Common use of Project Background Clause in Contracts

Project Background. End-to-end network functionality is best conceptualized using the 5 layer OSI model, that naturally splits the complete functionality into well-defined layers, where each layer is responsible for a well-defined set of tasks. SDR functionality typically focuses on the lowest layer of the OSI, model, emulating a full or partial physical layer on a reconfigurable platform. The advantage of SDR over “off-the-shelf” technology is that it enables a full and open implementation of all low layer functions, enabling innovation everywhere. The disadvantage is however that implementing a full PHY layer is quite complicated, and for a very long time the real-time execution of the PHY layer functionality was only possible for the slowest and simplest technologies, such as IEEE 802.15.4. Recently, SDR technology is improving, and more and more HW-accelerated SDR functionality is becoming available. As a result, SDRs can even be used for some very high throughput and advanced 5G technology, such as Massive MIMO or mmWave. In parallel, open, reconfigurable and real-time MAC protocols are emerging. As a result, SDR PHY and MAC layer technology is becoming mature enough to start considering the concept of networked SDRs. The ultimate goal of the ORCA project is to enable wireless experimenters to unlock the potential of reconfigurable radio technology, by setting up complex experiments involving end-to-end applications that require control of multiple novel technologies or cooperation between multiple networked SDR platforms within 5G (or beyond 5G) performance constraints on latency, reliability or throughput, well before new radio technologies become available on the market in commercial off-the-shelf products.

Project Background. End-to-end network functionality is best conceptualized using the 5 layer OSI model, that naturally splits the complete functionality into well-defined layers, where each layer is responsible for a well-defined set of tasks. SDR functionality typically focuses on the lowest layer of the OSI, model, emulating a full or partial physical layer on a reconfigurable platform. The advantage of SDR over “off-the-shelf” technology is that it enables a full and open implementation of all low layer functions, enabling innovation everywhere. The disadvantage is however that implementing a full PHY layer is quite complicated, and for a very long time the real-time execution of the PHY layer functionality was only possible for the slowest and simplest technologies, such as IEEE 802.15.4. Recently, SDR technology is improving, and more and more HW-accelerated SDR functionality is becoming available. As a result, SDRs can even be used for some very high throughput and advanced 5G technology, such as Massive MIMO or mmWave. In parallel, open, reconfigurable and real-time MAC protocols are emerging. As a result, SDR PHY and MAC layer technology is becoming mature enough to start considering the concept of networked SDRs. The ultimate goal of the ORCA project is to enable wireless experimenters to unlock the potential of reconfigurable radio technology, by setting up complex experiments involving end-to-end applications that require control of multiple novel technologies or cooperation between multiple networked SDR platforms within 5G (or beyond 5G) performance constraints on latency, reliability latency or throughput, well before new radio technologies become available on the market in commercial off-the-shelf products.

Project Background. End-to-end network functionality is best conceptualized using the 5 5-layer OSI model, that naturally splits the complete functionality into well-defined layers, where each layer is responsible for a well-defined set of tasks. SDR functionality typically focuses on the lowest layer of the OSI, model, emulating a full or partial physical layer on a reconfigurable platform. The advantage of SDR over “off-the-shelf” technology is that it enables a full and open implementation of all low layer functions, enabling innovation everywhere. The disadvantage is however that implementing a full PHY layer is quite complicated, and for a very long time the real-time execution of the PHY layer functionality was only possible for the slowest and simplest technologies, such as IEEE 802.15.4. Recently, SDR technology is improving, and more and more HW-accelerated SDR functionality is becoming available. As a result, SDRs can even be used for some very high throughput and advanced 5G technology, such as Massive MIMO or mmWave. In parallel, open, reconfigurable and real-time MAC protocols are emerging. As a result, SDR PHY and MAC layer technology is becoming mature enough to start considering the concept of networked SDRs. The ultimate goal of the ORCA project is to enable wireless experimenters to unlock the potential of reconfigurable radio technology, by setting up complex experiments involving end-to-end applications that require control of multiple novel technologies or cooperation between multiple networked SDR platforms within 5G (or beyond 5G) performance constraints on latency, reliability or throughput, well before new radio technologies become available on the market in commercial off-the-shelf products.

Project Background. End-to-end network functionality is best conceptualized using the 5 layer OSI modelmodel (Figure 1), that naturally splits the complete functionality into well-defined layers, where each layer is responsible for a well-defined set of tasks. SDR functionality typically focuses on the lowest layer of the OSI, model, emulating a full or partial physical layer on a reconfigurable platform. The advantage of SDR over “off-the-shelf” technology is that it enables a full and open implementation of all low layer functions, enabling innovation everywhere. The disadvantage is however that implementing a full PHY layer is quite complicated, and for a very long time the real-time execution of the PHY layer functionality was only possible for the slowest and simplest technologies, such as IEEE 802.15.4. Recently, SDR technology is improving, and more and more HW-accelerated SDR functionality is becoming available. As a result, SDRs can even be used for some very high throughput and advanced 5G technology, such as Massive MIMO or mmWave. In parallel, open, reconfigurable and real-time MAC protocols are emerging. As a result, SDR PHY and MAC layer technology is becoming mature enough to start considering the concept of networked SDRs. The ultimate goal of the ORCA project is to enable wireless experimenters to unlock the potential of reconfigurable radio technology, by setting up complex experiments involving end-to-end applications that require control of multiple novel technologies or cooperation between multiple networked SDR platforms within 5G (or beyond 5G) performance constraints on latency, reliability latency or throughput, well before new radio technologies become available on the market in commercial off-the-shelf products.