Abstract: A processor, memory, first transceiver, second transceiver, plurality of wired and wireless ports, and a power system storing excess energy. Multiple similar systems may mesh communication via first transceiver. Unencrypted data from ports are packaged into unencrypted data structures and forwarded to the second transceiver for transmission according to the telecommunications standard of the second transceiver. A method may include determining if either a predefined time to sample data was reached or if an interrupt was received, and then sampling ports associated with the predefined time or interrupt, to collect data from remote sensors or equipment coupled to the ports, process the sampled data, store the processed data in memory, and evaluate the stored data against a set of rules. If no rules are violated, the sampling continues, and the processed data is packaged and transmitted to a server at a prescheduled time. Actions are taken if rules are violated.

Abstract: A processor, memory, first transceiver, second transceiver, plurality of wired and wireless ports, and a power system storing excess energy. Multiple similar systems may mesh communication via first transceiver. Unencrypted data from ports are packaged into unencrypted data structures and forwarded to the second transceiver for transmission according to the telecommunications standard of the second transceiver. A method may include determining if either a predefined time to sample data was reached or if an interrupt was received, and then sampling ports associated with the predefined time or interrupt, to collect data from remote sensors or equipment coupled to the ports, process the sampled data, store the processed data in memory, and evaluate the stored data against a set of rules. If no rules are violated, the sampling continues, and the processed data is packaged and transmitted to a server at a prescheduled time. Actions are taken if rules are violated.

Abstract: A processor, memory, first transceiver, second transceiver, plurality of wired and wireless ports, and a power system storing excess energy are provided. Multiple similar systems may mesh communication via first transceiver. Unencrypted data from ports are packaged into unencrypted data structures and forwarded to the second transceiver for transmission according to the telecommunications standard of the second transceiver. A method may include determining if either a predefined time to sample data was reached or if an interrupt was received, and then sampling ports associated with the predefined time or interrupt, to collect data from remote sensors or equipment coupled to the ports, process the sampled data, store the processed data in memory, and evaluate the stored data against a set of rules. If no rules are violated, the sampling continues, and the processed data is packaged and transmitted to a server at a prescheduled time. Actions are taken if rules are violated.

Abstract: A processor, memory, first transceiver, second transceiver, plurality of wired and wireless ports, and a power system storing excess energy are provided. Multiple similar systems may mesh communication via first transceiver. Unencrypted data from ports are packaged into unencrypted data structures and forwarded to the second transceiver for transmission according to the telecommunications standard of the second transceiver. A method may include determining if either a predefined time to sample data was reached or if an interrupt was received, and then sampling ports associated with the predefined time or interrupt, to collect data from remote sensors or equipment coupled to the ports, process the sampled data, store the processed data in memory, and evaluate the stored data against a set of rules. If no rules are violated, the sampling continues, and the processed data is packaged and transmitted to a server at a prescheduled time. Actions are taken if rules are violated.

Abstract: A wireless communication system (100) or method (300) to compensate for failed network access using disparate access technologies can include an access point controller (109) for a first wireless access technology (such as wireless local area network) coupled to a wide area base receiver (106) for a second wireless access technology (such as a wireless cellular network) and a processor (150) forming a portion of the access point controller. The processor can be programmed to monitor the first wireless access technology for wireless access failures and automatically instruct the second wireless access technology to compensate for the wireless access failures of the first wireless access technology. The processor can automatically instruct by instructing the wide area base receiver to compensate for a failure of first wireless access technology or by instructing the wide area base receiver to increase cellular coverage in areas specified by the access point controller.

Abstract: A wireless communication system (100) or method (300) to compensate for failed network access using disparate access technologies can include an access point controller (109) for a first wireless access technology (such as wireless local area network) coupled to a wide area base receiver (106) for a second wireless access technology (such as a wireless cellular network) and a processor (150) forming a portion of the access point controller. The processor can be programmed to monitor the first wireless access technology for wireless access failures and automatically instruct the second wireless access technology to compensate for the wireless access failures of the first wireless access technology. The processor can automatically instruct by instructing the wide area base receiver to compensate for a failure of first wireless access technology or by instructing the wide area base receiver to increase cellular coverage in areas specified by the access point controller.