Proto Labs, Inc.

Mts Systems Corporation

Excelsior S. P. LLC

Arthur Richard Baker, Iii

James L Jacobs, Ii

James L Jacobs

Craig Robert Shankwitz

Dylan Lundberg

Troy David Marusich

A method of generating a three-dimensional product having a cubic internal structure in a process controlled by a computing device. The method comprises receiving a manufacturing request datum from a user client device, wherein the manufacturing request datum further comprises at least an element of a product definition. The method further comprises defining a lattice volume of the manufacturing request datum, wherein defining the at least a lattice volume further comprises defining at least a lattice cell, wherein the at least a lattice cell is comprised within the lattice volume. The method further comprises determining a response characteristic of each lattice cell of the plurality of lattice cells, wherein determining a response characteristic further comprises simulating the application of at least a force on at least a part of the manufacturing request datum as a function of the product definition. The method further comprises selecting a unit structure.

Methods and systems for generating a three-dimensional product having a cubic internal structure

In an aspect, an elevated lookout apparatus is disclosed. The apparatus may comprise at least a housing mounted in an elevated location. The apparatus may additionally include a plurality of cameras positioned radially within the at least a housing in a manner to create a combined field of view, wherein each camera of the plurality of cameras is configured a generate image data. The apparatus may also include at least a processor communicatively connected to the plurality of cameras. The processor may be configured receive the image data from each camera of the plurality of cameras. The processor may also be configured to combine the image data from each camera of the plurality of cameras into a combined video using an image machine learning model.

Elevated lookout apparatus and a method for its use

An automated manufacturing system for generating a graphical representation of a discrete object to be manufactured from an additively manufactured body of material. Reference feature is used to place the precursor at a subtractive manufacturing machine; the reference feature may be based on a locating feature at the subtractive manufacturing machine. Manufacturing reference feature is accomplished by automatedly detecting one or more critical-to-quality features and manufacturing the reference feature based on the one or more detected critical-to-quality features.

Methods and software for manufacturing a discrete object from an additively manufactured body of material including a precursor to a discrete object and a reference feature(s)

An automated manufacturing system for manufacturing a discrete object is configured to manufacture a reference feature on a precursor to the discrete object. Reference feature is used to place the precursor at a subtractive manufacturing machine; the reference feature may be based on a locating feature at the subtractive manufacturing machine. Manufacturing reference feature is accomplished by automatedly detecting one or more critical-to-quality features and manufacturing the reference feature based on the one or more detected critical-to-quality features.

An autonomous vehicle control system for use on a vehicle, such as a motorcycle or an all-terrain vehicle (ATV) to autonomously control the vehicle without a driver during vehicle testing is provided. The vehicle control system comprises a moment generator coupleable to the vehicle and configured to selectively generate a moment in either of first and second directions. The vehicle control system also includes a control system operably coupled to the moment generator and configured to control the moment generator to selectively impart moments on the vehicle to stabilize the vehicle or to introduce disturbances on the vehicle.

Growing community of inventors

Excelsior, MN, United States of America

Arthur Richard Baker, Iii