about
Curved DNA without A-A: experimental estimation of all 16 DNA wedge anglesConformational states of chromatin nu bodies induced by urea.Potentiostatic deposition of DNA for scanning probe microscopy.p53 binding to nucleosomal DNA depends on the rotational positioning of DNA response element.Four p53 DNA-binding domain peptides bind natural p53-response elements and bend the DNA.Nucleosome and DNA-protein condensed structures in solution from flow birefringence and intrinsic viscosityDNA curving and bending in protein-DNA recognition.Conformation of the HMG 14 nucleosome core complex from flow birefringenceSalt-dependent interconversion of inner histone oligomers.Atomic force microscopy of long DNA: imaging in air and under water.DNA chain flexibility and the structure of chromatin nu-bodies.Urea-induced structural changes in chromatin obtained by sedimentation.A standard multidimensional, easy-access data file structure for Apple II computers.Structure of hydrated oligonucleotides studied by in situ scanning tunneling microscopy.Strained DNA is kinked by low concentrations of Zn2+p53-induced DNA bending and twisting: p53 tetramer binds on the outer side of a DNA loop and increases DNA twisting.DNA bending induced by Cro protein binding as demonstrated by gel electrophoresis.The effects of sequence context on DNA curvature.CA runs increase DNA flexibility in the complex of lambda Cro protein with the OR3 site.DNA bending is essential for the site-specific recognition of DNA response elements by the DNA binding domain of the tumor suppressor protein p53.Architectural accommodation in the complex of four p53 DNA binding domain peptides with the p21/waf1/cip1 DNA response element.Low velocity gradient flow birefringence and viscosity changes in hyaluronate solutions as a function of pH.Conformational transition in DNA on a cold surface.Unconventional helical phasing of repetitive DNA motifs reveals their relative bending contributions.Conformational states of chromatin.New concepts in protein-DNA recognition: sequence-directed DNA bending and flexibility.DIAMOD: display and modeling of DNA bending.Studies of DNA bending and flexibility using gel electrophoresis.What is the basis of sequence-directed curvature in DNAs containing A tracts?Histone-histone interaction mediates chromatin unfolding at physiological ionic strength.Optico-hydrodynamic properties of high molecular weight DNA. II. Effect of aqueous glycerol solvents.Sequence-dependent kinks induced in curved DNA.The flow birefringence of persistence length deoxyribonucleic acid. Hydrodynamic properties, optical anisotropy, and hydration shell anistropy.Steady-state opticohydrodynamic properties of DNA: molecular weight dependence and the internal viscosity problem.Dynamic histone acetylation in alfalfa cells. Butyrate interference with acetate labeling.Optico-hydrodynamic properties of high molecular weight DNA from steady-state flow birefringence and viscosity at extremely low velocity gradients.Differential Histone Acetylation in Alfalfa (Medicago sativa) Due to Growth in NaCl : Responses in Salt Stressed and Salt Tolerant Callus Cultures.Structural conformations of nucleosomes at low ionic strength from flow birefringence and intrinsic viscosity.Preferential nucleosome placement on pBR322 restriction fragments.Kinked DNA
P50
Q24563875-61d87a51-4077-1144-3448-50a6bcdd6679Q30426052-9995e86e-4e8c-fee1-0bbf-2a553672f866Q33223580-94226567-442d-0811-f32f-2bdf81e428caQ33569713-d2e75e61-48b0-de5b-a5d3-1cf9d1d50429Q33912006-4b643269-4915-caa9-2e96-035e82b25cb4Q34251531-37845ca5-464e-7733-c165-dbb533c84b14Q35236157-d3bb8c99-4723-a005-e25f-c8dbb502160dQ35530822-f5f9cc5c-460e-a163-9844-acede6bc1f31Q35751996-5e0c216c-48cb-10ac-dc4c-249e894af22eQ36157031-762ad2e0-4990-d6a7-190c-96012089f93eQ36186136-ab4816af-447c-6863-a557-85b06489208aQ36202997-3a6a34ac-4281-35d3-a848-20650eed830fQ36483234-17a55bf8-48c6-8dd9-4ded-a513a31109d8Q36562631-bfe450b7-4e08-17d3-4a07-a7dd442e8fc6Q36588783-c46dcd88-43d8-8d03-195d-ad8497a756fcQ37161582-53bd803b-409b-ab71-8465-edda0525344aQ37532736-932fb147-4243-ea71-da0c-bd4329e2f1aeQ37621422-46b02e46-4f9c-89e3-3937-074736e2b2bfQ38319996-1f96bfcd-4a29-c1d1-7b71-6b608bb3613eQ38345163-1dc82298-4a23-6d01-7ca8-90f73be6697dQ38345165-e671a292-411d-d60b-d86b-943a9c1b8303Q39168127-28662347-41f8-b8cb-5d74-5a0078dfcb7bQ39541982-cbea2b59-4dbf-ae85-f1c0-c6f0b33cee17Q39724945-caaf4c92-417d-5064-4efd-d91c76d56a23Q40545158-3a007307-49c1-9358-b057-72d591d41dfdQ40663889-ef42b714-4af0-3d1e-08c1-d7cd8224112eQ40854743-aae4f47b-4ac4-edf6-dc93-0e1dce608054Q40862044-d8e6659e-477b-f878-3f63-4257988a6b55Q40957289-cd9a6f65-4498-938e-5d4e-bf0503081962Q43874078-ab057195-49e2-4594-6fa6-73381942bed6Q43899539-85819418-45fa-93fe-b77b-4a8c03982027Q44153316-3bd772e8-4989-2d7b-ec7b-8a899f1cfa85Q44359584-39a4b4a9-420e-4f7c-01a0-b3e3fa593322Q44697629-2b067ea2-4680-b6e0-c458-d238c51a9161Q46797413-ce7bf229-43cd-a374-2b58-36ee35d45b13Q47390967-ca381e2c-4a87-7192-8635-f60c166d67fbQ47924451-bc302664-45a2-9880-e583-3317869e9d5eQ52739104-b0253e78-4f93-ad88-349c-91efa015d366Q54777887-3d908db6-485a-3539-4fce-66cf4578df7cQ59099488-980e6b0d-4b4c-76aa-9786-93684a203770
P50
description
biochemist
@en
name
Rodney E. Harrington
@en
type
label
Rodney E. Harrington
@en
altLabel
Rodney E Harrington
@en
Rodney Harrington
@en
prefLabel
Rodney E. Harrington
@en
P108
P1006
P214
P1006
P1153
7201653499
P2038
Rodney_Harrington
P21
P213
0000 0003 9457 9609