Abstract: A method of authenticating a robustly-identifiable system is provided. The method includes causing a processor of a mobile work machine to issue a challenge to a robustly-identifiable sensor module mounted relative to the mobile work machine. The method also includes receiving, by the processor of the mobile work machine, a response from the robustly-identifiable sensor module. The method also includes comparing, with the processor of the mobile work machine, the received response to an expected response to generate a match result. The method also includes selectively initiating trusted operation of the mobile work machine based on the match result.

Abstract: A method of authenticating a robustly-identifiable system is provided. The method includes causing a processor of a mobile work machine to issue a challenge to a robustly-identifiable sensor module mounted relative to the mobile work machine. The method also includes receiving, by the processor of the mobile work machine, a response from the robustly-identifiable sensor module. The method also includes comparing, with the processor of the mobile work machine, the received response to an expected response to generate a match result. The method also includes selectively initiating trusted operation of the mobile work machine based on the match result.

Abstract: In embodiments of wireless radios managed based on proximity, a mobile device, such as a mobile phone, tablet computer, or other portable device can be implemented for multiple, different wireless communications. A mobile device can include a first radio system for a first wireless communications technology, and a second radio system for a second wireless communications technology. A connection manager determines, based on the first wireless communications technology, whether the mobile device is in an area that is proximate an endpoint implemented for the second wireless communications technology. The connection manager can turn-on the second radio system to enable wireless communication with the endpoint when the mobile device is in the area proximate the endpoint. Alternatively, the connection manager can turn-off the second radio system and conserve power that would otherwise be utilized to scan for the endpoint when the mobile device is not in the area proximate the endpoint.

Abstract: One or more techniques and/or systems are disclosed for matching a client device with an appropriate network service provider data package. A device ID for the client device can be decomposed to one or more device ID ranges in a device decomposition set. One or more ranges of client ID can be assigned to a network service provider data package, which can be decomposed into a set of package decomposition ranges in a package decompositions set. The device decomposition set can be compared to the package decomposition set, and if an intersection is identified between the sets, the network service provider data package can be provided to the client device.

Abstract: One or more techniques and/or systems are disclosed for matching a client device with an appropriate network service provider data package. A device ID for the client device can be decomposed to one or more device ID ranges in a device decomposition set. One or more ranges of client ID can be assigned to a network service provider data package, which can be decomposed into a set of package decomposition ranges in a package decompositions set. The device decomposition set can be compared to the package decomposition set, and if an intersection is identified between the sets, the network service provider data package can be provided to the client device.

Abstract: One or more techniques and/or systems are disclosed for matching a client device with an appropriate network service provider data package. A device ID for the client device can be decomposed to one or more device ID ranges in a device decomposition set. One or more ranges of client ID can be assigned to a network service provider data package, which can be decomposed into a set of package decomposition ranges in a package decompositions set. The device decomposition set can be compared to the package decomposition set, and if an intersection is identified between the sets, the network service provider data package can be provided to the client device.

Abstract: In embodiments of wireless radios managed based on proximity, a mobile device, such as a mobile phone, tablet computer, or other portable device can be implemented for multiple, different wireless communications. A mobile device can include a first radio system for a first wireless communications technology, and a second radio system for a second wireless communications technology. A connection manager determines, based on the first wireless communications technology, whether the mobile device is in an area that is proximate an endpoint implemented for the second wireless communications technology. The connection manager can turn-on the second radio system to enable wireless communication with the endpoint when the mobile device is in the area proximate the endpoint. Alternatively, the connection manager can turn-off the second radio system and conserve power that would otherwise be utilized to scan for the endpoint when the mobile device is not in the area proximate the endpoint.

Abstract: One or more techniques and/or systems are disclosed for matching a client device with an appropriate network service provider data package. A device ID for the client device can be decomposed to one or more device ID ranges in a device decomposition set. One or more ranges of client ID can be assigned to a network service provider data package, which can be decomposed into a set of package decomposition ranges in a package decompositions set. The device decomposition set can be compared to the package decomposition set, and if an intersection is identified between the sets, the network service provider data package can be provided to the client device.

Abstract: A free-standing urinal (1) having: a housing (2); a trough (3) for urine; a urine collection tank (4) located within the housing (2); a drain (7) and waste trap (8) arrangement extending between the trough (3) and the tank (4); a valved outlet (28) from the tank (4); a hand wash sink (9); a drain (10) extending between the sink (9) and the trough (3); a fresh water dispenser for dispensing water into the sink (9); a paper towel dispenser (60); a paper towel waste container (70); and lifting fixtures (35, 36, 37) for moving the urinal (1) by forklift, hand or crane; The drain (7) and waste trap (8) arrangement has an “S bend” (30) containing an oily sealant (31). The urinal (1) is portable, it is freestanding and need not be mounted to a wall or other fixture, and it need not be connected to a mains water supply and sewerage system.

Abstract: A free-standing urinal (1) having: a housing (2); a trough (3) for urine; a urine collection tank (4) located within the housing (2); a drain (7) and waste trap (8) arrangement extending between the trough (3) and the tank (4); a valved outlet (28) from the tank (4); a hand wash sink (9); a drain (10) extending between the sink (9) and the trough (3); a fresh water dispenser for dispensing water into the sink (9); a paper towel dispenser (60); a paper towel waste container (70); and lifting fixtures (35, 36, 37) for moving the urinal (1) by forklift, hand or crane; The drain (7) and waste trap (8) arrangement has an “S bend” (30) containing an oily sealant (31). The urinal (1) is portable, it is freestanding and need not be mounted to a wall or other fixture, and it need not be connected to a mains water supply and sewerage system.

Abstract: A geographic unit control method including the steps of positioning ground equipment, evaluating an effect, and denying execution of an operation. Ground engaging equipment is positioned proximate to the geographic unit. An evaluation of an effect to the geographic unit, an other geographic unit adjacent to the geographic unit, a crop growing in the geographic unit and/or a future crop to be grown in the geographic unit if the ground engaging equipment performs an operation in the geographic unit. Execution of the operation is denied if the effect of the operation is not authorized.

Abstract: A method of optimizing a plurality of ground engaging operations in a plurality of geographic units, with each ground engaging operation carried out using a respective work machine, includes the steps of: for each of the ground engaging operations, establishing an assumed start time and execution time associated with the ground engaging operation, determining a value associated with the ground engaging operation at the start time, quantifying a number of determined costs not associated with the ground engaging operation, identifying a number of manageable costs associated with the ground engaging operation, and determining a net profit associated with the ground engaging operation; determining a total profit associated with all of the ground engaging operations; and providing a schedule to an operator corresponding to all of the ground engaging operations.

Abstract: A method of optimizing a spatially dependent ground engaging task including the steps of defining a plurality of sub-areas within an area, calculating a cost of performing the task and coalescing cost matrices. The calculating step includes calculating a cost of performing the task for each of the plurality of sub-areas for each of a plurality of times. The cost of each sub-area being an element of one cost matrix of a plurality of cost matrices. Each of the plurality of cost matrices being associated with one of the plurality of times. The plurality of cost matrices including a first cost matrix and a second cost matrix. The coalescing step including coalescing the first cost matrix and the second cost matrix to define an operational path for the performance of the ground engaging task.

Abstract: A mobile agricultural vehicle including a frame, a motor carried by the frame, a standalone data processing assembly, a sensor and a plug-in card. The standalone data processing assembly has a data interface but is without communications capability. The standalone data processing assembly is mounted to the frame. The sensor is coupled to the standalone data processing assembly, the sensor generating a signal that is used by the standalone data processing assembly. The plug-in card interfaces with the data interface and has a processor, a memory and a network interface device. The memory is accessible by the processor and by the standalone data processing assembly. The network interface device transmits and receives information, the information being accessed in the memory by the processor transparent to the standalone data processing assembly.

Abstract: A method of identifying drainage tile problems in a field including steps of detecting, predicting and comparing moisture levels. The steps including detecting a moisture level at predetermined locations in the field; predicting moisture levels at the predetermined locations; and comparing the moisture levels detected in the detecting step with the moisture levels predicted in the predicting step.

Abstract: A data gathering device associated with an agricultural irrigation system including at least one camera movably connected to the irrigation system.

Abstract: A method for recalibrating a material attribute monitor for a mobile vehicle includes accumulating an aggregate amount of material from a plurality of material transfers; accumulating a plurality of material attribute data sets via a series of data transfers from at least one vehicle to another vehicle, wherein each material attribute data set of the plurality of material attribute data sets is associated with a corresponding material transfer of the plurality of material transfers; measuring aggregate material attributes of the aggregate amount of material; and generating material attribute calibration data from the accumulated plurality of material attribute data sets and the measured aggregate material attributes.

Abstract: A method for tracking hand-harvested orchard crops includes associating with each tree of interest in an orchard a corresponding first wireless communication device; outfitting each worker that is working in the orchard with a corresponding second wireless communication device; associating with each produce bin that is actively used in the orchard a corresponding third wireless communication device; and generating tracking information for tracking a crop flow from a particular tree via a particular worker to a particular produce bin using information provided by the corresponding first wireless communication device, the corresponding second wireless communication device, and the corresponding third wireless communication device.

Abstract: A method for tracking hand-harvested field crops includes outfitting each worker that is working in the field with a corresponding first wireless communication device; associating with each produce crate that is actively used in the field a corresponding second wireless communication device; generating localization data to define each field region contributing to a filling of a particular produce crate with produce; and generating tracking information for tracking a crop flow from a particular worker to the particular produce crate using information provided by the corresponding first wireless communication device, the corresponding second wireless communication device, and the localization data.

Abstract: A method of regulating wireless sensor network energy use includes establishing a wireless sensor network having at least one access point node, and having a plurality of sensor nodes defining a sensing region; identifying at least one environment parameter related to an environment of the sensing region that is needed to make an operational decision; and adjusting data collection from the plurality of sensor nodes based on the at least one environment parameter to adjust a power consumption of at least one sensor node of the plurality of sensor nodes.