Free and bound water in normal and cataractous human lenses.
暂无分享,去创建一个
[1] R F Fisher,et al. Presbyopia and the water content of the human crystalline lens , 1973, The Journal of physiology.
[2] R. Mathias,et al. Physiological properties of the normal lens. , 1997, Physiological reviews.
[3] R. Augusteyn,et al. Changes in the distribution of proteins in the aging human lens. , 1977, Experimental eye research.
[4] J. Harding,et al. Changes in proteins of the human lens in development and aging. , 1975, Biochimica et biophysica acta.
[5] M. Costello,et al. Morphology of the normal human lens. , 1996, Investigative ophthalmology & visual science.
[6] Henk A Weeber,et al. Dynamic mechanical properties of human lenses. , 2005, Experimental eye research.
[7] G. Maraini,et al. Changes in Weight and in Protein – Water Ratio of the Lens in Human Senile Cataracts , 1972 .
[8] A. Spector,et al. Age-dependent changes in the molecular size of human lens proteins and their relationship to light scatter. , 1974, Investigative ophthalmology.
[9] G. Zampighi,et al. Epithelial organization of the mammalian lens. , 2000, Experimental eye research.
[10] B. Philipson,et al. Normal human lens - the distribution of protein. , 1981, Experimental eye research.
[11] F. Bettelheim,et al. Age dependence of freezable and nonfreezable water content of normal human lenses. , 1985, Investigative ophthalmology & visual science.
[12] J. Kuszak,et al. The interrelationship of lens anatomy and optical quality. II. Primate lenses. , 1994, Experimental Eye Research.
[13] T. Shearer,et al. Age-related changes in human lens crystallins identified by two-dimensional electrophoresis and mass spectrometry. , 1998, Experimental eye research.
[14] J. Kuszak,et al. An ultrastructural analysis of the epithelial-fiber interface (EFI) in primate lenses. , 1995, Experimental eye research.
[15] A. Pirie. Color and solubility of the proteins of human cataracts. , 1968, Investigative ophthalmology.
[16] K. Tompa,et al. The state of water in normal human, bird and fish eye lenses. , 1979, Experimental eye research.
[17] P A Pevzner,et al. Age-related changes in human crystallins determined from comparative analysis of post-translational modifications in young and aged lens: does deamidation contribute to crystallin insolubility? , 2006, Journal of proteome research.
[18] R. Truscott,et al. Post-translational modifications in the nuclear region of young, aged, and cataract human lenses. , 2007, Journal of proteome research.
[19] R. Truscott,et al. Massive increase in the stiffness of the human lens nucleus with age: the basis for presbyopia? , 2004, Molecular vision.
[20] R. Briggs,et al. Nuclear magnetic resonance study of free and bound water fractions in normal lenses. , 1989, Investigative ophthalmology & visual science.
[21] J. Bada,et al. Aspartic acid racemisation in the human lens during ageing and in cataract formation , 1977, Nature.
[22] G. Fullerton,et al. Extent and properties of nonbulk “bound” water in crystalline lens cells , 1988, Journal of cellular physiology.
[23] R. Heyningen. The human lens: III. Some observations on the post-mortem lens , 1972 .
[24] J. Kuszak,et al. The interrelationship of lens anatomy and optical quality. I. Non-primate lenses. , 1994, Experimental eye research.
[25] A. Kuszak,et al. Structural evidence of human nuclear fiber compaction as a function of ageing and cataractogenesis. , 2001, Experimental eye research.
[26] A. Spector,et al. Changes in lens protein in concentric fractions from individual normal human lenses. , 1986, Current eye research.
[27] J M Pope,et al. Age-related changes in the kinetics of water transport in normal human lenses. , 1999, Experimental eye research.
[28] J. Kuszak,et al. The development of lens sutures , 1995, Progress in Retinal and Eye Research.
[29] H. Pau,et al. The increasing sclerosis of the human lens with age and its relevance to accommodation and presbyopia , 2004, Graefe's Archive for Clinical and Experimental Ophthalmology.
[30] R. Truscott,et al. Presbyopia and heat: changes associated with aging of the human lens suggest a functional role for the small heat shock protein, α‐crystallin, in maintaining lens flexibility , 2007, Aging cell.
[31] R. Truscott,et al. An impediment to glutathione diffusion in older normal human lenses: a possible precondition for nuclear cataract. , 1998, Experimental eye research.
[32] R. Truscott. Age-related nuclear cataract-oxidation is the key. , 2005, Experimental eye research.
[33] R. Truscott,et al. Movement of cysteine in intact monkey lenses: the major site of entry is the germinative region. , 2003, Experimental eye research.
[34] J. M. Nunnari,et al. Determination of the state and content of water in human normal and cataractous lenses by differential scanning calorimetry. , 1986, Ophthalmic research.
[35] G. Maraini,et al. Differences in Proteins and in the Water Balance of the Lens in Nuclear and Cortical Types of Senile Cataract , 2008 .
[36] L. Chylack,et al. Freezable and non-freezable water content of cataractous human lenses. , 1986, Investigative ophthalmology & visual science.