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1 that motif V is a communication hub for this energy transduction.
2 r membranes, presumably during the course of energy transduction.
3  in terms of regulation of the efficiency of energy transduction.
4 s that fuel respiration and mediate cellular energy transduction.
5 uctures attainable transiently during normal energy transduction.
6 s, thus, unlikely to affect its functions in energy transduction.
7  receptors as being essential for productive energy transduction.
8 that describe a mechanism for TonB-dependent energy transduction.
9 ive assessment of mitochondrial function and energy transduction.
10 upport the physical interactions involved in energy transduction.
11 erved Rnf complex as a key coupling site for energy transduction.
12 hange of different forms of energy, i.e., on energy transduction.
13 to be operative in cellular signaling and in energy transduction.
14  systems chemistry, prebiotic chemistry, and energy transduction.
15 ylation system proteins, pivotal for aerobic energy transduction.
16  fundamental reactions in primary biological energy transduction.
17 s are electron transfer proteins involved in energy transduction.
18 al may optimize and regulate electron-proton energy transduction.
19  activity, response to receptor binding, and energy transduction.
20  catalyze TonB conformational changes during energy transduction.
21 itions of the catalytic dwells influence the energy transduction.
22 endent on the proton-motive force due to the energy transduction.
23 are but they are essential for catalysis and energy transduction.
24 n in photosynthetic and respiratory membrane energy transduction.
25 e factors that influence quinone function in energy transduction.
26 ay essential roles, especially in biological energy transduction.
27 its force, sliding distance, and its rate of energy transduction.
28 d energy supplies from batteries or wireless energy transduction(3), a need to efficiently stimulate
29 nthetic organocatalyst, and its mechanism of energy transduction(6), informs both the debate(3,5,7) s
30                     Finally, we quantify the energy transduction achieved by the catalysis-driven act
31 t both the light-harvesting and light-driven energy transduction activities necessary for the cells t
32                          The key element for energy transduction and a major unresolved question comm
33 nents of a core metabolic pathway central to energy transduction and amino acid, sugar, nucleotide an
34 nsmembrane domains which may be required for energy transduction and cation transport.
35 potent oxidant used by aerobic organisms for energy transduction and critical biosynthetic processes.
36 mes involved in primary metabolism including energy transduction and deoxynucleotide production catal
37 ch, the mechanistic details of ATP-dependent energy transduction and dinitrogen reduction by nitrogen
38 ed to ascertain its role in the mechanism of energy transduction and force generation.
39 undreds of redox reactions essential for the energy transduction and metabolism in all living cells.
40 ar nanotechnology as a research frontier for energy transduction and metabolism, and has enabled the
41 essively uncouples the MIM thereby affecting energy transduction and mitochondrial biogenesis.
42 and how the associated reactions are tied to energy transduction and organismal survival.
43 riptional signatures involving mitochondrial energy transduction and oxidative burst in MRSA versus M
44       Electron transfer reactions facilitate energy transduction and photoredox processes in biology
45 , but we have a limited understanding of the energy transduction and product distribution in tandem m
46 sengage from the cytoplasmic membrane during energy transduction and shuttle to the outer membrane.
47 taken to investigate the structural basis of energy transduction and substrate translocation in MATE
48                      These studies elucidate energy transduction and suggest how mutations of betaS1
49 ng an essential yet neglected aspect of free energy transduction and suggesting the potential general
50 w evaluates extant data on the mechanisms of energy transduction and superoxide production by complex
51 e important implications on the mechanism of energy transduction and the power stroke driving transpo
52 conductive substances for electron transfer, energy transduction, and CO(2) fixation.
53 the functions of the cells, i.e., signaling, energy transduction, and physiological adaptation.
54 al functions, including microbial virulence, energy transduction, and protection against solar radiat
55 ude transcription regulation, cell division, energy transduction, and several biosynthetic pathways.
56                                              Energy transduction appears to occur through activator c
57 findings for the mechanism of TonB-dependent energy transduction are discussed.
58 or the outer and cytoplasmic membrane during energy transduction, are incorporated with previous obse
59 lex organelle that serves essential roles in energy transduction, ATP production, and a myriad of cel
60 de segment provides a functional linkage for energy transduction between phosphorylation and cation b
61 us studies, we investigated the mechanism of energy transduction between the ATP and RNA binding pock
62                    However, the mechanism of energy transduction between the ATP- and RNA-binding poc
63 the bacterial TonB-box, which is involved in energy transduction between the inner and outer bacteria
64 ions during its catalytic cycle that mediate energy transduction between the phosphorylation and cati
65 the proton translocation channel in F(0) for energy transduction between the two subdomains.
66 offering a distinctive approach to realizing energy transduction beyond the conventional limitation i
67  involved in, among other things, signaling, energy transduction, biosynthesis, and the regulation of
68 one site in this region were found to affect energy transduction but did not appear to greatly alter
69  these results for the mechanism of the free energy transduction by the DnaB helicase is discussed.
70 iated with altered substrate utilization and energy transduction by the myocardium, predisposing to t
71 the important role of entropic mechanisms in energy transduction by this enzyme.
72 foundation for a future in-depth analysis of energy transduction by topoisomerase II, for guiding and
73 BCD system function did not require the TonB energy transduction complex.
74 opmental maturation, including mitochondrial energy transduction, contractile function, and ion trans
75 lyze ATP and bind actin (catalytic), conduct energy transduction (converter), and transport the load
76                         Biology has mastered energy transduction, converting energy between various f
77 d by cross-linking occurred at a step in the energy transduction cycle distinct from the coupling of
78 ic cluster can form in the first half of the energy transduction cycle, before release of conformatio
79 suggest a distinct role for ExbD in the TonB energy transduction cycle.
80 etween membranes, and, at some stages in the energy-transduction cycle, is associated with either the
81  conserved domain of ArsA and homologs is an energy transduction domain involved in transmission of t
82 ns of ATP binding and phosphorylation in the energy transduction domain, and a transport domain consi
83 ial genes involved in multiple mitochondrial energy-transduction/energy-production pathways, increase
84 TonB conformation also changes following the energy transduction event.
85   As a complement to the aforementioned, the energy transduction features of 1a*2 were combined with
86 d electron transfer (ET) is a cornerstone of energy transduction from light to chemistry.
87 eals unique non-equilibrium dynamic effects: energy transduction from the first cycloreversion substa
88 in macromolecules of different architecture, energy transduction from the polymer backbone to a porph
89              Rotary motors play key roles in energy transduction, from macroscale windmills to nanosc
90 n has three tonB genes encoding proteins for energy transduction functions needed for the active tran
91 OxPhos-DLBCLs display enhanced mitochondrial energy transduction, greater incorporation of nutrient-d
92           The metabolic systems that support energy transduction have been of great interest due to t
93 ysis cycle may be crucial to mechanochemical energy transduction in ABC transporters.
94 synthesis, drawing comparisons between solar energy transduction in biology and emerging solar-to-fue
95  reduction of O(2) to H(2)O is important for energy transduction in both synthetic and natural system
96 eter for the mechanism of the enzyme and for energy transduction in cells.
97 rovide a possible coupling mechanism for the energy transduction in complex I.
98 ide further experimental investigations into energy transduction in dynein.
99 r microelectronics, where they perform vital energy transduction in filters and power converters.
100                  Understanding the nature of energy transduction in life processes requires a quantit
101  central for understanding the principles of energy transduction in mammalian complex I.
102 cytochrome (cyt) bc(1) complex is central to energy transduction in many species.
103 eak the electron transport chain and inhibit energy transduction in mitochondria.
104 rochemical proton gradients are the basis of energy transduction in modern cells, and may have played
105 sembly nor for respiratory or photosynthetic energy transduction in R. capsulatus.
106 plays an important role in the regulation of energy transduction in response to changes in oxygen ava
107  genes and indicated that SrrAB may regulate energy transduction in response to changes in oxygen ava
108 ores and an exciting potential for effective energy transduction in tandem mechanochemical reactions.
109 genes involved in mitochondrial dynamics and energy transduction in the adult heart.
110 on, forming the rotor portion of the site of energy transduction in the flagellar motor.
111 ase, we have begun to dissect the process of energy transduction in the thermosome, a type II chapero
112 hese observations support a dynamic model of energy transduction in which TonB cycles through a set o
113 from the beginnings of modern bioenergetics, energy transduction, in 1961.
114 downstream targets included in mitochondrial energy transduction, including fatty acid oxidation.
115 smitted from TonB to the transporter and how energy transduction initiates transport.
116 r their multifunctional roles in metabolism, energy transduction, ion transport, inheritance, signali
117 sfunction is a central hallmark of aging and energy transduction is a promising target for longevity
118                             We conclude that energy transduction is coordinated by multiple distal si
119 ntial for fertilization, regulation of sperm energy transduction is poorly understood.
120 results indicated that the role of ExbB/D in energy transduction is to bring TonB that has reached th
121                  While ExbB is essential for energy transduction, its role is not well understood.
122               At the heart of photosynthetic energy transduction lie processes involving ultrafast en
123 xidase (CcO) are fundamental elements of the energy transduction machinery in biological systems.
124 ton motive force that supports the bacterial energy transduction machinery, while the PCET machinery
125 rial genome and drives the expression of the energy transduction machinery.
126 ing that it is an essential part of the core energy transduction machinery.
127 e and proton-pumping modules, decoupling the energy-transduction machinery.
128 otics(7,9,10), biomedical devices(11,12) and energy transduction materials(13), and for fundamental u
129                               Studies of its energy transduction mechanism are hindered by the extrem
130  in cases of strong non-equilibrium, a novel energy transduction mechanism arises at the metal/semico
131      It is postulated that an element of the energy transduction mechanism is the movement of protons
132                             This involves an energy transduction mechanism made possible by a complex
133 ic glutamate residue that is involved in the energy transduction mechanism of a viral DNA packaging m
134 rylated at His-219 is an intermediate in the energy transduction mechanism of NAPRTase.
135 rovides vital information for unraveling the energy transduction mechanism of prestin.
136  nitrogenase have broad implications for the energy transduction mechanism of related multiprotein co
137 mplex have broad implications for signal and energy transduction mechanisms in multiprotein complexes
138 and provide functional insight into archaeal energy transduction mechanisms.
139 ues whose roles in nucleotide hydrolysis and energy transduction might appear to be obvious from the
140 on to their well-known functions in cellular energy transduction, mitochondria play an important role
141 orce generating conformational change in the energy transduction of muscle.
142 al-65 or the area around it is important for energy transduction of the coupling site 1.
143  these results for the mechanism of the free energy transduction of the DnaB helicase is discussed.
144 nserved ATP-sensitive tryptophan (AST) is an energy transduction optical sensor signaling transductio
145                  These findings unveil a new energy transduction pathway in CL: emission driven by re
146 units, our analysis suggests a more extended energy transduction pathway in which ligand-induced beta
147      These findings illuminate an allosteric energy transduction pathway that connects sequence varia
148 entifies cleavage points that lie within the energy transduction pathway.
149  as a potential "communication hub" for this energy transduction pathway.
150  not involved with any previously considered energy transduction pathway.
151       Mitochondrial oxidative metabolism and energy transduction pathways are critical for skeletal a
152 The expression of genes involved in multiple energy transduction pathways is dynamically regulated in
153 combined with studies of F(1)) to a complete energy transduction picture of the F(0)F(1)-ATPase syste
154 onditions, may play an important role in the energy transduction process.
155    Here, we present some general features of energy transduction processes, including arguments that
156 ination of structures for proteins mediating energy transduction processes.
157  providing the basis for light-capturing and energy-transduction processes of photosynthesis.
158 sts that bidirectional motility is an active energy-transduction property of dynein-dynactin motor me
159 found upregulation of the genes encoding the energy transduction proteins F(1)F(o) ATP synthase and c
160 y to catalyze a stoichiometric and efficient energy transduction reaction.
161 lable, the mechanisms of Q(10) reduction and energy transduction remain controversial.
162 e factors that determine quinone function in energy transduction remain unclear.
163 ion serves a critical role as a platform for energy transduction, signaling, and cell death pathways
164 f the Q toward the membrane is coupled to an energy transduction step that could thermodynamically dr
165 ExbD proteins are part of the TonB-dependent energy transduction system and are encoded by the exb op
166 , auxiliary components of the TonB-dependent energy transduction system are broadly conserved in memb
167                           The TonB-dependent energy transduction system couples cytoplasmic membrane
168                           This high-capacity energy transduction system is the result of a remarkable
169  mutations of proteins in the TonB-dependent energy transduction system.
170 Escherichia coli requires the TonB-dependent energy transduction system.
171 or/cyanuric acid hydrogen bonding motif into energy transduction systems 1a*2 or 1b*2.
172 e as electron input units for membrane-based energy transduction systems of certain late evolving arc
173 es requiring a driving force must connect to energy-transduction systems in the inner membrane (IM).
174 components of respiratory and photosynthetic energy-transduction systems: the cytochrome bc(1) and b(
175 ographic coordinates and aided by a model of energy transduction that pivots at Gly699 to change prob
176       We present a novel method for magnetic energy transduction that utilizes ferromagnetic islands
177   Therefore, with regard to the mechanism of energy transduction, the transhydrogenase works accordin
178 re, and while they carry potential for rapid energy transduction, they are currently found only by se
179               Another was a recalibration of energy transduction through apparent reductions in mitoc
180  which are hypothesized to form the basis of energy transduction through direct contact with the tran
181 asmic domain of TonB and the TonB box allows energy transduction to occur from the cytoplasmic membra
182 finity transport of iron substrates requires energy transduction to specific outer membrane receptors
183 ient light absorption by GNPs and subsequent energy transduction to the polymeric chains can be used
184 ve arrangement of genes encoding enzymes for energy transduction, together with inferred cellular loc
185  applications including information storage, energy transduction, ultralow-power nanoelectronics(1,2)
186                                   Biological energy transduction underlies all physiological phenomen
187             We thus introduced the notion of energy transduction, via chemical reaction cycles, to a
188 In an effort to understand this mechanism of energy transduction, we have used pre-steady-state metho
189 sion of most genes involved in mitochondrial energy transduction were not significantly changed in th
190 rticle integrates the chemiosmotic theory of energy transduction with the methods of quantum statisti
191 sducer, appears to go through a cycle during energy transduction, with the absence of both ExbB and E

 
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