Both lung volume at end-expiration and tidal volume are more homogeneously distributed in the prone position, suggesting a more homogeneous distribution of strain within lung parenchima.
Besides, lung inflation [ 39] and regional gas [ 40] are more evenly distributed than in the supine position, contributing to a more homogenous distribution of strain throughout lung parenchyma.
Preliminary descriptive results are presented, suggesting that anatomic structures influence the distribution of strain on loading.
This model calculates the non-uniform distribution of strain energy release rate (G) across the crack front.
The distribution of strain, temperature and effective stress has been simulated under different design and processing conditions.
Increasing the temperature in the range 50 100 °C gradually promotes homogeneous distribution of strain at the local scale.
The numerical simulation results include relationship between punch load and punch displacement, variation of the workpiece thickness, distribution of stress, distribution of strain, and limit forming ratio.
The design criteria on the operation are the forming load, defect-free geometrical filling of the dies and sound distribution of strain in the final product.
Finite element analysis was used to compare the distribution of strain on the bone grafts that were placed in flexible and conventional trays.
In the case of medium and high volume fractions of solid, the distribution of strain rate is calculated by using compression test data of semi-solid materials (SSMs).
The oblique nature of the collision provides a way to quantify the spatial and temporal distribution of strain from the deformation front to the back arc.
