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2.81k
10.1146/annurev.astro.38.1.761
Fine structure and recombination line ratios imply equivalent “screen” dust extinctions in ULIRGs (and LIRGs) between AV ∼ 5 and 50 ( Genzel et al 1998 ).
Fine structure and recombination line ratios imply equivalent “screen” dust extinctions in ULIRGs (and LIRGs) between AV ∼ 5 and 50 ( ).
448
[ "10.1086/305576" ]
20,000,101
[ "1998ApJ...498..579G" ]
Fine structure and recombination line ratios imply equivalent “screen” dust extinctions in ULIRGs (and LIRGs) between AV ∼ 5 and 50 ( [REF] ).
10.1146/annurev.astro.38.1.761
For radio-quiet QSOs, the sample averaged SEDs of Sanders et al (1989) , Elvis et al (1994) , giving L X /L IR = 0.2 and L X /L bol ∼ 0.05.
For radio-quiet QSOs, the sample averaged SEDs of , giving L X /L IR = 0.2 and L X /L bol ∼ 0.05.
467
[ "10.1086/168094", "10.1086/192093" ]
20,000,101
[ "1989ApJ...347...29S", "1994ApJS...95....1E" ]
For radio-quiet QSOs, the sample averaged SEDs of [REF] , giving L X /L IR = 0.2 and L X /L bol ∼ 0.05.
10.1146/annurev.astro.38.1.761
Yet ASCA and BeppoSAX data show that at its center lurks a powerful AGN, attenuated by a Compton thick foreground absorber ( Iwasawa et al 1993 ).
Yet ASCA and BeppoSAX data show that at its center lurks a powerful AGN, attenuated by a Compton thick foreground absorber ( ).
473
[ "10.1086/172651" ]
20,000,101
[ "1993ApJ...409..155I" ]
Yet ASCA and BeppoSAX data show that at its center lurks a powerful AGN, attenuated by a Compton thick foreground absorber ( [REF] ).
10.1146/annurev.astro.38.1.761
A burst may be triggered as the result of the gravitational compression of the gas during the encounters of the nuclei ( Mihos Hernquist 1996 ).
A burst may be triggered as the result of the gravitational compression of the gas during the encounters of the nuclei ( ).
494
[ "10.1086/177353" ]
20,000,101
[ "1996ApJ...464..641M" ]
A burst may be triggered as the result of the gravitational compression of the gas during the encounters of the nuclei ( [REF] ).
10.1146/annurev.astro.38.1.761
Far-IR luminosities of ULIRGs do not change significantly with nuclear separation from separations of a few hundred parsecs to a few tens of kpc ( Rigopoulou et al 1999a ).
Far-IR luminosities of ULIRGs do not change significantly with nuclear separation from separations of a few hundred parsecs to a few tens of kpc ( ).
499
[ "10.1086/301146" ]
20,000,101
[ "1999AJ....118.2625R" ]
Far-IR luminosities of ULIRGs do not change significantly with nuclear separation from separations of a few hundred parsecs to a few tens of kpc ( [REF] ).
10.1146/annurev.astro.38.1.761
<italic>Warm ULIRGs and QSOs</italic> “Warm” ULIRGs (S 25 /S 60 ≥ 0.2) probably represent transition objects between ULIRGs and QSOs ( Sanders et al 1988b ).
<italic>Warm ULIRGs and QSOs</italic> “Warm” ULIRGs (S 25 /S 60 ≥ 0.2) probably represent transition objects between ULIRGs and QSOs ( ).
500
[ "10.1086/165983" ]
20,000,101
[ "1988ApJ...325...74S" ]
<italic>Warm ULIRGs and QSOs</italic> “Warm” ULIRGs (S 25 /S 60 ≥ 0.2) probably represent transition objects between ULIRGs and QSOs ( [REF] ).
10.1146/annurev.astro.38.1.761
This mass is two orders of magnitude greater than the dynamical mass within the central kpc derived from the CO rotation curve ( Downes Solomon 1998 ).
This mass is two orders of magnitude greater than the dynamical mass within the central kpc derived from the CO rotation curve ( ).
510
[ "10.1086/306339" ]
20,000,101
[ "1998ApJ...507..615D" ]
This mass is two orders of magnitude greater than the dynamical mass within the central kpc derived from the CO rotation curve ( [REF] ).
10.1146/annurev.astro.38.1.761
The required mass then is 20 to 100 times smaller, and the ratio of bolometric to K-band luminosity is ≥10 2 ( Thatte et al 1997 ).
The required mass then is 20 to 100 times smaller, and the ratio of bolometric to K-band luminosity is ≥10 2 ( ).
512
[ "10.1086/304848" ]
20,000,101
[ "1997ApJ...490..238T" ]
The required mass then is 20 to 100 times smaller, and the ratio of bolometric to K-band luminosity is ≥10 2 ( [REF] ).
10.1146/annurev.astro.38.1.761
THE DISTANT UNIVERSE In the local Universe surveyed by IRAS, only 30% of the total energy output of galaxies emerges in the mid- and far-IR ( Soifer Neugebauer 1991 ).
THE DISTANT UNIVERSE In the local Universe surveyed by IRAS, only 30% of the total energy output of galaxies emerges in the mid- and far-IR ( ).
532
[ "10.1086/115691" ]
20,000,101
[ "1991AJ....101..354S" ]
THE DISTANT UNIVERSE In the local Universe surveyed by IRAS, only 30% of the total energy output of galaxies emerges in the mid- and far-IR ( [REF] ).
10.1146/annurev.astro.38.1.761
Spectacular (rest frame) UV observations of star-forming galaxies at redshifts ≥3 have become possible in the last few years ( Steidel et al 1996 , Lilly et al 1996 ).
Spectacular (rest frame) UV observations of star-forming galaxies at redshifts ≥3 have become possible in the last few years ( ).
534
[ "10.1086/310029", "10.1086/309975" ]
20,000,101
[ "1996ApJ...462L..17S", "1996ApJ...460L...1L" ]
Spectacular (rest frame) UV observations of star-forming galaxies at redshifts ≥3 have become possible in the last few years ( [REF] ).
10.1146/annurev.astro.38.1.761
The inferred star formation rate per (comoving) volume element increases from z = 0 by more than an order of magnitude to a peak at z ∼ 1–3 ( Madau et al 1996 , Pettini et al 1998 , Steidel et al 1999 ).
The inferred star formation rate per (comoving) volume element increases from z = 0 by more than an order of magnitude to a peak at z ∼ 1–3 ( ).
535
[ "10.1093/mnras/283.4.1388", "10.1086/306431", "10.1086/307363" ]
20,000,101
[ "1996MNRAS.283.1388M", "1998ApJ...508..539P", "1999ApJ...519....1S" ]
The inferred star formation rate per (comoving) volume element increases from z = 0 by more than an order of magnitude to a peak at z ∼ 1–3 ( [REF] ).
10.1146/annurev.astro.38.1.761
<italic>Source Counts: Evidence for Strong Evolution</italic> Figure 14 (from Serjeant, private communication; Elbaz et al 1999a ) gives the integrated and differential source counts derived from these surveys.
<italic>Source Counts: Evidence for Strong Evolution</italic> Figure 14 (from ) gives the integrated and differential source counts derived from these surveys.
564
[ "10.48550/arXiv.astro-ph/9910406" ]
20,000,101
[ "1999A&A...351L..37E" ]
<italic>Source Counts: Evidence for Strong Evolution</italic> Figure 14 (from [REF] ) gives the integrated and differential source counts derived from these surveys.
10.1146/annurev.astro.38.1.761
The interpretation of the bump is that with luminosity evolution and flat or even “negative” k-correction (between z = 0.5 and 1; Elbaz et al 1999b ) the number counts increase initially, with decreasing flux density much faster than Euclidean.
The interpretation of the bump is that with luminosity evolution and flat or even “negative” k-correction (between z = 0.5 and 1; ) the number counts increase initially, with decreasing flux density much faster than Euclidean.
588
[ "10.48550/arXiv.astro-ph/9910406" ]
20,000,101
[ "1999A&A...351L..37E" ]
The interpretation of the bump is that with luminosity evolution and flat or even “negative” k-correction (between z = 0.5 and 1; [REF] ) the number counts increase initially, with decreasing flux density much faster than Euclidean.
10.1146/annurev.astro.38.1.761
In contrast, the pure density evolution model predicts a much smaller median redshift (∼0.5) and essentially no sources with z > 1. When the mid-infrared counts are compared to K-band counts at the same energy (νS ν ), the mid-infrared sources contribute only about 10% of the energy at the bright end, but more than 50%...
In contrast, the pure density evolution model predicts a much smaller median redshift (∼0.5) and essentially no sources with z > 1. When the mid-infrared counts are compared to K-band counts at the same energy (νS ν ), the mid-infrared sources contribute only about 10% of the energy at the bright end, but more than 50%...
590
[ "10.48550/arXiv.astro-ph/9910406" ]
20,000,101
[ "1999A&A...351L..37E" ]
In contrast, the pure density evolution model predicts a much smaller median redshift (∼0.5) and essentially no sources with z > 1. When the mid-infrared counts are compared to K-band counts at the same energy (νS ν ), the mid-infrared sources contribute only about 10% of the energy at the bright end, but more than 50%...
10.1146/annurev.astro.38.1.761
In the (10′) 2 CFRS 1415+52 field, Flores et al (1999b) detected 78 significant (≥3σ) 15 μm sources (≥250 μJy), 22 of which have spectra and redshifts.
In the (10′) 2 CFRS 1415+52 field, detected 78 significant (≥3σ) 15 μm sources (≥250 μJy), 22 of which have spectra and redshifts.
601
[ "10.1086/307172" ]
20,000,101
[ "1999ApJ...517..148F" ]
In the (10′) 2 CFRS 1415+52 field, [REF] detected 78 significant (≥3σ) 15 μm sources (≥250 μJy), 22 of which have spectra and redshifts.
10.1146/annurev.astro.38.1.761
For 19 galaxies with complete radio to UV SEDs, Flores et al (1999b) identified more than half as (highly reddened) starbursts.
For 19 galaxies with complete radio to UV SEDs, identified more than half as (highly reddened) starbursts.
612
[ "10.1086/307172" ]
20,000,101
[ "1999ApJ...517..148F" ]
For 19 galaxies with complete radio to UV SEDs, [REF] identified more than half as (highly reddened) starbursts.
10.1146/annurev.astro.38.1.761
Rigopoulou et al (1999b) have recently carried out near-IR, VLT-ISAAC spectroscopy of a sample of 0.6 ≤ z ≤ 1.3 ISOCAM galaxies in the HDF(S) field.
have recently carried out near-IR, VLT-ISAAC spectroscopy of a sample of 0.6 ≤ z ≤ 1.3 ISOCAM galaxies in the HDF(S) field.
616
[ "10.1086/301146" ]
20,000,101
[ "1999AJ....118.2625R" ]
[REF] have recently carried out near-IR, VLT-ISAAC spectroscopy of a sample of 0.6 ≤ z ≤ 1.3 ISOCAM galaxies in the HDF(S) field.
10.1146/annurev.astro.38.1.761
For HDF(s) Rigopoulou et al 2000 and Franceschini 2000 (private communication) deduced star formation rates of a few tens of M yr −1 from the Hα emission but typically three times greater values from the mid-IR data.
For HDF(s) and deduced star formation rates of a few tens of M yr −1 from the Hα emission but typically three times greater values from the mid-IR data.
622
[ "10.48550/arXiv.astro-ph/9912544" ]
20,000,101
[ "2000LNP...548..240R" ]
For HDF(s) [REF] and [REF] deduced star formation rates of a few tens of M yr −1 from the Hα emission but typically three times greater values from the mid-IR data.
10.1146/annurev.astro.38.1.761
A smaller fraction (∼25%) of the CFRS sources have ULIRG-like luminosities (10 12 L), in agreement with the work of Rowan-Robinson et al (1997) for HDF(N).
A smaller fraction (∼25%) of the CFRS sources have ULIRG-like luminosities (10 12 L), in agreement with the work of for HDF(N).
624
[ "10.1093/mnras/289.2.490" ]
20,000,101
[ "1997MNRAS.289..490R" ]
A smaller fraction (∼25%) of the CFRS sources have ULIRG-like luminosities (10 12 L), in agreement with the work of [REF] for HDF(N).
10.1146/annurev.astro.38.1.761
(a) galaxies in Coma, only those with emission lines have excess mid-IR emission indicative of active star formation ( Quillen et al 1999 ).
(a) galaxies in Coma, only those with emission lines have excess mid-IR emission indicative of active star formation ( ).
629
[ "10.1086/307307" ]
20,000,101
[ "1999ApJ...518..632Q" ]
(a) galaxies in Coma, only those with emission lines have excess mid-IR emission indicative of active star formation ( [REF] ).
10.1146/annurev.astro.38.1.761
Flores et al (1999a) identified 40% of the 15 CFRS/6.75 μm galaxies with spectra as AGNs, and 53% as active starbursts or S+A galaxies.
identified 40% of the 15 CFRS/6.75 μm galaxies with spectra as AGNs, and 53% as active starbursts or S+A galaxies.
631
[ "10.1086/307172" ]
20,000,101
[ "1999ApJ...517..148F" ]
[REF] identified 40% of the 15 CFRS/6.75 μm galaxies with spectra as AGNs, and 53% as active starbursts or S+A galaxies.
10.1146/annurev.astro.38.1.761
The hatched upper limits in the mid-IR are derived from the lack of attenuation of high-energy γ-rays ( Hauser et al 1998 ).
The hatched upper limits in the mid-IR are derived from the lack of attenuation of high-energy γ-rays ( ).
647
[ "10.1086/306379" ]
20,000,101
[ "1998ApJ...508...25H" ]
The hatched upper limits in the mid-IR are derived from the lack of attenuation of high-energy γ-rays ( [REF] ).
10.1146/annurev.astro.38.1.761
In the best areas, the surveys are limited by the fluctuations in the extragalactic background ( Lagache Puget 1999 ).
In the best areas, the surveys are limited by the fluctuations in the extragalactic background ( ).
658
[ "10.48550/arXiv.astro-ph/9901059" ]
20,000,101
[ "1999A&A...344..322L" ]
In the best areas, the surveys are limited by the fluctuations in the extragalactic background ( [REF] ).
10.1146/annurev.astro.38.1.761
The interplay of the k-corrections is such that ISOCAM cannot see galaxies with an Arp 220 SED located at z ∼ 2. The integrated counts constitute less than 10% of the COBE far-IR background ( Hauser et al 1998 ).
The interplay of the k-corrections is such that ISOCAM cannot see galaxies with an Arp 220 SED located at z ∼ 2. The integrated counts constitute less than 10% of the COBE far-IR background ( ).
681
[ "10.1086/306379" ]
20,000,101
[ "1998ApJ...508...25H" ]
The interplay of the k-corrections is such that ISOCAM cannot see galaxies with an Arp 220 SED located at z ∼ 2. The integrated counts constitute less than 10% of the COBE far-IR background ( [REF] ).
10.1146/annurev.astro.38.1.761
Star Formation at High Redshift: A Synthesis From the survey of the 1415+52 CFRS field, Flores et al (1999b) concluded that 60 ± 25% of the star formation at z ≤ 1 is associated with infrared emission.
Star Formation at High Redshift: A Synthesis From the survey of the 1415+52 CFRS field, concluded that 60 ± 25% of the star formation at z ≤ 1 is associated with infrared emission.
684
[ "10.1086/307172" ]
20,000,101
[ "1999ApJ...517..148F" ]
Star Formation at High Redshift: A Synthesis From the survey of the 1415+52 CFRS field, [REF] concluded that 60 ± 25% of the star formation at z ≤ 1 is associated with infrared emission.
10.1146/annurev.astro.38.1.761
Rowan-Robinson et al (1997) found an even larger correction factor from an analysis of the ISOCAM HDF(N) data.
found an even larger correction factor from an analysis of the ISOCAM HDF(N) data.
686
[ "10.1093/mnras/289.2.490" ]
20,000,101
[ "1997MNRAS.289..490R" ]
[REF] found an even larger correction factor from an analysis of the ISOCAM HDF(N) data.
10.1146/annurev.astro.38.1.761
Finally, the 850 μm source detections with the SCUBA bolometer camera require a star formation rate at z ∼ 3 that is ∼3.5 times greater than that derived from Lyman-dropout galaxies ( Hughes et al 1998 , Barger et al 1998 , Ivison et al 1998 ).
Finally, the 850 μm source detections with the SCUBA bolometer camera require a star formation rate at z ∼ 3 that is ∼3.5 times greater than that derived from Lyman-dropout galaxies ( ).
688
[ "10.1038/28328", "10.1038/28338", "10.1046/j.1365-8711.1998.01677.x" ]
20,000,101
[ "1998Natur.394..241H", "1998Natur.394..248B", "1998MNRAS.298..583I" ]
Finally, the 850 μm source detections with the SCUBA bolometer camera require a star formation rate at z ∼ 3 that is ∼3.5 times greater than that derived from Lyman-dropout galaxies ( [REF] ).
10.1146/annurev.astro.38.1.761
To explain the entire COBE far-IR/submm background requires that the star formation rate at z ≥ 1 be greater by another factor ≥2 ( Lagache et al 1999b ).
To explain the entire COBE far-IR/submm background requires that the star formation rate at z ≥ 1 be greater by another factor ≥2 ( ).
690
[ "10.48550/arXiv.astro-ph/9901059" ]
20,000,101
[ "1999A&A...344..322L" ]
To explain the entire COBE far-IR/submm background requires that the star formation rate at z ≥ 1 be greater by another factor ≥2 ( [REF] ).
10.1146/annurev.astro.38.1.761
The large discrepancy between the UV and IR/submm estimates disappears if the star formation rates estimated from the Lyman-dropout galaxies are corrected for extinction ( Pettini et al 1998 , Meurer et al 1999 , Steidel et al 1999 ).
The large discrepancy between the UV and IR/submm estimates disappears if the star formation rates estimated from the Lyman-dropout galaxies are corrected for extinction ( ).
692
[ "10.1086/306431", "10.1086/307523", "10.1086/307363" ]
20,000,101
[ "1998ApJ...508..539P", "1999ApJ...521...64M", "1999ApJ...519....1S" ]
The large discrepancy between the UV and IR/submm estimates disappears if the star formation rates estimated from the Lyman-dropout galaxies are corrected for extinction ( [REF] ).
10.1146/annurev.astro.38.1.761
The black symbols (with error bars) denote the star formation history deduced from (non-extinction corrected) UV data ( Steidel et al 1999 and references therein).
The black symbols (with error bars) denote the star formation history deduced from (non-extinction corrected) UV data ( and references therein).
695
[ "10.1086/307363" ]
20,000,101
[ "1999ApJ...519....1S" ]
The black symbols (with error bars) denote the star formation history deduced from (non-extinction corrected) UV data ( [REF] and references therein).
10.1146/annurev.astro.38.1.761
The red, three arrow symbol denotes the lower limit to dusty star formation obtained from SCUBA observations of HDF (N) ( Hughes et al 1998 ).
The red, three arrow symbol denotes the lower limit to dusty star formation obtained from SCUBA observations of HDF (N) ( ).
698
[ "10.1038/28328" ]
20,000,101
[ "1998Natur.394..241H" ]
The red, three arrow symbol denotes the lower limit to dusty star formation obtained from SCUBA observations of HDF (N) ( [REF] ).
10.1146/annurev.astro.38.1.761
The continuous line marks the total star formation rate deduced from the COBE background and an ‘inversion’ with a starburt SED ( Lagache et al 1999b ).
The continuous line marks the total star formation rate deduced from the COBE background and an ‘inversion’ with a starburt SED ( ).
699
[ "10.48550/arXiv.astro-ph/9901059" ]
20,000,101
[ "1999A&A...344..322L" ]
The continuous line marks the total star formation rate deduced from the COBE background and an ‘inversion’ with a starburt SED ( [REF] ).
10.1146/annurev.astro.38.1.761
Based on the X-ray background, Almaini et al (1999) set a limit of ∼20% to the AGN contribution to the far-IR/submm background.
Based on the X-ray background, set a limit of ∼20% to the AGN contribution to the far-IR/submm background.
708
[ "10.1046/j.1365-8711.1999.02669.x" ]
20,000,101
[ "1999MNRAS.305L..59A" ]
Based on the X-ray background, [REF] set a limit of ∼20% to the AGN contribution to the far-IR/submm background.
10.1146/annurev.astro.38.1.761
A rapidly evolving “burst” mode (exhaust time scales a few hundred Myrs) is required, probably associated with the much increased merger rate at high redshift [∝ (1 + z) δ , δ=2..6; Zepf Koo 1989 , Carlberg 1990 , Abraham et al 1996 ].
A rapidly evolving “burst” mode (exhaust time scales a few hundred Myrs) is required, probably associated with the much increased merger rate at high redshift [∝ (1 + z) δ , δ=2..6; ].
715
[ "10.1086/167085", "10.1086/185782", "10.1093/mnras/279.3.L47" ]
20,000,101
[ "1989ApJ...337...34Z", "1990ApJ...359L...1C", "1996MNRAS.279L..47A" ]
A rapidly evolving “burst” mode (exhaust time scales a few hundred Myrs) is required, probably associated with the much increased merger rate at high redshift [∝ (1 + z) δ , δ=2..6; [REF] ].
10.1146/annurev.astro.38.1.761
The ultraluminous mergers may be related to the formation of large elliptical galaxies and bulges ( Kormendy Sanders 1992 ).
The ultraluminous mergers may be related to the formation of large elliptical galaxies and bulges ( ).
724
[ "10.1086/186370" ]
20,000,101
[ "1992ApJ...390L..53K" ]
The ultraluminous mergers may be related to the formation of large elliptical galaxies and bulges ( [REF] ).