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Contact: Rakesh Rana, [email protected] Participants PhD Student Rakesh Rana, University of Gothenburg Academic supervisors Prof. Jörgen Hansson, Chalmers University of Technology Associate Prof. Miroslaw Staron, University of Gothenburg Asst. Prof. Christian Berger, University of Gothenburg Verification of ISO 26262 Software requirements in safety critical EE-systems VISEE Objectives Develop new verification & validation methods and tools for safety compliance at complete EE system level. Develop means and approaches for building statistical evidence for safety goal argumentation according to ISO 26262 References [1] McKinsey: McKinsey Analysis. PTW HAWK survey, Institute for Production Management, Technical University of Darmstadt, 2003. [2] ISO/FDIS 26262:2010 - Road vehicles - Functional safety, International Organization for Standardization. [3] N. Mellegård, M. Staron and F. Törner , “A light-weight defect classification scheme for embedded automotive software and its initial evaluation,” in International Symposium on Software Reliability Engineering (ISSRE), 2012. Industrial supervisors Martin Nilsson, Volvo Car Corporation Dr. Fredrik Törner, Volvo Car Corporation FFI, Proj No: ##### ISO 26262: Road vehicles Functional safety [2] Chapter 6 Part 6: Product development at the software level Model based development Defect backlog [3] Motivation According to a McKinsey study automotive software furthers approximately 80% of future innovations in cars [1]. Software products account for most part of functionality in modern safety systems such as pedestrian detection system. At early stages, model based simulations (eg. simulink models) can be effective tools to predict and prevent late defects. Software functionality verification and validation is now a critical factor for delivering quality products. Next Steps WP1: Identify the main challenges to effective implementation of ISO 26262, Chapter 6 Interviews to identify practical challenges WP2: Defect analysis, prediction & prevention WP3: Develop verification methods to prevent defects by types WP4: Case studies evaluating the results Impact Increase OEMs capacity to introduce new software functions fulfilling the ISO 26262 requirements at reasonable cost and time Safer cars at optimal development costs Innovative V&V methods for automotive software engineering Pedestrian detection system

Verification of ISO 26262 Software requirements in safety critical EE-systems

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Page 1: Verification of ISO 26262 Software requirements in safety critical EE-systems

Contact: Rakesh Rana, [email protected]

ParticipantsPhD Student Rakesh Rana, University of Gothenburg

Academic supervisors Prof. Jörgen Hansson, Chalmers University of Technology

Associate Prof. Miroslaw Staron, University of Gothenburg

Asst. Prof. Christian Berger, University of Gothenburg

Verification of ISO 26262 Software requirements in safety critical EE-systems

VISEE

Objectives

• Develop new verification & validation

methods and tools for safety compliance at

complete EE system level.

• Develop means and approaches for

building statistical evidence for safety goal

argumentation according to ISO 26262

References[1] McKinsey: McKinsey Analysis. PTW HAWK survey, Institute for Production Management,

Technical University of Darmstadt, 2003.

[2] ISO/FDIS 26262:2010 - Road vehicles - Functional safety, International Organization for

Standardization.

[3] N. Mellegård, M. Staron and F. Törner, “A light-weight defect classification scheme for embedded

automotive software and its initial evaluation,” in International Symposium on Software Reliability

Engineering (ISSRE), 2012.

Industrial supervisors

Martin Nilsson, Volvo Car Corporation

Dr. Fredrik Törner, Volvo Car Corporation

FFI, Proj No: #####

ISO 26262: Road vehicles – Functional safety [2]

Chapter 6

Part 6: Product development at

the software level

Model based development

Defect backlog [3]

Motivation

• According to a McKinsey study automotive

software furthers approximately 80% of

future innovations in cars [1].

• Software products account for most part of

functionality in modern safety systems such

as pedestrian detection system.

• At early stages, model based simulations

(eg. simulink models) can be effective tools

to predict and prevent late defects.

• Software functionality verification and

validation is now a critical factor for

delivering quality products.

Next Steps

• WP1: Identify the main challenges to effective

implementation of ISO 26262, Chapter 6

Interviews to identify practical challenges

• WP2: Defect analysis, prediction & prevention

• WP3: Develop verification methods to prevent

defects by types

• WP4: Case studies evaluating the results

Impact

• Increase OEMs capacity to introduce new

software functions fulfilling the ISO 26262

requirements at reasonable cost and time

• Safer cars at optimal development costs

• Innovative V&V methods for automotive

software engineering

Pedestrian detection system