Quantitative verification: Formal guarantees for timeliness, reliability and performance. Norman, G. & Parker, D. Technical Report London Mathematical Society and Smith Institute / London Mathematical Society and Smith Institute, 2014. ![Quantitative verification: Formal guarantees for timeliness, reliability and performance [link]](https://bibbase.org/img/filetypes/link.svg "link")
Paper abstract bibtex Computerised systems appear in almost all aspects of our daily lives, often in safety-critical scenarios such as embedded control systems in cars and aircraft or medical devices such as pacemakers and sensors. We are thus increasingly reliant on these systems working correctly, despite often operating in unpredictable or unreliable environments. Designers of such devices need ways to guarantee that they will operate in a reliable and efficient manner. Quantitative verification is a technique for analysing quantitative aspects of a system's design, such as timeliness, reliability or performance. It applies formal methods, based on a rigorous analysis of a mathematical model of the system, to automatically prove certain precisely specified properties, e.g. “the airbag will always deploy within 20 milliseconds after a crash” or “the probability of both sensors failing simultaneously is less than 0.001”. The ability to formally guarantee quantitative properties of this kind is beneficial across a wide range of application domains. For example, in safety-critical systems, it may be essential to establish credible bounds on the probability with which certain failures or combinations of failures can occur. In embedded control systems, it is often important to comply with strict constraints on timing or resources. More generally, being able to derive guarantees on precisely specified levels of performance or efficiency is a valuable tool in the design of, for example, wireless networking protocols, robotic systems or power management algorithms, to name but a few. This report gives a short introduction to quantitative verification, focusing in particular on a widely used technique called model checking, and its generalisation to the analysis of quantitative aspects of a system such as timing, probabilistic behaviour or resource usage. The intended audience is industrial designers and developers of systems such as those highlighted above who could benefit from the application of quantitative verification,but lack expertise in formal verification or modelling.
@techreport{enlighten96376,
type = {Technical report},
title = {Quantitative verification: {Formal} guarantees for timeliness, reliability and performance},
url = {http://eprints.gla.ac.uk/96376/},
abstract = {Computerised systems appear in almost all aspects of our daily lives, often in safety-critical scenarios such as embedded control systems in cars and aircraft or medical devices such as pacemakers and sensors. We are thus increasingly reliant on these systems working correctly, despite often operating in unpredictable or unreliable environments. Designers of such devices need ways to guarantee that they will operate in a reliable and efficient manner. Quantitative verification is a technique for analysing quantitative aspects of a system's design, such as timeliness, reliability or performance. It applies formal methods, based on a rigorous analysis of a mathematical model of the system, to automatically prove certain precisely specified properties, e.g. “the airbag will always deploy within 20 milliseconds after a crash” or “the probability of both sensors failing simultaneously is less than 0.001”. The ability to formally guarantee quantitative properties of this kind is beneficial across a wide range of application domains. For example, in safety-critical systems, it may be essential to establish credible bounds on the probability with which certain failures or combinations of failures can occur. In embedded control systems, it is often important to comply with strict constraints on timing or resources. More generally, being able to derive guarantees on precisely specified levels of performance or efficiency is a valuable tool in the design of, for example, wireless networking protocols, robotic systems or power management algorithms, to name but a few. This report gives a short introduction to quantitative verification, focusing in particular on a widely used technique called model checking, and its generalisation to the analysis of quantitative aspects of a system such as timing, probabilistic behaviour or resource usage. The intended audience is industrial designers and developers of systems such as those highlighted above who could benefit from the application of quantitative verification,but lack expertise in formal verification or modelling.},
institution = {London Mathematical Society and Smith Institute / London Mathematical Society and Smith Institute},
author = {Norman, Gethin and Parker, David},
year = {2014},
keywords = {⛔ No DOI found},
}
Downloads: 0
{"_id":"kMzvBMNcy4fWxtZmF","bibbaseid":"norman-parker-quantitativeverificationformalguaranteesfortimelinessreliabilityandperformance-2014","author_short":["Norman, G.","Parker, D."],"bibdata":{"bibtype":"techreport","type":"Technical report","title":"Quantitative verification: Formal guarantees for timeliness, reliability and performance","url":"http://eprints.gla.ac.uk/96376/","abstract":"Computerised systems appear in almost all aspects of our daily lives, often in safety-critical scenarios such as embedded control systems in cars and aircraft or medical devices such as pacemakers and sensors. We are thus increasingly reliant on these systems working correctly, despite often operating in unpredictable or unreliable environments. Designers of such devices need ways to guarantee that they will operate in a reliable and efficient manner. Quantitative verification is a technique for analysing quantitative aspects of a system's design, such as timeliness, reliability or performance. It applies formal methods, based on a rigorous analysis of a mathematical model of the system, to automatically prove certain precisely specified properties, e.g. “the airbag will always deploy within 20 milliseconds after a crash” or “the probability of both sensors failing simultaneously is less than 0.001”. The ability to formally guarantee quantitative properties of this kind is beneficial across a wide range of application domains. For example, in safety-critical systems, it may be essential to establish credible bounds on the probability with which certain failures or combinations of failures can occur. In embedded control systems, it is often important to comply with strict constraints on timing or resources. More generally, being able to derive guarantees on precisely specified levels of performance or efficiency is a valuable tool in the design of, for example, wireless networking protocols, robotic systems or power management algorithms, to name but a few. This report gives a short introduction to quantitative verification, focusing in particular on a widely used technique called model checking, and its generalisation to the analysis of quantitative aspects of a system such as timing, probabilistic behaviour or resource usage. The intended audience is industrial designers and developers of systems such as those highlighted above who could benefit from the application of quantitative verification,but lack expertise in formal verification or modelling.","institution":"London Mathematical Society and Smith Institute / London Mathematical Society and Smith Institute","author":[{"propositions":[],"lastnames":["Norman"],"firstnames":["Gethin"],"suffixes":[]},{"propositions":[],"lastnames":["Parker"],"firstnames":["David"],"suffixes":[]}],"year":"2014","keywords":"⛔ No DOI found","bibtex":"@techreport{enlighten96376,\n\ttype = {Technical report},\n\ttitle = {Quantitative verification: {Formal} guarantees for timeliness, reliability and performance},\n\turl = {http://eprints.gla.ac.uk/96376/},\n\tabstract = {Computerised systems appear in almost all aspects of our daily lives, often in safety-critical scenarios such as embedded control systems in cars and aircraft or medical devices such as pacemakers and sensors. We are thus increasingly reliant on these systems working correctly, despite often operating in unpredictable or unreliable environments. Designers of such devices need ways to guarantee that they will operate in a reliable and efficient manner. Quantitative verification is a technique for analysing quantitative aspects of a system's design, such as timeliness, reliability or performance. It applies formal methods, based on a rigorous analysis of a mathematical model of the system, to automatically prove certain precisely specified properties, e.g. “the airbag will always deploy within 20 milliseconds after a crash” or “the probability of both sensors failing simultaneously is less than 0.001”. The ability to formally guarantee quantitative properties of this kind is beneficial across a wide range of application domains. For example, in safety-critical systems, it may be essential to establish credible bounds on the probability with which certain failures or combinations of failures can occur. In embedded control systems, it is often important to comply with strict constraints on timing or resources. More generally, being able to derive guarantees on precisely specified levels of performance or efficiency is a valuable tool in the design of, for example, wireless networking protocols, robotic systems or power management algorithms, to name but a few. This report gives a short introduction to quantitative verification, focusing in particular on a widely used technique called model checking, and its generalisation to the analysis of quantitative aspects of a system such as timing, probabilistic behaviour or resource usage. The intended audience is industrial designers and developers of systems such as those highlighted above who could benefit from the application of quantitative verification,but lack expertise in formal verification or modelling.},\n\tinstitution = {London Mathematical Society and Smith Institute / London Mathematical Society and Smith Institute},\n\tauthor = {Norman, Gethin and Parker, David},\n\tyear = {2014},\n\tkeywords = {⛔ No DOI found},\n}\n\n","author_short":["Norman, G.","Parker, D."],"key":"enlighten96376","id":"enlighten96376","bibbaseid":"norman-parker-quantitativeverificationformalguaranteesfortimelinessreliabilityandperformance-2014","role":"author","urls":{"Paper":"http://eprints.gla.ac.uk/96376/"},"keyword":["⛔ No DOI found"],"metadata":{"authorlinks":{}},"html":""},"bibtype":"techreport","biburl":"https://bibbase.org/zotero/SilverSylvester","dataSources":["YCBcQPneB9oxahSnp"],"keywords":["⛔ no doi found"],"search_terms":["quantitative","verification","formal","guarantees","timeliness","reliability","performance","norman","parker"],"title":"Quantitative verification: Formal guarantees for timeliness, reliability and performance","year":2014}