The most common types of wind turbine failure are turbine blades, generators, and gearboxes. Regular maintenance and inspections of wind turbines create challenges due to the remote locations of wind farms and the size and height of the turbines. During regularly scheduled maintenance, it can be difficult to access the massive rotor blades and evaluate the blade materials and the complex surface areas. New technologies like the use of drones for blade inspections are being used, which aids in the inspection process. However, without proper monitoring and maintenance, it can lead to component failure.
Unlike one-time cost savings like a staff reduction or cutting advertising spend, increasing efficiency delivers cost savings over the long term. That makes efficiency gains an attractive option for many shops looking to cut costs during COVID-19.
Fire in wind turbines is the second most common type of accident reported after blade failure. While certain types of wind turbines have a higher occurrence rate of fire, all wind turbines have fire risk factors. Within the nacelle, highly flammable materials including, hydraulic oil and plastics, are located near electrical wiring and equipment. A fire can quickly start and spread if there is an ignition source like an electrical arc or a fault within the transformer.
From the beginning of the COVID-19 pandemic, companies have been grappling with supply chain disruption. There's been a lot of speculation that as a result, American companies are going to bring more of their supply chains on shore or near shore to North America. We analyze possible outcomes in this Q&A with Cullen Morrison.
Wind turbines stand over 300 ft tall with each blade measuring over 100 ft long with blade speeds of up to 180 mph. Fire protection for these giant structures poses a variety of unique risks. Because there is no formal reporting process of reporting and recording fire incidents in wind turbines, it’s hard to get an accurate count. However, in a 2015 report, Towering Inferno, completed by GCube, a clean energy insurance provider, cited 50 wind turbine fire incidents.
Rapid advancements and changes in technology are challenging how machine shops run. Maintaining the status quo and not adapting and embracing these new developments, will leave you behind. In this era of what has been coined as Industry 4.0, there is a fundamental shift towards digital industrial technology. The ability to gather and analyze mass amounts of data across machines is transforming machining processes and operations to become faster, more efficient, and flexible.
Coronavirus is here. And while our doctors and nurses fight the virus on the front lines, many of us are wondering what we can do to help.
Hybrid manufacturing is a combination of additive manufacturing (AM) and subtractive manufacturing within the same machine. Both processes on their own have remarkable capabilities, but when combined, it opens up a whole new level of design and manufacturing. The machines allow you to make and finish the part in a single setup, reducing error because the AM part does not have to leave one machine to be reset on a second machine.
The purpose of Hybrid manufacturing is to combine the strengths of additive manufacturing (AM) and subtractive machining. Using a single machine, it creates the ability to produce finished parts in the same machine using both processes. Hybrid manufacturing joins the best features of traditional subtractive machining with additive manufacturing.
Most machine shops have, at some point, felt the pains from the labor shortage. In July 2019, nearly a half of million manufacturing jobs were left unfilled. Skilled manufacturing and machining jobs are becoming increasingly more challenging to fill, and the skills gap is widening. According to a recent study conducted by Deloitte & The MFG Institute by 2028, we could see 2.4M open positions in the U.S. manufacturing industry due to talent shortage.
Additive Manufacturing (AM), also known as 3D printing, builds parts through a CAD generated 3D model by adding single layers of material and fusing the layers together. AM first emerged in 1987 and has been steadily growing ever since, with more leaps and bounds in recent years. We identify the seven AM processes and their advantages and disadvantages.
The key to having an optimal finished part starts with choosing the right material. By narrowing down the types of machining materials that are best suited for the part will lead to the selection of the most appropriate and cost-effective material. Here are a few things to consider when selecting materials.