Microsoft lanserade Windows 10 i mitten av 2015. Windows 10 är en serie operativ-system med flera versioner anpassade för många olika användningsområden. Windows 10 IoT Enterprise är en av versionerna inriktade på olika typer av inbyggda system. Vid anpassning utefter miljö kan delar av operativsystemet därför låsas ned och begränsas. För konfiguration av Windows 10 finns både gamla och nya verktyg tillgängliga. I detta projekt görs en undersökning av nedlåsnings- och anpassningsmöjligheter, samt konfigurationsverktyg med fokus på Windows 10 IoT Enterprise. De verktyg som har använts är Microsofts helt nya Windows Imaging and Configuration Designer, men även det lite äldre Windows System Image Manager. Med och utan hjälp av dessa verktyg har flera konfigurationsmöjligheter undersökts. Detta inkluderar bl.a. användar- och applikationsbegränsningar, branding (mjukvarumässig produktmärk-ning), och utseendeanpassningar. Utöver detta behandlas även framtagandet av färdig-konfigurerade Windows-avbildningar ytligt. Projektet har bestått av åtskilliga tester, främst baserade på Microsofts egna dokumentation. Majoriteten av de möjligheter och konfigurationer som har undersökts har visat sig fungerande och någorlunda lättanvända. En fungerande funktion har endast bedömts som sådan om denna uppfyller de beskrivningar Microsoft själva har givit ut. Detta utan att för den sakens skull förstöra andra delar av systemet. I slutändan beskriver resultaten till stor del funktioner som finns och fungerar, men inte i vilka praktiska scenarier dessa lämpar sig för användning. Vid konfiguration av större nedlåsningsfunktioner uppvisar Windows ICD problem. Ytterligare problem som också har noterats berör bl.a. möjligheterna för profilkopiering och generalisering i Windows 10. / Microsoft released Windows 10 in the middle of 2015. Windows 10 is a series of operating systems with multiple versions adapted for many different fields of work. Windows 10 IoT Enterprise is one of the versions aimed at various types of embedded systems. During adaptation into certain environments, parts of the operating system may therefore be locked down or limited. For configuration of Windows 10, both old and new tools are available.  In this project, an examination of lockdown and adaptation possibilities, as well as configuration tools, focusing on Windows 10 IoT Enterprise is made. The tools used are Microsoft’s brand new Windows Imaging and Configuration Designer, but also their older Windows System Image Manager. Multiple configurations have been examined both with, and without the help of these tools. This includes user and application limitations, branding, and appearance. In addition to this, the creation of fully configured Windows images is superficially addressed. The project has consisted of several tests, mainly based on documentation from Microsoft. A majority of the examined possibilities and configurations have proven functional and quite easy to make use of. A working functionality has only been evaluated as such if it satisfies descriptions released by Microsoft themselves. This, as well as not breaking other parts of the system. In the end, the result mainly describes existing and working functionalities, not in what practical scenarios they fit. During configuration of major lockdown features, Windows ICD displays problems. Other problems has also been noted, among other things related to profile copying and generalization in Windows 10.

Jönköping University Solar Team deltog år 2015 i tävlingen World Solar Challenge som körs vartannat år i Australien. Team från hela världen deltar i denna tävling där de konstruerar solbilar som de sedan tävlar med i ett race på ca 3000 km från Darwin till Adelaide. En solbil är en elbil som även är utrustad med solpaneler för att ge en teoretiskt oändlig körsträcka så länge bilen har tillgång till solenergi. Jönköping University kom på 15 plats i detta race och ville till nästa race förbättra sin konkurrenskraft. Eftersom det var ett race och varje teams mål var att använda sin bil så effektivt som möjligt behövdes ett system för att övervaka och logga batteridata och presentera det för teamet. Det var även fördelaktigt om teamet kunde få någon form av energiprognos för att kunna bestämma vilken hastighet som solbilen bör hålla. Ett system som loggar och överför denna information från solbilen till en följebil utvecklades och utvärderades. Syftet med denna studie var således: Öka Jönköping University Solar Teams konkurrenskraft genom att förse följebilen med ett beslutsstöd som i realtid övervakar och loggar solbilens batterinivå och energiförbrukning. Design Science Research användes som metod för att genomföra detta syfte, vilket gav möjligheten att utveckla systemet som en artefakt och använda denna för att presentera resultatet. Tre olika experiment utfördes för att konstatera funktionaliten på den trådlösa kommunikationen, hur rättvisande systemet var samt hur väl energiförbrukningen kunde förutsägas. I resultatet beskrivs hela artefakten och tillsammans med experimenten konstaterades att systemet kommer att ge Jönköping University Solar Team en högre konkurrenskraft i nästa race. / Jönköping University Solar Team participated in the 2015 edition of World Solar Challenge, which is held every other year in Australia. Teams from all around the world participates in the competition in which they construct a solar car and competes in a 3000 km long race from Darwin to Adelaide. A solar car is an electric car equipped with solar panels to give it a theoretical infinite mileage as long as the car have access to solar energy. Jönköping University came in 15th place in this race and would like to improve their competitiveness in the next race. Because it is a competition and the goal for every team is to use their car as efficiently as possible a system to log and monitor the battery and present the information to the team was needed. It would also be good to have some kind of energy consumption forecast that would be used to decide the speed the solar car should keep. A system that collect, stores and transmits the information from the solar car to an escort vehicle was developed and evaluated. Thus, the pursues of this studies were: Improve Jönköping University Solar Teams competitiveness by provide a decision support which in real time monitor and log the solar car battery level and energy consumption. Design Science Research was used as a method to realize this purpose, which gave the opportunity to develop the system as an artifact and use this to present the result. Three different experiments were constructed to determine the functionality of the wireless communication, how accurate the system was and how well the energy consumption could be predicted. In the results the artifact is described as a whole and together with the experiments it is found that the system will give Jönköping University Solar Team a higher competitiveness in the next race.

Some may assume that it is essential to purchase and install antivirus software to protect the underlying layers of an IT infrastructure. However, nowadays the Windows 10 operating system is shipped with a built-in antivirus feature by default. With Microsoft being a large contender in the antivirus market it raises the question if it is necessary to use third-party antivirus software in a Windows 10 environment.   The aim of this research is to determine the necessity of third-party antivirus software by examining the detection capabilities and measuring the performance impact caused by third-party antivirus software, in comparison with the antivirus service that is integrated with the Windows 10 operating system. This was done by measuring the response time of certain user activities to determine how the user-experience is affected differently by using third-party antivirus software. In addition to the effect on performance, the documentation of the tested products was studied to determine if there is value in using non-integrated antivirus software.   The results of the performance benchmarks showed that overall there was a significant performance increase when using third-party antivirus. Additionally, the study showed that some third-party antivirus software offers more ways to detect malicious activities than Windows Defender Antivirus. These two facts put together suggests that using third-party antivirus software in a Windows 10 environment is necessary if there is a desire to increase the efficiency of performing certain user activities and if there is a desire to have more detection capabilities available.

The goal of the thesis is to analyse the Xamarin.Forms framework and implementing an application based on it. Visual Studio was used as an development environment. External libraries Skia.Sharp, Prism, Acr.UserDialogs, sqlite-net-pcl and rda.SocketsForPCL were used. More than 90% of the application code is shared among all platforms. The application is multilingual and able to keep persistent data. Supported operation systems are Android and Windows 10 covering mobile and desktop devices. The main benefit of the thesis is clarification of the Xamarin.Forms framework principles demonstrated by developed application.

El texto completo de este trabajo no está disponible en el Repositorio Académico UPC por restricciones de la casa editorial donde ha sido publicado. / Production systems need to be monitored because failure to do so can cause a delay in production due to a lack of remote monitoring. There are solutions that provide this information, but they are limited, because they are owned and very expensive solutions. This paper proposes the development of a mobile application for the monitoring of S7-1200 programmable controller variables through Firebase. The goal is to use open-source-type tools to develop a real-time variable monitoring application of a programmable controller capable of hosting a Web server, and the sent data to the Firebase cloud, in order to avoid modifying the driver software and the data stored in memory. The implemented system of sending, handling and presenting variables is developed with tools of open source type, since they have as an advantage to have greater freedom in programming, unlike proprietary solutions or services. The tests were performed on the Siemens S7-1200 controller with a plastic injection molding machine. / Revisión por pares

This master thesiss goal is to map available tools for support of cross-platform native mobile app development. Main goal of thesis is to choose such tool and present it in form of app development. To accomplish this goal several criteria with different importance have to be defined. These criteria are used for choosing of most suitable tool. This thesis has two outputs. First one are criteria that can be used again or amended for some similar tool rating, like this one. Second output is cross-platform mobile app developed with Xamarin tool. Structure of this thesis copy secondary goals that support main goal: mobile OS are presented, name cross-platform native app is defined, define criteria, describe selected tools, rate them and demonstrate development of simple app on selected tool.

The master's thesis describes the designing and developing mobile application for remote management of Kentico CMS/EMS system via REST interface. The thesis emphasized agile approaches to development, especially Test-Driven Development and automated testing.