Liste von Doppel- und Mehrfachsternen

Diese Liste von Doppel- und Mehrfachsternen enthält die meisten visuellen Doppel- und Mehrfachsterne mit Bayer- und Flamsteed-Bezeichnung. Darüber hinaus sind enthalten:

einige Doppelsterne der 5. und 6. Größenklasse ohne Bayer- und Flamsteed-Bezeichnung mit etwa gleichen Helligkeiten,
besonders sonnennahe Systeme (bis ca. 20 Lj),
einige astrophysikalisch interessante Systeme.

Die Liste enthält in der Regel nicht:

Doppel- und Mehrfachsterne, deren Begleiter nur schwache, unverbundene Feldsterne sind,
nicht aufgelöste spektroskopische Doppelsterne (außer Untersysteme eines visuellen Doppelsterns),
unsichere und unbestätigte Komponenten,
Röntgendoppelsterne.

Braune Zwerge werden in der Liste wie Sterne behandelt.

Erläuterung der Liste

Stb. – Sternbild (lateinisches Kürzel), in dem das System liegt.
System – Bezeichnung des Systems. Innerhalb eines Sternbildes kommen zuerst alle Systeme mit Bayer-Bezeichnung, danach alle Systeme mit Flamsteed-Bezeichnung, danach alle sonstigen Systeme.
Untersystem (nur bei Mehrfachsternen) – Die Zahl gibt die hierarchische Ebene an (1 = Hauptsystem, 2 = Untersystem, 3 = Unter-Untersystem usw.). In Klammer steht die Bezeichnung des Hauptsterns (Hauptkomponente, engl. primary) und des Begleitsterns (Begleiter, engl. secondary), getrennt durch einen Schrägstrich. Die Bezeichnung richtet sich nach dem WDS bzw. dem allgemeinen Benennungsschema bei Mehrfachsternen (Hartkopf & Mason 2004, bibcode:2004RMxAC..21...83H).
Typ – Einteilung nach Beobachtbarkeit. Abgesehen von den optischen Doppelsternen (O), die nur zufällig am Himmel nebeneinander stehen, unterscheidet man bei den physischen (d. h. gravitativ aneinander gebundenen) Doppelsternen zwischen visuellen, spektroskopischen, astrometrischen und fotometrischen (bedeckungsveränderlichen) Doppelsternen. Die Typen schließen sich gegenseitig nicht aus, z. B. konnten viele spektroskopisch oder astrometrisch entdeckte Doppelsterne später mit besserer Teleskoptechnik in visuelle Doppelsterne aufgelöst werden. Der Übergang zwischen „klassischen“ visuellen Doppelsternen und CPM-Paaren ist unscharf.
- Visuelle Doppelsterne (engl. visual binaries) sind Doppelsterne, die in zwei getrennte Lichtquellen aufgelöst werden können. V – „klassischer“ visueller Doppelstern, der mit dem Auge (mit Hilfe eines Fernrohrs) trennbar ist oder es zum Zeitpunkt der Entdeckung war. V(aO) – konnte mit aktiver oder adaptiver Optik aufgelöst werden. V(IR) – konnte im infraroten Bereich des elektromagnetischen Spektrums aufgelöst werden. V(HST) – konnte mit dem Hubble-Weltraumteleskop aufgelöst werden. I – mit Long-Baseline-Interferometrie auflösbar. SI – mit Speckle-Interferometrie auflösbar. CPM – common proper motion pairs sind weite visuelle Doppelsterne, die ihre Verwandtschaft durch ihre gemeinsame Eigenbewegung verraten. Sie zeigen kaum bis keine Relativbewegung zueinander und sind nur schwach bis gar nicht aneinander gebunden. Ein gemeinsamer Entstehungsursprung (Sternhaufen, Assoziation) wird angenommen.
- SB – Spektroskopische Doppelsterne (engl. spectroscopic binaries) weisen periodische Verschiebungen bzw. Aufspaltungen der Spektrallinien aufgrund der sich ändernden Radialgeschwindigkeit durch den Umlauf auf (siehe: Doppler-Effekt).
- A – Astrometrische Doppelsterne (engl. astrometric binaries) verraten sich durch ihre nichtlineare Eigenbewegung aufgrund des Umlaufs um das Baryzentrum mit ihrer nicht sichtbaren Komponente. Anmerkung: Oft wurden enge visuelle (interferometrische) Doppelsterne astrometrisch entdeckt. Der Einfachheit halber wird der Typ der astrometrischen Doppelsterne zusätzlich nur bei nicht-visuellen Systemen (SB, E) angeführt.
- E – Fotometrische (bedeckungsveränderliche) Doppelsterne (engl. eclipsing binaries) zeigen periodische Helligkeitsabfälle infolge der gegenseitigen Bedeckungen der Komponenten.
- Neben diesen Grundtypen gibt es noch weitere Kategorien, die aber in der Liste nicht verwendet werden, z. B. durch Sternbedeckungen nachgewiesene Doppelsterne (engl. occultation binaries), Röntgendoppelsterne (engl. X-ray binaries), so genannte Composite-Spectra-Sterne (Roter Riese + A/B-Hauptreihenstern) etc.
V₁, V₂ – Scheinbare visuelle Helligkeit der Hauptkomponente (V₁) und des Begleiters (V₂). Bei nicht aufgelösten Systemen ist die Helligkeit des Begleiters in der Regel unbekannt; in diesem Fall ist die Helligkeit in V₁ die Gesamthelligkeit beider Komponenten (auf einen Zellenverbund wurde verzichtet).
ρ – Winkeldistanz zwischen den Komponenten (entfällt bei spektroskopischen und interferometrischen Doppelsternen).
Ep. – Jahr, in dem die Winkeldistanz gemessen wurde (entfällt bei spektroskopischen und interferometrischen Doppelsternen).
U – Umlaufzeit in Jahren (a) oder Tagen (d). Die Umlaufzeit ist ohne Fehlerangabe und gerundet angegeben. Sie ist grün markiert, wenn die Qualität der Bahnelemente im 6th Orbit Catalog mit Grade 1 („endgültig“) oder 2 („gut“) bewertet ist, d. h. künftig keine großen Anpassungen der Bahnelemente mehr zu erwarten sind.
S₁, S₂ – Spektralklasse der Hauptkomponente (S₁) und des Begleiters (S₂). Ein angehängter Doppelpunkt (z. B. K3:) zeigt an, dass der Spektraltyp unsicher ist.
M₁, M₂ – Masse der Hauptkomponente (M₁) und des Begleiters (M₂) in Sonnenmassen. Ein Σ zeigt an, dass sich die Masse aus mehreren Einzelsternen zusammensetzt.
Entdeckercode – Details siehe Artikelende.
WDS – Nummer im Washington Double Star Catalog. Die WDS-Nummer fungiert zugleich als Koordinatenangabe, z. B. WDS 09285+0903 entspricht RA = 09 h 28,5 min, Dec = 09° 03'.
d – Entfernung des Systems in Parsec. Fett markierte Entfernungen stammen von präzise bestimmten dynamischen Parallaxen. Bei optischen Doppelsternen bezieht sich die Entfernung auf die hellere Komponente.
Quelle – Details siehe Artikelende.

Liste

Die Spalten sind mit einem Klick auf den Doppelpfeil sortierbar.

Stb.	System	Untersystem	Typ	V₁	V₂	ρ	Ep.	U	S₁	S₂	M₁	M₂	Entdecker- code	WDS	d	Quelle
And	α And (Sirrah)		I/SB	2,2	4,2	–	–	96,7 d	B8 IV–VHgMn		3,8 ± 0,2	1,6 ± 0,1	MKT 11	00084+2905	30	^[1] (M, d)
And	γ And	1 (γ¹ = A / γ² = BC)	V	2,3	5,0	9,8″	2020		K2 IIb	B9 V + A3 V + A0 V		Σ 8,3 ± 0,3	STF 205	02039+4220	120	^[2] (S_Ba/Bb, M),^[3] (U_Ba/Bb)
		2 (B/C)	V	5,3	6,5	0,2″	2010	63 a	B9 V + A3 V	A0 V	Σ 5,7	2,6	STT 38
		3 (Ba/Bb)	SB	6,5	.	–	–	2,67 d	B9 V	A3 V	3,3	2,4
And	δ And		V(aO)/SB	3,3	10,0	0,4″	2014	53 a	K3 III	K4	Σ 2,6 ± 0,4		BTM 1	00393+3052	32	^[4] (S, M)
And	η And		I/SB	4,4	.	–	–	116 d	G8 III	G8 III	2,4	2,3	MKT 2	00572+2325	70	^[5] (S, M)
And	ο And	1 (A/B)	SI	3,7	6,0	0,2″	2015	117 a	B6 IIIpe + A2p		Σ 18 ± 2		WRH 37	23019+4220	210	^[6] (U_Ba/Bb), ^[3] (S_Aa/Ab), ^[7] (M)
		2 (Aa/Ab)	SI	3,8	5,7	0,1″	1997	5,6 a	B6 IIIpe	A2p			BLA 12
		2 (Ba/Bb)	SB	6,0	.	–	–	33,0 d
And	π And	1 (A/B)	CPM	4,4	7,1	36,2″	2019		B3 V + B6 V	A6 V	Σ 10,6		H 5 17	00369+3343	180	^[8] (S_Aa/Ab, M)
And	π And	2 (Aa/Ab)	I/SB	4,9	5,3	–	–	144 d	B3 V	B6 V	5,8	4,8	MKT 1	00369+3343	180	^[8] (S_Aa/Ab, M)
And	φ And		V	4,6	5,6	0,6″	2016	550 a	B6 IV	B9 V	Σ 6,5 ± 2,8		STT 515	01095+4715	220	^[9] (S, M)
And	ψ And	1 (Aa,Ab/Ac)	SI	5,2	8,1	0,4″	2018						MCA 75	23460+4625	310
And	ψ And	2 (Aa/Ab)	SI	5,2	.	0,2″	2003						MCA 75	23460+4625	310
And	ω And	1 (A/B)	V	4,8	11,7	0,7″	2002		F3 V + F5 V		Σ 1,9		BU 999	01277+4524	29	^[10] (S, M)
And	ω And	2 (Aa/Ab)	I/SB	4,8	.	–	–	255 d	F3 V	F5 V	1,0	0,9	CIA 4	01277+4524	29	^[10] (S, M)
And	2 And		V	5,2	7,7	0,2″	2009	74 a	B8	A7	3,3	1,9	BU 1147	23026+4245	130	^[11] (S, M)
And	26 And		V	6,1	10,1	6,1″	2016						STT 5	00187+4347	190
And	36 And		V	6,1	6,5	1,2″	2019	168 a	G6 IV	K6 IV	Σ 1,9 ± 0,2		STF 73	00550+2338	38	^[9] (S, M)
And	56 And		O	5,8	6,1	202,5″	2014						STFA 4	01562+3715	100
And	59 And		V	6,1	6,7	16,6″	2019						STF 222	02109+3902	140
And	HR 647		V	6,6	7,2	0,7″	2018	145 a	F2	F7	Σ 2,4 ± 0,3		STF 228	02140+4729	40	^[12] (S, M)
And	HR 283		V	6,0	6,8	7,9″	2018	9200 a	B9,5 Vnn	A2 Vn			STF 79	01001+4443	150
And	HR 9074		V	6,5	6,7	2,5″	2019	570 a	G0 V	G0 V			STF 3050	23595+3343	30	^[13] (S)
And	Groombridge 34		V	8,3	11,4	34,1″	2019	2600 a	M1 V	M3,5 V	0,4	0,2	GRB 34	00184+4401	3,6	^[14] (S₁, M₁), ^[15] (S₂, M₂)
Ant	δ Ant		V	5,6	9,8	10,3″	2017		B9–9,5 V	F9 Ve			H N 50	10296-3036	140
Ant	ζ¹ Ant		V	6,2	6,8	8,3″	2020		A1 V	A1 V			DUN 78	09308-3153	120
Ant	θ Ant		SI	5,3	6,2	0,0″	2020	18,3 a	G7 III	A8 V	2,1 ± 0,5	1,8 ± 0,1	FIN 326	09442-2746	100	^[16] (S, M)
Ant	2MASS 0939-2448			.	.	–	–		T8		0,03–0,05	0,02–0,03			5,3	^[17] (S, M, d)
Aps	δ¹ Aps		CPM	4,9	5,4	103,0″	2010						BSO 22	16203-7842	230
Aps	ι Aps		SI	5,9	6,5	0,1″	2018	160 a	B9	B9,5	5,4	4,7	FIN 373	17221-7007	320	^[11] (S, M)
Aql	β Aql		V	3,8	11,4	13,4″	2015		G8 IV	M3			STT 532	19553+0624	14
Aql	δ Aql		SI/SB	3,4	9,2	0,1″	1979	3,4 a	F0 IV	K:	≈ 1,7	≈ 0,7	BNU 6	19255+0307	16	^[18] (V₂, S, M)
Aql	ε Aql		SB/A	4,0	.	–	–	3,5 a					eps Aql	18596+1504	42
Aql	η Aql		V(HST)	3,8	10,0	0,7″	2012	≈ 870 a	F6 Iab	B9,8 V	5,7	2,3	EVS 2	19525+0100	270	^[19] (U, M, d)
Aql	θ Aql		I/SB	3,5	5,0	–	–	17,1 d	B9 III	B9 III	3,2 ± 0,7	2,5 ± 0,6	MKT 10	20113-0049	71	^[3] (S), ^[1] (M, d)
Aql	π Aql		V	6,3	6,8	1,4″	2019		G8 III	A3 V			STF 2583	19487+1149	160
Aql	χ Aql		V	5,4	6,6	0,4″	2020						STT 380	19426+1150	260
Aql	5 Aql	1 (A/B)	V	5,9	7,0	12,5″	2019		kA3hA5VmA6	kA4hF0VmF3			STF 2379	18465-0058	94	^[20] (S_Aa/Ab), ^[3] (U_{Aa od. Ab})
		2 (Aa/Ab)	SI	5,9	6,8	0,0″	2014	41 a	Am	Am			MCA 53
		3 (Aa oder Ab)	SB	.	.	–	–	4,77 d	Am
Aql	11 Aql		O	5,3	9,3	20,8″	2019						STF 2424	18591+1338	48
Aql	15 Aql		O	5,5	7,0	39,6″	2019						SHJ 286	19050-0402	95
Aql	18 Aql		V	5,4	6,4	0,3″	2015	210 a					HEI 568	19070+1104	210
Aql	23 Aql		V	5,3	8,3	3,2″	2011						STF 2492	19185+0105	120
Aql	45 Aql		SI	5,9	7,6	0,1″	2020	10,2 a	A3 IV				CHR 88	19407-0037	110
Aql	57 Aql		CPM	5,7	6,4	36,3″	2019		B7 Vn	B8 V			STF 2594	19546-0814	140
Aql	QS Aql	1 (A/B)	V	6,7	6,8	0,1″	2018	77 a	B5 V + F3	B4			KUI 93	19411+1349	680	^[21] (U_Aa/Ab, S)
Aql	QS Aql	2 (Aa/Ab)	E/SB	6,7	.	–	–	2,51 d	B5 V	F3				19411+1349	680	^[21] (U_Aa/Ab, S)
Aql	Gliese 752 / VB 10		CPM	9,1	17,4	75,8″	2012		dM3,5	M8 Ve	0,5	0,09	LDS 6334	19169+0510	5,9	^[22] (S, M)
Aqr	δ Aqr		I/A	3,3	.	–	–	1,3 a	A3 V	G5:			76 Aqr	22547-1549	35	^[23] (S)
Aqr	ζ Aqr	1 (ζ² = A / ζ¹ = B)	V	4,3	4,5	2,4″	2020	430 a	F1 IV	F3 IV	Σ 2,0	1,4	STF 2909	22288-0001	28	^[24] (S), ^[25] (M)
Aqr	ζ Aqr	2 (Aa/Ab)	SI	4,3	11,3	0,7″	2020	25,1 a	F1 IV		1,4	0,6	EBE 1	22288-0001	28	^[24] (S), ^[25] (M)
Aqr	ξ Aqr		SI/SB	4,8	7,0	0,0″	2008	25,5 a					MCA 68	21378-0751	55
Aqr	ψ¹ Aqr	1 (A/BC)	CPM	4,4	9,9	48,9″	2014		K1 III	K1–2 V	1,4 ± 0,3		STFB 12	23159-0905	44	^[26] (M)
Aqr	ψ¹ Aqr	2 (B/C)	V	10,5	10,7	0,4″	2020	84 a	K1–2 V				BU 1220	23159-0905	44	^[26] (M)
Aqr	ψ³ Aqr		V	5,0	9,0	1,5″	2015						HO 199	23190-0937	73
Aqr	ω² Aqr		V	4,5	9,9	5,5″	2012						BU 279	23427-1433	46
Aqr	4 Aqr		V	6,4	7,4	0,7″	2020	200 a	F7 IV	F6: V:	1,6	1,3	STF 2729	20514-0538	61	^[27] (M)
Aqr	12 Aqr	1 (A/B)	V	5,8	7,5	2,5″	2017						STF 2745	21041-0549	150
Aqr	12 Aqr	2 (Aa/Ab)	SI	5,9	8,3	0,3″	2017						MCA 66	21041-0549	150
Aqr	24 Aqr	1 (A/B)	V	6,9	8,4	0,0″	2020	48,7 a					BU 1212	21395-0003	40	^[3] (U_Aa/Ab)
Aqr	24 Aqr	2 (Aa/Ab)	SB	6,9	.	–	–	5,88 d						21395-0003	40	^[3] (U_Aa/Ab)
Aqr	29 Aqr	1 (A/B)	V	7,2	7,2	3,8″	2016		A2 V + K0 III	G0 II			S 802	22024-1658	180	^[21] (U_Aa/Ab, S_Aa/Ab)
Aqr	29 Aqr	2 (Aa/Ab)	E/SB	7,2	.	–	–	0,95 d	A2 V	K0 III				22024-1658	180	^[21] (U_Aa/Ab, S_Aa/Ab)
Aqr	41 Aqr		V	5,6	6,7	5,2″	2015		K0 III	F2 V			H N 56	22143-2104	72
Aqr	51 Aqr		V	6,5	6,6	0,5″	2019	145 a	A1	A1	2,5	2,4	BU 172	22241-0450	120	^[11] (S, M)
Aqr	53 Aqr	1 (A/B)	V	6,3	6,4	1,2″	2019	2000 a	G2 V	G3 V			SHJ 345	22266-1645	19	^[3] (U_Ba/Bb)
Aqr	53 Aqr	2 (Ba/Bb)	SB	6,4	.	–	–	257 d	G2 V					22266-1645	19	^[3] (U_Ba/Bb)
Aqr	74 Aqr	1 (A/B)	SI	5,8	6,4	0,1″	2020	9,5 a	B9p	B	Σ ≈ 15		MCA 73	22535-1137	170	^[3] (U_Aa/Ab), ^[28] (S, M)
Aqr	74 Aqr	2 (Aa/Ab)	SB	5,8	.	–	–	3,43 d	B9p					22535-1137	170	^[3] (U_Aa/Ab), ^[28] (S, M)
Aqr	83 Aqr		V	6,2	6,3	0,2″	2018	21,8 a	F2 V	F2 V			A 417	23052-0742	64	^[24] (S)
Aqr	86 Aqr		SI	4,8	6,8	0,2″	2020						HDS 3293	23067-2345	56
Aqr	89 Aqr		V	5,3	6,0	0,2″	2018	108 a	G2 III	A2 V			RST 3320	23099-2227	150
Aqr	94 Aqr	1 (A/B)	V	5,2	7,0	12,1″	2018		G5–8 IV + K2–3	K2	Σ 1,9		STF 2998	23191-1328	22	^[29] (S, M)
Aqr	94 Aqr	2 (Aa/Ab)	SI/SB	5,2	6,7	0,2″	2020	6,3 a	G5–8 IV	K2–3	1,1	0,8	MCA 74	23191-1328	22	^[29] (S, M)
Aqr	97 Aqr		V	5,6	6,7	0,1″	2020	64 a	A3	A8	2,0–3,7	1,6	HU 295	23227-1502	65	^[11] (S, M)
Aqr	101 Aqr		V	4,8	7,7	1,0″	2009						B 1900	23333-2055	90
Aqr	107 Aqr		V	5,7	6,5	7,0″	2018		A9 IV	F2 V			H 2 24	23460-1841	62
Aqr	R Aqr		V(aO)/SB	7,7	.	–	–	44 a	M6,5–8,5e	D:	1,0–1,5	0,6–1,0			320	^[30] (V), ^[31] (U, S₂, M)
Aqr	EZ Aqr	1 (AC/B)	SI/SB	12,2	12,9	0,1″	2020	2,3 a	M4 V + M	M	Σ 0,22	0,12	BLA 10	22385-1519	3,4	^[32] (S, M)
Aqr	EZ Aqr	2 (A/C)	SB	12,2	.	–	–	3,79 d	M4 V	M	0,12	0,10	Gl 866	22385-1519	3,4	^[32] (S, M)
Ara	γ Ara		CPM	3,3	10,2	18,4″	2016						HJ 4942	17254-5623	340
Ara	δ Ara		A	3,6	.	–	–	2,9 a					del Ara	17311-6041	61
Ara	ε² Ara	1 (A/C)	CPM	5,4	13,5	113,6″	2015		F5 VFe	DA3,2			SKF 103	17031-5314	26
Ara	ε² Ara	2 (Aa/Ab)	SI	5,4	8,7	0,7″	2020	41 a	F5 VFe				HDS 2412	17031-5314	26
Ara	ν¹ Ara (V539 Ara)	1 (A/B)	V	5,7	9,2	12,3″	2016		B3 V + B4 V	A0–1 V	Σ 11,5		HJ 4978	17505-5337	360	^[21] (U, S), ^[33] (M, d)
Ara	ν¹ Ara (V539 Ara)	2 (Aa/Ab)	E/SB	5,7	.	–	–	3,17 d	B3 V	B4 V	6,2	5,3		17505-5337	360	^[21] (U, S), ^[33] (M, d)
Ara	41 Ara		V	5,6	8,9	10,6″	2019	610 a	G9 V	M0 VpCaCr			BSO 13	17191-4638	8,8
Ara	R Ara	1 (A/B)	V	7,2	7,8	3,7″	2016		B5 V + F1 IV		Σ 6,5		HJ 4866	16397-5700	120	^[34] (U_Aa/Ab, S, M)
Ara	R Ara	2 (Aa/Ab)	E/SB	7,2	.	–	–	4,43 d	B5 V	F1 IV	5	1,5		16397-5700	120	^[34] (U_Aa/Ab, S, M)
Ara	HR 6477	1 (AB/C)	CPM	5,2	7,1	102,5″	2016		B8 V + B9 V	B9,5 V			DUN 216	17269-4551	190
Ara	HR 6477	2 (A/B)	V	5,6	6,5	2,1″	2016		B8 V	B9 V			HJ 4949	17269-4551	190
Ari	β Ari		I/SB	2,6	5,2	–	–	107 d	A5 V		2,0	1,0	MKT 3	01546+2049	18	^[1] (S, M, d)
Ari	γ Ari		V	4,5	4,6	7,4″	2020		A2 IVpSiSrCr	A0 Vnp			STF 180	01535+1918	50
Ari	ε Ari		V	5,2	5,6	1,5″	2019	710 a	A2 IV	A3 IVs			STF 333	02592+2120	100
Ari	λ Ari		CPM	4,8	6,7	37,3″	2019						H 5 12	01579+2336	39
Ari	μ Ari		SI	5,7	6,2	0,0″	2020	8,8 a	A1 V	F2 V	3,4 ± 1,7	2,1 ± 1,7	BLA 1	02424+2001	140	^[35] (S, M)
Ari	π Ari		V	5,3	8,0	3,3″	2015						STF 311	02493+1728	240
Ari	τ¹ Ari		V	5,3	8,1	0,9″	2016						COU 259	03212+2109	160
Ari	1 Ari		V	6,3	7,2	2,9″	2018		K1 III	A6 V			STF 174	01501+2217	180	^[13] (S)
Ari	10 Ari		V	5,8	7,9	1,3″	2018	330 a	F8 IV	F9 V			STF 208	02037+2556	49	^[24] (S)
Ari	21 Ari		V	6,4	6,5	0,2″	2014	23,6 a	F5 V	F5 V	1,4	1,4	COU 79	02157+2503	51	^[36] (S, M)
Ari	30 Ari	1 (A/BC)	CPM	6,5	7,0	37,9″	2019		F5 V	F8 V + M1 V		Σ 1,6	STFA 5	02370+2439	45	^[3] (U_Aa/Ab), ^[37] (S_B/C, M_B/C)
		2 (Aa/Ab)	SB	6,5	.	–	–	1,11 d	F5 V
		2 (B/C)	V(aO)	7,0	11,0	0,6″	2018		F8 V	M1 V	1,1	0,5	RAO 8
Ari	31 Ari		SI	5,7	5,8	0,0″	2020	3,8 a	F7 V	F7 V	Σ 3,4		MCA 7	02366+1227	35	^[38] (S, M)
Ari	52 Ari	1 (AB/C)	V	5,5	10,8	5,1″	2005		B9 + B9		Σ 7,2		STF 346	03054+2515	170	^[11] (S, M)
Ari	52 Ari	2 (A/B)	V	6,2	6,2	0,5″	2016	230 a	B9	B9	3,6	3,6	STF 346	03054+2515	170	^[11] (S, M)
Ari	63 Ari		SI	5,3	8,1	0,3″	2012						HDS 423	03228+2045	97
Ari	66 Ari	1 (A/B)	V	6,2	10,5	0,7″	2018						BU 878	03284+2248	71
Ari	66 Ari	2 (Aa/Ab)	SI	6,0	7,4	0,1″	2008						BAG 2	03284+2248	71
Aur	α Aur (Capella)	1 (A/HL)	CPM	0,1	10,0	722,8″	2013		G8 III + G0 III	M2 + M4:	Σ 5,1	Σ 1,1	FRH 1	05167+4600	13,2	^[39] (V_Aa/Ab, U_H/L, S_Aa/Ab, M, d), ^[40] (S_H/L)
		2 (Aa/Ab)	I/SB	0,9	0,8	–	–	104 d	G8 III	G0 III	2,6	2,5	ANJ 1
		2 (H/L)	V	10,0	13,5	3,5″	2015	≈ 300 a	M2	M4:	0,6	0,5	ST 3
Aur	β Aur (Menkalinan)		E/I/SB	3,3	3,5	–	–	3,96 d	A1m	A1m	2,4	2,3	KOE 1	05595+4457	25	^[33] (S, M)
Aur	ε Aur (Almaaz)		E/SB/A	3,0	.	–	–	27,1 a	F0 Ia		≈ 2 vs. 15	≈ 6 vs. 14	eps Aur	05020+4349	1500	^[41]^[42] (S, M), ^[43] (d)
Aur	ζ Aur		E/I/SB	3,8	.	–	–	2,7 a	K4 Ib	B6 V	5,6	4,7	MKT 6	05025+4105	240	^[5] (S, M)
Aur	θ Aur		V	2,6	7,2	4,2″	2019	470 a	B9 IV	G2 V			STT 545	05597+3713	51	^[24] (S)
Aur	ψ⁵ Aur		O	5,3	8,7	29,4″	2013						SHJ 75	06467+4335	17
Aur	ω Aur		V	5,0	8,2	4,7″	2019		A1 V	F9			STF 616	04593+3753	50
Aur	5 Aur	1 (A/B)	V	6,0	9,5	4,1″	2017	1600 a	F5 V		1,4	0,9	STT 92	05003+3924	57	^[44] (M)
Aur	5 Aur	2 (Aa/Ab)	SI	6,0	.	0,1″	2018		F5 V				CHR 159	05003+3924	57	^[44] (M)
Aur	14 Aur	1 (A/C)	V	5,0	7,3	14,3″	2019		A9 V	F2 V + DA1,3			STF 653	05154+3241	82	^[3] (U_Aa/Ab, U_Ca1/Ca2), ^[45] (U_Ca/Cb), ^[46] (S_Ca/Cb)
		2 (Aa/Ab)	SB	5,0	.	–	–	3,79 d	A9 V
		2 (Ca/Cb)	V(HST)	7,3	14,1	2,0″	1999	≈ 1300 a	F2 V	DA1,3			BAS 5
		3 (Ca1/Ca2)	SB	7,3	.	–	–	2,99 d	F2 V
Aur	16 Aur	1 (A/B)	V	4,8	10,6	4,1″	2002						STT 103	05182+3322	71
Aur	16 Aur	2 (Aa/Ab)	SB/A	4,8	.	–	–	1,2 a						05182+3322	71
Aur	26 Aur	1 (AB/C)	V	5,5	8,4	12,4″	2019	≈ 46 000 a	G8 III + B9,5 V	A6 V	Σ 5,1 ± 1,4	2,1	STF 753	05386+3030	170	^[47] (U_AB/C, S, M)
Aur	26 Aur	1 (A/B)	V	6,3	6,2	0,2″	2010	53 a	G8 III	B9,5 V	2,1 ± 1,0	3,0 ± 0,4	BU 1240	05386+3030	170	^[47] (U_AB/C, S, M)
Aur	41 Aur		V	6,2	6,9	7,5″	2019						STF 845	06116+4843	100
Aur	54 Aur		V	6,2	7,9	0,8″	2016						STT 152	06396+2816	260
Aur	60 Aur		V	6,5	9,0	0,2″	2012	270 a	A8	G0	1,7	1,1	COU 1877	06532+3826	70	^[11] (S, M)
Aur	WW Aur		E/SB	5,8	.	–	–	2,53 d	A5m	A7m	2,0	1,8			91	^[30] (V), ^[33] (U, S, M)
Aur	Gliese 268		SB	11,5	.	–	–	10,4 d	dM5e	dM5e	0,2	0,2			6,3	^[30] (V), ^[3] (U, S), ^[48] (M, d)
Boo	δ Boo		CPM	3,6	7,9	105,0″	2017	76 000 a	G8 IIIFe	G0 Vv			STFA 27	15155+3319	37
Boo	ε Boo (Izar)		V	2,6	4,8	2,7″	2020		K0 II–III	A2 V			STF 1877	14450+2704	62
Boo	ζ Boo		V	4,5	4,5	0,3″	2019	125 a	A2 III	A2 III	Σ ≈ 2,3		STF 1865	14411+1344	54	^[24] (S), ^[12] (M)
Boo	η Boo		SB/A	2,7	.	–	–	1,4 a			1,7	0,6	eta Boo	13547+1824	11,4	^[18] (M)
Boo	ι Boo		CPM	4,8	7,4	39,0″	2020		A7 V	K1 V			STFA 26	14162+5122	29
Boo	κ Boo	1 (κ² = A / κ¹ = B)	V	4,5	6,6	13,8″	2019	10 100 a	A7 IV	F2 V			STF 1821	14135+5147	49	^[3] (U_Ba/Bb)
Boo	κ Boo	2 (Ba/Bb)	SB	6,6	.	–	–	4,9 a						14135+5147	49	^[3] (U_Ba/Bb)
Boo	μ Boo	1 (μ¹ = A / μ² = B)	CPM	4,3	7,0	109,0″	2018		F0 IV	G0 V	Σ 3,2 ± 0,3		STFA 28	15245+3723	36	^[9] (M)
		2 (Aa/Ab)	SI	4,3	.	0,1″	2012	3,7 a	F0 IV		3,2 ± 0,3		CHR 181
		2 (Ba/Bb)	V	7,1	7,6	2,3″	2019	270 a	G0 V				STF 1938
Boo	ν² Boo		SI	5,8	5,8	0,1″	2015	9,0 a	B9	A1	3,0	2,3	A 1634	15318+4054	130	^[11] (S, M)
Boo	ξ Boo		V	4,8	7,0	5,2″	2020	153 a	G8 V	K4 V	0,9	0,7	STF 1888	14514+1906	6,7	^[49] (S, M)
Boo	π¹ Boo		V	4,9	5,8	5,4″	2020						STF 1864	14407+1625	88
Boo	τ Boo		V	4,5	11,1	1,5″	2017	960 a	F7 IV–V	M3 V	1,4	0,4	STT 270	13473+1727	16	^[50] (M)
Boo	44 Boo	1 (A/BC)	V	5,2	6,1	0,3″	2019	210 a	G1 V	G	1,0	Σ 1,6	STF 1909	15038+4739	13	^[51] (U_B/C, S, M)
Boo	44 Boo	2 (B/C)	E/SB	6,1	.	–	–	0,27 d	G		1,0	0,6		15038+4739	13	^[51] (U_B/C, S, M)
Boo	1 Boo		V	5,8	9,6	4,4″	2019		A1 V	A2			STF 1772	13407+1957	98
Boo	3 Boo		SB	6,0	.	–	–	36,0 d	G0 IV	F2p	1,8	1,6			95	^[30] (V), ^[5] (S, M)
Boo	12 Boo		I/SB	4,8	.	–	–	9,60 d	F8 IV	F9 IVw	1,4	1,4	ISO 14	14104+2506	36	^[33] (S, M)
Boo	15 Boo		V	5,4	8,4	0,8″	2015						KUI 66	14148+1006	84
Boo	39 Boo		V	6,3	6,7	2,6″	2020	2100 a	F6 V	F5 V			STF 1890	14497+4843	69	^[13] (S)
Boo	HP Boo	1 (A/BC)	V(aO)	5,9	13,9	2,6″	2009	28 000 a	G2 V	L4 + L4	1,0	Σ 0,11	POT 1	14503+2355	18	^[52] (S, M)
Boo	HP Boo	2 (B/C)	V(aO)	13,9	14,2	0,1″	2013	10,3 a	L4	L4	0,06	0,05	POT 1	14503+2355	18	^[52] (S, M)
Boo	HR 5138		V	6,4	6,5	0,1″	2020	22,5 a	F0 IV	F2 IV	Σ 2,4 ± 0,4		BU 612	13396+1045	60	^[24] (S), ^[53] (M)
Boo	HR 5386	1 (A/BC)	V	5,0	6,8	6,4″	2020		A0 V	F0 V + F2 V			STF 1835	14234+0827	69	^[24] (S_B/C)
Boo	HR 5386	2 (B/C)	V	7,4	7,7	0,3″	2020	40 a	F0 V	F2 V			BU 1111	14234+0827	69	^[24] (S_B/C)
Cae	γ¹ Cae		V	4,7	8,2	3,2″	2001						JC 9	05044-3529	56
Cam	1 Cam		O?	5,8	6,8	10,4″	2018		O9,7 IIn	B1 IV:			STF 550	04320+5355	770
Cam	2 Cam	1 (AB/C)	V	5,6	7,5	0,8″	2016	480 a					STF 566	04400+5328	65
Cam	2 Cam	2 (A/B)	V	5,9	7,4	0,0″	2014	26,7 a					STF 566	04400+5328	65
Cam	7 Cam	1 (A/B)	V	4,5	7,9	0,6″	2011	2700 a					D 5	04573+5345	110	^[3] (U_Aa/Ab)
Cam	7 Cam	2 (Aa/Ab)	SB	4,5	.	–	–	3,89 d						04573+5345	110	^[3] (U_Aa/Ab)
Cam	11 / 12 Cam	1 (11 / 12 Cam)	CPM	5,2	6,2	177,7″	2017		B3 Ve	K0 IIIe		Σ 1,6	STFA 13	05061+5858	220	^[54] (U, M)
Cam	11 / 12 Cam	2 (12 Cam)	SB	6,2	.	–	–	80,9 d	K0 IIIe		1,1	0,5		05061+5858	220	^[54] (U, M)
Cam	19 Cam		V	6,2	9,8	1,5″	2015						HU 1107	05373+6409	98
Cam	HR 4892	1 (A/B)	V	5,3	5,7	21,8″	2017		A0 V	A2 V			STF 1694	12492+8325	130	^[3] (U_Aa/Ab)
Cam	HR 4892	2 (Ba/Bb)	SB	5,7	.	–	–	3,29 d	A2 V					12492+8325	130	^[3] (U_Aa/Ab)
Cam	Stein 2051		V	11,4	12,1	11,0″	2020	1800 a	M4 Ve	DC5	0,2	0,7	STI 2051	04312+5858	5,5	^[55] (M)
Cap	α Cap (Algiedi)	- (α² / α¹)	O	3,7	4,3	381,2″	2012		G9 III	G3 Ib			STFA 51	20181-1233	32
Cap	α Cap (Algiedi)	1 (α¹ Cap Aa/Ab)	V	4,4	8,6	0,8″	2002		G3 Ib				WZ 15	20176-1230	270
Cap	β Cap (Dabih)	1 (β¹ = A / β² = B)	CPM	3,2	6,1	205,4″	2012		K0 II–III + B8 V + G: V:	B9–A0 III–IV	Σ 7,9 ± 0,4		STFA 52	20210-1447	170	^[3] (U_Ab1/Ab2), ^[56] (S_Aa/Ab, S_Ab1/Ab2, M)
		2 (Aa/Ab)	SI/SB	3,1	4,9	0,0″	2019	3,8 a	K0 II–III	B8 V	3,7 ± 0,2	Σ 4,2 ± 0,2	BLA 7
		2 (Ba/Bb)	V	6,2	9,1	0,4″	2020	540 a	B9–A0 III–IV				BAR 12
		3 (Ab1/Ab2)	SB	4,9	.	–	–	8,68 d	B8 V	G: V:	≤ 3,4	≥ 0,8
Cap	γ Cap		A	3,7	.	–	–	2,2 a					gam Cap	21401-1640	48
Cap	ζ Cap		SB/A	3,8	.	–	–	6,5 a	G8 IIIp	DA2,2			zet Cap	21267-2225	120	^[46] (S)
Cap	η Cap		SI	5,0	7,4	0,3″	2020	27,9 a	A4 V	F2 V	2,0 ± 0,2	1,2 ± 0,1	FIN 328	21044-1951	51	^[12] (S), ^[16] (M, d)
Cap	ο Cap		V	5,9	6,7	22,0″	2019		A1 V	A7–8 V			SHJ 324	20299-1835	72
Cap	π Cap		V	5,1	8,5	3,5″	2019						BU 60	20273-1813	200
Cap	ρ Cap		V	5,0	6,9	1,7″	2018	380 a					SHJ 323	20289-1749	30
Cap	τ Cap		V	5,4	7,3	0,4″	2019	420 a	B4 IV	B6 IV			HU 200	20393-1457	350	^[24] (S)
Car	ε Car (Avior)		SI	2,3	3,9	0,4″	2019		K3: III	B2: V			HDS 1190	08225-5931	190
Car	θ Car		SB/A	2,8	.	–	–	2,2 a	B0,2 V		≈ 15		the Car	10430-6424	140	^[57] (S, M)
Car	υ Car		V	3,0	6,0	5,1″	2015						RMK 11	09471-6504	440
Car	128 G. Car	1 (AB/C)	V	5,4	12,3	18,8″	2015		F3–4 V + F8–G7 V		Σ 2,5 ± 0,6		I 358	09173-6841	34	^[16] (S, M, d)
Car	128 G. Car	2 (A/B)	SI	5,8	7,1	0,1″	2020	3,4 a	F3–4 V	F8–G7 V	1,4 ± 0,3	1,1 ± 0,3	FIN 363	09173-6841	34	^[16] (S, M, d)
Car	b¹ Car		CPM	4,9	6,6	40,1″	2010		B2 V	B8 IV:			DUN 74	08570-5914	240
Car	e² Car		SI	5,1	8,0	0,3″	2015						HDS 1233	08353-5801	69
Car	V415 Car		E/SB/A	4,5	7,7	–	–	195 d	G6 II	A1 V	3,2	2,0	V415 Car	06499-5337	170	^[5] (S, M)
Car	HR 2814		V	6,0	6,5	9,1″	2015	1 000 000 a	F5 V	F9 V			RMK 6	07204-5219	37
Car	HR 3863		V	5,9	6,5	0,1″	2019	10,6 a	A3 IV		Σ 5,8 ± 0,6		B 780	09407-5759	68	^[58] (M)
Cas	γ Cas	1 (A/B)	V	2,2	10,9	2,1″	2002		B0,5 IVe	F6 V	Σ ≈ 16		BU 1028	00567+6043	190	^[59] (U_Aa/Ab, S_A, M), ^[60] (S_B)
Cas	γ Cas	2 (Aa/Ab)	SB	2,2	.	–	–	204 d	B0,5 IVe		≈ 15	≈ 0,8		00567+6043	190	^[59] (U_Aa/Ab, S_A, M), ^[60] (S_B)
Cas	η Cas		V	3,5	7,4	13,6″	2020	480 a	G3 V	K7 V	1,0	0,6	STF 60	00491+5749	6,0	^[49] (S, M)
Cas	ι Cas	1 (AB/C)	V	4,5	9,1	6,7″	2015		A3 + G6 + F5	K4 + M2			STF 262	02291+6724	41	^[61]^[62] (S, M)
		2 (A/B)	V	4,6	6,9	2,9″	2017	2400 a	A3 + G6	F5	Σ 2,7 ± 0,4		STF 262
		2 (Ca/Cb)	V(aO)	9,1	.	0,2″	2018		K4	M2			CTU 2
		3 (Aa/Ab)	SI	4,6	8,5	0,6″	2010	48 a	A3	G6	2,0 ± 0,3	0,7	CHR 6
Cas	λ Cas		V	5,3	5,6	0,2″	2010	250 a	B7,5 V	B8,5 V	3,4	3,1	STT 12	00318+5431	120	^[24] (S), ^[11] (M)
Cas	μ Cas		SI/SB	5,3	10,7	0,6″	2016	21,6 a	G5 V	dM	0,7	0,2	WCK 1	01083+5455	7,6	^[63] (S, M)
Cas	ο Cas		I/SB	4,6	7,5	–	–	2,8 a					NOI 3	00447+4817	220
Cas	σ Cas		V	5,0	7,2	3,1″	2017						STF 3049	23590+5545	1400
Cas	6 Cas		V	5,7	8,0	1,5″	2015						STT 508	23488+6213	1900
Cas	47 Cas		SI	5,4	7,6	0,1″	2014	4,4 a					LSC 19	02051+7717	33
Cas	48 Cas	1 (AB/C)	CPM	4,5	13,2	22,8″	2015		A2 V + F2 V		Σ 3,1		BU 513	02020+7054	35	^[24] (S), ^[64] (M)
Cas	48 Cas	2 (A/B)	V/SB	4,7	6,7	0,6″	2013	61 a	A2 V	F2 V	1,9	1,2	BU 513	02020+7054	35	^[24] (S), ^[64] (M)
Cas	55 Cas		SI	6,4	7,6	0,1″	2011	41 a	F9 II	A2 Vn			MCA 6	02145+6631	290
Cas	AR Cas	1 (AB/CD)	CPM	4,9	7,2	75,0″	2018		B3 V	B9 V			SHJ 355	23300+5833	180	^[65] (U_Aa/Ab, S_Aa/Ab, M_Aa/Ab)
		2? (AB/F)	CPM	4,9	10,6	67,2″	2012		B3 V	A0			HJ 1888
		2? (AB/G)	CPM	4,9	11,1	66,9″	2012		B3 V	B3			HJ 1888
		2 (A/B)	V	4,9	9,3	0,9″	2002		B3 V		Σ 7,8		STT 496
		2 (C/D)	V	7,2	9,1	1,3″	2015		B9 V				DA 2
		3 (Aa/Ab)	E/SB	4,9	.	–	–	6,07 d	B4 V	A6 V	5,9	1,9
Cas	V773 Cas	1 (A/B)	V	6,3	8,7	0,6″	2010	185 a	A3 V	F0–5			BU 870	01443+5732	87	^[21] (U_Aa/Ab)
Cas	V773 Cas	2 (Aa/Ab)	E	6,3	.	–	–	1,29 d	A3 V					01443+5732	87	^[21] (U_Aa/Ab)
Cas	HR 5	1 (A/B)	V	6,4	7,3	1,5″	2020	107 a	G4 V	K0 V + M2 V	0,9	Σ 1,3	STF 3062	00063+5826	21	^[3] (U_Ba/Bb), ^[2] (S, M)
Cas	HR 5	2 (Ba/Bb)	SB	7,3	.	–	–	47,7 d	K0 V	M2 V	0,8	0,5		00063+5826	21	^[3] (U_Ba/Bb), ^[2] (S, M)
Cen	α Cen (Alpha Centauri)	1 (AB / C = Proxima Centauri)	CPM	−0,3	11,1	2,2°	–	550 000 a	G2 V + K1 V	M5,5 V	Σ 2,0	0,12	LDS 494	14396-6050	1,3	^[33] (S_A/B, M_A/B), ^[66] (S_C, M_C)
Cen	α Cen (Alpha Centauri)	2 (A/B)	V/SB	0,0	1,3	5,2″	2019	80 a	G2 V	K1 V	1,1	0,9	RHD 1	14396-6050	1,3	^[33] (S_A/B, M_A/B), ^[66] (S_C, M_C)
Cen	β Cen (Agena)	1 (A/B)	V	0,6	4,0	0,3″	2018	≈ 170 a	B1 III + B1 III	B	Σ 22,6 ± 0,3		VOU 31	14038-6022	120	^[67] (U_A/B, S, M)
Cen	β Cen (Agena)	2 (Aa/Ab)	I/SB	1,3	1,4	–	–	357 d	B1 III	B1 III	12,0	10,6	RBT 1	14038-6022	120	^[67] (U_A/B, S, M)
Cen	γ Cen		V	2,8	2,9	0,4″	2020	84 a	A0 III	A0 III			HJ 4539	12415-4858	40	^[24] (S)
Cen	δ Cen		O	2,5	4,4	269,1″	1999		B2 Vne	B3–5 III			JC 2	12084-5043	130
Cen	κ Cen	1 (A/B)	V	3,1	11,5	4,0″	2000						I 1260	14592-4206	120
Cen	κ Cen	2 (Aa/Ab)	SI	3,3	4,7	0,1″	2020	59 a					HDS 2116	14592-4206	120
Cen	π Cen		V	4,1	5,7	0,3″	2019	39 a	B9 V		6,4	3,7	I 879	11210-5429	110	^[68] (S, M)
Cen	d Cen		V	4,6	5,0	0,2″	2020	83 a	G7 III	G9 III			SEE 179	13310-3924	280	^[24] (S)
Cen	D Cen		V	5,8	7,0	2,7″	2015						RMK 14	12140-4543	180
Cen	Q Cen		V	5,2	6,5	5,6″	2016		B8,5 Vn	A2,5 Va			DUN 141	13417-5434	83
Cen	y Cen		V	6,3	6,4	1,0″	2020	360 a	F0	F1	1,5	1,5	HWE 28	13535-3540	52	^[11] (S, M)
Cen	3 Cen		O	4,5	6,0	7,8″	2015		B5 III	B9 IV			H 3 101	13518-3300	110
Cen	4 Cen	1 (A/B)	V	4,7	8,5	14,8″	2013		B5 IVp	A3 Vm			H N 51	13532-3156	170	^[3] (U)
		2 (Aa/Ab)	SB	4,7	.	–	–	6,93 d	B5 IVp
		2 (Ba/Bb)	SB	8,5	.	–	–	4,84 d	A3 Vm
Cen	46 Cen		V	5,2	7,7	1,3″	1995						HJ 4409	11073-4238	89
Cen	V831 Cen	1 (AB/C)	V	4,6	8,4	1,9″	2019	≈ 2000 a	B8 V		Σ 9,4	≈ 1,5	I 424	13123-5955	110	^[69] (U_AB/C, U_Aa/Ab, S, M, d)
		2 (A/B)	V	5,3	6,0	0,1″	2019	27,4 a	B8 V		Σ 7,4	≈ 2,0	SEE 170
		3 (Aa/Ab)	E/SB	5,3	.	–	–	0,64 d	B8 V		4,1	3,3
Cen	HR 4453		V	6,1	6,2	0,5″	2019						I 78	11336-4035	120
Cep	β Cep	1 (A/B)	V	3,2	8,6	13,5″	2016		B2 III + B5 Ve	A0 V	Σ 17 ± 4	3,1 ± 0,3	STF 2806	21287+7034	210	^[70] (S_Aa/Ab, M_Aa/Ab), ^[2] (S_B, M_B)
Cep	β Cep	2 (Aa/Ab)	SI/SB	3,2	6,6	0,2″	2007	83 a	B2 III	B5 Ve	12,6 ± 3,2	4,4 ± 0,7	LAB 6	21287+7034	210	^[70] (S_Aa/Ab, M_Aa/Ab), ^[2] (S_B, M_B)
Cep	γ Cep		V(aO)/SB	3,2	> 7,3	0,9″	2006	68 a	K1 III–IV	M4	1,4	0,4	NHR 9	23393+7738	14	^[13] (V₁), ^[71] (S, M)
Cep	κ Cep		V	4,4	8,3	7,3″	2015		B9 III	A7 V			STF 2675	20089+7743	99
Cep	ξ Cep	1 (A/B)	V	4,5	6,4	8,1″	2019	2500 a	kA2,5hF2mF2(IV)	F8 V	Σ 1,4		STF 2863	22038+6438	30	^[10] (M)
Cep	ξ Cep	2 (Aa/Ab)	SI/SB	4,8	6,3	0,1″	2012	2,2 a	kA2,5hF2mF2(IV)		1,0	0,4	MCA 69	22038+6438	30	^[10] (M)
Cep	ο Cep		V	5,0	7,3	3,4″	2018	2200 a					STF 3001	23186+6807	62
Cep	π Cep	1 (A/B)	V	4,6	6,8	1,1″	2016	176 a	G2 III	A9 V	Σ 6,9 ± 0,7	1,9 ± 0,2	STT 489	23079+7523	76	^[72] (S, M)
Cep	π Cep	2 (Aa/Ab)	SB/A	4,4	.	–	–	1,5 a	G2 III		3,6 ± 0,5	3,3 ± 0,5		23079+7523	76	^[72] (S, M)
Cep	VV Cep		E/SB	5,4	.	–	–	20,3 a	M2 Iab	B	2,5 vs. 20	8 vs. 20	WRH 36	21567+6338	1500	^[73]^[74] (M), ^[75] (S, d)
Cep	HR 1230		V	5,6	6,3	0,8″	2012	370 a	G8 III	A3,5 IV:			STF 460	04100+8042	120
Cep	HR 8357		O	5,6	6,4	18,1″	2018						STF 2840	21520+5548	200
Cep	Kruger 60		V	9,9	11,4	1,5″	2016	44,7 a	M3 V	M4 V	0,3	0,18	KR 60	22280+5742	4,0	^[76] (M)
Cet	γ Cet	1 (AB/C)	CPM	3,5	10,2	843,1″	2000		A2 Vn + F4 V	K5 V			ALD 124	02433+0314	24
Cet	γ Cet	2 (A/B)	V	3,5	6,2	1,9″	2020		A2 Vn	F4 V			STF 299	02433+0314	24
Cet	ε Cet		SI/SB	5,2	6,5	0,1″	2020	2,7 a	F2 V	F7–G4 V	1,4	1,0	FIN 312	02396-1152	24	^[16] (S, M)
Cet	μ Ceti		SI/SB	4,2	6,2	0,2″	2020	3,3 a	A9 IIIP				TOK 1	02449+1007	26	^[3] (U)
Cet	ν Cet	1 (A/B)	V	5,0	9,1	8,4″	2011						STF 281	02359+0536	100	^[3] (U_Aa/Ab)
Cet	ν Cet	2 (Aa/Ab)	SB	5,0	.	–	–	2,0 a						02359+0536	100	^[3] (U_Aa/Ab)
Cet	ξ¹ Cet		SI/SB	4,3	.	0,1″	2007	4,5 a					MCA 5	02130+0851	100
Cet	ο Cet (Mira)		V	6,8	10,4	0,5″	2014	500 a	M5–9 IIIe	DA	1,2		JOY 1	02193-0259	92	^[77] (M)
Cet	10 Cet		SI	6,5	8,9	0,5″	2020						HDS 61	00266-0003	140
Cet	13 Cet	1 (A/B)	V/SB	5,6	6,9	0,2″	2020	6,9 a	F9 V + K0 V	G6 V	Σ 1,8	0,9	HO 212	00352-0336	21	^[3] (U_Aa/Ab), ^[2] (S, M)
Cet	13 Cet	2 (Aa/Ab)	SB	5,6	.	–	–	2,08 d	F9 V	K0 V	1,0	0,8		00352-0336	21	^[3] (U_Aa/Ab), ^[2] (S, M)
Cet	26 Cet		V	6,1	9,5	16,0″	2015		A8 IV	G8 V			STF 84	01038+0122	59
Cet	37 Cet	1 (A/B)	CPM	5,2	7,9	47,1″	2018						STFA 3	01144-0755	24
Cet	37 Cet	2 (Aa/Ab)	SI	5,2	9,7	0,2″	2013						WSI 70	01144-0755	24
Cet	42 Cet	1 (A/BC)	V	6,5	7,0	1,6″	2020	650 a	G8 III	A7 V + A:		Σ 1,8 ± 0,6	STF 113	01198-0031	100	^[20] (S, M)
Cet	42 Cet	2 (B/C)	SI	7,4	7,6	0,1″	2020	27 a	A7 V	A:	1,8 ± 0,6		FIN 337	01198-0031	100	^[20] (S, M)
Cet	84 Cet		V	5,8	9,7	3,6″	2012	3200 a					STF 295	02412-0042	23
Cet	94 Cet		V	5,1	11,0	2,2″	2015	1400 a					HJ 663	03128-0112	23
Cet	95 Cet		V	5,6	8,0	1,2″	2017	390 a	K0 IV	G8 V			AC 2	03184-0056	64	^[24]
Cet	HR 159		V/SB	6,6	6,2	0,2″	2020	25,0 a	G8 V	G8 V	0,9	0,7	BU 395	00373-2446	15	^[1] (S, M, d)
Cet	HR 492		V	6,1	7,2	0,1″	2020	630 a	F5 V	F7 V			STF 147	01417-1119	39
Cet	GJ 1005		SI	11,0	11,4	0,4″	2020	4,6 a	M3,5 V	M	0,18	0,12	HEI 299	00155-1608	5,0	^[78] (S, M)
Cet	Luyten 726-8		V	12,7	13,2	1,9″	2020	26,3 a	M5,5 V	M6 V	0,10	0,10	LDS 838	01388-1758	2,7	^[76] (M)
Cha	δ¹ Cha		V	6,2	6,5	0,8″	2019						I 294	10453-8028	110
Cha	ε Cha	1 (AB/C)	CPM	4,9	6,6	134,0″	2015		B9 V + B9 V + B9 V	A0			FGL 1	11596-7813	110	^[79] (U, S, M)
		2 (A/B)	V	5,3	6,0	0,2″	2020	≈ 920 a	B9 V + B9 V	B9 V	Σ ≈ 5		HJ 4486
		3 (Aa/Ab)	SI	6,0	6,2	0,0″	2020	13 a	B9 V	B9 V	≈ 2,5	≈ 2,5	HJ 4486
Cir	α Cir		V	3,2	8,5	15,7″	2016		A7 VpSrCrEu	K5 V			DUN 166	14425-6459	17
Cir	γ Cir		V	4,9	5,7	0,8″	2019	260 a	B3–4 V	F8 V			HJ 4757	15234-5919	140
Cir	θ Cir		SI	5,9	5,9	0,1″	2020	40 a	B3 Ve		Σ 40 ± 18		FIN 372	14567-6247	460	^[20] (S, M)
Cir	26 G. Cir	1 (A/B)	SI	6,2	8,7	0,3″	2018		F8 II + B6		Σ 10,2		HDS 2100	14526-6349	530	^[19] (U, S, M, d)
Cir	26 G. Cir	2 (Aa/Ab)	I	6,2	.	–	–	17,9 a	F8 II	B6	5,2	5,0	GAA 1	14526-6349	530	^[19] (U, S, M, d)
CMa	α CMa (Sirius)		V	−1,5	8,4	11,2″	2020	50 a	A1 V	DA2	2,1	1,0	AGC 1	06451-1643	2,6	^[80] (S, M)
CMa	ε CMa		V	1,5	7,5	7,9″	2008						CPO 7	06586-2858	120
CMa	ζ CMa	- (A/B)	O	3,0	7,8	169,6″	2016		B2,5 V	K1 III			SMY 1	06203-3004	110	^[3] (U_Aa/Ab)
CMa	ζ CMa	1 (Aa/Ab)	SI/SB	3,6	3,8	0,0″	2020	1,9 a	B5,5 V				TOK 821	06203-3004	220	^[3] (U_Aa/Ab)
CMa	η CMa		O	2,5	6,8	177,0″	2020		B5 Ia	A0 V			SMY 2	07241-2918	610
CMa	μ CMa		V	5,3	7,1	2,9″	2017						STF 997	06561-1403	280
CMa	ν¹ CMa		V	5,8	7,4	17,4″	2019		G8–K0 III	F–G			SHJ 73	06364-1840	81
CMa	π CMa		V	4,7	9,6	11,6″	2015						H N 123	06556-2008	30
CMa	τ CMa	1 (A/E)	SI	4,4	9,7	0,9″	2018		O9,2 + O9 III	B2: V			TOK 42	07187-2457	1500	^[81] (U, S, d)
		2 (Aa/Ab)	SI	4,9	5,3	0,1″	2018		O9,2	O9 III			FIN 313
		3 (Aa)	SB	4,9	.	–	–	155 d	O9,2
		4 (Aa)	E	4,9	.	–	–	1,28 d	O9,2
CMa	27 CMa		SI	5,4	4,9	0,1″	2020	119 a	B4Ve(shell)				FIN 323	07143-2621	530
CMa	29 CMa (UW CMa)		E/SB	5,0	.	–	–	4,39 d	O7,5–8 Iabf	O9,7 Iab	≈ 16	≈ 19			1500	^[82] (U, S, M)
CMa	HR 2522		V	5,6	7,2	0,4″	2015	580 a					AC 4	06490-1509	160
CMi	α CMi (Prokyon)		V	0,5	10,8	3,8″	2014	41 a	F5 IV–V	DQZ	1,5	0,6	SHB 1	07393+0514	3,5	^[83] (S, M)
CMi	η CMi		V	5,3	11,1	4,3″	2015						BU 21	07280+0657	97
CMi	HR 2950		V	6,6	7,0	0,9″	2019	1250 a					STF 1126	07401+0514	79
Cnc	ζ Cnc	1 (ζ¹ = AB / ζ² = CD)	V	4,9	5,9	6,0″	2020	740 a	F8 V + G5 V	G0 V + M2 V	Σ 2,6	Σ 2,0	STF 1196	08122+1739	25	^[18]^[84] (S, M)
		2 (A/B)	V	5,3	6,3	1,2″	2020	59,4 a	F8 V	G5 V	1,3	1,2	STF 1196
		2 (C/D)	SI	6,2	7,1	0,3″	2020	17,3 a	G0 V	M2 V	1,2	0,8	HUT 1
Cnc	ι Cnc		V	4,1	6,0	30,7″	2018		G8 IIIa	A2 V			STF 1268	08467+2846	100
Cnc	κ Cnc		SI	5,3	8,8	0,1″	2019						CHR 257	09077+1040	150
Cnc	π¹ Cnc	1 (A/E)	CPM	6,6	17,0	43,0″	1997		G8 V + G8 V	L8 + T	Σ 1,8	Σ ≈ 0,08–0,14	WIL 1	09123+1500	20	^[1] (S_Aa/Ab, M_Aa/Ab, d), ^[85] (U_Ea/Eb, S_Ea/Eb, M_Ea/Eb)
		2 (Aa/Ab)	SI/SB	7,2	7,2	0,1″	2019	2,7 a	G8 V	G8 V	0,9	0,9	FIN 347
		2 (Ea/Eb)	V(aO)	17,0	.	0,5″	2004	≈ 140–180 a	L8	T	≈ 0,04–0,07	≈ 0,04–0,07	BUG 16
Cnc	φ² Cnc		V	6,2	6,2	5,2″	2019		A5 IV	A2 Vp			STF 1223	08268+2656	85
Cnc	21 Cnc		V	6,3	9,4	1,3″	2019						A 2961	08239+1038	250
Cnc	24 Cnc	1 (A/BC)	V	6,9	7,5	5,7″	2019		F0 V	F7 V			STF 1224	08267+2432	80
Cnc	24 Cnc	2 (B/C)	V	8,5	8,5	0,2″	2007	21,8 a	F7 V				A 1746	08267+2432	80
Cnc	55 (ρ¹) Cnc		CPM	6,0	13,2	85,1″	2012		K0 IV–V	M4,5 V	1,0	0,3	LDS 6219	08526+2820	13	^[86] (M₁), ^[87] (M₂)
Cnc	57 Cnc		V	6,1	6,4	1,5″	2019	2300 a					STF 1291	08542+3035	140
Cnc	66 Cnc		V	6,0	8,6	4,4″	2017						STF 1298	09014+3215	150
Cnc	75 Cnc		SB/A	6,0	.	–	–	19,4 d	G5 IV–V		1,2	1,0	75 Cnc	09088+2638	31	^[88] (S, M, d)
Cnc	GJ 1116		V	13,4	13,4	2,6″	2020	124 a	M7 V	M7 V			LDS 3836	08582+1945	5,3
Cnc	HM Cnc		SB	20	.	–	–	0,004 d	D	D	0,6	0,3			5000	^[30] (V), ^[89] (U, S, M, d)
Col	δ Col		SB/A	3,9	.	–	–	2,4 a					del Col	06221-3326	62
Col	HR 2424	1 (AB/C)	V	5,5	11,5	21,0″	1999						HJ 3875	06354-3647	160
Col	HR 2424	2 (A/B)	V	5,9	6,9	1,6″	2015						BU 755	06354-3647	160
Col	HR 2431	1 (A/B)	CPM	6,4	7,3	287,2″	2015		F9 V + G1 V	G2 V	Σ 2,3	Σ 1,9	SHY 185	06359-3605	40	^[24] (S_Aa/Ab), ^[11] (M_Aa/Ab), ^[68] (M_Ba/Bb)
		2 (Aa/Ab)	SI	6,7	8,2	0,1″	2020	28,9 a	F9 V	G1 V	1,2	1,1	FIN 19
		2 (Ba/Bb)	V	7,8	8,6	0,1″	2020	14,0 a	G1 V		1,1	0,8	RST 4816
Com	α Com		V	4,9	5,5	0,6″	2019	25,9 a	F5 V	F6 V	1,2	1,1	STF 1728	13100+1732	18	^[90] (S, M)
Com	2 Com		V	6,2	7,5	3,4″	2020						STF 1596	12043+2128	100
Com	12 Com		SB	4,9	.	–	–	1,1 a	G7 III	A3 IV	2,6	2,1		12225+2551	85	^[5] (S, M)
Com	23 Com		SI	5,0	6,9	0,4″	2020	36 a					WRH 12	12349+2238	95
Com	24 Com		V	5,1	6,3	20,2″	2018		K0 II–III	A9 V			STF 1657	12351+1823	120
Com	35 Com	1 (AB/C)	V	5,2	9,8	28,5″	2016		K0 III + F3 V				STF 1687	12533+2115	87	^[24] (S), ^[3] (U_Aa/Ab)
		2 (A/B)	V	5,2	7,1	1,3″	2019	490 a	K0 III	F3 V			STF 1687
		3 (Aa/Ab)	SB	5,2	.	–	–	8,0 a	K0 III
Com	39 Com	1 (A/B)	V	6,0	8,8	1,8″	2019						COU 11	13064+2109	50
Com	39 Com	2 (Aa/Ab)	SI	6,1	.	0,0″	2009						CHR 150	13064+2109	50
Com	Gliese 505		V	6,7	9,5	7,6″	2018	610 a	K1 V	M1 V	0,7	0,5	BU 800	13169+1701	11,0	^[24] (S), ^[91] (M_A), ^[87] (M_B)
CrA	γ CrA		V	4,5	6,4	1,5″	2020	122 a	F8 V	F8 V	1,2	1,2	HJ 5084	19064-3704	17	^[60] (S), ^[11] (M)
CrA	κ CrA		CPM	5,6	6,2	20,5″	2018		B9 V	B8–A1			DUN 222	18334-3844	210
CrA	HR 6749		V	5,7	5,7	1,8″	2019	450 a	A5 V	A5 V			HJ 5014	18068-4325	45	^[24] (S)
CrB	α CrB (Gemma)		E/SB/A	2,2	.	–	–	17,4 d	A0 V	G5 V	2,6	0,9	alp CrB	15347+2643	23	^[92] (S, M)
CrB	β CrB		SI/SB	3,7	5,2	0,3″	2019	10,5 a	A5	F2	2,1	1,4	JEF 1	15278+2906	34	^[93] (S, M)
CrB	γ CrB		V	4,0	5,6	0,5″	2015	91 a	B9 IV	A3 V	2,8	1,7	STF 1967	15427+2618	45	^[24] (S), ^[11] (M)
CrB	ζ² CrB		V	5,0	5,9	6,3″	2019		B7 V	B9 V			STF 1965	15394+3638	150
CrB	η CrB		V/SB	5,6	6,0	0,4″	2019	41,6 a	G1 V	G3 V	1,2	1,1	STF 1937	15232+3017	18	^[24] (S), ^[9] (M)
CrB	θ CrB		V	4,3	6,3	0,8″	2016						COU 610	15329+3122	120
CrB	σ CrB	1 (σ^2/1 = AB / E)	CPM	5,1	12,3	634,8″	2015		F6 V + G1 V	M2,5 V	Σ 3,2	Σ 0,5	STF 2032	16147+3352	21	^[94] (S, M)
		2 (σ² = A / σ¹ = B)	V	5,6	6,5	7,2″	2019	670 a	F6 V	G1 V	Σ 2,2	1,0	STF 2032
		2 (Ea/Eb)	SI	12,4	15,0	0,5″	2018	52 a	M2,5 V		0,4	0,1	YSC 152
		3 (Aa/Ab)	I/SB	5,6	.	–	–	1,14 d	F6 V		1,1	1,1
Crt	ζ Crt		SI	5,0	7,8	0,3″	2018						HDS 1658	11448-1821	100
Crt	ψ Crt		V	6,2	8,3	0,2″	2018	370 a	B9 V	A1 V			BU 220	11125-1830	150	^[24] (S)
Cru	α Cru (Acrux)	1 (AB/C)	CPM	0,7	4,8	89,0″	2020		B0,5 IV + B1 V	B3–5 V			DUN 252	12266-6306	99	^[3] (U_Aa/Ab), ^[95] (U_Ca/Cb)
		2 (α¹ = A / α² = B)	V	1,3	1,6	3,5″	2020		B0,5 IV	B1 V			DUN 252
		3 (Aa/Ab)	SB	1,3	.	–	–	75,8 d	B0,5 IV
		3 (Ca/Cb)	SB	4,8	.	–	–	1,23 d	B3–5 V
Cru	γ Cru		O	1,8	6,5	133,2″	2018		M3,5 III	A3 V			DUN 124	12312-5707	27
Cru	μ Cru		CPM	3,9	5,0	34,5″	2020		B2 IV–V	B5 Vne			DUN 126	12546-5711	130
Crv	δ Crv		V	3,0	8,5	24,2″	2020						SHJ 145	12299-1631	27
Crv	VV Crv	1 (AB/C)	CPM	5,1	10,3	45,9″	2016		F5 V + F4 IVn				STF 1669	12413-1301	77	^[3] (U_Aa/Ab), ^[96] (U_A/B, U_Ba/Bb)
		2 (A / B = VV Crv)	V	5,9	5,9	5,3″	2020	≈ 3500 a	F5 V	F4 IVn			STF 1669
		3 (Aa/Ab)	SB	5,9	.	–	–	44,5 d	F5 V		Σ 3,5
		3 (Ba/Bb)	E/SB	5,9	.	–	–	3,14 d	F4 IVn		2,0	1,5
CVn	α CVn (Cor Caroli)		V	2,9	5,5	19,3″	2020		A0 VpSiEu	F2 V			STF 1692	12560+3819	35
CVn	2 CVn		V	5,9	8,7	11,6″	2017		M0,5 III	F7 V			STF 1622	12161+4040	200
CVn	17 / 15 CVn	1 (17 = A / 15 = BC)	O	6,0	6,3	275,6″	2012		A9 III–IV	B7 III			STFA 24	13101+3830	60
CVn	17 / 15 CVn	2 (B/C)	V	6,3	9,2	1,3″	2016		B7 III				BU 608	13101+3830	1140
CVn	19 CVn		SI	5,9	9,5	0,6″	2012	220 a					CHR 180	13155+4051	73
CVn	25 CVn		V	5,0	7,0	1,6″	2019	240 a	A6 III	F0 V			STF 1768	13375+3618	61	^[24] (S)
CVn	HR 5110 (BH CVn)		E/SB/A	5,0	.	–	–	2,61 d	F2 IV	K0 IV	1,5	0,8	BH CVn	13348+3711	46	^[97] (S, M)
Cyg	β Cyg (Albireo)	1 (β¹ = A / β² = B)	O?	3,2	4,7	34,6″	2020		K3 II + B9,5 V	B8 Ve	Σ 9,5 ^+5,9_−3,3	3,7 ± 0,1	STFA 43	19307+2758	100	^[98] (U, M)
Cyg	β Cyg (Albireo)	2 (Aa/Ac)	SI	3,4	5,2	0,3″	2020	122 a	K3 II	B9,5 V	4,2 ^+2,9_−1,6	5,2 ^+3,1_−1,7	MCA 55	19307+2758	120	^[98] (U, M)
Cyg	δ Cyg		V	2,9	6,3	2,7″	2017	660 a	B9 III	F1 V			STF 2579	19450+4508	51	^[24] (S)
Cyg	ζ Cyg		V(HST)/ SB	3,2	13,2	–	–	17,8 a	G8 IIIp	DA4,2			BAS 7	21129+3014	44	^[3] (U), ^[46] (S)
Cyg	λ Cyg	1 (A/B)	V	4,7	6,3	0,9″	2018	800 a	B4 V	B7 V	Σ 10,6	7,4	STT 413	20474+3629	240	^[24] (S), ^[99] (M)
Cyg	λ Cyg	2 (Aa/Ab)	SI	5,4	5,8	0,0″	1991	11,6 a	B4 V		5,3	5,3	MCA 63	20474+3629	240	^[24] (S), ^[99] (M)
Cyg	μ Cyg		V	4,8	6,2	1,6″	2019	690 a	F4 V	G2 V			STF 2822	21441+2845	22	^[24] (S)
Cyg	ο¹ Cyg		E/SI/SB	3,9	.	0,0″	1985	10,0 a	K4 Ib	B3–4	11,7	7,1	WRH 33	20136+4644	230	^[100] (S, M)
Cyg	ο² Cyg		E/SB/A	4,2	8,4	–	–	3,1 a	K4–5 Ib	B6–7	9,7	4,8		20155+4743	470	^[100] (S, M)
Cyg	τ Cyg	1 (AB/F)	CPM	3,7	12,0	89,5″	2012		F0 V + G0 V	M3	Σ 2,7		AGC 13	21148+3803	20	^[40] (S), ^[18] (M)
		2 (A/B)	V	3,8	6,6	1,1″	2017	49,5 a	F0 V	G0 V	1,7	1,0	AGC 13
		2 (Fa/Fb)	SI	12,2	13,8	0,4″	2018		M3				JOD 20
Cyg	φ Cyg		SI/SB	4,9	5,1	0,0″	1994	1,2 a	K0 III	K0 III	2,2	2,1	MCA 57	19394+3009	74	^[101] (S, M)
Cyg	ψ Cyg	1 (A/B)	V	5,0	7,5	2,9″	2017		A2 IV–V	F4 V			STF 2605	19556+5226	85	^[24] (S)
Cyg	ψ Cyg	2 (Aa/Ab)	SI	5,6	6,1	0,1″	2010	54 a	F4 V				YR 2	19556+5226	85	^[24] (S)
Cyg	9 Cyg		SI/SB	5,9	6,5	0,0″	1994	4,6 a	G8 IIIa	A2 V	2,8	2,6	WRH 32	19348+2928	180	^[5] (S, M)
Cyg	16 Cyg	1 (AC/B)	V	6,0	6,2	39,7″	2020	13 500 a	G1,5 Vb + M	G2,5 V	Σ 1,5	1,0	STFA 46	19418+5032	21	^[13] (S_A/B), ^[102] (U_A/C, S_C, M_C), ^[103] (M_A/B)
Cyg	16 Cyg	2 (A/C)	V(aO)	6,0	13,0	3,2″	2009	≈ 700 a	G1,5 Vb	M	1,1	≈ 0,4	TRN 4	19418+5032	21	^[13] (S_A/B), ^[102] (U_A/C, S_C, M_C), ^[103] (M_A/B)
Cyg	17 Cyg	1 (AB/FG)	CPM	5,1	7,8	817,6″	2010	3 700 000 a	F5,5 IV–V + K4	K5 V + K5 V			STF 2580	19464+3344	21
		2 (A/B)	V	5,1	9,3	25,9″	2020	7900 a	F5,5 IV–V	K4			STF 2580
		2 (F/G)	V	8,5	8,6	3,2″	2020	230 a	K5 V	K5 V			STF 2576
Cyg	44 Cyg		V	6,3	10,1	2,2″	1991						AC 18	20310+3656	1200
Cyg	47 Cyg		SI	4,8	7,3	0,3″	1998		K6: Ib	B2,5:			WRH 34	20339+3515	1300
Cyg	49 Cyg		V	5,8	8,1	2,7″	2016		G8 IIb	B9,9			STF 2716	20410+3218	270
Cyg	52 Cyg		V	4,3	9,5	5,9″	2018						STF 2726	20456+3043	62
Cyg	59 Cyg		SI	4,8	7,6	0,1″	2015	162 a					MCA 65	20598+4731	400
Cyg	60 Cyg		V	5,4	9,5	2,9″	2017						STT 426	21012+4609	490
Cyg	61 Cyg		V	5,2	6,1	31,8″	2019	620 a	K5 V	K7 V	0,7	0,6	STF 2758	21069+3845	3,5	^[104] (S, M)
Cyg	75 Cyg		V	5,3	10,1	2,7″	2008						AC 20	21402+4316	130
Cyg	77 Cyg	1 (AB/C)	CPM	5,8	7,8	145,5″	2017		A0 V + A0 V	F2			ARY 129	21424+4105	130
		2 (A/B)	V	6,3	6,7	0,2″	2014	26,5 a	A0 V	A0 V			KUI 108	21424+4105
		2 (Ca/Cb)	V	8,1	8,6	0,5″	2016		F2				BU 688	21424+4103
Cyg	HR 7294		V	6,5	6,7	7,2″	2020	1460 a	G3 V	G2 V			STF 2486	19121+4951	25
Cyg	HR 7911		V	6,7	6,8	0,9″	2018	1150 a					STT 410	20396+4035	280
Cyg	GJ 1245	1 (AC/B)	V	13,5	16,8	6,0″	2019	220 a	M5 + M8,5	M6 V	Σ 0,19		GIC 159	19539+4425	4,7	^[105] (S_A/C), ^[78] (M_A/C)
Cyg	GJ 1245	2 (A/C)	SI	14,3	15,0	0,5″	2016	16,8 a	M5	M8,5	0,11	0,08	MCY 3	19539+4425	4,7	^[105] (S_A/C), ^[78] (M_A/C)
Del	α Del	1 (Aa/Ab)	SI	3,9	6,4	0,2″	2014	16,9 a	B9 IV		3,8 ± 0,4	Σ 3,3 ± 0,3	WCK 2	20396+1555	78	^[106] (U, M)
Del	α Del	2 (Ab1/Ab2)	A	6,4	.	–	–	30,0 d			1,8 ± 0,2	1,5 ± 0,1		20396+1555	78	^[106] (U, M)
Del	β Del		V/SB	4,1	5,0	0,2″	2018	26,7 a	F5 III	F5 IV	1,8	1,5	BU 151	20375+1436	31	^[24] (S), ^[107] (M)
Del	γ Del		V	4,4	5,0	8,9″	2019	3200 a	K1 IV	F8 V			STF 2727	20467+1607	35
Del	δ Del		SB/A	4,4	.	–	–	40,6 d			1,8	1,6			64	^[30] (V), ^[108] (U, M)
Del	1 Del		V	6,2	8,0	0,9″	2016		Be(shell)	B			BU 63	20303+1054	230	^[109] (S)
Del	13 Del		V	5,6	8,2	1,5″	2009						BU 65	20478+0600	140
Dor	α Dor		V	3,6	4,6	0,2″	2020	12,1 a	A0 IIIp	B9 IV			B 2092	04340-5503	52	^[13] (S)
Dra	α Dra (Thuban)		SB/A	3,8	5,6	–	–	51,4 d	A0 III	A2:	2,8	≈ 2,6	alp Dra	14044+6423	93	^[110] (V), ^[111] (S, M)
Dra	ε Dra		V	4,0	6,9	3,2″	2017	2800 a	G7 IIIb	F5 III			STF 2603	19482+7016	47
Dra	ζ Dra		SI	3,2	4,2	0,1″	1994	6,6 a			5,9 ± 1,2	3,6 ± 0,8	STA 1	17088+6543	100	^[112] (M)
Dra	η Dra		V	2,8	8,2	4,4″	2015						STT 312	16240+6131	28
Dra	μ Dra	1 (AB/C)	V	4,9	13,7	12,2″	2015		F7 V + F7 V + G4 V	M3:	Σ 3,2		STF 2130	17053+5428	27	^[13] (S_A), ^[2] (S_Ba/Bb, M)
		2 (A/B)	V	5,7	5,7	2,7″	2020	420 a	F7 V	F7 V + G4 V	1,2	Σ 1,8	BU 1088
		3 (Ba/Bb)	SB	5,7	.	–	–	3,2 a	F7 V	G4 V	1,1	0,9
Dra	ν Dra		CPM	4,9	4,9	62,1″	2017		kA3hF0mF0(IV–V)	kA4hF2VmF3			STFA 35	17322+5511	30
Dra	ο Dra		I/SB	4,8	11,0	–	–	138,4 d	G9 III		1,4	1,0	CIA 8	18512+5923	96	^[113] (S, M)
Dra	φ Dra	1 (A/B)	V	4,5	5,9	0,5″	2011	310 a	B9 IV + F8 IV	A3 IV	Σ 4,8 ± 0,5	2,7 ± 0,2	STT 353	18208+7120	93	^[3] (U_Aa/Ab), ^[2] (S, M)
Dra	φ Dra	2 (Aa/Ab)	SB	4,5	.	–	–	26,8 d	B9 IV	F8 IV	3,4 ± 0,3	1,4 ± 0,2		18208+7120	93	^[3] (U_Aa/Ab), ^[2] (S, M)
Dra	χ Dra		SI/SB	3,7	5,7	0,1″	2009	281 d	F7 V	K0 V	1,0	0,7	LAB 5	18211+7244	8,3	^[33] (S, M, d)
Dra	ψ¹ Dra		V	4,6	5,6	29,6″	2019	10 000 a	F5 IV–V	F8 V			STF 2241	17419+7209	21
Dra	ω Dra		SB/A	4,8	.	–	–	5,28 d	F5 V		1,5	1,2	ome Dra	17370+6845	24	^[88] (S, M)
Dra	17 / 16 Dra	1 (17 = AB / 16 = C)	CPM	5,0	5,5	90,2″	2018		B8 V + A1 V	B9,5 V + DA1,6		Σ 4,7	STFA 30	16362+5255	130	^[24] (S_A/B), ^[46] (S_Ca/Cb, M_Ca/Cb)
		2 (A/B)	V	5,4	6,4	3,2″	2020		B8 V	A1 V			STF 2078
		2 (Ca/Cb)	SB	5,5	.	–	–		B9,5 V	DA1,6	4,0	0,7
Dra	20 Dra		V	7,1	7,3	0,9″	2018	320 a					STF 2118	16564+6502	70
Dra	26 Dra	1 (AB/C)	CPM	5,2	10,2	737,9″	2010		F9 V + K3 V	M1 Ve	Σ 1,8		LDS 2736	17350+6153	14	^[24] (S_A/B), ^[18] (S_C, M)
Dra	26 Dra	2 (A/B)	V/SB	5,3	8,5	0,6″	2013	76 a	F9 V	K3 V	1,1	0,7	BU 962	17350+6153	14	^[24] (S_A/B), ^[18] (S_C, M)
Dra	39 Dra	1 (AB/C)	CPM	5,0	8,0	88,9″	2017		A0 V + F6 V	F7 IV			STF 2323	18239+5848	56	^[3] (U_Ca/Cb), ^[24] (S_A/B)
		2 (A/B)	V	5,1	8,1	3,8″	2019	2500 a	A0 V	F6 V			STF 2323
		2 (Ca/Cb)	SB	8,0	.	–	–	2,71 d	F7 IV
Dra	41 / 40 Dra	1 (41 = A / 40 = B)	V	5,7	6,0	18,7″	2019	18 000 a	F7 V + F7 V	K2 V	Σ 2,5 ± 0,3		STF 2308	18002+8000	45	^[3] (U_Ba/Bb), ^[114] (S_Aa/Ab, M)
		2 (Aa/Ab)	SI/SB	6,2	6,7	0,1″	2012	3,4 a	F7 V	F7 V	1,3 ± 0,2	1,2 ± 0,2	BAG 6
		2 (Ba/Bb)	SB	5,6	.	–	–	10,5 d	K2 V
Dra	HR 6983	1 (AB/C)	CPM	5,5	8,7	25,7″	2012		K1 III + G9 III	F0			STF 2348	18339+5221	200	^[24] (S_A/B)
Dra	HR 6983	2 (A/B)	V	6,2	6,4	0,2″	2016	210 a	K1 III	G9 III			A 1377	18339+5221	200	^[24] (S_A/B)
Dra	Gliese 687		SI	9,2	.	0,3″	1993	24,5 a	M3 V		0,4		CHR 62	17364+6820	4,5	^[115] (M)
Dra	Gliese 725		V	9,1	10,0	11,3″	2019	410 a	M3 V	M3,5 V	0,3	0,3	STF 2398	18428+5938	3,5	^[115] (M)
Equ	α Equ		I/SB	3,9	.	–	–	98,8 d	G7 III	A4m	2,1	1,0	WRH 35	21158+0515	58	^[5] (S, M)
Equ	γ Equ		V	4,7	8,7	0,6″	2014	270 a	A9 VpSrCrEu	K	1,8	0,6	KNT 5	21103+1008	35	^[116] (U, S_B, M)
Equ	δ Equ		V/SB	5,2	5,5	0,3″	2019	5,7 a	F7 V	F7 V	1,2	1,2	STT 535	21145+1000	18	^[33] (S, M, d)
Equ	ε Equ	1 (AB/C)	V	5,3	7,1	10,6″	2019		F2 IV + F1 V + F7 IV	G0 V	Σ 5,1 ± 0,6		STF 2737	20591+0418	54	^[3] (U_Aa/Ab), ^[24] (S_B, S_C), ^[2] (S_Aa/Ab, M)
		2 (A/B)	V	6,0	6,3	0,0″	2020	104 a	F2 IV + F1 V	F7 IV	Σ 3,3 ± 0,4	1,8	STF 2737
		3 (Aa/Ab)	SB	6,0	.	–	–	2,03 d	F2 IV	F1 V	1,8	1,5
Eri	θ Eri		V	3,2	4,1	8,2″	2020		A3 IV–V	A1 V			PZ 2	02583-4018	49
Eri	ρ² Eri		V	5,4	8,9	1,4″	2002						BU 11	03027-0741	74
Eri	τ⁴ Eri		V	3,9	9,5	5,7″	2013						JC 1	03195-2145	93
Eri	f Eri		V	4,7	5,3	8,2″	2020		B9,5 Van	A1 Va			DUN 16	03486-3737	51
Eri	p Eri		V	5,8	5,9	11,3″	2019	490 a	K0 V	K0 V			DUN 5	01398-5612	7,8	^[24] (S)
Eri	15 Eri		V	6,6	5,3	0,2″	2018	118 a					SEE 23	03184-2231	78
Eri	20 Eri		SI	5,5	6,8	0,1″	2020	21,0 a					HDS 456	03363-1728	130
Eri	32 Eri		V	4,8	5,9	6,9″	2019		G8 III	A1 V			STF 470	03543-0257	96
Eri	39 Eri		V	5,0	8,5	6,4″	2015						STF 516	04144-1015	69
Eri	40 (ο²) Eri	1 (A/BC)	CPM	4,4	9,3	82,7″	2019		K0 V	DA2,9 + M4,5 V	0,8	Σ 0,8	STF 518	04153-0739	5,0	^[117] (M_A), ^[118] (M_B/C)
Eri	40 (ο²) Eri	2 (B/C)	V	9,5	11,2	8,2″	2019	223 a	DA2,9	M4,5 V	0,6	0,2	STF 518	04153-0739	5,0	^[117] (M_A), ^[118] (M_B/C)
Eri	46 Eri		V	5,7	9,2	1,3″	2009						BU 881	04339-0644	270
Eri	53 Eri		V	4,0	7,0	1,1″	2016	77 a					KUI 18	04382-1418	36
Eri	55 Eri		V	6,7	6,8	9,3″	2018		F2 VpSrSi	G5 III			STF 590	04436-0848	650
Eri	62 Eri	1 (AB/C)	CPM	5,5	11,4	127,1″	2011						GMC 11	04564-0510	240
		1 (A/B)	CPM	5,5	8,9	66,1″	2013						SHJ 48
		2 (Aa/Ab)	SI	5,5	9,6	0,4″	2015						HDS 641
Eri	63 Eri		SB/A	5,5	.	–	–	2,5 a	K0 III–IV	D	2,0	0,4	63 Eri	04598-1016	53	^[119] (S, M)
For	α For		V	4,0	7,2	5,4″	2017	270 a	F7 IV	G7 V			HJ 3555	03121-2859	14	^[24] (S)
For	η² For		V	6,0	10,0	4,9″	2015						HJ 3536	02502-3551	120
For	κ For	1 (A/B)	SI/SB	5,2	10,2	0,6″	2020	26,5 a	G1 V	M	1,2	Σ 1,0	LAF 27	02225-2349	23	^[120] (U_Ba/Bb, S, M)
For	κ For	2 (Ba/Bb)	SB	10,2	.	–	–	3,67 d	M	M	0,5	0,5	LAF 27	02225-2349	23	^[120] (U_Ba/Bb, S, M)
For	χ³ For		V	6,5	10,1	6,5″	2015						I 58	03282-3551	100
For	ω For		V	5,0	7,7	11,0″	2013		B9 Va	A5 V			HJ 3506	02338-2814	140
Gem	α Gem (Kastor)	1 (AB / C = YY Gem)	CPM	1,6	9,8	69,8″	2017	13 000 a	A1 V + M5 V + A4 V + M0 V	M1 Ve + M1 Ve	5,9 ± 0,4	Σ 1,2	STF 1110	07346+3153	16	^[3] (U_Aa/Ab, U_Ba/Bb), ^[121] (S_Aa/Ab, S_Ba/Bb, M_Aa/Ab, M_Ba/Bb), ^[33] (S_Ca/Cb, M_Ca/Cb)
		2 (A/B)	V	1,9	3,0	5,4″	2020	460 a	A1 V + M5 V	A4 V + M0 V	3,1 ± 0,2	2,8 ± 0,2	STF 1110
		2 (Ca/Cb)	E/SB	9,8	.	–	–	0,81 d	M1 Ve	M1 Ve	0,6	0,6	YY Gem
		3 (Aa/Ab)	SB	1,9	.	–	–	9,21 d	A1 V	M5 V	2,7	0,4
		3 (Ba/Bb)	SB	3,0	.	–	–	2,93 d	A4 V	M0 V	2,3	0,5
Gem	γ Gem (Alhena)		SI/SB	1,9	7,5	0,4″	2012	12,6 a	A0 IVm	G	2,8	1,1	OCC 9011	06377+1624	34	^[122] (S, M)
Gem	δ Gem	1 (A/B)	V	3,6	8,2	5,5″	2018	1420 a	F1 IV–V	K3 V			STF 1066	07201+2159	19	^[24] (S)
Gem	δ Gem	2 (Aa/Ab)	SB/A	3,6	.	–	–	6,1 a	F1 IV–V					07201+2159	19	^[24] (S)
Gem	η Gem	1 (A/B)	V	3,5	6,2	1,7″	2018	1030 a					BU 1008	06149+2230	210	^[3] (U_Aa/Ab)
Gem	η Gem	2 (Aa/Ab)	SB	3,5	.	–	–	8,2 a						06149+2230	210	^[3] (U_Aa/Ab)
Gem	κ Gem		V	3,7	10,0	7,2″	2019						STT 179	07444+2424	43
Gem	ν Gem	1 (A/B)	SI	4,1	5,1	0,1″	2020	19,1 a	B6 IVe	Be	Σ 5,2 ± 0,8	1,8 ± 0,4	BTZ 1	06290+2013	170	^[106] (U, S_B, M)
Gem	ν Gem	2 (Aa/Ab)	A	4,1	.	–	–	54,0 d	B6 IVe		2,7 ± 0,4	2,5 ± 0,4		06290+2013	170	^[106] (U, S_B, M)
Gem	σ Gem		I/SB	4,3	11,0	–	–	19,6 d	K1 III		4,2	≥ 1,6	CIA 7	07433+2853	38	^[111] (S, M)
Gem	1 Gem	1 (A/B)	V/SB	4,8	5,5	0,1″	2008	13,4 a	K0 III	F6 IV	1,9	Σ 2,7	KUI 23	06041+2316	48	^[123] (U_Ba/Bb, S, M)
Gem	1 Gem	2 (Ba/Bb)	SB/A	5,5	.	–	–	9,60 d	F6 IV	G2 V	1,7	1,0		06041+2316	48	^[123] (U_Ba/Bb, S, M)
Gem	3 Gem		V	5,9	8,5	0,6″	2008		B2,5 Ib		21		BU 1241	06097+2307	2500	^[124] (S, M, d)
Gem	4 Gem		V	7,5	7,8	0,1″	2011	610 a					BU 1058	06105+2300	640
Gem	38 Gem		V	4,8	7,8	7,3″	2018	1750 a	A9 Vp	G6 V			STF 982	06546+1311	29	^[24] (S)
Gem	51 Gem		SI	5,7	5,8	0,1″	1991						HDS 1003	07134+1610	180
Gem	63 Gem	1 (A/B)	CPM	5,2	11,0	43,0″	2006		F1 V + F6 V + F5 V		Σ 3,6		SHJ 368	07277+2127	34	^[125] (M), ^[2] (S_Aa1/Aa2), ^[60] (S_Ab, S_D)
		2 (Aa/Ab)	SI	5,3	7,3	0,1″	2018	2,1 a	F1 V + F6 V	F5 V	Σ 2,6	1,0	MCA 30
		3 (Aa1/Aa2)	SB/A	5,3	.	–	–	1,93 d	F1 V	F6 V	1,4	1,2
Gem	68 Gem		SI	5,4	7,6	0,2″	2018	170 a					MCA 32	07336+1550	130
Gem	82 Gem		SI	6,9	7,3	0,3″	2016	580 a	K0 III	A0 IV:			WRH 15	07486+2308	240
Gem	HR 2896	1 (A/B)	V	6,1	6,5	0,1″	2015	210 a	K0 III	K + M:	1,5	Σ 1,5	STT 175	07351+3058	110	^[125] (S, M)
Gem	HR 2896	2 (Ba/Bb)	A	6,5	.	–	–	2,0 a	K	M:	1,3	0,2		07351+3058	110	^[125] (S, M)
Gru	θ Gru	1 (AB/C)	CPM	4,3	7,8	158,9″	2002						JC 20	23069-4331	40
Gru	θ Gru	2 (A/B)	V	4,5	6,6	1,5″	2013						JC 20	23069-4331	40
Gru	ι Gru		SB/A	3,9	.	–	–	1,1 a					iot Gru	23104-4515	56
Gru	μ¹ Gru		SI	6,7	5,2	0,2″	2019	19,3 a	G8 III	G	2,1	1,6	CHR 187	22156-4121	74	^[13] (S), ^[27] (M)
Gru	υ Gru		V	5,7	8,2	0,9″	2009						BU 773	23069-3854	87
Her	α Her (Ras Algethi)	1 (α¹ = A / α² = B)	V	3,5	5,4	4,7″	2020	3600 a	M5 Ib–II	G8 III + A9 IV–V	2,1–3,3	Σ 3,7–5,3	STF 2140	17146+1423	110	^[3] (U_Ba/Bb), ^[126] (S, M)
Her	α Her (Ras Algethi)	2 (Ba/Bb)	SB	5,4	.	–	–	51,6 d	G8 III	A9 IV–V	2,1–3,0	1,6–2,3		17146+1423	110	^[3] (U_Ba/Bb), ^[126] (S, M)
Her	β Her		I/SB	2,8	.	–	–	1,1 a			2,9	0,9	BLA 4	16302+2129	43	^[127] (M)
Her	δ Her	- (A/B)	O	3,1	8,3	13,7″	2019		A1 Vn	G4 IV–V			STF 3127	17150+2450	23
Her	δ Her	1 (Aa/Ab)	SI	3,1	4,4	0,1″	1989						BNU 5	17150+2450	320
Her	ζ Her		V	3,0	5,4	1,6″	2019	34,5 a	F9 IV	G7 V	1,5	1,0	STF 2084	16413+3136	10,7	^[24] (S), ^[128] (M)
Her	κ Her		V	5,1	6,2	27,0″	2019		G7 III	K0 IV			STF 2010	16081+1703	120
Her	μ Her	1 (μ¹ = A / μ² = BC)	CPM	3,5	9,8	35,5″	2015		G5 IV + M4	M3 + M4	Σ 1,4	Σ 0,8	STF 2220	17465+2743	8,3	^[40] (S_B/C), ^[129] (S_Aa/Ab, M_Aa/Ab), ^[130] (M_B/C)
		2 (Aa/Ab)	V(IR)	3,5	12,7	1,8″	2015	99 a	G5 IV	M4	1,1	0,3	TRN 2
		2 (B/C)	V	10,2	10,7	0,8″	2015	43 a	M3	M4	0,4	0,4	AC 7
Her	ν Her		SI	4,6	7,5	0,5″	1996						HDS 2534	17585+3011	260
Her	ρ Her	1 (A/B)	V	4,5	5,4	4,1″	2019		A0 III	B9,5 IVn			STF 2161	17237+3709	120
Her	ρ Her	2 (Aa/Ab)	SI	4,9	5,9	0,3″	2018		A0 III				MCA 48	17237+3709	120
Her	σ Her		SI	4,2	7,7	0,1″	2008	7,4 a	B7	A9	3,9	1,8	LAB 4	16341+4226	77	^[11] (S, M)
Her	φ Her		I/SB	4,2	.	–	–	1,5 a	B9:p(HgMn)		3,1	1,6	NOI 2	16088+4456	67	^[131] (S, M)
Her	c Her		V	6,1	6,1	0,1″	2018	8,1 a	A9 III–IV	A9 III–IV	Σ 3,3 ± 0,4		HU 1176	17080+3556	56	^[24] (S), ^[9] (M)
Her	25 Her		SI	5,6	8,3	0,1″	2007	76 a					CHR 55	16254+3724	77
Her	52 Her	1 (A/BC)	V	4,8	8,5	2,2″	2018	870 a	A1 VpSiSrCr	K–M + K–M	2,2 ± 0,2	Σ 1,2	BU 627	16492+4559	55	^[58] (S_B/C, M_B/C), ^[132] (M_A)
Her	52 Her	2 (B/C)	V(aO)	9,5	9,6	0,3″	2012	56 a	K–M	K–M	Σ 1,2		A 1866	16492+4559	55	^[58] (S_B/C, M_B/C), ^[132] (M_A)
Her	79 Her		SI	5,9	7,3	0,1″	2008	10,4 a	A1 V	A8 V	Σ 3,1		CHR 63	17375+2419	78	^[38] (S, M)
Her	90 Her		V	5,3	8,8	1,6″	2009						BU 130	17533+4000	110
Her	95 Her		V	4,9	5,2	6,4″	2019		A5 IIIn	G5 III			STF 2264	18015+2136	130
Her	99 Her		V	5,1	9,0	1,4″	2018	56 a	F7 V	K4 V	0,9	0,5	AC 15	18070+3034	16	^[133] (S, M)
Her	100 Her	1 (A/B)	V	5,8	5,8	14,3″	2019		A3 V	A3 V			STF 2280	18078+2606	63
Her	100 Her	2 (Aa/Ab)	SI	5,9	8,8	0,0″	2019	36 a	A3 V				CHR 67	18078+2606	63
Her	113 Her		I/SB	4,8	6,8	–	–	246 d	G7 II	A0 V	3,2	2,2	MKT 9	18547+2239	130	^[5] (S, M)
Her	49 Ser		V	7,4	7,5	4,0″	2019	950 a	G8 V	G8 V			STF 2021	16133+1332	24	^[24] (S)
Her	V772 Her	1 (AB/C)	V	7,2	10,6	28,2″	2015		G1 V + K6 V + G8 V	K7 V + M0 V			STT 341	18058+2127	33	^[3] (U_Aa/Ab, U_Ca/Cb), ^[21] (S_Aa/Ab, S_Ca/Cb)
		2 (A/B)	V/SB	7,4	8,8	0,1″	2019	20,1 a	G1 V + K6 V	G8 V			STT 341
		2 (Ca/Cb)	SB	10,6	.	–	–	25,8 d	K7 V	M0 V
		3 (Aa/Ab)	E/SB	7,4	.	–	–	0,88 d	G1 V	K6 V
Her	V819 Her	1 (A/B)	SI	6,1	6,4	0,1″	2017	5,5 a	G7 III–IV	F2 V + F8 V	1,8	Σ 2,6	MCA 47	17217+3958	71	^[21] (U_Ba/Bb, S), ^[134] (M)
Her	V819 Her	2 (Ba/Bb)	E/SB	6,4	.	–	–	2,23 d	F2 V	F8 V	1,5	1,1		17217+3958	71	^[21] (U_Ba/Bb, S), ^[134] (M)
Her	HR 6594		V	5,6	9,4	1,4″	2016	144 a					BU 1251	17420+1557	35
Her	HR 6627		V	6,0	6,9	0,4″	2018	1060 a	B9	A2	3,0	2,3	STF 2215	17471+1742	140	^[11] (S, M)
Her	HR 6980		V	6,4	6,6	0,7″	2019	220 a	G9 III	G7 III			STT 359	18355+2336	140	^[24] (S)
Her	Furuhjelm 46		V	10,0	10,3	0,3″	2016	13,0 a	M3	M3,5	0,4	0,4	KUI 79	17121+4540	6,0	^[40] (S), ^[112] (M)
Her	DQ Her		E	14,4	.	–	–	0,19 d	M3 Ve	D	0,4	0,6			500	^[30] (V), ^[135] (U, S₂, M)
Hor	δ Hor		SI	5,2	7,3	0,1″	2019						HDS 530	04108-4200	55
Hor	η Hor		SI	5,5	6,5	0,1″	2020	3,2 a	A6 V	F0 V			TOK 186	02374-5233	42	^[136] (S)
Hya	β Hya		V	4,7	5,5	0,6″	2015						HJ 4478	11529-3354	95
Hya	ε Hya	1 (ABC/D)	V	3,4	12,5	18,1″	2017		G5 III + A8 IV + dF7				STF 1273	08468+0625	40	^[3] (U_Ca/Cb), ^[13] (S)
		2 (AB/C)	V	3,5	6,7	2,9″	2020	370 a	G5 III + A8 IV	dF7			STF 1273
		3 (A/B)	V/SB	3,5	5,0	0,2″	2018	15,1 a	G5 III	A8 IV			SP 1
		3 (Ca/Cb)	SB	6,7	.	–	–	9,90 d	dF7
Hya	λ Hya		SB/A	3,6	.	–	–	4,3 a					lam Hya	10106-1221	33
Hya	χ¹ Hya		SI	5,7	5,7	0,1″	2020	7,6 a	F4 V	F4 V	Σ 3,9 ± 0,6		FIN 47	11053-2718	44	^[24] (S), ^[53] (M)
Hya	χ² Hya		E/SB	5,7	.	–	–	2,27 d	B8 V	B8 V	3,6	2,6			220	^[30] (V), ^[33] (U, S, M, d)
Hya	15 Hya	1 (A/B)	V	5,8	7,4	1,2″	2017						BU 587	08516-0711	140	^[3] (U)
Hya	15 Hya	2 (Aa/Ab)	SB	5,8	.	–	–	2,90 d						08516-0711	140	^[3] (U)
Hya	17 Hya		V	6,7	6,9	4,0″	2020		kA4hF1mF2	kA1hF2mF3			STF 1295	08555-0758	88
Hya	19 Hya		V	5,6	9,5	1,3″	2006						KUI 38	09087-0835	320
Hya	23 Hya	1 (A/B)	V	5,3	10,8	1,6″	2019						KUI 40	09167-0621	100	^[3] (U)
Hya	23 Hya	2 (Aa/Ab)	SB/A	5,3	.	–	–	2,5 a						09167-0621	100	^[3] (U)
Hya	29 Hya	1 (AB/C)	V	6,5	11,3	10,9″	2019						A 1588	09272-0913	230
Hya	29 Hya	2 (A/B)	V	7,0	7,8	0,4″	2011						BU 590	09272-0913	230
Hya	52 Hya	1 (AB/C)	V	5,0	10,0	2,4″	2010						BU 940	14282-2929	120
Hya	52 Hya	2 (A/B)	SI	5,7	5,7	0,1″	1989						FIN 306	14282-2929	120
Hya	54 Hya		V	5,1	7,3	8,1″	2015		F0 VSr	G1 V			H 3 97	14460-2527	30
Hya	59 Hya		V	6,2	6,8	0,5″	2019	430 a	A4 V	A6 V			BU 239	14587-2739	110	^[24] (S)
Hya	17 Crt		V	5,6	5,7	9,6″	2015		F8 V	F8 V			H 3 96	11323-2916	26
Hya	HR 5120		V	5,7	6,6	10,2″	2015		A7 III–IV	F0 Vn			H N 69	13368-2630	100
Hyi	α Hyi		A	2,9	.	–	–	1,7 a	F0 IV				alp Hyi	01588-6134	22
Ind	δ Ind		SI	4,8	6,0	0,1″	2020	12,2 a	A8 IV	G0–7 IV	1,8 ± 0,3	1,3 ± 0,2	FIN 307	21579-5500	58	^[16] (S, M)
Ind	ε Ind	1 (A/B)	CPM	4,8	24,0	403,1″	2010		K5 V	T1 + T6	0,8	Σ 0,12	SOZ 1	22034-5647	3,6	^[137] (S_A, M_A), ^[138] (S_Ba/Bb, M_Ba/Bb)
Ind	ε Ind	2 (Ba/Bb)	V(aO)	24,1	> 26,6	0,9″	2005	11,2 a	T1	T6	0,07	0,05	VLK 1	22034-5647	3,6	^[137] (S_A, M_A), ^[138] (S_Ba/Bb, M_Ba/Bb)
Ind	θ Ind	1 (A/B)	V	4,5	6,9	7,3″	2015		A5 IV–V + A5 V	G0V			HJ 5258	21199-5327	30	^[136] (U_Aa/Ab, S_Ab)
Ind	θ Ind	2 (Aa/Ab)	I	4,9	5,1	–	–	≈ 1,3 a	A5 IV–V	A5 V			MRN 3	21199-5327	30	^[136] (U_Aa/Ab, S_Ab)
Lac	8 Lac	1 (A/B)	O?	5,7	6,3	22,3″	2018		B1 IVe	B1,5 Vs			STF 2922	22359+3938	550
Lac	8 Lac	2 (Aa/Ab)	SI	5,7	.	0,0″	2018	42 a					CHR 112	22359+3938	550
Leo	α Leo (Regulus)	1 (A/BC)	CPM	1,4	8,2	179,2″	2019		B7 V + D	K2 V + M4 V	Σ 4,0 ± 1,5	Σ ≈ 1,0	STFB 6	10084+1158	24	^[139] (U_Aa/Ab), ^[140] (M_Aa/Ab), ^[141] (S, M_B/C)
		2 (Aa/Ab)	SB	1,4	.	–	–	40,1 d	B7 V	D	3,7 ± 1,4	0,3 ± 0,1
		2 (B/C)	V	8,2	13,2	2,2″	2019		K2 V	M4 V	≈ 0,8	≈ 0,2	HDO 127
Leo	γ Leo (Algieba)		V	2,4	3,6	4,7″	2020	550 a	K1 III	G7 IIIb			STF 1424	10200+1950	40
Leo	η Leo		SI	3,5	8,4	0,4″	2015						WRH 18	10073+1646	390
Leo	ι Leo		V	4,1	6,7	2,2″	2019	184 a	F1 IV	G3 V	1,6–1,7		STF 1536	11239+1032	24	^[24] (S), ^[142] (M)
Leo	κ Leo		V	4,6	9,7	2,0″	2015						BU 105	09247+2611	62
Leo	ο Leo		I/SB	3,5	.	–	–	14,5 d	F8 IIIm	A7m	2,1	1,9	HMM 1	09412+0954	40	^[5] (S, M)
Leo	χ Leo		V	4,7	11,0	4,9″	2018						KUI 54	11050+0720	29
Leo	ω Leo		V/SB	5,7	7,3	0,9″	2019	118 a	G1 V		1,9 ± 1,0	0,3 ± 0,9	STF 1356	09285+0903	33	^[9] (M)
Leo	19 Leo		SI	6,4	6,9	0,1″	2019	15,2 a					MCA 34	09474+1134	85
Leo	49 Leo	1 (A/B)	V	5,8	7,9	2,0″	2019		A2 V	B			STF 1450	10350+0839	130	^[21] (U, S)
Leo	49 Leo	2 (Aa/Ab)	E/SB	5,8	.	–	–	2,45 d					STF 1450	10350+0839	130	^[21] (U, S)
Leo	54 Leo		V	4,5	6,3	6,8″	2019		A1 V	A2 Vn			STF 1487	10556+2445	88
Leo	55 Leo		V	6,0	9,0	1,1″	2019	139 a					BU 1076	10557+0044	46
Leo	65 Leo		V	5,7	9,7	2,8″	2015						BU 599	11069+0157	61
Leo	73 Leo		SI/SB	5,5	7,3	0,1″	2020	8,1 a					MCA 35	11159+1318	110
Leo	83 Leo		V	6,6	7,5	28,6″	2019	32 000 a	K0 IV	K2 IV–V			STF 1540	11268+0301	18	^[24] (S)
Leo	88 Leo		V	6,3	9,1	15,7″	2020	3500 a	F9,5 V	K5			STF 1547	11317+1422	24
Leo	90 Leo		V	6,3	7,3	3,1″	2018		B6,6 IV	B3,7 V			STF 1552	11347+1648	580
Leo	93 Leo	1 (A/B)	CPM	4,6	9,0	75,5″	2020		G7 III + A7 IV	G5	Σ 4,2 ± 0,3		STFB 7	11480+2013	71	^[143] (S_Aa/Ab, M)
Leo	93 Leo	2 (Aa/Ab)	I/SB	5,1	5,6	–	–	71,7 d	G7 III	A7 IV	2,2 ± 0,2	2,0 ± 0,2	MKT 7	11480+2013	71	^[143] (S_Aa/Ab, M)
Leo	HR 4465		V	6,4	6,8	0,7″	2019	1730 a					STF 1555	11363+2747	72
Lep	β Lep		V	2,9	7,5	2,7″	2017						BU 320	05282-2046	49
Lep	ι Lep		V	4,5	9,9	11,9″	2015		B7,5 Vn	G8 Ve			STF 655	05123-1152	71
Lep	κ Lep		V	4,4	6,8	2,2″	2008						STF 661	05132-1256	220
Lep	HR 1771		V	5,4	6,6	3,5″	2015		G8–K0 II–III	A2–3			HJ 3752	05218-2446	110
Lep	Gliese 229		V(IR)	8,4	17,1	6,2″	2011		M1 V	T6,5	0,7	0,03–0,04	NAJ 1	06106-2152	5,8	^[115] (M₁), ^[144] (M₂)
Lib	α Lib (Zuben-el-dschenubi)	1 (α^2/1 = AB / D = KU Lib)	CPM	2,7	7,3	2,6°	–		A4 IV–V + F: + F4 V + M:	G8 V (k)	Σ ≈ 5,7	≈ 1,0	CAB 1	14509-1603	23	^[145] (ρ_AB/D, U_Ba/Bb, S, M), ^[146] (U_Aa/Ab)
		2 (α² = A / α¹ = B)	CPM	2,7	5,2	231,1″	2012		A4 IV–V + F:	F4 V + M:	Σ ≈ 3,7	Σ ≈ 2,0	SHJ 186
		3 (Aa/Ab)	SB	3,3	3,7	–	–	70,3 d	A4 IV–V	F:	≈ 2,2	≈ 1,5	DSG 17
		3 (Ba/Bb)	V(aO)/SB	5,2	.	0,2″	2018	16,1 a	F4 V	M:	≈ 1,4–1,5	≈ 0,5–0,6	BEU 19
Lib	ι Lib	1 (A/BC)	CPM	4,5	10,9	57,8″	2013		B8 VpSi + B9 IV–V	G5 IV	Σ 6,1 ± 2,3		H 6 44	15122-1948	120	^[13] (S), ^[53] (M)
		2 (Aa/Ab)	V/SB	5,1	5,5	0,1″	2019	23,5 a	B8 VpSi	B9 IV–V	Σ 6,1 ± 2,3		B 2351
		2 (B/C)	V	10,9	11,4	2,4″	2015		G5 IV				BU 618
Lib	μ Lib		V	5,6	6,6	1,9″	2019	610 a					BU 106	14493-1409	73
Lib	υ Lib		V	3,6	10,8	2,0″	2002						I 1271	15370-2808	69
Lib	5 Lib		V	6,5	10,1	4,7″	2001						HLD 20	14460-1528	170
Lib	18 Lib		V	6,0	9,8	19,6″	2013						STF 1894	14589-1109	110
Lib	47 Lib		V	6,0	8,5	0,4″	2018	360 a					HU 1274	15550-1923	240
Lib	Gliese 570	1 (AB/D)	CPM	5,8	13,9	259,8″	1998		K4 V + M1,5 V + M3 V	T7,5	Σ 1,6	≈ 0,03	H N 28	14575-2125	6,5	^[1] (M_Ba/Bb, d), ^[2] (S_A, S_Ba/Bb, M_A), ^[147] (S_D, M_D)
		2 (A/B)	V	5,9	8,2	26,2″	2020	6500 a	K4 V	M1,5 V + M3 V	0,7	Σ 0,9	H N 28
		3 (Ba/Bb)	I/SB	8,2	9,8	–	–	309 d	M1,5 V	M3 V	0,5	0,4
LMi	β LMi		V/SB	4,6	6,0	0,5″	2018	38,2 a	K0 III–IV	F8 V			HU 879	10279+3642	47	^[24] (S)
LMi	11 LMi		V	4,8	12,5	6,7″	2012	240 a	G8 Va	M5 V			HU 1128	09357+3549	11,2
Lup	γ Lup	1 (A/B)	V	3,0	4,5	0,8″	2020	190 a	B1 V + B2 V	B3 V	20	7	HJ 4786	15351-4110	130	^[3] (U_Aa/Ab), ^[2] (S, M)
Lup	γ Lup	2 (Aa/Ab)	SB	4,5	.	–	–	2,81 d	B1 V	B2 V	12	8		15351-4110	130	^[3] (U_Aa/Ab), ^[2] (S, M)
Lup	ε Lup	1 (A/B)	V	3,6	5,0	0,1″	2019	740 a					COP 2	15227-4441	160	^[3] (U_Aa/Ab)
Lup	ε Lup	2 (Aa/Ab)	SB	3,6	.	–	–	4,56 d						15227-4441	160	^[3] (U_Aa/Ab)
Lup	ζ Lup		CPM	3,5	6,7	71,7″	2020		G8 III	F6 V			DUN 176	15123-5206	36
Lup	η Lup		V	3,4	7,5	14,8″	2020						RMK 21	16001-3824	140
Lup	κ Lup		V	3,8	5,5	26,3″	2020		B9,5 Vne	A3–5 V			DUN 177	15119-4844	54
Lup	λ Lup		V	4,4	5,2	0,1″	2019	71 a	B3 V	B3 V	8,1	5,8	SEE 219	15088-4517	170	^[24] (S), ^[68] (M, d)
Lup	μ Lup	1 (AB/C)	V	4,2	6,3	23,1″	2019		B7 V + B7 V	A2–3 V			DUN 180	15185-4753	100
Lup	μ Lup	2 (A/B)	V	4,9	5,0	0,7″	2019	770 a	B7 V	B7 V			HJ 4753	15185-4753	100
Lup	ξ Lup		V	5,1	5,6	10,2″	2020		A3 V	B9 V			PZ 4	15569-3358	65
Lup	ο Lup		SI	5,3	4,8	0,0″	2020	33 a					FIN 319	14516-4335	120
Lup	π Lup		V	4,6	4,6	1,6″	2019		B5 IV	B5 V			HJ 4728	15051-4703	150
Lup	τ² Lup		V	4,9	5,6	0,1″	2020	26,0 a	F4 IV	A7:			I 402	14262-4523	98	^[13] (S)
Lup	υ Lup		V	5,4	10,9	1,6″	2015						RST 1839	15248-3943	120
Lup	d Lup		V	4,7	6,5	2,1″	2016						HJ 4788	15359-4457	130
Lyn	4 Lyn		V	6,1	7,7	0,6″	2016	500 a					STF 881	06221+5922	150
Lyn	12 Lyn	1 (AB/C)	V	5,4	7,1	8,9″	2019		A1,5 V + A2 V	kA6hF1mF1			STF 948	06462+5927	66
Lyn	12 Lyn	2 (A/B)	V	5,4	6,0	1,9″	2019	730 a	A1,5 V	A2 V			STF 948	06462+5927	66
Lyn	14 Lyn		V	6,0	6,5	0,3″	2015	320 a					STF 963	06531+5927	150
Lyn	15 Lyn		V	4,5	5,5	0,7″	2017	260 a					STT 159	06573+5825	55
Lyn	19 Lyn	1 (AB/D)	CPM	5,4	7,6	215,3″	2002		B8 V + B9 V	A0 V			STF 1062	07229+5517	210
Lyn	19 Lyn	2 (A/B)	V	5,8	6,7	13,8″	2019		B8 V	B9 V			STF 1062	07229+5517	210
Lyn	20 Lyn		V	7,5	7,7	14,9″	2017		A8 V	A6 V			STF 1065	07223+5009	160
Lyn	38 Lyn	1 (A/B)	V	3,9	6,1	2,6″	2019	2800 a	A1 V	A4 V			STF 1334	09188+3648	38
Lyn	38 Lyn	2 (Ba/Bb)	SI	6,1	.	0,2″	2004						CHR 173	09188+3648	38
Lyn	10 UMa		V/SB	4,2	6,5	0,4″	2017	21,8 a	F3 V	K0 V	1,4	0,9	KUI 37	09006+4147	16	^[148] (S, M)
Lyn	HR 2486		V	6,3	6,3	4,5″	2019	2000 a	F6 V	F4 V			STF 958	06482+5542	43
Lyr	β Lyr	1 (A/B)	CPM	3,4	6,7	45,7″	2017		B6–8 II + B	B7 V	Σ 16		STFA 39	18501+3322	310	^[149] (S_Aa1/Aa2, M, d)
Lyr	β Lyr	2 (Aa1/Aa2)	E/I/SB	3,6	4,0	–	–	12,9 d	B6–8 II	B	13	3	CIA 3	18501+3322	310	^[149] (S_Aa1/Aa2, M, d)
Lyr	ε Lyr	1 (ε¹ = AB / ε² = CD)	CPM	4,7	4,6	209,5″	2016	≈ 340 000 a	A3 V + F0 V	A6 Vn + A7 Vn	Σ 3,9	Σ 3,6	STFA 37	18443+3940	50	^[150] (U_AB/CD, M)
		2 (A/B)	V	5,2	6,1	2,2″	2020	2800 a	A3 V	F0 V	2,3	1,6	STF 2382
		2 (C/D)	V	5,3	5,4	2,4″	2020	720 a	A6 Vn	A7 Vn	1,9	1,7	STF 2383
Lyr	ζ Lyr	1 (ζ¹ = A / ζ² = D)	CPM	4,3	5,6	43,7″	2018		kA5hF0VmF3	F1 Vnn			STFA 38	18448+3736	48	^[3] (U)
Lyr	ζ Lyr	2 (Aa/Ab)	SB	4,3	.	–	–	4,3 d						18448+3736	48	^[3] (U)
Lyr	η Lyr	1 (A/B)	O?	4,4	8,6	28,4″	2017		B2,5 IV	A0 IVn			STF 2487	19138+3909	430	^[3] (U)
Lyr	η Lyr	2 (Aa/Ab)	SB	4,4	.	–	–	56,4 d	B2,5 IV					19138+3909	430	^[3] (U)
Lyr	ι Lyr		SI	5,3	6,4	0,1″	2014	220 a					STA 3	19073+3606	280
Lyr	HR 7162		V	5,3	8,0	1,3″	2015	63 a	F9 V	K1 V	1,1	0,7	BU 648	18570+3254	15	^[36] (M)
Lyr	GJ 758		V(aO)	4,8	.	1,6″	2017	96 a	G8 V	T7	1,0	0,04–0,05	THA 1	19236+3313	16	^[151] (S, M)
Lyr	17 Lyr	1 (A/B)	V	5,3	9,1	3,2″	2017	> 1200 a	F0 V	G:	≈ 1,8	≈ 0,8	STF 2461	19074+3230	44	^[152] (U_A/B, S, M), ^[3] (U_Aa/Ab)
Lyr	17 Lyr	2 (Aa/Ab)	SB	5,3	.	–	–	42,9 d	F0 V					19074+3230	44	^[152] (U_A/B, S, M), ^[3] (U_Aa/Ab)
Mic	α Mic		O?	5,0	10,1	20,2″	2010						HJ 5224	20500-3347	120
Mic	θ² Mic		V	6,2	6,9	0,3″	2019	460 a					BU 766	21244-4100	120
Mon	β Mon	1 (β^1/2 = AB / C)	V	4,0	5,4	9,9″	2019		B4 Ve(shell) + B2 Vn(e)	B3 V:nne			STF 919	06288-0702	210
Mon	β Mon	1 (β¹ = A / β² = B)	V	4,6	5,0	7,1″	2019		B4 Ve(shell)	B2 Vn(e)			STF 919	06288-0702	210
Mon	ε Mon		V	4,4	6,6	12,2″	2019		A7 IV	F4 V			STF 900	06238+0436	41
Mon	3 Mon		V	5,0	8,0	1,9″	1996						BU 16	06018-1036	220
Mon	14 Mon		V	6,5	10,6	11,0″	2012						STF 938	06348+0734	200
Mon	15 Mon	1 (A/B)	O?	4,6	7,8	3,0″	2018		O7 V((f))z	B2	Σ 45 ± 4		STF 950	06410+0954	720	^[153] (U, S, M, d)
Mon	15 Mon	2 (Aa/Ab)	SI/SB	4,7	5,9	0,1″	2018	108 a	O7 V((f))z		Σ 45 ± 4		CHR 168	06410+0954	720	^[153] (U, S, M, d)
Mon	Ross 614		V	11,0	14,8	1,3″	2020	16,6 a	M4 V	M5,5 V	0,2	0,11	B 2601	06293-0248	4,1	^[154] (S), ^[155] (M)
Mon	WISE 0720−0846 (Scholz’ Stern)		V(aO)	18,3	.	0,4″	2019	8,1 a	M9,5	T5,5	0,09	0,06	BUG 17	07200-0847	6,8	^[156] (V)^[157] (U, S, M, d)
Mus	β Mus		V	3,5	4,0	1,0″	2019	460 a	B2 V	B3 V			R 207	12463-6806	100	^[24] (S)
Mus	δ Mus		SB/A	3,6	.	–	–	1,2 a					del Mus	13023-7133	28
Mus	η Mus	1 (AB/C)	CPM	4,8	7,2	58,2″	2015		B7 III	B7 III			DUN 131	13152-6754	120	^[3] (U)
		2 (A/B)	V(IR)	4,8	.	2,5″	2015		B7 III				HUB 11
		3 (Aa/Ab)	SB	4,8	.	–	–	20,0 d	B7 III
Mus	θ Mus	1 (A/B)	V	5,7	7,6	5,5″	2016		WC5–6 + O6–7 V + O9,5–B0 Iab	O9 III			RMK 16	13081-6518	2300	^[158] (S_Aa1/Aa2, U_Aa1/Aa2, d)
		2 (Aa/Ab)	SI	5,9	6,6	0,0″	2016		WC5–6 + O6–7 V	O9,5–B0 Iab			CHR 247
		3 (Aa1/Aa2)	SB	5,9	.	–	–	19,1 d	WC5–6	O6–7 V
Mus	λ Mus		A	3,6	.	–	–	1,2 a					lam Mus	11456-6644	39
Mus	12 G. Mus	1 (A/B)	V	5,5	6,6	0,2″	2018	97 a	K4 III + dF–G	A0 V + A2 V			B 1705	11395-6524	150	^[21] (U_Aa/Ab, U_Ba/Bb, S)
		2 (Aa/Ab)	SB	5,5	.	–	–	61 d	K4 III	dF–G
		2 (Ba/Bb)	E/SB	6,6	.	–	–	2,75 d	A0 V	A2 V
Mus	HR 4401		V	5,4	6,6	2,5″	2016		B5 IV	B9,5 IV			HJ 4432	11234-6457	120
Nor	ε Nor	1 (A/B)	V	4,5	6,1	22,9″	2016		B3 V + B3 V	A			HJ 4853	16272-4733	160	^[159] (U, S_Aa/Ab)
Nor	ε Nor	2 (Aa/Ab)	SB	4,5	.	–	–	3,26 d	B3 V	B3 V				16272-4733	160	^[159] (U, S_Aa/Ab)
Nor	ι¹ Nor	1 (AB/C)	V	4,6	8,0	11,0″	2019		A5 V + A6 V				HJ 4825	16035-5747	39	^[13] (S)
Nor	ι¹ Nor	2 (A/B)	V	5,2	5,8	0,2″	2020	26,8 a	A5 V	A6 V			SEE 258	16035-5747	39	^[13] (S)
Nor	λ Nor		V	5,8	6,9	0,4″	2018	68 a	A4	A7			SEE 271	16193-4240	110	^[13] (S)
Oct	ι Oct		V	5,9	6,9	0,7″	2019						RST 2819	12550-8507	110
Oct	λ Oct		V	5,6	7,3	3,5″	2008						HJ 5278	21509-8243	130
Oct	μ² Oct		V	6,5	7,1	16,6″	2015						DUN 232	20417-7521	40
Oct	ν Oct		SB	3,7	.	–	–	2,8 a					BLM 6	21415-7723	19
Oph	α Oph (Ras Alhague)		SI	2,1	5,0	0,7″	2018	8,6 a	A5 IV	K5–7 V	2,4	0,9	MCY 4	17349+1234	15	^[160] (S, M)
Oph	η Oph		V	3,1	3,3	0,5″	2019	88 a	A1 IV	A1 IV	3,0	3,5	BU 1118	17104-1544	27	^[60] (S), ^[161] (M)
Oph	λ Oph	1 (AB/C)	CPM	3,8	11,8	119,6″	2013		A0 V + A4 V		Σ 4,8		STF 2055	16309+0159	53	^[24] (S), ^[11] (M)
Oph	λ Oph	2 (A/B)	V	4,2	5,2	1,4″	2019	129 a	A0 V	A4 V	2,7	2,1	STF 2055	16309+0159	53	^[24] (S), ^[11] (M)
Oph	ξ Oph		V	4,4	8,9	4,1″	2015	420 a	F3 V	K3:			DON 832	17210-2107	17
Oph	ο Oph		V	5,2	6,6	10,8″	2019		G8 III	F6 IV–V			H 3 25	17180-2417	86
Oph	ρ Oph		V	5,1	5,7	3,0″	2017	4200 a	B2 IV	B2 V			H 2 19	16256-2327	110
Oph	τ Oph	1 (A/B)	V	5,3	5,9	1,5″	2019	260 a	F2 V	F5 V			STF 2262	18031-0811	51	^[3] (U_Aa/Ab), ^[13] (S)
Oph	τ Oph	2 (Aa/Ab)	SB	5,3	.	–	–	184 d	F2 V				STF 2262	18031-0811	51	^[3] (U_Aa/Ab), ^[13] (S)
Oph	υ Oph	1 (A/B)	V	4,7	8,8	1,0″	2019	76 a	A3m		Σ 5,0 ± 0,8		RST 3949	16278-0822	41	^[3] (U_Aa/Ab), ^[58] (S, M)
Oph	υ Oph	2 (Aa/Ab)	SB	4,7	.	–	–	27,2 d	A3m					16278-0822	41	^[3] (U_Aa/Ab), ^[58] (S, M)
Oph	19 Oph		O	6,1	9,7	23,9″	2019						STF 2096	16472+0204	220
Oph	21 Oph		V	5,8	7,3	0,8″	2019	990 a					STT 315	16514+0113	120
Oph	24 Oph		V	6,3	6,3	1,0″	2015	1100 a					BU 1117	16568-2309	120
Oph	36 Oph	1 (AB/C)	CPM	4,4	6,5	731,6″	2000		K0 V + K1 V	K5 V	Σ 1,6		SHJ 243	17153-2636	5,9	^[162] (S, M)
Oph	36 Oph	2 (A/B)	V	5,1	5,1	5,1″	2017	470 a	K0 V	K1 V	0,8	0,8	SHJ 243	17153-2636	5,9	^[162] (S, M)
Oph	41 Oph		V	4,9	7,5	0,7″	2019	141 a					A 2984	17166-0027	62
Oph	47 Oph		I/SB	4,9	5,8	–	–	26,3 d			1,5	1,2	MKT 14	17266-0505	31	^[163] (S, M, d)
Oph	61 Oph		V	6,1	6,5	20,8″	2019		A0 IV	A0 IV			STF 2202	17446+0235	97
Oph	68 Oph		V	4,5	7,5	0,4″	2018	210 a					BU 1125	18018+0118	90
Oph	70 Oph		V/SB	4,2	6,2	6,4″	2019	88 a	K0 V	K5 V	0,9	0,7	STF 2272	18055+0230	5,1	^[49] (S, M)
Oph	73 Oph		V	6,0	7,5	0,8″	2019	290 a	A8	F6	1,7	1,2	STF 2281	18096+0400	55	^[11] (S, M)
Oph	HR 6367		V	6,3	7,8	0,7″	2018	200 a	A1 V	F3 V			A 1145	17082-0105	81	^[24] (S)
Oph	HR 6516		V	6,1	6,2	0,4″	2019	46,4 a	G9 IV–V	G9 IV–V	1,0	0,9	STF 2173	17304-0104	16	^[1] (S, M, d)
Oph	V1054 Oph	1 (ABC/F)	CPM	9,0	16,9	230,7″	2005		M3,5 Ve + M + M + M3,5 V	M7 Ve	Σ 1,2	0,08	WNO 55	16555-0820	6,2	^[164] (U_Ba/Bb, S_Ba/Bb, M)
		2 (AB/C)	CPM	9,4	11,8	72,2″	2014		M3,5 Ve + M + M	M3,5 V	Σ 1,0	0,2	LDS 573
		3 (A/B)	V/SB	9,7	9,8	0,2″	2019	1,7 a	M3,5 Ve	M + M	0,4	Σ 0,6	KUI 75
		4 (Ba/Bb)	SB	9,8	.	–	–	2,97 d	M	M	0,3	0,3
Oph	RS Oph		SB	10,8	.	–	–	1,2 a	M0–2 III	D	0,7–0,8	1,2–1,4			2400	^[30] (V), ^[165] (U, S, M)
Ori	β Ori (Rigel)	1 (A/BC)	V	0,3	6,8	10,3″	2020		B8 Iae	B9 + B9			STF 668	05145-0812	260	^[3] (U)
		2 (B/C)	V	7,5	7,6	0,1″	2005		B9	B9			BU 555
		3 (Ba/Bb)	SB	7,5	.	–	–	9,86 d	B9
Ori	δ Ori (Mintaka)	1 (Aa/Ab)	V	2,4	3,8	0,3″	2019	350 a	O9,5 II + B0 V	B0 IV	Σ 32,3	22,5	HEI 42	05320-0018	380	^[5] (U_Aa1/Aa2, S_Aa1/Aa2, M_Aa1/Aa2), ^[166] (S_Ab, M_Ab, d)
Ori	δ Ori (Mintaka)	2 (Aa1/Aa2)	E/SB	2,5	5,6	–	–	5,73 d	O9,5 II	B0 V	23,2	9,1		05320-0018	380
Ori	ζ Ori (Alnitak)	1 (A/B)	V	1,9	3,7	2,4″	2017	1510 a	O9,5 Ib + B0,5 IV	B0 III	Σ 47 ± 13		STF 774	05407-0157	390	^[167] (S, M, d)
Ori	ζ Ori (Alnitak)	2 (Aa/Ab)	I/SB	2,0	4,0	–	–	7,4 a	O9,5 Ib	B0,5 IV	33 ± 10	14 ± 3	NOI 1	05407-0157	390	^[167] (S, M, d)
Ori	η Ori	1 (A/B)	V	3,6	4,9	1,9″	2020		B1 V + B3 V + B2 V	B2:			DA 5	05245-0224	300	^[3] (U_Aa1/Aa2), ^[21] (S_Aa/Ab, S_Aa1/Ab2)
		2 (Aa/Ab)	SI/SB	3,8	5,3	0,0″	2019	9,4 a	B1 V + B3 V	B2 V			MCA 18
		3 (Aa1/Aa2)	E/SB	3,8	.	–	–	7,98 d	B1 V	B3 V
Ori	θ¹ Ori A	1 (Aa/Ab)	SI	6,6	9,8	0,2″	2018	≈ 210 a	B0,5		Σ ≈ 18,5	4	PTR 1	05353-0523	410	^[168] (U, S, M), ^[169] (d)
Ori	θ¹ Ori A	2 (Aa1/Aa2)	E	6,6	.	–	–	65,1 d	B0,5		≈ 16	≈ 2,5		05353-0523	410	^[168] (U, S, M), ^[169] (d)
Ori	θ¹ Ori B	1 (Ba,Bc,Be/ Bb,Bd)	SI	7,5	8,5	0,9″	2012	≈ 1920– 11 000 a	B1 V + A + B:		Σ ≈ 15	Σ 7	SMN 5	05353-0523	410	^[168] (U, S, M), ^[169] (d)
		1? (Ba,Be/Bc)	SI	7,5	10,5	0,6″	2012	2000 a	B1 V + A + B:		Σ ≈ 14	≈ 1	SMN 5
		2? (Bb/Bd)	SI	> 10	> 10,8	0,1″	2012	≈ 200 a			4	3	PTR 1
		3? (Ba/Be)	I	7,5	> 7,3	–	–		B1 V + A	B:	Σ ≈ 9	4–6	GVT 1
		4? (Ba1/Ba2)	E	7,5	.	–	–	6,47 d	B1 V	A	≈ 7	≈ 2
Ori	θ¹ Ori C	1 (Ca/Cb)	I/SB	5,3	6,7	–	–	11,4 a	O6 Vp	B0 V	Σ 33 ± 5	11 ± 5	WGT 1	05353-0523	410	^[170] (S_Ca/Cb, M_Ca/Cb), ^[168] (U_Ca1/Ca2, M_Ca1/Ca2), ^[169] (d)
Ori	θ¹ Ori C	2 (Ca1/Ca2)	SB	5,3	.	–	–	61,5 d	O6 Vp		31	1		05353-0523	410
Ori	θ¹ Ori D		I/SB	6,4	> 6,9	–	–	53,0 d	B1,5 V	B	16	6	GVT 1	05353-0523	410	^[168] (U, S, M), ^[169] (d)
Ori	ι Ori	1 (A/B)	V	2,8	7,7	12,5″	2018		O9 III + B1 III–IV + B2: IV:	B2 V	Σ > 36		STF 752	05354-0555	410	^[171] (U, S_Aa1/Aa2, M_Aa1/Aa2), ^[81] (S_Aa/Ab, S_B, d)
		2 (Aa/Ab)	SI	3,0	6,3	0,1″	2016		O9 III + B1 III–IV	B2: IV:	Σ 36		CHR 250
		3 (Aa1/Aa2)	SB	3,0	.	–	–	29,1 d	O9 III	B1 III–IV	23	13
Ori	λ Ori		V	3,5	5,5	4,3″	2019		O8 IIIf	B0,5 V			STF 738	05351+0956	340
Ori	μ Ori	1 (A/B)	V	4,3	6,3	0,0″	2020	18,6 a	A5 V + G5 V	F5 V: + F5 V:	Σ 3,0	Σ 2,7	A 2715	06024+0939	46	^[33]^[134] (S, M, d)
		2 (Aa/Ab)	SB/A	4,4	.	–	–	4,45 d	A5 V	G5 V	2,4	0,7
		2 (Ba/Bb)	SB/A	6,3	.	–	–	4,78 d	F5 V:	F5 V:	1,4	1,4
Ori	ρ Ori	1 (A/B)	V	4,6	8,5	6,4″	2018						STF 654	05133+0252	110
Ori	ρ Ori	2 (Aa/Ab)	SB/A	4,5	.	–	–	2,8 a						05133+0252	110
Ori	σ Ori	1 (A/B)	V	4,1	5,3	0,3″	2015	160 a	O9 V	B0,5 V	Σ 30	11,5 ± 1,5	BU 1032	05387-0236	390	^[24] (S), ^[172] (U_Aa/Ab, M)
Ori	σ Ori	2 (Aa/Ab)	I/SB	4,1	.	–	–	143 d	O9 V		17	12,8	NOI 6	05387-0236	390	^[24] (S), ^[172] (U_Aa/Ab, M)
Ori	χ¹ Ori		SI/SB	4,5	7,5	0,0″	2019	14,1 a	G0 V		1,0	0,15	KNG 1	05544+2017	8,7	^[173] (S, M)
Ori	14 Ori		V	5,7	6,6	1,0″	2020	198 a	Am	Am	1,8	1,5	STT 98	05079+0830	62	^[13] (S), ^[107] (M)
Ori	23 Ori		V	5,0	6,8	32,0″	2019		B2 IV–V	B8–9			STF 696	05228+0333	370
Ori	32 Ori		V	4,5	5,8	1,3″	2017	610 a	B5 IV	B7 V	4,4	3,3	STF 728	05308+0557	93	^[24] (S), ^[11] (M)
Ori	33 Ori		V	5,7	6,7	1,8″	2017						STF 729	05312+0318	350
Ori	42 Ori	1 (A/B)	V	4,6	7,5	1,2″	2020		B1 V				DA 4	05354-0450	400	^[174] (S, d)
Ori	42 Ori	2 (Aa/Ab)	SI	4,9	6,3	0,2″	2020							05354-0450	400	^[174] (S, d)
Ori	52 Ori		V	6,0	6,0	1,0″	2019	1260 a	A5 V	F0			STF 795	05480+0627	140	^[13] (S)
Ori	64 Ori	1 (A/B)	SI/SB	5,1	6,1	0,1″	2019	13,2 a	B7–8 IV–V + B7–8 IV–V	B5–6 IV–V	Σ 8,2 ± 0,7	3,8 ± 0,3	MCA 24	06035+1941	270	^[3] (U_Aa/Ab), ^[175] (S, M)
Ori	64 Ori	2 (Aa/Ab)	SB	5,1	.	–	–	14,6 d	B7–8 IV–V	B7–8 IV–V	4,3 ± 0,4	3,9 ± 0,3		06035+1941	270	^[3] (U_Aa/Ab), ^[175] (S, M)
Ori	75 Ori		SI	6,1	6,1	0,1″	2018	9,2 a					FIN 331	06171+0957	78
Ori	V1031 Ori	1 (A/B)	SI	6,3	7,8	0,2″	2019	31 a	A8 III–IV + A5 IV–V	A6 IV–V	Σ 4,8	≈ 2,2	MCA 22	05474-1032	460	^[21] (U_Aa/Ab, S), ^[176] (M)
Ori	V1031 Ori	2 (Aa/Ab)	E/SB	6,3	.	–	–	3,41 d	A8 III–IV	A5 IV–V	2,5	2,3		05474-1032	460	^[21] (U_Aa/Ab, S), ^[176] (M)
Ori	HR 2174		V	5,7	6,7	29,1″	2019		B9 V	A2 IV			STF 855	06090+0230	180
Pav	ξ Pav	1 (A/B)	V	4,5	8,1	3,7″	2016						GLE 2	18232-6130	140
Pav	ξ Pav	2 (Aa/Ab)	SB/A	4,5	.	–	–	6,1 a						18232-6130	140
Pav	HR 7278		V	6,1	6,4	0,5″	2019	157 a	A5 V	A8 V			GLE 3	19172-6640	92	^[13] (S)
Pav	SCR 1845-6357		V(aO)	17,4	.	1,2″	2006		M8,5	T6		0,04–0,05	BIL 1	18451-6358	3,9	^[30] (V), ^[177] (S, M, d)
Peg	η Peg (Matar)		SI/SB	4,1	6,9	0,1″	2005	2,2 a	G2 II–III	A5 V	3,2 ± 0,4	2,0 ± 0,2	BLA 11	22430+3013	73	^[178] (S, M)
Peg	ι Peg		I/SB	3,5	5,7	–	–	10,2 d	F5 V	G8 V	1,3	0,8	PTI 1	22070+2521	11,5	^[33] (S, M)
Peg	κ Peg	1 (A/B)	V/SB	4,9	5,0	0,2″	2011	11,6 a	F5 IV	F5 IV + G–K	1,5	Σ 2,5	BU 989	21446+2539	34	^[179] (S, M)
Peg	κ Peg	2 (Ba/Bb)	SB/A	5,0	.	–	–	5,97 d	F5 IV	G–K	1,7	0,8		21446+2539	34	^[179] (S, M)
Peg	ψ Peg		SI	4,7	.	0,1″	1995	55 a					MCA 76	23578+2508	150
Peg	1 Peg	1 (A/B)	CPM	4,2	9,3	36,6″	2020	17 500 a	K1 III	K0 V			STFB 11	21221+1948	48	^[3] (U_Ba/Bb)
Peg	1 Peg	2 (Ba/Bb)	SB	9,3	.	–	–	3,0 a	K0 V					21221+1948	48	^[3] (U_Ba/Bb)
Peg	3 Peg		CPM	6,2	7,5	38,7″	2020		A2 V	F0 V			STFA 56	21377+0637	88
Peg	13 Peg		V	5,7	6,9	0,2″	2014	26,3 a	F2 III–IV		2,7 ± 0,3		COU 14	21501+1717	33	^[9] (M)
Peg	33 Peg		V	6,3	9,2	1,0″	2017	410 a	F7 IV				STF 2900	22237+2051	33
Peg	34 Peg	1 (A/B)	V	5,8	12,5	4,1″	2015	420 a	F7 V	K4			BU 290	22266+0424	40	^[13] (S)
Peg	34 Peg	2 (Aa/Ab)	SB/A	5,8	.	–	–	2,4 a	F7 V					22266+0424	40	^[13] (S)
Peg	37 Peg	1 (A/B)	V	5,8	7,3	0,2″	2020	124 a	F4 IV	F7 IV	1,7	Σ 2,3	STF 2912	22300+0426	53	^[24] (S), ^[180] (U, M)
Peg	37 Peg	2 (Ba/Bb)	SI/SB	7,8	8,2	0,0″	2020	2,1 a	F4 IV		1,2	1,1	STF 2912	22300+0426	53	^[24] (S), ^[180] (U, M)
Peg	52 Peg		V	6,1	7,3	0,5″	2016	250 a	A8 V	F6 V			STT 483	22592+1144	94	^[24] (S)
Peg	57 Peg	- (A/B)	O?	5,2	10,1	32,6″	2015		M4S III + A6 V		Σ ≈ 4,9		STF 2982	23095+0841	240	^[181] (U, S_Ab, M)
Peg	57 Peg	1 (Aa/Ab)	SI/SB	5,2	8,2	0,2″	2014	100–500 a	M4S III	A6 V	≈ 3	≈ 1,9	YSC 16	23095+0841	240	^[181] (U, S_Ab, M)
Peg	64 Peg		V	5,4	7,8	0,4″	2002						BU 718	23219+3149	170
Peg	72 Peg		V	5,7	6,1	0,6″	2018	490 a	K3 III	K5 III	≈ 2	≈ 2	BU 720	23340+3120	170	^[24] (S), ^[36] (M)
Peg	78 Peg		V	5,1	8,1	0,8″	2016	640 a					AGC 14	23440+2922	69
Peg	85 Peg		V	5,8	8,9	0,4″	2015	26,3 a	G3 V	K6 V	0,9	0,7	BU 733	00022+2705	13	^[49] (S, M)
Peg	IK Peg		SB	6,1	14,4	–	–	21,7 d	A8 V	DA1,5	1,5	1,2			47	^[46] (V, U, S, M)
Peg	EQ Peg		V	10,5	12,4	5,4″	2017	230 a	M4	M5			WIR 1	23317+1956	6,2
Per	β Per (Algol)	1 (Aa/Ab)	SI/SB	2,1	4,6	0,1″	2010	1,9 a	B8 V + K2 IV	Am	Σ 3,9	1,8	LAB 2	03082+4057	28	^[182] (S, M)
Per	β Per (Algol)	2 (Aa1/Aa2)	E/I/SB	2,1	.	–	–	2,87 d	B8 V	K2 IV	3,2	0,7	CSI 1	03082+4057	28	^[182] (S, M)
Per	γ Per		E/SI/SB	3,6	3,8	0,1″	2007	14,6 a	G8 IIIa	A2 IV	2,5	1,4	WRH 29	03048+5330	75	^[5] (S, M)
Per	ε Per	1 (A/B)	V	2,9	8,9	8,8″	2020		B1,5 III	A2 V	Σ ≈ 15		STF 471	03579+4001	200	^[183] (U, M)
Per	ε Per	2 (Aa/Ab)	SB	2,9	.	–	–	14,1 d	B1,5 III		13,5 ± 2,0	0,9–1,8		03579+4001	200	^[183] (U, M)
Per	ζ Per	1 (A/E)	CPM	2,9	10,0	120,0″	2012		B1 Ib + B9 V	A2V			STF 464	03541+3153	230
Per	ζ Per	2 (A/B)	V	2,9	9,2	12,8″	2020		B1 Ib	B9 V			STF 464	03541+3153	230
Per	η Per (Miram)		CPM	3,8	8,5	28,7″	2018		K3 Ib–IIa	B9 V			STF 307	02507+5554	270
Per	θ Per		V	4,2	10,0	21,2″	2020	2700 a	F7 V	M1 V			STF 296	02442+4914	11,1	^[24] (S)
Per	ο Per	1 (A/B)	V	3,9	6,7	1,1″	2015		B1 III + B2 V		Σ 24		BU 535	03443+3217	340	^[184] (U, S), ^[185] (M)
Per	ο Per	2 (Aa/Ab)	SB	3,9	.	–	–	4,42 d	B1 III	B2 V	14	10		03443+3217	340	^[184] (U, S), ^[185] (M)
Per	τ Per		E/SI/SB	4,2	5,9	–	–	4,1 a	G8 IIIa	A6 V	2,1	1,8	LAB 1	02543+5246	64	^[5] (S, M)
Per	φ Per		SI/SB	4,1	7,8	0,0″	2013	127 d	Be	sdO			CIA 6	01437+5041	220	^[60] (S)
Per	12 Per		SI/SB	5,5	5,9	0,0″	2016	331 d	F8 V	G1,5 V	1,4	1,2	MCA 8	02422+4012	24	^[33] (S, M, d)
Per	20 Per	1 (AB/C)	V	5,4	9,7	14,0″	2014		F3 IV–V + F6 IV–V		Σ 3,9 ± 0,6		STF 318	02537+3820	71	^[24] (S), ^[9] (M)
Per	20 Per	2 (A/B)	V	5,8	6,8	0,2″	2008	31,6 a	F3 IV–V	F6 IV–V	Σ 3,9 ± 0,6		BU 524	02537+3820	71	^[24] (S), ^[9] (M)
Per	34 Per		V	4,7	7,3	0,6″	2016						BU 1179	03294+4931	170
Per	56 Per	1 (A/B)	V	5,8	9,3	4,2″	2017	1890 a	F4 V + DA3,1	F2	Σ 2,4		STT 81	04246+3358	41	^[46] (U_Aa/Ab, S_Aa/Ab, M)
		2 (Aa/Ab)	V(HST)	5,8	15,0	0,4″	1999	47 a	F4 V	DA3,1	1,5	0,9	BAS 5
		2 (Ba/Bb)	V(HST)	9,6	11,3	0,6″	2002		F2				BAS 5
Per	57 Per		O	6,1	6,8	121,4″	2013		F0 V	F0			SHJ 44	04334+4304	61
Per	58 Per		SB/A	4,3	.	–	–	28,8 a	K0 II–III	B9 V			58 Per	04367+4116	240
Per	HR 890		V	5,2	6,2	12,0″	2019		B7 V	B9 V			STF 331	03009+5221	140
Phe	α Phe		SB/A	2,4	.	–	–	10,5 a					alp Phe	00262-4217	26
Phe	β Phe		V	4,1	4,2	0,6″	2018	171 a					SLR 1	01061-4643	50	^[186] (d)
Phe	γ Phe		SB/A	3,4	.	–	–	194 d					gam Phe	01284-4319	72
Phe	ζ Phe	1 (AB/C)	V	4,0	8,2	6,8″	2016		B6 V + B8 V + A7 V	F1 V	Σ 8,1		RMK 2	01084-5515	92	^[21] (U_Aa/Ab, S_B, M_B), ^[33] (S_Aa/Ab, M_Aa/Ab)
		2 (A/B)	V	4,0	6,8	0,6″	2020	290 a	B6 V	A7 V	Σ 6,4	1,7	RST 1205
		3 (Aa/Ab)	E/SB	4,0	.	–	–	1,67 d	B6 V	B8 V	3,9	2,5
Phe	η Phe	1 (A/B)	V	4,4	11,5	20,1″	1999		A0 IV + G:–K:				HJ 3391	00434-5728	76	^[136] (U, S, M)
Phe	η Phe	2 (Aa/Ab)	I/A	4,4	8,5	–	–	≈ 10 a	A0 IV	G:–K:	2,8		MRN 1	00434-5728	76	^[136] (U, S, M)
Phe	ξ Phe		V	5,7	10,0	13,1″	2015						HJ 3387	00418-5630	68
Phe	υ Phe		V	5,5	6,9	0,3″	2020	28,4 a	A2 IV	A4 IV	Σ 3,2 ± 0,4		RST 3352	01078-4129	62	^[13] (S), ^[58] (M)
Pic	α Pic		A	3,3	.	–	–	4,2 a					alp Pic	06482-6156	30
Pic	θ Pic	1 (AB/C)	CPM	6,2	6,7	38,3″	2008		A0 V	A2 V			DUN 20	05248-5219	160
Pic	θ Pic	2 (A/B)	V	6,8	7,4	0,3″	2019	123 a	A0 V				I 345	05248-5219	160
Pic	ι Pic		V	5,6	6,2	12,8″	2009						DUN 18	04509-5328	40
Pic	μ Pic		V	5,6	9,3	2,5″	2019		B9I Vn	A8 V:p			HJ 3874	06320-5845	190
PsA	α PsA (Fomalhaut)	1 (AB/C)	CPM	1,2	12,6	5,7°	–		A3 Va + K4e	M4 V	Σ 2,6	0,2	MAM 1	22577-2937	7,7	^[187] (ρ_AB/C, ρ_A/B, S, M)
PsA	α PsA (Fomalhaut)	2 (A / B = TW PsA)	CPM	1,2	6,6	2,0°	–		A3 Va	K4e	1,9	0,7	SHY 106	22577-2937	7,7	^[187] (ρ_AB/C, ρ_A/B, S, M)
PsA	β PsA		V	4,3	7,1	30,4″	2015		A1 Va	G1 V			PZ 7	22315-3221	44
PsA	γ PsA		V	4,5	8,2	4,0″	2010		A0 VpSrCrEu	F5 V			HJ 5367	22525-3253	62
PsA	δ PsA		V	4,3	9,2	4,9″	2015						HWE 91	22559-3232	53
PsA	η PsA		V	5,7	6,8	1,9″	2017		B8(shell) III	B8,5 IV			BU 276	22008-2827	250
PsA	θ PsA		SI	5,8	5,8	0,1″	2020	20,0 a	A1 V	A1 V	2,3 ± 0,4	2,3 ± 0,4	FIN 330	21477-3054	90	^[16] (S, M, d)
Psc	α Psc (Alrescha)		V	4,1	5,2	1,9″	2019	1950 a	kA0hA7Sr	kA2hF2mF2			STF 202	02020+0246	46
Psc	ζ Psc	1 (A/BC)	V	5,2	6,3	23,1″	2020		A7 IV	F7 V + G7 V			STF 100	01137+0735	40	^[3] (U, S_Ba/Bb)
		2 (B/C)	V	6,3	12,2	2,0″	2015		F7 V + G7 V				BU 1029
		3 (Ba/Bb)	SB	6,3	.	–	–	9,08 d	F7 V	G7 V
Psc	η Psc		V	3,8	7,5	0,6″	2008	850 a					BU 506	01315+1521	110
Psc	ψ¹ Psc	1 (A/B)	V	5,3	5,5	29,9″	2020		A0 IV–Vnn	B9 IVn			STF 88	01057+2128	84
Psc	ψ¹ Psc	2 (Aa/Ab)	SI	5,7	6,6	0,1″	2017	14,4 a	A0 IV–Vnn				YR 6	01057+2128	84
Psc	24 Psc		SI	6,7	6,7	0,1″	2020	22,8 a	G9 III	A0 V	Σ 2,9 ± 0,8		FIN 359	23529-0309	170	^[20] (S, M)
Psc	27 Psc		V	4,9	8,9	0,7″	2018	930 a					BU 730	23587-0333	72
Psc	33 Psc		SB/A	4,6	.	–	–	72,9 d			1,7 ± 0,4	0,8 ± 0,2	33 Psc	00053-0542	39	^[188] (M)
Psc	34 Psc		V	5,5	9,4	7,6″	2015		B9 Vn	G5 Ve			STF 5	00100+1109	93
Psc	35 Psc	1 (A/B)	V	6,1	7,5	11,2″	2019		F1 IV–V + F1 IV–V	A7			STF 12	00150+0849	75	^[3] (U, S_Aa/Ab)
Psc	35 Psc	2 (Aa/Ab)	E/SB	6,1	.	–	–	0,84 d	F1 IV–V	F1 IV–V				00150+0849	75	^[3] (U, S_Aa/Ab)
Psc	51 Psc		SI	5,8	8,0	0,2″	2020	27,5 a					MCA 1	00324+0657	89
Psc	55 Psc		V	5,6	8,5	6,6″	2015		K2 IIIa	F3 V			STF 46	00399+2126	130
Psc	64 Psc		SB	5,7	6,0	–	–	13,8 d	F8 V	F8 V	1,2	1,2	64 Psc	00490+1656	23	^[18] (V), ^[33] (S, M, d)
Psc	65 Psc		V	6,3	6,3	4,4″	2020		F5 III	F4 III			STF 61	00499+2743	89
Psc	66 Psc		V	6,1	7,2	0,6″	2018	340 a	A0 V	A4 V			STT 20	00546+1911	77	^[24] (S)
Psc	77 Psc	1 (A/B)	V	6,4	7,3	33,2″	2020		F5 V	F5–7 V			STF 90	01058+0455	45
Psc	103 Psc		V	7,0	9,2	0,6″	2008						BU 5	01393+1638	180
Pup	π Pup	1 (A/B)	CPM	2,9	7,9	66,5″	2009		K4 III + B5	B9–A0 V			DUN 43	07171-3706	250
Pup	π Pup	2 (Aa/Ab)		2,9	6,5	0,7″	1991		K4 III	B5			HDS 1008	07171-3706	250
Pup	σ Pup	1 (A/B)	V	3,3	8,8	22,1″	2015		K5 III + A:	G5 V	Σ ≈ 7		DUN 51	07292-4318	59	^[189] (S, M)
Pup	σ Pup	2 (Aa/Ab)	SB/A	3,3	.	–	–	258 d	K5 III	A:	≈ 5	≈ 2	sig Pup	07292-4318	59	^[189] (S, M)
Pup	d² Pup		V	5,8	8,6	1,2″	1996						I 160	07397-3808	180
Pup	f Pup		SI	4,8	6,1	0,1″	2020	81 a					FIN 324	07374-3458	110
Pup	G Pup		V	5,9	8,1	1,0″	1999						I 156	06257-4811	180
Pup	k Pup (HR 2949 / 2948)		O	4,4	4,6	9,9″	2016		B5 IV	B6 V			H 3 27	07388-2648	120
Pup	n Pup		V	5,8	5,9	9,9″	2015		F5 V	F6 V			H N 19	07343-2328	32
Pup	t Pup		SI	5,1	7,6	0,0″	2020	52 a					HDS 970	06584-3407	170
Pup	2 Pup	1 (A/B)	V	6,0	6,7	16,7″	2019		A2 V	A8 V + A8 V	≈ 2	Σ 3,2	STF 1138	07455-1441	86	^[21] (U, S), ^[190] (M)
Pup	2 Pup	2 (Ba/Bb)	E/SB	6,7	.	–	–	1,66 d	A8 V	A8 V	1,6	1,6	STF 1138	07455-1441	86	^[21] (U, S), ^[190] (M)
Pup	5 Pup		V	5,7	7,3	1,0″	2020	570 a	F5	G3			STF 1146	07479-1212	29	^[13] (S)
Pup	9 Pup		V/SB	5,6	6,5	0,4″	2019	23,3 a	F9 V	G4 V	1,2	0,9	BU 101	07518-1354	17	^[13] (S), ^[68] (M)
Pup	171 G. Pup	1 (A/B)	CPM	5,3	14,7	871,1″	2010		F9 V	DC10			RAG 6	07456-3410	15
Pup	171 G. Pup	2 (Aa/Ab)	SI	5,3	9,0	0,8″	2020	23,1 a	F9 V				TOK 193	07456-3410	15
Pup	188 G. Pup		SI	5,6	6,8	0,0″	2020	2,4 a	G1,5 IIIFe	A:	Σ ≈ 5,9		TOK 194	07490-2455	110	^[191] (S_B, M)
Pup	HR 2668	1 (AB/C)	CPM	5,3	8,8	185,0″	2015		K0,5 V + G1,5 V	K6 V			DUN 38	07040-4337	17
		2 (A/B)	V	5,6	6,7	21,2″	2015		K0,5 V	G1,5 V			DUN 38
		2 (Ca/Cb)	SI/SB	8,8	13,0	0,2″	2020	4,6 a	K6 V				TOK 390
Pup	HR 3143		CPM	6,2	6,2	16,3″	2010		B2–3	B2–3			DUN 59	07592-4959	430
Pyx	ε Pyx	1 (A/BC)	V	5,6	9,5	17,6″	2015						H N 96	09099-3022	65
Pyx	ε Pyx	2 (B/C)	V	10,5	10,8	0,2″	2020						B 1113	09099-3022	65
Pyx	XY Pyx	1 (Aa/Ab)	SI	6,1	7,0	0,1″	2018	66 a	B2 V				FIN 314	08280-3507	620	^[60] (U_Aa1/Aa2)
Pyx	XY Pyx	2 (Aa1/Aa2)	E	6,1	.	–	–	0,92 d	B2 V					08280-3507	620	^[60] (U_Aa1/Aa2)
Pyx	HR 3367		V	5,8	6,7	0,4″	2019	260 a					I 489	08315-1935	110
Pyx	HR 3430		V	5,4	6,8	0,7″	2018	123 a	G3 V	K0 V			BU 208	08391-2240	19	^[24] (S)
Ret	β Ret		SI/SB	4,0	6,8	0,1″	2019	5,2 a					TOK 191	03442-6448	31
Ret	ε Ret		V	4,4	12,5	13,0″	2015		K2 IV	DA3,3			JSP 56	04165-5918	18	^[46] (S)
Ret	ζ Ret		CPM	5,3	5,6	309,1″	2015		G2,5 V	G1 V	1,0	1,0	ALB 1	03182-6230	12	^[192] (M)
Ret	θ Ret		V	6,0	7,7	4,1″	2015	26 000 a	B9 IV	kA2hA5VmA7			RMK 3	04177-6315	140
Scl	ε Scl		V	5,4	8,5	5,0″	2017	2200 a	F0 V	G9 V			HJ 3461	01456-2503	28	^[24] (S)
Scl	κ¹ Scl		V	6,1	6,2	1,3″	2017	580 a	F4 III	F3 III			BU 391	00094-2759	77	^[13] (S)
Scl	λ¹ Scl		V	6,6	7,0	0,7″	2017						HDO 182	00427-3828	150
Scl	τ Scl		V	6,0	7,4	0,8″	2020	680 a			1,9	1,4	HJ 3447	01361-2954	54	^[11] (M)
Sco	α Sco (Antares)		V	1,0	5,4	2,8″	2019	2700 a	M0,5 Iab	B3 V:	12	7	GNT 1	16294-2626	170	^[193] (M₁), ^[194] (M₂)
Sco	β Sco (Akrab)	1 (β¹ = AB / β² = CE)	V	2,6	4,5	13,4″	2019		B1 V	B2 V + B8pMn	Σ 33		H 3 7	16054-1948	140	^[195] (U_Ea/Eb, S_Ea), ^[196] (M_Aa/Ab, M_C, M_Ea, S_Aa/Ab), ^[197] (M_B)
		2 (A/B)	V	2,6	10,6	0,3″	2019	640 a	B1 V		Σ 25	8	BU 947
		2 (C/E)	SI	4,5	6,6	0,1″	2019	19 a	B2 V	B8pMn	8		MCA 42
		3 (Aa/Ab)	SB	2,9	4,1	–	–	6,83 d	B0,5 IV–V	B1,5 V	15	10	OCC 1958
		3 (Ea/Eb)	SB	6,6	.	–	–	11,1 d	B8pMn		3,5
Sco	δ Sco		SI/SB	2,4	4,6	0,2″	2019	10,8 a	B0,3 IV		13	8,2	LAB 3	16003-2237	150	^[198] (S, M)
Sco	λ Sco	1 (A/B)	I/SB	2,1	2,7	–	–	2,9 a	B1,5 IV	B2 IV	Σ 12,2 ± 1,5	8,1 ± 1,0	TNG 1	17336-3706	110	^[199] (U_Aa/Ab, S, M, d)
Sco	λ Sco	2 (Aa/Ab)	SB	2,1	.	–	–	6 d	B1,5 IV		10,4 ± 1,3	1,8 ± 0,2		17336-3706	110	^[199] (U_Aa/Ab, S, M, d)
Sco	θ Sco		V	2,0	5,4	6,5″	1991						SEE 510	17373-4300	92
Sco	ν Sco	1 (AB/CD)	CPM	4,0	6,1	41,3″	2019		B2 V	B8 V + B9 VpSi	Σ 23	Σ 8,4	H 5 6	16120-1928	150	^[3] (U_Aa/Ab), ^[13] (S_C/D), ^[200] (M)
		2 (A/B)	V	4,4	5,3	1,3″	2019		B2 V		Σ 17	6	BU 120
		2 (C/D)	V	6,6	7,2	2,4″	2019		B8 V	B9 VpSi	3	Σ 5,4	MTL 2
		3 (Aa,Ab/Ac)	SI	4,5	6,8	0,1″	2019		B2 V		Σ 11	6	CHR 146
		4 (Aa/Ab)	SB	4,5	.	–	–	5,6 d	B2 V		10	≈ 1
Sco	ξ Sco	1 (ABC/DE)	CPM	4,1	7,4	282,0″	–	≈ 300 000 a	F5 IV + F5 IV + G1 V	G8 V + K0 V	Σ 4,0	Σ 1,9			23	^[24] (S_A/B), ^[201] (ρ_ABC/DE, U_ABC/DE, U_AB/C, U_D/E, S_C, S_D/E, M)
		2 (AB/C)	V	4,2	7,3	7,2″	2019	1510 a	F5 IV + F5 IV	G1 V	Σ 3,0	1,0	STF 1998	16044-1122
		2 (D/E)	V	7,4	8,0	11,9″	2019	≈ 4500 a	G8 V	K0 V	1,0	0,9	STF 1999	16044-1127
		3 (A/B)	V	4,8	4,9	1,2″	2020	45,9 a	F5 IV	F5 IV	1,5	1,5	STF 1998	16044-1122
Sco	π Sco		E/SB	2,9	.	–	–	1,57 d	B1 V	B2: V:				15589-2607	180	^[3] (U)
Sco	ρ Sco		SB	3,9	.	–	–	4,00 d	B2 IV–V					15569-2913	140	^[3] (U, S)
Sco	σ Sco	1 (A/B)	CPM	2,9	8,4	20,5″	2019		B1 III + B1 V + B7 V	B9,5 V			H 4 121	16212-2536	210	^[202] (S, M)
		2 (Aa/Ab)	SI	3,1	5,2	0,4″	2019		B1 III + B1 V	B7 V	Σ 22,2 ^+1,6_−2,6		BLM 4
		3 (Aa1/Aa2)	I/SB	3,3	4,1	–	–	33,0 d	B1 III	B1 V	13,5 ^+0,5_−1,4	8,7 ^+0,6_−1,2	NOR 1
Sco	2 Sco		V	4,7	7,0	2,0″	2019						BU 36	15536-2520	150
Sco	11 Sco		V	5,8	9,8	3,3″	2015						BU 39	16076-1245	120
Sco	12 Sco		V	5,8	8,1	3,8″	2016		B9 V	F3 V			HJ 4839	16123-2825	93
Sco	HR 6077		V	5,6	6,9	23,6″	2018		F5 IV	F9 V			BSO 12	16195-3054	44
Sco	Gliese 667	1 (AB/C)	V	6,0	10,3	32,7″	2019		K3 V + K5 V	M1,5 V			HJ 4935	17190-3459	6,8
Sco	Gliese 667	2 (A/B)	V	6,4	7,4	0,7″	2019	42,2 a	K3 V	K5 V			MLO 4	17190-3459	6,8
Sct	β Sct		I/SB	4,3	8,1	–	–	2,3 a	G4 IIa	B9 V	4,6	2,6	NOI 5	18472-0445	220	^[203] (V), ^[204] (S, M)
Ser	β Ser		V	3,7	10,0	29,4″	2019		A2 IV	K3 V			STF 1970	15462+1525	48
Ser	δ Ser		V	4,2	5,2	4,0″	2020	1150 a	F0 IV	F0 IV			STF 1954	15348+1032	70
Ser	θ Ser		V	4,6	4,9	22,4″	2019		A5 V	A5 Vn			STF 2417	18562+0412	40
Ser	ι Ser		V	5,4	5,2	0,2″	2012	21,9 a	B9 V	A1 V	2,0 ± 0,4	2,0 ± 0,4	HU 580	15416+1940	58	^[112] (S, M)
Ser	μ Ser		SI	3,8	5,4	0,4″	2018	71 a					CHR 259	15496-0326	52
Ser	ψ Ser	1 (A/B)	V	6,0	12,0	4,6″	2013	730 a	G3 V	M3 + M3			A 2230	15440+0231	15	^[60] (S)
Ser	ψ Ser	2 (Ba/Bb)	V(aO)	12,7	12,8	0,1″	2020		M3	M3			RDR 6	15440+0231	15	^[60] (S)
Ser	36 Ser		SI	5,2	7,8	0,4″	2018	65 a	A7	G0	Σ 3,1 ± 0,5		CHR 51	15513-0305	50	^[20] (S, M)
Ser	59 Ser		V	5,4	7,6	3,9″	2018		A0 Vs	G: III			STF 2316	18272+0012	140
Ser	HR 7048 („Tweedledum and Tweedledee“)	1 (A/B)	V	6,3	6,7	2,6″	2019		A1 V + A	A2 V + A	Σ 10–12		STF 2375	18455+0530	190	^[205] (S_Ab, S_Bb, M)
		2 (Aa/Ab)	SI	6,9	7,3	0,0″	2020	28 a	A1 V	A	Σ 5–6		FIN 332
		2 (Ba/Bb)	SI	7,5	7,5	0,1″	2020	40 a	A2 V	A	Σ 5–6		FIN 332
Sex	γ Sex		V	5,4	6,4	0,5″	2019	78 a	A1 V	A4 V			AC 5	09525-0806	85	^[24] (S)
Sex	35 Sex		V	6,2	7,1	6,8″	2019		K2 II–III	K1 II–III			STF 1466	10433+0445	170
Sex	40 Sex		V	7,1	7,8	2,4″	2017						STF 1476	10493-0401	86
Sge	δ Sge		SI/SB	4,3	5,0	0,1″	1991	10,1 a	M2 IIab	B9,5 V	3,9	3,5	BLA 6	19474+1832	130	^[5] (S, M)
Sge	ζ Sge	1 (AB/C)	V	5,0	9,0	8,3″	2016		A1 V + A3 V	F5	Σ 4,7 ± 1,2		STF 2585	19490+1909	78	^[206] (S), ^[9] (M)
Sge	ζ Sge	2 (A/B)	V	5,6	6,0	0,2″	2007	23,2 a	A1 V	A3 V	Σ 4,7 ± 1,2		AGC 11	19490+1909	78	^[206] (S), ^[9] (M)
Sge	θ Sge	- (AB/C)	O	6,4	7,5	91,3″	2017		F3 V + G5 V	K2 III			STF 2637	20099+2055	45
Sge	θ Sge	1 (A/B)	V	6,6	8,9	11,7″	2019		F3 V	G5 V			STF 2637	20099+2055	260
Sgr	β¹ Sgr		O?	4,0	7,2	28,4″	2010		B9 V	F0 V			DUN 226	19226-4428	80
Sgr	ζ Sgr		V	3,3	3,5	0,3″	2020	21,0 a	A2 III	A4 IV	Σ 5,3 ± 0,4		HDO 150	19026-2953	27	^[13] (S), ^[58] (M)
Sgr	η Sgr		V	3,3	8,0	3,5″	2016						BU 760	18176-3646	45
Sgr	κ² Sgr		V	5,7	7,3	0,4″	2017	700 a					BU 763	20239-4225	96
Sgr	τ Sgr		A	3,3	.	–	–	69,3 d					tau Sgr	19069-2740	36
Sgr	υ Sgr		SB/A	4,6	.	–	–	138 d	B8p	F2pe			ups Sgr	19217-1557	550	^[3] (S)
Sgr	χ¹ Sgr		SI	5,8	5,8	0,1″	2020	5,7 a	A8	A6–F0			FIN 327	19253-2431	77	^[13] (S)
Sgr	ψ Sgr	1 (A/B)	V	5,5	5,7	0,1″	2019	20,0 a	K2 III	A9 III + A3 V	3,1 ± 0,6	Σ 4,4 ± 0,7	B 430	19155-2515	91	^[3] (U_Ba/Bb), ^[2] (S, M)
Sgr	ψ Sgr	2 (Ba/Bb)	SB	5,7	.	–	–	10,8 d	A9 III	A3 V	2,4 ± 0,1	2,0 ± 0,6		19155-2515	91	^[3] (U_Ba/Bb), ^[2] (S, M)
Sgr	17 Sgr		SI	7,2	8,9	0,1″	2020	119 a					MCA 51	18166-2033	210
Sgr	21 Sgr		V	5,0	7,4	1,7″	2008						JC 6	18254-2033	140
Sgr	52 Sgr		V	4,7	9,2	2,4″	1999						BU 654	19367-2453	58
Sgr	W Sgr	1 (Aa/Ab)	SI	4,7	.	0,2″	2002	≈ 173 a	G0 Ib–II + F5	A0 V	Σ ≈ 7	≈ 2,2	BLM 5	18050-2935	850	^[19]^[207] (U, S_Aa1/Aa2, S_Ab, M)
Sgr	W Sgr	2 (Aa1/Aa2)	SB/A	4,7	.	–	–	4,3 a	G0 Ib–II	F5	≈ 5,8	≤ 1,4	W Sgr	18050-2935	850	^[19]^[207] (U, S_Aa1/Aa2, S_Ab, M)
Sgr	Gliese 783		V	5,3	11,5	4,3″	2013		K2,5 V	M3,5			HJ 5173	20112-3606	6,0
Sgr	WR 104	1 (WR,OB/B)	V(HST)	13,6	15,4	1,0″	1998	≈ 47 a	WC9 + B0,5 V	O8–5 V	Σ 30				2600	^[208] (V, ρ, Ep.), ^[209] (U, S, M, d)
Sgr	WR 104	2 (WR/OB)		13,6	.	–	–	242 d	WC9	B0,5 V	10	20			2600	^[208] (V, ρ, Ep.), ^[209] (U, S, M, d)
Tau	δ³ Tau		V	4,3	7,9	1,8″	2010						KUI 17	04255+1756	46
Tau	θ Tau	1 (θ² = A / θ¹ = B)	CPM	3,4	3,8	347,9″	2016		K0 IIIb	A7 III	5,1	Σ 4,2 ± 1,1	STFA 10	04287+1552	48	^[210] (S_Aa/Ab, M_Aa/Ab), ^[211] (S_Ba/Bb, M_Ba/Bb, d)
		2 (Aa/Ab)	I/SB	3,7	4,9	–	–	141 d	A7 III		2,9	2,2	MKT 13
		2 (Ba/Bb)	SI/SB	3,8	7,3	0,2″	2020	16,3 a	K0 IIIb		2,9 ± 0,9	1,3 ± 0,2	MCA 15
Tau	κ Tau		CPM	4,2	5,3	339,4″	2016		A7 IV–V	F0 Vn			STF 541	04254+2218	47
Tau	ξ Tau	1 (A/B)	SI	3,7	7,6	0,6″	2020	51 a	B9 V + B9 V + B5 V	F5 V	Σ 8,3	0,9	HDS 433	03272+0944	61	^[212] (S, M)
		2 (Aa/Ab)	I/SB	4,8	4,3	–	–	145 d	B9 V + B9 V	B5 V	Σ 4,4	3,9	MKT 15
		3 (Aa1/Aa2)	E/SB	4,8	.	–	–	7,15 d	B9 V	B9 V	2,3	2,1
Tau	σ Tau		CPM	4,7	5,1	444,0″	2014						STFA 11	04393+1555	48
Tau	τ Tau	1 (A/B)	CPM	4,2	7,0	62,5″	2017		B3 V	A2			S 455	04422+2257	93
Tau	τ Tau	2 (Aa/Ab)	SI	4,3	7,0	0,3″	2007	58 a	B3 V				MCA 16	04422+2257	93
Tau	χ Tau	1 (A/B)	V	5,4	8,5	19,4″	2016		B9 V	F8 + G6 + K4: + K4:	2,6	Σ 3,6	STF 528	04226+2538	91	^[213] (U, S, M)
		2 (Ba,Bb/Bc)	SB	8,5	.	–	–	9,4 a	F8 + G6	K4: + K4:	Σ 2,2	Σ 1,4
		3 (Ba/Bb)	SB	8,5	.	–	–	17,6 d	F8	G6	1,2	1,0
Tau	7 Tau	1 (AB/C)	V	5,9	9,9	22,4″	2014		A3 V + A3 V		Σ 4,7		STF 412	03344+2428	130	^[13] (S), ^[11] (M)
Tau	7 Tau	2 (A/B)	V	6,6	6,8	0,8″	2019	520 a	A3 V	A3 V	2,4	2,3	STF 412	03344+2428	130	^[13] (S), ^[11] (M)
Tau	19 Tau (Taygeta)		SB/A	4,6	6,1	–	–	2,0 a	B6 IV				OCC 235	03453+2428	130
Tau	27 Tau (Atlas)		I/SB	3,8	5,5	–	–	291 d	B8 III		4,7	3,4	MKT 12	03492+2403	130	^[214] (M, d)
Tau	28 Tau (Pleione)		SI/SB	5,1	.	0,2″	1991	218 d	B8 Vne		2,9	< 0,4	CHR 125	03492+2408	130	^[215] (U, M)
Tau	30 Tau		V	5,1	9,8	9,2″	2015		B3 V	F3 Vn			STF 452	03483+1109	130
Tau	31 Tau		V	6,3	6,6	0,8″	2019	870 a					KUI 15	03520+0632	220
Tau	36 Tau		SI/SB	5,5	5,5	0,0″	2014	7,9 a	K1 II	B7,5 IV:			MCA 13	04044+2406	340
Tau	46 Tau		V/SB	5,7	6,7	0,1″	2020	7,2 a	F3 V	F3 V	1,4 ± 0,3	0,8 ± 0,2	A 1938	04136+0743	40	^[24] (S), ^[9] (M)
Tau	47 Tau		V	5,1	7,3	1,3″	2016	480 a	G5 III	A7 V:			BU 547	04139+0916	100
Tau	51 Tau		SI/SB	5,6	8,1	0,2″	2005	11,4 a	A8 V	G0 V	1,9 ± 0,2	1,6 ± 0,2	MCA 14	04184+2135	57	^[1] (S, M, d)
Tau	55 Tau		V	7,3	8,6	0,6″	2018	90 a	F7 V	G6 V			STT 79	04199+1631	47	^[24] (S)
Tau	62 Tau		CPM	6,4	7,9	29,1″	2019		B	A0 V			STF 534	04240+2418	220
Tau	66 Tau		V	5,8	5,9	0,3″	2018	55 a	A0	A1	Σ ≈ 5		HU 304	04239+0928	120	^[12] (S, M)
Tau	70 Tau		SI/SB	7,0	7,7	0,1″	2018	6,3 a	F7 V	F	1,4	1,3	FIN 342	04256+1556	47	^[216] (S, M, d)
Tau	80 Tau		V	5,7	8,1	1,4″	2018	173 a	A8 V	G2 V			STF 554	04301+1538	46	^[24] (S)
Tau	88 Tau	1 (A/B)	CPM	4,3	7,8	69,2″	2017		A6m + F5 + G2–3 + G2–3	F8 V + M:	Σ 5,6	Σ > 1,4	SHJ 45	04357+1010	53	^[217] (U_Aa1/Aa2, U_Ab1/Ab2, S_Aa1/Aa2, S_Ab1/Ab2, M_Aa1/Aa2, M_Ab1/Ab2), ^[218] (U_Ba/Bb, S_Ba/Bb, M_Ba/Bb)
		2 (Aa/Ab)	SI	4,4	6,6	0,2″	2019	18,0 a	A6m + F5	G2–3 + G2–3	Σ 3,5	Σ 2,1	CHR 18
		2 (Ba/Bb)	SB	7,8	.	–	–	3,7 a	F8 V	M:	1,2	> 0,15
		3 (Aa1/Aa2)	SB/A	4,4	.	–	–	3,57 d	A6m	F5	2,1	1,4
		3 (Ab1/Ab2)	SB/A	6,6	.	–	–	7,89 d	G2–3	G2–3	1,1	1,0
Tau	104 Tau		V	5,8	5,8	0,1″	1988	1,2 a	G4 V	G4 V	1,0	1,0	A 3010	05074+1839	16	^[24] (S), ^[11] (M)
Tau	108 Tau		V	6,3	12,5	1,9″	2004						COU 158	05155+2217	160
Tau	115 Tau	1 (A/BC)	V	5,4	10,6	10,1″	2016						STT 107	05272+1758	200
		2 (B/C)	V	11,1	11,8	7,0″	2015						STT 107
		3 (Aa/Ab)	SI	5,8	6,8	0,1″	2020	15,9 a					MCA 19
Tau	118 Tau	1 (A/B)	V	5,8	6,7	4,6″	2020		B8,5 V	A0 Vn			STF 716	05293+2509	130
		2 (Aa/Ab)	V(aO)	5,8	12,1	1,8″	2003						RBR 1
		2 (Ba/Bb)	V(aO)	6,7	10,1	1,0″	2003						RBR 1
Tau	126 Tau		V	5,0	6,6	0,2″	2011	111 a	B8	B7	Σ ≈ 9		BU 1007	05413+1632	190	^[12] (S, M)
Tau	131 Tau		SI	6,2	6,9	0,2″	2016						CHR 160	05472+1429	100
Tau	V711 Tau	1 (A/B)	V	6,0	8,9	6,7″	2016	1210 a	F8 V + G5 V	K4 V + K8 V	Σ 2,0	Σ 1,3	STF 422	03368+0035	30	^[3] (U_Aa/Ab, U_Ba/Bb), ^[2] (S, M)
		2 (Aa/Ab)	SB	6,0	.	–	–	2,84 d	F8 V	G5 V	1,1	0,9
		2 (Ba/Bb)	SB	8,9	.	–	–	3,2 a	K4 V	K8 V	0,7	0,6
Tau	HR 1188		V	5,7	6,5	0,4″	2017	61 a	A2 V	A5 V	Σ 4,2 ± 0,4		STT 65	03503+2535	56	^[13] (S), ^[58] (M)
Tau	HR 1902		V	6,5	6,6	1,1″	2019	770 a	B8 IV	B8 IV	Σ 3,4		STF 749	05371+2655	150	^[24] (S), ^[219] (M)
Tau	HR 1997		V	6,3	7,6	0,1″	2018	230 a	B9 Vn		2,7	2,0	STT 118	05484+2052	200	^[90] (S, M)
Tel	HR 7549		V	5,8	6,4	23,0″	2015		A1–3 V	G8–K0 III			DUN 227	19526-5458	130
Tri	β Tri		I/SB	3,6	4,0	–	–	31,4 d	A5 III		3,5 ± 0,3	1,4 ± 0,1	MKT 4	02095+3459	41	^[1] (S, M, d)
Tri	δ Tri		I/SB	5,0	6,9	–	–	10,0 d	G0,5 VFe	K:	1,0	0,7	MKT 5	02171+3413	11,0	^[18] (M)
Tri	ε Tri		V	5,4	11,4	4,2″	1990						STF 201	02030+3317	110
Tri	ι Tri	1 (A/B)	V	5,3	6,7	4,0″	2019	5200 a	G0 III + G5 III	F5 V			STF 227	02124+3018	89	^[3] (U_Aa/Ab, U_Ba/Bb)
		2 (Aa/Ab)	SB	5,3	.	–	–	14,7 d	G0 III	G5 III
		2 (Ba/Bb)	SB	6,7	.	–	–	2,24 d	F5 V
Tuc	α Tuc		SB/A	2,9	.	–	–	11,5 a					alp Tuc	22185-6016	61
Tuc	β Tuc	1 (β^1/2 = ABCD / β³ = E)	CPM	3,6	5,1	548,9″	2000		B9,5 Va + A3 IV + A7 V	A0 V			SHY 114	00315-6257	41
		2 (β¹ = AB / β² = CD)	V	4,3	4,5	27,2″	2017		B9,5 Va	A3 IV + A7 V			LCL 119
		2 (Ea/Eb)	V	5,8	6,0	0,1″	1964		A0 V				B 8
		3 (A/B)	V	4,4	13,5	2,6″	1932		B9,5 Va				B 7
		3 (C/D)	V	4,6	6,5	0,4″	2017	44,7 a	A3 IV	A7 V			I 260
Tuc	κ Tuc	1 (AB/CD)	CPM	4,8	7,2	319,2″	2010	≈ 300 000 a	F6 IV + G5 V	K2 V + K3 V	Σ 2,4	Σ 1,7	HJ 3423	01158-6853	21	^[201] (U_AB/CD, U_Aa/Ab, S, M)
		2 (A/B)	V	4,9	7,5	4,6″	2017	1200 a	F6 IV	G5 V	Σ 1,5	0,9	HJ 3423
		2 (C/D)	V	7,8	8,3	1,0″	2018	85 a	K2 V	K3 V	0,9	0,8	I 27
		3 (Aa/Ab)	A	4,9	.	–	–	22? a	F6 IV		1,3	0,2?
Tuc	λ¹ Tuc		V	6,7	7,4	20,4″	2015	580 000 a	F7 IV–V	G0–2 V			DUN 2	00524-6930	61
UMa	α UMa (Dubhe)	1 (AB/C)	CPM	1,8	7,2	370,0″	2015		K1 II–III + F0 V	F7 V	Σ ≈ 6		BU 1077	11037+6145	38	^[24] (S_A/B), ^[220] (M), ^[221] (U_Ca/Cb)
		2 (A/B)	V/SB	2,0	5,0	0,8″	2017	44 a	K1 II–III	F0 V	4,3 ± 0,3	≈ 1,6	BU 1077
		2 (Ca/Cb)	SB	7,2	.	–	–	6,04 d	F7 V	–
UMa	γ UMa (Phecda)		A	2,4	.	–	–	20,5 a	A0 Ve	K2 V	2,9	0,8	gam UMa	11538+5342	26	^[148] (S, M)
UMa	ζ UMa / 80 UMa (Mizar/Alkor)	1 (ζ^1/2 = AB / 80 = C)	CPM	2,0	4,0	707,7″	2017		A2 V + A2 V + kA1h(eA)mA7 IV–V	A5 Vn + M2 V	Σ ≈ 7,2	Σ 2,1	STF 1744	13239+5456	25	^[33] (S_Aa/Ab, M_Aa/Ab, d), ^[18] (M_Ba/Bb), ^[3] (U_Ba/Bb), ^[222] (U_Ca/Cb, S_Ca/Cb, M_Ca/Cb)
		2 (ζ¹ = A / ζ² = B)	V	2,3	3,9	14,6″	2019		A2 V + A2 V	kA1h(eA)mA7 IV–V	Σ 4,9	Σ ≈ 2,3	STF 1744
		2 (Ca/Cb)	V(IR)	4,0	> 8	1,0″	2009	≈ 100 a	A5 Vn	M2 V	1,8	0,3	PSF 1
		3 (Aa/Ab)	I/SB	3,0	3,0	–	–	20,5 d	A2 V	A2 V	2,5	2,4	PEA 1
		3 (Ba/Bb)	SB	3,9	.	–	–	176 d	kA1h(eA)mA7 IV–V		1,8	≈ 0,2–0,7
UMa	ι UMa	1 (A/BC)	V	3,1	9,2	2,4″	2017	490 a	F0 IV–V + D:	M3 V + M4 V	Σ 2,7 ± 0,4	Σ 0,7	HJ 2477	08592+4803	15	^[223] (U_Aa/Ab, S, M)
		2 (Aa/Ab)	SB	3,1	.	–	–	12,2 a	F0 IV–V	D:	1,7 ± 0,1	1,0 ± 0,3
		2 (B/C)	V	9,9	10,1	0,9″	2017	39 a	M3 V	M4 V	0,4	0,3	HU 628
UMa	κ UMa		V	4,2	4,5	0,3″	2019	35,6 a	A0 IV–V	A0 V	Σ 6,3 ± 1,0		A 1585	09036+4709	110	^[24] (S), ^[9] (M)
UMa	μ UMa		SB/A	3,1	.	–	–	230 d	M0 III		2,2	≈ 1,6	mu UMa	10223+4130	71	^[224] (S, M)
UMa	ν UMa		V	3,6	10,1	7,0″	2020						STF 1524	11185+3306	120
UMa	ξ UMa	1 (A/B)	V	4,3	4,8	2,1″	2019	59,9 a	F8,5: V + M:	G2 V + M:	Σ 1,4	Σ 1,0	STF 1523	11182+3132	8,8	^[3] (U_Aa/Ab, U_Ba/Bb), ^[18] (S_Ab, S_Bb, M)
		2 (Aa/Ab)	SB	4,3	.	–	–	1,8 a	F8,5: V	M:	1,0	0,4
		2 (Ba/Bb)	SB	4,8	.	–	–	3,98 d	G2 V	M:	0,9	0,1
UMa	σ² UMa		V	4,9	8,9	4,3″	2016	920 a	F6 IV–V	K2 V	1,3	≈ 0,7	STF 1306	09104+6708	20	^[24] (S), ^[18] (M)
UMa	φ UMa		V	5,3	5,4	0,4″	2019	105 a	A3 IV	A3 IV			STT 208	09521+5404	160	^[24] (S)
UMa	16 UMa		SB/A	5,2	8,9	–	–	16,2 d	G0 V	M:	1,1	0,6	16 UMa	09143+6125	20	^[18] (S₂, M)
UMa	55 UMa	1 (A/B)	SI	4,8	5,3	0,1″	2007	5,1 a	A1 V + A2 V	A1 V	Σ 3,8	2,1	CHR 133	11191+3811	60	^[225] (U_Aa/Ab, S, M)
UMa	55 UMa	2 (Aa/Ab)	SB	4,8	.	–	–	2,55 d	A1 V	A2 V	2,0	1,8		11191+3811	60	^[225] (U_Aa/Ab, S, M)
UMa	62 UMa		SI/SB	5,7	6,7	0,0″	2015	268 d	F5		1,3	1,2	BNU 3	11416+3145	41	^[226] (M)
UMa	65 UMa	1 (ABC/D)	CPM	6,5	7,0	62,5″	2018		A3 V + A3 V + A8–9	A1p + F			STF 1579	11551+4629	87	^[21] (U_Aa/Ab, S_Aa/Ab, S_B), ^[60] (S_Da/Db)
		2 (AB/C)	V	6,7	8,3	3,9″	2019		A3 V + A3 V + A8–9				STF 1579
		2 (Da/Db)	SI	7,1	9,2	0,1″	2018		A1p	F			BAG 46
		3 (A/B)	V	6,5	9,2	0,3″	2019	118 a	A3 V + A3 V	A8–9			A 1777
		4 (Aa/Ab)	E/SB	6,5	.	–	–	1,73 d	A3 V	A3 V
UMa	78 UMa		V	5,0	7,9	0,7″	2019	105 a	F1 V	G6 V			BU 1082	13007+5622	25	^[24] (S)
UMa	HR 4098		V	6,4	12,6	4,0″	2015	81 a					KUI 50	10281+4847	23
UMa	HR 4439		V	5,7	7,6	0,9″	2017	73 a	F4 V	G3 V	1,3	0,9	STT 235	11323+6105	29	^[24] (S), ^[11] (M)
UMa	HR 4486		V	6,5	8,2	8,9″	2019	1580 a	G0 V	K2 V			STF 1561	11387+4507	23
UMa	W UMa	1 (A/B)	V	8,0	12,4	6,4″	2019		F8 V + F8 V		Σ 1,7		ES 1825	09438+5557	52	^[3] (U, S), ^[227] (M)
UMa	W UMa	2 (Aa/Ab)	E/SB	7,9	.	–	–	0,33 d	F8 V	F8 V	1,1	0,6		09438+5557	52	^[3] (U, S), ^[227] (M)
UMa	Gliese 338		V	7,8	7,9	16,9″	2019	980 a	K7 V	M0 V			STF 1321	09144+5241	6,3
UMa	Gliese 412		CPM	8,8	14,6	32,0″	2017		M1 Ve	M6 V			VBS 18	11055+4332	4,8
UMa	Winnecke 4 (M 40)		O	9,7	10,2	53,2″	2017		G0	F8			WNC 4	12222+5805	320
UMi	α UMi (Polarstern)	1 (A/B)	V	2,0	9,1	18,4″	2016		F8 Ib + A5	F3 V	Σ 5,1 ± 1,3	≈ 1,4	STF 93	02318+8916	130	^[3] (S_Aa/Ab), ^[228] (M)
UMi	α UMi (Polarstern)	2 (Aa/Ab)	SI/SB	2,3	4,3	0,1″	2014	29,6 a	F8 Ib	A5	3,5 ± 0,8	1,6 ± 0,5	WRH 39	02318+8916	130	^[3] (S_Aa/Ab), ^[228] (M)
UMi	π² UMi		V	7,3	8,2	0,7″	2013	172 a					STF 1989	15396+7959	120
Vel	γ Vel	1 (γ² = A / γ¹ = B)	CPM	1,8	4,1	41,2″	2017		WC8 + O7,5 III–V	B2 III	Σ 37,5 ± 1,7		DUN 65	08095-4720	340	^[229] (U, M, d)
Vel	γ Vel	2 (γ² Vel A/B)	SB	1,8	.	–	–	78,5 d	WC8	O7,5 III–V	9,0 ± 0,6	28,5 ± 1,1		08095-4720	340	^[229] (U, M, d)
Vel	δ Vel	1 (A/B)	V	2,0	5,6	0,8″	2019	147 a	A2 IV + A4 V	F8 V	Σ 4,7	1,4	I 10	08447-5443	25	^[230] (M, d)
Vel	δ Vel	2 (Aa/Ab)	E/I/SB	2,0	.	–	–	45,2 d	A2 IV	A4 V	2,4	2,3	KEL 1	08447-5443	25	^[230] (M, d)
Vel	μ Vel		V	2,8	5,7	2,3″	2019	143 a	G5 III	G2 V			R 155	10468-4925	36	^[24] (S)
Vel	ψ Vel		V	3,9	5,1	1,0″	2019	34,1 a	F3 IV	F0 IV			COP 1	09307-4028	19	^[13] (S)
Vel	B Vel		V	5,1	6,1	0,9″	2008						I 67	08225-4829	530
Vel	p Vel	1 (A/B)	V	4,1	5,8	0,1″	2019	16,7 a	F3 IV + F0 V	A6 V	Σ 3,9	2,4	SEE 119	10373-4814	27	^[231] (U_Aa/Ab, S, M)
Vel	p Vel	2 (Aa/Ab)	SB	4,1	.	–	–	10,2 d	F3 IV	F0 V	2,1	1,8		10373-4814	27	^[231] (U_Aa/Ab, S, M)
Vel	s Vel		V	5,6	6,0	13,2″	2010		B8–A0	B8 II:			PZ 3	10320-4504	260
Vel	33 G. Vel	1 (A/B)	V	5,5	7,2	3,5″	2008		B1,5 V	B4 V			HJ 4104	08291-4756	480
Vel	33 G. Vel	2 (Aa/Ab)	SI	5,9	6,4	0,1″	2018	340 a	B1,5 V				FIN 315	08291-4756	480
Vel	HR 3817		V	5,5	6,2	2,0″	2008						HJ 4220	09337-4900	250
Vel	HR 3840		V	6,1	6,3	0,7″	2015						SEE 115	09372-5340	72
Vel	HR 3976		V	5,3	7,1	1,0″	2019	187 a	K1 IV	G5 V			I 173	10062-4722	74	^[24] (S)
Vel	Luhman 16		V(aO)	16,2	.	0,3″	2016	27,4 a	L7,5	T0,5	0,03	0,03	LUH 16	10493-5319	2,0	^[30] (V), ^[232] (S, M, d)
Vir	α Vir (Spica)		SB	1,3	4,5	–	–	4,01 d	B1 III–IV	B2 V	11,4 ± 1,2	7,2 ± 0,8	OCC 418	13252-1110	77	^[13] (S), ^[233] (M)
Vir	γ Vir (Porrima)		V	3,5	3,5	2,5″	2020	169 a	F0 V	F0 V	1,4	1,4	STF 1670	12417-0127	12,1	^[13] (S), ^[234] (M, d)
Vir	η Vir	1 (A/B)	SI	3,9	5,9	0,1″	2020	13,1 a	A2 IV + A8–F0 V	–	Σ 4,4	1,7	MCA 37	12199-0040	79	^[235]^[236] (U_Aa/Ab, S, M)
Vir	η Vir	2 (Aa/Ab)	SB	3,9	.	–	–	71,8 d	A2 IV	A8–F0 V	2,5	1,9		12199-0040	79	^[235]^[236] (U_Aa/Ab, S, M)
Vir	θ Vir	1 (A/B)	V	4,4	9,4	7,0″	2015						STF 1724	13099-0532	83
Vir	θ Vir	2 (Aa/Ab)	SI	4,5	6,8	0,4″	2019	700 a					MCA 38	13099-0532	83
Vir	ι Vir		A	4,1	.	–	–	55 a					iot Vir	14160-0600	22
Vir	λ Vir		I/SB	4,5	.	–	–	207 d	A1m	A1m	1,9	1,7	IOT 1	14191-1322	53	^[33] (S, M)
Vir	φ Vir		V	4,9	10,0	4,8″	2015		G2 III	G4 V			STF 1846	14282-0214	37	^[24] (S)
Vir	46 Vir		V	6,2	8,8	0,6″	2016	900 a					AGC 5	13006-0322	100
Vir	48 Vir		V	7,1	7,7	0,4″	2018	440 a					BU 929	13039-0340	160
Vir	54 Vir		V	6,8	7,2	5,4″	2018		B9 V	A2 VpSr			SHJ 151	13134-1850	190
Vir	84 Vir		V	5,6	8,3	2,7″	2015		G8 III	G3 IV			STF 1777	13431+0332	73
Vir	86 Vir	1 (AB/CD)	CPM	5,6	11,9	27,3″	2000						STF 1780	13459-1226	110
		2 (A/B)	V	5,7	8,5	1,0″	2001						BU 935
		2 (C/D)	V	11,9	13,1	2,4″	1958						STF 1780
Vir	HR 4935		V	6,3	6,5	0,2″	2020	59 a					BU 341	13038-2035	28
Vir	HR 5106		V	6,3	7,3	0,4″	2019	178 a					BU 932	13347-1313	150
Vir	Wolf 424		V	12,6	12,6	0,7″	2020	15,8 a	M5,5 V	M7 V	0,14	0,13	REU 1	12335+0901	4,4	^[40] (S), ^[237] (M)
Vol	γ Vol		V	3,9	5,4	14,2″	2020		K0 III	F0–3			DUN 42	07087-7030	40
Vol	ε Vol	1 (A/B)	V	4,4	7,3	5,7″	2020						RMK 7	08079-6837	230	^[3] (U)
Vol	ε Vol	2 (Aa/Ab)	SB	4,4	.	–	–	14,2 d						08079-6837	230	^[3] (U)
Vol	ζ Vol		V	4,0	9,3	16,0″	2020						DUN 57	07418-7236	43
Vol	κ Vol	1 (κ^1/2 = AB / C)	CPM	4,7	7,7	98,4″	2020		B9 III–IV + B9–A0 IV				BSO 17	08198-7131	130
Vol	κ Vol	1 (κ¹ = A / κ² = B)	CPM	5,3	5,6	64,0″	2020		B9 III–IV	B9–A0 IV			BSO 17	08198-7131	130
Vul	2 Vul		V	5,4	8,8	1,8″	2015						BU 248	19177+2302	570
Vul	13 Vul		V	4,6	7,4	1,4″	2016	620 a					DJU 4	19535+2405	95
Vul	16 Vul		V	5,8	6,2	0,7″	2019	1200 a					STT 395	20020+2456	68
Vul	23 Vul		SI	4,8	6,5	0,0″	2007	25,3 a					CHR 94	20158+2749	100

Häufige Entdeckercodes

Nachfolgend findet sich eine Auswahl der Bedeutung von einigen häufigen Entdeckercodes:

A – Robert Grant Aitken
AC – Alvan Clark
AGC – Alvan Graham Clark
B – Willem Hendrik van den Bos
BU – Sherburne Wesley Burnham
CHR – Center for High Angular Resolution Astronomy
DJU – Petar Đurković
DUN – James Dunlop
FIN – William Stephen Finsen
H – Friedrich Wilhelm Herschel
I – Robert Thorburn Ayton Innes
HDS – Hipparcos Double Star
HJ – John Frederick William Herschel
HU – William Joseph Hussey
KUI – Gerard Peter Kuiper
MCA – Harold A. McAlister
MKT – Mark III Stellar Interferometer
NOI – Navy Precision Optical Interferometer
SEE – Thomas Jefferson Jackson See
SHJ – James South & John Frederick William Herschel
STF (auch Σ) – Friedrich Georg Wilhelm Struve
STFA (auch ΣA) – Friedrich Georg Wilhelm Struve (Addendum)
STT (auch OΣ) – Otto Wilhelm von Struve
TOK – Andrei A. Tokovinin
WRH – Raymond H. Wilson, Jr.

Quellen

Allgemeine Quellen

Solange in der Spalte „Quelle“ nichts anderes angegeben ist, stammen:

die Helligkeiten (V₁, V₂), Abstände (ρ) und Epochen (Ep.) aus dem Washington Double Star Catalog (Vers. 2021-08-09),
die Umlaufzeiten aus dem 6th Orbit Catalog (Last Update 2021-08-02),
die Spektralklassen aus der SIMBAD-Datenbank,
die Entfernungen von der in der SIMBAD-Datenbank hinterlegten Parallaxe (meistens aus den Katalogen Hipparcos, the New Reduction (van Leeuwen 2007) und Gaia DR2 (Gaia Collaboration 2018)).

Einzelnachweise

Alle Massen und alle nicht aus den allgemeinen Quellen entnommenen Daten stammen aus folgenden Quellen:

↑ ^a ^b ^c ^d ^e ^f ^g ^h ⁱ Dimitri Pourbaix: Resolved double-lined spectroscopic binaries: A neglected source of hypothesis-free parallaxes and stellar masses. In: Astronomy & Astrophysics Supplement Series. Bd. 145, 2000, S. 215–222, bibcode:2000A&AS..145..215P, doi:10.1051/aas:2000237.
↑ ^a ^b ^c ^d ^e ^f ^g ^h ⁱ ^j ^k ^l José A. Docobo, Manuel Andrade: A Methodology for the Description of Multiple Stellar Systems with Spectroscopic Subcomponents. In: The Astrophysical Journal. Bd. 652 (1), 2006, S. 681–695, bibcode:2006ApJ...652..681D, doi:10.1086/508053.
↑ ^a ^b ^c ^d ^e ^f ^g ^h ⁱ ^j ^k ^l ^m ⁿ ^o ^p ^q ^r ^s ^t ^u ^v ^w ^x ^y ^z ^aa ^ab ^ac ^ad ^ae ^af ^ag ^ah ^ai ^aj ^ak ^al ^am ^an ^ao ^ap ^aq ^ar ^as ^at ^au ^av ^aw ^ax ^ay ^az ^ba ^bb ^bc ^bd ^be ^bf ^bg ^bh ^bi Dimitri Pourbaix et al.: 9th Catalogue of Spectroscopic Binary Orbits. VizieR-Datenkatalog B/sb9 (elektronisch veröffentlicht). 2009, bibcode:2009yCat....102020P.
↑ Michael Bottom et al.: Resolving the Delta Andromedae Spectroscopic Binary with Direct Imaging. In: The Astrophysical Journal. Bd. 809 (1), 2015, Artikel-ID 11, bibcode:2015ApJ...809...11B, doi:10.1088/0004-637X/809/1/11, arxiv:1506.07517.
↑ ^a ^b ^c ^d ^e ^f ^g ^h ⁱ ^j ^k ^l ^m Peter P. Eggleton, Kadri Yakut: Models for Sixty Double-Lined Binaries containing Giants. In: Monthly Notices of the Royal Astronomical Society. Bd. 468 (3), 2017, S. 3533–3556, bibcode:2017MNRAS.468.3533E, doi:10.1093/mnras/stx598, arxiv:1611.05041.
↑ G. M. Hill et al.: Omicron Andromedae is Quadruple. In: Publications of the Astronomical Society of the Pacific. Bd. 100, 1988, S. 243–250, bibcode:1988PASP..100..243H, doi:10.1086/132161.
↑ R. Ya. Zhuchkov et al.: Physical parameters and dynamical properties of the multiple star o And. In: Astronomy Reports. Bd. 54 (12), 2010, S. 1134 ff., bibcode:2010ARep...54.1134Z, doi:10.1134/S1063772910120061.
↑ Christian A. Hummel et al.: Orbits of Small Angular Scale Binaries Resolved with the Mark III Interferometer. In: The Astronomical Journal. Bd. 110, 1995, 376–390, bibcode:1995AJ....110..376H, doi:10.1086/117528.
↑ ^a ^b ^c ^d ^e ^f ^g ^h ⁱ ^j ^k Matthew W. Muterspaugh et al.: The Phases Differential Astrometry Data Archive. II. Updated Binary Star Orbits and a Long Period Eclipsing Binary. In: The Astronomical Journal. Bd. 140 (6), S. 1623–1630, bibcode:2010AJ....140.1623M, doi:10.1088/0004-6256/140/6/1623, arxiv:1010.4043.
↑ ^a ^b Christopher D. Farrington et al.: Separated Fringe Packet Observations with the CHARA Array. II. ω Andromeda, HD 178911, and ξ Cephei. In: The Astronomical Journal. Bd 148 (3), 2014, Artikel-ID 48, bibcode:2014AJ....148...48F, doi:10.1088/0004-6256/148/3/48, arxiv:1407.0639.
↑ ^a ^b ^c ^d ^e ^f ^g ^h ⁱ ^j ^k ^l ^m ⁿ ^o ^p ^q ^r ^s ^t ^u Z. Cvetković, S. Ninković: Masses of visual binaries. VizieR-Datenkatalog J/other/Ser/180.71 (elektronisch veröffentlicht). 2011, bibcode:2011yCatp042018001C.
↑ ^a ^b ^c ^d ^e Theo A. ten Brummelaar et al.: Binary Star Differential Photometry Using the Adaptive Optics System at Mount Wilson Observatory. In: The Astronomical Journal. Bd. 119 (5), 2000, S. 2403–2414, bibcode:2000AJ....119.2403T, doi:10.1086/301338.
↑ ^a ^b ^c ^d ^e ^f ^g ^h ⁱ ^j ^k ^l ^m ⁿ ^o ^p ^q ^r ^s ^t ^u ^v ^w ^x ^y ^z ^aa ^ab ^ac ^ad Dorrit Hoffleit, Wayne H. Warren, Jr.: Bright Star Catalogue, 5th Revised Ed. VizieR-Datenkatalog V/50 (elektronisch veröffentlicht). 1995, bibcode:1995yCat.5050....0H. Die Spektralklassen stammen entweder direkt aus dem Katalog oder aus dem Bereich Note/Remarks.
↑ Jesus Maldonado et al.: HADES RV Programme with HARPS-N at TNG. III. Flux-flux and activity-rotation relationships of early-M dwarfs. In: Astronomy & Astrophysics. Bd. 598, 2017, Artikel-ID A27, bibcode:2017A&A...598A..27M, doi:10.1051/0004-6361/201629223, arxiv:1610.05906.
↑ Matteo Pinamonti et al.: The HADES RV Programme with HARPS-N at TNG. VIII. GJ15A: a multiple wide planetary system sculpted by binary interaction. In: Astronomy & Astrophysics. Bd. 617, 2018, Artikel-ID A104, bibcode:2018A&A...617A.104P, doi:10.1051/0004-6361/201732535, arxiv:1804.03476.
↑ ^a ^b ^c ^d ^e ^f José A. Docobo, Manuel Andrade: Dynamical and physical properties of 22 binaries discovered by W. S. Finsen. In: Monthly Notices of the Royal Astronomical Society. Bd. 428 (1), 2013, S. 321–339, bibcode:2013MNRAS.428..321D, doi:10.1093/mnras/sts045.
↑ Sandy K. Leggett et al.: The Physical Properties of Four ~600 K T Dwarfs. In: The Astrophysical Journal. Bd. 695 (2), 2009, S. 1517–1526, bibcode:2009ApJ...695.1517L, doi:10.1088/0004-637X/695/2/1517, arxiv:0901.4093.
↑ ^a ^b ^c ^d ^e ^f ^g ^h ⁱ ^j ^k Klaus Fuhrmann: Nearby stars of the Galactic disc and halo – IV. In: Monthly Notices of the Royal Astronomical Society. Bd. 384 (1), 2008, S. 173–224, bibcode:2008MNRAS.384..173F, doi:10.1111/j.1365-2966.2007.12671.x.
↑ ^a ^b ^c Nancy Remage Evans et al.: Binary Cepheids: Separations and Mass Ratios in 5 M_⊙ Binaries. In: The Astronomical Journal. Bd. 146 (4), 2013, Artikel-ID 93, bibcode:2013AJ....146...93E, doi:10.1088/0004-6256/146/4/93, arxiv:1307.7123.
↑ ^a ^b ^c ^d ^e Brian D. Mason et al.: Binary Star Orbits. IV. Orbits of 18 Southern Interferometric Pairs. In: The Astronomical Journal. Bd. 140 (3), 2010, S. 735–743, bibcode:2010AJ....140..735M, doi:10.1088/0004-6256/140/3/735.
↑ ^a ^b ^c ^d ^e ^f ^g ^h ⁱ ^j ^k ^l ^m Petr Zasche et al.: A Catalog of Visual Double and Multiple Stars With Eclipsing Components. In: The Astronomical Journal. Bd. 138 (2), 2009, S. 664–679, bibcode:2009AJ....138..664Z, doi:10.1088/0004-6256/138/2/664, arxiv:0907.5172.
↑ Jeffrey L. Linsky et al.: Stellar Activity at the End of the Main Sequence: GHRS Observations of the M8 Ve Star VB 10. In: The Astrophysical Journal. Bd. 455, 1995, S. 670–676, bibcode:1995ApJ...455..670L, doi:10.1086/176614.
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