Full spectrum of the quasar eso1122 is analyzed and 62 additional peaks are found to have same blue shift as 1.124193

After seeing the comments on this post:

http://www.blogger.com/blogger.g?blogID=8826339039574834163#editor/target=post;postID=3318178562691887961

The full spectrum of the quasar is analyzed and 62 additional peaks of wavelength are found to be blueshifted.  I could see there are  62 peaks in the published spectrum of eso1122. These wavelengths were shown as blue shifted with the same ratio 1.124193

Some of the main points here are

1. These peaks are in addition to the already published and redshift calculated peaks as shown . For these published peaks it was already shown there were blue shifted by 1.124193 in the previous table

2. Some of the peaks in the published Redshift are not actually peaks, but they are some side frequencies of the main peaks as can be seen from the graph.

3. Here, all the peaks were taken this blueshift calculation from spectrum as published.

Ref.... Daniel J. Mortlock et.al.,LETTER TO NATURE 'A luminous quasar at a redshift of z = 7:085' 30 JUNE 2011 , VOL 000 , NATURE 1

Other intensive peaks of Quasar eso1122 (ULAS J112001.48+064124.3)
Published frequencies from the graph  by Daniel J. Mortlock et. al., ( Nature 2011) but not considered fior red shift calculations		Calculated blue shift in this paper     http://physics.nist.gov/PhysRefData/ASD/lines_form.html   .  Some of the main points here are   1. These peaks are in addition to the already published and redshift calculated peaks. For these published peaks it was already shown there were blue shifted by 1.124193 in the previous table   2.  Some of the peaks in the published Redshift are not actually peaks, but they are some side frequencies of the main peaks as can be seen from the graph. 3.  But here all the peaks were taken this blueshift calculation from spectrum as published in Nature.
Sl.No	Observed wavelength (Å)	Calculated Wavelength at ratio=1.124193 (Å)	Ion	Ritz   Wavelength Air (Å)	Lower Level Conf., Term, J	Upper Level Conf., Term, J	TP Ref.
1	9800.0	11017.0889	Si II	11 016.50	3s25f	3s27g
2	9920.0	11151.9921	Fe I	11 155.880	3d6(5D)4s (6D)5p	3d6(5D)4s (4D)4d	L11631
3	10000.0	11241.9275	Sr I	11 241.249	5s5p	5s6s	L2631
4	10150.0	11410.5564	S X	11 410*	2s2p4	2s2p4
5	10150.0	11410.5564	Fe I	11 409.913	3d6(5D)4s (6D)5s	3d6(3D)4s4p(3P°)	L11631
6	10380.0	11669.1207	S II	11 669.0+	3s23p2(1D)4p	3s23p2(1S)3d
7	10380.0	11669.1207	C I	11 669.64	2s22p3p	2s22p3d	L1113
8	10380.0	11669.1207
9	10380.0	11669.1207	Fe I	11 669.6271	3d6(5D)4s4p(1P°)	3d6(5D)4s (6D)5s	L11631
10	10380.0	11669.1207	Fe I	11 669.649	3d6(5D)4s (6D)4d	3d64s(6D7/2)5f	L11631
11	10480.0	11781.5400	Ti I	11 780.542	3d3(4F)4s	3d2(3F)4s4p(3P°)	L10989
12	10480.0	11781.5400	Cm I				L3919
13	10740.0	12073.8301	Cs II	12 074.0686	5p5(2P°3/2)8p	5p5(2P°3/2)10s	L12126
14	11200.0	12590.9588	Xe I	12 590.20+	5p5(2P°3/2)5d	5p5(2P°3/2)7p	L7384
15	11200.0	12590.9588	Cs II	12 590.6434	5p5(2P°3/2)5f	5p5(2P°3/2)6g	L12126
16	11610.0	13051.8778	N I	13 051.88	2s22p2(3P)4s	2s22p2(3P)5p
17	11750.0	13209.2648	Fe I	13 209.763	3d6(5D)4s (6D)5p	3d64s(6D)5d	L11631
18	11940.0	13422.8614	N I	13 422.1	2s22p2(3P)4p	2s22p2(3P)8s
19	12200.0	13715.1515	Cs II	13 715.9106	5p5(2P°1/2)7s	5p5(2P°1/2)7p	L12126
20	12320.0	13850.0546	C I	13 850.47	2s22p4p	2s22p8s
21	12320.0	13850.0546	Sc II	13 850.60	3p63d2	3p63d2
22	12720.0	14299.7317	Ti II	14 299.1199	3d2(3F)4d	3d2(3F)5p	u37
23	13200.0	14839.3443	Ti I	14 839.531	3d3(2F)4s	3d2(3P)4s4p(3P°)	L10989
24	13300.0	14951.7635	N I	14 952.025	2s2p4	2s22p2(3P)3p
25	13300.0	14951.7635	Fe I	14 952.215	3d6(3G)4s4p(3P°)	3d7(4F)4d	L11631
26	13680.0	15378.9568	C I	15 380.60	2s22p4p	2s22p6d
27	13940.0	15671.2469	Cs II	15 671.463	5p5(2P°3/2)5f	5p5(2P°3/2)8d	L12126
28	13940.0	15671.2469	Fe I	15 671.866	3d7(4F)5s	3d7(4F)5p	L11631
29	14050.0	15794.9081	Ti I	15 795.650	3d24s(4F)4d	3d24s(4F7/2)4f	L12119
30	14200.0	15963.5370	Fe I	15 963.302	3d6(5D)4s (4D)5s	3d64s(4D)5p	L11631
31	14380.0	16165.8917	Fe I	16 165.029	3d6(5D)4s (6D)4d	3d64s(6D7/2)4f	L11631
32	14480.0	16278.3110	Ti I	16 278.442	3d24s(4F)4d	3d24s(4F5/2)4f	L12119
33	15200.0	17087.7298	Fe I	17 086.163	3d6(5D)4s (6D)5p	3d64s(6D)5d	L11631
34	15200.0	17087.7298	C I	17 086.25	2s2p3	2s22p4p
35	15200.0	17087.7298	C I	17 086.93	2s22p3d	2s22p5p
36	15200.0	17087.7298	Ar II	17 086.9730	3s23p4(3P1)4f	3s23p4(3P)5d	L9974
37	15760.0	17717.2777	Fe I	17 717.133	3d6(5D)4s (6D)4d	3d64s(6D9/2)4f	L11631
38	15760.0	17717.2777	Mg II	17 717.33	2p65d	2p66f	L6692
39	15760.0	17717.2777	Mg II	17 717.42	2p65d	2p66f	L6692
40	15830.0	17795.9712	Fe I	17 795.95	3d7(4F)5p	3d7(4F)5d	L11631
41	15890.0	17863.4228	C I	17 863.3	2s22p4p	2s22p5d
42	16050.0	18043.2936	Ti I	18 043.662	3d3(4F)4d	3d3(4F7/2)4f	L12119
43	16230.0	18245.6483	Ti I	18 246.269	3d3(4F)4d	3d3(4F9/2)4f	L12119
44	16600.0	18661.5996	Ne II	18 661.11	2s22p4(3P2)5g	2s22p4(3P2)6h	L9088
45	16600.0	18661.5996	Ne II	18 661.17	2s22p4(3P2)5g	2s22p4(3P2)6h	L9088
46	16650.0	18717.8092	Ti I	18 715.675	3d3(4F)4d	3d3(4F7/2)4f	L12119
47	16700.0	18774.0189	Ti I	18 774.166	3d24s(4F)4d	3d24s(4F7/2)4f	L12119
48	16820.0	18908.9220	Ne II	18 910.416	2s22p4(3P)4d	2s22p4(3P)5p	L9088
49	17200.0	19336.1153	Fe I	19 336.516	3d7(4F)5p		L11631
50	17400.0	19560.9538	Fe I	19 560.946	3d6(5D)4s (6D)5p	3d64s(6D)5d	L11631
51	17800.0	20010.6309	Fe I	20 011.178	3d7(4F)4d	3d7(4F7/2)4f	L11631
52	18100.0	20347.8887	Si I	20 349	3s23p4p	3s23p5s
53	18100.0	20347.8887	Ne II	20 349.475	2s22p4(3P)5p	2s22p4(3P)6s	L9088
54	18420.0	20707.6304	K I	20 707.0	3p64d	3p68p
55	18600.0	20909.9851	Ne I	20 910.239	2s22p5(2P°3/2)4p	2s22p5(2P°1/2)4d	L9097
56	18750.0	21078.6140	C III	21 080.6	1s22s5s	1s22s5p
57	18810.0	21146.0656	Ti I	21 147.29	3d3(4F)5s	3d3(4F)5p	L10989
58	19200.0	21584.5007	Ne I	21 585.761+	2s22p5(2P°1/2)3d	2s22p5(2P°3/2)4f	L9097
59	19600.0	22034.1778	S I	22 033.0+	3s23p3(4S°)4d	3s23p3(4S°)6f
60	19600.0	22034.1778	S I	22 033.0+	3s23p3(4S°)4d	3s23p3(4S°)6f
61	19600.0	22034.1778	S I	22 033.0+	3s23p3(4S°)4d	3s23p3(4S°)6f
62	20500.0	23045.9513	Ar I	22 045.58	3s23p5(2P°1/2)4p	3s23p5(2P°3/2)3d