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Architectural Model Making

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Architectural Model Making marking cutting engraving Laser systems for Architectural model making © Peter McCann, Kanada: Panorama www.troteclaser.com High-precision, detailed models from wood, acrylic, paper, cardboard, plastic, and many other materials The advantages of Laser technology The use of laser technology in the construction of One tool for all geometries and materials architectural models offers unbeatable advantages Milling various materials, geometric shapes and over other technologies: thicknesses of material requires different tool heads. The laser beam is the universal “tool” for all geometric shapes and materials. Not only that, the beam is High-precision and attention to detail always “laser sharp”. You therefore no longer have to Using laser technology you can produce your own very think about the cost of tools or sharpening. detailed geometric shapes to a high level of precision. This No post-processing of material required allows you absolute freedom when designing your own PMMA is often used in architectural model making. models. The quality of engraving of surface textures and However, the manual fl ame polishing of the milled facades also enables you to produce presentation or edges of the acrylic parts is costly and time-intensive. competition models of high quality and great detail. There is also the risk that the work piece may become Unlimited choice of materials damaged or even destroyed if mishandled. Laser A range of materials are used in the construction of cutting produces crystal-clear edges and inner architectural models: textiles, wood, veneers, MDF, cardboard, contours without the need for further processing. paper, foam, polystyrene, fi lms and many more. Laser Non-contact material processing technology handles all of these materials with ease. This During milling, the sheet material has to be clamped allows you absolute freedom when designing your own tightly and often fi xed in place with a vacuum. During models. laser processing, no pressure is exerted on the material The fi nest details (no clamping or other form of fi xing). Simply insert The fi ne laser beam lets you work to a high level of precision. and laser. This saves time and money when preparing All parts are therefore reliably precise. Filigree designs and the the material. most detailed geometric shapes can be created to the nearest tenth of a millimetre without needing to consider the type of tool used. Less waste Laser processing does not produce any swarf or shavings which are expensive to dispose of. © KPF © Diplomarbeit an der TU Graz © TU Eindhoven, Niederlande High precision competition model Design model Processing of a wide range of materials, like acrylics or wood Laser technology in architectural model making - always an advantage! Our customers can confirm this: the considerably shorter production times achieved when cut- ting individual components using the Trotec laser system save 80% compared to manual produc- tion methods. Why Trotec? Ease of handling Safe production environment A Trotec laser system is as simple to operate as a Special protection (screens, safety glasses) must be used printer. Layouts are printed directly from the when operating open laser systems (Class 4). However, construction program and the laser parameters are Trotec lasers are Class 2. This means your staff are well added. This ensures that your layout is placed on the protected. This closed design also means that dust and gas material quickly and reliably without any need to are extracted quickly and effi ciently. take the type of tool into consideration. TroCAM CAD/CAM Software Perfect cutting and engraving results TroCAM is a fully-equipped, integrated CAD/CAM software Trotec lasers can be used for high-precision cutting as solution for controlling your Trotec Laser. It has been well as engraving. The high quality axis drive and developed to provide you with perfect quality, greater intelligent routing of air fl ow on the Trotec laser productivity, the highest level of reliability and additional ensure consistent optimal engraving and cutting fl exibility. Importing data from all major CAD programs is a results. simple process. Flexible application Maintenance-free components Many materials require different laser treatments in Trotec lasers only contain the highest quality components of order to achieve optimal results. Trotec offers a range leading manufacturers. The precision guides or mainte- of useful and ingenious accessories for its units. nance-free servomotors, for example, provide you with the Vacuum table, passthrough, various lenses, gas kit best cutting results. Or there is our InPack-TechnologyTM, and much more. You are therefore best equipped to which protects the optics, motors and electronics. Trotec handle all applications. lasers are therefore highly reliable and require minimum downtime. Even during production peaks such as deadlines or the end of a semester. © Huppertz Modellbau & Engineering, Deutschland Filigree archtiectural models Engraving precise surfaces & textures Laser technology in architectural model making – material preparation by comparison Construction/ Clamping/ Cutting Cleaning/ End product Saw design vacuum setup polishing Construction/ Clamping/ Cutting Cleaning/ End product Mill design vacuum setup polishing Construction/ Clamping/ Cutting End product Plotter design vacuum setup Construction/ Cutting End product Laser design Important facts and fi gures Typical Trotec systems: Rayjet, Speedy 100, Speedy 300, SP500, SP1500 Working area: Up to 1500 x 1250 mm Laser power: Up to 400 watts Laser class: Laser safety class 2 (with pass-through class 4) File formats: All popular file formats like .DXF, .DWG, .AI, .EPS, .CDR Trotec Laser – developed and built in Austria Selected testimonials: Architectural model makers Educational institutions and architects Railway model makers • Bauhaus University Weimar - Faculty • Peter McCann (Canada) • Huppertz Modellbau & for architecture (Germany) • Kohn Pedersen Fox (Canada) Engineering (Germany) • TU Vienna - faculty for architecture and • Coop Himmelb(l)au (Austria) • Mini Europe (Belgium) urbanism (Austria) • Duggal Visual Solutions, Inc. (USA) • Regner Eisenbahnmodelle • TU Dresden - Faculty for architecture (Germany) • Projektdesign Holzhammer (Austria) (Germany) • ÉPFL – Faculté Environnement Naturel, • Newtone (France) • Noch GmbH & Co. KG (Germany) Architectural et Construit (Switzerland) • Design Seoul Model (Korea) • Gebr. Faller GmbH (Germany) • Fachhochschule Münster – Department 16167 design (Germany) • University Innsbruck (Austria) • Fachhochschule Salzburg (Austria) • HTL Hallein (Austria) • TU Eindhoven (The Netherlands) • University Tasmania (Australia) • TU Munich (Germany) Send us your materials and samples: Our application technicians support you in looking for the optimal laser system for you. Printed on FSC certified paper Printed on FSC certified Trotec Laser GmbH www.troteclaser.com Linzer Str. 156, A-4600 Wels, [email protected] Tel. +43 / 72 42 / 239-7777, Fax +43 / 72 42 / 239-7380 www.facebook.com/trotec twitter.com/TrotecLaser.
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