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A Sourcebook for the Worldwide Discovery of a Creative Organic Universe
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Genesis Vision
Learning Planet
Organic Universe
Earth Life Emerge
Genesis Future
Recent Additions

II. Earth Learn: A Planetary Prodigy Comes to Her/His Own Knowledge

1. EI: A Survey of Earthificial Deep Neural Network Learning

This is a new section posted in 2017 to survey and report this “artificial intelligence” or AI turn from a machine computation scheme to new understandings that biological brains as they fluidly form, think, perceive, and gain knowledge can provide a much better model. This revolution parallels and is informed by neuroscience findings of cerebral node/link modularity, net communities, rich hubs, multiplex dynamics of neuron/synapse topologies and emergent cognizance. A prime quality is their self-organized, critically poised, self-corrective, iterative education, and especially their achievement of pattern recognition, as we people do so well. “Deep” means several interactive network layers or phases are in effect, rather than just one level or “shallow” AI.

Another consequence is an increasing use of “artificial” neural net (ANN) techniques to handle vast data inputs from worldwide astronomic, quantum, chemical, genetic and any other research realms. They are also aid studies of life’s organismic physiologies and evolutionary course, along with social media, behavioral, traffic, populace, and economic activities. Bayesian methods of sequentially optimizing probabilities for good enough answers are often used in concert. These citations survey this growing collaborative advance, see e.g. Quantum Codes from Neural Networks (Bausch). They also bode well for another window on the discovery of a natural universality (section IV. B) as brains, genomes, quantum phenomena, creatures, societies, literary corpora, and all else become treatable by the one, same exemplary “-omics” code.

And in accord with our website premise that an emergent cumulative transition is underway to a sapient personsphere, we take license to dub this movement as an Earthificial Intelligence. If scientists and scholars are presently applying neural architectures and capabilities to advance their local and global projects, these endeavors could appear as the evidential guise of a bicameral noosphere. Rather than an invasive technical artifice and/or singularity which might take off by itself, this prodigious progeny could be appreciated as learning and educating on her/his own.

2020: As the intro describes, since 2015 a total revision from ineffective machine methods to a biological, human brain based approach has occurred. The advance was facilitated by concurrent neuroscience findings about the multiplex capacities of our cerebral faculties. It is then notable that “artificial” neural nets have found much analytic utility from quantum to galactic studies, which is another indication of nature’s common recurrence. As this AI frontier expands, it is under scrutiny over misuses and abuses, along with scientific, medical and social benefits. One might even broach an “Earthificial” intelligence going forward within a nascent planetary cognizance.

Aggarwal, Charu. Neural Networks and Deep Learning. International: Springer, 2018.

Bausch, Johannes and Felix Leditsky. Quantum Codes from Neural Networks. New Journal of Physics. 22/023005, 2020.

Carleo, Giuseppe, et al. Machine Learning and the Physical Sciences. arXiv:1903.10563.

Goodfellow, Ian, et al, eds. Deep Learning. Cambridge: MIT Press, 2016.

Hayasaki, Erika. Women vs. the Machine. Foreign Policy. Jan/Feb, 2017.

Mathuriya, Amrita, et al. CosmoFlow: Using Deep Learning to Learn the Universe at Scale. arXiv:1808.04728.

Schmidhuber, Jurgen. Deep Learning in Neural Networks: An Overview. Neural Networks. 61/2, 2015

Sejnowski, Terrence. The Deep Learning Revolution. Cambridge: MIT Press, 2018.

Can We Build a Brain?. www.pbs.org/video/nova-wonders-can-we-build-a-brain-j53aqg. This April 2018 NOVA Wonders program provides a brilliant introductory survey of these active frontiers of Artificial Intelligence and Deep Neural Network Learning. An extraordinary array of contributors such as Fei Fei Li, Christoph Koch, Rodney Brooks, DeepMind experts, to cite a few, and especially Rana El Kaliouby, reveal a grand project with immense promise for peoples and planet if it can be respectfully guided and carried forth.

Information-Theoretic Approaches in Deep Learning. www.mdpi.com/journal/entropy/special_issues/deep_learning. This page is an announcement about a special issue planned for the popular online MDPI Entropy site, which is open for manuscripts until December 2018. It is conceived and edited by Deniz Gencaga, a Antalya Bilim University, Turkey, professor of electrical engineering.

Deep Learning (DL) has revolutionized machine learning especially in the last decade. As a benefit of this unprecedented development, we are capable of working with very large Neural Networks (NNs), composed of multiple layers (Deep Neural Networks), in many applications, such as object recognition-detection, speech recognition and natural language processing. Although many Convolutive Neural Network (CNN) and Recurrent Neural Network (RNN) based algorithms have been proposed, a comprehensive theoretical understanding of DNNs remains to be a major research area. Recently, we have seen an increase in the number of approaches that are based on information-theoretic concepts, such as Mutual Information. In this Special Issue, we would like to collect papers focusing on both the theory and applications of information-theoretic approaches for Deep Learning. The application areas are diverse and some of them include object tracking/detection, speech recognition, natural language processing, neuroscience, bioinformatics, engineering, finance, astronomy, and Earth and space sciences.

Power and Limits of Artificial Intelligence. www.pas.va/content/accademia/en/publications/scriptavaria/artificial_intelligence. A site for the Proceedings of a Pontifical Academy of Sciences workshop held in late 2016 on this advance and concern. A premier array of neuroscience and computer scientists such as Stanislas Dehaene, Wolf Singer, Yann LeCun, Patricia Churchland, Demis Hassabis, and Elizabeth Spelke spoke, whose presentations both in video and text are available on this site. Search also Dehaene 2017 for a major paper in Science (358/486) as a follow up on his talk and this event.

Aggarwal, Charu. Neural Networks and Deep Learning. International: Springer, 2018. The IBM Watson Center senior research member provides a latest copious textbook for this active revolution. Ten chapters go from the AI machine advance to brain and behavior based methods, onto features such as training, regularization, linear/logistic regression, matrix factorization, along with neural Turing machines, Kohonen self-organizing maps, recurrent and convolutional nets.

Alexander, Victoria, et al. Living Systems are Smarter Bots: Slime Mold Semiosis versus AI Symbol Manipulation. Biosystems. August, 2021. Within generous biosemiotic literacies that perceive living nature as graced with an incarnate intelligence and narrative scriptome, ITMO University, Russia, Dactyl Foundation, NYC and Autonomous University of Barcelona scholars describe how simple microbial realms (in body, not mind) can express cognitive abilities far beyond lumpen machines.

Anshu, Anurag, et al. Sample-efficient Learning of Interacting Quantum Systems.. Nature Physics. 17/8, 2021. We cite this entry by UC Berkeley, IBM Watson Research, RIKEN Center, Tokyo, and MIT researchers as an example of how AI studies are becoming amenable even to this deepest, foundational realm. Once again a grand ecosmic endeavor seems to be its own internal self-description, so that maybe whomever sapiensphere is able to do this can begin a new intentional creation from here.

Learning the Hamiltonian that describes interactions in both condensed-matter physics and the verification of quantum technologies is an important task. Previously, the best methods for quantum Hamiltonian learning with able performance required measurements that scaled exponentially with the number of particles. Here we prove that only a polynomial number of local measurements on the thermal state of a quantum system are necessary for accurately learning its Hamiltonian. The framework we introduce provides a theoretical foundation for applying machine learning techniques to achieve a long-sought goal in quantum statistical learning. (Abstract excerpt)

Hamiltonian function, also called Hamiltonian, is a mathematical definition introduced in 1835 by Sir William Rowan Hamilton to express the rate of change the condition of a dynamic physical system, such as a set of moving particles.

Aragon-Calvo, MIguel. Classifying the Large Scale Structure of the Universe with Deep Neural Networks. arXiv:1804.00816. We cite this posting by a National Autonomous University of Mexico astronomer as an example of how such novel brain-based methods are being applied to even quantify these celestial reaches. By this work and many similar entries, might our Earthwise sapiensphere be perceived as collectively beginning to quantify the whole multiverse? Could it also allude a sense of an affine nature as a cerebral, connectome cosmos? See also, e.g., An Algorithm for the Rotation Count of Pulsars at 1802.0721.

Bahri, Yasaman, et al. Statistical Mechanics of Deep Learning. Annual Review of Condensed Matter Physics. 11/501, 2020. Google Brain and Stanford University researchers scope out ways to root neural-like networks as they come pervade and apply everywhere into an increasingly conducive physical phenomena. We add that an implication might be a nascent sense of a cerebral cosmos trying to achieve its self-witness and re-presentation via our globally capacious intellect.

The recent success of deep neural networks in machine learning raises deep questions about underlying theoretical principles. We methods of interactive physical analysis rooted in statistical mechanics which have begun to yield conceptual connections between deep learning and diverse physical and mathematical topics, including random landscapes, spin glasses, jamming, dynamical phase transitions, chaos, Riemannian geometry, random matrix theory, free probability, and nonequilibrium phases. (Abstract excerpt)

Baldi, Pierre. Deep Learning in Biomedical Data Science. Annual Review of Biomedical Data Science. Vol. 1, 2018. A UC Irvine, School of Information and Computer Sciences, Institute for Genomics and Bioinformatics, researcher introduces ways that artificial neural network advances can serve pattern finding and diagnostic needs across many realms of big biological and medical data analysis and synthesis.

Since the 1980s, deep learning and biomedical data have been coevolving and feeding each other. The breadth, complexity, and rapidly expanding size of biomedical data have stimulated the development of novel deep learning methods, and application of these methods to biomedical data have led to scientific discoveries and practical solutions. This overview provides technical and historical pointers to the field, and surveys current applications of deep learning to biomedical data organized around five subareas, roughly of increasing spatial scale: chemoinformatics, proteomics, genomics and transcriptomics, biomedical imaging, and health care. (Abstract)

Bausch, Johannes and Felix Leditsky. Quantum Codes from Neural Networks. New Journal of Physics. 22/023005, 2020. We cite this paper by Cambridge University and University of Colorado computational physicists as a gppd instance of how readily cerebral architectures can be effectively applied acrpss far-removed domains. These common transfers open another window upon a universal, iconic bipartite (node/link) and triune (whole brain, genome, etc.) nature.

We examine the usefulness of applying neural networks as a variational state ansatz (approach) for many-body quantum systems for quantum information-processing tasks. In the neural network state, the complex amplitude function of a quantum state is computed. The resulting multipartite entanglement structure can describe the unitary dynamics of physical systems of interest. Here we show that neural networks can efficiently represent quantum codes for information transmission. Our main points are: a) Neural networks yield quantum codes with high coherent information for two important quantum channels, b) For the depolarizing channel, they find the best repetition codes and, c) Neural networks cam represent a special type of quantum error-correcting codes. (Abstract excerpt)

Beer, Kerstin, et al. Efficient Learning for Deep Quantum Neural Networks. arXiv:1902.10445. Leibniz University Hannover physicists describe how readily our own analytic cerebral topologies can be adapted to and availed in this basic physical realm, especially for computational methods. Google the above institute to learn about the authors and how their Light and Matter at the Quantum Frontier project is auguring to begin a new natural creation (let there be light a second time).

Neural networks enjoy widespread success in both research and industry and, with the imminent advent of quantum technology, it is now a crucial challenge to design neural networks for fully quantum learning tasks. Here we propose the use of neurons as a building block for quantum feed-forward networks capable of universal computation. We describe the efficient training of these networks using fidelity as a cost function and provide both classical and efficient quantum implementations. Our method allows for fast optimisation with reduced memory requirements such that the number of qudits required scales with only the width. (Abstract edits)

In this paper we have introduced natural quantum generalisations of perceptrons and (deep) neural networks, and proposed an efficient quantum training algorithm. The resulting QML (Quantum Machine Learning) algorithm, when applied to our QNNs, they demonstrate remarkable capabilities, including, the ability to generalise, tolerance to noisy training data, and an absence of a barren plateau in the cost function landscape. (4)

Beny, Cedric. Deep Learning and the Renormalization Group. arXiv:1301.3124. We cite this instance by a physicist at Leibniz University, Hanover, in 2013, presently at Hanyang University, Seoul, to record how quantum information, the title theory, complex neural networks, computational methods, and more are converging in a fertile process of cross-correlation.

Renormalization group (RG) methods, which model the way in which the effective behavior of a system depends on the scale at which it is observed, are key to modern condensed-matter theory and particle physics. We compare the ideas behind the RG on the one hand and deep machine learning on the other, where depth and scale play a similar role. In order to illustrate this connection, we review a recent numerical method based on the RG - the multiscale entanglement renormalization ansatz (MERA) - and show how it can be converted into a learning algorithm based on a generative hierarchical Bayesian network model. Under the assumption - common in physics - that the distribution to be learned is fully characterized by local correlations, this algorithm involves only explicit evaluation of probabilities, hence doing away with sampling. (Abstract)

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