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SOURCE:https://caldiscovery.com/anaheim-ca/src-10359.ics
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 ry.com). Event details belong to their publishers. Contains information fr
 om CalDiscovery\, which is made available under the ODbL 1.0.
X-WR-CALNAME:CalDiscovery - anaheim-ca
BEGIN:VEVENT
SUMMARY:San Diego (Leidos) ICS Alumni Reception 2026
DTSTART:20260918T003000Z
DTEND:20260918T023000Z
DTSTAMP:20260903T180718Z
UID:10001091-1789666200-1789673400@ics.uci.edu
CATEGORIES:community
DESCRIPTION:We’re excited to return to San Diego for our annual ICS Alum
 ni Reception! \nYou and a guest are cordially invited to join Dean Marios 
 Papaefthymiou and fellow ICS alumni at this special alumni reception in Sa
 n Diego\, CA. \nWhen: Thursday\, September 17\, 2026\nTime: 5:30PM – 7:3
 0PM \nLocation: Leidos\n4155 Campus Point Ct\, San Diego\, CA 92121 \nHost
 ed on the beautiful rooftop at Leidos\, the evening brings together fellow
  Anteaters\, ICS Dean Marios Papaefthymiou\, and members of the ICS commun
 ity for savory fare\, cocktails and meaningful connections. \nPlease RSVP 
 by Monday\, September 14.
LAST-MODIFIED:20260903T180718Z
URL:https://ics.uci.edu/event/san-diego-leidos-ics-alumni-reception-2026/
X-SOURCE-NAME:UC Irvine Donald Bren School of Information & Computer Scien
 ces
X-SOURCE-URL:https://ics.uci.edu/event/seattle-area-ics-alumni-reception-2
 026
END:VEVENT
BEGIN:VEVENT
SUMMARY:Fixed Point Computation Problems and Facets of Complexity
DTSTART:20260925T180000Z
DTEND:20260925T190000Z
DTSTAMP:20260729T211044Z
UID:10001067-1790334000-1790337600@ics.uci.edu
CATEGORIES:education
DESCRIPTION:Abstract: Many problems from a wide variety of areas can be fo
 rmulated mathematically as the problem of computing a fixed point of a sui
 table given multivariate function. Examples include a variety of problems 
 from game theory\, economics\, optimization\, stochastic analysis\, verifi
 cation\, and others. In some problems there is a unique fixed point (for e
 xample if the function is a contraction)\; in others there may be multiple
  fixed points and any one of them is an acceptable solution\; while in oth
 er cases the desired object is a specific fixed point (for example the lea
 st fixed point or greatest fixed point of a monotone function). In this ta
 lk we will discuss several types of fixed point computation problems\, the
 ir complexity\, and some of the common themes that have emerged: classes o
 f problems for which there are efficient algorithms\, and other classes fo
 r which there seem to be serious obstacles. \nBio: Mihalis Yannakakis is t
 he Percy K. and Vida L. W. Hudson Professor of Computer Science at Columbi
 a University. Prior to joining Columbia\, he was Head of the Computing Pri
 nciples Research Department at Bell Labs\, and Professor of Computer Scien
 ce at Stanford University. Dr. Yannakakis received his PhD from Princeton 
 University. He has served on the editorial boards of several journals\, in
 cluding as the editor-in-chief of the SIAM Journal on Computing\, and has 
 chaired various conferences\, including STOC\, FOCS and PODS. Dr. Yannakak
 is is a recipient of the Knuth Prize\, the INFORMS John von Neumann Theory
  Prize\, he is a member of the National Academy of Sciences\, the National
  Academy of Engineering\, the American Academy of Arts and Sciences\, and 
 of Academia Europaea.
LAST-MODIFIED:20260729T211044Z
LOCATION:Calit2
URL:https://ics.uci.edu/event/fixed-point-computation-problems-and-facets-
 of-complexity/
X-SOURCE-NAME:UC Irvine Donald Bren School of Information & Computer Scien
 ces
X-SOURCE-URL:https://ics.uci.edu/event/seattle-area-ics-alumni-reception-2
 026
END:VEVENT
BEGIN:VEVENT
SUMMARY:From Data to Formulas: Statistical Learning for Scalable Symbolic 
 Discovery
DTSTART:20261008T230000Z
DTEND:20261009T000000Z
DTSTAMP:20260826T000618Z
UID:10001089-1791475200-1791478800@ics.uci.edu
CATEGORIES:education
DESCRIPTION:Abstract: Symbolic discovery\, or learning compact mathematica
 l expressions from data\, offers a form of interpretability in which the f
 itted model is itself a scientific statement. In this talk\, I treat symbo
 lic discovery as a statistical learning problem and discuss scalable metho
 ds for searching large\, structured expression spaces. The starting point 
 is descriptor discovery in materials science\, where candidate predictors 
 are generated from primary physical features through compositions of algeb
 raic operators\, yielding a combinatorially large and highly correlated pr
 edictor space. An iterative nonparametric strategy exploits this compositi
 onal structure to identify\, directly from the primary features\, interpre
 table descriptors\, or “materials genes\,” associated with binding beh
 avior in single-atom catalysis. The talk then turns to a key statistical c
 omponent of scalable symbolic regression: variable selection with Bayesian
  tree ensembles. Here\, selection accuracy can depend as much on posterior
  summarization as on the tree prior\, and a simple\, tuning-free posterior
  summary consistently improves existing approaches and substantially expan
 ds the reach of symbolic regression. A recent extension moves from regress
 ion functions to probability laws\, where the discovered expression must s
 atisfy the structural constraints of a valid distribution. These examples 
 illustrate how statistical formulation through selection\, summarization\,
  and validity can make interpretable discovery feasible at the scale of mo
 dern scientific data.
LAST-MODIFIED:20260826T000618Z
LOCATION:Donald Bren Hall\, Irvine\, CA\, 92697\, United States
URL:https://ics.uci.edu/event/from-data-to-formulas-statistical-learning-f
 or-scalable-symbolic-discovery/
X-SOURCE-NAME:UC Irvine Donald Bren School of Information & Computer Scien
 ces
X-SOURCE-URL:https://ics.uci.edu/event/seattle-area-ics-alumni-reception-2
 026
END:VEVENT
BEGIN:VEVENT
SUMMARY:From Data to Decisions: Reinforcement Learning and Generative AI f
 or Precision Medicine
DTSTART:20261022T230000Z
DTEND:20261023T000000Z
DTSTAMP:20260821T000606Z
UID:10001084-1792684800-1792688400@ics.uci.edu
CATEGORIES:education
DESCRIPTION:Abstract: Precision medicine aims to transform complex patient
  data and clinical knowledge into individualized treatment decisions. Howe
 ver\, this remains challenging when treatments are sequential\, patient st
 ates evolve over time\, and relevant evidence is distributed across real-w
 orld data\, clinical guidelines\, and biomedical knowledge. \nIn this talk
 \, I will discuss how reinforcement learning and generative AI can provide
  complementary tools for addressing these challenges. Reinforcement learni
 ng offers a framework for learning adaptive treatment strategies from long
 itudinal data\, while large language models and knowledge graphs can help 
 organize\, integrate\, and reason over heterogeneous clinical knowledge. I
  will highlight methodological considerations including incorporation of d
 omain knowledge\, uncertainty\, treatment coverage\, and interpretability\
 , and illustrate these ideas through applications in precision HIV care.
LAST-MODIFIED:20260821T000606Z
LOCATION:Donald Bren Hall\, Irvine\, CA\, 92697\, United States
URL:https://ics.uci.edu/event/from-data-to-decisions-reinforcement-learnin
 g-and-generative-ai-for-precision-medicine/
X-SOURCE-NAME:UC Irvine Donald Bren School of Information & Computer Scien
 ces
X-SOURCE-URL:https://ics.uci.edu/event/seattle-area-ics-alumni-reception-2
 026
END:VEVENT
BEGIN:VEVENT
SUMMARY:Bayesian Smoothing and Feature Selection via Variational Automatic
  Relevance Determination
DTSTART:20261029T150000Z
DTEND:20261030T000000Z
DTSTAMP:20260829T000700Z
UID:10001090-1793260800-1793293200@ics.uci.edu
CATEGORIES:education
DESCRIPTION:Abstract: This study introduces Variational Automatic Relevanc
 e Determination (VARD)\, a novel approach for fitting sparse additive regr
 ession models in high-dimensional settings. VARD stands out by independent
 ly assessing the smoothness of each feature while precisely determining wh
 ether its contribution to the response is zero\, linear\, or nonlinear. Ad
 ditionally\, we present an efficient coordinate descent algorithm for impl
 ementing VARD. Empirical evaluations on both simulated and real-world data
 sets demonstrate VARD’s superior performance compared to alternative var
 iable selection methods for additive models. \nThis work is in collaborati
 on with Zihe Liu and Diptarka Saha.
LAST-MODIFIED:20260829T000700Z
LOCATION:Donald Bren Hall\, Irvine\, CA\, 92697\, United States
URL:https://ics.uci.edu/event/bayesian-smoothing-and-feature-selection-via
 -variational-automatic-relevance-determination-2026/
X-SOURCE-NAME:UC Irvine Donald Bren School of Information & Computer Scien
 ces
X-SOURCE-URL:https://ics.uci.edu/event/seattle-area-ics-alumni-reception-2
 026
END:VEVENT
BEGIN:VEVENT
SUMMARY:Learning-Assisted Inference in High Dimensions: Wasserstein Two-Sa
 mple Testing
DTSTART:20261106T000000Z
DTEND:20261106T010000Z
DTSTAMP:20260821T000606Z
UID:10001085-1793894400-1793898000@ics.uci.edu
CATEGORIES:education
DESCRIPTION:Abstract: Two-sample testing is a fundamental problem in stati
 stics\, but detecting general distributional differences becomes increasin
 gly challenging in high dimensions\, where classical distance-based method
 s can suffer severely from the curse of dimensionality. In this talk\, I w
 ill discuss a sequence of approaches that combine optimal transport\, dime
 nsion reduction\, and statistical learning to address this problem. I will
  first introduce a test based on the max-sliced Wasserstein distance\, whi
 ch searches over low-dimensional projections to identify informative direc
 tions along which two distributions differ\, while permitting statisticall
 y valid calibration and inference. I will then consider a more flexible le
 arning-assisted approach in which both projection directions and nonlinear
  witness functions are learned from the data using optimization and neural
  networks\, allowing the procedure to adapt to richer forms of distributio
 nal discrepancy. By combining flexible representation learning with sample
  splitting and Gaussian approximation\, the resulting tests retain rigorou
 s statistical guarantees while avoiding prohibitively expensive repeated r
 esampling. These developments illustrate a broader theme: modern machine-l
 earning tools can be used to discover informative structure in high-dimens
 ional data\, while classical statistical principles provide valid and inte
 rpretable inference.
LAST-MODIFIED:20260821T000606Z
LOCATION:Donald Bren Hall\, Irvine\, CA\, 92697\, United States
URL:https://ics.uci.edu/event/learning-assisted-inference-in-high-dimensio
 ns-wasserstein-two-sample-testing/
X-SOURCE-NAME:UC Irvine Donald Bren School of Information & Computer Scien
 ces
X-SOURCE-URL:https://ics.uci.edu/event/seattle-area-ics-alumni-reception-2
 026
END:VEVENT
BEGIN:VEVENT
SUMMARY:A Multilayer Network Model for Aggregated Relational Data
DTSTART:20261111T000000Z
DTEND:20261111T010000Z
DTSTAMP:20260821T000606Z
UID:10001086-1794326400-1794330000@ics.uci.edu
CATEGORIES:education
DESCRIPTION:Abstract: The Network Scale-Up Method (NSUM) is a vital tool f
 or estimating the sizes of hard-to-reach populations using Aggregated Rela
 tional Data (ARD). Recent advancements in survey design increasingly colle
 ct ARD across multiple definitions of tie strength\, yielding a complex mu
 ltilayer network structure. Existing statistical frameworks analyze these 
 layers independently\, sacrificing valuable shared information. We propose
  a latent space approach for the Multilayer ARD that enables principled jo
 int estimation. We establish rigorous identifiability conditions for the s
 hared latent space and mathematically prove that the joint estimator achie
 ves asymptotic efficiency gains and finite sample bias reductions by “
 ”borrowing strength”” across layers. We apply the framework to real-
 world multilayer NSUM survey data\, demonstrating its practical efficacy i
 n yielding more robust and precise subpopulation estimates.
LAST-MODIFIED:20260821T000606Z
LOCATION:Donald Bren Hall\, Irvine\, CA\, 92697\, United States
URL:https://ics.uci.edu/event/a-multilayer-network-model-for-aggregated-re
 lational-data/
X-SOURCE-NAME:UC Irvine Donald Bren School of Information & Computer Scien
 ces
X-SOURCE-URL:https://ics.uci.edu/event/seattle-area-ics-alumni-reception-2
 026
END:VEVENT
BEGIN:VEVENT
SUMMARY:Rating Competitors in Games with Strength-dependent Tie Probabilit
 ies
DTSTART:20261120T000000Z
DTEND:20261120T010000Z
DTSTAMP:20260821T000606Z
UID:10001087-1795104000-1795107600@ics.uci.edu
CATEGORIES:education
DESCRIPTION:Abstract: Competitor rating systems for head-to-head games are
  typically used to measure playing strength from game outcomes. Ratings co
 mputed from these systems are often used to select top competitors for eli
 te events\, for pairing players of similar strength in online gaming\, and
  for players to track their own strength over time. Most implemented ratin
 g systems assume only win/loss outcomes\, and treat occurrences of ties as
  the equivalent to half a win and half a loss. However\, in games such as 
 chess\, the probability of a tie (draw) is demonstrably higher for stronge
 r players than for weaker players\, so that rating systems ignoring this a
 spect of game results may produce strength estimates that are unreliable. 
 We develop a new rating system for head-to-head games that explicitly ackn
 owledges a tie as a third outcome\, and that the probability of a tie may 
 depend on the strengths of the competitors. Our approach relies on time-va
 rying game outcomes following a Bayesian dynamic modeling framework\, and 
 that posterior updates within a time period are approximated by one iterat
 ion of Newton-Raphson evaluated at the prior mean. The approach is demonst
 rated on a large dataset of chess games played in International Correspond
 ence Chess Federation tournaments.
LAST-MODIFIED:20260821T000606Z
LOCATION:Donald Bren Hall\, Irvine\, CA\, 92697\, United States
URL:https://ics.uci.edu/event/rating-competitors-in-games-with-strength-de
 pendent-tie-probabilities/
X-SOURCE-NAME:UC Irvine Donald Bren School of Information & Computer Scien
 ces
X-SOURCE-URL:https://ics.uci.edu/event/seattle-area-ics-alumni-reception-2
 026
END:VEVENT
BEGIN:VEVENT
SUMMARY:Matrix Non-Normal Graphical Model
DTSTART:20261204T000000Z
DTEND:20261204T010000Z
DTSTAMP:20260821T000606Z
UID:10001088-1796313600-1796317200@ics.uci.edu
CATEGORIES:education
DESCRIPTION:Abstract: Contemporary data often have a matrix form\, with in
 trinsic information embedded in the data structure\, and are high-dimensio
 nal. The matrix Gaussian graphical model is an important tool for understa
 nding the dependence structure among such data. A central assumption in th
 is model is that the observations follow a matrix normal distribution\, wh
 ich enables characterization of conditional independence via the precision
  matrix. However\, such an assumption can be too stringent in practice. If
  data are heavy-tailed\, normality-based methods may produce misleading re
 sults and unstable estimation. Motivated by this challenge\, we consider t
 he matrix non-normal graphical model (MANGO). The MANGO model includes the
  matrix Gaussian graphical model as a special case\, but easily adapts to 
 potential heavy tails. Under this general model\, we investigate the relat
 ionship between conditional dependence and the precision matrices\, reveal
 ing that non-normality immediately affects our interpretation of the preci
 sion matrix. Two sub-models (U-MANGO and H-MANGO) are further studied to a
 ccommodate different levels of heavy tails. We develop efficient estimatio
 n procedures for these two models that require minimal additional computat
 ion over the Gaussian model. Moreover\, two hypothesis tests are developed
  to identify a suitable model for a particular dataset. Numerical results 
 demonstrate the superior performance of our methods.
LAST-MODIFIED:20260821T000606Z
LOCATION:Donald Bren Hall\, Irvine\, CA\, 92697\, United States
URL:https://ics.uci.edu/event/matrix-non-normal-graphical-model/
X-SOURCE-NAME:UC Irvine Donald Bren School of Information & Computer Scien
 ces
X-SOURCE-URL:https://ics.uci.edu/event/seattle-area-ics-alumni-reception-2
 026
END:VEVENT
END:VCALENDAR
