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1 ss holds substantive potential for improving agriculture.
2 o key adaptive traits of great importance in agriculture.
3 phos, figure prominently in human health and agriculture.
4 ly is causing significant economic losses to agriculture.
5 emical pesticides and mineral fertilisers in agriculture.
6 t agronomic trait in a major crop for global agriculture.
7 st has been recently converted to industrial agriculture.
8 anagement for sustainable intensification of agriculture.
9 implications for conservation, medicine, and agriculture.
10 compounds with significance to medicine and agriculture.
11 ophysical conditions are not well-suited for agriculture.
12 ource in temperate regions since the dawn of agriculture.
13 ange will be a net gain or loss for regional agriculture.
14 ate regions that support much of the world's agriculture.
15 apiculture, with attendant consequences for agriculture.
16 rgument that human ultrasociality began with agriculture.
17 es of climate change could be its effects on agriculture.
18 distributed in areas that may be impacted by agriculture.
19 he intimate link between malaria vectors and agriculture.
20 ential to the origin of industrial-scale ant agriculture.
21 , a commonly used benzimidazole fungicide in agriculture.
22 sing it for applications from biomedicine to agriculture.
23 severe in dense populations made possible by agriculture.
24 en an important constraint on the origins of agriculture.
25 d with an ability to persist in and colonise agriculture.
26 tions associated with high-yielding crops in agriculture.
27 ir full potential for broader application in agriculture.
28 fungal drug therapies in both the clinic and agriculture.
29 to safe and reasonable use of hexythiazox in agriculture.
30 se change on birds in Neotropical forest and agriculture.
31 future of a more sustainable next-generation agriculture.
32 oliar diseases can be problematic in organic agriculture.
33 plant biology and revolutionized commercial agriculture.
34 f microbiome-derived technologies applied to agriculture.
35 stly, we consider potential implications for agriculture.
36 gent social evolution of these taxa prior to agriculture.
37 ime goal for a more sustainable water use in agriculture.
38 act of nanotechnology on the environment and agriculture.
39 portant question for plant biology and world agriculture.
40 hieve yields similar to productive temperate agriculture.
41 fficiency (NUE) is essential for sustainable agriculture.
42 as been advocated towards a more sustainable agriculture.
43 es is a key area of research for sustainable agriculture.
44 Vs as potential threats to public health and agriculture.
45 ts is key to improving crops for sustainable agriculture.
46 scent and became a founder crop of Neolithic agriculture.
47 thresholds dropped 3.7-fold at sites with no agriculture.
48 ul environmental side effects of large-scale agriculture.
49 e more efficient use of mineral resources in agriculture.
50 a struggle for humankind since the advent of agriculture.
51 thick vadose zones and extensive historical agriculture.
52 in dynamics for applications in medicine and agriculture.
53 ipulate crops to develop improved plants for agriculture.
54 RF-VIIs, to enhance submergence tolerance in agriculture.
55 ing historical grasslands lost to high-yield agriculture.
56 ge of species important in early prehistoric agriculture.
57 es involved in the use of this technology in agriculture.
58 olocene anthropogenic habitat conversion for agriculture.
59 d through the presence of charcoal and maize agriculture.
60 ease, a major source of economic hardship to agriculture.
61 , human diseases, evolution, ecosystems, and agriculture.
62 and economic consequences on ecosystems and agriculture.
63 th important implications for the origins of agriculture.
64 ications from energy to drug delivery and to agriculture.
65 ield under drought is an urgent challenge in agriculture.
66 s North American ecosystems now dominated by agriculture.
75 driven by mining, dam and road construction, agriculture and cattle ranching have already affected ~2
81 United Nations (FAO), the Malawi Ministry of Agriculture and Food Security (MoAFS) and the National S
82 mining, electricity and gas, fisheries, and agriculture and forestry had the higher mortality risks
85 y to determine the sustainability of rainfed agriculture and help policymakers, resource managers, an
88 turbance, with slower accumulation following agriculture and in deciduous forests, and continued to a
90 mperature contrasts is largely controlled by agriculture and moisture availability from irrigation, b
92 Information about the global structure of agriculture and nutrient production and its diversity is
94 itigating their catastrophic impact on life, agriculture and property.Against the backdrop of a decli
95 tribute significantly to the global value of agriculture and rely on a complex microbial community fo
96 rassland mosaics interspersed with expanding agriculture and silviculture occur across many parts of
99 mate change is a real and imminent threat to agriculture and that there is a pressing need to develop
102 ce, however, could be resilient to low-yield agriculture and thus fare better under land sharing.
103 opogenic activities such as land-use change, agriculture and waste management have altered terrestria
104 mplicated by other NO3(-) sources, including agriculture and wastewater disposal, and by hydrogeologi
106 hate and essential metal ions, important for agriculture and with potential against human malnutritio
107 homogenize landscapes through deforestation, agriculture, and burning and thereby might reduce the ca
111 lation growth, decreasing water and land for agriculture, and increasing climate variability, crop yi
113 ATCC9027 strain, demonstrating potential in agriculture, and prophylactic applications in hospital a
115 multisector response (including the health, agriculture, and veterinary sectors), global coordinatio
116 ol and Prevention and the U.S. Department of Agriculture Animal and Plant Health Inspection Service,
117 nvironmental conditions that support rainfed agriculture are determined by climate, weather, and soil
118 Finally, forest-dependent species that avoid agriculture are most likely to experience decreases in h
123 anding of the development of highland Andean agriculture, as this crop is central to the autochthonou
124 entation of the potential intensification of agriculture based on expert elicitation from land manage
125 tries are utilizing reclaimed wastewater for agriculture because drought, rising temperatures, and ex
127 species richness in low- and medium-yielding agriculture being not much lower than that in natural ha
128 ited from natural soils at the conversion to agriculture (BIOG) and farming practices (FARM) were the
131 griculture needs more land than conventional agriculture but reduces N-surplus and pesticide use.
133 ciality would not have suddenly emerged with agriculture, but rather developed from pre-existing cogn
134 SMs) are extremely important in medicine and agriculture, but regulation of their biosynthesis is inc
137 We question the need to explain the onset of agriculture by appealing to the second type of multileve
138 nd variable climate can only be addressed in agriculture by improving both maximum crop yield potenti
139 ors will contribute to the 4th revolution in agriculture by incorporating innovative technologies int
140 breeding of legumes can enhance sustainable agriculture by reducing requirements for water and N.
141 tric cancer, the highest mortality rate was "agriculture" (by occupation) and "mining" (by industry).
142 ent practices (BMPs), including conservation agriculture (CA) and cropping system diversification, th
143 soil less (e.g. no-tillage and conservation agriculture [CA]) significantly increased earthworm abun
144 n humans and the social insects that adopted agriculture can provide fruitful insights into the evolu
146 While the use of nanopesticides in modern agriculture continues to increase, their effects on crop
148 an H5 virus, the United States Department of Agriculture coordinated several epidemiologic investigat
149 agriculture to analyze the role that organic agriculture could play in sustainable food systems.
150 and nonmarket damage across analyzed sectors-agriculture, crime, coastal storms, energy, human mortal
152 r no strong explanation for the expansion of agriculture despite its early detrimental effects except
153 This paper addresses water use impacts of agriculture, developing a spatially explicit approach tr
155 ly urban counties, based on US Department of Agriculture Economic Research Service Urban Influence Co
156 tion, but also increase adaptive capacity of agriculture ecosystems and gain much higher economic ben
157 le around the world who subsist on low-input agriculture, enabled by the symbiotic N2 -fixation these
158 reproducing populations has applications in agriculture, eradication of disease vectors, control of
160 American populations adopted intensive maize agriculture, facilitating population aggregation and the
162 tion fields such as pharmaceutical analysis, agriculture, food chemistry, environment, and industrial
163 redients, should have a number of effects on agriculture, food production, and strategies for improvi
166 val could lead to improvements to cereals in agriculture for the purposes of greater food security an
167 istrative and managerial positions, those in agriculture, forestry and fisheries, and those in profes
172 han any other tropical country, low-yielding agriculture has been replaced by intensive production.
175 riven substantially by phosphorus loads from agriculture, have led the United States and Canada to be
177 such as forest management and conversion to agriculture, human alteration of temperate forests is ac
186 ), adverse effects of climate change (CC) on agriculture in Malawi are expected to be significant.
187 cipitation is the primary water resource for agriculture in many Asian countries that have experience
193 th recent models that view the transition to agriculture in southwest Asia as a protracted and multir
194 dened our knowledge regarding the origins of agriculture in southwest Asia by highlighting the multir
196 pproximately 50% decreases in both irrigated agriculture in Syria and retention of winter rainfall in
197 we show that suitability to support rainfed agriculture in temperate dryland climates can be effecti
198 l increases in the area suitable for rainfed agriculture in temperate dryland regions, especially at
200 sulting in widespread land-cover change, but agriculture in the Amazon has been of low productivity a
202 ation has posed insurmountable challenges to agriculture in the provision of future food security, pa
204 s ENM releases to compartments (e.g., urban, agriculture) in a manner that reflects their different p
206 rojection of this model onto a world without agriculture indicated a global carbon debt due to agricu
207 elp policymakers, resource managers, and the agriculture industry anticipate shifts in areas suitable
213 ing evidence by proposing that the spread of agriculture involved a life history quality-quantity tra
216 health and quality of life, the adoption of agriculture is almost certainly explicable in terms of i
219 emperatures and where food availability from agriculture is high, creating favourable conditions for
223 insecure and rely significantly on rain-fed agriculture, it is critical to examine climate variabili
226 enemy biodiversity in intensive large-scale agriculture may facilitate the evolution of host resista
227 estions facing humanity today with regard to agriculture, medicine, biofuels, environmental decontami
232 re we show that a 100% conversion to organic agriculture needs more land than conventional agricultur
234 ulture indicated a global carbon debt due to agriculture of 133 Pg C for the top 2 m of soil, with th
236 , it has been suggested that reducing animal agriculture or consumption of animal-derived foods may r
238 alteration (urbanization, land clearing for agriculture) or a suite of ecological factors (climate,
239 recorded through centuries, and the Food and Agriculture Organization keeps a long-term, large-scale
240 uction estimates distributed by the Food and Agriculture Organization of the United Nations (FAO), th
241 pare relevant data published by the Food and Agriculture Organization of the United Nations [FAO Stat
242 es but can also cause considerable damage to agriculture, particularly damage to lucrative crops.
243 min grid level and per country due to global agriculture, pasture and forestry by combining high-reso
246 Thousands of years before the maize-based agriculture practiced by many Native American societies
250 as an important center of early Mesoamerican agriculture, providing by far the widest collection of a
255 scale deforestation, extensive and intensive agriculture, resource mining, livestock grazing and urba
256 notypes from the United States Department of Agriculture Rice Mini-Core Collection at an average dept
257 tity and quality of data in US Department of Agriculture's (USDA) food composition databases (FCDB) t
258 torical origins of human ultrasociality, and agriculture's aftereffects on large-scale social organiz
260 e updated ranking allows stakeholders in the agriculture sector and regulatory agencies to focus risk
262 cubic meter (BCM) and 96% of this is used in agriculture sectors with the contribution of direct gree
264 several fields like industrial, medicinal or agriculture; some of them have been also validated as a
265 -term, landscape-scale indirect effects from agriculture suggest its full ecological footprint may be
268 ersheds in a landscape representative of the agriculture that often dominates coastal nutrient inputs
269 bounds of +/-19.3%) for 2012 (last census of agriculture) that are comparable to the current USEPA es
270 bal human expansion, the Neolithic spread of agriculture, the era of island colonization, and the eme
275 f peat swamp exploitation via drainage-based agriculture through the adherence to best management pra
276 f plants has the potential to reshape global agriculture through the targeted engineering of endogeno
277 f rapid growth following the introduction of agriculture to a period of instability and collapse.
278 dresses agronomic characteristics of organic agriculture to analyze the role that organic agriculture
280 s in human prehistory, such as the spread of agriculture to Europe from Anatolia and the late Neolith
283 ction systems, the expansion of conservation agriculture, undesirable crop rotations, or increased de
284 ry genotypes cultivated at the Sher-e-Bangla Agriculture University horticulture farm in Dhaka (Bangl
285 Globally, a suite of disturbances (e.g., agriculture, urbanization, climate change) degrades habi
286 orporating diverse biotic factors, including agriculture, vegetation cover, and large carnivore richn
287 aize to the southwestern United States; full agriculture was established quickly in the lowland deser
289 d regressions found that Wisconsin River and Agriculture were correlated with genetic differentiation
291 use of one such pesticide, chlorpyrifos, in agriculture were recently stopped by the Environmental P
293 t 2-3% of the global water and land used for agriculture, which could feed about 30% of the malnouris
295 ested that land sparing-combining high-yield agriculture with the protection or restoration of natura
296 devastating damage to humans, livestock, and agriculture worldwide, primarily by transmitting pathoge
300 sment suggests that removing animals from US agriculture would reduce agricultural GHG emissions, but
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