Analog Computing, Bio hacking, Biological Computation, Biology, Biometrics, Brain, Cybernetics, DNA, Science

Mind-controlled transgene expression by a wireless-powered optogenetic designer cell implant

“Mammalian synthetic biology has significantly advanced the design of gene switches that are responsive to traceless cues such as light, gas and radio waves, complex gene circuits, including oscillators, cancer-killing gene classifiers and programmable biocomputers, as well as prosthetic gene networks that provide treatment strategies for gouty arthritis, diabetes and obesity. Akin to synthetic biology promoting prosthetic gene networks for the treatment of metabolic disorders, cybernetics advances the design of functional man–machine interfaces in which brain–computer interfaces (BCI) process brain waves to control electromechanical prostheses, such as bionic extremities and even wheel chairs. The advent of synthetic optogenetic devices that use power-controlled, light-adjustable therapeutic interventions18 will enable the merging of synthetic biology with cybernetics to allow brain waves to remotely control the transgene expression and cellular behaviour in a wireless manner.”


Bacteria, Bio hacking, Biological Computation, Biology, Biometrics, Code, DNA, Medicine, Music, Nature, Neural Networks, PDF, Radio, Science, Sound

Bacterial Radio

“There has been considerable interest in bacterial communities wherein a bacterium is connected to neighbor- ing bacteria by means of narrow nanowires. It is believed that the purpose of the nanowires is to allow for intercellular electronic communications. More advanced on the evolutionary scale are the more modern bacterial communities which are wireless. The electromagnetic signals sent from a bacterium to neighboring bacteria can be due to relatively low frequency electron level transitions within DNA.”


Animals, Biology, Biometrics, DNA, Economy, Education, Nature, Neural Networks, Science, Social intelligence, Society

Twittering bacteria: on bacteria… social intelligence

“New research suggests that microbial life can be even richer: highly social, intricately networked, and teeming with interactions [47]. Bassler [3] and other researchers have determined that bacteria communicate using molecules comparable to pheromones. By tapping into this cell-to-cell network, microbes are able to collectively track changes in their environment, conspire with their own species, build mutually beneficial alliances with other types of bacteria, gain advantages over competitors, and communicate with their hosts – the sort of collective strategizing typically ascribed to bees, ants, and people, not to bacteria. Eshel Ben-Jacob [6] indicate that bacteria have developed intricate communication capabilities (e.g. quorum-sensing, chemotactic signalling and plasmid exchange) to cooperatively self-organize into highly structured colonies with elevated environmental adaptability, proposing that they maintain linguistic communication. Meaning-based communication permits colonial identity, intentional behavior (e.g. pheromone-based courtship for mating), purposeful alteration of colony structure (e.g. formation of fruiting bodies), decision-making (e.g. to sporulate) and the recognition and identification of other colonies – features we might begin to associate with a bacterial social intelligence.”


Algorithm, Animals, Automata, Bio hacking, Biology, Biometrics, DNA, Man/Machine, Medicine, Nature, Neural Networks, PDF, phenomenology, Science

The Algorithmic Origins Of Life

“To avoid an infinite regress, in which the blueprint of a self-replicating UC contains the blueprint which contains the blueprint . . . ad infinitum, Von Neumann proposed that in the biological case the blueprint must play a dual role: it should contain instructions – an algorithm – to make a certain kind of machine (e.g. UC – Universal Constructor) but should also be blindly copied as a mere physical structure, without reference to the instructions its contains, and thus reference itself only indirectly. This dual hardware/software role mirrors precisely that played by DNA, where genes act both passively as physical structures to be copied, and are actively read-out as a source of algorithmic instructions. To implement this dualistic role, von Neumann appended a “supervisory unit” to his automata whose task is to supervise which of these two roles the blueprint must play at a given time, thereby ensuring that the blueprint is treated both as an algorithm to be read–out and as a structure to be copied, depending on the context. In this manner, the organization of a von Neumann automaton ensures that instructions remain logically differentiated from their physical representation. To be functional over successive generations, a complete self-replicating automaton must therefore consist of three components: a UC, an (instructional) blueprint, and a supervisory unit.”

Algorithm, Art, Bio hacking, DIY, DNA, Farming, Mathematics, Nature, Neural Networks, Robots, Science

Agricultural Printing/Altered Landscapes

“The project uses the idea of “Agricultural Printing” to explore the possibilities of digital fabrication carried over into farming. The experiment applies algorithms to partition and to create an environmentally beneficial structure into a standard biomass/energy production field. These additional areas establish, or improve, the connectivity for fauna and flora between habitats. This increased diversity also eases typical problems of monocultures e.g. less vermin → reduced usage of pesticides.”


Algorithm, Bio hacking, Biology, DNA, Ethics, Man/Machine, Medicine, Nature, Science, Society

Autodesk Builds Its Own Virus, as the Software Giant Develops Design Tools for Life Itself

“Of course, putting these tools into more people’s hands carries risks as well. While scientists see great potential to create novel medicines, vaccines and nanomaterials, bad actors could attempt to use them to create bio-weapons.”