202696 b	1.996+0.220 −0.100		517.8+8.9 −3.9	1.566+0.016 −0.007		Vel. radial	618.3±5.2	1.91+0.09 −0.14	5040+71 −85	[31]
HD 202696 c	1.864+0.177 −0.227		946.6+20.7 −20.9	2.342+0.034 −0.035		Vel. radial	618.3±5.2	1.91+0.09 −0.14	5040+71 −85	[31]
HD 206255 b	0.108±0.022		96.045±0.317	0.461±0.009		Vel. radial	245.9	1.42±0.08	5635+82 −99	[20]
HD 210193 b	0.4817±0.0733		649.918±8.599	1.487±0.031		Vel. radial	137.8	1.04±0.06	5790+38 −50	[20]
HD 211970 b	0.0409±0.0079		25.201±0.025	0.143±0.003		Vel. radial	42.4	0.61±0.04	4127+149 −94	[20]
HD 213885 b	0.0278+0.0021 −0.0020	0.1557+0.0045 −0.0046	1.008035+0.000021 −0.000020	0.02012+0.00015 −0.00012		Trânsito	156.45721±0.4566189	1.068+0.020 −0.018	5978±50	Uma super-Terra em trânsito com um período de 1 dia com uma composição semelhante à da Terra em torno de uma estrela brilhante (V=7.9) revelada por TESS[32]
HD 213885 c	0.06277+0.00434 −0.00428		4.78503+0.00056 −0.000051	0.056798+0.00044 −0.00032	1265.4+7.3 −8.4	Vel. radial	156.45721±0.4566189	1.068+0.020 −0.018	5978±50	[32]
HD 221416 b	0.190±0.018	0.836+0.031 −0.028	14.2767±0.0037	0.1228+0.00025 −0.00026		Trânsito	310.0931	1.212±0.074	5080±90	Estrela-mãe também conhecida como TOI-197 ou HIP 116158[33]
HD 221420 b	9.70+1.10 −1.00		22482+4200 −4100	18.5±2.3		Vel. radial	101.7±0.12	1.67±0.11	5830±44	[29]
HIP 35173 b	0.0400±0.0085		41.516±0.077	0.217±0.004		Vel. radial	108.25	0.79±0.05	4881+55 −81	[20]
HIP 54373 b	0.02712±0.00579		7.760±0.003	0.063±0.001		Vel. radial	61.09	0.57±0.03	4021+226 −146	[20]
HIP 54373 c	0.03914±0.00664		15.144±0.008	0.0990±0.0020		Vel. radial	61.09	0.57±0.03	4021+226 −146	[20]
HIP 71135 b	0.0592±0.0129		87.190±0.381	0.335±0.007		Vel. radial	105.5	0.66±0.04	4146+107 −110	[20]
HIP 79098 (AB)b	20.5±4.5			345±6	2450±150	Imagem direta	477.2±8.2	3.75±1.25		Anã marrom[34]
HR 858 b		0.1860+0.0061 −0.0057	3.58599±0.00015	0.0480+0.0010 −0.0011	1572+22 −19	Trânsito	104.35	1.145+0.074 −0.080	6201±50	[35]
HR 858 c		0.1730±0.0062	5.97293+0.00060 −0.00053	0.0674+0.0014 −0.0016	1326+18 −16	Trânsito	104.35	1.145+0.074 −0.080	6201±50	[35]
HR 858 d		0.1931+0.0077 −0.0074	11.2300+0.0011 −0.0010	0.1027+0.0022 −0.0025	1075+15 −13	Trânsito	104.35	1.145+0.074 −0.080	6201±50	[35]
HR 5183 b	3.23		27000	18	171	Vel. radial	102.7	1.07	5794	Exoplaneta encontrado com uma das órbitas mais elípticas em 2019[36]
K2-32e		0.0901+0.0089 −0.008	4.34882+0.00069 −0.00075	0.04951±0.00055		Trânsito	516.6±4.2	0.856±0.028		Com um raio quase idêntico ao da Terra, é quase certamente um exoplaneta terrestre[37]
K2-43c		0.216	2.198884		1093.7	Trânsito	598	0.57	3841	[38]
K2-50c		0.089+0.011 −0.01	3.96151+0.00046 −0.00051			Trânsito	845.82±10.63	0.61±0.06		[39]
K2-63c		0.35±0.11	25.4556±0.0047	0.189±0.011		Trânsito	524.414±21	1.40±0.25	6771±303	Não confirmado
K2-133e		0.154+0.012 −0.012	26.5841+0.0018 −0.0017	0.1346±0.0011	296±10	Trânsito	245.3±0.7	0.46±0.01	3655±80	[40] Estrela-mãe também conhecida como LP 358-499
K2-146c	0.02358	0.195	4.00498		1093.7	Trânsito	259	0.33	3385	[41]
K2-166c		0.109+0.019 −0.015	3.80464+0.00091 −0.00105			Trânsito	1568.81+31.64 −29.03	1.07±0.03		[39]
K2-168c		0.105+0.012 −0.009	8.0468+0.0024 −0.0025			Trânsito	800.91±13.67	0.91±0.03		[38][39]
K2-198c		0.1270	3.3596055		1229.9	Trânsito	362	0.80	5213	[38]
K2-198d		0.2175	7.4500177		943.2	Trânsito	362	0.80	5213	[38]
K2-282c		0.132+0.012 −0.009	0.70531±0.00005			Trânsito	1638.22±25.34	0.94±0.04	5499±109	[39]3.º exoplaneta descoberto em 2020[42]
K2-286b	0.0214±0.0135	0.1873±0.0178	27.359±0.005	0.1768+0.0175 −0.0205	347+21 −11	Trânsito	248.9±0.8	0.64±0.02	3926±100	[43]
K2-288Bb		0.17±0.03	31.393463+0.000067 −0.000069	0.164±0.030	226.36±22.30	Trânsito	214.3±2.8	0.33±0.02	3341±276	[44]
K2-290b	0.0664	0.273±0.014	9.21165+0.00033 −0.00034	0.0923±0.0066	1230±38	Trânsito	897±12	1.19+0.07 −0.08	6302±120	[45] Dois planetas em órbita retrógrada[46]
K2-290c	0.774±0.047	1.006±0.050	48.36685+0.00041 −0.00040	0.0923±0.0066	676±16	Trânsito	897±12	1.19+0.07 −0.08	6302±120	[45] Dois planetas em órbita retrógrada[46]
K2-291b	0.0204±0.0036	0.1418+0.0085 −0.0064	2.225177+0.000066 −0.000068	0.03261±0.00044		Trânsito	295±2	0.93±0.04	5520±60	[47]
K2-293b		0.219+0.031 −0.022	13.1225+0.0011 −0.0012		750+170 −50	Trânsito	1290±22	0.96+0.04 −0.03	5532±78	[48]
K2-294b		0.148+0.019 −0.017	2.50387+0.00022 −0.00023		1425+79 −54	Trânsito	1230±20	0.99+0.03 −0.03	5612±50	[48]
K2-296b		0.167+0.018 −0.04	28.1656+0.0027 −0.0028			Trânsito	521.78±4.57	0.41+0.11 −0.05		Estrela-mãe também conhecida como EPIC 201238110[39]
K2-297b		0.062+0.005 −0.004	2.13174±0.00022			Trânsito	831.31±5.48	0.78+0.09 −0.17		Estrela-mãe também conhecida como EPIC 201497682[39]
K2-298b		0.098+0.012 −0.011	4.16959+0.00051 −0.00053			Trânsito	1441.42±26.65	0.8+0.08 −0.16		[39]
K2-299b		0.152+0.053 −0.028	4.50756+0.00062 −0.0006			Trânsito	1219.21±16.28	0.93+0.08 −0.1	5724±72	[39]Mais dois exoplanetas no sistema estelar descobertos em 2020[42]
K2-300b		0.09+0.021 −0.012	2.87814+0.00023 −0.00026			Trânsito	528.67±5.87	0.22+0.04 −0.06		[39]
K2-301b		0.145+0.015 −0.017	5.29711+0.00074 −0.0007			Trânsito	1491.42±44.98	0.56±0.05	4114±99	[39]
K2-302b		0.08+0.017 −0.018	2.25372±0.00047			Trânsito	359.49±3.52	0.41+0.1 −0.08		[39]Mais dois exoplanetas no sistema descobertos em 2020[42]
K2-303b		0.086+0.01 −0.013	1.58252+0.00017 −0.00018			Trânsito	1034.57±9.59	0.71+0.09 −0.03		[39]
K2-304b		0.118+0.007 −0.008	2.28943±0.00019			Trânsito	1380.78±23.94	0.83+0.09 −0.12		[39]
K2-305b		0.194+0.06 −0.037	18.0983+0.006 −0.0058			Trânsito	2030.88±33.92	1.11+0.14 −0.12		[39]
K2-306b		0.143+0.012 −0.014	34.885+0.011 −0.01			Trânsito	931.54±6.69	0.91+0.04 −0.16		[39]
K2-307b		0.1+0.011 −0.008	15.2841+0.0037 −0.0029			Trânsito	1053.09±20.65	0.98+0.04 −0.03	6004+77 −78	[39]Suspeita-se de mais dois exoplanetas no sistema,[49] segundo exoplaneta no sistema confirmado em 2021[50]
K2-308b		0.884±0.087	3.38628±0.00002			Trânsito		1.09±0.09	6100±263	[51]
K2-310b		0.2307±0.0112	13.6030±0.0013	0.0980±0.0040	536±18	Trânsito	1133.22	0.690±0.038	4684±79	[52]
K2-310c		0.2400±0.0130	65.5500±0.0089	0.280±0.006	316±10	Trânsito	1133.22	0.690±0.038	4684±79	[52]
KELT-23Ab	0.938+0.048 −0.044	1.323±0.025	2.255251+0.000011 −0.000012	0.03302+0.00068 −0.00064	1561±20	Trânsito	409.07±1.14	0.94+0.06 −0.05	5899±49	[53]
KELT-24b	5.18	1.272	5.5514926	0.06969	1459	Trânsito	313.2	1.46	6509
Kepler-47d	0.05984+0.07501 −0.03672	0.628+0.059 −0.044	187.366+0.069 −0.051	0.6992+0.0031 −0.0033		Trânsito	4900	0.957+0.013 −0.015
Kepler-65e	0.653+0.056 −0.055		258.8+1.5 −1.3	0.362±0.007		Vel. radial	999.3±8.8	1.25±0.06	6211±66
Kepler-82f	0.0658±0.0031		75.732±0.012	0.3395±0.0041		Tempo	3026.64	0.91±0.03	5401±108
Kepler-88d	3.15±0.15		1409+14 −13	2.45±0.02		Vel. radial	1243±7	1.022+0.023 −0.026	5513±67	[54]
Kepler-411d	0.0478±0.0160	0.2961±0.0093	58.02035±0.00056	0.279±0.004	410±10	Trânsito	500.94±1.57	0.87±0.04		[55]
Kepler-411e	0.0340±0.0035		31.509728±0.000085	0.186±0.003	503±9	Tempo	500.94±1.57	0.87±0.04		[55]
Kepler-448c	22		2500	4.2		Tempo	1318	1.5
Kepler-1659b	0.028±0.001	0.17±0.02	13.608±0.00006	0.11229		Trânsito	3812.7570	1.02
Kepler-1659c	0.0014±0.001	0.17±0.03	20.4415±0.0013	0.1472		Trânsito	3812.7570	1.02
Kepler-1660b	7.693±0.054			237.68977±0.08237		Tempo	4013.68±73.27	1.21		Esta detecção surgiu de uma busca por variações de tempo de eclipse entre os mais de 2.000 binários eclipsantes observados pelo Kepler.
KMT-2016-BLG-0212Lb	18			2.2		Microlente	21000	0.48
KMT-2016-BLG-1107Lb	3.283+3.468 −1.835			0.342+0.070 −0.085		Microlente	21700+3090 −4400	0.087+0.092 −0.049
KMT-2017-BLG-0165Lb	0.11+0.05 −0.04			3.45+0.98 −0.95		Microlente	14774.88	0.760+0.340 −0.270		[56][57]
KMT-2017-BLG-1038Lb	2.0+2.0 −1.1			1.8+0.6 −0.5		Microlente	19569.3826	0.37+0.36 −0.20
KMT-2017-BLG-1146Lb	0.710+0.800 −0.420			1.6±0.6		Microlente	21200.16	0.33+0.36 −0.20
KMT-2018-BLG-1990Lb	0.348			0.763		Microlente	3150	0.09
LHS 3844 b		0.1162±0.0020	0.46292913±0.00000190	0.00622±0.00017	805±20	Trânsito	48.60±0.03	0.15±0.01	3036±77
LP 791-18 b		0.0999	0.9480050	0.009690	650	Trânsito	86.41	0.14	2960	[58]
LP 791-18 c		0.206	4.989963	0.029392	370	Trânsito	86.41	0.14	2960	[58]
L 98-59 b	0.00157+0.00094 −0.00063	0.071±0.004	2.25314±0.00002	0.0233±0.0017		Trânsito	34.64	0.31±0.01	3367±150	[59]
L 98-59 c	0.00755+0.00566 −0.00252	0.12+0.007 −0.006	3.690621+0.000013 −0.000014	0.0324±0.0023-0.0024		Trânsito	34.64	0.31±0.01	3367±150	[59]
L 98-59 d	0.0107+0.0085 −0.0044	0.14±0.012	7.45086+0.00004 −0.00005	0.052±0.004		Trânsito	34.64	0.31±0.01	3367±150	[59]
LSPM J2116+0234 b	0.04185+0.00315 −0.00346		14.4399+0.0078 −0.0087	0.0876+0.0022 −0.0021		Vel. radial	57.53±0.07	0.43±0.03	3475±51
LTT 1445 Ab	0.0069	0.123	5.35882	0.03807	433	Trânsito	22.4	0.26	3337	[60]
MOA-bin-29b	0.600			0.48		Microlente	23200	0.03		[61]
NGTS-5b	0.229±0.037	1.136±0.023	3.3569866±0.0000026	0.0382±0.0013	952±24	Trânsito	309.5±8.5	0.66+0.07 −0.06	4987±41	[62]
NGTS-6b	1.339	1.326	0.8820590	0.01677		Trânsito	1010	0.77	4730	[63]
NGTS-8b	0.93	1.09	2.49970	0.035	1345	Trânsito	1420	0.89	5241	[64]
NGTS-9b	2.90	1.07	4.43527	0.058	1448	Trânsito	1420	1.34	6330	[64]
NSVS 14256825 b	14.15±0.16		3225±22	3.12±0.07		Tempo	2734.2±137.31	0.42±0.07	40000	Disputado[65]
NY Virginis c	5.54		8799			Tempo	1800			Disputado[66]
OGLE-2015-BLG-1649L	2.54			2.07		Microlente	1380	0.34		[67]
OGLE-2016-BLG-1067Lb	0.43			1.70		Microlente	3730	0.30
OGLE-2018-BLG-0532Lb	0.02062+0.00285 −0.00254			1.103+0.118 −0.107		Microlente				[68]
OGLE-2018-BLG-0596Lb	0.04383±0.00491			0.97±0.13		Microlente	18400±2400	0.23±0.03		[69]
OGLE-2018-BLG-0740Lb	4.8		5480	6.1		Microlente	10400	1.0	5912	[70]
OGLE-2018-BLG-1011Lb	1.8			6.1		Microlente	23000	0.18		[71]
OGLE-2018-BLG-1011Lc	2.8			0.80		Microlente	23000	0.18	[71]
PDS 70c	8.0±4.0			34.5±2		Imagem direta	369.96±1.7	0.76±0.02	3972±36	[72]
Qatar-8b	0.371±0.062	1.285±0.022	3.71495±0.00100	0.0474±0.0008	1457±14	Trânsito	902.5±11	1.03±0.05	5738±51	[73]
Qatar-9b	1.19±0.16	1.009±0.014	1.540731±0.000038	0.0234±0.0003	1134±9	Trânsito	689.5±5.2	0.72±0.02	4309±31	[73]
Qatar-10b	0.736±0.090	1.543±0.040	1.645321±0.000010	0.0286±0.0006	1955±25	Trânsito	1760±33	1.16±0.07	6124±46	[73]
SDSS J1228+1040 b		0.0009+0.0045 −0.000758	0.0857±0.00021	0.0034±0.000009	1800	Tempo	413.337977±0.4892346	0.705±0.05		O menor exoplaneta conhecido descoberto[74]
Teegarden b	0.00330+0.00041 −0.00038		4.9100±0.0014	0.0252+0.0008 −0.0009		Vel. radial	12.50±0.013	0.09±0.01	2904±51	[75]
Teegarden c	0.00349+0.00050 −0.00047		11.409±0.009	0.0443+0.0014 −0.0015	226	Vel. radial	12.50±0.013	0.09±0.01	2904±51	Exoplaneta potencialmente habitável[75]
TOI-125 b	0.0299±0.00277	0.2432±0.00669	4.65382±0.00033	0.05186+0.00086 −0.00077	1037±11	Trânsito	363.3382±1.435088	0.859+0.044 −0.038	5320±39	[76][77]
TOI-125 c	0.02086±0.00311	0.24614±0.009	9.15059+0.0007 −0.00082	0.814±0.0013	827.8±8.6	Trânsito	363.3382±1.435088	0.859+0.044 −0.038	5320±39	[77][78]
TOI-125 d	0.0428±0.0038	0.2614±0.0152	19.98+0.005 −0.0056	0.05186+0.00086 −0.00077	638.1±6.6	Trânsito	363.3382±1.435088	0.859+0.044 −0.038	5320±39	[77][79]
TOI-150b	1.75+0.14 −0.17	1.38±0.04	5.857342+0.000065 −0.000066	0.0583+0.0013 −0.0018	1493+29 −32	Trânsito	1095.89±6.52	1.25+0.07 −0.12	6003+104 −98	[80]
TOI-163b	1.22	1.489	4.231306	0.0580	1669	Trânsito	1359	1.44	6495	[80]
TOI-172b	5.42+0.22 −0.20	0.965+0.032 −0.029	9.47725+0.00064 −0.00079	0.0914±0.0017		Trânsito	1097.418	1.128+0.065 −0.061	5645±50	[81]
TOI-216 b	0.059±0.002	0.714+0.268 −0.179	17.1607	0.1293+0.0067 −0.0051	628+13 −11	Trânsito	583±3	0.77	5026±125	Semieixo maior são fortemente variáveis devido à interação do exoplaneta em uma escala de tempo de alguns anos[82][83][84]
TOI-216 c	0.56±0.02	0.902±0.018	34.525528	0.2069+0.0107 −0.0082	497+10 −8	Trânsito	583±3	0.77	5026±125	Semieixo maior são fortemente variáveis devido à interação do exoplaneta em uma escala de tempo de alguns anos[82][83][84]
TOI-270b	0.0050	0.1112	3.360080	0.0306	528	Trânsito	73.23	0.40	3386	[85][86]
TOI-270c	0.0193	0.216	5.660172	0.0472	424	Trânsito	73.23	0.40	3386	[85][86]
TOI-270d	0.0150	0.190	11.38014	0.0733	340	Trânsito	73.23	0.40	3386	[85][86]Atmosfera de vapor e hidrogênio[87]
TOI-564b	1.463+0.10 −0.096	1.02+0.71 −0.29	1.651144±0.000018	0.02734+0.00061 −0.00053	1714+20 −21	Trânsito	643.8±5.9	0.998+0.068 −0.057	5640+34 −37	[88]
TOI-905b	0.667+0.042 −0.041	1.171+0.052 −0.051	3.739494±0.000038	0.04666+0.00096 −0.0011	1192+39 −36	Trânsito	489.9+23.5 −22.5	0.968+0.061 −0.068	5570+150 −140	[88]
V1298 Tauri b		0.911+0.049 −0.053	24.13861+0.00102 −0.00090	0.1687+0.0025 −0.0026	668±22	Trânsito	353.9±2.3	1.10±0.05	4970±120	[89]
V1298 Tauri c		0.499	8.24958	0.0825	845±27	Trânsito	353.9	1.10	4970	[90]
V1298 Tauri d		0.572	12.4032	0.1083	677±22	Trânsito	353.9	1.10	4970	[90]
V1298 Tauri e		0.780	60	0.308	492+66 −104	Trânsito	353.9	1.10	4970	[90]
WASP-18Ac	0.174±0.039		2.1558	0.035		Tempo	404	1.22	6400	[91]
WASP-126c	0.202±0.077		7.63±0.17			Tempo	763.206±48.9235	1.12	5800	[91]False positive[92]
WASP-169b	0.561	1.304	5.6114118	0.0681	1604	Trânsito	2080	1.34	6110	[93]
WASP-171b	1.084	0.980	3.8186244	0.05040	1642	Trânsito	2530	1.17	5965	[93]
WASP-175b	0.990	1.208	3.0652907	0.04403	1571	Trânsito	2080	1.21	6229	[93]
WASP-177b	0.508±0.038	1.58+0.66 −0.83	3.071722±0.000001	0.03957±0.00058	1142±32	Trânsito	580.5583	0.876±0.038	5017±70	[94]
WASP-178b	1.66	1.81	3.3448285	0.0558	2470	Trânsito	1360	2.07	9360	[95]
WASP-180Ab	0.9	1.24	3.409264	0.048		Trânsito	830	1.3	6600	[96]
WASP-181b	0.299±0.034	1.184+0.071 −0.059	4.159±0.0000034	0.00542±0.00069	1186+32 −26	Trânsito	1444.872	1.04±0.04	5839±70	[94]
WASP-182b	0.148	0.850	3.3769848	0.0451	1479	Trânsito	1080	1.08	5638	[93]
WASP-183b	0.502±0.047	1.47+0.94 −0.33	4.11177±0.0000051	0.0463±0.00075	1111±30	Trânsito	1069.79292	1.00±0.03	0.784±0.038	[94]
WASP-184b	0.57	1.33	5.18170	0.0627	1480	Trânsito	2090	1.23	6000	[95]
WASP-185b	0.980	1.25	9.38755	0.0904	1160	Trânsito	897	1.12	5900	[95]
WASP-192b	2.30	1.23	2.8786765	0.0408	1620	Trânsito	1610	1.09	5910	[95]
KMT-2016-BLG-1836L b	2.2+1.9 −1.1			3.5+1.1 −0.9		Microlente	23157.1+2609.25 −7827.753	0.49+0.38 −0.25		[97]
HD 85628 A b	3.1±0.9	1.53+0.07 −0.04	2.82406±0.00003	0.047±0.004	2100±100	Trânsito	559.47±3.05	1.75±0.05	7800±200	Mascara-4b: estrela gigante A3V e um exoplaneta em órbita retrógrada.[98]
OGLE-2016-BLG-1227 b	0.79+1.3 −0.39			3.4+2.1 −1		Microlente		0.1+0.17 −0.05		[99]
OGLE-2013-BLG-0911L b	9.51+2.72 −1.69					Microlente	10500+1500 −1100	0.29+0.07 −0.05		[100]
L 1159-16 b	0.088+0.060 −0.035		241.59+4.6 −4.0	0.403+0.039 −0.047		Vel. radial	14.584±0.007	0.15	3158	[101][102] Refutado em 202[103]
L 1159-16 c	0.23±0.02		772.05+2.41 −1.84	0.88±0.02		Vel. radial	14.578±0.005	0.15±0.01	3154±54	[101][102] Confirmado em 2022 como L 1159-16 b[103]
TOI-175b	0.00126+0.00050 −0.00048	0.0642+0.0046 −0.0035	2.2531136+0.0000012 −0.0000015	0.02191+0.00080 −0.00084	627+33 −36	Trânsito	34.636±0.010	0.273±0.030	3415±135	[104] Até o momento, é o exoplaneta de menor massa confirmado, ou medido, usando a técnica da velocidade radial.[105] Estrela-mãe também conhecida como L 98-59.[106]

Listas específicas de exoplanetas

• Listas de exoplanetas
• Lista de exoplanetas descobertos antes de 2000 (32)
• Lista de exoplanetas descobertos entre 2000-2009 (379)
• Lista de exoplanetas descobertos em 2010 (109)
• Lista de exoplanetas descobertos em 2011 (179)
• Lista de exoplanetas descobertos em 2012 (149)
• Lista de exoplanetas descobertos em 2013 (151)
• Lista de exoplanetas descobertos em 2014 (878)
• Lista de exoplanetas descobertos em 2015 (151)
• Lista de exoplanetas descobertos em 2016 (1.513)
• Lista de exoplanetas descobertos em 2017 (158)
• Lista de exoplanetas descobertos em 2018 (306)
• Lista de exoplanetas descobertos em 2019 (172)
• Lista de exoplanetas descobertos em 2020 (264)
• Lista de exoplanetas descobertos em 2021 (242)
• Lista de exoplanetas descobertos em 2022 (314)
• Lista de exoplanetas descobertos em 2023 (75)
• Lista de exoplanetas potencialmente habitáveis
• Lista de nomes próprios de exoplanetas
• Lista de sistemas multiplanetários
• Lista dos primeiros exoplanetas
• Lista de exoplanetas extremos
• Lista de exoplanetas descobertos usando a sonda Kepler
• Lista de exoplanetas observados durante a missão K2 do Kepler
• Lista de candidatos de exoplanetas para água líquida
• Lista dos exoplanetas mais próximos
• Lista de candidatos a exoplaneta terrestres mais próximos
• Lista de exoplanetas em trânsito

Referências

1. «NASA Exoplanet Archive». exoplanetarchive.ipac.caltech.edu. California Institute of Technology. Consultado em 27 de março de 2018 
2. «Extrasolar Planet's Catalogue (sic)». Kyoto University. Consultado em 20 de dezembro de 2019 
3. «The Extrasolar Planets Encyclopaedia». Consultado em 20 de janeiro de 2018 
4. Luque, R.; Trifonov, T.; Reffert, S.; Quirrenbach, A.; Lee, M. H.; Albrecht, S.; Andersen, M. Fredslund; Antoci, V.; Grundahl, F.; Schwab, C.; Wolthoff, V. (13 de outubro de 2019). «Precise radial velocities of giant stars XIII. A second Jupiter orbiting in 4:3 resonance in the 7 CMa system». Astronomy & Astrophysics. A136. 631 páginas. Bibcode:2019A&A...631A.136L. arXiv:1910.05853. doi:10.1051/0004-6361/201936464 
5. «A second planet in the Beta Pictoris system». Nanowerk. 19 de agosto de 2019. Consultado em 20 de agosto de 2019 
6. Benatti, S.; Nardiello, D.; Malavolta, L.; Desidera, S.; Borsato, L.; Nascimbeni, V.; Damasso, M.; D'Orazi, V.; Mesa, D.; Messina, S.; Esposito, M.; Bignamini, A.; Claudi, R.; Covino, E.; Lovis, C.; Sabotta, S. (outubro de 2019). «A possibly inflated planet around the bright young star DS Tucanae A». Astronomy & Astrophysics (em inglês). 630: A81. Bibcode:2019A&A...630A..81B. ISSN 0004-6361. arXiv:1904.01591. doi:10.1051/0004-6361/201935598 
7. Feng, Fabo; Anglada-Escudé, Guillem; Tuomi, Mikko; Jones, Hugh R. A.; Chanamé, Julio; Butler, Paul R.; Janson, Markus (14 de outubro de 2019), «Detection of the nearest Jupiter analog in radial velocity and astrometry data», Monthly Notices of the Royal Astronomical Society, 490 (4): 5002–5016, Bibcode:2019MNRAS.490.5002F, arXiv:1910.06804, doi:10.1093/mnras/stz2912 
8. Stefansson, Gudmundur; et al. (2020), «A Sub-Neptune-sized Planet Transiting the M2.5 Dwarf G 9-40: Validation with the Habitable-zone Planet Finder», The Astronomical Journal, 159 (3): 100, Bibcode:2020AJ....159..100S, arXiv:1912.00291, doi:10.3847/1538-3881/ab5f15 
9. G 9-40 b
10. Perger, M.; et al. (abril de 2019). «Gliese 49: Activity evolution and detection of a super-Earth». Astronomy & Astrophysics. 624. 19 páginas. Bibcode:2019A&A...624A.123P. ISSN 0004-6361. arXiv:1903.04808. doi:10.1051/0004-6361/201935192. A123 
11. Jenkins, J. S.; Pozuelos, F. J.; Tuomi, M.; Berdiñas, Z. M.; Díaz, M. R.; Vines, J. I.; Suárez, Juan C.; Peña Rojas, P. A. (2019), «GJ 357: A low-mass planetary system uncovered by precision radial velocities and dynamical simulations», Monthly Notices of the Royal Astronomical Society, 490 (4): 5585–5595, arXiv:1909.00831, doi:10.1093/mnras/stz2937 
12. Hobson, M. J.; et al. (2019), «The SOPHIE search for northern extrasolar planets», Astronomy & Astrophysics, 625: A18, arXiv:1902.05998, doi:10.1051/0004-6361/201834890 
13. Díaz, R. F.; et al. (2019), «The SOPHIE search for northern extrasolar planets», Astronomy & Astrophysics, 625: A17, arXiv:1902.06004, doi:10.1051/0004-6361/201935019 
14. Pinamonti, M.; Sozzetti, A.; Giacobbe, P.; Damasso, M.; Scandariato, G.; Perger, M.; González Hernández, J. I.; Lanza, A. F.; Maldonado, J.; Micela, G.; Suárez Mascareño, A.; Toledo-Padrón, B.; Affer, L.; Benatti, S.; Bignamini, A.; Bonomo, A. S.; Claudi, R.; Cosentino, R.; Desidera, S.; Maggio, A.; Martinez Fiorenzano, A.; Pagano, I.; Piotto, G.; Rainer, M.; Rebolo, R.; Ribas, I. (2019), «The HADES RV programme with HARPS-N at TNG», Astronomy & Astrophysics, 625: A126, arXiv:1903.11853, doi:10.1051/0004-6361/201834969 
15. Affer, L.; Damasso, M.; Micela, G.; Poretti, E.; Scandariato, G.; Maldonado, J.; Lanza, A. F.; Covino, E.; Rubio, A. Garrido (31 de janeiro de 2019). «HADES RV program with HARPS-N at TNG. IX. A super-Earth around the M dwarf Gl686». Astronomy & Astrophysics. 622: A193. Bibcode:2019A&A...622A.193A. ISSN 0004-6361. arXiv:1901.05338. doi:10.1051/0004-6361/201834868 
16. Morales, J. C.; et al. (2019). «A giant exoplanet orbiting a very-low-mass star challenges planet formation models». Science. 365 (6460): 1441–1445. Bibcode:2019Sci...365.1441M. ISSN 0036-8075. PMID 31604272. arXiv:1909.12174. doi:10.1126/science.aax3198 
17. Nagel, E.; Czesla, S.; Schmitt, J. H. M. M.; Dreizler, S.; Anglada-Escudé, G.; Rodríguez, E.; Ribas, I.; Reiners, A.; Quirrenbach, A.; Amado, P. J.; Caballero, J. A.; Aceituno, J.; Béjar, V. J. S.; Cortés-Contreras, M.; González-Cuesta, L.; Guenther, E. W.; Henning, T.; Jeffers, S. V.; Kaminski, A.; Kürster, M.; Lafarga, M.; López-González, M. J.; Montes, D.; Morales, J. C.; Passegger, V. M.; Rodríguez-López, C.; Schweitzer, A.; Zechmeister, M. (2019), «The CARMENES search for exoplanets around M dwarfs», Astronomy & Astrophysics, 622, pp. A153, arXiv:1901.02367, doi:10.1051/0004-6361/201834569 
18. Zhou, G.; et al. (2019), «Two New HATNet Hot Jupiters around a Stars and the First Glimpse at the Occurrence Rate of Hot Jupiters from TESS», The Astronomical Journal, 158 (4): 141, Bibcode:2019AJ....158..141Z, arXiv:1906.00462, doi:10.3847/1538-3881/ab36b5 
19. Bello-Arufe, Aaron; Cabot, Samuel H. C.; Mendonça, João M.; Buchhave, Lars A.; Rathcke, Alexander D. (2022), «Mining the Ultrahot Skies of HAT-P-70b: Detection of a Profusion of Neutral and Ionized Species», The Astronomical Journal, 163 (2): 96, Bibcode:2022AJ....163...96B, arXiv:2112.03292, doi:10.3847/1538-3881/ac402e 
20. Feng, Fabo; Crane, Jeffrey D.; Wang, Sharon Xuesong; Teske, Johanna K.; Shectman, Stephen A.; Díaz, Matías R.; Thompson, Ian B.; Jones, Hugh R. A.; Butler, R. Paul (2019), «Search for Nearby Earth Analogs. I. 15 Planet Candidates Found in PFS Data», The Astrophysical Journal Supplement Series, 242 (2), p. 25, Bibcode:2019ApJS..242...25F, arXiv:1904.08567, doi:10.3847/1538-4365/ab1b16 
21. Rickman, E. L.; et al. (2019), «The CORALIE survey for southern extrasolar planets», Astronomy & Astrophysics, 625, pp. A71, arXiv:1904.01573, doi:10.1051/0004-6361/201935356 
22. Dumusque, Xavier; et al. (2019), «Hot, rocky and warm, puffy super-Earths orbiting TOI-402 (HD 15337)», Astronomy & Astrophysics, 627, pp. A43, Bibcode:2019A&A...627A..43D, arXiv:1903.05419, doi:10.1051/0004-6361/201935457 
23. Dragomir, Diana; et al. (2019), «TESS Delivers Its First Earth-sized Planet and a Warm Sub-Neptune», The Astrophysical Journal, 875 (2): L7, Bibcode:2019ApJ...875L...7D, arXiv:1901.00051, doi:10.3847/2041-8213/ab12ed 
24. Wittenmyer, Robert A.; et al. (2019). «Truly eccentric – I. Revisiting eight single-eccentric planetary systems». Monthly Notices of the Royal Astronomical Society. 484 (4): 5859–5867. Bibcode:2019MNRAS.484.5859W. arXiv:1901.08471. doi:10.1093/mnras/stz290 
25. Dorval, P.; Talens, G. J. J.; Otten, G. P. P. L.; Brahm, R.; Jordán, A.; Torres, P.; Vanzi, L.; Zapata, A.; Henry, T.; Paredes, L.; Jao, W. C.; James, H.; Hinojosa, R.; Bakos, G. A.; Csubry, Z.; Bhatti, W.; Suc, V.; Osip, D.; Mamajek, E. E.; Mellon, S. N.; Wyttenbach, A.; Stuik, R.; Kenworthy, M.; Bailey, J.; Ireland, M.; Crawford, S.; Lomberg, B.; Kuhn, R.; Snellen, I. (2020), «MASCARA-4 b/B Ring-1 b: A retrograde hot Jupiter around a bright A-type star», Astronomy & Astrophysics, 635: A60, Bibcode:2020A&A...635A..60D, arXiv:1904.02733, doi:10.1051/0004-6361/201935611 
26. Ahlers, John P.; Kruse, Ethan; Colón, Knicole D.; Dorval, Patrick; Talens, Geert Jan; Snellen, Ignas; Albrecht, Simon; Otten, Gilles; Ricker, George; Vanderspek, Roland; Latham, David; Seager, Sara; Winn, Joshua; Jenkins, Jon M.; Haworth, Kari; Cartwright, Scott; Morris, Robert; Rowden, Pam; Tenenbaum, Peter; Ting, Eric B. (2020), «Gravity-darkening Analysis of the Misaligned Hot Jupiter MASCARA-4 B», The Astrophysical Journal, 888 (2): 63, Bibcode:2020ApJ...888...63A, arXiv:1911.05025, doi:10.3847/1538-4357/ab59d0 
27. Zhang, Yapeng; Snellen, Ignas A. G.; Wyttenbach, Aurèlien; Nielsen, Louise D.; Lendl, Monika; Casasayas-Barris, Núria; Chaverot, Guillaume; Kesseli, Aurora Y.; Lovis, Christophe; Pepe, Francesco A.; Psaridi, Angelica; Seidel, Julia V.; Udry, Stéphane; Ulmer-Moll, Solène (2022), «Transmission spectroscopy of the ultra-hot Jupiter MASCARA-4 B», Astronomy & Astrophysics, 666: A47, arXiv:2208.11427, doi:10.1051/0004-6361/202244203 
28. Rickman, E. L.; et al. (maio de 2019). «The CORALIE survey for southern extrasolar planets. XVIII. Three new massive planets and two low-mass brown dwarfs at greater than 5 AU separation». Astronomy & Astrophysics. 625. 16 páginas. Bibcode:2019A&A...625A..71R. arXiv:1904.01573. doi:10.1051/0004-6361/201935356. A71 
29. Kane, Stephen R.; Dalba, Paul A.; Li, Zhexing; Horch, Elliott P.; Hirsch, Lea A.; Horner, Jonathan; Wittenmyer, Robert A.; Howell, Steve B.; Everett, Mark E.; Butler, R. Paul; Tinney, Christopher G.; Carter, Brad D.; Wright, Duncan J.; Jones, Hugh R. A.; Bailey, Jeremy; o'Toole, Simon J. (2019), «Detection of Planetary and Stellar Companions to Neighboring Stars via a Combination of Radial Velocity and Direct Imaging Techniques», The Astronomical Journal, 157 (6), p. 252, Bibcode:2019AJ....157..252K, arXiv:1904.12931, doi:10.3847/1538-3881/ab1ddf 
30. Pinte, C.; Van Der Plas, G.; Ménard, F.; Price, D. J.; Christiaens, V.; Hill, T.; Mentiplay, D.; Ginski, C.; Choquet, E.; Boehler, Y.; Duchêne, G.; Perez, S.; Casassus, S. (2023), «Kinematic detection of a planet carving a gap in a protoplanetary disk», Nature Astronomy, 3 (12), pp. 1109–1114, arXiv:1907.02538, doi:10.1038/s41550-019-0852-6 
31. Trifonov, Trifon; Stock, Stephan; Henning, Thomas; Reffert, Sabine; Kürster, Martin; Lee, Man Hoi; Bitsch, Bertram; Butler, R. Paul; Vogt, Steven S. (2019), «Two Jovian Planets around the Giant Star HD 202696: A Growing Population of Packed Massive Planetary Pairs around Massive Stars?», The Astronomical Journal, 157 (3): 93, Bibcode:2019AJ....157...93T, arXiv:1901.01935, doi:10.3847/1538-3881/aafa11 
32. Espinoza, Néstor; et al. (2019), «HD 213885b: A transiting 1-d-period super-Earth with an Earth-like composition around a bright (V = 7.9) star unveiled by TESS», Monthly Notices of the Royal Astronomical Society, 491 (2), pp. 2982–2999, arXiv:1903.07694, doi:10.1093/mnras/stz3150 
33. Huber, Daniel; et al. (2019), «A Hot Saturn Orbiting an Oscillating Late Subgiant Discovered byTESS», The Astronomical Journal, 157 (6), p. 245, Bibcode:2019AJ....157..245H, arXiv:1901.01643, doi:10.3847/1538-3881/ab1488 
34. Janson, Markus; Asensio-Torres, Ruben; André, Damien; Bonnefoy, Mickaël; Delorme, Philippe; Reffert, Sabine; Desidera, Silvano; Langlois, Maud; Chauvin, Gaël; Gratton, Raffaele; Bohn, Alexander J.; Eriksson, Simon C.; Marleau, Gabriel-Dominique; Mamajek, Eric E.; Vigan, Arthur; Carson, Joseph C. (2019), «The B-Star Exoplanet Abundance Study: A co-moving 16–25 MJup companion to the young binary system HIP 79098», Astronomy & Astrophysics, 626, pp. A99, Bibcode:2019A&A...626A..99J, arXiv:1906.02787, doi:10.1051/0004-6361/201935687 
35. Vanderburg, Andrew; et al. (2019). «TESS Spots a Compact System of Super-Earths around the Naked-Eye Star HR 858». The Astrophysical Journal. 881 (1): L19. Bibcode:2019ApJ...881L..19V. arXiv:1905.05193. doi:10.3847/2041-8213/ab322d 
36. Blunt, Sarah; Endl, Michael; Weiss, Lauren M.; Cochran, William D.; Howard, Andrew W.; MacQueen, Phillip J.; et al. (agosto 2019). «Radial Velocity Discovery of an Eccentric Jovian World Orbiting at 18 au». The Astronomical Journal. 158 (5): 181. Bibcode:2019AJ....158..181B. arXiv:1908.09925. doi:10.3847/1538-3881/ab3e63 
37. Heller, René; Rodenbeck, Kai; Hippke, Michael (2019), «Transit least-squares survey», Astronomy & Astrophysics, 625, pp. A31, arXiv:1904.00651, doi:10.1051/0004-6361/201935276 
38. Hedges, Christina; Saunders, Nicholas; Barentsen, Geert; Coughlin, Jeffrey L.; De Miranda Cardoso, Josè Vinícius; Kostov, Veselin B.; Dotson, Jessie; Cody, Ann Marie (2019), «Four Small Planets Buried in K2 Systems: What Can We Learn for TESS?», The Astrophysical Journal, 880 (1), pp. L5, Bibcode:2019ApJ...880L...5H, arXiv:1907.08244, doi:10.3847/2041-8213/ab2a74 
39. Heller, René; Hippke, Michael; Rodenbeck, Kai (2019), «Transit least-squares survey», Astronomy & Astrophysics, 627, pp. A66, arXiv:1905.09038, doi:10.1051/0004-6361/201935600 
40. Wells, R.; Poppenhaeger, K.; Watson, C. A. (2019), «Validation of a temperate fourth planet in the K2-133 multiplanet system», Monthly Notices of the Royal Astronomical Society, 487 (2): 1865–1873, arXiv:1905.05206, doi:10.1093/mnras/stz1334 
41. Hamann, Aaron; Montet, Benjamin T.; Fabrycky, Daniel C.; Agol, Eric; Kruse, Ethan (2019), «K2-146: Discovery of Planet c, Precise Masses from Transit Timing, and Observed Precession», The Astronomical Journal, 158 (3), p. 133, Bibcode:2019AJ....158..133H, arXiv:1907.10620, doi:10.3847/1538-3881/ab32e3 
42. Adams, Elisabeth R.; Jackson, Brian; Johnson, Samantha; Ciardi, David R.; Cochran, William D.; Endl, Michael; Everett, Mark E.; Furlan, Elise; Howell, Steve B.; Jayanthi, Prasanna; MacQueen, Phillip J.; Matson, Rachel A.; Partyka-Worley, Ciera; Schlieder, Joshua; Scott, Nicholas J.; Stanton, Sevio M.; Ziegler, Carl (2020), Ultra Short Period Planets in K2 III: Neighbors Are Common With 12 New Multi-Planet Systems and 26 Newly Validated Planets in Campaigns 0-8, 10, arXiv:2011.11698 
43. Alonso, E Díez; Hernández, J I González; Toledo–Padrón, B.; Gómez, S L Suárez; Mascareño, A Suárez; Aguado, D. S.; Gutiérrez, C González; Cabrera-Lavers, A.; Carballido–Landeira, J.; Bonavera, L.; Juez, F J de Cos; Rebolo, R. (2019), «A transiting super-Earth close to the inner edge of the habitable zone of an M0 dwarf star», Monthly Notices of the Royal Astronomical Society, arXiv:1901.04739, doi:10.1093/mnras/sty3467 
44. Feinstein, Adina D.; et al. (7 de janeiro de 2019). «K2-288Bb: A Small Temperate Planet in a Low-mass Binary System Discovered by Citizen Scientists» (PDF). The Astronomical Journal. 157 (2). 40 páginas. Bibcode:2019AJ....157...40F. arXiv:1902.02789. doi:10.3847/1538-3881/aafa70. hdl:1721.1/121222 
45. Hjorth, M.; Justesen, A. B.; Hirano, T.; Albrecht, S.; Gandolfi, D.; Dai, F.; Alonso, R.; Barragán, O.; Esposito, M.; Kuzuhara, M.; Lam, K. W. F.; Livingston, J. H.; Montanes-Rodriguez, P.; Narita, N.; Nowak, G.; Prieto-Arranz, J.; Redfield, S.; Rodler, F.; Van Eylen, V.; Winn, J. N.; Antoniciello, G.; Cabrera, J.; Cochran, W. D.; Csizmadia, Sz; De Leon, J.; Deeg, H.; Eigmüller, Ph; Endl, M.; Erikson, A.; et al. (2019), «K2-290: a warm Jupiter and a mini-Neptune in a triple-star system», Monthly Notices of the Royal Astronomical Society, 484 (3): 3522, Bibcode:2019MNRAS.484.3522H, arXiv:1901.03716, doi:10.1093/mnras/stz139 
46. Hjorth, Maria; Albrecht, Simon; Hirano, Teruyuki; Winn, Joshua N.; Dawson, Rebekah I.; Zanazzi, J. J.; Knudstrup, Emil; Sato, Bun'ei (2021), «A backward-spinning star with two coplanar planets», Proceedings of the National Academy of Sciences of the United States of America, 118 (8): e2017418118, Bibcode:2021PNAS..11817418H, PMC 7923373, PMID 33593909, arXiv:2102.07677, doi:10.1073/pnas.2017418118 
47. Kosiarek, Molly R.; et al. (2019), «K2-291b: A Rocky Super-Earth in a 2.2 day Orbit», The Astronomical Journal, 157 (3), p. 116, Bibcode:2019AJ....157..116K, arXiv:1901.04558, doi:10.3847/1538-3881/aafe83 
48. Dattilo, Anne; Vanderburg, Andrew; Shallue, Christopher J.; Mayo, Andrew W.; Berlind, Perry; Bieryla, Allyson; Calkins, Michael L.; Esquerdo, Gilbert A.; Everett, Mark E.; Howell, Steve B.; Latham, David W.; Scott, Nicholas J.; Yu, Liang (2019), «Identifying Exoplanets with Deep Learning. II. Two New Super-Earths Uncovered by a Neural Network in K2 Data», The Astronomical Journal, 157 (5), p. 169, Bibcode:2019AJ....157..169D, arXiv:1903.10507, doi:10.3847/1538-3881/ab0e12 
49. Kovacs, Geza (2020), «More planetary candidates from K2 Campaign 5 using TRAN_K2», Astronomy & Astrophysics, 643: A169, Bibcode:2020A&A...643A.169K, arXiv:2008.10075, doi:10.1051/0004-6361/202038726 
50. De Leon, J. P.; Livingston, J.; Endl, M.; Cochran, W. D.; Hirano, T.; García, R. A.; Mathur, S.; Lam, K W F.; Korth, J.; Trani, A. A.; Dai, F.; Díez Alonso, E.; Castro-González, A.; Fridlund, M.; Fukui, A.; Gandolfi, D.; Kabath, P.; Kuzuhara, M.; Luque, R.; Savel, A. B.; Gill, H.; Dressing, C.; Giacalone, S.; Narita, N.; Palle, E.; Van Eylen, V.; Tamura, M. (2021), «37 new validated planets in overlapping K2 campaigns», Monthly Notices of the Royal Astronomical Society, 508: 195–218, arXiv:2108.05621, doi:10.1093/mnras/stab2305 
51. Rampalli, Rayna; Vanderburg, Andrew; Bieryla, Allyson; Latham, David W.; Quinn, Samuel N.; Baranec, Christoph; Berlind, Perry; Calkins, Michael L.; Cochran, William D.; Duev, Dmitry A.; Endl, Michael; Esquerdo, Gilbert A.; Jensen-Clem, Rebecca; Law, Nicholas M.; Mayo, Andrew W.; Riddle, Reed; Salama, Maïssa (2019), «A Hot Saturn Near (But Unassociated with) the Open Cluster NGC 1817», The Astronomical Journal, 158 (2), p. 62, Bibcode:2019AJ....158...62R, arXiv:1906.02395, doi:10.3847/1538-3881/ab27c2 
52. Two temperate sub-Neptunes transiting the star EPIC 212737443
53. Johns, Daniel; et al. (2019), «KELT-23Ab: A Hot Jupiter Transiting a Near-solar Twin Close to the TESS and JWST Continuous Viewing Zones», The Astronomical Journal, 158 (2): 78, Bibcode:2019AJ....158...78J, arXiv:1903.00031, doi:10.3847/1538-3881/ab24c7 
54. Weiss, Lauren M.; Fabrycky, Daniel C.; Agol, Eric; Mills, Sean M.; Howard, Andrew W.; Isaacson, Howard; Petigura, Erik A.; Fulton, Benjamin; Hirsch, Lea; Sinukoff, Evan (29 de abril de 2020). «The Discovery of the Long-Period, Eccentric Planet Kepler-88 d and System Characterization with Radial Velocities and Photodynamical Analysis» (PDF). The Astronomical Journal. 159 (5). 242 páginas. Bibcode:2020AJ....159..242W. ISSN 1538-3881. arXiv:1909.02427. doi:10.3847/1538-3881/ab88ca 
55. Sun, L.; Ioannidis, P.; Gu, S.; Schmitt, J. H. M. M.; Wang, X.; Kouwenhoven, M. B. N. (2019), «Kepler-411: a four-planet system with an active host star», Astronomy & Astrophysics, 624: A15, Bibcode:2019A&A...624A..15S, arXiv:1902.09719, doi:10.1051/0004-6361/201834275 
56. Jung, Youn Kil; Gould, Andrew; Zang, Weicheng; Hwang, Kyu-Ha; Ryu, Yoon-Hyun; Han, Cheongho; Yee, Jennifer C.; Albrow, Michael D.; Chung, Sun-Ju; Shin, In-Gu; Shvartzvald, Yossi; Zhu, Wei; Cha, Sang-Mok; Kim, Dong-Jin; Kim, Hyoun-Woo; Kim, Seung-Lee; Lee, Chung-Uk; Lee, Dong-Joo; Lee, Yongseok; Park, Byeong-Gon; Pogge, Richard W.; KMTNet Collaboration; Penny, Matthew T.; Mao, Shude; Fouqué, Pascal; Wang, Tianshu; CFHT Collaboration (2018), «KMT-2017-BLG-0165Lb: A Super-Neptune mass planet Orbiting a Sun-like Host Star», The Astronomical Journal, 157 (2): 72, Bibcode:2019AJ....157...72J, arXiv:1809.01288, doi:10.3847/1538-3881/aaf87f 
57. Ryu, Yoon-Hyun; Mróz, Przemek; Gould, Andrew; Hwang, Kyu-Ha; Kim, Hyoun-Woo; Yee, Jennifer C.; Albrow, Michael D.; Chung, Sun-Ju; Jung, Youn Kil; Shin, In-Gu; Shvartzvald, Yossi; Zang, Weicheng; Cha, Sang-Mok; Kim, Dong-Jin; Kim, Seung-Lee; Lee, Chung-Uk; Lee, Dong-Joo; Lee, Yongseok; Park, Byeong-Gon; Han, Cheongho; Pogge, Richard W.; Udalski, Andrzej; Poleski, Radek; Skowron, Jan; Szymański, Michał K.; Soszyński, Igor; Pietrukowicz, Paweł; Kozłowski, Szymon; Ulaczyk, Krzysztof; et al. (2021), «KMT-2017-BLG-2820 and the Nature of the Free-Floating Planet Population», The Astronomical Journal, 161 (3): 126, Bibcode:2021AJ....161..126R, arXiv:2010.07527, doi:10.3847/1538-3881/abd55f 
58. Crossfield, Ian J. M.; et al. (2019), «A Super-Earth and Sub-Neptune Transiting the Late-type M Dwarf LP 791-18», The Astrophysical Journal Letters, 883 (1), pp. L16, Bibcode:2019ApJ...883L..16C, arXiv:1906.09267, doi:10.3847/2041-8213/ab3d30 
59. Kostov, Veselin B.; et al. (2019), «The L 98-59 System: Three Transiting, Terrestrial-size Planets Orbiting a Nearby M Dwarf», The Astronomical Journal, 158 (1), p. 32, Bibcode:2019AJ....158...32K, arXiv:1903.08017, doi:10.3847/1538-3881/ab2459 
60. Winters, Jennifer G.; et al. (2019), «Three Red Suns in the Sky: A Transiting, Terrestrial Planet in a Triple M-dwarf System at 6.9 pc», The Astronomical Journal, 158 (4): 152, Bibcode:2019AJ....158..152W, arXiv:1906.10147, doi:10.3847/1538-3881/ab364d 
61. Kondo, Iona; et al. (2019), «MOA-bin-29b: A Microlensing Gas-giant Planet Orbiting a Low-mass Host Star», The Astronomical Journal, 158 (6): 224, Bibcode:2019AJ....158..224K, arXiv:1905.01239, doi:10.3847/1538-3881/ab4e9e 
62. Eigmüller, Philipp; et al. (2019), «NGTS-5b: A highly inflated planet offering insights into the sub-Jovian desert», Astronomy & Astrophysics, 625: A142, Bibcode:2019A&A...625A.142E, arXiv:1905.02593, doi:10.1051/0004-6361/201935206 
63. Vines, Jose I.; et al. (2019), «NGTS-6b: An ultrashort period hot-Jupiter orbiting an old K dwarf», Monthly Notices of the Royal Astronomical Society, 489 (3): 4125–4134, arXiv:1904.07997, doi:10.1093/mnras/stz2349 
64. Costes, Jean C.; et al. (2019), «NGTS-8b and NGTS-9b: Two non-inflated hot-Jupiters», Monthly Notices of the Royal Astronomical Society, arXiv:1911.02814, doi:10.1093/mnras/stz3140 
65. Zhu, Li-Ying; Qian, Sheng-Bang; Fernández Lajús, Eduardo; Wang, Zhi-Hua; Li, Lin-Jia; -J, Li L. (2019). «A close-in substellar object orbiting the sdOB-type eclipsing-binary system NSVS 14256825». Research in Astronomy and Astrophysics. 19 (9): 134. Bibcode:2019RAA....19..134Z. arXiv:1904.11664. doi:10.1088/1674-4527/19/9/134 
66. Song, Shuo; Mai, Xinyu; Mutel, Robert L.; Pulley, David; Faillace, George; Watkins, Americo (2019). «An Updated Model for Circumbinary Planets Orbiting the SDB Binary NY Virginis». The Astronomical Journal. 157 (5): 184. Bibcode:2019AJ....157..184S. doi:10.3847/1538-3881/ab1139 
67. Nagakane, M.; et al. (2019), «OGLE-2015-BLG-1649Lb: A Gas Giant Planet around a Low-mass Dwarf», The Astronomical Journal, 158 (5), p. 212, Bibcode:2019AJ....158..212N, arXiv:1907.11536, doi:10.3847/1538-3881/ab4881 
68. Ryu, Yoon-Hyun; et al. (2020), «OGLE-2018-BLG-0532Lb: Cold Neptune with Possible Jovian Sibling», The Astronomical Journal, 160 (4): 183, Bibcode:2020AJ....160..183R, arXiv:1905.08148, doi:10.3847/1538-3881/abaa3f 
69. Jung, Youn Kil; et al. (2019), «Spitzer Parallax of OGLE-2018-BLG-0596: A Low-mass-ratio Planet around an M Dwarf», The Astronomical Journal, 158 (1), p. 28, Bibcode:2019AJ....158...28J, arXiv:1905.05873, doi:10.3847/1538-3881/ab237f 
70. Han, Cheongho; et al. (2019), «Spectroscopic Mass and Host-star Metallicity Measurements for Newly Discovered Microlensing Planet OGLE-2018-BLG-0740Lb», The Astronomical Journal, 158 (3), p. 102, Bibcode:2019AJ....158..102H, arXiv:1905.00155, doi:10.3847/1538-3881/ab2df4 
71. Han, Cheongho; et al. (2019), «OGLE-2018-BLG-1011Lb,c: Microlensing Planetary System with Two Giant Planets Orbiting a Low-mass Star», The Astronomical Journal, 158 (3), p. 114, Bibcode:2019AJ....158..114H, arXiv:1907.01741, doi:10.3847/1538-3881/ab2f74 
72. «A Pair of Fledgling Planets Directly Seen Growing Around a Young Star». hubblesite.org. NASA. 3 de junho de 2019. Consultado em 3 de junho de 2019 
73. Alsubai, Khalid; Tsvetanov, Zlatan I.; Pyrzas, Stylianos; Latham, David W.; Bieryla, Allyson; Eastman, Jason; Mislis, Dimitris; Esquerdo, Gilbert A.; Southworth, John; Mancini, Luigi; Esamdin, Ali; Liu, Jinzhong; Ma, Lu; Bretton, Marc; Pallé, Enric; Murgas, Felipe; Vilchez, Nicolas P. E.; Parviainien, Hannu; Montañes-Rodriguez, Pilar; Narita, Norio; Fukui, Akihiko; Kusakabe, Nobuhiko; Tamura, Motohide; Barkaoui, Khalid; Pozuelos, Francisco; Gillon, Michael; Jehin, Emmanuel; Benkhaldoun, Zouhair; Daassou, Ahmed; Dalee, Hani (2019), «Qatar Exoplanet Survey: Qatar-8b, 9b, and 10b—A Hot Saturn and Two Hot Jupiters», The Astronomical Journal, 157 (6), p. 224, Bibcode:2019AJ....157..224A, arXiv:1903.09258, doi:10.3847/1538-3881/ab19bc 
74. Manser, Christopher J.; et al. (abril de 2019). «A planetesimal orbiting within the debris disc around a white dwarf star». Science. 364 (6435): 66–69. Bibcode:2019Sci...364...66M. PMID 30948547. arXiv:1904.02163. doi:10.1126/science.aat5330 
75. Caballero, J. A.; Reiners, Ansgar; Ribas, I.; Dreizler, S.; Zechmeister, M.; et al. (12 de junho de 2019). «The CARMENES search for exoplanets around M dwarfs. Two temperate Earth-mass planet candidates around Teegarden's Star» (PDF). Astronomy & Astrophysics (em inglês). 627: A49. Bibcode:2019A&A...627A..49Z. ISSN 0004-6361. arXiv:1906.07196. doi:10.1051/0004-6361/201935460 
76. «The Extrasolar Planet Encyclopaedia — TOI-813 b». exoplanet.eu 
77. Nielsen, L. D.; Gandolfi, D.; Armstrong, D. J.; Jenkins, J. S.; Fridlund, M.; Santos, N. C.; Dai, F.; Adibekyan, V.; Luque, R.; Steffen, J. H.; Esposito, M.; Meru, F.; Sabotta, S.; Bolmont, E.; Kossakowski, D.; Otegi, J. F.; Murgas, F.; Stalport, M.; Rodler, F.; Díaz, M. R.; Kurtovic, N. T.; Ricker, G.; Vanderspek, R.; Latham, D. W.; Seager, S.; Winn, J. N.; Jenkins, J. M.; Allart, R.; Almenara, J. M.; et al. (2020), «Mass determinations of the three mini-Neptunes transiting TOI-125», Monthly Notices of the Royal Astronomical Society, 492 (4): 5399, Bibcode:2020MNRAS.492.5399N, arXiv:2001.08834, doi:10.1093/mnras/staa197 
78. «exoplanet.eu toi-125_c» 
79. «exoplanet.eu toi-125_d» 
80. Kossakowski, Diana; et al. (2019), «TOI-150b and TOI-163b: Two transiting hot Jupiters, one eccentric and one inflated, revealed by TESS near and at the edge of the JWST CVZ», Monthly Notices of the Royal Astronomical Society, 490, pp. 1094–1110, arXiv:1906.09866, doi:10.1093/mnras/stz2433 
81. Rodriguez, Joseph E.; et al. (2019), «An Eccentric Massive Jupiter Orbiting a Subgiant on a 9.5-day Period Discovered in the Transiting Exoplanet Survey Satellite Full Frame Images», The Astronomical Journal, 157 (5), p. 191, Bibcode:2019AJ....157..191R, arXiv:1901.09950, doi:10.3847/1538-3881/ab11d9 
82. Teachey, Alex; Jansen, Tiffany; Bakos, Gaspar; Torres, Guillermo; Hartman, Joel; Nesvorný, David; Kipping, David (2019). «A resonant pair of warm giant planets revealed by TESS». Monthly Notices of the Royal Astronomical Society. 486 (4): 4980–4986. arXiv:1902.03900. doi:10.1093/mnras/stz1141 
83. Dawson, Rebekah I.; et al. (2019). «TOI-216b and TOI-216 c: Two Warm, Large Exoplanets in or Slightly Wide of the 2:1 Orbital Resonance». The Astronomical Journal. 158 (2): 65. Bibcode:2019AJ....158...65D. arXiv:1904.11852. doi:10.3847/1538-3881/ab24ba 
84. Dawson, Rebekah I.; Huang, Chelsea X.; Brahm, Rafael; Collins, Karen A.; Hobson, Melissa J.; Jordán, Andrés; Dong, Jiayin; Korth, Judith; Trifonov, Trifon; Abe, Lyu; Agabi, Abdelkrim; Bruni, Ivan; Butler, R. Paul; Barbieri, Mauro; Collins, Kevin I.; Conti, Dennis M.; Crane, Jeffrey D.; Crouzet, Nicolas; Dransfield, Georgina; Evans, Phil; Espinoza, Néstor; Gan, Tianjun; Guillot, Tristan; Henning, Thomas; Lissauer, Jack J.; Jensen, Eric L. N.; Sainte, Wenceslas Marie; Mékarnia, Djamel; Myers, Gordon; et al. (2021), «Precise transit and radial-velocity characterization of a resonant pair: a warm Jupiter TOI-216c and eccentric warm Neptune TOI-216b», The Astronomical Journal, 161 (4): 161, Bibcode:2021AJ....161..161D, arXiv:2102.06754, doi:10.3847/1538-3881/abd8d0 
85. «太陽系外惑星「TOI 270 b、c、d」を発見。地球外生命体の存在は？». sorae. 30 de julho de 2019. Consultado em 8 de janeiro de 2021 
86. Van Eylen, Vincent; Astudillo-Defru, Nicola; Bonfils, Xavier; Livingston, J.; Hirano, T.; Luque, Rafael; Lam, K. W. F.; Justesen, A. B.; Winn, J. N.; Gandolfi, D.; Nowak, G.; Palle, E.; Albrecht, S.; Dai, F.; Campos Estrada, B.; Owen, J. E.; Foreman-Mackey, D.; Fridlund, M.; Korth, J.; Mathur, S.; Forveille, Thierry; Mikal-Evans, T.; Osborne, H. L. M.; Ho, C. S. K.; Almenara, José M.; Artigau, Étienne; Barragán, O.; Bouchy, François; Cabrera, J.; et al. (2021), «Masses and compositions of three small planets orbiting the nearby M dwarf L231-32 (TOI-270) and the M dwarf radius valley», Monthly Notices of the Royal Astronomical Society, arXiv:2101.01593, doi:10.1093/mnras/stab2143 
87. Mikal-Evans, Thomas; Madhusudhan, Nikku; Dittmann, Jason; Guenther, Maximilian N.; Welbanks, Luis; Vincent Van Eylen; Crossfield, Ian J. M.; Daylan, Tansu; Kreidberg, Laura (2023), «Hubble Space Telescope Transmission Spectroscopy for the Temperate Sub-Neptune TOI-270 d: A Possible Hydrogen-rich Atmosphere Containing Water Vapor», The Astronomical Journal, 165 (3), p. 84, Bibcode:2023AJ....165...84M, arXiv:2211.15576, doi:10.3847/1538-3881/aca90b 
88. Davis, Allen B.; Wang, Songhu; et al. (2020). «TOI 564 b and TOI 905 b: Grazing and Fully Transiting Hot Jupiters Discovered by TESS». Astronomical Journal (em inglês). 160 (5). 229 páginas. Bibcode:2020AJ....160..229D. arXiv:1912.10186. doi:10.3847/1538-3881/aba49d. hdl:1721.1/134083 
89. David, Trevor J.; Cody, Ann Marie; Hedges, Christina L.; Mamajek, Eric E.; Hillenbrand, Lynne A.; Ciardi, David R.; Beichman, Charles A.; Petigura, Erik A.; Fulton, Benjamin J.; Isaacson, Howard T.; Howard, Andrew W.; Gagné, Jonathan; Saunders, Nicholas K.; Rebull, Luisa M.; Stauffer, John R.; Vasisht, Gautam; Hinkley, Sasha (2019), «A Warm Jupiter-sized Planet Transiting the Pre-main-sequence Star V1298 Tau», The Astronomical Journal, 158 (2): 79, Bibcode:2019AJ....158...79D, arXiv:1902.09670, doi:10.3847/1538-3881/ab290f 
90. David, Trevor J.; Petigura, Erik A.; Luger, Rodrigo; Foreman-Mackey, Daniel; Livingston, John H.; Mamajek, Eric E.; Hillenbrand, Lynne A. (2019), «Four newborn planets transiting the young solar analog V1298 Tau», The Astrophysical Journal, 885 (1): L12, Bibcode:2019ApJ...885L..12D, arXiv:1910.04563, doi:10.3847/2041-8213/ab4c99 
91. Pearson, Kyle A. (2019), «A Search for Multiplanet Systems with TESS Using a Bayesian N-body Retrieval and Machine Learning», The Astronomical Journal, 158 (6), p. 243, Bibcode:2019AJ....158..243P, arXiv:1907.03377, doi:10.3847/1538-3881/ab4e1c 
92. Maciejewski, G. (2020), «Search for Planets in Hot Jupiter Systems with Multi-Sector TESS Photometry. I. No Companions in Planetary Systems KELT-18, KELT-23, KELT-24, Qatar-8, WASP-62, WASP-100, WASP-119, and WASP-126», Acta Astronomica, 70 (3), p. 181, Bibcode:2020AcA....70..181M, arXiv:2010.11977, doi:10.32023/0001-5237/70.3.2 
93. Nielsen, L. D.; Bouchy, F.; Turner, O. D.; Anderson, D. R.; Barkaoui, K.; Benkhaldoun, Z.; Burdanov, A.; Cameron, A Collier; Delrez, L.; Gillon, M.; Ducrot, E.; Hellier, C.; Jehin, E.; Lendl, M.; Maxted, P F L.; Pepe, F.; Pollacco, D.; Pozuelos, F. J.; Queloz, D.; Ségransan, D.; Smalley, B.; Triaud, A H M J.; Udry, S.; West, R. G. (2019), «WASP-169, WASP-171, WASP-175, and WASP-182: Three hot Jupiters and one bloated sub-Saturn mass planet discovered by WASP-South», Monthly Notices of the Royal Astronomical Society, 489 (2), pp. 2478–2487, arXiv:1904.10388, doi:10.1093/mnras/stz2351 
94. Turner, Oliver D.; Anderson, D. R.; Barkaoui, K.; Bouchy, F.; Benkhaldoun, Z.; Brown, D J A.; Burdanov, A.; Collier Cameron, A.; Ducrot, E.; Gillon, M.; Hellier, C.; Jehin, E.; Lendl, M.; Maxted, P F L.; Nielsen, L. D.; Pepe, F.; Pollacco, D.; Pozuelos, F. J.; Queloz, D.; Ségransan, D.; Smalley, B.; Triaud, A H M J.; Udry, S.; West, R. G. (2019), «Three hot-Jupiters on the upper edge of the mass–radius distribution: WASP-177, WASP-181, and WASP-183», Monthly Notices of the Royal Astronomical Society, 485 (4), pp. 5790–5799, arXiv:1903.06622, doi:10.1093/mnras/stz742 
95. Hellier, Coel; Anderson, D. R.; Barkaoui, K.; Benkhaldoun, Z.; Bouchy, F.; Burdanov, A.; Collier Cameron, A.; Delrez, L.; Gillon, M.; Jehin, E.; Nielsen, L. D.; Maxted, P. F. L.; Pepe, F.; Pollacco, D.; Pozuelos, F. J.; Queloz, D.; Ségransan, D.; Smalley, B.; Triaud, A. H. M. J.; Turner, O. D.; Udry, S.; West, R. G. (2019), «WASP-South hot Jupiters: WASP-178b, WASP-184b, WASP-185b & WASP-192b», Monthly Notices of the Royal Astronomical Society, 490 (1): 1479, Bibcode:2019MNRAS.490.1479H, arXiv:1907.11667, doi:10.1093/mnras/stz2713 
96. Temple, L. Y.; Hellier, C.; Anderson, D. R.; Barkaoui, K.; Bouchy, F.; Brown, D J A.; Burdanov, A.; Collier Cameron, A.; Delrez, L.; Ducrot, E.; Evans, D.; Gillon, M.; Jehin, E.; Lendl, M.; Maxted, P F L.; McCormac, J.; Murray, C.; Nielsen, L. D.; Pepe, F.; Pollacco, D.; Queloz, D.; Ségransan, D.; Smalley, B.; Thompson, S.; Triaud, A H M J.; Turner, O. D.; Udry, S.; West, R. G.; Zouhair, B. (2019), «WASP-180Ab: Doppler tomography of a hot Jupiter orbiting the primary star in a visual binary», Monthly Notices of the Royal Astronomical Society, 490 (2), pp. 2467–2474, arXiv:1903.08002, doi:10.1093/mnras/stz2632 
97. Yang, Hongjing; et al. (2020). «KMT-2016-BLG-1836Lb: A Super-Jovian Planet from a High-cadence Microlensing Field». The Astronomical Journal. 159 (3). 98 páginas. Bibcode:2020AJ....159...98Y. arXiv:1908.10011. doi:10.3847/1538-3881/ab660e 
98. «MASCARA-4 b/bRing-1b - A retrograde hot Jupiter around the bright A3V star HD 85628». GroundAI 
99. «The Extrasolar Planet Encyclopaedia — OGLE-2016-BLG-1227 b». exoplanet.eu 
100. «The Extrasolar Planet Encyclopaedia — OGLE-2013-BLG-0911L b». exoplanet.eu 
101. Barnes, J. R.; et al. (11 de junho de 2019), Frequency of planets orbiting M dwarfs in the Solar neighbourhood (em inglês), Bibcode:2019arXiv190604644T, arXiv:1906.04644v1. 
102. Feng, Fabo; Shectman, Stephen A.; Clement, Matthew S.; Vogt, Steven S.; Tuomi, Mikko; Teske, Johanna K.; Burt, Jennifer; Crane, Jeffrey D.; Holden, Bradford; Sharon Xuesong Wang; Thompson, Ian B.; Diaz, Matias R.; Paul Butler, R. (2020), «Search for Nearby Earth Analogs. III. Detection of ten new planets, three planet candidates, and confirmation of three planets around eleven nearby M dwarfs», The Astrophysical Journal Supplement Series, 250 (2): 29, Bibcode:2020ApJS..250...29F, arXiv:2008.07998, doi:10.3847/1538-4365/abb139 
103. Quirrenbach, A.; Passegger, V. M.; Trifonov, T.; Amado, P. J.; Caballero, J. A.; Reiners, A.; Ribas, I.; Aceituno, J.; Béjar, V. J. S.; Chaturvedi, P.; González-Cuesta, L.; Henning, T.; Herrero, E.; Kaminski, A.; Kürster, M.; Lalitha, S.; Lodieu, N.; López-González, M. J.; Montes, D.; Pallé, E.; Perger, M.; Pollacco, D.; Reffert, S.; Rodríguez, E.; López, C. Rodríguez; Shan, Y.; Tal-Or, L.; Osorio, M. R. Zapatero; Zechmeister, M. (2022), «The CARMENES search for exoplanets around M dwarfs», Astronomy & Astrophysics, 663: A48, arXiv:2203.16504, doi:10.1051/0004-6361/202142915 
104. Kostov, Veselin B.; Schlieder, Joshua E.; et al. (2019). «The L 98-59 System: Three Transiting, Terrestrial-size Planets Orbiting a Nearby M Dwarf». The Astronomical Journal. 158 (1). 32 páginas. Bibcode:2019AJ....158...32K. ISSN 1538-3881. arXiv:1903.08017. doi:10.3847/1538-3881/ab2459. hdl:1721.1/124742 
105. Demangeon, O. D. S.; Zapatero Osorio, M. R.; Alibert, Y.; Barros, S. C. C.; Adibekyan, V.; Tabernero, H. M.; Antoniadis-Karnavas, A.; Camacho, J. D.; al, et (2021). «Warm terrestrial planet with half the mass of Venus transiting a nearby star» (PDF). Astronomy & Astrophysics. 653: A41. Bibcode:2021A&A...653A..41D. arXiv:2108.03323. doi:10.1051/0004-6361/202140728 
106. «Planet L 98-59 b». exoplanet.eu. Consultado em 6 de agosto de 2021