Theoretical limits of spatial resolution in elliptical-centric contrast-enhanced 3D-MRA
Sean B. Fain
Magnetic Resonance Laboratory, Mayo Clinic, Rochester, Minnesota.
Search for more papers by this authorCorresponding Author
Stephen J. Riederer
Magnetic Resonance Laboratory, Mayo Clinic, Rochester, Minnesota.
Magnetic Resonance Laboratory, Mayo Clinic, 200 1st St., S.W., Rochester, MN 55905.===Search for more papers by this authorMatt A. Bernstein
Magnetic Resonance Laboratory, Mayo Clinic, Rochester, Minnesota.
Search for more papers by this authorJohn Huston III
Magnetic Resonance Laboratory, Mayo Clinic, Rochester, Minnesota.
Search for more papers by this authorSean B. Fain
Magnetic Resonance Laboratory, Mayo Clinic, Rochester, Minnesota.
Search for more papers by this authorCorresponding Author
Stephen J. Riederer
Magnetic Resonance Laboratory, Mayo Clinic, Rochester, Minnesota.
Magnetic Resonance Laboratory, Mayo Clinic, 200 1st St., S.W., Rochester, MN 55905.===Search for more papers by this authorMatt A. Bernstein
Magnetic Resonance Laboratory, Mayo Clinic, Rochester, Minnesota.
Search for more papers by this authorJohn Huston III
Magnetic Resonance Laboratory, Mayo Clinic, Rochester, Minnesota.
Search for more papers by this authorAbstract
The point spread function (PSF) for contrast-enhanced three-dimensional (3D) MR angiography using the elliptical centric view order is derived. This view order has been shown previously to provide high venous suppression thereby enabling long acquisition times capable of high spatial resolution. The dependence of the PSF on TR, field of view (FOV), scan time, and trigger time are shown explicitly. Theoretical predictions are corroborated with experimental results in phantoms and in vivo. The PSF width decreases as the square root of the product of TR and the two phase encoding FOV's for fixed nominal voxel size. The PSF peak amplitude increases as the reciprocal of this product. Theory and experiment demonstrate that acquisition times over 40 sec provide superior resolution compared to shorter acquisitions, despite falling levels of contrast agent concentration. The analysis predicts that an isotropic spatial resolution of 1 mm before zero filling is possible in a FOV large enough to encompass the carotid and vertebral arteries bilaterally. Magn Reson Med 42:1106–1116, 1999. © 1999 Wiley-Liss, Inc.
REFERENCES
- 1 Douek PC, Revel D, Chazel S, Falise B, Villard J, Amiel M. Fast MR angiography of the aortoiliac arteries and arteries of the lower extremity: value of bolus-enhanced whole-volume subtraction technique. AJR 1995; 165: 431–437.
- 2 Snidow JJ, Johnson MS, Harris VJ, Margusian PM, Aisen Am, Lalka SG, Cikrit DF, Trerotola SO. Three-dimensional gadolinium enhanced MR angiography for aortoiliac inflow assessment plus renal artery screening in a single breath hold. Radiology 1996; 198: 725–732. Medline
- 3 Levy RA, Maki JH. Three-dimensional contrast-enhanced MR angiography of the extracranial carotid arteries: two techniques. Am J Neuroradiol 1998; 19: 688–690. Medline
- 4 Farzaneh F, Riederer SJ, Pelc NJ. Analysis of T2 limitations and off-resonance effects on spatial resolution and artifacts in echo-planar imaging. Magn Reson Med 1990; 14: 123–139. Medline
- 5 Constable RT, Anderson AW, Zhong J, Gore JC. Factors influencing contrast in fast spin-echo MR imaging. Mag Reson Imaging 1992; 10: 497–511.
- 6 Song HK, Wehrli FW. SNR improvement for high resolution imaging of short T2* species. Magn Reson Med 1998; 39: 251–258. Medline
- 7 Prince MR, Yucel EK, Kaufman JA, Harrison DC, Geller SC. Dynamic gadolinium-enhanced 3D abdominal MR arteriography. J Magn Reson Imaging 1993; 3: 877–881. Medline
- 8 Prince MR. Gadolinium-enhanced MR aortography. Radiology 1994; 191: 155–164. Medline
- 9 Revel D, Loubeyre P, Delignette A, Douek P, Amiel M. Contrast-enhanced magnetic resonance tomoangiography: a new imaging technique for studying thoracic great vessels. Magn Reson Imaging 1993; 11: 1101–1105. Medline
- 10 Prince MR, Narasimham DL, Stanley JC, Chenevert TL, Williams DM, Marx MV, Cho KJ. Breathhold gadolinium-enhanced MR angiography of the abdominal aorta and its major branches. Radiology 1995; 197: 785–792. Medline
- 11 Isoda H, Ushimi T, Masui T, Mochizuki T, Goto S, Suzuki K, Shirakawa T, Ohta A, Takahashi M, Kaneko M. Clinical evaluation of pulmonary 3D time-of-flight MRA with breath holding using contrast media. J Comput Assist Tomogr 1995; 19: 911–919. Medline
- 12 Shetty AH, Bis KG, Vrachliotis TG, Ellwood R, Simonetti O, Shirkhoda A. Breath hold high resolution contrast enhanced 3D MRA using phase reordering. In: Proceedings of the ISMRM 4th Annual Meeting, New York, 1996. p 1250.
- 13 Holland GA, Dougherty L, Carpenter JP, Golden MA, Gilfeather M, Slossman F, Schnall MD, Axel L. Breath-hold ultrafast three-dimensional gadolinium-enhanced MR angiography of the aorta and the renal and other visceral abdominal arteries. AJR 1996; 166: 971–981.
- 14 Earls JP, Rofsky NM, DeCorato DR, Krinsky GA, Weinreb JC. Breath-hold single-dose gadolinium-enhanced three-dimensional MR aortography: usefulness of a timing examination and MR power injector. Radiology 1996; 201: 705–710. Medline
- 15 Leung DL, McKinnon GC, Davis CP, Pfammatter T, Krestin GP, Debatin JF. Breath-hold, contrast-enhanced, three-dimensional MR angiography. Radiology 1996; 201: 569–571. Medline
- 16 Steiner P, McKinnon GC, Romanowski B, Goehde SC, Hany T, Debatin J. Contrast-enhanced, ultrafast 3D pulmonary MR angiography in a single breathhold: initial assessment of imaging performance. J Magn Reson Imaging 1997; 7: 177–182. Medline
- 17 Willig DS, Turski P, Frayne RF, Graves VB, Korosec FR, Swan JS, Mistretta CA, Grist TM. Contrast-enhanced 3D MR DSA for the carotid artery bifurcation: preliminary study of comparison with unenhanced 2D and 3D time-of-flight MR angiography. Radiology 1998; 208: 447–451. Medline
- 18 Remonda L, Heid O, Schroth G. Carotid artery stenosis, occlusion, and pseudoocclusion: first-pass, three-dimensional MR angiography—Preliminary study. Radiology 1998; 209: 95–102. Medline
- 19 Korosec FR, Frayne R, Grist TM, Mistretta CA. Time-resolved contrast-enhanced 3D MR angiography. Magn Reson Med 1996; 36: 345–351. Medline
- 20 Mistretta CA, Grist TM, Korosec FR, Frayne R, Peters DC, Mazaheri Y, Carroll TJ. 3D time-resolved contrast-enhanced MR DSA: advantages and tradeoffs. Magn Reson Med 1998; 40: 571–581. Medline
- 21 Hany TF, McKinnon GC, Leung DA, Pfammatter T, Debatin JF. Optimization of contrast timing for breath-hold three-dimensional MR angiography. J Magn Reson Imaging 1997; 7: 551–556. Medline
- 22 Kim JK, Farb RI, Wright GA. Test bolus examination in the carotid artery at dynamic gadolinium-enhanced MR angiography. Radiology 1998; 206: 283–289. Medline
- 23 Foo TKF, Saranathan M, Prince MR, Chenevert TL. Automated detection of bolus arrival and initiation of data acquisition in fast, three-dimensional, gadolinium-enhanced MR angiography. Radiology 1997; 203: 275–280. Medline
- 24 Isoda H, Takehara Y, Isogai S, Takeda H, Kaneko M, Nozaki A, Sun Y, Foo TK. Technique for arterial-phase contrast-enhanced three-dimensional MR angiography of the carotid and vertebral arteries. Am J Neuroradiol 1998; 19: 1241–1244. Medline
- 25 Wilman AH, Riederer SJ, King BF, Debbins JP, Rossman PJ, Ehman RL. Fluoroscopically-triggered contrast-enhanced 3D MR angiography with elliptical centric view order: application to the renal arteries. Radiology 1997; 205: 137–146. Medline
- 26 Wilman AH, Riederer SJ, Huston J, Wald J, Debbins J. Arterial phase carotid and vertebral artery Imaging in contrast-enhanced 3D MRA by combining fluoroscopic triggering with an elliptical centric acquisition order. Magn Reson Med 1998; 40: 24–35. Medline
- 27 Wilman AH, Riederer SJ. Performance of an elliptical centric view order for signal enhancement and motion artifact suppression in breath-hold three-dimensional gradient echo imaging. Magn Reson Med 1997; 38: 793–802. Medline
- 28 Huston J, Fain SB, Wilman AH, Riederer SJ, Bernstein MA, Busse RF. Maximizing arterial to venous contrast in fluoroscopically triggered contrast-enhanced MR angiography with elliptic centric view ordering. Radiology 1999; 211: 265–273. Medline
- 29 Kaul S. Quantitation of myocardial perfusion with contrast echocardiography. Am J Cardiac Imaging 1991; 5: 200–216.
- 30 Bevington PR. Data reduction and error analysis for the physical sciences. New York: McGraw-Hill; 1969. p 188.
- 31 Bracewell RN. The Fourier transform and its applications. New York: McGraw-Hill; 1978. p 249.
- 32 Meyer-Arendt JR. Introduction to classical and modern optics. 4th ed. Englewood Cliffs, NJ: Prentice-Hall; 1995. p 238.
- 33 Maki JH, Prince MR, Londy FJ, Chenevert TL. The effects of time varying intravascular signal intensity and k-space acquisition order on three-dimensional MR angiography image quality. J Magn Reson Imaging 1996; 6: 642–651. Medline
- 34 Noll DC, Nishimura DG, Macovski A. Homodyne detection in magnetic resonance imaging. IEEE Trans Med Imaging 1991; 10: 154–163.
- 35 Cloft HJ, Murphy KJ, Prince MR, Brunberg JA. 3D gadolinium-enhanced MR angiography of the carotid arteries. Magn Reson Imaging 1996; 14: 593–600. Medline
- 36 Parker DL, Goodrich KC, Alexander AL, Buswell HR, Blatter DD, Tsuruda JS. Optimized visualization of vessels in contrast enhanced intracranial MR angiography. Magn Reson Med 1998; 40: 873–882. Medline
- 37 Pelc NJ, Alley MT, Shifrin RY, Herfkens RJ. Outer limits of contrast-enhanced MRA, revisited. In: Proceedings of the ISMRM 6th Scientific Meeting, Sydney, Australia, 1998. p 98.
- 38 Heid O, Remonda L. Outer limits of contrast-enhanced 3D MRA. In: Proceedings of the ISMRM 5th Scientific Meeting, Vancouver, B.C., Canada, 1997. p 254.