Embedded microcontroller applications
Kappert, H., Lerch, R.G., Kordas, N. · Publikationsdatenbank der Fraunhofer-Gesellschaft (Fraunhofer-Gesellschaft) · 2004
S.31-33
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About 7,204 papers for “microcontroller applications”
Kappert, H., Lerch, R.G., Kordas, N. · Publikationsdatenbank der Fraunhofer-Gesellschaft (Fraunhofer-Gesellschaft) · 2004
S.31-33
Cited by 0
Dale R. Patrick, Stephen W. Fardo, Vigyan Chandra et al. · River Publishers eBooks · 2023
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Nacev, Nikola · Brno University of Technology Digital Library (Brno University of Technology) · 2008
The deals of thesis were described methods for designing safety applications, made analysis of possible microcontroller faults of long-run system, described software and hardware methods for fault detection in microcontroller and applied some March test to microcontroller. To application were chosen MATS+, PMOVI and March SS tests. These tests were modified to word-oriented memory. Further it was made analysis of modified tests to determination fault coverage, testing times and program memory requirement. To determination of fault coverage was created virtual memory with fault function models. March tests were compared with each other and with another pattern test (checkboard test).
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Virtual Defense Library (Ministerio de Defensa) · 1989
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Bulletin of Miscellaneous Information (Royal Gardens Kew)
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Nirmalya Basu · 2025
This chapter explores the diverse applications of microcontrollers in modern technology, emphasizing their role in automation, consumer electronics, and industrial systems. It discusses the architecture of microcontrollers, their programming methodologies, and the interfacing techniques that enable their integration into various devices. The chapter aims to provide insights into how microcontrollers enhance functionality and efficiency in everyday applications.
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Joseph R. Marshall, Jeffrey Robertson · 2006
Originally conceived for fault tolerance control of its associated general purpose processor, the embedded microcontroller (EMC) present in BAE Systems Power PCI Bridge application specific integrated circuit (ASIC) has evolved into a processing workhorse finding applications spanning memory controllers, I/O processors as well as continuing to support the RAD750reg PowerPCreg processor. Development tools have also evolved from a simple assembler to a full development environment including compiler and simulator integrated with the PowerPC tools supporting the RAD750. This paper describes the evolution of the EMC within the Power PCI Bridge, development of its support tools and some of its applications as both a capable assistant to the RAD750 as well as a standalone processing element. Power and performance improvements are highlighted. Comparison to other processor cores that might be used in space is also shown. Discussion of future enhancements will also be mentioned
Cited by 9
Ryunosuke Maki, John J. Leonard · 2022
A single board microcontroller was designed for monitoring and control of agricultural processes. The system supports analog and digital inputs, digital outputs, serial data communications and a 16-digit Liquid Crystal Display. Two applications of the microcontroller are described in detail illustrating the adaptability of the system: a tractor performance monitor and a variable air inlet controller for an animal housing structure. On a mis au point un microregulateur sur plaque unique pour la surveillance et le contrôle des processus agricoles. L’ordinateur soutient des entrees analogiques et numériques, des sorties numériques, des transmissions de données en serie et un affichage a cristaux liquides de 16 unites. On décrit en detail deux applications du microregulateur pour illustrer la flexibilité du système: la surveillance des performances d’un tracteur et le contrôle variable de l’admission d’air pour une structure abritant des animaux. Ein Mikrokontroller mit einer Karte wurdê entworfen für Beobachtung von und Kontrolle über landwirtschaftlichen Prozesse. Das System Kann analoge und digitale Signale annehmen, digitale Signale senden, ermöglicht seriale Datenverständigungen und hat einen 16-stelligen Liquid Crystal Display. Zwei Anwendungen des Mikrokontrollers sind in einzelheiten beschrieben die die Anpassungsfähigkeit des Systems illustrieren: ein Traktorleistungsfahigkeitsmesser und ein verstellbarer Luftzufuhrkontroller für Stallungen.
Cited by 1
Raja Saravana Kumar Selvakumar, Ghazali Kamarul Hawari, Nik Yusof Nik Mohd Kamil · UMP Institutional Repository (Universiti Malaysia Pahang) · 2011
This paper presents a framework for developing applications based on a three type of microcontroller (μC), Freescale HC11, MCS51 and Microchip PIC18. This project consists of the hardware and software implementation that supports the development and transfer process of the program code from a personal computer to the microcontroller, which led to the evaluation of educational based training kit systems. The first part of the paper focuses on hardware design, which is based on a modular approach, i.e. recomposed for the design of each application, in order to ensure maximum adaptability. The Multiple Microcontroller Evaluation Tool (microEVAT) thus consists of a programmer tool, a main board including adapters for a variety of chip packages, and plug-in modules. These are presented in the second part of the paper describing the software part of the framework, which besides programming tools also discusses the code development tools. The stress is given to the use of assembly code and high-level tools, where the algorithms are described in the form of different graphical notations, i.e. block diagrams. Throughout the paper, a special attention is given to the use of framework in the electronics engineering education process. \nKeywords: - PIC microcontrollers, HC11 microcontrollers, MCS51 microcontrollers Development system, Electronics engineering education
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Centro Ciencias, Aplicadas Desarrollo, Lara Rojo et al. · 2016
How to cite Complete issue More information about this article Journal's homepage in redalyc.org Scientific Information System
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C. Tilbury · 1991
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Muni VEERENDRANADH NAIK Mude · 2025
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T. Jew · 2020
MRAM is finally establishing itself as a viable non-volatile memory (NVM) technology and solution for advanced Microcontrollers and even Microprocessors. Multiple foundries are making the investments to bring production capabilities on-line and demonstrating MRAM memory solutions. MRAM applications and use cases in advanced Microcontrollers and Microprocessors will be discussed, as well as remaining challenges to wide scale adoption of MRAM.
Cited by 6
Rongen, H. · JuSER (Forschungszentrum Jülich) · 2003
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Steven F.Barrett, Daniel J. Pack · Andalas University Repository (Andalas University) · 2009
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Buitenga, John. · Library and Archives Canada (Government of Canada) · 2000
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Rafiquzzaman, M · CERN Bulletin · 2018
Cited by 2
Amichi Amar, Chandra Krintz · 2010
Modern embedded systems (i.e. highly resource-constrained, microcontroller-based devices) are increasingly available at very low cost and consist of a variety of hardware components. As a result, these systems have become increasingly ubiquitous and are emerging as an important computing platform. Advances in support for easy program development across heterogeneous devices, by a broad developer base (with a range of expertise and backgrounds) for such devices is vital, but unfortunately has not kept pace. Currently, only very skilled developers are able to develop even simple applications or extant software development frameworks only support a small set of similar devices or a particular application domain. Toward this end, we present a new programming language, called Em, for the development of highly resourceconstrained device applications. Em is an extension to the C language that integrates high-level language and software engineering features that include modularity, encapsulation and data hiding, interface separation from implementation, inheritance, support for key design patterns, and reduced syntax verbosity, among others. Em facilitates code reuse, portability across platforms and device components, interchangeability (substitutability) while still achieving the footprint and code efficiency of C. Em also integrates novel features such as unifying the configuration (build time execution) and target (run time execution) code development. We demonstrate the efficacy of Em using multiple embedded systems building blocks and applications. 1.
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Josef Schwarz · 2007
: The paper deals with the problem of fuzzy system design. Many producers offer software tools supporting design and tuning of fuzzy system. Once the fuzzy sytem/controller is designed, it can be implemented in a fuzzy hardware or as a software program. For industrial application, a relatively cheep microcontroller with limited resources is often selected. The implementation of the target code must respect the limited on board memory space and limited operational speed. We present an educational fuzzy development environment FREG/M especially oriented to design and debugging a fuzzy system/controller for the platform of Motorola microcontrollers 68HC11. The concept of the design system utilizes the resident RunTime Kernel which works under the knowledge base. The FREG/M system enables the semiautomated composing of the total target code for the developed fuzzy application. In the paper there is also the problem of computational speed and the system monitoring disscused. 1 Introduction...
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Kamal Y. Kamal, Stefano Gregori · 2025
The rising threats of cybersecurity attacks on networked electronic devices, including the Internet of Things, smart cards, and supervisory control and data acquisition systems, have amplified the need for reliable yet simple hardware authentication methods. This experimental study evaluates the feasibility and reliability of power-up-generated data in the SRAM for authenticating the ATmega32U4 microcontroller. Automated data analysis was applied to measurements from 40 Arduino Micro boards using on-chip SRAM as a physical unclonable function (PUF). The study evaluated the trade-offs between whole-byte and bit-selected enrollment, resulting in an automated approach that reduces time, error rate, and cost.
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