The resultant ionized bond can be cleaved by a hemi-heterolysis process, affording a cation and a neutral radical.

生成的离子化键能由半异的过程而开，提供一个正离子和一个中性的游离基。

Cytogenetic techniques as a measurement method of radiation biodosimetry were widely used and validated in evaluation of ionizing radiation biodosimetry, especially in acute radiation exposure.

细胞遗传学技术作为生物测定方法,已在生物算特别是急性照射算方面得到广泛应用和验证。

The devices have total ionizing dose (TID) capability of up to 300 Krad(Si), single event effect (SEE) immunity to 82 MeV, and are available in screened and commercial off- the-shelf (COTS) versions.

器件的总离子注入能力高达300千拉德（硅），抗单粒子效应为82兆电子伏特，同时有屏蔽型和商用现货型的产品。

The resultant ionized bond can be cleaved by a hemi-heterolysis process, affording a cation and a neutral radical.

生成子化键能由半异过程而开，提供一个正子和一个游基。

Cytogenetic techniques as a measurement method of radiation biodosimetry were widely used and validated in evaluation of ionizing radiation biodosimetry, especially in acute radiation exposure.

细胞遗传学技术作为生物剂量测定方法,已在生物剂量估算特别是急照剂量估算方面得到广泛应用和验证。

The devices have total ionizing dose (TID) capability of up to 300 Krad(Si), single event effect (SEE) immunity to 82 MeV, and are available in screened and commercial off- the-shelf (COTS) versions.

器件总子注入能力高达300千拉德（硅），抗单粒子效应为82兆电子伏特，同时有屏蔽型和商用现货型产品。

The resultant ionized bond can be cleaved by a hemi-heterolysis process, affording a cation and a neutral radical.

离子化键能由半异过程而开，提供离子和中性游离基。

Cytogenetic techniques as a measurement method of radiation biodosimetry were widely used and validated in evaluation of ionizing radiation biodosimetry, especially in acute radiation exposure.

细胞遗传学技术作为物剂量测定方法,已在物剂量估算特别是急性照射剂量估算方面得到广泛应用和验证。

The devices have total ionizing dose (TID) capability of up to 300 Krad(Si), single event effect (SEE) immunity to 82 MeV, and are available in screened and commercial off- the-shelf (COTS) versions.

器件总离子注入能力高达300千拉德（硅），抗单粒子效应为82兆电子伏特，同时有屏蔽型和商用现货型产品。

The resultant ionized bond can be cleaved by a hemi-heterolysis process, affording a cation and a neutral radical.

生成的离子化键能由半异的过程而开，提供一个正离子和一个中性的游离基。

Cytogenetic techniques as a measurement method of radiation biodosimetry were widely used and validated in evaluation of ionizing radiation biodosimetry, especially in acute radiation exposure.

细胞遗传学技术作为生物剂量测定方法,已在生物剂量估算特别是急性照射剂量估算方面得到广泛应用和。

The devices have total ionizing dose (TID) capability of up to 300 Krad(Si), single event effect (SEE) immunity to 82 MeV, and are available in screened and commercial off- the-shelf (COTS) versions.

件的总离子注入能力高达300千拉德（硅），抗单粒子效应为82兆电子伏特，同时有屏蔽型和商用现货型的产品。

The resultant ionized bond can be cleaved by a hemi-heterolysis process, affording a cation and a neutral radical.

生成离子化键能由半异过程而开，提供一个正离子和一个中性游离基。

Cytogenetic techniques as a measurement method of radiation biodosimetry were widely used and validated in evaluation of ionizing radiation biodosimetry, especially in acute radiation exposure.

细胞遗传学技术作为生物剂量测定方法,已在生物剂量估算特别是急性照射剂量估算方面得到广泛应用和验证。

The devices have total ionizing dose (TID) capability of up to 300 Krad(Si), single event effect (SEE) immunity to 82 MeV, and are available in screened and commercial off- the-shelf (COTS) versions.

件总离子注入能力高达300千拉德（硅），抗单粒子效应为82兆电子伏特，同时有屏蔽型和商用现货型产品。

The resultant ionized bond can be cleaved by a hemi-heterolysis process, affording a cation and a neutral radical.

生成的离子化键能由半异的过程而开，提供一个正离子和一个中性的游离基。

Cytogenetic techniques as a measurement method of radiation biodosimetry were widely used and validated in evaluation of ionizing radiation biodosimetry, especially in acute radiation exposure.

细胞遗传学技术作为生物测定方法,已在生物算特别是急性照射算方面得到广泛应用和验证。

The devices have total ionizing dose (TID) capability of up to 300 Krad(Si), single event effect (SEE) immunity to 82 MeV, and are available in screened and commercial off- the-shelf (COTS) versions.

器件的总离子注入能力高达300千拉德（硅），抗单粒子效应为82兆电子伏特，同时有屏蔽型和商用现货型的产品。

The resultant ionized bond can be cleaved by a hemi-heterolysis process, affording a cation and a neutral radical.

生成的化键能由半异的过程而开，提供一个正和一个中性的游基。

Cytogenetic techniques as a measurement method of radiation biodosimetry were widely used and validated in evaluation of ionizing radiation biodosimetry, especially in acute radiation exposure.

细胞遗传学技术作为生物剂量测定方法,已在生物剂量估算特别是急性照射剂量估算方面得到广泛应用和验证。

The devices have total ionizing dose (TID) capability of up to 300 Krad(Si), single event effect (SEE) immunity to 82 MeV, and are available in screened and commercial off- the-shelf (COTS) versions.

器件的注入能力高达300千拉德（硅），抗单粒效应为82兆伏特，同时有屏蔽型和商用现货型的产品。

The resultant ionized bond can be cleaved by a hemi-heterolysis process, affording a cation and a neutral radical.

离子化键能由半异过程而开，提供离子和中性游离基。

Cytogenetic techniques as a measurement method of radiation biodosimetry were widely used and validated in evaluation of ionizing radiation biodosimetry, especially in acute radiation exposure.

细胞遗传学技术作为物剂量测定方法,已在物剂量估算特别是急性照射剂量估算方面得到广泛应用和验证。

The devices have total ionizing dose (TID) capability of up to 300 Krad(Si), single event effect (SEE) immunity to 82 MeV, and are available in screened and commercial off- the-shelf (COTS) versions.

器件总离子注入能力高达300千拉德（硅），抗单粒子效应为82兆电子伏特，同时有屏蔽型和商用现货型产品。

The resultant ionized bond can be cleaved by a hemi-heterolysis process, affording a cation and a neutral radical.

生成的离子化键能由半异的过程而开，提供一个正离子和一个中性的游离基。

Cytogenetic techniques as a measurement method of radiation biodosimetry were widely used and validated in evaluation of ionizing radiation biodosimetry, especially in acute radiation exposure.

细胞遗传学技术作为生物剂量测定方法,已在生物剂量估算特别是急性照射剂量估算方广泛应用和验证。

The devices have total ionizing dose (TID) capability of up to 300 Krad(Si), single event effect (SEE) immunity to 82 MeV, and are available in screened and commercial off- the-shelf (COTS) versions.

器件的总离子注入能力高达300千拉德（硅），抗单粒子效应为82兆电子伏特，同时有屏蔽型和商用现货型的产品。