Overall, the research on lattice structures has demonstrated that controlling the local deformation pattern and shear-banding damage mechanism is key to improving mechanical properties. By incorporating multiple crystal interfaces, dislocation-free nanocrystals, and various defect types, researchers have been able to enhance the specific strength and stiffness of lattice structures. The ability to control the evolution of local shear-bandings through the introduction of holes or changes in crystal interface has also significantly improved the platform stress and energy absorption efficiency of these structures. These findings provide a valuable foundation for designing new lattice structures with superior mechanical properties.
![/data # iw --debug dev wlan0 connect -w "lucky-5g" auth open key 0:1234567890
Usage: iw [options] dev connect [-w] [] [] [auth open|shared] [key 0:abcde d:1:6162636465] [mfp:req/opt/no]
Join the network with ...](https://linuxcpp.0voice.com/zb_users/upload/2023/05/202305162239148267954.png)
![驱动代码
void kalRxTaskletSchedule(struct GLUE_INFO *pr)
{
static unsigned int num = 0;
tasklet_hi_schedule(&pr->rRxTask[(num++)%NR_CPUS]);
// tasklet_hi_schedule(&pr->rRxTask);
DBGLOG(HAL, ERROR,](https://linuxcpp.0voice.com/zb_users/upload/2023/05/202305162226144313964.png)
