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people:kargin:math471_spring2025 [2025/10/18 20:38]
kargin
people:kargin:math471_spring2025 [2026/01/19 13:48] (current)
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-Syllabus+====== Math 571: Advanced Probability — Spring 2026 ======
  
 +===== Binghamton University =====
  
-==== Math 471 Advanced Probability. Spring 2026.==== +**Instructor:​** Vladislav Kargin \\ 
-Binghamton University ​+**Office:** WH-136 \\ 
 +**Meeting time and location:** TR 8:00–9:30 AM, WH 329 \\ 
 +**Office hours:** TR 10:​00–11:​00 AM
  
-  * Instructor: Vladislav Kargin +----
-  * Office: WH-136 +
-  * Meeting time and location: TR -- 8:00-9:30AM -- WH 329 +
-  * Office hours: Wednesday -- 12-1:​30pm ​+
  
-** This course is a 4-credit course, which means that in addition to the scheduled lectures/​discussions,​ +This course is a 4-credit course, which means that in addition to the scheduled lectures/​discussions,​ students are expected to do at least 9.5 hours of course-related work each week during the semester. This includes things like: completing assigned readings, participating in lab sessions, studying for tests and examinations,​ preparing written assignments,​ and other tasks that must be completed to earn credit in the course.
-students are expected to do at least 9.5 hours of course-related work each week during the +
-semester. This includes things like: completing assigned readings, participating in lab sessions, +
-studying for tests and examinations,​ preparing written assignments, completing internship or +
-clinical placement requirements, and other tasks that must be completed to earn credit in the  +
-course. ​**+
  
-=== Prerequisite ===+---- 
 + 
 +===== Prerequisite ​=====
  
 Probability Theory (MATH 501) Probability Theory (MATH 501)
  
-=== Description ===+===== Description ===== 
 + 
 +This course is an introduction to the advanced concepts of probability theory. It covers topics such as: Measure theory, Probability spaces, Random variables, Conditional Expectations,​ Stochastic processes, Martingales,​ Limit Theorems, Large deviations.
  
-This course is an introduction to the advanced concepts of probability theory. It covers topics such as: Measure theory, Probability spaces, Random variables, Conditional Expectations,​ Stochastic processes, Martingales,​ Limit Theorems, Large deviations 
-    
 The course is intended for students who have a strong foundation in probability theory. The course is intended for students who have a strong foundation in probability theory.
  
 +===== Recommended Text =====
  
 +Durrett, //​Probability:​ Theory and Examples//, 5th edition. PDF available at [[https://​services.math.duke.edu/​~rtd/​PTE/​PTE5_011119.pdf|PTE]]
  
-=== Recommended Texts ===+===== Lecture Notes =====
  
 +Instructor'​s lecture notes will be provided and posted on Piazza.
  
-Durrett "​Probability:​ Theory and Examples"​ 5th edition, pdf available at [[https://​services.math.duke.edu/​~rtd/​PTE/​PTE5_011119.pdf|PTE]].+===== Communication =====
  
 +We will use Piazza ([[http://​piazza.com/​|piazza.com]]) for communication. All announcements will be sent to the class using Piazza.
  
 +----
  
 +===== Class Structure and Participation =====
  
-=== Piazza===+Each class session is divided into two parts:
  
-We will use Piazza ​("http://​piazza.com/"​) for communication. All announcements will be sent to the class using Piazza. +**Student-led segment ​(30–45 minutes):** Students take on rotating roles to present and critically examine ​the day's material.
- +
  
 +**Lecture segment (45–60 minutes):** Instructor extends the material, addresses misconceptions,​ and covers additional applications.
  
-=== Homework Policies ​=== +==== Roles ====
  
-Weekly sets. I fully grade two or three problems (announced after submission);​ the other count for completion. Solutions must be concise (≤1 page/​problem) and list the named results used (e.g., “DCT + UI”). +Each session involves:
-Starting HW2, the solution for these problems must be typed in LaTeX, typeset to pdf and submitted by the due date. 3 late-day tokens total for the term; beyond that late work is not accepted. ​+
  
-Rubric for a HW problem: +  * **Presenters (2 students):** One states definitions,​ notation, and theorem statementsthe other outlines the proof and provides an example. 
-4 = correct & clear3 = essentially correct ​(minor gap); 2 = right idea with major gap; = meaningful progress; 0 = off-track+0.5 exposition bonus possible ​(capped at 4).+  * **Skeptics ​(2 students):** One checks correctness and catches errorsthe other proposes counterexamples when assumptions are weakened. 
 +  * **Scribe (student):** Records theorem statements, key proof steps, questions raised, and instructor additionsNotes should NOT include names—they are learning material, not meeting minutesSubmit within 24–48 hours; instructor reviews and shares with everyone. 
 +  * **Observers ​(3 students):** Participate in discussion and ask questions; may be called on for examples or perspectives.
  
- I may invite you to brief board checks on your own solutions; these verify understanding and may adjust the HW score slightly.+==== Role Assignments ====
  
-You may discuss ideasbut write your own solutions.+  * Sunday evening: Instructor announces which pairs are presenters and skeptics for Tuesday and Thursdayand which results will be covered. 
 +  * Within-pair role assignment: Students decide among themselves or flip a coin at the start of class.
  
 +Students are expected to pre-read the assigned material before each class.
  
 +----
  
-=== Exam ===  +===== Homework Policies =====
-There will be one in-class midterm (open-book/​no-web) and a final take-home exam with a brief (~10-12 minutes) oral follow-up. I will choose one of your solutions and ask a few “why does this step hold? / where does the hypothesis bite?” questions. Final is cumulative.+
  
 +Weekly problem sets. I fully grade two or three problems (announced after submission);​ the others count for completion. Solutions must be concise (≤1 page per problem) and list the named results used (e.g., "DCT + UI").
  
 +**Format:** Starting HW 3, solutions must be typeset in LaTeX and submitted as PDF. Non-LaTeX submissions will be returned without grading.
  
 +**LaTeX resources:​** Homework templates will be posted on Overleaf. Students should create a free account at [[https://​www.overleaf.com/​|Overleaf]].
  
-=== Grading === +**Submission:** Submit via Gradescope as PDF by the due date.
-  ​Homework (45%) +
-  ​Midterm exam (15%) +
-  ​Final write-up (30%) +
-  ​Final follow-up (10%) +
- +
  
 +**Late policy:** 3 late-day tokens total for the term; beyond that, late work is not accepted.
  
 +**Rubric:**
 +  * 4 = correct & clear
 +  * 3 = essentially correct (minor gap)
 +  * 2 = right idea with major gap
 +  * 1 = meaningful progress
 +  * 0 = off-track
 +  * +0.5 exposition bonus possible (capped at 4)
  
 +I may invite you to brief board checks on your own solutions; these verify understanding and may adjust the HW score slightly.
  
-/* +You may discuss ideas, but write your own solutions.
-=== Project === +
-You are supposed to prepare a project for this course and make a presentation on the project.  +
-The project should cover some topic in probability theory. You can choose ​your own topicIt might be a topic, which is not covered by the lecturer, or it might be a recent paper in a mathematical journal. ​  +
-You are supposed to give a 30-minute presentation on the topic, which should be a lecture to your fellow students. You may choose to do a blackboard lecture or a slide presentation,​ as you prefer. +
-You presentation will be graded on the following criteria:+
  
-    • Clarity: Your presentation should be clear and easy to understand. +----
-    • Engagement: Your presentation should be engaging and interesting. +
-    • Answering questions: You should be able to answer questions from the audience about your topic.+
  
 +===== Exams =====
  
 +**Midterm:​** One in-class exam (open-book, no internet). Thursday, March 5, 2026.
  
-<​h2>​Data Analysis Contest</​h2>​ +**Final:** Take-home exam with brief (10–12 minutes) oral follow-upwill choose one of your solutions ​and ask "why does this step hold?" / "where does the hypothesis matter?"​ questionsThe final is cumulative.
-<​p>​Students will compete against each other in Data Analysis ContestThe competition ​will begin on Tuesday, Feburary 20 and can be completed in teams of 2 &ndash; 4 members. Grades will be based upon a progress report ​and a final report (one per team) as well as the contest resultsFurther details about the contest along with specific grading criteria will be given in a separate document and discussed in class.</​p>​ +
-*/+
  
 +----
  
 +===== Grading =====
  
 +^ Component ^ Weight ^
 +| Homework | 40% |
 +| Participation (presenter/​skeptic/​scribe) | 10% |
 +| Midterm exam | 15% |
 +| Final write-up | 25% |
 +| Final oral follow-up | 10% |
  
 +----
  
-=== Tentative schedule ​===+===== Schedule =====
  
-| Midterm | TBA +^ Event ^ Date ^ 
-Final Exam TBAas scheduled by the University|+| Classes begin | Tuesday, January 20 | 
 +| Midterm | Thursday, March 5 
 +Spring break March 28 – April 6 | 
 +| Last day of classes | WednesdayMay 6 | 
 +| Final exam | As scheduled by the University |
people/kargin/math471_spring2025.1760834330.txt · Last modified: 2025/10/18 20:38 by kargin