MSD FATFS Users Guide
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Allgemeines Abkürzungsverzeichnis
Allgemeines Abkürzungsverzeichnis L. -
Javascript and the DOM
Javascript and the DOM 1 Introduzione alla programmazione web – Marco Ronchetti 2020 – Università di Trento The web architecture with smart browser The web programmer also writes Programs which run on the browser. Which language? Javascript! HTTP Get + params File System Smart browser Server httpd Cgi-bin Internet Query SQL Client process DB Data Evolution 3: execute code also on client! (How ?) Javascript and the DOM 1- Adding dynamic behaviour to HTML 3 Introduzione alla programmazione web – Marco Ronchetti 2020 – Università di Trento Example 1: onmouseover, onmouseout <!DOCTYPE html> <html> <head> <title>Dynamic behaviour</title> <meta charset="UTF-8"> <meta name="viewport" content="width=device-width, initial-scale=1.0"> </head> <body> <div onmouseover="this.style.color = 'red'" onmouseout="this.style.color = 'green'"> I can change my colour!</div> </body> </html> JAVASCRIPT The dynamic behaviour is on the client side! (The file can be loaded locally) <body> <div Example 2: onmouseover, onmouseout onmouseover="this.style.background='orange'; this.style.color = 'blue';" onmouseout=" this.innerText='and my text and position too!'; this.style.position='absolute'; this.style.left='100px’; this.style.top='150px'; this.style.borderStyle='ridge'; this.style.borderColor='blue'; this.style.fontSize='24pt';"> I can change my colour... </div> </body > JavaScript is event-based UiEvents: These event objects iherits the properties of the UiEvent: • The FocusEvent • The InputEvent • The KeyboardEvent • The MouseEvent • The TouchEvent • The WheelEvent See https://www.w3schools.com/jsref/obj_uievent.asp Test and Gym JAVASCRIPT HTML HEAD HTML BODY CSS https://www.jdoodle.com/html-css-javascript-online-editor/ Javascript and the DOM 2- Introduction to the language 8 Introduzione alla programmazione web – Marco Ronchetti 2020 – Università di Trento JavaScript History • JavaScript was born as Mocha, then “LiveScript” at the beginning of the 94’s. -
Active@ UNDELETE Documentation
Active @ UNDELETE Users Guide | Contents | 2 Contents Legal Statement.........................................................................................................5 Active@ UNDELETE Overview............................................................................. 6 Getting Started with Active@ UNDELETE.......................................................... 7 Active@ UNDELETE Views And Windows...................................................................................................... 7 Recovery Explorer View.......................................................................................................................... 8 Logical Drive Scan Result View..............................................................................................................9 Physical Device Scan View......................................................................................................................9 Search Results View...............................................................................................................................11 File Organizer view................................................................................................................................ 12 Application Log...................................................................................................................................... 13 Welcome View........................................................................................................................................14 Using -
Active @ UNDELETE Users Guide | TOC | 2
Active @ UNDELETE Users Guide | TOC | 2 Contents Legal Statement..................................................................................................4 Active@ UNDELETE Overview............................................................................. 5 Getting Started with Active@ UNDELETE........................................................... 6 Active@ UNDELETE Views And Windows......................................................................................6 Recovery Explorer View.................................................................................................... 7 Logical Drive Scan Result View.......................................................................................... 7 Physical Device Scan View................................................................................................ 8 Search Results View........................................................................................................10 Application Log...............................................................................................................11 Welcome View................................................................................................................11 Using Active@ UNDELETE Overview................................................................. 13 Recover deleted Files and Folders.............................................................................................. 14 Scan a Volume (Logical Drive) for deleted files..................................................................15 -
OSLC Architecture Management Specification 3.0 Project Specification Draft 01 17 September 2020
Standards Track Work Product OSLC Architecture Management Specification 3.0 Project Specification Draft 01 17 September 2020 This stage: https://docs.oasis-open-projects.org/oslc-op/am/v3.0/psd01/architecture-management-spec.html (Authoritative) https://docs.oasis-open-projects.org/oslc-op/am/v3.0/psd01/architecture-management-spec.pdf Previous stage: N/A Latest stage: https://docs.oasis-open-projects.org/oslc-op/am/v3.0/architecture-management-spec.html (Authoritative) https://docs.oasis-open-projects.org/oslc-op/am/v3.0/architecture-management-spec.pdf Latest version: https://open-services.net/spec/am/latest Latest editor's draft: https://open-services.net/spec/am/latest-draft Open Project: OASIS Open Services for Lifecycle Collaboration (OSLC) OP Project Chairs: Jim Amsden ([email protected]), IBM Andrii Berezovskyi ([email protected]), KTH Editor: Jim Amsden ([email protected]), IBM Additional components: This specification is one component of a Work Product that also includes: OSLC Architecture Management Version 3.0. Part 1: Specification (this document). architecture-management- spec.html OSLC Architecture Management Version 3.0. Part 2: Vocabulary. architecture-management-vocab.html OSLC Architecture Management Version 3.0. Part 3: Constraints. architecture-management-shapes.html OSLC Architecture Management Version 3.0. Machine Readable Vocabulary Terms. architecture-management- vocab.ttl OSLC Architecture Management Version 3.0. Machine Readable Constraints. architecture-management-shapes.ttl architecture-management-spec Copyright © OASIS Open 2020. All Rights Reserved. 17 September 2020 - Page 1 of 19 Standards Track Work Product Related work: This specification is related to: OSLC Architecture Management Specification Version 2.0. -
Towards the Second Edition of ISO 24707 Common Logic
Towards the Second Edition of ISO 24707 Common Logic Michael Gr¨uninger(with Tara Athan and Fabian Neuhaus) Miniseries on Ontologies, Rules, and Logic Programming for Reasoning and Applications January 9, 2014 Gr¨uninger ( Ontolog Forum) Common Logic (ISO 24707) January 9, 2014 1 / 20 What Is Common Logic? Common Logic (published as \ISO/IEC 24707:2007 | Information technology Common Logic : a framework for a family of logic-based languages") is a language based on first-order logic, but extending it in several ways that ease the formulation of complex ontologies that are definable in first-order logic. Gr¨uninger ( Ontolog Forum) Common Logic (ISO 24707) January 9, 2014 2 / 20 Semantics An interpretation I consists of a set URI , the universe of reference a set UDI , the universe of discourse, such that I UDI 6= ;; I UDI ⊆ URI ; a mapping intI : V ! URI ; ∗ a mapping relI from URI to subsets of UDI . Gr¨uninger ( Ontolog Forum) Common Logic (ISO 24707) January 9, 2014 3 / 20 How Is Common Logic Being Used? Open Ontology Repositories COLORE (Common Logic Ontology Repository) colore.oor.net stl.mie.utoronto.ca/colore/ontologies.html OntoHub www.ontohub.org https://github.com/ontohub/ontohub Gr¨uninger ( Ontolog Forum) Common Logic (ISO 24707) January 9, 2014 4 / 20 How Is Common Logic Being Used? Ontology-based Standards Process Specification Language (ISO 18629) Date-Time Vocabulary (OMG) Foundational UML (OMG) Semantic Web Services Framework (W3C) OntoIOp (ISO WD 17347) Gr¨uninger ( Ontolog Forum) Common Logic (ISO 24707) January 9, 2014 -
APL Literature Review
APL Literature Review Roy E. Lowrance February 22, 2009 Contents 1 Falkoff and Iverson-1968: APL1 3 2 IBM-1994: APL2 8 2.1 APL2 Highlights . 8 2.2 APL2 Primitive Functions . 12 2.3 APL2 Operators . 18 2.4 APL2 Concurrency Features . 19 3 Dyalog-2008: Dyalog APL 20 4 Iverson-1987: Iverson's Dictionary for APL 21 5 APL Implementations 21 5.1 Saal and Weiss-1975: Static Analysis of APL1 Programs . 21 5.2 Breed and Lathwell-1968: Implementation of the Original APLn360 25 5.3 Falkoff and Orth-1979: A BNF Grammar for APL1 . 26 5.4 Girardo and Rollin-1987: Parsing APL with Yacc . 27 5.5 Tavera and other-1987, 1998: IL . 27 5.6 Brown-1995: Rationale for APL2 Syntax . 29 5.7 Abrams-1970: An APL Machine . 30 5.8 Guibas and Wyatt-1978: Optimizing Interpretation . 31 5.9 Weiss and Saal-1981: APL Syntax Analysis . 32 5.10 Weigang-1985: STSC's APL Compiler . 33 5.11 Ching-1986: APL/370 Compiler . 33 5.12 Ching and other-1989: APL370 Prototype Compiler . 34 5.13 Driscoll and Orth-1986: Compile APL2 to FORTRAN . 35 5.14 Grelck-1999: Compile APL to Single Assignment C . 36 6 Imbed APL in Other Languages 36 6.1 Burchfield and Lipovaca-2002: APL Arrays in Java . 36 7 Extensions to APL 37 7.1 Brown and Others-2000: Object-Oriented APL . 37 1 8 APL on Parallel Computers 38 8.1 Willhoft-1991: Most APL2 Primitives Can Be Parallelized . 38 8.2 Bernecky-1993: APL Can Be Parallelized . -
IT Acronyms.Docx
List of computing and IT abbreviations /.—Slashdot 1GL—First-Generation Programming Language 1NF—First Normal Form 10B2—10BASE-2 10B5—10BASE-5 10B-F—10BASE-F 10B-FB—10BASE-FB 10B-FL—10BASE-FL 10B-FP—10BASE-FP 10B-T—10BASE-T 100B-FX—100BASE-FX 100B-T—100BASE-T 100B-TX—100BASE-TX 100BVG—100BASE-VG 286—Intel 80286 processor 2B1Q—2 Binary 1 Quaternary 2GL—Second-Generation Programming Language 2NF—Second Normal Form 3GL—Third-Generation Programming Language 3NF—Third Normal Form 386—Intel 80386 processor 1 486—Intel 80486 processor 4B5BLF—4 Byte 5 Byte Local Fiber 4GL—Fourth-Generation Programming Language 4NF—Fourth Normal Form 5GL—Fifth-Generation Programming Language 5NF—Fifth Normal Form 6NF—Sixth Normal Form 8B10BLF—8 Byte 10 Byte Local Fiber A AAT—Average Access Time AA—Anti-Aliasing AAA—Authentication Authorization, Accounting AABB—Axis Aligned Bounding Box AAC—Advanced Audio Coding AAL—ATM Adaptation Layer AALC—ATM Adaptation Layer Connection AARP—AppleTalk Address Resolution Protocol ABCL—Actor-Based Concurrent Language ABI—Application Binary Interface ABM—Asynchronous Balanced Mode ABR—Area Border Router ABR—Auto Baud-Rate detection ABR—Available Bitrate 2 ABR—Average Bitrate AC—Acoustic Coupler AC—Alternating Current ACD—Automatic Call Distributor ACE—Advanced Computing Environment ACF NCP—Advanced Communications Function—Network Control Program ACID—Atomicity Consistency Isolation Durability ACK—ACKnowledgement ACK—Amsterdam Compiler Kit ACL—Access Control List ACL—Active Current -
Commonly Used Acronyms
Commonly Used Acronyms A Amperes AC Alternating Current CLA Carry Look-ahead Adder A/D Analog to Digital CMOS Complementary Metal-Oxide Semicon- ADC Analog to Digital Converter ductor AE Applications Engineer CP/M Control Program / Monitor AI Artificial Intelligence CPI Clocks Per Instruction ALU Arithmetic-Logic Unit CPLD Complex Programmable Logic Device AM Amplitude Modulation CPU Central Processing Unit AMD Advanced Micro Devices, Inc. CR Carriage Return ANSI American National Standards Institute CRC Cyclic Redundancy Code ARQ Automatic Retransmission reQuest CRQ Command Response Queue ASCII American Standard Code for Information CRT Cathode Ray Tube Interchange CS Chip Select / Check-Sum ASEE American Society for Engineering Educa- CSMA Carrier Sense Multiple-Access tion CSMA/CD Carrier Sense Multiple-Access with Colli- ASIC Application Specific Integrated Circuit sion Detect ASPI Advanced SCSI Programming Interface CSR Command Status Register ATDM Asynchronous Time Division Multiplexing CTS Clear To Send ATM Asynchronous Transfer Mode AUI Attached Unit Interface D Dissipation Factor D/A Digital to Analog B Magnetic Flux DAC Digital to Analog Converter BBS Bulletin Board System DAT Digital Audio Tape BCC Block Check Character dB (DB) deciBels BCD Binary Coded Decimal dBm dB referenced to 1 milliWatt BiCMOS Bipolar Complementary Metal-Oxide Semi- DC Direct Current conductor DCD Data Carrier Detect BIOS Basic Input / Output System DCE Data Circuit (Channel) Equipment BNC Bayonet Nut(?) Connector DD Double Density BPS/bps Bytes/bits -
File Systems
File Systems Tanenbaum Chapter 4 Silberschatz Chapters 10, 11, 12 1 File Systems Essential requirements for long-term information storage: • It must be possible to store a very large amount of information. • The information must survive the termination of the process using it. • Multiple processes must be able to access the information concurrently. 2 File Structure • None: – File can be a sequence of words or bytes • Simple record structure: – Lines – Fixed Length – Variable Length • Complex Structure: – Formatted documents – Relocatable load files • Who decides? 3 File Systems Think of a disk as a linear sequence of fixed-size blocks and supporting reading and writing of blocks. Questions that quickly arise: • How do you find information? • How do you keep one user from reading another’s data? • How do you know which blocks are free? 4 File Naming Figure 4-1. Some typical file extensions. 5 File Access Methods • Sequential Access – Based on a magnetic tape model – read next, write next – reset • Direct Access – Based on fixed length logical records – read n, write n – position to n – relative or absolute block numbers 6 File Structure Figure 4-2. Three kinds of files. (a) Byte sequence. (b) Record sequence. (c) Tree. 7 File Types • Regular Files: – ASCII files or binary files – ASCII consists of lines of text; can be displayed and printed – Binary, have some internal structure known to programs that use them • Directory – Files to keep track of files • Character special files (a character device file) – Related to I/O and model serial I/O devices • Block special files (a block device file) – Mainly to model disks File Types Figure 4-3. -
File Systems: Semantics & Structure What Is a File
5/15/2017 File Systems: Semantics & Structure What is a File 11A. File Semantics • a file is a named collection of information 11B. Namespace Semantics • primary roles of file system: 11C. File Representation – to store and retrieve data – to manage the media/space where data is stored 11D. Free Space Representation • typical operations: 11E. Namespace Representation – where is the first block of this file 11L. Disk Partitioning – where is the next block of this file 11F. File System Integration – where is block 35 of this file – allocate a new block to the end of this file – free all blocks associated with this file File Systems Semantics and Structure 1 File Systems Semantics and Structure 2 Data and Metadata Sequential Byte Stream Access • File systems deal with two kinds of information int infd = open(“abc”, O_RDONLY); int outfd = open(“xyz”, O_WRONLY+O_CREATE, 0666); • Data – the contents of the file if (infd >= 0 && outfd >= 0) { – e.g. instructions of the program, words in the letter int count = read(infd, buf, sizeof buf); Metadata – Information about the file • while( count > 0 ) { e.g. how many bytes are there, when was it created – write(outfd, buf, count); sometimes called attributes – count = read(infd, inbuf, BUFSIZE); • both must be persisted and protected } – stored and connected by the file system close(infd); close(outfd); } File Systems Semantics and Structure 3 File Systems Semantics and Structure 4 Random Access Consistency Model void *readSection(int fd, struct hdr *index, int section) { struct hdr *head = &hdr[section]; -
Using Common Logic
Using Common Logic = Mapping other KR techniques to CL. = Eliminating dongles. = The zero case Pat Hayes Florida IHMC John Sowa talked about this side. Now we will look more closely at this side, using the CLIF dialect. Wild West Syntax (CLIF) Any character string can be a name, and any name can play any syntactic role, and any name can be quantified. Anything that can be named can also be the value of a function. All this gives a lot of freedom to say exactly what we want, and to write axioms which convert between different notational conventions. It also allows many other 'conventional' notations to be transcribed into CLIF directly and naturally. It also makes CLIF into a genuine network logic, because CLIF texts retain their full meaning when transported across a network, archived, or freely combined with other CLIF texts. (Unlike OWL-DL and GOFOL) Mapping other notations to CLIF. 1. Description Logics Description logics provide ways to define classes in terms of other classes, individuals and properties. All people who have at least two sons enlisted in the US Navy. <this class> owl:intersectionOf [:Person _:x] _:x rdf:type owl:Restriction _:x owl:minCardinality "2"^^xsd:number _:x owl:onProperty :hasSon _:x owl:toClass _:y _:y rdf:type owl:Restriction _:y owl:hasValue :USNavy _:y owl:onProperty :enlistedIn Mapping other notations to CLIF. 1. Description Logics Classes are CL unary relations, properties are CL binary relations. So DL operators are functions from relations to other relations. (owl:IntersectionOf Person (owl:minCardinality 2 hasSon (owl:valueIs enlistedIn USNavy))) (AND Person (MIN 2 hasSon (VAL enlistedIn USNavy))) ((AND Person (MIN 2 hasSon (VAL enlistedIn USNavy))) Harry) (= 2ServingSons (AND Person (MIN 2 hasSon (VAL enlistedIn USNavy)))) (2ServingSons Harry) (NavyPersonClassification 2ServingSons) (BackgroundInfo 2ServingSons 'Classification introduced in 2003 for public relation purposes.') Mapping other notations to CLIF.