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1 Controls on tree growth are key issues in plant physiology.
2 y has remained enigmatic, as has its role in plant physiology.
3 oron isotopes to investigate boron's role in plant physiology.
4 through plants, underpinning a wide range of plant physiology.
5 vironmental factors, organismal fitness, and plant physiology.
6 providing constraints on interpreting whole-plant physiology.
7 of the flow networks involved in animal and plant physiology.
8 and abiotic stress conditions by modulating plant physiology.
9 l properties of stomatal complexes and whole-plant physiology.
10 ignals, including pathogens, mutualists, and plant physiology.
11 presents a fundamental aspect of terrestrial plant physiology.
12 sphate that present special requirements for plant physiology.
13 rential concentration gradients and modulate plant physiology.
14 alkanes or aromatic structures, to regulate plant physiology.
15 cular plant specific transcription factor in plant physiology.
16 ed to generate new hypotheses in ecology and plant physiology.
17 orresponding effect on stomatal function and plant physiology.
18 ch conflicts with the understanding of basic plant physiology.
19 Phloem loading is a critical process in plant physiology.
20 he phytohormone auxin, a master regulator of plant physiology.
21 f this aberrant chondriome on cell and whole-plant physiology.
22 chlorophyll fluorescence are widely used in plant physiology.
23 ms by which SA regulates distinct aspects of plant physiology.
24 vastating effects of elevated temperature on plant physiology.
25 in regulation of 24-alkyl sterol-controlled plant physiology.
26 es the climate system through its effects on plant physiology.
27 ssential, TPPII appears not as important for plant physiology.
28 n plants underscores their essential role in plant physiology.
29 fundamental significance to both animal and plant physiology.
30 cadian clock exerts wide-spread control over plant physiology.
31 uch as cadmium, have a significant impact on plant physiology.
32 n, and signalling pathways, are ingrained in plant physiology.
33 ght the critical influence of heat stress on plant physiology across generational scales, showcasing
36 antioxidant molecules that are paramount for plant physiology and also important for human health.
38 n successful in representing many aspects of plant physiology and biophysics but struggles to capture
39 that respond to environmental conditions or plant physiology and cannot be obtained by other complem
40 et al. (2020) demonstrate the importance of plant physiology and chemistry towards a predictive fram
41 can be used to further our understanding of plant physiology and development (specifically fruit dev
42 has profound implications for understanding plant physiology and development and for defining new mo
43 e circadian clock is a critical regulator of plant physiology and development, controlling key agricu
53 ospheric CO2 has been shown to rapidly alter plant physiology and ecosystem productivity, but contemp
55 Plant root systems play a pivotal role in plant physiology and exhibit diverse phenotypic traits.
56 , light, and temperature, play a key role in plant physiology and growth, and have fluctuated substan
57 on the vegetation sub-models that represent plant physiology and hydrodynamics, and also on groundwa
60 sight into the possible roles of PGM/bPGM in plant physiology and in plant-pathogen interactions.
61 domain, was responsible for changes in host plant physiology and increased green peach aphid reprodu
62 Elevated soil salinity directly modifies plant physiology and indirectly alters the biotic intera
63 Our findings highlight the need to consider plant physiology and mixture effects in studying accumul
70 ps exist about the impact of root feeders on plant physiology and secondary chemistry and their impor
72 ight-activated kinases that are critical for plant physiology and the many diverse optogenetic tools
75 proach that combines root phenotyping, whole-plant physiology, and functional genomics to discover no
76 pectral sensing can detect slight changes in plant physiology, and may offer a faster and nondestruct
77 ic diffusion barriers greatly influences the plant physiology, and that their integrity is tightly su
79 dophytes and arbuscular mycorrhizal fungi on plant physiology at low temperatures, for example their
80 teraction with Arachis hypogaea changes host-plant physiology, biochemistry, and metabolomics, which
81 t genes are not only important for intrinsic plant physiology but also for the interactions with the
82 rance can strongly shape not only fungal and plant physiology, but also their ecology and evolution.
83 Increasing temperature has direct effects on plant physiology, but there are also indirect effects of
84 Some bacterial strains directly regulate plant physiology by mimicking synthesis of plant hormone
86 propose that SCR plays an important role in plant physiology by regulating protein localization and
87 wearable sensor for continuous monitoring of plant physiology by tracking both biochemical and biophy
88 an 170 problems on 17 topics in introductory plant physiology, cataloging them in a computer library
91 gy of oxidative stress from the clinical and plant physiology disciplines with the fast-increasing in
92 irect-phytovolatilization and we discuss the plant physiology driving phytovolatilization in differen
93 scientific breakthroughs must occur in basic plant physiology, ecophysiology, agroecology, and soil s
95 ants as a signaling molecule that fine-tunes plant physiology, environmental adaptation, and developm
97 d useful information in the comprehension of plant physiology for future applications in OQDS control
103 is of complex regulatory mechanisms in whole-plant physiology, immunity, growth and development.
104 ss relevant insights from phytopathology and plant physiology in the broader sense to identify opport
108 preliminary list published nine years ago in Plant Physiology is outdated, and genome-wide phenotype
111 rate (COM), which plays a functional role in plant physiology, is a source of chronic human disease,
112 ythm is a crucial factor in orchestration of plant physiology, keeping it in synchrony with the dayli
113 Penn State Intercollege Graduate Program in Plant Physiology (May 18-20, 2000), explored the machine
114 supplied with molybdate, and the effects on plant physiology, morphology, and biochemistry were anal
115 on of these ppGpp synthetases with regard to plant physiology, namely regulation of chloroplast gene
116 otoreception mechanism with implications for plant physiology, optogenetics, and biotechnological app
117 ution of circadian clocks that modulate most plant physiology, photosynthesis, metabolism, and develo
118 seemingly contradictory biological roles in plant physiology, providing both the rigid structural su
120 can be facilitated by coordinated efforts in plant physiology, remote sensing, and eddy covariance fl
121 of years of ant agriculture have remodelled plant physiology, shifting from ant-derived nutrients as
123 utrition, neurophysiology, environmental and plant physiology studies under dynamic physiological con
125 e of broad interest to research questions in plant physiology, systematics, paleoecology, and physics
126 tronic devices for monitoring and modulating plant physiology that can be used as tools in basic plan
127 lved in the general maintenance of a healthy plant physiology that facilitates a normal wound respons
129 are central to bioenergetic performance and plant physiology, this challenges both fundamental biolo
130 illator is an important regulator of much of plant physiology, though many of the mechanisms are uncl
132 the exact mechanism(s) by which it modulates plant physiology through the potentiation of host defens
133 omote their own transmission by manipulating plant physiology to attract aphids and increase aphid re
135 al to advancing fundamental understanding of plant physiology while enabling engineering efforts at b