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Professor Hossein Saiedian: EECS 690: Data Science

Course title

EECS 690 (3 credit hours) Special topics: Data Science • Spring 2026
Meets in person, Tuesdays and Thursdays, 11:00 am - 12:15 pm, LEEP2 2425
Teaching website: people.eecs.ku.edu/~saiedian/Teaching

Instructor

Office: Eaton Hall 3012
☎ +1 785-864-8812
📬saiedian AT ku.edu
🌍 people.eecs.ku.edu/~saiedian
Teaching: people.eecs.ku.edu/~saiedian/Teaching
Office hours: Tuesday and Thursday, 1:00-2:00 PM (and by appointment)

Course description

This course delivers a thorough, hands-on exploration of the core concepts in data science, utilizing essential programming languages such as Python, R, SQL, and Unix shell. Students navigate the entire data science lifecycle—from data collection and cleaning to analysis, visualization, and data-driven decision-making. They master key techniques including data mining, statistical analysis, and predictive modeling (including classification, regression, and clustering). Real-world case studies in science, engineering, and business present opportunities to tackle diverse challenges by formulating questions, gathering and analyzing data, and developing deployable models. Students also explore critical topics such as ethics, privacy, security, and big data architecture. Prerequisites include experience in Python programming and an introduction to statistics.

Recommended textbooks

There are no required textbooks for this course, but contents from the following texts will be used.


Tiffany Timbers, Trevor Campbell, and Melissa Lee,
Data Science: A First Introduction,
Taylor and Francis, 2024.


Joel Grus,
Data Science from Scratch,
O'Reilly, 2019

Evaluation criteria (subject to revision)

🎯Exams: 50%
🗂️Mini-Projects: 40%
📈Term-Projects: 10%

Assignments. Assignments may take a variety of forms, including labs, homework exercises, in‑class activities, or mini‑projects. Students are expected to complete assigned work both inside and outside the classroom as appropriate for the course. In courses that include hands‑on laboratory components (such as software engineering course), certain lab activities must be completed during scheduled lab sessions under TA supervision to ensure academic integrity; work completed outside the lab in these cases will not receive credit. Full assignment descriptions, requirements, and due dates are provided on Canvas.

Exams and quizzes. Exams and quizzes will be conducted in person and administered through Canvas. All exams and quizzes are closed-book and closed-notes.

Students must bring a laptop or tablet with a sufficiently large screen capable of accessing Canvas. During an exam or quiz, the only permitted application is the Canvas app or a web browser with a single tab open to Canvas. All other applications, files, browser tabs, windows, and electronic resources must be closed before the assessment begins and may not be accessed during the assessment.

To maintain academic integrity, students must remain focused on the exam window for the entire assessment. Canvas records instances of "Stopped viewing the quiz-taking page", and such instances may be reviewed and investigated as potential academic integrity violations.

Only devices and applications explicitly required for taking the assessment are permitted. Smartphones, smartwatches, earbuds, headphones, Bluetooth devices other than a mouse or stylus, remote-access software, screen-sharing software, generative AI tools, and similar technologies are prohibited unless expressly authorized by the instructor. Because these technologies can facilitate communication, information access, or other unauthorized assistance, their use is not permitted during exams or quizzes.

Screen brightness must remain at a normal, visible level throughout the assessment. The use of display dimmers, screen-darkening software, privacy overlays, or any method intended to obscure screen contents is not permitted.

Violations of the above testing requirements may be treated as violations of the University's academic integrity policy and may result in disciplinary action.

  • Structuring responses for exams, quizzes, and lab assignments. For questions with multiple parts (e.g., “name three parts of…”), address each part separately to ensure clarity and avoid confusion. Use clear identifiers such as “(1)”, “(2)”, and “(3)” to organize your answers. If more than the requested number of parts are provided, only the first three will be graded. Structured, precise responses demonstrate your understanding effectively.
  • Demonstrating engagement in exams, quizzes, and lab assignments. Responses should reflect your understanding of concepts as presented and discussed in class. Credit will be awarded for answers that demonstrate familiarity with course lectures, discussions, examples, and assigned materials, rather than reliance on external sources.
  • Providing technical and detailed responses. Exams, quizzes, and lab assignments require precise, technically accurate, and comprehensive answers. Vague, incomplete, or off-topic responses will not earn full credit, even if partially correct. To maximize points, provide detailed explanations supported by specific examples and relevant course concepts. Demonstrate a clear understanding through well-crafted, focused responses.

Submission format policy. All course work—including assignments, reports, and projects—must be typeset and submitted electronically via Canvas. Please note that “typeset” refers to work composed using digital tools (e.g., word processors, , image editing software, etc.). Handwritten or hand-drawn submissions will not be accepted.

Course lectures and resources

Students are responsible for engaging with all course materials, including lecture slides, topics covered in class discussions, assigned readings, and supplementary resources (e.g., handouts, code samples, or project guidelines) distributed during class sessions. All materials will be posted on Canvas, and students are expected to regularly check Canvas for updates to ensure they remain informed and prepared. Active engagement with these resources is critical for success in assignments, projects, and exams, and aligns with the course’s emphasis on professional responsibility and self-directed learning.

Course announcements (Canvas)
Lecture slides (Canvas)
Readings (Canvas)
Project resources (Canvas)

Guest speakers

Throughout the semester, we may host guest speakers who bring valuable insights and real-world perspectives related to the course material. Attendance during these sessions is especially important, as guest speakers may not provide lecture slides or written materials. Students are expected to take careful notes and engage respectfully. These sessions may include content relevant to assignments or exams.

Grading philosophy and scale

This course is not curved in the traditional sense. I do not set a fixed class average (e.g., a "B") and scale grades to fit a predetermined distribution. Instead, I ask one fundamental question: “Has this student mastered the material?”

If every student demonstrates clear mastery of the course content, then every student earns an A. Grades are not a measure of relative ranking—they are a reflection of your personal understanding and engagement with the work.

I encourage you to shift your focus away from grade anxiety. Instead, concentrate on being present, asking questions, exploring ideas, and participating fully in the learning process. In return, I promise to be fair, transparent, and extra supportive. We are in this together, and I want each of you to succeed—not just by earning a grade, but by growing as scholars and professionals.

I am genuinely invested in your progress, and nothing would make me happier than seeing every student earn an A through honest work and intellectual curiosity.

The above said, final course grades will be determined by the total percentage of points earned. The following standard scale will be used:

  • A (Excellent): 90–100%
  • B (Good): 80–89%
  • C (Satisfactory): 70–79%
  • D (Poor): 60–69%
  • F (Failing): Below 60%

Tentative weekly schedule (re-visit for updates)

All lecture notes (slides) are on Canvas

Course introduction
Big data
Data life cycle: Data collection and pre-processing, Data cleaning, Data integration, Data transformation, Data discretization
Structured vs semi-structured vs unstructured data

What is data science: Big data characteristics
Applicaitons of data science
Data science relation to other fields: Statistics, Computer science, Engineering, Business analytics, Social sciences
Data collection and pre-processing (with a case study)

➡️Case study: Excessive wine consumption and mortality

➡️Case study: Canadian languages

Mini-Project 0: Preparing a Real‑World Dataset for Analysis (Domain: Criminal Justice)

Learning objectives: You’ll practice the core data‑science skill of preprocessing a real dataset using domain knowledge and visual inspection. Working with 1973 U.S. crime statistics, you’ll identify missing values, detect unusual patterns or outliers, and decide which issues matter for analysis. This project emphasizes the judgment‑based side of data cleaning—learning how to spot problems, reason about whether they are plausible given the domain, and prepare the dataset for meaningful exploration in later projects. Due: See Canvas for the full project description and due date.

Using Pandas and Altair (with a case study)
       Load and explore a dataset
       Apply data frame selection, filtering, transformation
       Visualization and customization

Data science techniques
      Descriptive analysis (presented with multiple case studies)
      Exploratory analysis (presented with a case study)
      Predictive analytics
      Inferential analysis
      Causal analysis
      Mechanistic analysis

➡️Case study: Canadian languages

Mini-Project 1: Exploring Running Performance with Pandas (Domain: Sports Science)

Learning objectives: Explore a real case study from sports science to build your first skills in loading, inspecting, and visualizing data with Pandas and Altair. Using performance records from recreational runners, you’ll examine how factors such as age, BMI, and training habits relate to 10 km race times. Through targeted visualizations, you’ll practice identifying patterns, comparing groups, and developing intuition for how human‑performance data behaves before moving on to more advanced modeling. Due: See Canvas for the full project description and due date.

Tuesday February 10: Exam 1

Tools and skills for data science
      Reading data in varying format and sources
      Reading data from the web and from a database
      Intro to data cleaning and wrangling
      Web scraping

➡️Case study: Canadian languages (continued)

Mini-Project 2a: Exploring Global Well‑Being with Data Wrangling (Domain: Social Sciences)

Learning objectives: You’ll explore how different data formats influence the way we load, inspect, and visualize information. Using global happiness data, you’ll practice reading multiple file types, comparing their structure, and understanding how format choices affect workflow and clarity. This project emphasizes the practical judgment data scientists use when deciding how to store, share, and analyze real‑world datasets. Due: See Canvas for full details.

Mini-Project 2b: Querying Flight Delays with ibis & SQLite (Domain: Transportation)

Learning objectives: Learn how data scientists work with information stored in databases by using the ibis library to query a real SQLite dataset. Instead of loading a flat file into memory, you’ll practice filtering, aggregating, and transforming data directly inside the database—an essential skill when working with large or operational datasets. Using flight records from Boston Logan Airport, you’ll explore delay patterns while experiencing how ibis provides a clean interface for database operations. This project builds intuition for when and why database‑backed workflows matter in modern data science. Due: See Canvas for full details.

Data cleaning and wrangling
      Common wrangling functions
      Common statistical summaries
      Python data structures
      Pandas data frames, Tidy data format
      Extracting and merging rows, columns, advanced selections
      Aggregating data, summary statistics, group calculations

➡️Case study: Canadian languages: Exploring untidy datasets

Mini-Project 3: Cleaning & Reshaping Avocado Market Data (Domain: Economics)

Learning objectives: You’ll deepen your data‑wrangling skills by working with real avocado sales and pricing data. You’ll practice reshaping tables, handling inconsistent structure, and preparing variables for analysis—tasks that mirror the messy reality of most industry datasets. By cleaning and reorganizing the data, you’ll uncover seasonal patterns and regional differences that would be impossible to see without thoughtful preprocessing. This project emphasizes the practical judgment required to turn raw, imperfect data into something ready for meaningful exploration. Due: See Canvas for full project details.

Data science visualization
      Fundamentals of Grammar of Graphics
      Saving visualizations (raster vs vector)
      Visualization guidelines
      Altair, ggplot2, Vega-Lite libraries
      When to choose scatter, line, bar, histogram, ...

➡️Case study: Mauna Loa CO2: Studying concentration of atmospheric CO2 change

➡️Case study: Old Faithful geyser: Relationship between the waiting time/eruption duraiton

➡️Case study: Earth landmass: Are the continents Earth’s seven largest landmasses?

➡️Case study: Speed‑of‑light measurements from Michelson’s 1879 experiments

Mini-Project 4: Visualizing Global Vaccination Trends and U.S. Fast‑Food Patterns

Learning objectives: Move beyond basic charts and learn how to build richer, multi‑layered visualizations that reveal deeper structure in the data. Using Altair, you’ll experiment with faceting, layering, interactive elements, and more expressive encodings to tell a clearer story with your data.


Part 1: (Domain: Public Health) Analyze real vaccination data from the World Health Organization to practice advanced visualization techniques in Altair. Focusing on global efforts to control Polio and Hepatitis B—two diseases that disproportionately affect young children—you’ll examine how vaccination coverage has changed across regions over time. By filtering, comparing, and faceting the data, you’ll create clear visual narratives that highlight regional disparities, long‑term trends, and the impact of public‑health interventions.


Part 2: (Domain: Market Geography / Consumer Behavior) Use comparative visualization to surface geographic concentration and dispersion patterns among major fast‑food chains across U.S. states by identifying the top nine chains nationwide, constructing a state‑by‑chain summary to compare their footprints, and visualizing which state has the most total restaurants overall before zooming in on the West Coast to compare those chains across the three states. Using faceting and small multiples in Altair helps you make like‑for‑like comparisons and separate scale effects from density, giving you a clearer view of how these chains distribute across regions. The same visualization grammar used for public‑health trends reveals market structure and regional preferences in industry data, and your goal is to build a reasoned comparison—not just counts—with a clear narrative about where and why patterns emerge. Due: See Canvas for full project details.

A preliminary introduction to ML
Why modeling, optimization models
Domain analysis/understanding
Cancer basics (for the case study)

Thursday March 5: Exam 2

Tools and skills for data science
       Supervised learning
       Classification (training and predicting)
       Advanced classification (balancing, evaluation and tuning)

➡️ Case study: Cancer study and dataset

Spring break (March 16 - March 22)

Tools and skills for data science (continued)
       Classification: K-nearest neighbors
       Classification: linear regression

➡️ Case study: Real estate transactions in Sacramento, CA

Mini-Project 5: Classifying Breast Cancer Tumors (Domain: Medicine/ Clinical Diagnostics)

Learning objectives: Build and evaluate a simple tumor classifier on the Wisconsin Diagnostic Breast Cancer dataset to understand how modeling choices translate into real clinical trade‑offs by training a baseline model, preparing features, splitting data, and fitting at least one classifier such as logistic regression or a decision tree. As you interpret predictions on real medical features, use evaluation metrics to explain why each matters in healthcare settings, especially given the stakes of misclassification where false negatives and false positives carry very different consequences. Due: See Canvas for full project details.

Tools and skills for data science (continued)
       Classification: evaluation and tuning
       Regression analysis: linear regression

Tools and skills for data science (continued)
       Regression: linear regression
       Unsupervised learning

➡️ Case study: Penguin dataset from Palmer Station, Antarctica Ecological Research

Thursday April 09: Exam 3

Mini-Project 6: Modeling Marathon Performance with Regression (Domain: Sports Science)

Learning objectives: You’ll explore when regression is appropriate and how different regression methods behave on real data. Using marathon‑training records, you’ll investigate whether weekly training distance predicts race‑finish times. You’ll implement KNN regression, compare it with simple linear regression, and interpret the outputs of both models. This project highlights how modeling assumptions shape predictions and helps you build intuition for choosing the right regression approach in practice. Due: See Canvas for full project details.

Tools and skills for data science (continued)
      Clustering techniques and analysis
Conceptual and logical data modeling
      Database and SQL processing for data science

Statistical inference
       Statitical sampling, sample distribution
       Statitical Bootstrapping
       Statitical Bootstrap distribution

➡️ Case study: Airbnb listings

➡️ Case study: New illness, new drug, few patients

Mini-Project 7: Clustering Craft Beers Using Chemical Profiles (Domain: Food Science)

Learning objectives: Use unsupervised learning with K‑means on chemical profiles of hopped craft beers to discover structure without labels and reflect on how clustering supports scientific classification and product segmentation by standardizing features, fitting models across several values of K, and choosing a reasonable number of clusters using simple diagnostics such as elbow or silhouette intuition. As you interpret cluster centers as chemical profiles and connect them to plausible style families, visualize the resulting groups through a 2D projection, pairwise plot, or radar chart of centroids to show how clusters separate in feature space. The goal is to communicate what clustering can and cannot tell us about category boundaries in real data, culminating in a short interpretation of what differentiates the clusters chemically and why those differences might matter for brewers, retailers, or sensory studies, along with one clear limitation such as sensitivity to scaling or linear boundaries, supported by a figure that clearly conveys cluster structure. Due: See Canvas for full project details.

Data science tools and techniques revisited
       Unix tools for data science
       Data science with R

Data collection evaluation, comparing models, A/B testing

Mini-Project 8: Simulating Populations for Statistical Inference (Domain: Public Health)

Learning objectives: Explore the core ideas of statistical inference by creating and sampling from a simulated population of seniors. Because real‑world analysts rarely have access to full‑population data, you’ll use this controlled setting to see how sampling variability arises and how estimates fluctuate from sample to sample. This mirrors the challenges faced in public health, policy, and social science, where decisions must be made from limited information. By experimenting with repeated samples, you’ll build intuition for uncertainty, estimation, and the logic behind inferential methods. Due: See Canvas for full project details.

Model evaluation
      Classification evaluation measures
      Sensitivity and specificity
      Methods for model evaluation
      An application of model evaluation
Emerging trends in data science
Course review

Mini-Project 9: Statistical Inference in R (Domain: Statistics / Social Science Methods)

Learning objectives: You’ll use R—one of the most widely used languages for statistical modeling—to explore sampling and inference in a hands‑on way. R’s ecosystem is designed for statistical computation, making it ideal for generating simulated populations, drawing repeated samples, and visualizing sampling distributions. By working through these tasks in R, you’ll see how statisticians use code to quantify uncertainty and reason about population parameters when full data is unavailable. Due: See Canvas for full project details.

Mini-Project 10: Linux Data Analysis of Public Health Data (Domain: Health Science / Systems Tools)

Learning objectives: You’ll use Linux command‑line tools to analyze real‑world, messy tabular data in CSV format—one of the most common formats for public datasets. By working directly in a Unix environment, you’ll gain hands‑on experience parsing, cleaning, and summarizing categorical data using reproducible workflows. Particular emphasis is placed on the challenges of correctly handling CSV files that contain quoted fields and embedded commas, and on using appropriate tools (e.g., csvkit) to ensure accurate analysis. Through this project, you’ll see how systems tools support reliable data exploration and how careful preprocessing influences analytical results. You will investigate a dataset of New York City causes of death (2010), exploring demographic patterns (such as sex and ethnicity) and identifying the most frequent causes of death through command‑line queries. The project reinforces key skills in data wrangling, aggregation, and reproducible analysis while highlighting the importance of correct parsing in real‑world datasets. Due: See Canvas for full project details.

Comprehensive final May 14 10:30-1:00 pm


Classroom engagement via

iClicker is an interactive classroom response system that allows students to engage actively by answering questions and participating in polls. The University of Kansas has secured an iClicker subscription for classroom use, and the EECS department is incorporating this system into its courses to boost student engagement. Participation in the iClicker community is mandatory for this course.

When an iClicker notification is sent, students are briefly polled to confirm receipt. If a student encounters a technical issue or need more time, they should raise their hand to be acknowledged and if the issue is not resolved, meet with the instructor immediately after class to manually adjust the iClicker record.

Responding to iClicker notifications when not physically present in the classroom is strictly prohibited. It constitutes a deliberate act of academic dishonesty and a direct violation of the University of Kansas code of conduct. Logging attendance or submitting responses while absent undermines the integrity of our learning environment and disrespects both the instructor and fellow students who are fully participating. Violations will result in a mandatory meeting with the EECS department chair to address the misconduct and its implications.

LLM and generative AI tools

Generative AI tools, such as ChatGPT, GitHub Copilot, Gemini, and others, can be valuable resources for learning. When used appropriately, they may assist in brainstorming, exploring ideas, and refining drafts. However, they must never replace your own intellectual work.

These tools are akin to the writing center consultants, the EECS programming tutors, and lab assistants: they can guide and support but must not generate final submissions. Submitting content primarily generated by AI is a violation of academic integrity, comparable to submitting work completed by someone else.

Unless explicitly permitted, all coursework must reflect your original understanding, reasoning, and expression. Use of generative AI tools is not permitted for any assignment unless the instructor explicitly authorizes it for that specific assignment; where such use is authorized, it must be disclosed via a brief reflection describing how and why the tool was used, the specific prompts entered, how the output was validated and revised, and any challenges or limitations encountered.

  • A description of how and why AI was used
  • The specific prompts you entered
  • How you validated and revised the AI output
  • The challenges or limitations you faced while using AI

Failure to disclose use of AI tools or submitting AI-generated work as your own will be treated as academic misconduct. Minimum consequences include a zero on the assignment. Depending on severity, further penalties may include failure in the course and formal referral to the School of Engineering disciplinary committee.

This course is designed to build your skills—not evaluate the performance of generative tools. Authentic engagement with course challenges leads to meaningful growth. Overreliance on AI undermines both your learning and the integrity of our academic community.

Intellectual honesty is not optional; it defines your identity as an engineer, a scholar, and a professional.

Academic integrity policy

The University of Kansas, the School of Engineering, and the Department of Electrical Engineering & Computer Science (EECS) maintain a zero-tolerance policy toward academic dishonesty and misconduct. All students enrolled in this course are expected to uphold the highest standards of integrity and professionalism in their academic work.

Academic dishonesty includes, but is not limited to:

  • Plagiarism: Representing another person’s work, writing, or ideas—whether published, unpublished, or submitted by another student—as one’s own, without proper attribution.
  • Unauthorized collaboration: Giving or receiving unapproved help on assignments, projects, quizzes, or exams.
  • Misrepresentation: Knowingly presenting false information or misattributing the source of academic work, including falsely representing one’s presence, participation, or attendance in a course or class activity.
  • Cheating: Using unauthorized resources during assessments or submitting work completed by someone else.
  • Falsification of research or data: Fabricating results, manipulating data, or misreporting findings.

The minimum consequence for an academic integrity violation is a zero on the item in question (e.g., lab, assignment, quiz, or exam). Depending on severity, penalties may include a grade reduction, a failing grade for the course, and formal referral to the School of Engineering's disciplinary committee for further review and sanctions.

Please also see KU's academic misconduct policy

LMS features. During exams or quizzes, only one device should be used, with solely the Canvas app or a single browser tab for Canvas open. Having any other tab, app or file open will be considered a violation of academic integrity. To further facilitate academic integrity, the following features of Canvas will be utilized:

  • The "originality checking" mechanisms of LMS will be utilized for exams but also assignments.
  • LMS features to prohibit printing, copying/pasting of exams will be turned on.
  • LMS lockdown feature will be employed.

Code of student rights and responsibility: Code of Student Rights and Responsibilities

Attendance, late work, and makeup policies

Attendance expectation. Regular attendance is essential for success in this course. Attendance will be recorded throughout the semester via iClicker for classroom meetings (and, if the course includes a lab component, via a sign-up attendance sheet for lab sessions). More than three unexcused absences (in classrooms or labs) will result in a one‑letter reduction in the final course grade, which will be applied when grades are posted at the end of the term.

Course-specific attendance policy (EECS 581). Because this course meets once per week, a single absence carries the weight of two regular sessions. Accordingly, no more than two unexcused absences will be permitted (equivalent to four regular sessions under the standard format); a third unexcused absence will result in the one-letter grade reduction described above. This applies to the Tuesday classroom sessions; TA/Scrum-meeting participation is assessed separately, using the project rubric posted on Canvas.

Late-work, makeup policy. Late work and make‑up opportunities for labs, quizzes, and exams are available exclusively for students with excused, documented, and approved absences, ensuring full support for those with qualifying circumstances.

Excused absence requests. Requests for excused absences must be submitted in advance and approved by the instructor, except in cases of emergency. Supporting documentation must accompany all requests. For emergencies, notify the instructor as soon as possible following the absence. Examples of excusable absences include:

  • Illness or injury
  • Verifiable personal mental health or medical crisis, or that of a relative
  • Unforeseen life event or compelling circumstances beyond the student's control (e.g., divorce, birth or adoption of a child, death, loss of employment, sexual assault, domestic violence)
  • Academic field trips or conferences
  • Participation in university activities at the request of university authorities (e.g., an approved concert or athletic event)
  • Jury duty or officially mandated court appearances

If a student experiences a confidential personal or family situation that does not fall under the above categories, they may consult CAPS or their academic advisor, who can then contact me on their behalf.

Make-up poloicy and integrity. For excused absences, quizzes and exams must be made up before the content is reviewed or the answer key is released. Labs, assignments, or homework are due within one week of the absence. Additional flexibility will be provided for special circumstances.

By taking a make-up assessment, you affirm that you have an excused absence and have not sought or received any information about its content from prior test-takers. Violating this pledge is academic misconduct (see above).

Responsibility for missed work. Students who miss class are responsible for obtaining any missed materials.

Common policies

Classroom conduct policy: Students are expected to arrive on time, remain attentive, and conduct themselves professionally. Please avoid behaviors that disrupt the learning environment or instructor presentations, and note that profanity is strictly prohibited. Additionally, students are encouraged to actively engage during class sessions by asking questions, contributing to discussions, and providing feedback.

Canvas announcements. Important course updates will be posted via Canvas Announcements. You are responsible for checking Canvas regularly; email notifications may also be sent depending on your account settings.

Email communications
As an engineering student at the University of Kansas, all written communications should reflect professional standards. Please note:

  • Subject lines: Must be descriptive and begin with EECS### for course-related messages.
  • Etiquette: Please follow standard professional email etiquette.
  • Format: Send text-only emails in text-only format. All classroom assignments, labs, or projects should be typeset and submitted on Canvas.
  • Attachments: Other documents (e.g., documents for an excusable absence) should be emailed in PDF or a well-known image format (e.g., JPG or PNG). Please choose a descriptive file name for the attachment (avoid file names like "image", "my document", etc.).

Grade and absence clarification or correction. We want to ensure your records are accurate and fair. If you believe a grade on an assignment, lab, quiz, or exam is incorrect, you must submit an grade correction request within one week of receiving the graded work. Similarly, if you need to submit documentation for an excused absence after the fact, you must do so within one week of the absence. Failure to address these matters within this one-week timeframe will result in the decision becoming final, ensuring timely resolution and consistency for the entire class.

Technical problems. Submit a support request help at: https://tsc.ku.edu/request-support-engineering-tsc.

Electronic device policy: Cell phones must be silenced before entering the classroom. While laptops, tablets, and phones are welcome for note-taking and approved tools like iClicker, non-academic uses (such as social media or web surfing) must be avoided to prevent distractions. Audio should remain turned off. Additionally, devices may be used to photograph whiteboard notes or projects, provided the shots exclude the instructor and other students.

Incomplete grade policy. An Incomplete ("I") grade is reserved for exceptional circumstances beyond your control and must be resolved within the instructor's timeframe (up to one year before automatically converting to an "F" or "U"). For full details please review KU policies: here and here.

Accommodations for students with disabilities. The University of Kansas is committed to equal opportunity and accessible learning. Requests for special accommodations should be made through KU Student Access Services.

Nondiscrimination and equal opportunity. KU strictly prohibits discrimination based on protected characteristics across all programs and activities. For full institutional policies, please review KU's statements on nondiscrimination and the racial and ethnic harassment policy.

Sexual harassment. KU prohibits sexual harassment and is committed to preventing, correcting, and disciplining unlawful harassment and assault. Please review KU's statement on sexual harassment for details.

Mandatory reporter statement. As a faculty member and KU employee, I am a mandatory reporter required to share disclosures of discrimination, harassment, or sexual violence with the Office of Civil Rights and Title IX. For confidential support options (such as CAPS, Watkins Health Care, or the Ombuds Office), please review KU's statement on mandatory reporting.

Commercial note-taking ventures. Pursuant to KU's commercial note-taking policy, selling lecture notes or course materials for commercial gain is strictly prohibited and subject to disciplinary action. Note-taking provided as an official ADA accommodation for a student with a disability is exempt.

Concealed handguns. Individuals choosing to carry concealed handguns must do so safely and in strict compliance with state/federal laws and KU weapons policy, which requires that handguns remain under constant control, fully concealed, holstered with the trigger covered, and carried with the safety on and no round in the chamber.

The School of Engineering statement on EdTech

Professors and instructors at the KU School of Engineering are aware that students sometimes post or access course assignments, labs, and exam questions on EdTech platforms (such as Chegg).

Please note that agreeing to an EdTech service's "terms of service" does not protect you if an academic misconduct investigation is initiated. Platforms like Chegg retain and release traceable user data upon request.

Using these services constitutes academic misconduct, violates the School of Engineering Rules & Regulations, and can lead to a failing grade in the course, a transcript citation, and expulsion from the University of Kansas. Instead, please utilize authorized resources such as instructor office hours, TAs, and tutoring.

Ethical foundations for technical professionals

As computing and engineering professionals, you are expected to know and apply the professional codes of ethics throughout your academic and professional careers:

As the ACM preamble notes: "Computing professionals' actions change the world. To act responsibly, they should reflect upon the wider impacts of their work, consistently supporting the public good."