Product Print
Industrial Engineer in Pennington

I am a self-motivated mechanical and industrial designer, component production and machine maintenance, with a history in Tool and Die making, installation and commissioning. On a 3D printer, complexity costs the same as simplicity. In traditional manufacturing, the more complicated an object's shape, the more it costs to make. This includes keeping myself well informed of any new and innovative advances in both industrial and manufacturing technologies and recommending the implementation there of, when appropriate.
Manufacturing complexity is free. All of which have enabled me to develop a sound understanding of the manufacturing process and thus allowing me to design more cost effective and practical solutions.
Fundamentals of 3D Printing.
I am a reliable and professional designer who strives to maintain the highest standard of quality and consistency at all times. Fabricating an ornate and complicated shape does not require more time, skill, or cost than printing a simple bl.

At Product Print we are self-motivated mechanical and industrial designer, with a history in Tool and Die making, component production and machine maintenance, installation and commissioning. All of which have enabled me to develop a sound understanding of the manufacturing process and thus allowing me to design more cost effective and practical solutions. We are reliable and professional designer who strives to maintain the highest standard of quality and consistency at all times. This includes keeping myself well informed of any new and innovative advances in both industrial and manufacturing technologies and recommending the implementation there of, when appropriate. In traditional manufacturing, the more complicated an object’s shape, the more it costs to make. Fabricating an ornate and complicated shape does not require more time, skill, or cost than printing a simple block. Free complexity will disrupt traditional pricing models and change how we calculate the cost of manufacturing things. The capacity for on-the-spot manufacturing reduces the need for companies to stockpile physical inventory. Zero-lead-time manufacturing could minimize the cost of long-distance shipping if printed goods are made when they are needed and near where they are needed. Traditional manufacturing technologies and human artisans can make only a finite repertoire of shapes. For example, a traditional wood lathe can make only round objects. A mill can make only parts that can be accessed with a milling tool. A molding machine can make only shapes that can be poured into and then extracted from a mold. A printer can fabricate shapes that until now have been possible only in nature. 3D printers that work in metal create less waste by-product than do traditional metal manufacturing techniques. Machining metal is highly wasteful as an estimated 90 percent of the original metal gets ground off and ends up on the factory floor. Combining different raw materials into a single product is difficult using today’s manufacturing machines. Since traditional manufacturing machines carve, cut, or mold things into shape, these processes can’t easily blend together different raw materials. New previously inaccessible blends of raw material offer us a much larger, mostly unexplored palette of materials with novel properties or useful types of behaviors. A digital music file can be endlessly copied with no loss of audio quality. Scanning technology and 3D printing will together introduce high resolution shapeshifting between the physical and digital worlds. We will scan, edit, and duplicate physical objects to create exact replicas or to improve on the original.