 
  
  
  
  
 , P. M. Solomon
, P. M. Solomon ,
S. J. E. Radford
,
S. J. E. Radford
 Institut de Radio Astronomie Millimétrique, 
38406 St. Martin d'Hères, France
Institut de Radio Astronomie Millimétrique, 
38406 St. Martin d'Hères, France Astronomy Program, State University of New York, 
Stony Brook, NY 11794
Astronomy Program, State University of New York, 
Stony Brook, NY 11794 National Radio Astronomy Observatory, Tucson AZ 85721-0665
National Radio Astronomy Observatory, Tucson AZ 85721-0665  ; they display no evidence of any velocity gradient.  This
size, together with optical and IR data that show the galaxy is probably 
gravitationally lensed, lead to a new model for the CO distribution.  
In contrast to many lensed objects, we have a good estimate of the
intrinsic CO and far IR surface brightnesses, so we 
can derive the CO and far IR/sub-mm magnifications.
The CO is magnified 10 times and has a true radius of
400 pc and the far IR is magnified 13 times and has a radius of  250 pc.
The true far IR luminosity is
 ; they display no evidence of any velocity gradient.  This
size, together with optical and IR data that show the galaxy is probably 
gravitationally lensed, lead to a new model for the CO distribution.  
In contrast to many lensed objects, we have a good estimate of the
intrinsic CO and far IR surface brightnesses, so we 
can derive the CO and far IR/sub-mm magnifications.
The CO is magnified 10 times and has a true radius of
400 pc and the far IR is magnified 13 times and has a radius of  250 pc.
The true far IR luminosity is  M
M and
the molecular gas mass is
 and
the molecular gas mass is  M
M . 
This is nearly an order of magnitude less than previously estimated.
Because the far IR magnification is lower than the mid and near IR 
magnification, the intrinsic spectral energy distribution now peaks 
in the far infrared.  That is, nearly all of the energy of
this object is absorbed and re-emitted in the far infrared. 
In CO luminosity, molecular gas content, CO linewidth, 
and corrected far IR luminosity, 10214+4724 is a typical, warm, IR
ultraluminous galaxy.
. 
This is nearly an order of magnitude less than previously estimated.
Because the far IR magnification is lower than the mid and near IR 
magnification, the intrinsic spectral energy distribution now peaks 
in the far infrared.  That is, nearly all of the energy of
this object is absorbed and re-emitted in the far infrared. 
In CO luminosity, molecular gas content, CO linewidth, 
and corrected far IR luminosity, 10214+4724 is a typical, warm, IR
ultraluminous galaxy.