the hemisegments
这些半体节
adjacent hemisegments
相邻半体节
abdominal hemisegments
腹部半体节
embryonic hemisegments
胚胎半体节
paired hemisegments
成对半体节
developing hemisegments
发育中的半体节
body hemisegments
身体半体节
segmental hemisegments
节段半体节
neural hemisegments
神经半体节
insect hemisegments
昆虫半体节
the embryonic development of hemisegments is crucial for proper body patterning in insects.
胚胎期半体节的发育对昆虫的正常身体模式形成至关重要。
researchers have identified specific genes that regulate the formation of neural hemisegments.
研究人员已经确定了控制神经半体节形成的特定基因。
adjacent hemisegments must coordinate their development to ensure functional integration.
相邻的半体节必须协调它们的发育以确保功能整合。
the segmentation gene controls the number of hemisegments that form during embryogenesis.
分节基因控制胚胎发育期间形成的半体节数量。
mutations affecting hemisegments can lead to severe developmental abnormalities.
影响半体节的突变可能导致严重的发育异常。
each hemisegment contains a repeated set of structures and tissues.
每个半体节包含一组重复的结构和组织。
the evolution of bilateral symmetry is reflected in the paired arrangement of hemisegments.
两侧对称性的进化反映在半体节的成对排列中。
hemisegments are derived from the subdivision of larger embryonic segments.
半体节来源于较大胚胎节段的细分。
cellular boundaries between hemisegments are marked by specific molecular signals.
半体节之间的细胞边界由特定的分子信号标记。
the study of hemisegments provides insights into the evolutionary development of body plans.
对半体节的研究为了解身体计划的进化发育提供了见解。
proper alignment of hemisegments is essential for the formation of functional organs.
半体节的正确排列对于功能器官的形成至关重要。
the boundaries between hemisegments determine the segmentation pattern of the adult organism.
半体节之间的边界决定了成年生物的分节模式。
the hemisegments
这些半体节
adjacent hemisegments
相邻半体节
abdominal hemisegments
腹部半体节
embryonic hemisegments
胚胎半体节
paired hemisegments
成对半体节
developing hemisegments
发育中的半体节
body hemisegments
身体半体节
segmental hemisegments
节段半体节
neural hemisegments
神经半体节
insect hemisegments
昆虫半体节
the embryonic development of hemisegments is crucial for proper body patterning in insects.
胚胎期半体节的发育对昆虫的正常身体模式形成至关重要。
researchers have identified specific genes that regulate the formation of neural hemisegments.
研究人员已经确定了控制神经半体节形成的特定基因。
adjacent hemisegments must coordinate their development to ensure functional integration.
相邻的半体节必须协调它们的发育以确保功能整合。
the segmentation gene controls the number of hemisegments that form during embryogenesis.
分节基因控制胚胎发育期间形成的半体节数量。
mutations affecting hemisegments can lead to severe developmental abnormalities.
影响半体节的突变可能导致严重的发育异常。
each hemisegment contains a repeated set of structures and tissues.
每个半体节包含一组重复的结构和组织。
the evolution of bilateral symmetry is reflected in the paired arrangement of hemisegments.
两侧对称性的进化反映在半体节的成对排列中。
hemisegments are derived from the subdivision of larger embryonic segments.
半体节来源于较大胚胎节段的细分。
cellular boundaries between hemisegments are marked by specific molecular signals.
半体节之间的细胞边界由特定的分子信号标记。
the study of hemisegments provides insights into the evolutionary development of body plans.
对半体节的研究为了解身体计划的进化发育提供了见解。
proper alignment of hemisegments is essential for the formation of functional organs.
半体节的正确排列对于功能器官的形成至关重要。
the boundaries between hemisegments determine the segmentation pattern of the adult organism.
半体节之间的边界决定了成年生物的分节模式。
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