Cartilage is a tissue with only limited reparative capacities.
Bone is a tissue with a strong regenerative potential.
This allows manufacturers to select a tissue with the highest absorption and thus highest path losses.
The surface contacts formed by many actuators subsequently enables the formation of an enclosed boundary which is useful for the construction of a tissue with cutout-shape [16].
We report the present stage of development of our multiscale approach to the physics related to radiation damage caused by irradiation of a tissue with energetic ions.
Antigen removal can be accomplished by treating a tissue with solutions and/or physical processes that disrupt cells and solubilize, degrade, or mask antigens.
In principle, for a tissue with known optical properties, the inverse problem in CLT could be solved with the following steps: 1. calibration of the response of the imaging system to obtain the surface radiance; 2.
Since, cartilage is a tissue, with sparse population of cells entrapped within a dense extracellular matrix (ECM), therefore, delivery of cells to site of damaged cartilage using a carrier may improve its healing potential (Puppi and Chiellini 2010).
The proton density of the tissue relates to image generation, so tissue with higher proton densities will show up brighter and with more intensity than a tissue with lower density.
Cartilage is a tissue with limited repair capacity and also sparse population of cells entrapped within a dense extracellular matrix, therefore, delivery of the cells to site of damaged cartilage can improve its healing potential.
Certain cells in a tissue with potential to proliferate, like stem cells, are in competition with each other for nutrients, growth factors, survival factors, and spatial locations (Baker 2011; Fleenor et al. 2010), which together constitute their niche.
