Experigraph

 "1000xRESIST" is a captivating sci-fi adventure game that has garnered significant attention and praise since its release. Developed by Sunset Visitor and published by Fellow Traveller, the game is set in a post-apocalyptic world where humanity is nearly extinct due to a disease spread by an alien invasion. Players assume the role of Watcher, a clone serving the ALLMOTHER, and uncover a shocking secret that changes everything. Story and Setting The narrative of "1000xRESIST" is rich and immersive, blending elements of psychological horror, time travel, and deep philosophical themes. The game explores concepts of memory, technology, and trauma, making it a thought-provoking experience. The story is told through a combination of cinematic sequences, dialogue, and exploration, creating a deeply engaging narrative that keeps players on the edge of their seats12. Gameplay Mechanics "1000xRESIST" is not just a visual novel; it incorporates various gameplay mech...

  Introduction: The Technological Revolution in Science The evolution of technology has dramatically reshaped scientific inquiry, offering new methods for exploration, analysis, and problem-solving. Where once scientific discovery was limited by the tools available to researchers, today, technology has revolutionized the speed, depth, and scope of scientific research. From artificial intelligence (AI) to high-performance computing and digital art, technology is not just aiding science—it's radicalizing it, opening up new possibilities for creativity, innovation, and interdisciplinary collaboration. This article explores how technology is transforming scientific research, enhancing creativity, and breaking down the boundaries between art and science. The Evolution of Technology and Its Influence on Scientific Inquiry The relationship between technology and science is deeply intertwined. Over the centuries, technological advances have propelled science forward, enabling new discoveri...

  Science can be intimidating. Whether it’s the abstract equations of physics or the complex biological processes that govern life, many scientific concepts can feel distant and inaccessible to the public. But what if there was a way to make these ideas more tangible, relatable, and easier to understand? What if art could bridge the gap between complex science and the general public? In recent years, the integration of art and science has proven to be a powerful tool for not just communicating scientific ideas, but for expanding the ways in which we think about and engage with the world. In this article, we explore how art plays a vital role in making science more accessible, engaging, and emotionally resonant. Through creative coding, digital art, and speculative design, art provides a new lens through which we can explore the wonders of the natural world and the mysteries of the universe. Art as a Visualization Tool for Science One of the primary ways that art helps us understand...

In a world that is rapidly changing—where new technologies, environmental crises, and societal challenges continuously shape our future—how we think about science, knowledge, and creativity must evolve. Enter radical science : a groundbreaking approach that blends scientific inquiry, artistic expression, and technological innovation to solve global problems in bold, interdisciplinary ways. But what exactly is radical science, and how does it differ from traditional science? This article explores the concept of radical science and why it’s becoming a crucial framework for understanding the complexities of our modern world. What is Radical Science At its core, radical science represents a departure from traditional scientific methods that typically segregate art, technology, and science into separate spheres. Radical science integrates these disciplines, encouraging collaboration between scientists, artists, engineers, and philosophers. It challenges the conventional belief that scientif...

Introduction In the 20th century, a major transformation took place in the way scientists model and understand complex systems: the rise of computational models. With the advent of computers, it became possible to simulate natural phenomena in ways that were previously unimaginable. These computational models have since become an integral part of modern scientific research, providing new insights into everything from climate change to molecular interactions. This article delves into the development and significance of computational models, examining their role in scientific discovery and their growing influence across various disciplines. The Beginnings of Computational Models The roots of computational modeling can be traced back to the early days of computers in the mid-20th century. The first computers, while large and cumbersome by today’s standards, had the ability to perform complex calculations far faster and more accurately than any human could. Scientists quickly recognized th...

Introduction Abstraction plays a critical role in scientific inquiry, helping scientists to model complex natural systems in a way that simplifies reality while still capturing essential features. In the context of scientific representations, abstraction refers to the process of distilling complex phenomena into more manageable forms, often using models, symbols, and mathematical expressions. These simplified representations allow scientists to focus on key aspects of a system, predict behaviors, and conduct experiments in a controlled, conceptual space. In this article, we explore how abstraction in scientific models enables a deeper understanding of the natural world and how it has evolved alongside scientific discovery. What is Abstraction in Science? Abstraction in science refers to the act of reducing the complexity of real-world systems to focus on specific aspects of interest. This reduction simplifies complex phenomena, making it easier to understand, manipulate, and predict th...

Introduction Scientific representation refers to the various ways scientists communicate and model the natural world. From the earliest sketches of celestial bodies to the advanced computational simulations used in today's research, the tools we use to represent natural phenomena have evolved considerably. This evolution has been driven by an increasing need for precision, abstraction, and the ability to model complex systems. This article traces the historical journey of scientific representations, from the concrete visualizations of early science to the abstract data-driven models used in modern research. Early Representations: Symbols and Visualizations In the early days of scientific inquiry, representations of the natural world were primarily visual and symbolic. These early models were often based on observations and were designed to make sense of the world in a more tangible way. For instance, ancient astronomers used geometric diagrams to depict the movements of celestial b...

 Pierre Simon Laplace's "A Philosophical Essay on Probabilities" is a foundational work that has undeniably influenced the development of statistical theory and its philosophical implications. However, despite its monumental contributions, the book is not without its flaws and limitations that warrant a more critical review. First and foremost, the text is dense, and its antiquated language and notation can present a significant barrier for contemporary readers. Laplace's style, while meticulous, tends to be dry and verbose, which may deter readers from fully engaging with his profound insights. Modern editions that offer annotations and translations are indispensable, yet they cannot entirely bridge the gap between Laplace's era and today's statistical understanding. Laplace's Principle of Insufficient Reason, although innovative, is critiqued for its potential misuse, as when it is applied without a proper understanding of the underlying assumptions and ...

Once upon a time, soul harvesting was simple. You’d grab your scythe, cloak yourself in death and set off to do what hard-working reapers have done for millennia—collect the elusive essence of humanity. It was a reliable system, deeply rooted in tradition. But these days? Well, the art seems to be slipping from our grasp, and we’ve got Dyson to blame. You see, I stumbled upon this revolutionary device: The new, bagless Dyson Soul Harvester. I was drawn to it by its sleek design and futuristic promises. There it stood, whispering seductively, as Dyson products often do, about efficiency and superior suction. Not a speck of soul would escape! And no bags! How did I ever live with bags before? This, I thought, could be my ticket to streamlining the harvest process. Gone are the days of manually gathering souls in cumbersome sacks or antiquated urns. Dyson assures me that the future lies in suction technology, using air multiplier engineering, powered by nothing less than the gaping abys...

 Interviewer (Experigraph): Welcome, Professor Ørsted. It's an honor to have you with us today. To start, could you tell our readers a bit about your background and what inspired you to pursue a career in science? Hans Christian Ørsted: Thank you for having me. I was born in Rudkøbing, Denmark, and from a young age, I was fascinated by the natural world. My father was a pharmacist, which exposed me to various chemicals and scientific instruments. This early exposure sparked my curiosity and led me to study pharmacy and later science at the University of Copenhagen. Interviewer: You are best known for your discovery of electromagnetism. Could you walk us through the moment of that discovery and what it meant for you? Hans Christian Ørsted: Certainly. It was during a lecture in April 1820 that I noticed something extraordinary. I had set up an experiment to demonstrate the heating of a wire by an electric current. By chance, a compass needle was nearby, and I observed that the needle...

 Bertolt Brecht, born Eugen Berthold Friedrich Brecht on February 10, 1898, in Augsburg, Germany, emerged from a middle-class family-his father was a paper company director and his mother the daughter of a civil servant. He began writing poetry as a youth, publishing his first poems in 1914. Brecht attended the Königliches Realgymnasium and gained a reputation as an enfant terrible. In 1917, he enrolled at the Ludwig Maximilian University of Munich to study medicine, but his studies were interrupted by service as a medical orderly during World War I. Early Career and Artistic Development After the war, Brecht attended Arthur Kutscher’s theater seminar in Munich, where his interest in drama deepened. He wrote his first play, Baal, in 1918, which was produced in 1923. His early works, including Drums in the Night (1922) and A Manual of Piety (1927), reflected a rebellious, antibourgeois attitude shaped by the disillusionment of postwar Germany. During this period, Brecht was influenc...

Knowledge maps itself to the environments we build, the context we live in creates the potential field for its symbols.  As technology evolves this range of what can be shifts, the apparatuses we construct to help decipher the world make up the laboratory of what we scientifically and conjecturally explore.  But how do different technologies vary in their influence?  Is a mariner's astrolabe as paradigm-altering as their star chart?  What of buildings, weapons, codices, slide rules? Let's focus on a couple of components.  First let's think of the interpretive range of a given thing.  While every object has some cultural meaning, we can see how say a weapon has a particular use and reading in mind, where a codex would have a whole range.  However glorious we make the inscriptions on Achilles' shield, its purpose is clearly to physically defend Achilles.  But the purpose of some writing on this event in Achilles' life, which may describe the buildin...

  Pascal's Wager is the opportunity for a mathematician turned theologian to justify their view of cosmic order in the mathematical ways they've come to know.  What's the pay off if you're right and what's the pay off if you're wrong.  If the pay off for being right far outweighs that for being wrong, should we out of principle take the wager? Ask Laplace and we have a different framing.  Now probability has replaced the divine role so the aspect of choice has been eliminated.  Probability no longer informs a bet on divine order, divine order is a subsidiary part of probability.  Laplace's famous demon is not an impossible gambit on an all-controlling deity as popularly assumed, but a thesis that cosmic order can be predicated by sheer mathematical analysis.  Pascal's world still contains Christian state law, but Laplace's does not.  How do we culturally bind people without such moral institutions? It turns out fairly easily.  We don't need t...

  From the Renaissance to the Enlightenment, Europeans are all about the geometric approach.  The approach from Euclid.  When Galileo says that the universe speaks in mathematics, he's thinking about geometry.  When Newton writes the Principia, he does so following a geometric method.  His fluxions, or calculus, would allow otherwise, but somehow it still seems proper to construct the concepts geometrically. Of course this is not really Euclid, but the European reimagining of Euclid.  And as algebras advance, so do new geometries.  Fast forward to the end of the 18th century.  Kant talks what we can know and what we can't.  A priori knowledge is innate, what we know before experience, what he also calls analytic.  Synthetic knowledge on the other hand comes from experience, what he calls a posteriori.  But mathematics and geometry are something different.  He calls them the synthetic a priori. Like a priori knowledge, math is c...

Early modern formalizations of what is retrospectively called scientific practice (then a natural philosophical one) centre around geometrical methods and their experimental power.  From Galileo to Descartes, Pascal, Newton and Leibniz, commitment to visual mathematical techniques are paramount in bringing to bear an effective accumulation of knowledge.  It is a literate rationalism, bodies in space that offer a protocol for mechanical reproduction.  Galileo's  language of the universe becomes a necessary part of knowledge gathering, of the experimental trials that he put its formal predictions to. Fast-forwarding from the anticipations of Leibniz to the work of Peirce, Carroll and Wittgenstein, geometric diagrams are infused with symbolic and algebraic universality that progresses with time.  The visual proof and model takes a formal role in the development of mathematical foundations; and reasoning, now in a more pragmatic vein, comprises what we ascribe to th...

I've come to believe that one of the key areas where open science can contribute to political issues is in the area of sensor technologies and open hardware.  It's also a relatively accessible area to begin to gain practical knowledge in democratized scientific practice.  That is, a great way to get introduced to the Open Science Network and what a group like this is about. This free workshop evening will be dedicated to learning a basic approach to creating your own sensors and the ideas that surround that.  We'll use the arduino technology to learn about the translation of real world analog information into computable digital formats.  We'll learn some code, a bit about hardware, and about the concepts that make this access possible. This workshop will also serve as a beginner's intro to arduino technology and how to use the system.  Absolute beginners totally welcome. Bring: 1. A Laptop 2. An Arduino 3. Your Party Face *Anyone is welcome, but to fully partici...

Glitch Ecologies unbecoming glitch:  glitch is about working outside of its own categories, generalizing itself - not becoming, but unbecoming;  moreover it can be unsightly, not simply in the sometimes true "transgressive" manner, which is a conceptual possibility that always stands as an ideal pillar of the movement, but for its folk-oriented dissemination - the complaint of the glitch hater is not solely its ugliness but the continual unenjoyable variations and repetitions it encourages - glitch art is ugly and its boring - or for the fan, it is unconcerned with adorned aesthetics (or interested in exploring unadorned ones) and it is interested in community art, socially-driven art and creating new dialogues within these spaces about given social issues. postscripts: ecology and glitch; failure of the environment; failure of bodies; Sask artist - taking the parameters of live video - performed video - video fed through audience interaction and out through content; like a s...

Simon Sellars has collated some Ballard Taylor quotes http://www.ballardian.com/rip-elizabeth-taylor-a-ballardian-primer some of the quotes + comments below "As Catherine Austin walked around the converted gymnasium these bizarre images, with their fusion of Eniwetok and Luna Park, Freud and Elizabeth Taylor, reminded her of the slides of exposed spinal levels in Travis’s office." - Ballard (elizabeth taylor as media spinal nerve - her absence is not so much an option of mourning the foreign as it is an evisceration of posthuman dependance - the eniwetok Marshall Island h-bomb site (technical tragedy) is paired with the Paris fun fair luna park (technical banality) - likewise freud (representational tragedy) is paired with taylor (representational banality) - the saturated technical stimuli where technique and representation collapse together, as do the tragic and banal) media death is no death at all - it is in fact a kind of catastrophist (re-evoking the pre-Darwinian evolu...

As part of this critical evaluation Goethe wrote a short epistolary novel in 1798 entitled Der Sammler und die Seinigen (The Collector and His Circle). The letters characterize different responses to art and contain a criticism of amateur art, especially the mixing of media, the tendency to naturalism, and subjectivism. There are defining characteristics of literary naturalism. One of these is pessimism. Very often, one or more characters will continue to repeat one line or phrase that tends to have a pessimistic connotation, sometimes emphasizing the inevitability of death. For example Bernard Bonnejean quotes this passage of Huysmans where the symbolism of death is visible, such an allegory, in a portrait of old woman: [...] une vieille bique de cinquante ans, une longue efflanquée qui bêlait à la lune, campée sur ses maigres tibias [...] crevant les draps de ses os en pointe[2 Paralipomeni della Batracomiomachia, 1835 satirical sequel by Giacomo Leopardi to Homer's Batrachomyoma...

corporocybernautics - a trajectory of clauses - the delicate relation of aesthetic opposites (sight-sense - then speech) Act 1 is the Department of War. Act 2 is the National Security Act of 1947 (1). Act 3 is the USA Patriot Act (2). Napolitano provides the Coles Notes theoretical summary of the work, relating its relevance to philosophy, society and you as an individual contributive to that society. The heroics are open-ended and pointed outward, the plot entirely paradoxical in the perspectivisms of safety. More cogently, as Napolitano's character puts it during the crux of the rising action (you see, with this, any attempt to delineate a clear, linear plot will undoubtedly fail): "Homeland security starts with hometown security, and each of us plays a critical role in keeping our country and communities safe" Or, in live form (http://www.dhs.gov/ynews/releases/pr_1291648380371.shtm and http://walmartstores.com/pressroom/news/10493.aspx): ...