Paper ID #28935Exploring Ethical Hacking from Multiple ViewpointsDr. Radana Dvorak, University of Portland Dr. Dvorak received her Ph.D. in computer science from the University of London, Queen Mary College, and Master’s degree in AI from the University of Sussex. Dr. Dvorak has been working in IT, higher education, academic industry and program development for over 25 years. She has served as a researcher, university professor and dean in the US, UK, and the Cayman Islands. Currently, Dr. Dvorak is the Director of the University of Portland Shiley School of Engineering Bachelor of Computer Science Post- Baccalaureate
by AI by studying software agents, problem solving bysearching, various ways to represent knowledge, and methods of learning. Additionally, thiscourse will discuss both the ethics and risks associated with the fields of AI. Topics coveredduring the course fall into 4 major categories: (1) Knowledge, Reasoning, Planning, andUncertain Knowledge, (2) Learning and Philosophical Foundations, (3) Communicating,Perceiving, and Acting, and (4) Ethics and Risks. Previously, the authors have used the “flipped”classroom concept in courses. The flipped classroom, when mastered and done well, has beendemonstrated to be beneficial to the students’ ability to learn material [1]. One of the goals forthis project is for students to help create a repository
Science, Technology, Engineering, and Math (STEM)fields, which this paper details. The next section provides more background on OSINT and itsuse by cyber criminals, governments, local law enforcement, and private corporations. Section 3details the OSINT course activity, such as the project description, objectives, classdemographics, logistics and scope, and student deliverables. The fourth section incorporatesstudent responses to the project, including general feelings about the project, how it relates tocybersecurity, strategies for completing the project, and how they managed challenges faced inthe process. Section 5 is an overview of lessons learned by the educator, including how todevelop an ethical project on this topic, create instructions
student enthusiasm at the end of their internship to enhance the ensuing continuation of their academic experience.A. Introduction Demand for undergraduate Computer Science and Engineering (CSE) education continues to grow,driven by persistent need for professionals with technical skills. In addition to core technical knowledge,students embarking on a career in CSE must be ready to combine theory and practice in a context wherethe underlying technology continually changes, projects are large-scale and collaborative, and professionalresponsibility and ethics-based decision-making are critical when products are adopted widely. Manystudents seek hands-on industry internship experiences to complement their in-class instruction andprepare for these
accredited programs to follow the student outcome criteria.Students in CAC accredited programs must satisfy outcome criteria by having the ability to: 1. Analyze a complex computing problem and to apply principles of computing and other relevant disciplines to identify solutions; 2. Design, implement, and evaluate a computing-based solution to meet a given set of computing requirements in the context of the program’s discipline; 3. Communicate effectively in a variety of professional contexts; 4. Recognize professional responsibilities and make informed judgments in computing practice based on legal and ethical principles; 5. Function effectively as a member or leader of a team engaged in activities appropriate to the
spiral, waterfall and agile. (Process) FDBK Demonstrate ability to make improvements after receiving constructive feedback. (Feedback) ETH Demonstrate an understanding of professional ethics appropriate to the use or development of computer science artifacts, and social impact of computer technology. (Ethics) ISPEC Demonstrate an understanding of intellectual property laws and ethics, software licenses, and commensurate rights. Demonstrate an understanding of security, privacy, and other ethical or legal issues, that arise in the context of computing. (Intellectual Property and Security) WRITE Write a clear document which meets the needs of the intended reader(s). (Writing) SPEAK
project dataBy analyzing the assessment data, it seems students in the senior project have weaknesses inthree major areas: Design, Mathematical modelling, EthicsTo improve design, mathematical modelling, and calculation, suggestion is to have one of themajor weekly assignment be an Engineering Logbook. Every week students should submit theirdesign, and calculation. For example, if students use SONAR in their project, in the engineeringlogbook they must write all calculations and how to measure distance or in the case of motorconnection to micro-controller they must write in the logbook all calculations for the requiredcurrent. Regarding ethics, in the course shell one module should be covered the engineeringethics specially IEEE Engineering
program.In broad terms, the recommended curricular content should include: Calculus through Calculus II, Statistics, and discrete mathematics, Laboratory science with University Physics preferred, Technical writing in addition to composition, Macro or microeconomics, Logic and ethics, Public speaking, Programming, Data Structures and Algorithms, Networks, Database, and Cybersecurity and supporting computer science core cores.The final curricular composition was at the discretion of the faculty at the offering institution andhad to satisfy all institutional requirements for admission and graduation.Lower Division CurriculumTh lower-division curriculum was structured with three
. Nextwe incorporate sklearn 40 so students can execute and explore the results of machine learningalgorithms. To prepare for machine learning content students watch bots videos 14 and they arealso assigned some ethics reflection prompts in response to Cathy O’Neil’s TED Talk 35 .The common thread across topics is the problem-solving heuristics shown in Figure 1. Weintroduce these early on and revisit them with each topic and explicitly point out when we areusing a strategy, or trying several of them, to solve a problem. For example we point out the useof concrete examples for solving encoding problems, developing algorithms, and initially usinghard-coded values in incremental web development. Another example is how students areexposed to
automated car, IEEE/RSJ International Conference on Intelligent Robots and Systems, 1507–1512, 1999. 5. Lassa, Todd "The Beginning of the End of Driving". Motor Trend, January 2013. 6. "European Roadmap Smart Systems for Automated Driving", EPoSS, 2015. 7. Lim, Hazel Si Min; Taeihagh, Araz, "Algorithmic Decision-Making in AVs: Understanding Ethical and Technical Concerns for Smart Cities". Sustainability, 11 (20): 5791, 2019. 8. Fayjie, Abdur, et.al., “Driverless Car: Autonomous Driving Using Deep Reinforcement Learning in Urban Environment”, 2018 15th International Conference on Ubiquitous Robots, 2018. 9. Annual Report on the State of Poverty in Utah, 2014, Community Action Partnership of Utah
topics without in-depth coverage. After taking this course, the students shouldbe able to: • Identify the importance of cyber-physical system security • Understand cryptography and the importance of cryptography in modern society • Develop proficiency using Kali Linux • Learn/demonstrate a PLC ladder logic program • Identify the similarities and differences between IT and OT networks • Understand industrial control system, Shodan, and smart grid • Identify the working of CAN bus • Discuss the ethics of cybersecurity and problems of many hands • Learn/demonstrate penetration test (WiFi, network scan, Nessus, Metasploit, etc) • Understand Risk Assessment and threat modeling • Learn/demonstrate basics of
courses that everystudent in the major is expected to take. As a result, these nodes are larger in the visualizationbecause more students take them. Because these courses represent the foundational aspects of thecurriculum, core courses are often spread across the curriculum and are very carefully sequencedthrough the use of prerequisites. This expectation is confirmed in Figure 7.What was surprising about this constellation is that one of the core courses was taken very late inthe curriculum (circled in red). By hovering on this node, we saw that the course is about theimpact computers have on society. A topics course about ethics and trends in computing, studentsmay take this course later in the curriculum to offset some of their more time
○ Secure coding practices, ethical hacking and threat modeling ○ Security architecture ○ Security concepts related to DNS, routing, authentication, VPN, proxy services and DDOS mitigation technologies ○ TCP/IP, computer networking, routing and switching ○ Windows, UNIX and Linux operating systemsWhile the previously listed set of skills are key to organizations looking to fill the CISO position,many organizations included certain certifications they deemed crucial for the CISO position.The next section examines the certifications most organizations indicated as important for theCISO position.Value of IT certifications to the IT security industry to obtain gainful employmentThere are three