The usual term applies to all factors dealing with the transition of resources. Operations is how "things get done".
We use qualitative and quantitative methods to find solutions to machine outcomes problems.
We use known methods to solve operations problems.
We work with you to develop the key methods to achieve machine operations productivity within your situation.
The focus on sovereign ownership of innovative modern manufacturing and other industrial machine technology acquisition upgrades will require a paradigm shift in operations skills for the total viability of legacy and new machines. These machines will need viable operations plans within a recursive circular economic activity from identification to realization.
We have prepared a diagram that summarizes these relationships as a sovereign circular economy. Please request a free version. Request Diagram
The circular economy has four foundational operations phases: Acquire, Sustain, Operate, and Restore. Each phase must be viable; but to be viable they must not be vulnerable and must be resilient to adverse situations. A restored (repurposed, repaired, etc) machine can be returned to a different circular economy. i.e. Plan machine life from acquisition to cultural use.
An outcome of the operations program is a plan for the circular economics viability assessment of situated machines, independent of industry: manufacturing, infrastructure, defence, organization, cultural, or natural.
We offer the following Operations Management services in the following contexts:
Operations is the driving "Force" of the organisation. From physics we know that F=M x a (Force = mass x acceleration) which is Newton's Second Law of motion; and Work = F x d x cos(theta). (Work equals force x distance x COS(theta). The relationship between mass and inertia has much to do with the first two laws of physics by Isaac Newton, which are that an object at rest will tend to stay at rest and an object in motion will tend to stay in motion. It takes inertia to move the mass. Operations can be described by these physics factors, and these physics relationships must be understood to understand situated operations.
For information about this service please email Adrian Stephan to request information.