Applying the theory of rheodynamics and hydraulic theory, a relationship of damping vs. vibration velocity, electric field strength and gas-filled pressure has been set up.

分析了阻尼力与振动速度、外加电场强度、充气压力等数学关系，为减振器设计参数提供了理论依据。

At highest field strengths, the core of the clot may have low signal on T2-weighted images, due to the presence of intracellular methemoglobin or of deoxyhemoglobin.

高场强时，血块中心在T2加权像上是低信号影，这是由于细胞内高铁血红蛋白或还原型血红蛋白存在产生。

Applying the theory of rheodynamics and hydraulic theory, a relationship of damping vs. vibration velocity, electric field strength and gas-filled pressure has been set up.

分析了阻尼力与振动速度、外加电强度、充气压力等的数学关，振器设计参数的优研究提供了理论依。

At highest field strengths, the core of the clot may have low signal on T2-weighted images, due to the presence of intracellular methemoglobin or of deoxyhemoglobin.

强时，血块的中心在T2加权像上是低信号影，这是由于细胞内的铁血红蛋白或还原型血红蛋白存在产生的。

Applying the theory of rheodynamics and hydraulic theory, a relationship of damping vs. vibration velocity, electric field strength and gas-filled pressure has been set up.

分析了阻尼与振动速度、外加电场强度、充气压数学关系，为减振器设计参数优研究提供了理论依据。

At highest field strengths, the core of the clot may have low signal on T2-weighted images, due to the presence of intracellular methemoglobin or of deoxyhemoglobin.

高场强时，血心在T2加权像上是低信号影，这是由于细胞内高铁血红蛋白或还原型血红蛋白存在产生。

Applying the theory of rheodynamics and hydraulic theory, a relationship of damping vs. vibration velocity, electric field strength and gas-filled pressure has been set up.

分析了阻尼力与振动速度、外加度、充气压力等的数学关系，为减振器设计参数的优研究提供了理论依据。

At highest field strengths, the core of the clot may have low signal on T2-weighted images, due to the presence of intracellular methemoglobin or of deoxyhemoglobin.

高时，血块的中心在T2加权低信号影，这由于细胞内的高铁血红蛋白或还原型血红蛋白存在产生的。

Applying the theory of rheodynamics and hydraulic theory, a relationship of damping vs. vibration velocity, electric field strength and gas-filled pressure has been set up.

分析了阻尼力与振动速度、外加电场强度、充气压力学关系，为减振器设计参优研究提供了理论依据。

At highest field strengths, the core of the clot may have low signal on T2-weighted images, due to the presence of intracellular methemoglobin or of deoxyhemoglobin.

高场强时，中心在T2加权像上是低信号影，这是由于细胞内高铁红蛋白或还原型红蛋白存在产生。

Applying the theory of rheodynamics and hydraulic theory, a relationship of damping vs. vibration velocity, electric field strength and gas-filled pressure has been set up.

分析了阻尼力与振动速、外加电场、充气压力等的数学关系，为减振器设计参数的优研究提供了理论依据。

At highest field strengths, the core of the clot may have low signal on T2-weighted images, due to the presence of intracellular methemoglobin or of deoxyhemoglobin.

高场时，血块的中心T2加权像上是低信号影，这是由于细胞内的高铁血红蛋白或还原型血红蛋白存的。

Applying the theory of rheodynamics and hydraulic theory, a relationship of damping vs. vibration velocity, electric field strength and gas-filled pressure has been set up.

阻尼力与振动速度、外加电场强度、充气压力等数学关系，为减振器设计参数优研究提供理论依据。

At highest field strengths, the core of the clot may have low signal on T2-weighted images, due to the presence of intracellular methemoglobin or of deoxyhemoglobin.

场强时，血块中心在T2加权像上是低信号影，这是由于细胞铁血红蛋白或还原型血红蛋白存在产生。

Applying the theory of rheodynamics and hydraulic theory, a relationship of damping vs. vibration velocity, electric field strength and gas-filled pressure has been set up.

分析了阻尼力与振动速度、外加电度、充气压力等的数学，减振器设计参数的优研究提供了理论依据。

At highest field strengths, the core of the clot may have low signal on T2-weighted images, due to the presence of intracellular methemoglobin or of deoxyhemoglobin.

时，血块的中心在T2加权像上是低信号影，这是由于细胞内的铁血红蛋白或还原型血红蛋白存在产生的。

Applying the theory of rheodynamics and hydraulic theory, a relationship of damping vs. vibration velocity, electric field strength and gas-filled pressure has been set up.

分析了阻尼力与振动速度、外加电场强度、充气压力等的数学关系，为减振器设计参数的优研究提供了理论依据。

At highest field strengths, the core of the clot may have low signal on T2-weighted images, due to the presence of intracellular methemoglobin or of deoxyhemoglobin.

高场强时，血块的中心在T2加权像上是低信号影，这是由于细胞内的高铁血红蛋白型血红蛋白存在产生的。