仅仅1.36g 像蚊子一样的飞行机器人 南加州大学研制成功
Insect behavior, miniature blimps may unlock the key to military swarming technology
俄航天消息人士:月球上的俄月球车将由机器人控制
ADVANCED Motion Controls debuts FlexPro digital servo drives
The FE060-25-EM is the first servo drive of the new FlexPro digital drive family from ADVANCED Motion Controls (AMC). Designed with compact form and power density in mind, the micro-sized FE060-25-EM can outperform larger-sized digital servo drives and still be integrated into tight spaces.
At just 1.5 x 1 x 0.6 in. (38 x 25 x 16 mm) in size, the footprint of the drive is approximately the same as two standard postage stamps. In other words, four of these drives can fit on a standard business card. Even with its small size, the FE060-25-EM can supply brushed, brushless, stepper, and linear servo motors with up to 25 A continuous current and 50 A peak current.
Here are some of the features of the FE060-25-EM servo drive:
- 10 to 55 Vdc supply voltage
- Highest power density servo drive from AMC to date
- EtherCAT Communication
- Incremental encoder and BISS C-mode feedback
- Torque, velocity, and position operating modes
- Configuration and full loop tuning
IMPACT architecture
IMPACT (Integrated Motion Platform And Control Technology) is the architecture that makes AMC’s FlexPro drives possible. The stacking of circuit boards with creative selection and placement of high-power components allows for much higher power density than previously produced servo drives.
A developer version is available for proof-of-concept and testing purposes – part number FD060-25-EM. It comes with an FE060-25-EM soldered to a larger board equipped with various connectors for simplified interfacing.
The small size of the FE060-25-EM makes well-suited for cobots, AGVs, lab and warehouse automation, military equipment, and any other integrated design.
Hank robot from Cambridge Consultants offers sensitive grip to industrial challenges
Robotics developers have taken a variety of approaches to try to equal human dexterity. Cambridge Consultants today unveiled Hank, a robot with flexible robotic fingers inspired by the human hand. Hank uses a pioneering sensory system embedded in its pneumatic fingers, providing a sophisticated sense of touch and slip. It is intended to emulate the human ability to hold and grip delicate objects using just the right amount of pressure.
Cambridge Consultants stated that Hank could have valuable applications in agriculture and warehouse automation, where the ability to pick small, irregular, and delicate items has been a “grand challenge” for those industries.
Picking under pressure
While warehouse automation has taken great strides in the past decade, today’s robots cannot emulate human dexterity at the point of picking diverse individual items from larger containers, said Cambridge Consultants. E‑commerce giants are under pressure to deliver more quickly and at a cheaper price, but still require human operators for tasks that can be both difficult and tedious.
“The logistics industry relies heavily on human labor to perform warehouse picking and packing and has to deal with issues of staff retention and shortages,” said Bruce Ackman, logistics commercial lead at Cambridge Consultants. “Automation of this part of the logistics chain lags behind the large-scale automation seen elsewhere.”
By giving a robot additional human-like senses, it can feel and orient its grip around an object, applying just enough force, while being able to adjust or abandon if the object slips. Other robots with articulated arms used in warehouse automation tend to require complex grasping algorithms, costly sensing devices, and vision sensors to accurately position the end effector (fingers) and grasp an object.
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Hank uses sensors for a soft touch
Hank uses soft robotic fingers controlled by airflows that can flex the finger and apply force. The fingers are controlled individually in response to the touch sensors. This means that the end effector does not require millimeter-accurate positioning to grasp an object. Like human fingers, they close until they “feel” the object, said Cambridge Consultants.
With the ability to locate an object, adjust overall system position and then to grasp that object, Hank can apply increased force if a slip is detected and generate instant awareness of a mishandled pick if the object is dropped.
Cambridge Consultants claimed that Hank moves a step beyond legacy approaches to this challenge, which tend to rely on pinchers and suction appendages to grasp items, limiting the number and type of objects they can pick and pack.
“Hank’s world-leading sensory system is a game changer for the logistics industry, making actions such as robotic bin picking and end-to-end automated order fulfillment possible,” said Ackman. “Adding a sense of touch and slip, generated by a single, low-cost sensor, means that Hank’s fingers could bring new efficiencies to giant distribution centers.”
Molded from silicone, Hank’s fingers are hollow and its novel sensors are embedded during molding, with an air chamber running up the center. The finger surface is flexible, food-safe, and cleanable. As a low-cost consumable, the fingers can simply be replaced if they become damaged or worn.
With offices in Cambridge in the U.K.; Boston, Mass.; and Singapore, Cambridge Consultants develops breakthrough products, creates and licenses intellectual property, and provides business and technology consulting services for clients worldwide. It is part of Altran, a global leader in engineering and research and development services. For more than 35 years, Altran has provided design expertise in the automotive, aerospace, defense, industrial, and electronics sectors, among others.
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The Robot Report May 2019 issue on mobile robotics
We hope you enjoy the latest edition of The Robot Report, a special print section dedicated to mobile robotics. This appeared in the May 2019 issue of Design World, our sister publication and flagship publication at WTWH Media. Here is a breakdown of the mobile robotics topics covered inside:
Robotics Summit 2019 to take a closer look at mobile robots
Mobile robot engineers and users can learn from technology and industry leaders at the Robotics Summit & Expo, which runs June 5-6 in Boston.
What Amazon’s acquisition of Canvas Technology means
Amazon’s acquisition demonstrates the importance of safe navigation for developers and users of supply chain automation.
Augmenting SLAM with deep learning
SLAM is being gradually developed towards Spatial AI, the common sense spatial reasoning that will enable robots and other devices to operate in general ways in their environments.
Mobile robot trends from Automate/ProMat
At Automate/ProMat 2019 in Chicago, robotics developers checked out the latest products for manufacturing and logistics. Here are some robotics trends we saw at the show.
Expert roundtable: mobile robotics challenges and opportunities
A3’s Jeff Burnstein chats with leading autonomous mobile robot providers about market growth, technical challenges, and opportunities.
Integrating AI with fleet management software advances AMR collaboration
Data from new sensors, in combination with AI and machine learning, is making autonomous mobile robots or AMRs more flexible and safer around humans.
How 5G will impact mobile robots
Leading robotics companies share their opinions about how 5G will impact autonomous mobile robots.
If you are interested in contributing content to an upcoming special issue of The Robot Report, please reach out to me at scrowe@wtwhmedia.com or Eugene Demaitre at edemaitre@wtwhmedia.com. If you are interested in sponsorship opportunities of upcoming special issues, please reach out to Courtney Seel at cseel@wtwhmedia.com.