bibtype A - Abstract
ARLID 0640701
utime 20260203091543.9
mtime 20251031235959.9
DOI 10.5281/zenodo.15854639
title (primary) (eng) Fault Detection Using Reinforcement Learning
specification
page_count 1 s.
media_type E
serial
title Quantum Information and Decision Making in Life Sciences: Book of Abstracts
part_title Fault Detection Using Reinforcement Learning
page_num 20-20
publisher
place Prague
name Czech University of Life Sciences Prague
year 2025
editor
name1 Guy
name2 Tatiana Valentine
editor
name1 Pelikán
name2 Martin
editor
name1 Kárný
name2 Miroslav
editor
name1 Gaj
name2 Aleksej
editor
name1 Ružejnikov
name2 Jurij
editor
name1 Ruman
name2 Marko
keyword Reinforcement Learning
keyword Fault Detection
keyword Markov Decision Processes
author (primary)
ARLID cav_un_auth*0483444
name1 Jedlička
name2 Adam
institution UTIA-B
full_dept (cz) Adaptivní systémy
full_dept (eng) Department of Adaptive Systems
department (cz) AS
department (eng) AS
country CZ
share 100
fullinstit Ústav teorie informace a automatizace AV ČR, v. v. i.
source
url https://zenodo.org/records/16900460
cas_special
project
project_id CA21169
agency EU-COST
country XE
ARLID cav_un_auth*0452289
abstract (eng) A wide variety of tasks including modeling biological problems can be modeled by Markov Decision Process (MDP). Reinforcement learning (RL) is an approach to solving MDP. In RL the agent learns to make the optimal actions by using feedback (reinforcement) signal. Due to its ability to handle dynamic environments with high uncertainty, RL has been successfully applied to various biological problems: generating novel molecular structures in drug discovery [1], predicting protein folding [2], etc. A very basic application of MDP terms in the example of the task of discovering new drugs mentioned earlier is as follows. A generative model (agent) learns a series of actions to create new molecules (states) for maximizing a score given by a predefined score function. RL is applied similarly in an example of genome assembly and other tasks in biology. Apart from these tasks, RL can also be used for so-called fault detection. Fault detection (FD) refers to a problem, where there are two or more processes that follow a different mathematical model (for example change of parameter) and the task is to determine which process is followed at the given time (which process generated the data). An example of the utility of FD in biology is highlighted in [3], where a fault is monitored in the "Cad System in E-coli" (CSEC) model. CSEC models localization and dynamics of the pH sensor and transcriptional regulator CadC in cells. Another example is mentioned in [4], where a water treatment process is monitored for faults in order to ensure its stability. It is important to mention, that neither of the above-mentioned articles relating to the usage of FD in biology does not use RL to find faults as it is not a widely used approach. However, while not widely used, it might perform better in certain cases with large datasets. The proposed poster will i) introduce some basic FD methods ii) briefly introduce mechanisms of RL and outline its use for CSEC model [5].
action
ARLID cav_un_auth*0491465
name DYNALIFE 2025 : Conference on QUANTUM INFORMATION AND DECISION MAKING IN LIFE SCIENCES
dates 20250428
mrcbC20-s 20250429
place Prague
country CZ
RIV BB
FORD0 10000
FORD1 10100
FORD2 10101
reportyear 2026
num_of_auth 1
presentation_type PO
permalink https://hdl.handle.net/11104/0371109
cooperation
ARLID cav_un_auth*0322033
name Česká zemědělská univerzita v Praze, Provozně ekonomická fakulta
institution PEF ČZU
country CZ
confidential S
arlyear 2025
mrcbU02 A2
mrcbU14 SCOPUS
mrcbU24 PUBMED
mrcbU34 WOS
mrcbU63 Quantum Information and Decision Making in Life Sciences: Book of Abstracts Quantum Information and Decision Making in Life Sciences: Book of Abstracts Fault Detection Using Reinforcement Learning Czech University of Life Sciences Prague 2025 Prague 20 20
mrcbU67 Guy Tatiana Valentine 340
mrcbU67 Pelikán Martin 340
mrcbU67 Kárný Miroslav 340
mrcbU67 Gaj Aleksej 340
mrcbU67 Ružejnikov Jurij 340
mrcbU67 Ruman Marko 340