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- 10:44, 9 July 2026 EVOLF (hist | edit) [705 bytes] Murray (talk | contribs) (Created page with "{{Consortium |Member countries=Netherlands |Member organizations=TU Delft (lead) + many other Dutch universities |Founded=2024-03-01 |Ended=2034-04-28 |URL=https://www.evolf.life/ }} The EVOLF consortium of 31 scientist leaders with over a 100 PhD students and postdocs is unique worldwide in its top quality and high diversity. The team combines an exceptional breadth of expertise, ranging from natural sciences and engineering to ethics and responsible innovation. With tw...")
- 10:40, 9 July 2026 Biotic (hist | edit) [572 bytes] Murray (talk | contribs) (Created page with "{{Consortium |Member countries=Any |Member organizations=N/A |Founded=2026-07-01 |URL=https://biotic.org }} Biotic is a public-benefit nonprofit research organization developing chemically and functionally defined synthetic cells. Biotic's mission is to responsibly enable and steward foundational advances in bioengineering. Our goal is to ensure that all people and the planet benefit from world‑leading biotechnologies soon enough to matter. We conduct and support publi...") originally created as "Consortium: Biotic"
- 09:43, 27 June 2026 Transport Subsystem (hist | edit) [6,328 bytes] Murray (talk | contribs) (Created page with "The transport subsystem of a synthetic cell is responsible for moving materials across the cell membrane — either passively or actively, and with varying degrees of selectivity. Transport is a prerequisite for nearly every other subsystem: the Metabolic Subsystem requires nutrient import and waste export, the Sensing Subsystem must detect external signals that may not cross the membrane unaided, and the Communications Subsystem relies on controlled molecula...")
- 09:39, 27 June 2026 Logic Subsystem (hist | edit) [6,022 bytes] Murray (talk | contribs) (Created page with "The logic subsystem of a synthetic cell is responsible for processing sensed information and deciding on appropriate actions. This includes both instantaneous input–output computations (combinational logic) and time-dependent behaviors that depend on the history of inputs (memory and state). In synthetic cells, both functions are implemented using the same underlying molecular machinery — chemical reaction networks (CRNs), transcription factors, and DNA-modifying enz...")
- 09:23, 27 June 2026 Developer cells (hist | edit) [6,600 bytes] Murray (talk | contribs) (Created page with "Developer cells are a specific class of synthetic cells designed to serve as modular, programmable platforms for engineering biology at scale. The term emphasizes their role as building blocks for more complex biological machines — analogous to the role of standard components in electronic or mechanical engineering — rather than as minimal models of life. == Definition == A developer cell is a non-living, genetically programmed biomolecular machine that incorpo...")
- 09:10, 27 June 2026 Assembly and 3D printing (hist | edit) [4,684 bytes] Murray (talk | contribs) (Created page with "Assembly refers to the processes by which synthetic cells are organized into functional, macroscale structures. While the Multi-cellular synthetic cells page addresses how individual synthetic cells coordinate their behavior, assembly addresses the complementary question of how large numbers of units are physically arranged into materials and machines. In engineered systems this role is played by manufacturing processes that impose spatial structure, connectivity, an...")
- 09:05, 27 June 2026 Multi-cellular synthetic cells (hist | edit) [4,702 bytes] Murray (talk | contribs) (Created page with "Multi-cellularity refers to the ability to assemble collections of synthetic cells that interact in structured and programmable ways. Rather than increasing the internal complexity of a single synthetic cell, multi-cellular approaches distribute functionality across many simpler units, enabling collective behaviors such as spatial sensing, redundancy, and division of labor. This mirrors one of the dominant scaling mechanisms in engineered systems, where modular component...") originally created as "Multi-cellular Synthetic Cells"
- 09:04, 27 June 2026 Adhesion Subsystem (hist | edit) [3,396 bytes] Murray (talk | contribs) (Created page with "The adhesion subsystem of a synthetic cell is responsible for attaching the cell to other synthetic cells or to surfaces in its environment. Adhesion defines the physical topology of a multi-cellular synthetic cell assembly — which cells are neighbors, what signals can be exchanged locally, and what mechanical forces are transmitted across cell boundaries. It is therefore a prerequisite for the coordinated multi-cellular behaviors described on the Multi-cellular Synt...")
- 08:57, 27 June 2026 Communications Subsystem (hist | edit) [8,567 bytes] Murray (talk | contribs) (Created page with "The communications subsystem of a synthetic cell is responsible for sending and receiving signals between synthetic cells or between a synthetic cell and its environment. Inter-cell communication plays a central role in enabling modular, distributed control architectures, allowing complex functionality to be decomposed into simpler subsystems interconnected through standardized interfaces. == Communication Paradigms == A broad body of work in living cells has establish...")
- 08:51, 27 June 2026 Mechanical Actuation Subsystem (hist | edit) [7,496 bytes] Murray (talk | contribs) (Created page with "The mechanical actuation subsystem of a synthetic cell is responsible for generating physical forces and shape changes that allow the cell to interact with its environment or carry out functions such as division, motility, or mechanical signaling. This page describes the molecular mechanisms demonstrated or proposed for mechanical actuation in synthetic cell contexts. == Actuation Mechanisms == For a biomolecular system, physical actuation can take several forms: movem...")
- 08:45, 27 June 2026 Sensing Subsystem (hist | edit) [6,613 bytes] Murray (talk | contribs) (Created page with "The sensing subsystem of a synthetic cell is responsible for detecting signals in the cell's environment and converting them into intracellular biochemical responses. This page describes the molecular mechanisms used for sensing, with emphasis on implementations that have been demonstrated in cell-free or synthetic cell contexts. == Sensing Mechanisms == A variety of signals can be detected within a cellular environment using different biomolecular mechanisms. The comm...") Tag: Visual edit: Switched
- 04:51, 27 June 2026 Scalability Challenges in Biological Engineering (hist | edit) [10,281 bytes] Murray (talk | contribs) (Created page with "Engineering biology has made remarkable progress over the past three decades, but scaling engineered biological systems to high complexity and long operational lifetimes remains difficult. Several interconnected challenges become more acute as the number of engineered components grows or as systems must operate for extended periods. These challenges apply in varying degrees to any approach to engineering biology; different platforms — including both living-cell and cel...")