Rodent models have allowed for the specification of biological mechanisms in parent and child effects, including neurobiological and genomic mechanisms, and of the causal role of environmental experience on outcomes for offspring through random assignment of offspring mother groupings.
Some of the most important design factors include consideration of the study's purpose; degree of experimental manipulation, controls, and replication; selection of an efficient yet unbiased sampling scheme; definition of the sample unit; calculation of sample size requirements; identification and removal of sources of bias; and clear specification of biological significance.
Recently there has been a growing interest in the application of Probabilistic Model Checking (PMC) for the formal specification of biological systems.
Using this new hybrid framework, the temporal specifications of a biological system can be obtained from incomplete experimental data.
A popular approach is to include ontology evaluation into the design and specification process of biological system rules [ 2- 4].
We present a human readable language (Eugene) which allows for both the specification of synthetic biological designs based on biological parts as well as providing a very expressive constraint system to drive the creation of composite devices from collection of parts.
We present a human readable language (Eugene) that allows for the specification of synthetic biological designs based on biological parts, as well as provides a very expressive constraint system to drive the automatic creation of composite Parts (Devices) from a collection of individual Parts.
While mathematical models have been applied to the investigation of Tregs dynamics by Vukmanovic-Stejic et al., 2006, these models were merely descriptive, and did not incorporate an explicit specification of the biological interactions between different cell populations.
MicroRNAs have been proposed as candidates for regulating many aspects of neural stem cell biology, based on the functions of microRNAs in the control of developmental timing and cell fate specification in a number of biological systems, including stem cells (for reviews, see [1], [2]).
The low electrical impedances associated with the uninsulated needles, however, limited the accurate range (based on manufacturer specifications) of the Solartron 1294 biological interface to between 10 and 100 kHz.
