Grant: Discovery Grants Program - Individual
Carleton University
$46,000.00
Optimization Problems in Computational Geometry
FY 2023-24
Summary
The general theme in this project is the design and analysis of optimization algorithms for geometric problems. The research will concentrate on the following topics: Geometric Spanner Networks and Routing: How to construct a sparse network that connects a given set of sites such that for any two sites, their shortest-path distance in the network is approximately equal to their straight-line distance. Given such a network, how to use geometric information to compute (exact or approximate) shortest paths between any two given sites, how to compute such a path incrementally using only local information. Geometric Data Structures: How to organize geometric data, such that an informative "summary" of the subset of the data that is contained in a query region can be computed. How to organize geometric data in which each data element belongs to some category, such that the different categories inside a query region can be computed. Approximation Algorithms and Fine-Grained Complexity: Given an NP-hard geometric optimization problem, how to design an efficient algorithm that computes a solution that is close to the optimal solution. How to prove conditional lower bounds (based on, for example, the Strong Exponential Time Hypothesis) for geometric optimization problems that can be solved in polynomial time.
Program
Discovery Grants Program - Individual
Recipient
Location
Ontario, Canada
Recipient Type
Academia
Type
Grant
Source
NSERC's Awards Data
As published
Application id
RGPIN-2023-04666
Name nom
Smid, Michiel
Department département
School of Computer Science
Organization id
23
Institution établissement
Carleton University
Province en
Ontario
Province fr
Ontario
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2023
Competition year année de concours
2023
Award amount
46000
Program id
RGPIN
Program name en
Discovery Grants Program - Individual
Program name fr
Programme de subventions à la découverte - individuelles
Group en
DISCOVERY RESEARCH
Group fr
RECHERCHE AXÉE SUR LA DÉCOUVERTE
Committee code
1507
Committee name en
Computer Science
Committee name fr
Sciences informatiques
Area of application code
1207
Area of application group en
Advancement of knowledge
Area of application group fr
Avancement des connaissances
Area of application en
Information, computer and communication technologies
Area of application fr
Technologie de l'information, des ordinateurs et des réseaux de communications
Research subject code
9999
Research subject group en
Not available
Research subject group fr
Not available
Research subject en
Non disponible
Research subject fr
Non disponible
Application title
Optimization Problems in Computational Geometry
Keyword
Computational Geometry; Geometric Approximation Algorithms; Geometric Data Structures; Geometric Optimization Algorithms; Geometric Routing Algorithms; Geometric Spanners
Application summary
The general theme in this project is the design and analysis of optimization algorithms for geometric problems. The research will concentrate on the following topics: Geometric Spanner Networks and Routing: How to construct a sparse network that connects a given set of sites such that for any two sites, their shortest-path distance in the network is approximately equal to their straight-line distance. Given such a network, how to use geometric information to compute (exact or approximate) shortest paths between any two given sites, how to compute such a path incrementally using only local information. Geometric Data Structures: How to organize geometric data, such that an informative "summary" of the subset of the data that is contained in a query region can be computed. How to organize geometric data in which each data element belongs to some category, such that the different categories inside a query region can be computed. Approximation Algorithms and Fine-Grained Complexity: Given an NP-hard geometric optimization problem, how to design an efficient algorithm that computes a solution that is close to the optimal solution. How to prove conditional lower bounds (based on, for example, the Strong Exponential Time Hypothesis) for geometric optimization problems that can be solved in polynomial time.