Hit Books: How the integration of science and technology led to iPhones

Scientific research and technological advances have been around since the wheel was invented. Without research, we have no knowledge of technological advancement and, without technological advancement, we have no solid basis for further scientific research. In their new book, Genesis of Technoscientific Revolutions, Harvard University Professor of Technology and Public Policy, Venkatesh Narayanamurti, and Sandia National Laboratories Senior Scientist, Jeffrey Y. Tsao, explores the symbiotic relationship between the two concepts and how their coherence can be improved to better accelerate the 21st century. technical availability.

Taken from GENESIS OF TECHNOSCIENTIFIC REVOLUTIONS: CONSIDERATION OF CREATIVITY AND CONDITION OF REASON. by VENKATESH NARAYANAMURTI AND JEFFREY Y. TSAO, published by Harvard University Press. Copyright © 2021 by Harvard College President and Fellows. Used with permission. All rights reserved.

Network Is Hierarchical: Nesting of Questions and Answers

The way in which scientific knowledge and technology are established is based on the nests described in the last chapter, both scientific and ethical and technical applications and forms that achieve this.

In science, above the rules and facts – the obvious in the visual. These can be considered as questions: Why do some forms occur? Why would someone throw a ball and fall so fast when it fell from a distance? The descriptions of these raw materials come under the control of the rulers, and can be thought of as answers to these questions: The description of Galileo in the sixteenth century about the apparent distance of time was that the speed of falling balls increased with time. But this answer, or explanation, becomes another question: Why does the speed of falling balls increase over time? This question needs to be explained in depth, the deeper answer: Newton’s explanation was that gravity is strength, that gravity is strength, that equal force causes a person to be equally faster, and that the same speed increases speed. Scientific understanding is always incomplete, of course, so there is always a point that we do not have to explain in detail. This does not diminish the power of existing explanations: science seeks out the immediate reasons but does not insist on final arguments. The common theory of relativity explains Newton’s laws of gravity, though its origin has not yet been explained.

Technically, on top of leadership are the tasks that people want. These functions provide problems that are solved by the structure under them in leadership. Forms complete the task, but the forms provide new challenges that need to be solved in depth accordingly. From the problem-solving pronouns to the same name as the answers to the questions, we can say that the iPhone represents a technical question: How do we create an internet-connected mobile phone with an app display? The small solution came in the form of multi touch capacitive surfaces, opening the production area so that they could connect with several fingers at once. But the visibility of the existing multitouch site itself became a question: How do we create a visual interface for this display to appear? The multi touch transparent display provided the answer.

In other words, science and technology are all organized into two groups of questions and answers, and each question or answer has two “faces”. One face, pointing downwards in authority, represents the question answered below in leadership. The other face, pointing up in leadership, represents the answer to the question at the top of it in leadership. We emphasize that our answers to questions like “above” and answers like “below” are spontaneous – they do not mean their importance or significance but they simply mean that they are relevant to what is often used. In science, explanations are deeper and more “stable” than they describe, especially if they explain many other points. The unique connection is, in that sense, deeper than the stability of c because it answers the question of why c is constant; also answers the question of how much energy is released during nuclear disintegration and mixing. Technically, forms are deeper and “beginner” than the tasks they perform, especially if they are modified to complete many other tasks. The multimedia interface is more original than the iPhone because it not only helps to answer the question of how to make an iPhone, but also helps to answer the question of how to create a public display. Rubber is more basic than a bicycle tire because it not only helps to answer the question of how to make a tire tire, but also helps answer the question of how to make multi-colored tires.

Network Is Modular: Supporting Use and Research

Questions and answers that are closely related to science are made up of sections of what we would call scientific fields, which we can call modules of scientific knowledge. The technical problems that are closely linked to the answers are addressed in the design sections, which we will call the technical information modules.

Questions that are closely related to science are often answered within the scientific knowledge, or field of scientific knowledge, using a number of areas within a larger area. The question of certain electron transfer phenomena in a particular semiconductor system lies in the main field of semiconductor science but the answer may be necessary to understand the integration of all components of electron transport physics and subdomain of the science of synthesized structure. . Questionnaires linked to electron transport physics may require an understanding of the interdependence of subdomain electrons in a wide range of materials (usually, heterojunctions, nanostructures, composite nanostructures) as well as subdivisions of electrons and phones in the material. Interviews linked to the science of synthetic materials may be required to understand sub-components of substrates and epitaxy, thin films, or to form composite composites. In other words, we can think of the areas of scientific knowledge as forms of some kind, and think of its subdomains like submodules and submodules.

The most related technical problems, too, are usually solved by major technical components, or technical knowledge modules, perhaps combining several components within the main components. The iPhone is a component made up of many components, and each component is also shared in the same way. We can think of the iPhone’s “problem” as a part that is “solved” by its components – screens, screens, printed board, camera, and input / output ports. We can think of the “problem” of the printed board as a small part that is “solved” by small parts that include small electrical chips. On the other hand, the iPhone is one component that itself nest in the management of operations. The iPhone can be used as a solution to the problem of “running” the messaging app; a messaging program can be used as a solution to the problem of sending a large message to a group of friends; many text messages can be used as a way to solve the problem of preparing a group of friends for a demonstration in Times Square; and the protests in Times Square could be a solution to the problem of organizing a large group of people for other reasons.

One might ask: Why is scientific knowledge and technology so modular? It is stable because it is a complex evolutionary system – systems that are maintained and adapted to their environment and internal changes – and almost all complex evolutionary systems are modular (Simon, 1962). Complex change management systems use their areas and monitor their location to accommodate them. Modularity contributes to efficiency, using existing knowledge about the environment and environmental analysis to generate new knowledge.