Projects

IT & Technology

Philosophy

We are inspired by the natural world. It has been a constant occurrence throughout James’ body of work thus far, and one that has allowed for the colour, texture, shape, sounds, plant structure and anatomy found in the natural environment to seep into and inform seminal investigations throughout his career. Biomimicry is the simulation of the models, systems and elements of nature for the purpose of solving complex human problems. It is then fitting, that biomimicry has been utilised to influence the speculation and investigation into Funnel Theory.

The aim of Funnel Theory is to create a new visual language and communication platform, based in the inherent beauty within nature’s own geometric forms. Substantiated by the Atrax robustus, commonly known as the Sydney Funnel Web Spider, Funnel Theory proposes the opportunity to discover an ever returning and highly conductive web network that does not store data, but rather, it continually keeps data alive by circulating it through the structure.

This proposal is explored through the triangulation of the natural world’s physical structures. The spider’s “funnel” web became the raw material to develop a unique visual language, consisting of elements (line, shape, direction, size, mass and value) and principles (balance, repetition, contrast, harmony, unity & conductivity) of design which form the building blocks to help create this concept of data as language.

The exploration of the concept of data as language has manifested into the repetition of polygons from the triangulation of natural forms, like the pentagon and nonagon, offering the potential to keep data alive as these repetitive structures circulate and continually return data through the funnel structures. It is through the development of Funnel Theory and the utilisation of these repetitive structures that we have developed our own methods and systems of computing machinery intelligence (CMI), of which have proved highly successful.

Computing Machinery Intelligence (CMI) Computers

Various Clients

2017-present

Rapid Response Emergency Ventilator (RREV)

NSW Health

2020

Tentacle CMI

Various Clients

2021-present

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Computing Machinery Intelligence (CMI) Computers

Various

2017 – Present

The SNXG team has a wide range of experience in building CMI for the purpose of predictive analytics.

The team utilises an approach based upon Funnel Theory to achieve a design which optimises hardware requirements, improves data throughput/minimises congestion, reduces algorithmic complexity, and enables operators to identify faults as they occur. Hardware and software are designed in a bespoke manner based on project requirements.

This approach has proven successful in a wide range of industries.

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Rapid Response Emergency Ventilator

NSW Health

2020

In the early stages of the COVID-19 pandemic, the group was approached by NSW Health to assist in the design of an emergency ventilator which could be manufactured with local parts and labour.

The project involved the design and prototype of a fully functional ventilator including control circuitry, internals, and the main innovation of the work; a Venturi ejector valve capable of achieving the necessary ambient air-to-oxygen ratio with a high degree of precision. Portions of this design (particularly the ejector valve) were combined with designs by other parties to produce ventilator units for the state.

Tentacle CMI

Various Clients

2021-present

Tentacle CMI is a predictive analytics company that uses the concept of Computing Machinery Intelligence (CMI) to inform the design and build of CMI computers.

Tentacle use these CMI computers to offer consultancy services to clients in various health, finance, construction and telecommunications sectors.

How to Design a Structure

Multiplex

2018

The How to Design a Structure publication was instigated by Prof. James Murray-Parkes and the team at the Multiplex Engineering Innovations Group.

The book outlines the progress, evolution and solutions to structural design alternatives made by James and his team between 2013 and 2018. It provides an overview of the wide range of opportunities for alternative design and optimisation which are present in projects in spaces from modular construction to tall buildings and more.

Handbook for the Design of Modular Structures

Monash University, Victorian Government

2015-2017

This was initially instigated by Prof. James Murray-Parkes, Prof. Yu Bai, Adam Styles, Angela Wang, Monash University, the Victorian Government, and various industry partners.

This handbook was the first of its kind in the world, providing integrated solutions and experiences to industry, government and the community including: Design for performance; Design for Manufacture and Assembly (DfMA); and Regulatory compliance.