Abstract: Communications adapters and methods are provided for interfacing communications for an EtherNet/Ip or other general purpose industrial network, a Fieldbus or other open protocol device network, and a PointBus or other proprietary network. The adapter may be integrated in a module of a backplane system with connections to the general purpose, proprietary, and open protocol device networks, and provides a bridging for communications across the networks to make devices on the proprietary and open protocol networks accessible as if they were on a single device network and with sequential addressing capabilities.

Abstract: A system for automatically configuring I/O devices is provided in accordance with the present invention. The system includes a plurality of I/O devices operatively coupled to each other and a sub-system for determining physical locations of the I/O devices with respect to one another. The sub-system assigns node addresses to each I/O device—each assigned node address corresponds to the physical location of the respective I/O devices.

Abstract: A protocol for configuring I/O devices is provided in accordance with the present invention. The protocol includes a first protocol for enabling at least one I/O module to receive network communications, and a second protocol for providing the network communications to the at least one I/O module. The first protocol enables at least one I/O module to enable at least one other I/O module to form an I/O group.

Abstract: Communications adapters and methods are provided for interfacing communications for an EtherNet/Ip or other general purpose industrial network, a Fieldbus or other open protocol device network, and a PointBus or other proprietary network. The adapter may be integrated in a module of a backplane system with connections to the general purpose, proprietary, and open protocol device networks, and provides a bridging for communications across the networks to make devices on the proprietary and open protocol networks accessible as if they were on a single device network and with sequential addressing capabilities.

Abstract: A programmable routing module is disclosed for interconnecting field wiring with a control system. The routing module includes a field connection to connect field signals from a controlled process to the routing module, an I/O connection to connect I/O signals from the control system to the routing module, and a configurable interconnection system that selectively couples particular field and I/O signals with one another.

Abstract: A system for automatically configuring I/O devices is provided in accordance with the present invention. The system includes a plurality of I/O devices operatively coupled to each other and a sub-system for determining physical locations of the I/O devices with respect to one another. The sub-system assigns node addresses to each I/O device—each assigned node address corresponds to the physical location of the respective I/O devices.

Abstract: A protocol for configuring I/O devices is provided in accordance with the present invention. The protocol includes a first protocol for enabling at least one I/O module to receive network communications, and a second protocol for providing the network communications to the at least one I/O module. The first protocol enables at least one I/O module to enable at least one other I/O module to form an I/O group.

Abstract: An input/output device (10) includes housings (12, 120) defining a circuit board receiving cavity (25). An input/output module 160 is removably connected to the housings (12, 120). Circuit board (102) is engaged within the circuit board receiving cavity (25) and has power and data terminals (40, 60) electrically engaged therewith. Each of the power and data terminals (40, 60) have portions extending from the circuit board (102) and are adapted for being electrically engaged with complementary portions of terminals of adjacent devices in a stacked arrangement.

Abstract: An input/output device (10) includes housings (12, 120) defining a circuit board receiving cavity (25). An input/output module 160 is removably connected to the housings (12, 120). Circuit board (102) is engaged within the circuit board receiving cavity (25) and has power and data terminals (40, 60) electrically engaged therewith. Each of the power and data terminals (40, 60) have portions extending from the circuit board (102) and are adapted for being electrically engaged with complementary portions of terminals of adjacent devices in a stacked arrangement.

Abstract: An input/output device (10) includes housings (12, 120) defining a circuit board receiving cavity (25). An input/output module 160 is removably connected to the housings (12, 120). Circuit board (102) is engaged within the circuit board receiving cavity (25) and has power and data terminals (40, 60) electrically engaged therewith. Each of the power and data terminals (40, 60) have portions extending from the circuit board (102) and are adapted for being electrically engaged with complementary portions of terminals of adjacent devices in a stacked arrangement.

Abstract: An input/output device (10) includes housings (12, 120) defining a circuit board receiving cavity (25). An input/output module 160 is removably connected to the housings (12, 120). Circuit board (102) is engaged within the circuit board receiving cavity (25) and has power and data terminals (40, 60) electrically engaged therewith. Each of the power and data terminals (40, 60) have portions extending from the circuit board (102) and are adapted for being electrically engaged with complementary portions of terminals of adjacent devices in a stacked arrangement.