CompSuppMathTexts.txt ex mnA05 ======== Computational support for mathematical writing ==== Introduction In the following considerations, after noting the growing need of making usable mathematical knowledge available for applications, proposals are made as to how it would be appropriate to adopt for a production of texts for the presentation of mathematical notions to support innovative developments. ==== A01 Mathematics is becoming increasingly important in today's society. There are more and more problems that raise serious concerns or high expectations in individuals and organizations that are judged to be sources of strong spin-offs and challenging and therefore such as to justify the employment of considerable resources and even specific tools. These problems are believed to be addressed by procedures and by quantitative and structural methods to be exercised on data that must be as objective, accurate and complete as possible. To solve or at least to contain one of these serious problems one must begin with the accurate modeling of the objects, the situations and the processes it involves, and with the definition of the objectives he intend to achieve. The models and data of the problem instances open the possibility of carry forward solution-oriented elaborations that may consist of numerical calculations, logical deductions, statistical predictions, simulations of behaviors, comparisons with previous experiences, and more. ==== A02 It should be noted that solutions to major problems now can be made available easily enough through digital documents comprising numerical tables, diagrams and algorithmic schemes that allow one to carefully check the appropriateness of the solutions found on new and similar real-world situations and processes. These tendentially critical reviews often lead to corrections, extensions and differentiations of the models and the procedures adopted and open the possibility of their further improvement. %new These possibilities for growth can be supported by further investigations and digital simulations held %? with relative ease by the previous activities. %new The improvements that can be achieved by the audits allow one to address further instances of the problems with greater expertise. One can thus delineate a cyclical progression characterized by the possibility of self-correction, which in general presents itself as a promising source of innovation, a promise confirmed in many cases. This way of proceeding characterized by its potential circularity can be considered a recent widespread manifestation of the scientific method. ==== A03 The possibility of success of these operational and cognitive circular procedures in these years is robustly supported by the growth substantially continuous growth of availability by of many innovative technologies of tangible tools with high characteristics in the various directions of accuracy, range, speed, and adaptability; contributions to this growth come in particular from advanced microscopy, quantum studies, electronic components, materials science and software engineering. In particular, to the awareness of the effectiveness of projects based on scientific-technological attitude can contribute to the conviction of the possible synergy among the different disciplines called to cooperate, and to this conviction can greatly contribute the ability to proceed unitedly on multiple fronts that mathematics has been able to demonstrate with its ability to alternate between unifying abstraction and analytical specialization accompanied by computational efficiency. ==== A04 At the level of documentation, teaching and popularization one must intervene with the production of texts of different genres: books, articles, Web pages, graphics and in perspective much more. ==== A05 Regarding the noticeable acceleration of scientific-technological progress found in recent years, two important factors must be acknowledged. The first already evidently established is due to the advances of telecommunications and especially to the growth of the global Web with its ability to collect and convey data and with its ability to circulate ideas and support collaborations of many kinds. The second, still at an early stage and with many ill-defined characters, is the recent advances in artificial intelligence (AI) which have almost suddenly become widely evident with the performance of generative systems (ChatGPT, Bard, Copilot, ...) and concretely verifiable in numerous specific applications. Note, for example, that all 2024 Nobel laureates in Physics, Chemistry, and Medicine have connections to AI. %? In biology and pharmacology, many researchers talk of a recent revolution induced by AI. Machine translation and various financial activities have been able to make clearly evident progress. Not inferior are the expectations in the industrial world. At this point we consider superfluous talking about military activities. ==== A06 The above two growth factors also contribute to the prospect of a relevant growth in the demands for mathematical contributions, particularly from several manufacturing and administrative sectors. Recent surveys estimate that in the coming years 40 percent of activities will require precise computer and STEM skills (hard sciences, technology, economics and mathematics) predicting that in many countries (including Italy) these will be severely lacking. ==== B01 The above considerations therefore point to an increase in the demands for mathematical achievements and skills. These may involve different levels and many specializations; in addition, the demands may also arise as urgencies, given the speed with which innovations in operational procedures and in the needs of society are occurring. %? It is also worth mentioning the close relations between mathematics and AI, also these with characteristics of symbiosis: mathematics provides algorithms and methods to AI and this promises to provide significant ideas for the resolution of entire mathematical problems. [citations] ==== B02 A large part of the demand for mathematics by applicative activities will also involve computer science, physics, engineering and even economics, disciplines that evidently play important roles in a number of applicative sectors. In particular, there will be a need to enhance the production of expositions of mathematical content at various levels and with different focuses on both mathematical and applicative topics. These are texts or documents that can either be dedicated exclusively to mathematical notions, or present limited contents (for example mathematical results that justify algorithms or methods) within texts aimed at specific applications. ==== B03 These documents can be placed either at the level of wide-ranging expositions in support of entire methodologies, or at the level of teaching aimed at operators with defined tasks, or at the level of updating methods required by applications with multifaceted computational needs. The mathematical concepts presented may be both general and specific, their tone may range from the elementary to the specialist in-depth, and the expositions may differ in dependence of the various requirements they presuppose. It may therefore be useful to think about the production on a relevant scale of documents with mathematical content aimed to a rather wide range of applications. ==== B04 It would be desirable if these documents could be systematically linked in some workable way to a body of notions that can be shared. This on the one hand would allow economies of scale, but on the other hand would pose the problem of consistency of extended sets of results. There is no question that these documents must have a digital version: only this allows for acceptable sharability by a thinkable group of authors and content managers; furthermore, only a digital version allows for distributions and updates easy and timely. Any demand for paper versions can be met without difficulty. === B05 Moreover, digital documents can naturally be provided with links with other documents in an imaginable library and links to other documents in the Web (now unavoidable citations). --- Even the prospect of often needing to amend these documents, to expand their scope, to adapt them to changes in technological, economic or administrative requires that we design and produce digital documents. With regard to adapting to technological changes, we point out that the availability of certain innovations makes it very convenient that they can be implemented rapidly by adapting simultaneously the technical environment and documentation concerning the new. It can also prove very important to have documents available updated in multiple languages, and this can be ensured by current automatic translators that can refer to lexicons with appropriately organized syntactic and semantic enrichments, possibly made aware of the needs of particular areas of applications. ==== C01 Any project for the systematic development of educational and popular scientific documents on mathematics (let us call them MatDD documents) must pose problems concerning languages and software products, problems no less than those posed by the editor/publisher of a series of paper-based texts. What languages to use to express formulas? What languages to use to present and possibly implement algorithms? What software systems to adopt to manage texts at different stages of editing and subsequent updates by multiple authors and coordinators, of subjectification, archiving and distribution? Of course, all these issues must take into account the strategies that an editorial organisation is willing and is able to adopt to carry out such a project publishing; moreover the context requires careful attention. Of course, in these few pages we can only point out the existence of these problems and advocate the examination of their many facets. ==== C02 %%%% At this point let me indicate some characteristics that documents-MatDD in my opinion should have. The overall imprint should be predominantly pragmatic: it must be about mathematical notions clearly linked to applications of relevance, both from the point of view of scientific consistency and from that of application utility. Mathematical developments must be presented with clear links with computational tools and mathematical-physical models and more generally with the mathematical-applicative models that make mathematical results concretely usable in realistic environments. It happens, however, that in many texts with limited destinations it is necessary to limit the requirements of generality and rigor of mathematics. This need must be considered together with the fact that in order to be easily readable, every mathematical exposition must use simplified terms (for example, not distinguishing between a structure such as a group and the set of its elements) and must resort to metaphors and intuitive images. ==== C03 These texts with acknowledged compromises on generality, on the completeness of demonstrations and with appeals to intuition must be linked to texts or quotations from texts that do not give up demonstrative completeness, generality and even abstraction. This coverage with ``rigorous mathematics'' demands it because of the rapidly change of the applications themselves with the frequent opportunity to devise more demanding solving procedures that require to re-observe more carefully the procedures to be improved and to analyze them according to viewpoints that may be more demanding and therefore more general and more pprofound. ==== C04 As for abstraction, a feature of mathematics often hostile to people pressed by the need to obtain concrete specific concrete results, it should be emphasized that the ability to move with mastery between abstract notions and their particularizations more substantial can be decisive for the possibility of rapid adjustments to the procedures themselves. In general, it should be emphasized that many abstractions have made it possible to to arrive at systems of solving procedures adaptable to wide variations of applications with considerable economies of thought; this also to the increasing availability of software tools with high adaptability qualities, also due to the high scalability of current hardware+software systems; furthermore, in this direction some developments in AI seem very promising. ==== C05 To return to the desirable features of MatDD documents. we simply add schematically the following requirements: Need for understandable and meaningful ones capable of clarifying general results. Opportunity to have available illustrative figures and animations. Availability of bibliographies and sitographies and reporting of documents devoted to overviews, synopses, and taxonomies on the areas of mathematics and applications concerning the groups of procedures for which the greatest need for adjustment is anticipated. Availability, alongside abbreviated and simplified developments, of documents containing more complete and rigorous discourses linkable to the previous ones with the greatest possible ease. Availability of indexes of terms, symbols and notations that allow one to move over a large set of documents, that is, to have a network organization of the document set. Links to the best mathematical resources accessible on the Web. ==== C06 We conclude by pointing out an attempt at a fairly extensive presentation of mathematical developments aimed at people interested not only episodically in the applications of mathematics. This is the exposition called MATeXp available on the Web pages of the undersigned. These pages, still under development, despite their obvious imcompletenesses, contain considerations that I hope will be of some utility when confronted with some recent development. === C07 In addition, MATeXp can be considered as an experience for researching of some ways in which texts of the kind desired above, having limited means. Instead, it should be recognized that in a longer-term perspective to the systematic production of MatDD texts will have to be applied tools of far greater scope and commitment, inparticular AI tools to be developed specifically.