Design machines

Nadya Peek, J. Coleman
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引用次数: 18

Abstract

Hardware and software are disjoint in their representations, their production methods, and their validation. Machine design, machine building, and machine control have historically taken place separately, and correspondingly, machine tools are not well integrated systems addressing an automation or fabrication need. However, digital fabrication tools are becoming increasingly ubiquitous. Digital fabrication introduces precision and accuracy to the prototyping process. Without requiring a craftman's attention to toolmaking, users can prototype tools for rapid prototyping-- the precision and repeatability required is now readily available. Rapid prototyping tools can become one-off interventions tailored for a task at hand. In this studio course, we will condense the steps of prototyping rapid prototyping equipment into an afternoon. We will use the Modular Machines that Make Construction Kit, which offers modular software, hardware, and end effectors for users to prototype with. The Modular Machines that Make project uses 1-axis motion stages that can be connected together in different configurations to produce different motion systems. For example, 2 stages placed together horizontally can make a XY stage, or 3 stages can give 3 axis motion. The stages themselves are made out of laser cut cardboard, and their design can be parametrically modified to accommodate different work envelopes. To prototype the control systems and software for the machines, users will use the pyGestalt machine control library and corresponding network-programmable hardware nodes. The end effectors for the machines can be prototyped on the fly, but the construction kit also contains a variety of end effectors as a point of departure, including milling heads, 3d printing heads, plotter heads, usb microscopes, and syringe pumps. By spanning the layers of implementation (in mechanics, in electronics, and in software), users will be able to think of designing digital fabrication tools as a cohesive whole, instead of the disjoint application of a variety of different fields. This kind of remix prototyping will create new kinds of CAD/CAM/machine tools that can better address the individual needs of the users. Simultaneously, this kind of accessible automation explores broader applications of precision-- by lowering the threshold to precise, repeatable automation, users can e.g. start automating a production run of 100 units, or a biology experiment that would be tedious to pipette by hand, or the synthesis of a material. By the end of the course, the users will have an understanding of the subcomponents of machine and machine interface design and how a machine system is integrated. The course will be hands-on, and by the end of the course participants will have created a working machine, as well as discussed distributed manufacturing, rapid prototyping, and advanced manufacturing and automation.
设计机器
硬件和软件在它们的表示、它们的生产方法和它们的验证方面是分离的。机器设计、机器制造和机器控制在历史上是分开进行的,相应地,机床也不是解决自动化或制造需求的很好的集成系统。然而,数字制造工具正变得越来越普遍。数字制造为原型制作过程引入了精度和准确性。不需要工匠的注意工具制作,用户可以原型快速原型的工具-所需的精度和可重复性现在是现成的。快速原型工具可以成为针对手头任务量身定制的一次性干预。在这个工作室的课程中,我们将把快速成型设备的原型制作步骤浓缩成一个下午。我们将使用模块化机器,使建设工具包,它提供模块化软件,硬件和终端执行器的用户原型。模块化机器制造项目使用1轴运动阶段,可以以不同的配置连接在一起,以产生不同的运动系统。例如,水平放置在一起的2个阶段可以形成XY阶段,或者3个阶段可以形成3轴运动。舞台本身是由激光切割纸板制成的,它们的设计可以参数化修改,以适应不同的工作信封。为了对机器的控制系统和软件进行原型设计,用户将使用pyGestalt机器控制库和相应的网络可编程硬件节点。机器的末端执行器可以在飞行中原型,但施工套件还包含各种末端执行器作为出发点,包括铣削头,3d打印头,绘图头,usb显微镜和注射器泵。通过跨越实现层(机械、电子和软件),用户将能够将设计数字制造工具视为一个有凝聚力的整体,而不是各种不同领域的脱节应用。这种混合原型将创造出新型的CAD/CAM/机床,可以更好地满足用户的个性化需求。同时,这种可访问的自动化探索了更广泛的精度应用——通过降低精确、可重复自动化的门槛,用户可以开始自动化100个单位的生产运行,或者手工移液繁琐的生物实验,或者材料的合成。在课程结束时,使用者将了解机器的子组件和机器接口设计以及如何集成机器系统。课程将是动手,并在课程结束时,参与者将创建一个工作机器,以及讨论分布式制造,快速原型,先进的制造和自动化。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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