beta-lactamase production
β-內醯胺酶產生
detecting beta-lactamase
檢測β-內醯胺酶
beta-lactamase activity
β-內醯胺酶活性
beta-lactamase gene
β-內醯胺酶基因
beta-lactamase inhibitors
β-內醯胺酶抑制劑
expresses beta-lactamase
表現β-內醯胺酶
beta-lactamase test
β-內醯胺酶測試
beta-lactamase mediated
β-內醯胺酶媒介
beta-lactamase presence
β-內醯胺酶存在
beta-lactamase resistant
β-內醯胺酶抗性
the bacteria produced beta-lactamase, rendering the antibiotic ineffective.
細菌產生β-內醯胺酶，使抗生素失效。
clinical labs routinely test for beta-lactamase production in staphylococcus aureus.
臨床實驗室常規檢測金黃色葡萄球菌是否產生β-內醯胺酶。
beta-lactamase inhibitors are often combined with penicillin to overcome resistance.
β-內醯胺酶抑制劑常與青黴素聯合使用以克服抗藥性。
the presence of beta-lactamase significantly impacts antibiotic selection.
β-內醯胺酶的存在會顯著影響抗生素的選擇。
rapid beta-lactamase detection is crucial for guiding antimicrobial therapy.
快速檢測β-內醯胺酶對於指導抗菌治療至關重要。
some bacteria exhibit high levels of beta-lactamase, leading to treatment failure.
某些細菌表現出高水平的β-內醯胺酶，導致治療失敗。
genetic mutations can result in increased beta-lactamase expression.
基因突變可能导致β-內醯胺酶表達增加。
the mechanism of beta-lactamase involves hydrolysis of the beta-lactam ring.
β-內醯胺酶的作用機制涉及β-內醯胺環的水解。
new beta-lactamase variants pose a challenge to antibiotic stewardship programs.
新的β-內醯胺酶變異體對抗生素管理計劃構成挑戰。
understanding beta-lactamase epidemiology is vital for infection control.
了解β-內醯胺酶的流行病學對於感染控制至關重要。
beta-lactamase enzymes are a major cause of antibiotic resistance worldwide.
β-內醯胺酶是全球抗生素耐藥性的主要原因。
beta-lactamase production
β-內醯胺酶產生
detecting beta-lactamase
檢測β-內醯胺酶
beta-lactamase activity
β-內醯胺酶活性
beta-lactamase gene
β-內醯胺酶基因
beta-lactamase inhibitors
β-內醯胺酶抑制劑
expresses beta-lactamase
表現β-內醯胺酶
beta-lactamase test
β-內醯胺酶測試
beta-lactamase mediated
β-內醯胺酶媒介
beta-lactamase presence
β-內醯胺酶存在
beta-lactamase resistant
β-內醯胺酶抗性
the bacteria produced beta-lactamase, rendering the antibiotic ineffective.
細菌產生β-內醯胺酶，使抗生素失效。
clinical labs routinely test for beta-lactamase production in staphylococcus aureus.
臨床實驗室常規檢測金黃色葡萄球菌是否產生β-內醯胺酶。
beta-lactamase inhibitors are often combined with penicillin to overcome resistance.
β-內醯胺酶抑制劑常與青黴素聯合使用以克服抗藥性。
the presence of beta-lactamase significantly impacts antibiotic selection.
β-內醯胺酶的存在會顯著影響抗生素的選擇。
rapid beta-lactamase detection is crucial for guiding antimicrobial therapy.
快速檢測β-內醯胺酶對於指導抗菌治療至關重要。
some bacteria exhibit high levels of beta-lactamase, leading to treatment failure.
某些細菌表現出高水平的β-內醯胺酶，導致治療失敗。
genetic mutations can result in increased beta-lactamase expression.
基因突變可能导致β-內醯胺酶表達增加。
the mechanism of beta-lactamase involves hydrolysis of the beta-lactam ring.
β-內醯胺酶的作用機制涉及β-內醯胺環的水解。
new beta-lactamase variants pose a challenge to antibiotic stewardship programs.
新的β-內醯胺酶變異體對抗生素管理計劃構成挑戰。
understanding beta-lactamase epidemiology is vital for infection control.
了解β-內醯胺酶的流行病學對於感染控制至關重要。
beta-lactamase enzymes are a major cause of antibiotic resistance worldwide.
β-內醯胺酶是全球抗生素耐藥性的主要原因。
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