Optical 3D Scanning of Cutting Tools

Peterka, Jozef; Morovič, Ladislav; Pokorný, Peter; Kovac, Martin; Hornák, František

doi:10.4028/www.scientific.net/amm.421.663

Cited by 17 publications

(8 citation statements)

References 5 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…This was measurement on 3D scanner with optical devises. The measurements of the specimens were performed in the same way they are presented by other authors [8,9]. In this figure it can be observed that it is a big variation of the thickness, between 1.46 mm and 1.58 mm.…”

Section: Experimental Determinations Of Materials Parametersmentioning

confidence: 84%

Determination of the force required for the hydroforming of al 99,5

Ceclan

Grozav

2018

MATEC Web Conf.

View full text Add to dashboard Cite

In this paper the authors present the hydroforming of the tubular parts. It also presents the technology of the tubular parts' hydroforming. In this paper we determine the forces necessary for the hydroforming process. They are also presented the mechanical parameters of the material that are used in the deformation process. Also, the variation in wall thickness of the aluminium specimen is determined before the deformation process

show abstract

Section: Experimental Determinations Of Materials Parametersmentioning

confidence: 84%

Determination of the force required for the hydroforming of al 99,5

Ceclan

Grozav

2018

MATEC Web Conf.

View full text Add to dashboard Cite

show abstract

“…It has also been utilized for medical engineering purposes, where body structures were scanned for assessment and, in some cases, replication purposes [32]. Objects have been scanned for reverse engineering purposes [33,34], quality assurance [35], creating object repositories (e.g., [36]), preserving historical artifacts [37] and assessing turbine blades [38] and concrete slabs [6].…”

Section: Three-dimensional Scanning and Its Application Areasmentioning

confidence: 99%

Characterization of a Large, Low-Cost 3D Scanner

et al. 2015

View full text Add to dashboard Cite

Imagery-based 3D scanning can be performed by scanners with multiple form factors, ranging from small and inexpensive scanners requiring manual movement around a stationary object to large freestanding (nearly) instantaneous units. Small mobile units are problematic for use in scanning living creatures, which may be unwilling or unable to (or for the very young and animals, unaware of the need to) hold a fixed position for an extended period of time. Alternately, very high cost scanners that can capture a complete scan within a few seconds are available, but they are cost prohibitive for some applications. This paper seeks to assess the performance of a large, low-cost 3D scanner, presented in prior work, which is able to concurrently capture imagery from all around an object. It provides the capabilities of the large, freestanding units at a price point akin to the smaller, mobile ones. This allows access to 3D scanning technology (particularly for applications requiring instantaneous imaging) at a lower cost. Problematically, prior analysis of the scanner's performance was extremely limited. This paper characterizes the efficacy of the scanner for scanning both inanimate objects and humans. Given the importance of lighting to visible light scanning systems, the scanner's performance under multiple lighting configurations is evaluated, characterizing its sensitivity to lighting design. OPEN ACCESSTechnologies 2015, 3 20

show abstract

“…SECO DNMG150604L-UX cutting tool was used in cutting experiment. Cutting tool simulation model geometry is the exactly same shape as experimental cutting insert and model is prepared in CAD system utilizing 3D scan and reverse engineering [12,13]. Although the tool is set up as a rigid, it can be done by a thermal analysis of tool, the model of tool is meshed using 3D tetrahedron elements.…”

Section: D Fem Model Of Turningmentioning

confidence: 99%

Finite Element Analysis of Tool Stresses, Temperature and Prediction of Cutting Forces in Turning Process

Necpal

Pokorný

Kuruc

2017

SSP

Self Cite

View full text Add to dashboard Cite

The paper presents the simulation model of turning the process of C45 non-alloy steel with a tool made of carbide insert. A 3D final element model used a lagrangian incremental type and re-meshing chip separation criterion was experimentally verified by measure cutting forces using piezoelectric dynamometer. In addition, stresses and temperature in the tooltip were predicted and examine. This work could investigate failure the tooltip, which would be great interest to predict wear and damage of cutting tool.

show abstract

Optical 3D Scanning of Cutting Tools

Cited by 17 publications

References 5 publications

Determination of the force required for the hydroforming of al 99,5

Determination of the force required for the hydroforming of al 99,5

Characterization of a Large, Low-Cost 3D Scanner

Finite Element Analysis of Tool Stresses, Temperature and Prediction of Cutting Forces in Turning Process

Contact Info

Product

Resources

About