We propose a new approach and related indicators for globally distributed software support and development based on a 3-year process improvement project in a globally distributed engineering company. The company develops, delivers and supports a complex software system with tailored hardware components and unique end-customer installations. By applying the domain knowledge from operations management on lead time reduction and its multiple benefits to process performance, the workflows of globally distributed software development and multitier support processes were measured and monitored throughout the company. The results show that the global end-to-end process visibility and centrally managed reporting at all levels of the organization catalyzed a change process toward significantly better performance. Due to the new performance indicators based on lead times and their variation with fixed control procedures, the case company was able to report faster bug-fixing cycle times, improved response times and generally better customer satisfaction in its global operations. In all, lead times to implement new features and to respond to customer issues and requests were reduced by 50%. engineering company improved its development and customer support processes. The case company delivers complex and tailored hardware and software systems for industrial use. The problems prevailing in distributed software development are known to many companies and several approaches have been applied to improve these processes. They have also been extensively studied by academic scholars (for a summary, see [12]). Issues related to quality are a major concern in these studies. After studying 189 globally distributed software projects, Cataldo and Nambiar [8] show that distribution of developers across locations, along with architectural and technical linkages between these development teams, significantly affect software quality. Taxén [50] documents how complex telecommunication system delivery processes are improved by establishing a central control over different subproject interfaces and through the operationalization of the engineering processes and their coordination; the latter meaning the division of the process into elements in which they can be measured and observed as an independent entity. Despite the challenges related to the management of distributed and knowledge intensive operations, they make it possible to harness diverse expertise and make it easier to access and improve the service provided to globally scattered clients. According to Boutellier et al.[6] the challenges could be managed with modern information technology (IT) tools and centralized project management. However, real life situations are more complex, especially when operations are performed in a geographically distributed manner by interconnected units in different continents.Relationships between organizational context and management information system structures are significantly correlated with organizational structures that, in turn, are closely assoc...