Operation support systems have traditionally been operator support sys
tems, designed and built to aid the traditional monitoring-oriented in
dividual operator in his or her work. Focus has been mostly on the nat
ural science and engineering aspects of the problem, addressing functi
ons such as fault detection, alarm Altering, diagnosis, estimation and
optimization of the physical process. These are necessary, but not su
fficient, aspects of productive operation support systems for the futu
re: In the process industry there are strong incentives for a change t
owards integration of shift- and daytime work, and towards integration
of operation and maintenance functions. As a result, the nature of pr
ocess operation work is presently changing from being decomposed indiv
idual functional jobs, towards collaborative efforts through self-suff
icient shift-teams. These shift-teams must be multidisciplinary to be
able to perform their jobs. Now, the operators' work is becoming a mul
ti-task job rather than proficiency in a set of fixed and well-defined
tasks. Individual and organizational learning and development are bec
oming key expectations which the new kind of operating organizations h
ave to face. An important concern in this new and rapidly changing sit
uations, is to design and implement a suitable operation support syste
m, and how this is to be accomplished. This paper addresses one indust
rial case, and describes how the above challenges have been approached
. The case is a hydrogen peroxide plant located in western Canada whic
h organizes the production according to the characteristics described
above. This plant has also implemented an integrated information syste
m. The organization emphasizes the importance of creating arenas for l
earning during both design, implementation and utilization.