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Biomolecule

Weiss S 1999 Fluorescence spectroscopy of single biomolecules Science 283 1676-83... [Pg.2510]

The variety of molecules used to prepare LB films is enonnous. and only a small selection of examples can be presented here. Liquid crystals and biomolecules such as phospholipids, for example, can also be used to prepare LB films. The reader is referred to tire literature for infonnation about individual species. [Pg.2620]

Wolynes P G 1996 Symmetry and the energy landscape of biomolecules Proc. Natl Acad. Sci. (USA) 93 14 249-55... [Pg.2665]

Apart from the sheer complexity of the static stmctures of biomolecules, they are also rather labile. On the one hand this means that especial consideration must be given to the fact (for example in electron microscopy) that samples have to be dried, possibly stained, and then measured in high vacuum, which may introduce artifacts into the observed images [5]. On the other, apart from the vexing question of whether a protein in a crystal has the same stmcture as one freely diffusing in solution, the static stmcture resulting from an x-ray diffraction experiment gives few clues to the molecular motions on which operation of an enzyme depends [6]. [Pg.2815]

The most recently introduced optical teclmique is based on the retardation of light guided in an optical waveguide when biomolecules of a polarizability different from that of the solvent they displace are adsorbed at the waveguide surface (optical waveguide lightmode spectroscopy, OWLS) [H]. It is even more sensitive than ellipsometry, and the mode... [Pg.2838]

The reactions of biopolymers at interfaces fonn tire basis of some extremely important industrial processes. The primary process in all cases is tire adsorjDtion of biomolecules, usually proteins. If ultimately living cells are adsorbed, tliis always takes place onto a preadsorbed protein layer (which may be secreted by tire cells themselves [130]). These processes can be classified into tliree categories ... [Pg.2839]

A salient feature of natural surfaces is tliat tliey are overwhelmingly electron donors [133]. This is tlie basis for tlie ubiquitous hydrophilic repulsion which ensures tliat a cell can function, since massive protein-protein aggregation and protein-membrane adsorjition is tliereby prevented. In fact, for biomolecule interactions under typical physiological conditions, i.e. aqueous solutions of moderately high ionic strengtli, tlie donor-acceptor energy dominates. [Pg.2839]

Peyrard M (ed) 1995 Nonlinear Excitations in Biomolecules Les Ulis Editions de Physique)... [Pg.2853]

Newton M D 1999 Electron transfer from isolated molecules to biomolecules Advanced Chemicai Physics vol 106, ed J Jortner and M Bixon (New York Wiley) pp 303-75... [Pg.2995]

Wynne K and Hochstrasser R M 1999 Coherence and adiabaticity in ultrafast electron transfer Adv. Chem. Phys. 107 (Electron transfer from isolated molecules to biomolecules) part 2, 263-309... [Pg.2996]

Experimental techniques based on the application of mechanical forces to single molecules in small assemblies have been applied to study the binding properties of biomolecules and their response to external mechanical manipulations. Among such techniques are atomic force microscopy (AFM), optical tweezers, biomembrane force probe, and surface force apparatus experiments (Binning et al., 1986 Block and Svoboda, 1994 Evans et ah, 1995 Israelachvili, 1992). These techniques have inspired us and others (see also the chapters by Eichinger et al. and by Hermans et al. in this volume) to adopt a similar approach for the study of biomolecules by means of computer simulations. [Pg.40]

Miyazawa, T. Conformational aspects and biological functions of biomolecules. J. Mol. Struct. 126 (1985) 493-508... [Pg.124]

Gascoyne, P.R.C., Pethig, R. Experimental and theoretical aspects of hydration isotherms for biomolecules. J. Chem. Soc. Faradey Trans. 1 (1977) 171-180... [Pg.126]

The last part of this account will be devoted to protein kinases and protein phosphatases and some recent results we have obtained for them. Protein kinases and phosphatases are signaling biomolecules that control the level of phosphorylation and dephosphorylation of tyrosine, serine or threonine residues in other proteins, and by this means regulate a variety of fundamental cellular processes including cell growth and proliferation, cell cycle and cytoskeletal integrity. [Pg.190]

Since the stochastic Langevin force mimics collisions among solvent molecules and the biomolecule (the solute), the characteristic vibrational frequencies of a molecule in vacuum are dampened. In particular, the low-frequency vibrational modes are overdamped, and various correlation functions are smoothed (see Case [35] for a review and further references). The magnitude of such disturbances with respect to Newtonian behavior depends on 7, as can be seen from Fig. 8 showing computed spectral densities of the protein BPTI for three 7 values. Overall, this effect can certainly alter the dynamics of a system, and it remains to study these consequences in connection with biomolecular dynamics. [Pg.234]

The IE scheme is nonconservative, with the damping both frequency and timestep dependent [42, 43]. However, IE is unconditionally stable or A-stable, i.e., the stability domain of the model problem y t) = qy t), where q is a complex number (exact solution y t) = exp(gt)), is the set of all qAt satisfying Re (qAt) < 0, or the left-half of the complex plane. The discussion of IE here is only for future reference, since the application of the scheme is faulty for biomolecules. [Pg.238]

The LIN method (described below) was constructed on the premise of filtering out the high-frequency motion by NM analysis and using a large-timestep implicit method to resolve the remaining motion components. This technique turned out to work when properly implemented for up to moderate timesteps (e.g., 15 Is) [73] (each timestep interval is associated with a new linearization model). However, the CPU gain for biomolecules is modest even when substantial work is expanded on sparse matrix techniques, adaptive timestep selection, and fast minimization [73]. Still, LIN can be considered a true long-timestep method. [Pg.245]

In order to apply the techniques discussed above to the MD simulation o biomolecules, one takes the Liouville operator for a macromolecule in vacuo containing N atoms to be... [Pg.308]


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Adduct 323 Biomolecules

Adsorbed biomolecules

Adsorption biomolecules

Adsorption of biomolecules

Amphiphilic biomolecules

Analysis and quantification of biomolecules

Analysis of Biomolecules

Application biomolecules

Aqueous solutions of biomolecules

Aromaticity biomolecules

Asymmetry of biomolecules

Behavior of Biomolecules and Bacteria

Binding to Biomolecules

Bioanalysis 2 Biomolecules

Biochemistry biomolecules

Biomolecule Detection

Biomolecule Molecular Weight Determination

Biomolecule Surface-functionalized Vesicles

Biomolecule analysis

Biomolecule classification

Biomolecule conformational change

Biomolecule delivery

Biomolecule folding

Biomolecule immobilization

Biomolecule labeling

Biomolecule modeling

Biomolecule modifications

Biomolecule patterning

Biomolecule purification methods

Biomolecule sensing

Biomolecule synthesis

Biomolecule, nuclear spins

Biomolecule-Based Noncovalent Functionalization

Biomolecule-Templated Synthesis

Biomolecule-functionalized nanoparticles

Biomolecule-functionalized nanoparticles binding

Biomolecule-functionalized nanoparticles interaction with

Biomolecule-functionalized nanoparticles molecules

Biomolecule-functionalized nanoparticles synthesis

Biomolecule-nanoparticle attachments

Biomolecule-nanoparticle interaction

Biomolecule-responsive surfaces

Biomolecule-sensitive polymers

Biomolecule-to-Organism Manifestations of Metal Toxicity

Biomolecules

Biomolecules

Biomolecules 27.3 Phospholipids

Biomolecules Amino Acids, Peptides, and Proteins

Biomolecules Heterocycles and Nucleic Acids

Biomolecules II

Biomolecules Lipids Proteins

Biomolecules Lipids and Their Metabolism

Biomolecules Miller-Urey experiment

Biomolecules NMR studies

Biomolecules Natural polymers Organic

Biomolecules Oligonucleotides, Proteins

Biomolecules Peptides, specific proteins

Biomolecules Using Diels-Adler Cycloaddition

Biomolecules active

Biomolecules affinity partitioning

Biomolecules alkanes

Biomolecules amino acid

Biomolecules analysis

Biomolecules and Mass Spectrometry

Biomolecules and synthetic

Biomolecules antibody

Biomolecules aromatic hydrocarbons

Biomolecules basicity

Biomolecules binding

Biomolecules biosynthesis

Biomolecules carbohydrates

Biomolecules carbon sources

Biomolecules cells

Biomolecules chemical attributes

Biomolecules chemistry

Biomolecules chirality

Biomolecules classification

Biomolecules comets

Biomolecules complexing

Biomolecules coordination complexes

Biomolecules definition

Biomolecules derivatives

Biomolecules dynamics

Biomolecules early formation

Biomolecules electron carriers

Biomolecules electron transfer mechanisms

Biomolecules electronic absorption spectroscopy

Biomolecules electronic behavior

Biomolecules electrospray ionization

Biomolecules electrospray mass spectrometry

Biomolecules energy calculations

Biomolecules enzyme

Biomolecules families

Biomolecules functional

Biomolecules functional groups

Biomolecules future direction

Biomolecules general

Biomolecules glucose oxidase

Biomolecules graphics

Biomolecules hemoglobin

Biomolecules hybridization

Biomolecules hydrocarbon derivatives

Biomolecules immobilization

Biomolecules importance

Biomolecules in Analytical Chemistry

Biomolecules in aqueous solution

Biomolecules inflammatory mediators

Biomolecules ionization

Biomolecules iron storage

Biomolecules ligands

Biomolecules lipids

Biomolecules marine organic matter

Biomolecules mass spectra

Biomolecules metal ions

Biomolecules metalloenzymes

Biomolecules metalloproteins

Biomolecules minor

Biomolecules modelling techniques

Biomolecules molecular modeling

Biomolecules molecular recognition

Biomolecules myoglobin

Biomolecules nanohybrids

Biomolecules nanoparticle size

Biomolecules nitrogen fixation

Biomolecules nucleic acid components

Biomolecules nucleic acids

Biomolecules oligosaccharides peptides

Biomolecules optically active

Biomolecules organic radicals

Biomolecules other metals

Biomolecules overview

Biomolecules oxygen reduction

Biomolecules oxygen-binding proteins

Biomolecules oxygen-containing functional groups

Biomolecules partition coefficient

Biomolecules partitioning

Biomolecules physical attributes

Biomolecules polymers

Biomolecules posttranslational protein

Biomolecules proteins

Biomolecules purines

Biomolecules pyrimidines

Biomolecules quantification

Biomolecules radiation damage

Biomolecules selective binding

Biomolecules separation

Biomolecules significance

Biomolecules small

Biomolecules stabilization

Biomolecules structure - activity relationships

Biomolecules structure-emerging functionalities

Biomolecules supramolecular structures

Biomolecules survey

Biomolecules synthesis

Biomolecules to Cell

Biomolecules topology

Biomolecules visualization

Biomolecules water affecting structure

Biomolecules water-soluble

Biomolecules, and Water

Biomolecules, associations considered

Biomolecules, biopolymers

Biomolecules, complexes

Biomolecules, copper-containing

Biomolecules, coupling

Biomolecules, emergence

Biomolecules, glycosylated

Biomolecules, immobilisation

Biomolecules, interactions and stability in sol-gel matrices

Biomolecules, intercalation

Biomolecules, labelling

Biomolecules, mass spectrometry

Biomolecules, modification

Biomolecules, modification carbohydrates

Biomolecules, molecular dynamics

Biomolecules, molecular sensors

Biomolecules, potential energy surfaces

Biomolecules, preservation

Biomolecules, separation/characterization

Biomolecules, small, detection

Biomolecules, stability

Biomolecules-nanoparticle systems

Biomolecules-nanoparticle systems electronic functions

Biotechnologies biomolecule development

Biotechnologies biomolecules

Biotechnologies biomolecules separation

Biotin biomolecules with

Calculations of biomolecules

Carbon nanotube with biomolecules

Ceramic-biomolecules nanocomposites

Chemical evolution biomolecules

Chirality homogeneity of biomolecules

Chirality of biomolecules

Chromatography a key method for separation and identification of biomolecules

Chromatography for the Purification of Biomolecules Industrial Case Studies

Chromatography, of biomolecules

Chromium biomolecules

Classification of biomolecules

Clusters with Biomolecules

Cobalt biomolecules

Cofactor containing biomolecules

Conformation of biomolecules

Conjugation biomolecules

Containing biomolecules, reaction products

Copper biomolecules

Cross-relaxation biomolecules

Detection biomolecules

Detection of Biomolecules

Doing What Comes Unnaturally - Synthetic Biomolecules

Doping with biomolecules

Double resonance biomolecules

Dynamic Combinatorial Chemistry Ligands for Biomolecules

ESR Studies of Radiation Damage to DNA and Related Biomolecules

Electrode biomolecules

Emulsion biomolecules

Encapsulation biomolecule

Encapsulation of Biomolecules in MS Particles

Exploiting Nanoscale Control to Interface Electrodes with Biomolecules

Extraction biomolecules

Features and characteristics of major biomolecules

Fluorescence spectroscopy of single biomolecules

Force Fields for Biomolecules

Functional biomolecule

Functional groups in biomolecules

Functionalization immobilize biomolecules

Gold-biomolecule nanoparticles

High molecular weight biomolecules

Higher Oxidation State Manganese Biomolecules

Highly charged biomolecules

Homochirality biomolecules

Homochirality of biomolecules

Hydrated biomolecules

Hydration of biomolecules

Hydrogen bonds in biomolecules

Imaging of Single Biomolecules by Scanning Tunneling Microscopy

Imaging single biomolecules

Immobilization of Biomolecules at the Sensor Surface

Immobilization of Small Biomolecules on Mesoporous Materials

Immobilization of biomolecule

Immobilization of biomolecules

Importance of separation methods to isolate biomolecules

Informational biomolecules

Interactions and stability of biomolecules in sol-gel

Interactions with Biomolecules

Introducing the small biomolecules

Introduction to biomolecules

Ionic biomolecules

Iron biomolecules

Iron-containing Biomolecules

Labeling biomolecules

Labelling, of biomolecules

Laboratory Analysis of Biomolecules

Large biomolecules

Lipid biomolecule

MOLECULAR GRAPHICS VISUALIZATION OF BIOMOLECULES

Macromolecules Biomolecules and Biopolymers

Major methods to detect and quantify biomolecules

Mass spectrometry of biomolecules

Mass spectrometry of large biomolecules

Matrix-assisted laser desorption/ionization biomolecules

Membrane-bound biomolecules

Metallodrug-Biomolecule Interactions

Metallodrugs biomolecule interactions

Methods for Modeling Biomolecules

Modification of Biomolecules with Nanomaterials

Molecular dynamics simulation biomolecules

Molecular mechanical solvation model biomolecules

Molecular mechanics biomolecules

Molecular modelling of biomolecules

Molecules biomolecules

Molybdenum biomolecules

Monomer biomolecules

Monomeric biomolecules

NMR of biomolecules

NP-biomolecule hybrids

Nanoparticle-biomolecule hybrid

Nanostructuring Electrodes to Achieve Intimate Connectivity with Biomolecules

New HPLC-Phase Combinations for Assays of Very Polar Biomolecules

Nickel biomolecules

Non-covalent interactions in biomolecules

Noncovalent biomolecules

Other Biomolecules That Must Be Optimized for Nonnatural Amino Acids

Other Metal-containing Biomolecules

PEGylated biomolecules

Patterning of Biomolecules on Surfaces

Peptides targeting biomolecules

Peroxidation cellular biomolecules

Photoresponsive biomolecules

Platinum amine compounds biomolecules

Polymer devices biomolecule detection

Polymeric biomolecules

Porphyrins biomolecules

Preferential solvation of biomolecules

Printing of biomolecules

Pyrrole-based biomolecules

Radiolabeled biomolecules

Radionuclides biomolecules

Raman Spectroscopy of Biomolecules at Electrode Surfaces

Reactions with Biomolecules Other Than DNA

Recombinant Biomolecules

Redox active biomolecules

Relaxation biomolecules

SE(R)RS of Biomolecules

Semiconductor-biomolecule quantum dots

Sensors for Biomolecules

Separation biomolecule

Significance of biomolecules in nature and science

Silica functionalized with biomolecules

Silica with biomolecules

Silver/ions with biomolecules

Small Biomolecule Detection

Sol-gel matrices interactions and biomolecules stability

Solution Structure of Biomolecules

Solvation of small biomolecules

Solvent Simulations of Biomolecules in Cellular Environments

Special Topic Alkanes as Biomolecules

Special Topic Complex Nitrogen-Containing Biomolecules—Alkaloids

Spectrometry of Biomolecules

Spin diffusion biomolecules

Sulfhydryl-containing biomolecules

Sulfur-containing biomolecules, reaction

Sulfur-containing biomolecules, reaction compounds

Surface biomolecules/ligands/ particles

Surface small biomolecule detection

Survey of Biomolecules

Switchable surfaces biomolecules, interaction with

Synthetic biomolecules

The structural complexity of biomolecules

Three-dimensional structure, of biomolecules

Trapped Biomolecules

Two-dimensional infrared studies of biomolecules

Vanadium biomolecules

Vibrational Nanospectroscopy for Biomolecules and Nanomaterials

Water with biomolecules

Zinc-containing Biomolecules

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