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DEXTEROUS HYBRID ROBOTICS FOR HIGH PRECISION APPLICATIONS

机译:高精度应用的敏捷混合机器人

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Robotic grippers are useful in designing prosthetics and manufacturing. "Robotic hands often fall into two categories: simple and highly specialized grippers often used in manufacturing, and general and highly complicated grippers designed for a variety of tasks." Ramond et al. Within these two categories there are two main categories of research. These are hard structure and soft structure robotics. Hard structure robotics rely on a mechanical design with a motor or actuator to move a hard-linked part. Soft structure uses a mechanical design, soft material and a pneumatic pump to create the desired movement. The soft material is designed in a way that when it is pumped full of a fluid (i.e. air) it has a specific deformation. Hard robotics have an advantage in their ability to output a large force, but soft robotics have increased degrees of freedom. Dexterity (readiness and grace in physical movement) is another advantage over hard robotics. This project focuses on the process of designing actuators that can feasibly be used for devices falling into either of the two main categories of robotics. Such an actuator could be effectively implemented toward simple applications such as manufacturing-style gripping devices to advanced applications found in modern human prosthetics or areas where high dexterity combined with a delicate touch are required. The simulations show that the designs created work within a pressure range of 0.5 PSI to 1 PSI. This low pressure does not output a lot of force. The high dexterity and small air compressors needed make it a good design for use in areas like manufacturing or medical. If a stronger material was applied to these designs allowing the designs to handle higher pressures these designs could output much higher forces. This increase would make the designs more usable in areas like prosthetics and advanced robotics.
机译:机器人抓爪可用于假肢设计和制造。 “机械手通常分为两类:通常在制造中使用的简单且高度专业化的抓手,以及为各种任务而设计的通用且高度复杂的抓手。” Ramond等。在这两个类别中,有两个主要的研究类别。这些是硬结构和软结构机器人。硬结构机器人技术依靠带有电动机或致动器的机械设计来移动硬链接的零件。柔软的结构采用机械设计,柔软的材料和气动泵来产生所需的运动。软材料的设计方式是,当其充满液体(即空气)时,它会产生特定的变形。硬机器人在输出大力的能力方面具有优势,而软机器人则具有更大的自由度。与硬机器人相比,敏捷(身体运动中的准备和优雅)是另一个优势。该项目专注于设计执行器的过程,该执行器可用于属于两种主要机器人类型的设备。这样的致动器可以有效地实现为简单的应用,例如制造型的抓紧装置,以至现代人体修复或需要高灵巧性与精致触感的区域中发现的高级应用。仿真表明,这些设计可以在0.5 PSI至1 PSI的压力范围内工作。这种低压不会输出很大的力。所需的高灵活性和小型空气压缩机使其成为用于制造或医疗领域的良好设计。如果将更坚固的材料应用于这些设计,从而使这些设计能够承受更高的压力,则这些设计可能会输出更大的力。这种增加将使设计在假肢和高级机器人等领域更有用。

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