The phrase "application resilience" is correct and usable in written English.
It can be used in the context of discussing the ability of an application to recover from failures or maintain functionality under adverse conditions.
Example: "The development team focused on improving application resilience to ensure that users experience minimal downtime during peak traffic."
Alternatives: "software robustness" or "system reliability".
Switzerland, Germany, and the United Kingdom are chosen as examples since they show similarities and differences regarding the application of resilience and vulnerability.
In recent years, the concept transition from fail-safe to safe-to-fail makes the application of resilience analysis popular in urban drainage systems (UDSs) with various implications and quantifications.
This is a novel application of resilience training; to promote heart health by focusing on identified CHD risk factors of depression, poor social support and life stress.
The articles in this special issue address these questions and feature current applications of resilience and vulnerability research, practice, and policy with relevance to disaster risk management.
Regarding the potential applications of resilience and vulnerability concepts, we mainly consider risk reduction measures, risk management plans and actions, and climate change adaptation measures in this article.
Due to pervasiveness of software in a growing number of mission critical applications, traditional resilience and recovery systems may not be sufficient.
Given the recognition of the need to prepare for anticipated and unanticipated shocks, applications of resilience are increasing as the guiding principle of public policy and programs in areas such as disaster management, urban planning, natural resource management, and climate change adaptation.
We propose the Global View Resilience (GVR) system, a library that enables applications to add resilience in a portable, application-controlled fashion using versioned distributed arrays.
An example of an output of this integrated data platform and its application in influenza resilience planning and responsiveness is described.
The application of the resilience engineering perspective is gradually being explored as an approach for considering the dynamics of socio-technical aspects based on systems theory to provide a safety net.
