Despite the perceptual inputs being identical to those during encoding, the recognition of both buildings and landscapes activated only unilateral right parahippocampal gyrus, while recognition of both human and animal faces activated unilateral right fusiform gyrus.
When we talked about it previously, we defined it in a variety of ways, one of which was the statement that if two inputs are identical up until some time, then the outputs must be identical up until the same time.
If I have two signals, x_1 t) and x_2 t), with their associated outputs, y_1 t) and y_2 t), then a system is said to be causal if and only if it has the property that if those two inputs are identical up until some time, then the outputs are identical up until the same time.
If we have an input that's 0 for t less than t_0, and the system can't anticipate whether that input is going to change from 0 or not, then the system must generate an output that's 0 up until that time, following the principle that if two inputs are identical up until some time, the outputs must be identical up until the same time.
The inputs are identical as in the previous algorithm, except the last one: Input 3: An array ({mathcal {E}} = [!0 Delta E_{2} Delta E_{3} ldots Delta E_{ M}] which elements Δ E k (1<k≤M) are energy overheads resulting from moving from a monolithic SPM to one with k banks (obviously, Δ E 1=0).
Second, around the same time point (starting at 700 ms), hippocampal firing was significantly stronger for AM+ than AM− trials (Fig. 2c), with all visual input being identical between these two trial types.
The transformation input is identical to the transformation output.
We assume this input is identical, but that the noise is independent.
It is not immediately evident why isochronous intervals would elicit higher responses and an increase in perceived duration as compared to anisochronous ones, given that the total magnitude of the sensory input is identical.
This method ensures that, for the same artificial body, the visual input is identical during body ownership conditions (i.e., synchronous touching) and control conditions (i.e., asynchronous touching).
