Provision of Resource Efficient Supply and Manufacturing Environment (RESuME) “Industrial Internet of Things” (IIoT)

Tender description

The University seek bids from suppliers able to achieve seamless ISA-95 compliant digital connectivity for seventy-three (73) machines located in the Advanced Forming Research Centre (AFRC). The University require a single supplier to provide a solution which covers real-time data acquisition from machines and equipment(directly, via gateways and/or external sensors), data integration and synchronisation using a Message Bus system as well as data visualisation on live dashboards. This IIoT tender consists of three overarching components as described below, namely: - Component 1: Power consumption and status (on/off/idle) monitoring for all machines and equipment located in the AFRC (73 machines) - Component 2: Real-time data acquisition from machinery and equipment with communication means located in the AFRC (48 machines) - Component 3 : Data integration, synchronisation, visualisation, and storage using an IIoT Platform (i.e., Message Bus system). Due to the nature of NMIS operation, machinery and equipment selected for digital connectivity within this tender, have different digital capabilities and can be divided into two groups, as follows: 1. Machinery and equipment without communication means, such as various band saws, cranes, welders, legacy equipment etc. These machines might have legacy controllers or may only have a power supply cable (25 machines) 2. Machinery and equipment with communication means. These are controlled by a PLC or CNC, have HMI and can potentially communicate with external devices via various communication protocols, including but not limited to Modbus TCP/IP, Profibus, Ethernet, MTConnect, OPC UA etc. (48 machines) For most of the machines, additional external data acquisition systems such as various gateways, IPCs, edge devices etc. will be required in order to achieve live data acquisition. For machinery and equipment without any communication means, it is expected to use external systems (e.g., current clamps) to collect data on energy consumption a well as machines` on/off/idle status. In order to sustain data collection and synchronisation from multiple machines and equipment as well as to provide access to this data for different (3rd party) applications, an open Message Bus system (unified namespace provider) needs to be in the centre of the digital transformation. Thus, this tender covers real-time data acquisition from machines and equipment (directly, via gateways and/or external sensors), data integration and synchronisation using a Message Bus system as well as data visualisation on live dashboards. This Procurement will be conducted through the use of the Competitive Procedure with Negotiation in line with Regulation 30 of The Public Contracts (Scotland) Regulations 2015. The process applied will be as followed: -Bidder's must pass the minimum standards (pass/fail) sections of the ESPD (Scotland). These can be found within the qualification envelope of PCS-T. Statements detailing the specific requirements can be found within Section III.1.2 and III.1.3. Bidders who do not meet the minimum standards may not have their bids considered further. - Bidder's must complete and submit the technical and the commercial envelope envelope. - Responses will be scored as per the scoring methodology detailed within the Invitation to Tender Document. - The contracting authority may at this point opt to award the contract on the basis of the initial tenders without conducting negotiations. - Should negotiations be required bidders will be notified via the PCS-T messaging portal of the process to be adopted. Minimum requirements which must be met by all tenderers have been identified below. As a consequence of these requirements, where a Tenderer includes any amendments to the Minimum Requirements in their Tender Submissions, the Tender Submission may not be considered and may be refused on the grounds of such amendments or qualifications alone. 1. A Single supplier must be responsible for delivery of all specification requirements as detailed within the invitation to tender. 2. Suppliers response must include full realisation of Component 1 for all equipment 3. Suppliers response must include full realisation of Component 3 for all equipment 4. Hardware/ sensor solutions installed externally on equipment to monitor power consumption, current statues etc must be non-invasive and must not impact machine warranty or performance 5. Measuring devices or their gateways must support standard open communication protocols. 6. All data acquired from equipment must be fully unlocked 7. NMIS must be the owner of all data acquired from equipment. 8. Suppliers will be required to confirm acceptance of University Terms and Conditions in their Submitted form of tender, All clauses (excluding those noted below) will form part of the minimum requirements. UOS Standard Terms - Clause 16: Liability and Indemnity UOS Standard terms - Clause 17: Insurance ICT Provisions Clause 17.3 financial caps and liabilities Lot 1: Power consumption and status (on/off/idle) monitoring for all machines and equipment located in the AFRC Summary of main technical requirements: - Installation and commissioning of an external system measuring real-time power consumption as well as providing information on current status (on/off/idle) for each machine located within the AFRC (73 machines) - These measuring devices or their gateways will need to support standard open communication protocols, such as MQTT, OPC UA, MTConnect etc. in order to make data accessible for the Message Bus (Lot 3) to enable further centralised data processing and dashboarding. This communication must be open/unlocked. - Each device will need to be calibrated to provide true representation of power consumption. - External sensors solutions will need to be non-invasive to not interfere with machines warranty. - It would be beneficial (not essential) if external sensors supplied as part of Lot 1 can use the same gateway(s) (i.e., IPC, PLC, edge devices etc) as Lot 2 to reduce number of systems to be integrated in the future. An example of this system could be IPC + I/Os. Lot 2: Real-time data acquisition from machinery and equipment with communication means located in the AFRC Summary of main technical requirements: - Installation and commissioning of standalone data acquisition system (DAQ) which would provide access to real-time data from 48 machines located in the AFRC. - All variables available within a machine`s PLC/CNC and visible on the HMI for machine operators will need to be acquired and made available for further processing/dashboarding. In some cases, special drivers will need to be used to access data. - Some machines controllers might not have standard unlocked communication protocols. In this case communication with OEM will be required to enable this option. In the case where it is proven to be impossible to acquire data from a machine, this machine will need to be treated as “manual/legacy” and be covered within Lot 1 (power consumption monitoring). - Data will need to be acquired as close to real time as possible with min latency. - Data acquisition (DAQ) frequency/sampling rate for each variable (tag) within each machinery needs to be available for adjustment by the NMIS team to optimise data streams - Connectivity solution for each machine will need to be fully delivered working side-by-side with NMIS team to ensure ongoing training. We are looking for a completely delivered and integrated with other WPs solution, not just stand-alone software or hardware. - It would be beneficial (not essential) if gateways can facilitate data acquisition from more than one machine as well as from power consumption measurement devices (e.g., current clamps) covered within Lot 1. - It would be beneficial if gateways are able to store data locally for a short period of time (min 24 hours) to protect data in case of network outage - Gateways (PLCs, IPCs, edge devices etc) will need to support standard communication protocols, such as MQTT, OPC UA, MTConnect etc. in order to make data accessible for the Message Bus (Lot 3) to enable further centralised data processing and dashboarding. - Gateways (PLCs, IPCs, edge devices etc) will need to be capable of accepting Ethernet to 5G connectors in the future (as a minimum have a spare network port to accept connectors) - Gateways will need to have their own power supply (standard UK plug). - Development tools should be available to the NMIS team, so the DAQ can be controlled and adjusted by the NMIS digital team. Related training will need to be provided for NMIS team as part of this work. The idea behind the training is to ensure that NMIS team is capable of managing the IIoT network, including but not limited to adding new machines, sensors, changing sampling rates etc. - On premise storage solution as well as networking infrastructure will be provided. Lot 3: Data integration and synchronisation using a Message Bus system as well as building live dashboards Summary of main technical requirements: - Message Bus system (unified namespace provider) will need to manage all data collected from machines and external sensors supplied within Lots 1 and 2. - Message Bus will need to access, structure, visualise data acquired by solutions provided within Lots 1 and 2 as well as arrange data storage and enable further data integration. - Message Bus will be used to enable data integration with other systems such as ERP, MES, Data analytics etc. Therefore, data should be structured and be available to other third party software such as ERP, MES, Data analytics etc. - All data acquired will need to be visualised on live dashboards with minimum latency. - Time stamp needs to be consistent throughout the IIoT network and all data streams should be synchronised. - Data logging settings as well as data acquisition (DAQ) frequency/sampling rate for each variable (tag) should be available for adjustment by the NMIS team to optimise data streams - Data storage will need to be arranged on the AFRC`s on premise server. On premise storage solution (server) will be provided. NMIS should be the owner of all data acquired. - Development tools should be available to the NMIS team, so the DAQ can be controlled and adjusted by the NMIS digital team. Related training will need to be provided for NMIS team as part of this work. The idea behind the training is to ensure that NMIS team is capable of managing the IIoT network, including but not limited to adding new machines, amending dashboards, changing sampling rates etc. - Solution must be scalable with no or minimum cost increase to support NMIS expansion plans. Lot 1: Power consumption and status (on/off/idle) monitoring for all machines and equipment located in the AFRC Summary of main technical requirements: - Installation and commissioning of an external system measuring real-time power consumption as well as providing information on current status (on/off/idle) for each machine located within the AFRC (73 machines) - These measuring devices or their gateways will need to support standard open communication protocols, such as MQTT, OPC UA, MTConnect etc. in order to make data accessible for the Message Bus (Lot 3) to enable further centralised data processing and dashboarding. This communication must be open/unlocked. - Each device will need to be calibrated to provide true representation of power consumption. - External sensors solutions will need to be non-invasive to not interfere with machines warranty. - It would be beneficial (not essential) if external sensors supplied as part of Lot 1 can use the same gateway(s) (i.e., IPC, PLC, edge devices etc) as Lot 2 to reduce number of systems to be integrated in the future. An example of this system could be IPC + I/Os. Lot 2: Real-time data acquisition from machinery and equipment with communication means located in the AFRC Summary of main technical requirements: - Installation and commissioning of standalone data acquisition system (DAQ) which would provide access to real-time data from 48 machines located in the AFRC. - All variables available within a machine`s PLC/CNC and visible on the HMI for machine operators will need to be acquired and made available for further processing/dashboarding. In some cases, special drivers will need to be used to access data. - Some machines controllers might not have standard unlocked communication protocols. In this case communication with OEM will be required to enable this option. In the case where it is proven to be impossible to acquire data from a machine, this machine will need to be treated as “manual/legacy” and be covered within Lot 1 (power consumption monitoring). - Data will need to be acquired as close to real time as possible with min latency. - Data acquisition (DAQ) frequency/sampling rate for each variable (tag) within each machinery needs to be available for adjustment by the NMIS team to optimise data streams - Connectivity solution for each machine will need to be fully delivered working side-by-side with NMIS team to ensure ongoing training. We are looking for a completely delivered and integrated with other WPs solution, not just stand-alone software or hardware. - It would be beneficial (not essential) if gateways can facilitate data acquisition from more than one machine as well as from power consumption measurement devices (e.g., current clamps) covered within Lot 1. - It would be beneficial if gateways are able to store data locally for a short period of time (min 24 hours) to protect data in case of network outage - Gateways (PLCs, IPCs, edge devices etc) will need to support standard communication protocols, such as MQTT, OPC UA, MTConnect etc. in order to make data accessible for the Message Bus (Lot 3) to enable further centralised data processing and dashboarding. - Gateways (PLCs, IPCs, edge devices etc) will need to be capable of accepting Ethernet to 5G connectors in the future (as a minimum have a spare network port to accept connectors) - Gateways will need to have their own power supply (standard UK plug). - Development tools should be available to the NMIS team, so the DAQ can be controlled and adjusted by the NMIS digital team. Related training will need to be provided for NMIS team as part of this work. The idea behind the training is to ensure that NMIS team is capable of managing the IIoT network, including but not limited to adding new machines, sensors, changing sampling rates etc. - On premise storage solution as well as networking infrastructure will be provided. Lot 3: Data integration and synchronisation using a Message Bus system as well as building live dashboards Summary of main technical requirements: - Message Bus system (unified namespace provider) will need to manage all data collected from machines and external sensors supplied within Lots 1 and 2. - Message Bus will need to access, structure, visualise data acquired by solutions provided within Lots 1 and 2 as well as arrange data storage and enable further data integration. - Message Bus will be used to enable data integration with other systems such as ERP, MES, Data analytics etc. Therefore, data should be structured and be available to other third party software such as ERP, MES, Data analytics etc. - All data acquired will need to be visualised on live dashboards with minimum latency. - Time stamp needs to be consistent throughout the IIoT network and all data streams should be synchronised. - Data logging settings as well as data acquisition (DAQ) frequency/sampling rate for each variable (tag) should be available for adjustment by the NMIS team to optimise data streams - Data storage will need to be arranged on the AFRC`s on premise server. On premise storage solution (server) will be provided. NMIS should be the owner of all data acquired. - Development tools should be available to the NMIS team, so the DAQ can be controlled and adjusted by the NMIS digital team. Related training will need to be provided for NMIS team as part of this work. The idea behind the training is to ensure that NMIS team is capable of managing the IIoT network, including but not limited to adding new machines, amending dashboards, changing sampling rates etc. - Solution must be scalable with no or minimum cost increase to support NMIS expansion plans.