Associate Teaching Professor of Linguistics at UC San Diego
Director of UCSD's Computational Social Science Program
A Reference for Course Design
Note: This document is evolving and living, and although it’s targeted towards linguists, it may be valuable to others. Check back for updates, and email wstyler@ucsd.edu for typoes. Thanks to the LIGN 287 Students in Fall 2022, for whom this resource was designed, for their assistance and additions to the work here.
Learning Outcomes
This is a brief listing of some types of Learning Outcomes. Not exhaustive nor principled, just a synthesis of existing ontologies.
Knowledge/Fact Outcomes
Pieces of information about the world, about concepts, or about relationships between concepts. Examples could include:
- Students should be able to give the IPA symbols for all consonants used in Standardized US English
- Students should know the titles and dates of major publications in the Minimalist Program
- Student should be able to explain the difference in terms of signal processing and utility between a broad and narrowband spectrogram.
Algorithmic/Analytical Outcomes
Knowledge of processes, methods, or algorithms relevant to a field of study. Examples could include:
- Students should be able to change the spectrogram window length in Praat
- Students should be able to identify alternations, choose an underlying form, and produce a rule given a phonological dataset
- Students should be able to draw a fully specified syntax tree for a sentence which includes a complementizer
Motor Outcomes
Knowledge of how to perform specific physical actions required to succeed in the field. This generally involves interaction with something in the physical realm. Examples could include:
- Students should be able to produce all implosive sounds on the IPA chart at the start and end of a syllable, as well as intervocalically.
- Students should be able to work with an experimental participant and attach/glue Electromagnetic Articulography sensors to the lips, tongue, head, and jaw.
- Students should be able to draw a sagittal section of a human head on a chalkboard and make reference to it during discussions.
Metacognitive or Attitude Outcomes
Changes in a student’s attitude or understanding of their own thinking towards material in the course. Examples could include:
- Students should be able to evaluate their own confidence in their hypotheses about language structures in a language during fieldwork-style language analysis
- Students should understand the role of sociolinguistic factors resulting from the ‘unnatural’ circumstances while considering phonetic results
- Students should understand and respect the work done by language teachers in a fieldwork setting
- Students should become more attuned to and more easily able to identify the hallmarks of systemic racism, sexism, and anti-indigenous attitudes while evaluating language policies
Emotional Outcomes
Changes in a student’s emotional state regarding the material in the course.
- Students should feel confident while designing a course syllabus
- Students should feel passionate about linguistic diversity in their own social communities
- Students should feel confident explaining the advantages and disadvantages of optimality theoretic approaches to phonology
Value-based Outcomes
Changes in a student’s values or moral approach to the world coming about from the course.
- Students should understand that all theories have limitations, and seek to minimize non-productive theoretical infighting
- Students should understand, acknowledge, and act to promote the value of collaboration with language communities in documentation
- Students should leave this learning community with a stronger desire to both use and model anti-racist pedagogical approaches
Threshold Concepts
Definition
‘Threshold Concept’ is a term originally from Jan Meyer and Ray Land in 2003. Here’s the Publication. Here’s another great resource.
Threshold concepts are generally considered to have the following properties:
- They transform the learner’s perception
- The transformation is permanent
- They’re Integrative (students combine elements from prior understanding)
- They allow students to move on to other concepts
- They are troublesome to learners
- ‘Dangerous knowledge’ in that it can change everything if not completely understood
- They’re often viewed as a ‘rite of passage’ in the field
- They may involve rebuilding existing knowledge
Strategies for Addressing Threshold Concepts
- Target those concepts directly
- Explain their importance to students
- Make the teaching for it exceptional
- Model the struggle and show what the confusion does
- Treat them differently according to learning outcome types
- Offer extra support for learning them
- Office hour sessions
- Extra homeworks or assignments
- Extra tutorials/videos
- Clear the way for them in your course
- Don’t just ‘tuck them in’ among other topics
- Allow students to struggle
- Give them a safe place to not have learned it yet
- “First, screw this up here where it’s safe to, then we’ll test whether you’ve gotten it later”
- Attack from many angles
- Figure out ways students learn it from office hours and discussions with students
- Introduce the material several times targeted at different populations
- Cyclical course design, hitting the same points over and over in different sections of the course
- Sneak up on it, starting with easy analogues, then increasing
complexity
- Don’t jump right into tone perception, start with musical notes
Learning Modalities
What are different ways to teach material? What are their pros and cons?
Lectures
Lecturer or lecturers talk to students in large groups with majority of interaction being one-way.
- Lots of material covered (+)
- Control (+)
- AV is easier (+)
- You can fit a bunch of people (+)
- Monotony (-)
- Little interaction (-)
- Little ‘experiential’ learning (-)
- Hard for algorithmic outcomes (-)
Sections and Labs
Smaller groups of students (e.g. 25-40) in a dedicated TA-led session, with activities, interactive Q&A, or discussions.
- Great for experiential work (+)
- Allows use of computing resources (+)
- Closer group work (+)
- Real time feedback (+)
- Removes ‘the Professor’ from the equation (+)
- Time consuming (-)
- Often independent (-)
- Requires good IAs to be consistent (-)
Task Group Work
‘Let’s have everybody get into groups and complete this activity’. ‘Flipped classrooms’ often fit into this category.
- Great for collaborative learning (+)
- Good for algorithmic work (+)
- Disruptive (-)
- Not all rooms are well suited for it (-)
- Going into groups eats time (-)
- This can lead to (and be made less effective by) ‘Grouphate’ (-)
- Grading group stuff is hard (-)
- Ergonomics can be bad in lecture halls (-)
Discussion-based Classes
Each day has a topic (or reading, theme), instructor introduces it and gives background, then people (generally in the 10-40 range) discuss, with instructor acting as a facilitator.
- Guided, but student led (+)
- Emphasizes readings (+)
- Builds community (+)
- Unprepared students are a problem (-)
- Easy for students to hide (-)
- Less material covered (-)
- Danger of going off the rails (-)
Seminar Model
Instructor loosely facilitates, or assigns students to facilitate, letting the group go where it pleases.
- De-emphasizes your role (+)
- Provides teaching experience (+)
- Allows for tight, ongoing discussion (+)
- Unprepared students are a problem (-)
- Covering large amounts of material is awkward (-)
Guided Exercises/Workshops
Imagine conference workshops, generally involving a skill/algorithm, or guided activities found in a language classroom
- Very interactive (+)
- Amazing for algorithmic work (+)
- Feedback is difficult (-)
- Course sizes are limited (-)
- Gaps between strongest and weakest students create friction on both ends (-)
Field Trip
Same as above, but offsite, in-situ
- Salient (+)
- Specific experience (+)
- Makes things more concrete (+)
- See a subset of challenges which don’t show up in controlled circumstances (+)
- Expensive and Logistically Hard (-)
- Chaotic (-)
- Legally difficult (-)
- Accessibility issues (-)
Independent Work
Students come to a place and work, and the instructor/TA floats and answers questions/offers help
- Requires no structure (+)
- Great for students of many levels (+)
- Excellent for intensely applied disciplines (+)
- Less ‘taught’ (-)
- Unmotivated students fall behind (-)
Forced Independent Research
Homework or papers requires students to do the learning and report back. Group projects can fall into this category too.
- Diverse topics (+)
- Students can find their own level (+)
- Great as a final paper (+)
- Group projects spread the load and allow greater depth (+)
- Group projects mean fewer papers to read (+)
- Hard to grade (-)
- Limited ability to guide it (-)
- Can wind up as a ‘win more’ project (-)
- Group projects breed strife, pain, and inequity (-)
Demonstrations
Instructor shows a task or process, students watch
- Allows for risky or non-replicable things to be shown off (+)
- Shows the process explicitly (+)
- Works with limited resources (-)
- Non- interactive (-)
Learning Communities
Everybody collaborates, some limited facilitation
- Breaks down power structures (+)
- Leads to a strong community vibe (+)
- Can feel disorganized if not well facilitated (-)
- Varying degrees of commitment can leave folks behind (-)
Critique-based Classes
Students do work outside class, and class time is used to discuss and critique that work.
- Instant feedback (+)
- Many perspectives on the work (+)
- Quality and level of feedback varies (-)
- Anxiety-provoking without (and even with) strong sense of community (-)
Course Scheduling
Generalized Course Scheduling Concerns
Course schedule matters. The structure of your course reflects structure in the learning, and should help both you and your students to organize information. A well scheduled course will…
- Ensure that student activities or discussions can be completed using the information already available
- Ensure that students are not tested or graded on information which they’ve not been taught yet
- Give important or threshold concepts time and space to be learned before evaluation
- Incorporate university holidays ahead of time, rather than two weeks in when Will is reminded of their existence
- Make the students feel like the course is well organized and ‘makes sense’
- Minimize the extent to which students have to ‘reorganize’ their notes (or conceptual understandings) in light of new knowledge
- Include ‘buffers’ or optional, skippable sessions in case of illness, snow days, or overruns
- Students should be able to learn something about the material simply by looking at how it’s organized into a term
Ways to think about Schedule Interdependence in courses
Most courses have some elements of the schedule which depend on others (that is, they are necessarily ordered with respect to one another). Each of these has pros and cons, and each class is someplace in the gradient here. I’m also presenting some TV shows which follow a similar pattern, as a sort of analogy.
Unordered, ‘Grab Bag’ Schedules
There is no dictated order for the course, and any week could be scheduled any week. Common for colloquium series or student research presentation courses.
- Incredible flexibility (+)
- Missed days aren’t a problem for students or class (+)
- Easy to coordinate many faculty schedules (+)
- Feels disorganized (-)
- No sense of ‘building’ anything and no structure (-)
- Homeworks and quizzes and tests naturally impose constraints on timing anyways (-)
This is like a TV show with strictly independent episodes and plotlines. Watching them out of order doesn’t matter, you miss nothing, and you can’t tell if you missed an episode. Think ‘The Simpsons’, or many episodic wildlife documentaries
Clustered Schedules
Imagine a course where weeks 1-3 cover Topic A, weeks 4-6 cover Topic B, weeks 7-9 cover Topic C. Within these topics there is strong internal order, but it’s not crucial whether Topic A comes before Topic B or vice versa. This works well with giving major concepts ‘a week’ in the schedule.
- Provides natural concept map for students (+)
- Allows reordering of clusters to match external schedule constraints (+)
- A student who missed all of Topic A isn’t disadvantaged during Topic B (+)
- Exams can feel like a bit of a grab-bag (-)
- Tougher to build an overall narrative (-)
This is like a TV show with largely independent episodes, but some longer narrative arcs spanning groups of episodes, or a given season. If you’re watching out of order, you’ll be a bit confused in a few places or might have some minor ‘spoilers’, but it’s still mostly understandable and enjoyable. Think about the subplots within ‘The Office’, or perhaps different seasons of ‘Great British Bake Off’ or other reality shows
Strictly Cumulative Schedules
In this sort of course, every session depends on knowledge from prior sessions. Classes have a necessary order relative to one-another, which could not be reversed.
- Very easy to ‘tell a story’ (+)
- Building complexity can be satisfying for students (+)
- Allows for a strong narrative arc (+)
- Encourages attendance, by necessity (+)
- Some courses need to be this way (e.g. ongoing fieldwork) (+)
- Missing any session leaves a knowledge deficit, and students must ‘catch up’ to be able to continue learning. (-)
- Students who fall behind fall WAY behind (-)
- Flexibility in sessions is limited to delays (-)
- Guest speakers and one-offs are hard to find a ‘good place’ for (-)
This is a TV show with a strong narrative arc, where missing an episode makes subsequent episodes very hard to understand. “Previously on…” is a necessity, and ‘spoilers’ are a very real thing. Most major drama shows are this way.
Course Scheduling Approaches
Your course can have many relationships to scheduling and building a greater narrative arc. Once you’ve figured out your course’s ordering type, you can choose any of the below ideas to organize your course (or your clusters). This is, again, not a complete ontology, just ones that I’ve encountered, and each of these could structure a whole course, or work within a cluster within a course
Genealogical Approach
In this structure, you organize information in terms of how it was developed in the field, either as a network of interrelated theories, or as a timeline. “First, this theory happened, which is week 1. Then, we’ll talk about this theory, which was a reaction to the first theory. From there, we developed…”.
- Students learn the history of the field while learning material (+)
- Makes understanding the contrasts between theories very strong (+)
- Not all fields have ‘just one genealogical line’ making this difficult (-)
- May suggest teaching theories or ideas which, all considered, aren’t worth knowing (-)
Ontological Approach
Your structure itself provides a characterization of the types, natures, and relationships between the concepts present. “Our theme this quarter is theories in speech perception, and we’ll first look at motor-based theories for the first few weeks, then acoustic theories, then direct realist theories, then second language acquisition focused theories.” Or “Let’s look at the different ways that fear plays a role in human psychology, spending each week on a different kind of fear”
- Very good for a survey course, looking at different instantiations of a concept (+)
- Provides easy clustering, and options for hierarchical structures of clusters within clusters (+)
- The course structure roughly represents a concept map, which is useful for students to understand of itself (+)
- Can feel ‘slow’ (‘we keep looking at the same thing!’) (-)
- Can be difficult to incorporate elements from outside the map without making weird implicatures (-)
- The ontology itself needs to be explained, perhaps before students have the knowledge to understand its nature (-)
Metaphorical Approach
Your course uses a central, meaningful metaphor or analogy to structure the content. This could be something like ‘moving from smallest units of language (phones) up to the largest units (discourse)’, a language acquisition course which starts with the youngest ages and looks at progressively older kids through the term, or a class on the Silk Road which talks about participating countries from East to West during the quarter.
- If explained well, helps reinforce a key element of the content (+)
- All the content’s ordering ‘makes sense’ (+)
- Can be ‘cute’ or memorable (+)
- Metaphors don’t always apply cleanly, making for awkwardness if (e.g.) it’s unclear where a given session ‘should’ fall (-)
- Can be hard to shoehorn everything into one metaphor (-)
- There may be necessary orderings which don’t track with the metaphor (-)
Step by Step Approach
For some particularly algorithmic tasks, there is truly a step-by-step way that the problem must be approached. For natural language processing, you might first think about corpus selection, then text formats, data cleaning, then tokenization, then language model construction, training, testing, and tweaking. This is a very plausible course structure, in and of itself.
- Lends itself very well to a class with a lab or workshop component (+)
- Teaches students the process itself. (+)
- Can be difficult to ‘work in’ additional background information or other topics (-)
- Needs to be introduced with a greater overview of the task (-)
- Some steps take more or less time, which can complicate scheduling (-)
Tick-tock Approach
Within the course, there’s a consistent, repeating structure and rhythm to how sessions are composed. Perhaps Monday and Wednesday are lecture based, and Friday’s session is an in-class data analysis. Or on Tuesdays, you talk about theory, and on Thursdays, talk about the theory’s application. The course for which this was originally written uses a tick-tock structure, with Tuesdays being workshopping of the work done over the weekend, and Thursdays introducing new material and concepts to be implemented over the weekend.
- “Mixes it up”, making sessions feel less monotonous (+)
- Allows the course sessions to easily take multiple forms without confusion (+)
- Allows you to blend in application and active engagement without a dedicated session (+)
- Students internalize the rhythm, and get confused if you deviate from it (-)
- Missed days due to holidays or otherwise turn ticks into tocks, and mess everything up (-)
- Sometimes, you need a few ticks with material before you can tock about it in depth (-)
Storytelling Approach
Your structure is determined creatively, with the intent to produce a final course layout which is maximally engaging, entertaining, or ‘interesting’, even if the reasoning for a given ordering isn’t clear outside the instructor’s mind, and even if it may not be optimally efficient.
- Can be incredibly effective for creating interesting and engaging classes (+)
- Allows you to manipulate elements of surprise and emotion (+)
- Takes on an element of performance (+)
- The structure itself communicates less about the nature of the information (-)
- Underserves the unengaged (-)
- Requires skill and signposting to avoid this feeling like an accidental grab-bag ordering (-)
- A course organized in this way can be very instructor specific (-)
“Before and After” Approach
Your course is structured around a major paradigm shift, whether theoretical, analytical, or methodological. First, you do, analyze, or contemplate things ‘the old way’, then introduce the ‘new’, and proceed to re-cover the previously covered content through the lens of the new approach. The goal is for the students to experience the disruption, improvement, and change directly and intuitively. Think “Syntax before and after Chomsky”, “Rome before and after Julius Caesar”, or “Generative vs. Usage approaches to Phonology”
- Incredibly powerful for showing the benefits or differences between approaches (+)
- Students will feel the contrast emotionally and practically, not just know it (+)
- Rightfully centers key changes or insights in the field (+)
- Allows for an element of surprise and ‘shock’ (+)
- Necessarily reduces the scope of the course (-)
- Only works in the context of a paradigmatic shift (-)
- Runs the risk of feeling repetitive if the contrast isn’t strong (-)
Spiraling approach
A variant of ‘before and after’, this structure repeatedly returns to the same set of questions, or conducts the same set of analyses, each time in a different context. The individual elements of changing context could be different theories or analytical frameworks, different language families, different cultures, each of which is subject to the same battery of examinations. Combined with opening and closing summaries, this is very powerful.
- Gives strong intuitions about differences and similarities (+)
- Gives repeated practice with the questions and analyses used for each (+)
- Reinforces important core questions and threshold concepts (+)
- Runs a strong risk of feeling repetitive, so minor modifications or ‘we’ll skip this one, this time’ are wise (-)
- Doesn’t lend itself well to cumulative testing (-)
- Requires strong contrast among the contexts to really spiral (-)
“Learn the thing, then do the thing”
In this structure, the first portion of the class is spent with detailed learning of a method, analysis, approach, or tool, and the second portion is spent almost exclusively on application, with a strong applied, hands-on, or lab-focused component. (Credit to Ben Lang for a nice title for this category)
- Great for cases where there’s a central, complicated task which doesn’t lend itself well to piecemeal implementation (+)
- Offers lots of ‘frontloaded’, technical knowledge (+)
- Well suited to methods which are dangerous and require a great deal of training before any contact (+)
- Allows you to change locations or modalities at the changeover point (“After this day, we’ll meet in the MEG lab”) (+)
- Can feel very much like two different classes with different room/scheduling needs (-)
- Offers little ‘hands on’ engagement for early parts of the learning (-)
Inheriting External Structures
Your course takes its ordering directly from an external structure outside of your control. This could be mirroring the required class ordering for your major, this could be mirroring a textbook, or integrating with another class or lecture series. This can also happen when many guest speakers are invited with schedules out of your control
- If you’re dependent on a textbook, it’s convenient to have students follow the same order (+)
- This ordering may help students be more prepared for an external task (+)
- You lose control of orderings and can’t tune to your curriculum’s needs (-)
- May be harder to insert necessary background and learning outcomes (-)
Grading
Generalized Grading Concerns
Here are a few things to contemplate as you consider grading policies:
- Are you giving students ample evaluation alongside (or in the form of) grading?
- Do your policies incentivize earning grades, learning material, or both equally?
- How will you award extra credit at the course level? (e.g. for SONA studies)
- Does your grading schema favor students with certain strengths (e.g. exams, writing)?
- Does your choice of grading methods favor students with a particular language or cultural background?
- How will you handle the inevitable requests for individual grades to be ‘curved’ or ‘bumped up’?
- How are you balancing expected-easy vs. expected-hard grade
categories?
- What do you expect the average grade to be? How does your schema work to that end?
- How much of a students’ grade is from solo vs. group assignments?
- How much of a students’ grade is from verifiable demonstration of that student’s knowledge (e.g. in-person exams or quizzes, in-class work) vs. work that could be completed collaboratively or dishonestly (e.g. homeworks, online assignments)?
- Do students have enough assignments or check-ins to prevent them from falling behind?
Grading Schemes
There are many ways to calculate grades in a course. Here are a few common ones, named as sensible to me:
Qualitative Grading
Instructors simply say ‘This is your grade’ based on some rough metrics or subjective impression of work and effort.
- Useful for graduate seminars, evaluating TAs, or working through a one-on-one research apprenticeship, where no ‘assignments’ exist and everybody’s expected to get a high grade (+)
- Completely subjective, so you’re grading based on memory and impression (-)
- Grades are ‘indefensible’, and boil down to ‘because I said so’ (-)
- This is a very easy place for subconscious bias to sneak in to grades (-)
- Intractable for large numbers of students (-)
Single Assignment Grading
The quarter’s grade is based solely on a final exam, paper, or project. No other work is graded, or if it is, no other work counts.
- Less work to grade (+)
- No during term grade inquiries or lawyering (+)
- Penalizes students who are bad at (e.g.) exams or writing papers (-)
- Stressful for students, as everything is resting on one assignment (-)
- Students have no way to know their grades until they know their final grade (-)
Cumulative point-based Grading
Students earn points throughout the term on assignments, and the course grade is based entirely on the number of points earned out of the hypothetical maximum number. Each point of each assessment contributes equally to the final grade, and ‘weighting’ is done entirely by assignment point totals.
- This allows overabundance of points (e.g. the course is graded out of 1000 points as the ‘100%’ line, but students can earn 1200 points across all assignments) (+)
- Calculating grades is very easy (+)
- It’s tricky for students to estimate what their final grade will look like early in the quarter (-)
Percentage-based Grading
Every assignment is graded and only percentages are saved. Final grades are calculated as an average across percentages (within categories, or overall).
- The number of points within a given assignment doesn’t matter (+)
- Works very well with weighted categories (+)
- Without weighted categories, every single assignment contributes equally to the grade (-)
- There’s non-trivial math required to calculate grades with categories (although Canvas can do it) (-)
Distribution-based or ‘Curve’ Grading
Students are given a quantitative score (using one of the prior methods). At the end of the term, students are assigned a final grade which is derived by formula from the distribution of student grades. For example, percentiles could be mapped onto letter grades (such that only students in the 90%+ percentile are awarded ‘A’), or the top N students get A+, then the next N students get A, and so forth.
- You don’t have to worry about whether your exams or grading scheme are fair or reasonable, as your grade distribution is ‘fixed’ at the end. (+)
- The choice of distribution is arbitrary, so you choose your median grade (+)
- Performance is decoupled from grade, as a 95% earned could be assigned “B” (-)
- Students with nearly identical scores could be assigned different grades (-)
- Explaining this process to students is not straightforward, and it is not popular (-)
- Other grading systems still have the ability to ‘curve’ (e.g. adding points until the maximum earned grade is 100%), without the equity issues (-)
Contract-Based or Completion Grading
Students are expected to put in consistent effort, and they log their efforts. If students do this, and any checkpoint assignments, they are guaranteed a given grade. Points ‘lost’ or grade reductions are based instead on failure to complete work or attend.
- Students can target a specific grade with their effort level and get it (+)
- There is no question for a student what their final grade will be (+)
- Grading no longer separates strong and weak understanding, just strong and weak engagement (-)
- Grade distributions skew higher (-)
Self Grading
Students are given rubrics or keys and proceed to complete and then grade their own work. The instructor then spot-checks some or all of these grades, with the goal being to identify students who are either being overly harsh to themselves, or are taking advantage by assigning a grade that’s higher than the rubric would allow.
- Students can put in the effort to match the grade they need (e.g. do B- work if that’s all they need) (+)
- There are no surprises for students (+)
- Students tend to skew harsh, based on my limited experience (-)
- Requires in-depth, careful rubrics (-)
- Some students can be uncomfortable with this (-)
Skills-based Grading
Instructors provide students with a complete list of ‘skills’ (applied learning outcomes) at the start of the quarter. Assignments are graded by marking which skills each student has demonstrated. Student grades are based on how many of those skills they’ve demonstrated by the end of the quarter.
- Learning is fronted, as students know what they have to do. (+)
- Makes very clear to students what they have and haven’t learned yet (+)
- Students need not submit work if they’ve already demonstrated the needed skills (+)
- Course software (e.g. Canvas/Gradescope) generally doesn’t support it (-)
- Grading is more complicated, as you have to track every skill for every student (-)
- A bit of a culture shock for students (-)
Assignment Design
When designing assignments for your class, here are some basic ideas to consider:
- Think about Bloom’s Taxonomy, and make sure you’re writing questions which address a variety of objectives
- Harmonize your assignment design directly with your learning outcomes
- You have a limited grading time budget, use the bulk of that grading time on the most important concepts
Question Types
Below are some of the common question types you’ll find in many assignments. I’ve annotated them with letters corresponding to their type in Bloom’s Taxonomy Revisted. C = Creating, E = Evaluating, An = Analyzing, Ap = Applying, U = Understanding, R = Remembering.
‘Fill in the Blank’
Questions which ask students to give a string in response to a prompt, where there is a set of fixed, correct answers, any of which are expected to get full credit. Variations include paragraphs with a set of blanks.
- What major world language family is English a part of? (R)
- Of the compressing dimensionality reduction methods we discussed in class, which is best suited for use on a signal which comes from the addition of multiple periodic signals of unknown frequency and shape? (An)
Matching
Questions which provide a bank of answers, and ask students to associate answers with their correct question. Variants can include unused answers, multiple questions matching to the same question, or ‘fill in the blank’ with an answer key, where each is mapped to the proper place.
- Match these IPA symbols to their places of articulation? (R)
- Based on the snippets below, match each file contents to the data input format (E)
- Match each research question below to the statistical algorithm best suited for inferential analysis of that question (E)
Multiple Choice
Single questions with a bank of possible answers. Variations include ‘Choose all that apply’, or the addition of ‘None of these’.
- Which of the following places of articulation is not used in English? (R)
- Which is a correct explanation of the term ‘phonotactic constraint’? (U)
- If 0.1% of people have a given disorder, 86% of tests detect the disorder, and 10% of tests are false positives, use Bayes theorem to calculate the probability that a person has the disorder if they get the test, and choose the right answer from the list below. (Ap)
- Which of the below is not an advantage of Optimality Theory over SPE-style approaches to Phonology? (An)
- Below are four arguments for use of the GRE in graduate admissions. Based on what we learned this quarter, which of these is not a valid argument. (E)
True/False
Single assertions which are evaluated by the student as being ‘True’ or ‘False’.
- True or False: ‘coda’ refers to the consonant at the start of a syllable (R)
- True or False: One could reconstruct the original signal following a fourier transform, even if you discard phase information (U)
Short Answer (Open Ended)
Students are asked to provide a short, 1-2 sentence answer to a question, but there are many answers possible for full credit.
- Give an example of a language which uses case to code grammatical relations (R)
- Give a sentence which includes a complementizer within a noun phrase (U)
- Write a test question which evaluates student knowledge of Bayes Theorem (Ap)
- Of the problems we’ve worked with in class, list one which is particularly well suited to a usage-based approach to phonology, and explain why? (An)
- Below is a small dataset illustrating an alternation, and a phonological rule given by a student from a prior year. Is this rule sufficient to describe the pattern of variation? Does this rule overgenerate? (E)
Longer Answer (Open Ended)
Students are asked to give, as a part of a greater assignment, a longer response, analysis, or creation, which is graded as a writing assignment, but is not ‘the whole assignment’. Variants include giving a ‘question bank’, where students are provided a list of 5-10 questions, one of which will be on the exam.
- List two examples of language or social policies we’ve discussed this quarter which, although they were claimed to be benevolent or hid this intention, were actually designed to reduce, discourage or criminalize the use of indigenous languages, and explain how they did so. (R, U)
- Create two analyses of the dataset above, one using the sonority hierarchy, and another using conventional rules. Explain which works better, and why. (Ap, An)
- Below is a sample, somewhat naive analysis of the same dataset you’ve just completed. Explain, in a few paragraphs, why this is a suboptimal analysis, making reference to areas where your own analysis differs. (E)
- Create a fictional language dataset consisting of at least thirty sentences which shows a split-ergative alignment (C)
‘Show your work’ Questions
Students are asked to solve a problem or complete an analysis, but are forced to describe every step of the process, rather than simply submitting the answer. This is common in math classrooms, but also valuable as an anti-cheating method for other analytical disciplines.
- Find the rank of the below matrix, showing all of your work and describing each step as you go, walking us through your cognitive process. (Ap)
- Use this dataset from Nahuatl, an indigenous language of Mexico, to describe the distribution of [h] and [ʔ]. Write all your analysis in the box below, and describe your thinking between steps. (An)
Metacognitive Questions
Metacognitive questions ask directly about a student’s thought process regarding the material. These don’t always cleanly fit into Bloom’s Taxonomy, but often end up in ‘analyze’ and ‘evaluate’. Some example metacognitive questions are below:
- In (2a) and (2b), you used two different approaches to address the same alternation. Which of these two analyses was more difficult for you? Do you think this has to do with strengths and weaknesses of the approaches themselves, or your familiarity with them? (An, E)
- Examine the course study guide and find the foggiest, muddiest, or least-clear concept. What is it? Now, using the textbook, lecture notes, and the internet more broadly, do a bit of additional research and reading. After this process, is your understanding clearer? What changed? (R,U, sort of?)
- How has your understanding of the field of linguistics changed this quarter? (U, An?)
Piecemeal Analysis Questions
Although having one ‘big’ question for an analysis can be valuable, it is considerably higher-stakes than having a question with many subparts, which break a larger algorithmic task into smaller components. This is, perhaps, more a way of asking a ‘show your work’ question, but has the advantage of making partial credit much easier to assign, and making ‘just ask a friend for the answer’ feel less workable. It is also valuable for guiding students through the process, although runs the risk of students struggling to generalize without this formatting.
- Example: Use this dataset from Nahuatl, an indigenous language of
Mexico, to describe the distribution of [h] and [ʔ] (An)
- List the environments in which each sound occurs, showing the immediate context to either side of the segment and marking the segment’s location with _
- Provide a natural language generalization of the pattern you see (e.g. “X occurs before vowels, Y occurs elsewhere”).
- Describe how you would identify the underlying form among the two.
- Write a phonological rule accounting for the distribution of [h] and [ʔ], using the format given to you in class.
Writing Assignments
Writing assignments generally involve little machinery, and simply prompt the students to share their written thoughts. This could come in the form of an essay based on course material, a full paper with independent research, position/reaction papers based on the material or discussions recently covered, and many more.
These assignments can address all levels of Bloom’s Taxonomy, as well as help students hone their argumentation skills. For more details on creating writing assignments, here’s a great page from University of Minnesota to that end.