What happens when industry collaborates with academics, using the grid to share data? This was one of the main issues that we discussed today in a meeting of the NanoCMOS project. The industrial partners were clear that they would have to be convinced that their valuable data will be adequately protected before they allow their academic colleagues to use it on the grid.
The NanoCMOS project is looking at the impact of variability on the design and production of next-generation microchips. It is funded by the EPSRC and involves several leading electronics companies. The aim is to make circuit designs more resistent to the variations in the yield and performance of microchips; such variability is increasing as transistors get smaller and smaller. In a multi-billion dollar industry, it is clear that the companies involved do not want information about the design or performance of their products to go AWOL.
In the B.G. world (Before Grids), companies license their data to certain academics for them to use at their institutions. The academics are responsible for the use or misuse of this data and their institutions can be held to account in the courts.
In the world of grids, the licensing situation becomes more complicated. When scientists in different institutions use a grid to collaborate, all of them have to be bound into a licence agreement. In addition, the data providers must also trust the underlying technology and the people who use and maintain it. This requires advances in the state of the art of both the technology and in writing licences.
So far, the NanoCMOS project has focussed on the technology. Richard Sinnott's group at NeSC Glasgow are using Shibboleth to manage remote authentication and authorisation. They have developed appropriate authorisation roles, which include the authority to access particular software packages or particular data sets. Users can also be given the authority to delegate some of their roles to other people.
This apporach should work; it will allow data owners to restrict access to named individuals. The more taxing question is who manages the creation and assignment of roles. Ultimately this policy must be determined by the licensing organisation. They may install Shibboleth themselves and require all attempts to access a data set to seek authorisation from their server. Alternatively, they could delegate this right to the lead academic, who would then be responsible for managing the allocation of access rights.
Underlying this, the implementation, deployment and management of the technology must be trustworthy. The system administrators at the various sites will have the opportunity to misconfigure a system (whether deliberately or not). Additionally, of course, each deployment must be secure in itself. This will require a system of checklists and audits. Finally, each system must keep a secure log, so that they can demonstrate they have satisfied the licence agreements.
The NanoCMOS project should provide an excellent opportunity to test this in practice. The industrialists want to contribute real data and will only do so if we can get all the details right.
The NanoCMOS project is looking at the impact of variability on the design and production of next-generation microchips. It is funded by the EPSRC and involves several leading electronics companies. The aim is to make circuit designs more resistent to the variations in the yield and performance of microchips; such variability is increasing as transistors get smaller and smaller. In a multi-billion dollar industry, it is clear that the companies involved do not want information about the design or performance of their products to go AWOL.
In the B.G. world (Before Grids), companies license their data to certain academics for them to use at their institutions. The academics are responsible for the use or misuse of this data and their institutions can be held to account in the courts.
In the world of grids, the licensing situation becomes more complicated. When scientists in different institutions use a grid to collaborate, all of them have to be bound into a licence agreement. In addition, the data providers must also trust the underlying technology and the people who use and maintain it. This requires advances in the state of the art of both the technology and in writing licences.
So far, the NanoCMOS project has focussed on the technology. Richard Sinnott's group at NeSC Glasgow are using Shibboleth to manage remote authentication and authorisation. They have developed appropriate authorisation roles, which include the authority to access particular software packages or particular data sets. Users can also be given the authority to delegate some of their roles to other people.
This apporach should work; it will allow data owners to restrict access to named individuals. The more taxing question is who manages the creation and assignment of roles. Ultimately this policy must be determined by the licensing organisation. They may install Shibboleth themselves and require all attempts to access a data set to seek authorisation from their server. Alternatively, they could delegate this right to the lead academic, who would then be responsible for managing the allocation of access rights.
Underlying this, the implementation, deployment and management of the technology must be trustworthy. The system administrators at the various sites will have the opportunity to misconfigure a system (whether deliberately or not). Additionally, of course, each deployment must be secure in itself. This will require a system of checklists and audits. Finally, each system must keep a secure log, so that they can demonstrate they have satisfied the licence agreements.
The NanoCMOS project should provide an excellent opportunity to test this in practice. The industrialists want to contribute real data and will only do so if we can get all the details right.
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