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Tourism 2025 – Growing Value Together/Whakatipu Uara Ngatahi is a framework to unite New Zealand's large and diverse tourism industry and ignite strong, aspirational economic growth. Its goal is to see the tourism industry contribute $41 billion a year to the New Zealand economy by 2025, up from $24 billion now. It provides vital context for some collective actions by big or small industry clusters and for thousands of actions individual businesses will take each year. The paper aims to discuss these issues.

A wide range of tourism industry stakeholders were consulted over an 18‐month period to ensure the project was being developed on a solid, evidence‐based foundation. There was strong stakeholder support for a framework which the private sector takes ownership of and responsibility for, but which also recognises that public sector support is vital. The project team developed a “straw‐man” growth framework model which resulted in carrying out detailed investigations and consultation to test and, where necessary, adjust that model into its final form.

There were four major forces shaping the global tourism market. There was one positive force for New Zealand countered by three tough challenges. The strawman growth framework comprised five separate yet inter‐connected “cycle of growth” themes. These themes are relatively consistent with global national tourism plans that were studied. Used intelligently and in harmony, with the industry fully understanding the inter‐relationships and inter‐dependencies within the “cycle of growth”, the key themes enable the tourism industry to successfully come to grips with the challenges and opportunities ahead.

Tourism 2025 is aimed at aligning the industry on a pathway towards aspirational growth.

This study aims to understand the experiences of professional paid carers providing community support to people with intellectual disability “at risk of admission”. This study explores factors that were helpful or lacking in terms of the support the carers received from NHS health services during this time.

This study conducted semi-structured interview with eight participants. Thematic analysis was used to analyse the data.

Three main themes and ten subthemes were identified. The first main theme was “support systems” that were available or lacking for the client and their carers. The second main theme was “training and supervision” available to the carers and their team when the individual they supported needed additional support. The third theme was “change” clients encountered which included changes in the environment as well as changes because of COVID-19 pandemic.

To the best of the authors’ knowledge, this is the first study on experiences of carers during specifically high stress periods, such as when the clients they are supporting are at risk of hospital admission.

This study aims to investigate the options for additive rapid prototyping methods in microelectromechanical systems (MEMS) technology. Additive rapid prototyping technologies, such as stereolithography (SLA), fused deposition modeling (FDM) and selective laser sintering (SLS), all commonly known as three-dimensional (3D) printing methods, are reviewed and compared with the resolution requirements of the traditional MEMS fabrication methods.

In the 3D print approach, the entire assembly, parts and prototypes are built using various plastic and metal materials directly from the software file input, completely bypassing any additional processing steps. The review highlights their potential place in the overall process flow to reduce the complexity of traditional microfabrication and long processing cycles needed to test multiple prototypes before the final design is set.

Additive manufacturing (AM) is a promising manufacturing technique in micro-device technology.

In the current state of 3D printing, microfluidic and lab-on-a-chip devices for fluid handling and manipulation appear to be the most compatible with the 3D print methods, given their fairly coarse minimum feature size of 50-500 μm. Future directions in the 3D materials and method development are identified, such as adhesion and material compatibility studies of the 3D print materials, wafer-level printing and conductive materials development. One of the most important goals should be the drive toward finer resolution and layer thickness (1-10 μm) to stimulate the use of the 3D printing in a wider array of MEMS devices.

The review combines two discrete disciplines, microfabrication and AM, and shows how microfabrication and micro-device commercialization may benefit from employing methods developed by the AM community.