What is a Collaborative Robot (Cobot)?

“Machines alone do not give us mass production. Mass production is achieved by machines and men.” – Henry Ford II ,1914 Above quote which said by Henry Ford, it doesn’t mean that human alone cannot achieve mass productions but with machines, mass productions can be easily achieved with the right machines. Computer-controlled, intelligent assist devices are a huge change in material handling technology today. The step changes in their ergonomics, productivity, quality and safety capabilies – especially when compared with tradition pneumatic tools which are considered old schooled in compared with cobots today. Cobots, or collaborative robots, are robots intended to interact with humans in a shared space or to work safely in close proximity. Cobots stand in contrast to traditional industrial robots which are designed to work autonomously with safety assured by isolation from human contact. Cobot safety may rely on lightweight construction materials, rounded edges, and limits on speed Continue reading

The Pareto Principle Explained (The 80/20 Rule)

What is the Pareto Principle? Vilfredo Federico Damaso Pareto was an Italian economist, he discovered that in any situation twenty percent of the inputs/activities are responsible for eighty percent of the outputs/results. In 1906, he discovered that 80% of the land in Italy was owned by only 20% of the people. Later he recognized that same lop-sided relationship applied to other things as well. Pareto first discovered this law in his own garden. He noticed that twenty percent of his pea pods, created eighty percent of the peas, as an economist he then drew parallels to Italy’s economy, discovering that eighty percent of the land belonged to twenty percent of the population. Pareto’s Principle basically states that a small number of reasons are responsible for a large percentage of the effect; this ratio is usually 20% of the cause to 80% of the effect, or 20:80. However, this principle was Continue reading

Case Study of FIAT: Deployment of Robotics in Manufacturing

Fiat was among the first companies to adopt a Post-Fordist system in production after its recovery from the 1970 oil crisis. The large-scale deployment of robotics in the production process of Fiat Company was the most significant move to cope with increased competition and demand. In 1972, the company initiated the adoption of FMS so that it could shift to flexible production methods from the Fordistic inflexible mass production systems. The move was considered as the first step towards discontinuity in management and organization involving the shift in planned goals and replacements of procedures supporting operations supervision. The Robogate technology was developed in-house by Fiat Company and used to create flexibility with enhanced product-mix flexibility. Product-mix flexibility is the conferred ability of an organization to produce different products sequentially using the same lines of production. As indicated, the shift from Fordist mass production systems enables a company to reduce tool specificity Continue reading

Concurrent Engineering Vs Traditional (Sequential) Engineering Methods

Traditionally, products were designed and manufactured following the sequential engineering methods, where people from different departments work one after the other on successive phases of development. This method of production is in a linear format. The different steps are done one after another, with all attention and resources focused on that one task. After it is completed it is left alone and everything is concentrated on the next task. The product is first completely defined by the engineering design department, and then the manufacturing department take over and define the manufacturing process, etc. This was a lengthy process, and often led to a lot of design changes as the prototype testing began, due to production problems, delays or design flaws. This is therefore a slow and costly approach, often leading to a low-quality and less competitive product. Concurrent Engineering, sometimes called Simultaneous Engineering or Integrated Product Development (IPD), can be Continue reading

Concurrent Engineering (CE) – Definition, Approaches and Requirements

Introduction to Concurrent Engineering Concurrent engineering (CE) is a method that is used in the product development process. Concurrent Engineering, sometimes called Simultaneous Engineering or Integrated Product Development (IPD), can be defined as a systematic approach to the integrated, concurrent design of products and their related processes, including manufacture and support. It is different than the traditional approach from the product development in which it uses simultaneous, something that sequential, processes. By finishing the tasks in paralelamente, the product development can be obtained more efficiently and in substantial saving in costs. In the traditional approach finishing all the physical manufacture of a prototype before realizing any test, but In the concurrent engineering it allows to design and multiple analyses to happen at the same time, and at different times, before the real unfolding. This multidisciplinary approach accentuates work in equipment with the use of cross-functional equipment, and allows so that Continue reading

Quick Response Manufacturing (QRM) – Meaning, Principles, Benefits, and Drawbacks

Quick Response Manufacturing (QRM) is a strategy which needs to applied throughout the company and whose primary goal is the reduction of lead-time in each and every operation of the company while simultaneously reducing costs and improving quality. QRM can be defined in two contexts: (i) Externally (Customers point of view): QRM means quickly responding to customer needs by designing and producing goods customized to cater those needs. (ii) Internally, QRM stresses on reducing the lead times throughout the organization, leading to lower inventory, better quality, reduced cost, and greater responsiveness. Quick Response Manufacturing (QRM) uses Manufacturing Critical-path Time (MCT) as the metric for measuring the success of QRM processes. MCT is an extension of the concept of lead-time, which is the time from the receipt of order from the customer till the product is delivered to the customer. There are 2 ways of implementing QRM: one is using large Continue reading