Modular Design
Modular Design - Related Videos
06:28
Standardized Modular Assembly of Polycistronic Operons with Modular Cloning (MoClo) using the In-Cloning toolkit
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2025
This article presents a step-by-step protocol demonstrating how Modular Cloning (MoClo) can be adapted for the cloning of polycistronic operons.
10:32
Design, Surface Treatment, Cellular Plating, and Culturing of Modular Neuronal Networks Composed of Functionally Inter-connected Circuits
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Cited by 6 •
2015
This manuscript describes a protocol to grow in vitro modular networks consisting of spatially confined, functionally inter-connected neuronal circuits. A polymeric mask is used to pattern a protein layer to promote cellular adhesion over the culturing substrate. Plated neurons grow on coated areas establishing spontaneous connections and exhibiting electrophysiological activity.
11:06
Design and Fabrication of an Elastomeric Unit for Soft Modular Robots in Minimally Invasive Surgery
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Cited by 7 •
2015
This paper describes the design and fabrication of a soft unit for surgical manipulators. The base module includes three flexible fluidic actuators to achieve omnidirectional bending and elongation, and a granular jamming-based mechanism to enable stiffness control. A complete mechanical characterization is also reported.
11:53
The Modular Design and Production of an Intelligent Robot Based on a Closed-Loop Control Strategy
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2017
We present a protocol on modular design and production of intelligent robots to help scientific and technical workers design intelligent robots with special production tasks based on personal needs and individualized design.
11:22
Automated Robotic Liquid Handling Assembly of Modular DNA Devices
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Cited by 19 •
2017
Here, an automated workflow to perform modular DNA "device" assembly using a modular cloning DNA assembly method on liquid-handling robots is presented. The protocol uses an intuitive software tool for generating liquid handler picklists for combinatorial DNA device library generation, which we demonstrate using two liquid handling platforms.
FAQs
Defined interfaces are central because they specify how modules connect and exchange function within a larger bioengineering system. When those connection requirements remain consistent, a component can be replaced or adapted without redesigning every other part. This compatibility supports controlled integration and makes design changes easier to evaluate during development.
Independent testing isolates problems to a particular genetic element, biomaterial, sensor, or tissue component instead of requiring examination of the entire system. Developers can assemble a module, assess its behavior, and refine it before integration. If the complete design performs poorly, this separation supports systematic troubleshooting and helps identify whether the issue lies in one component or its interaction with others.
Standardization gives recurring modules defined expectations for compatibility, while reuse reduces the need to develop each functional part from the beginning. In bioengineering, this can shorten development time and support scalable construction of systems. It also makes comparisons between designs more systematic, because researchers can vary selected modules while retaining other components.
A practical workflow begins by selecting functional components and specifying the interfaces that must remain compatible. Each module is then assembled and tested independently, followed by integration into the larger system. Performance findings guide refinement, and the revised components can be tested again before broader assembly. This sequence helps separate component problems from integration issues and supports rapid prototyping.
The approach is useful when a project contains separable functions that may need independent adjustment or replacement. In synthetic biology, it can organize genetic elements; in medical devices, sensors; in drug-delivery platforms, functional delivery parts; and in tissue engineering, tissue components. These settings benefit from adaptable assembly and iterative refinement.
Testing modules before and after integration can reveal whether a component retains its intended function within the larger system. This comparison provides a basis for controlled refinement and troubleshooting, rather than treating the complete design as an indivisible unit. For bioengineering research, the result is a more systematic path to adaptable biological systems and potentially improved development efficiency.