100 Examples of sentences containing the common noun "phytotoxicity"

Definition

Phytotoxicity refers to the toxic effects that certain substances have on plants. This can include damage or adverse reactions caused by chemicals, environmental factors, or pathogens that hinder plant growth, development, or productivity.

Synonyms

• Plant toxicity
• Herbicidal effect
• Phytotoxic effect
• Plant harm

Antonyms

• Phytocompatibility
• Plant safety
• Plant health
• Non-toxic

Examples

1. The pesticide was found to phytotoxicity to the local flora.
2. Researchers are studying how different fertilizers can affect phytotoxicity in crops.
3. High levels of salinity can lead to increased phytotoxicity in sensitive plant species.
4. The team discovered that the new herbicide had potential phytotoxicity issues.
5. Phytotoxicity can severely limit agricultural productivity if not managed properly.
6. The soil contamination resulted in significant phytotoxicity across the field.
7. Understanding phytotoxicity is crucial for developing effective plant protection strategies.
8. The effects of phytotoxicity were evident in the stunted growth of the plants.
9. Certain heavy metals can cause phytotoxicity and impair photosynthesis.
10. The study aimed to assess the phytotoxicity of various organic compounds.
11. Phytotoxicity testing is essential before introducing new chemicals to the environment.
12. The phytotoxicity of the compound was evaluated using several plant species.
13. Farmers need to be aware of potential phytotoxicity when applying herbicides.
14. The laboratory results indicated a high level of phytotoxicity in the tested samples.
15. Phytotoxicity can vary significantly among different plant varieties.
16. The effects of drought stress can exacerbate phytotoxicity in certain plants.
17. Phytotoxicity may lead to reduced crop yields and economic losses.
18. The research highlighted the importance of measuring phytotoxicity in soil amendments.
19. Some plants have developed resistance to phytotoxicity from specific herbicides.
20. The phytotoxicity of the chemical was confirmed through multiple trials.
21. Phytotoxicity can affect not only the target plants but also surrounding vegetation.
22. The study focused on the phytotoxicity of pollutants in urban areas.
23. The herbicide's phytotoxicity was lower than initially anticipated.
24. A thorough understanding of phytotoxicity can aid in sustainable farming practices.
25. The phytotoxicity of the runoff was measured to assess environmental impact.
26. Excessive nitrogen levels can lead to phytotoxicity in crops.
27. The team conducted phytotoxicity assays to determine safe application rates.
28. Phytotoxicity can manifest as leaf burn, wilting, or stunted growth.
29. The experiment revealed significant phytotoxicity when combined with other chemicals.
30. Phytotoxicity assessment is crucial for environmental safety regulations.
31. The report outlined the phytotoxicity effects of invasive plant species.
32. Phytotoxicity levels can be influenced by soil pH and moisture content.
33. The discovery of phytotoxicity in the new formulation raised concerns.
34. Phytotoxicity can result in loss of biodiversity in agricultural ecosystems.
35. The researchers aimed to minimize phytotoxicity through careful formulation.
36. The analysis of phytotoxicity was conducted over several growth cycles.
37. Phytotoxicity can be mitigated through proper soil management techniques.
38. The data indicated a direct correlation between dosage and phytotoxicity.
39. The phytotoxicity of the extract was evaluated on multiple plant species.
40. Understanding the mechanisms behind phytotoxicity can lead to better crop protection.
41. The experiment was designed to test phytotoxicity in varying environmental conditions.
42. Phytotoxicity can be a significant factor in ecological restoration efforts.
43. The findings suggested that certain plants were more susceptible to phytotoxicity.
44. The phytotoxicity observed could have long-term effects on soil health.
45. The toxicity profile included an assessment of phytotoxicity alongside mammalian toxicity.
46. Phytotoxicity could limit the effectiveness of integrated pest management strategies.
47. The agricultural extension service provided guidelines to reduce phytotoxicity.
48. The study aimed to document the phytotoxicity of various native plants.
49. The phytotoxicity data contributed to the overall safety assessment of the product.
50. Phytotoxicity can be a major concern for organic farming practices.
51. The researchers hypothesized that phytotoxicity might be influenced by genetic factors.
52. The effects of phytotoxicity on plant physiology are complex and multifaceted.
53. Phytotoxicity can occur rapidly after the application of certain chemicals.
54. The team set out to characterize the phytotoxicity of a new bioherbicide.
55. The implications of phytotoxicity extend beyond individual plants to entire ecosystems.
56. The study's findings underscore the need for careful monitoring of phytotoxicity.
57. Phytotoxicity was assessed through controlled greenhouse experiments.
58. The results indicated a significant increase in phytotoxicity with higher concentrations.
59. Phytotoxicity can be exacerbated by environmental stressors like drought.
60. The research paper focused on the long-term consequences of phytotoxicity.
61. The team's goal was to identify potential sources of phytotoxicity in the environment.
62. The phytotoxicity of the chemical was confirmed through field trials.
63. Understanding phytotoxicity is vital for developing eco-friendly herbicides.
64. Phytotoxicity can lead to reduced photosynthetic efficiency in affected plants.
65. The assay results showed that the compound exhibited phytotoxicity at low doses.
66. Phytotoxicity testing is a critical step in the registration of new herbicides.
67. The discovery of phytotoxicity prompted further investigation into alternative substances.
68. The researchers noted that phytotoxicity could vary with plant maturity.
69. The study provided insights into the mechanisms of phytotoxicity.
70. A thorough assessment of phytotoxicity is necessary for product approval.
71. The phytotoxicity observed in the trial raised concerns among farmers.
72. Phytotoxicity can have cascading effects on the entire agroecosystem.
73. The findings highlighted the importance of monitoring phytotoxicity levels.
74. The phytotoxicity of the runoff was a major environmental concern.
75. Researchers are exploring ways to reduce phytotoxicity in agricultural practices.
76. The experiment demonstrated the phytotoxicity of certain industrial chemicals.
77. The study provided evidence of phytotoxicity in several crop species.
78. Phytotoxicity can lead to economic losses for farmers and producers.
79. The laboratory analysis focused on identifying sources of phytotoxicity.
80. The team aimed to understand the relationship between phytotoxicity and soil health.
81. Phytotoxicity can occur due to both natural and anthropogenic factors.
82. The research emphasized the need for better management of phytotoxicity.
83. The phytotoxicity of the compound was assessed through multiple assays.
84. Environmental regulations often require testing for potential phytotoxicity.
85. The study found a correlation between phytotoxicity and plant nutrient status.
86. The implications of phytotoxicity were discussed in the context of food safety.
87. Innovative approaches are being developed to mitigate phytotoxicity.
88. The findings on phytotoxicity were published in a peer-reviewed journal.
89. Phytotoxicity can lead to shifts in plant community composition.
90. The phytotoxicity of the new formulation was a key consideration for farmers.
91. The research highlighted the influence of climate change on phytotoxicity.
92. The team aimed to develop guidelines to minimize phytotoxicity risks.
93. Phytotoxicity is a critical factor in the assessment of agrochemicals.
94. The effects of phytotoxicity can vary widely depending on the species.
95. The study provided insights into the ecological implications of phytotoxicity.
96. Phytotoxicity can be a barrier to the adoption of certain agricultural practices.
97. The researchers developed a model to predict phytotoxicity outcomes.
98. Phytotoxicity can have significant implications for crop rotation strategies.
99. The findings on phytotoxicity will inform future regulatory decisions.
100. Understanding the factors influencing phytotoxicity is essential for sustainable agriculture.