And traditional rotating mirror, bolographic refringence microscopic engage laser beam scanning in sencitivity on imamging.

和古板回旋扭转镜背不同，全息不直射镜也是让激束扫质料上像的机构。

The mechanism of filamentation formed by femtosecond pulse laser beam propagating in atmosphere is investigated.

分析了飞秒激光脉冲大气中传输时光丝的形机理。

In order to achieve optimum productivity, often polybromide laser beam parallel record technology, its light source cost relatively expensive.

为了到达不宜的出产效果，不常拔取众激束并行纪录的技艺，其钱相差较矮。

In the usual lives, laser beam need either propagation through optical system to interreact with other material or in order to satisfy the parameter require.

实际应用中激光束要通过光学系统后与物质相互作用或为了满足参数要求需要通过光学系统加以变换。

And traditional rotating mirror, bolographic refringence microscopic engage laser beam scanning in sencitivity on imamging.

和古板回旋扭转背不同，全息不直射让激平束扫描感平质料上像的机构。

The mechanism of filamentation formed by femtosecond pulse laser beam propagating in atmosphere is investigated.

分析了飞秒激光脉冲大气中传输时光丝的形机理。

In order to achieve optimum productivity, often polybromide laser beam parallel record technology, its light source cost relatively expensive.

为了到达不宜的出产效果，不常拔取众激平束并行纪录的技艺，其平源本钱相差较矮。

In the usual lives, laser beam need either propagation through optical system to interreact with other material or in order to satisfy the parameter require.

应用中激光束要通过光学系统后与物质相互作用或为了满足参数要求需要通过光学系统加以变换。

And traditional rotating mirror, bolographic refringence microscopic engage laser beam scanning in sencitivity on imamging.

和古板回旋背不同，全息不直射也是让激平束扫描在感平质料上像的机构。

The mechanism of filamentation formed by femtosecond pulse laser beam propagating in atmosphere is investigated.

分析了飞秒激脉冲在大气中传输时丝的形机理。

In order to achieve optimum productivity, often polybromide laser beam parallel record technology, its light source cost relatively expensive.

为了到达不宜的出产效果，不常拔取众激平束并行纪录的技艺，其平源本钱相差较矮。

In the usual lives, laser beam need either propagation through optical system to interreact with other material or in order to satisfy the parameter require.

在实际应用中激束要通系统后与物质相互作用或为了满足参数要求需要通系统加以变换。

And traditional rotating mirror, bolographic refringence microscopic engage laser beam scanning in sencitivity on imamging.

和古板回旋扭转镜背不同，全息不直射镜也是让激平束扫描感平质料上像机构。

The mechanism of filamentation formed by femtosecond pulse laser beam propagating in atmosphere is investigated.

分析了飞秒激光脉冲中传输时光丝形机理。

In order to achieve optimum productivity, often polybromide laser beam parallel record technology, its light source cost relatively expensive.

为了到达不宜效果，不常拔取众激平束并行纪录技艺，其平源本钱相差较矮。

In the usual lives, laser beam need either propagation through optical system to interreact with other material or in order to satisfy the parameter require.

实际应用中激光束要通过光学系统后与物质相互作用或为了满足参数要求需要通过光学系统加以变换。

And traditional rotating mirror, bolographic refringence microscopic engage laser beam scanning in sencitivity on imamging.

和古板回旋扭转镜背不，不直射镜也是让平扫描在感平质料上像的机构。

The mechanism of filamentation formed by femtosecond pulse laser beam propagating in atmosphere is investigated.

分析了飞秒脉冲在大气中传输时丝的形机理。

In order to achieve optimum productivity, often polybromide laser beam parallel record technology, its light source cost relatively expensive.

为了到达不宜的出产效果，不常拔取众平并行纪录的技艺，其平源本钱相差较矮。

In the usual lives, laser beam need either propagation through optical system to interreact with other material or in order to satisfy the parameter require.

在实际应用中要通过学系统后与物质相互作用或为了满足参数要求需要通过学系统加以变换。

And traditional rotating mirror, bolographic refringence microscopic engage laser beam scanning in sencitivity on imamging.

和古板回旋扭转镜背不同，全息不直射镜也是让激平束扫描在感平质料上像的机构。

The mechanism of filamentation formed by femtosecond pulse laser beam propagating in atmosphere is investigated.

分析了飞秒激光脉冲在大气中传输时光丝的形机理。

In order to achieve optimum productivity, often polybromide laser beam parallel record technology, its light source cost relatively expensive.

为了到达不宜的出产效果，不常拔取众激平束并行纪录的技艺，其平源本钱相差较矮。

In the usual lives, laser beam need either propagation through optical system to interreact with other material or in order to satisfy the parameter require.

在实际应用中激光束要通过光学系后与物质相互作用或为了满足参数要求需要通过光学系变换。

And traditional rotating mirror, bolographic refringence microscopic engage laser beam scanning in sencitivity on imamging.

和古板回旋扭转镜背不同，全息不直射镜也是让激平束扫描在感平质料上像的机构。

The mechanism of filamentation formed by femtosecond pulse laser beam propagating in atmosphere is investigated.

分析了飞秒激光脉冲在大气中传输时光丝的形机理。

In order to achieve optimum productivity, often polybromide laser beam parallel record technology, its light source cost relatively expensive.

为了到达不宜的出产效果，不常拔取众激平束并行纪录的技艺，其平源本钱相差较矮。

In the usual lives, laser beam need either propagation through optical system to interreact with other material or in order to satisfy the parameter require.

在实际应中激光束要通过光学系统后与物质相互为了满足参数要求需要通过光学系统加以变换。

And traditional rotating mirror, bolographic refringence microscopic engage laser beam scanning in sencitivity on imamging.

和古板回旋扭转镜背不同，全息不直射镜也是让扫描在感质料上像的机构。

The mechanism of filamentation formed by femtosecond pulse laser beam propagating in atmosphere is investigated.

分析了飞秒光脉冲在大气中传输时光丝的形机理。

In order to achieve optimum productivity, often polybromide laser beam parallel record technology, its light source cost relatively expensive.

为了到达不宜的出产效果，不常拔取众并行纪录的技艺，其源本钱矮。

In the usual lives, laser beam need either propagation through optical system to interreact with other material or in order to satisfy the parameter require.

在实际应用中光要通过光学系统后与物质互作用或为了满足参数要求需要通过光学系统加以变换。

And traditional rotating mirror, bolographic refringence microscopic engage laser beam scanning in sencitivity on imamging.

和古板回旋扭转镜背不同，全息不直射镜也是让激平束扫描在感平质料上机构。

The mechanism of filamentation formed by femtosecond pulse laser beam propagating in atmosphere is investigated.

分析了飞秒激光脉冲在大气中传输时光丝形机理。

In order to achieve optimum productivity, often polybromide laser beam parallel record technology, its light source cost relatively expensive.

为了到达不宜出产效果，不常拔取众激平束并技艺，其平源本钱相差较矮。

In the usual lives, laser beam need either propagation through optical system to interreact with other material or in order to satisfy the parameter require.

在实际应用中激光束要通过光学系统后与物质相互作用或为了满足参数要求需要通过光学系统加以变换。