Holographic Construction

Jahn, Gwyllim; Newnham, Cameron; Berg, Nick van den; Iraheta, Melissa; Wells, Jackson

doi:10.1007/978-3-030-29829-6_25

Cited by 23 publications

(8 citation statements)

References 5 publications

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“…Both of the following projects and methodologies discussed here make use of the Fologram plugin for Grasshopper (Jahn et al 2020) which enables the augmented visualisation of geometry via either smart phones or AR headsets.…”

Section: Methodsmentioning

confidence: 99%

Recycling Construction Waste Material with the Use of AR

Parry

Guy²

2021

Proceedings of the 2020 DigitalFUTURES

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Section: Methodsmentioning

confidence: 99%

Recycling Construction Waste Material with the Use of AR

Parry

Guy²

2021

Proceedings of the 2020 DigitalFUTURES

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“…Fologram (2018) synchronizes geometry from Rhinoceros or Grasshopper with geometry rendered on mixed reality devices such as the Hololens over a local WiFi network connection. A relevant application of such tool is a mixed reality platform that enables construction workers to carry out tasks by following interactive holographic instruction sets generated directly from parametric models, aiming at reducing construction time and improving training, collaboration and skill development (Jahn et al, 2020). In our prototype, Fologram is used to establish a connection between Hololens worn by the user and the GH model that controls the robotic arm.…”

Section: Methodsmentioning

confidence: 99%

Robotic Apprentices: Leveraging Augmented Reality for Robot Training in Manufacturing Automation

Costa¹,

Duarte²,

Bilén³

2020

Blucher Design Proceedings

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In the scope of Industry 4.0, a framework is proposed to leverage the potential of articulating Augmented Reality and Robotic Manufacturing in the construction industry. The objective of such framework is to enable robots to learn how to perform tasks using direct interaction with human operators. As a first step, we established a connection between a robot and its traineror controller-in which the robot mirrors the operator's actions. Augmented Reality hardware is used for capturing the trainer's gestures and the surrounding environment. A digital tool was implemented using Grasshopper and additional plugins to control the process.

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“… Assemble components using augmented‐reality templates : This stage uses augmented‐reality templates to assemble cavity components with efficiency, ease, repeatability and precision. Here, humans wear head‐mounted displays that allow them to visualise digital guides atop physical objects to assist the assembly of complex designs and reduce the need for expert knowledge during construction (Jahn et al, 2019). …”

Section: A Framework For Computer‐aided Design and Manufacturing Of C...mentioning

confidence: 99%

“…However, practical trials demonstrate that such devices have user‐friendly designs and allow non‐experts to assemble objects without prior training (e.g. see the bricklaying of architecturally‐designed walls, Jahn et al, 2019). Similarly, the use of 3D printing might appear time‐consuming.…”

Section: Towards Systematic Innovation For Wildlife Conservationmentioning

confidence: 99%

A framework for computer‐aided design and manufacturing of habitat structures for cavity‐dependent animals

et al. 2022

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1. The decline of critical habitat structures, such as large old trees, is a global environmental challenge. The cavities that occur in these trees provide shelter and nesting sites for many species but can take centuries to develop. Artificial cavities, including nest boxes and carved logs, offer an increasingly important conservation response. However, current methods of designing, manufacturing and deploying such habitats have constraints that limit innovation, feasibility and effectiveness. In response, this article aims to provide new and broadly useable methods that can improve the design of habitat structures for cavity-dependent animals.2. To address the shortcomings of existing methods, we develop an approach that uses computer-aided design techniques of generative and parametric modelling to produce structures that satisfy stakeholder needs, computer-aided manufacturing techniques of 3D printing and augmented-reality assembly to build functional prototypes, and computer-assisted techniques of laser scanning and data-driven design to support installation, monitoring and iterative improvement of designs. We demonstrate this approach through a case-study project that designs and instals habitat structures for the powerful owl Ninox strenua, a cavity-dependent and threatened bird.3. Through a comparison with existing methods, our pilot study shows that computer-aided design and manufacturing can provide novel and useful approaches to develop artificial habitat-structures. Computer-aided design finds geometries that approximate the complex characteristics of natural tree cavities and automatically produces new versions to suit diverse sites or species.Computer-aided manufacturing integrates materials that match the performance of naturally occurring habitat structures and facilitates the assembly of complex geometries by non-experts. Computer-assisted techniques produce precisely fitting and easy-to-instal designs, which support gradual improvement through ongoing prototyping and evaluation.

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Holographic Construction

Cited by 23 publications

References 5 publications

Recycling Construction Waste Material with the Use of AR

Recycling Construction Waste Material with the Use of AR

Robotic Apprentices: Leveraging Augmented Reality for Robot Training in Manufacturing Automation

A framework for computer‐aided design and manufacturing of habitat structures for cavity‐dependent animals

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