K. W. Wong

The creation processes of the homogenous 5D Space-Time Universe is analyzed by applying Temperature as the imaginary quantum component of time. Creation is then naturally divided into discrete steps in the cooling of Temperature. An automatic of breaking the creations into Temperature steps are deduced. With that the results in creation can be linked and understood via building an Artificial Intelligent computer to give us a tool to investigate different complicated results. And hopefully eventually leads to enhancing the mRNA method we can use to cure many yet incurable deceases.

Several important physical implications left out in The Five Dimension Space-Time Universe: A creation and grand unified field theory model. Book, are presented under rigorous mathematical theorems. It was found that Temperature, a classical variable, must be added as an imaginary component to time, under the Quantum uncertainty dt∙dE = h/2π, so that the Gell-Mann Quark model can be verified, with gauge invariance, to form hadrons at the Bethe Fusion Temperature. Accordingly from the corresponding uncertainty dp∙dr = h/2π. Pairs of Diagonal Long Range Ordered gravitons, with continuous frequency spectrum together with those represented by magnetic monopoles must be formed within the space r, of the homogenous 5D manifold, without the presents of photons, thus defines the 5D as a Black Hole. Then from which we can derive the classical Newtonian Law of attractive Gravity, as the 5D manifold is mapped by Perelmann Ricci-flow entropy mapping and the DLRO graviton pair symmetry is broken and converted into two masses, with motions satisfying Special Relativity in the doughnut shape Lorentz manifold, thus indirectly verifies the principle of Covariant Riemannian curvatures and General Relativity theory.

Trenton Merricks has objected to dualist conceptions of the Incarnation in a similar way to Jaegwon Kim’s pairing problem. On the original pairing problem, so argues Kim, we lack a pairing relationship between bodies and souls such that body A is causally paired with soul A and not soul B. Merricks, on the other hand, argues that whatever relations dualists propose that do pair bodies and souls together (e.g. causal relations) are relations that God the Son has with all bodies whatsoever via his divine attributes (e.g. God the Son could cause motion in any and all bodies via his omnipotence). So if we count these relations as sufficient for embodiment, then dualism implies that God the Son is embodied in all bodies whatsoever. I shall argue that while the original pairing problem might be easily answerable, the Christological pairing problem is not and that dualists must shift some of their focus from the defense of the soul’s existence to explicating the nature of the mind-body relationship.

In this essay, we demonstrate that the field of computer ethics shares many core similarities with two other areas of applied ethics, Academicians writing and teaching in the area of computer ethics, along with practitioners, must address ethical issues that are qualitatively similar in nature to those raised in medicine and business. In addition, as academic disciplines, these three fields also share some similar concerns. For example, all face the difficult challenge of maintaining a credible dialogue with diverse constituents such as academicians of various disciplines, professionals, policymakers, and the general public, Given these similarities, the fields of bioethics and business ethics can serve as useful models for the development of computer ethics.

Phasic activity of dopaminergic neurons in the ventral tegmental area or substantia nigra compacta has been suggested to encode reward-prediction error signal for reinforcement learning. Recent studies have shown that the lateral habenula neurons exhibit a similar response, but for nonrewarding or punishment signals. Hence, the transient signaling role of LHb neurons is opposite that of DA neurons and also that of several other brain nuclei such as the border region of the globus pallidus internal segment and the rostral medial tegmentum. Previous theoretical models have investigated the neural circuit mechanism underlying reward-based phasic activity of DA neurons, but the feasibility of a larger neural circuit model to account for the observed reward-based phasic activity in other brain nuclei such as the LHb has yet to be shown. Here, we propose a large-scale neural circuit model and show that parallel excitatory and inhibitory pathways underlie the learned neural responses across multiple brain regions. Specifically, the model can account for the phasic neural activity observed in the GPb, LHb, RMTg, and VTA/SNc. Based on sensitivity analysis, the model is found to be robust against changes in the overall neural connectivity strength. The model also predicts that striosomes play a key role in the phasic activity of VTA/SNc and LHb neurons by encoding previous and expected rewards. Taken together, our model identifies the important role of parallel neural circuit pathways in accounting for phasic activity across multiple brain areas during reward and punishment processing.