Abstract: A mobile communication devices operates to: generate first control data to control an auxiliary device coupled to one of a plurality of home automation devices, wherein the plurality of home automation devices includes a thermostat, wherein the plurality of auxiliary devices includes a heat and cooling system, and wherein the thermostat is configured to control the heating and cooling system; and generate a task to control one or more of the plurality of home automation devices based on a log of operations of the one or more of the plurality of home automation devices that is generated over time.

Abstract: A compounding apparatus for mixing at least two materials into an admixture can include a processor and software configured to select a non-universal ingredient for substitution as a temporary universal ingredient to be used as a buffer when an original universal ingredient buffer is not available. The processor and software can also include an auto adjust feature to correct for tube wear and other factors creating non-compliant final bag fills. The processor and software can also include a disable station designation feature that allows for disabling a problem station and diverting operation from the designated disabled station to a substitute station. Such operation can ensure continued production of the compounding apparatus.

Abstract: A compounding apparatus for mixing at least two materials into an admixture can include a processor and software configured to select a non-universal ingredient for substitution as a temporary universal ingredient to be used as a buffer when an original universal ingredient buffer is not available. The processor and software can also include an auto adjust feature to correct for tube wear and other factors creating non-compliant final bag fills. The processor and software can also include a disable station designation feature that allows for disabling a problem station and diverting operation from the designated disabled station to a substitute station. Such operation can ensure continued production of the compounding apparatus.

Abstract: A method for repeating program flow for debugging and testing purposes comprises storing function call data in one or more files and retrieving the recorded data from the one or more files. The method further comprises using the recorded data to recreate an execution path of a program. Additionally, the method comprises analyzing the execution path to determine a source of an error in the program.

Abstract: A method for repeating program flow for debugging and testing purposes comprises storing function call data in one or more files and retrieving the recorded data from the one or more files. The method further comprises using the recorded data to recreate an execution path of a program. Additionally, the method comprises analyzing the execution path to determine a source of an error in the program.

Abstract: One or more of the programmable RF receivers or other devices in the network may be programmed to determine whether one or more defining characteristics associated with a particular RF transmitter or transmitter type are present in RF data. The one or more defining characteristics are used to detect the use of an RF transmitter or transmitter type.

Abstract: A network of RF devices is connected to a central processing device and a common network clock. The central processing device and the RF devices exchange timing information in order to synchronize the network of RF devices to a common time defined by the common network clock.

Abstract: A number of RF receivers are connected in a network. The network is used to transmit communications, data, or both to and from the RF receivers and to synchronize the RF receivers to a common time. Digitized RF data is time-stamped and stored in memory. A trigger circuit in one or more RF receivers determines whether a trigger criterion or criteria has been met. When a trigger criterion or criteria has been met, some or all of the RF receivers in the network transmit select digitized RF data to a central processing device. The central processing device processes the select digitized data to detect if a signal is present.

Abstract: A system and method are disclosed for superimposing data on an image using a variable opacity that is based upon variations in the numerical values of the data to be superimposed. This allows for representing data most prominently where it the values are higher, while still providing a clear view of the surrounding features.

Abstract: Two or more receivers in a plurality of receivers are selected and the signal data from each receiver obtained. A cross-correlation of signal data is computed for each receiver paring in the selected receivers. The results of each cross-correlation are then combined and mapped into a graphical indicator function. The graphical indicator function generates a visual representation of location information using the results of each cross-correlation computation. The visual representation is then displayed to a user. Additional location information may also be simultaneously displayed with the visual representation or upon command.

Abstract: Performance data for a receiver system are generated based on one or more receiver locations and one or more performance parameters. The performance parameters may relate to the environment, the receivers, and a signal emitter. The performance data are then displayed to a user. The location of one or more receivers in the system may also be optimized using the performance data.

Abstract: A system and method are provided which coordinate the actions of a plurality of devices via scheduling occurrence of the actions based on synchronized local clocks of the devices. Thus, a plurality of devices are communicatively coupled via a communication network, and the devices have their local clocks synchronized to a high degree of precision, using IEEE 1588, NTP, or some other technique for synchronizing their local clocks. “Time bombs” can be scheduled on the devices to coordinate the occurrence of actions between the devices in accordance with the detonation times set for the respective time bombs. In certain embodiments, not only the detonation time, but also the respective action to be triggered upon detonation is programmable for each device. The time bombs implemented on the various devices can be used to coordinate the operations of the various devices with a high degree of temporal precision.

Abstract: A system and method are provided which add, via an add-on module, synchronization functionality to an instrument that does not otherwise support such synchronization functionality. Various synchronization techniques may be supported by the synchronization module. For instance, in certain embodiments the synchronization module supports message-based synchronization techniques and/or time-based synchronization techniques. Accordingly, in certain embodiments, the add-on module supports synchronization with another device (e.g., another instrument or another add-on module coupled to an instrument) via synchronized local clocks (e.g., IEEE 1588) and messaging over a communication network. In certain embodiments, the add-on module additionally or alternatively supports the use of “time bombs” to trigger scheduled actions on the instrument with which the synchronization module is interfaced.

Abstract: A system and method is arranged to capture data from existing consumer deployed signal detecting equipment. The gathered data, for example, is used to monitor the position of certain of the consumer devices. By comparing newly-arrived positioning data from each device against the “known” previous position of these devices, an unexplained (or unanticipated) position change yields an early warning that tampering may have occurred within the monitored area. In one embodiment, the devices could be cell phones with built-in GPS signal processing equipment. These cell phones could be pre-positioned around an area and could communicate, either over publicly available communication bands, or over data paths, such as the internet or e-mail.

Abstract: A modular computer system includes at least two processing functional modules each including a processing unit adapted to process data and adapted to input/output data to other functional modules through at least two ports with each port including a plurality of data lines. At least one routing functional module is adapted to route data and adapted to input/output data to other functional modules through at least two ports with each port including a plurality of data lines. At least one input or output functional module is adapted to input or output data and adapted to input/output data to other functional modules through at least one port including a plurality of data lines. Each processing, routing and input or output functional module includes a local controller adapted to control the local operation of the associated functional module, wherein the local controller is adapted to input and output control information over control lines connected to the respective ports of its functional module.

Abstract: A service protection enclosure (SPE) for a cellular telephone or other wireless telecommunications transceiver site is disclosed. The site has at least one antenna (3) which transceives communication signals, radio equipment for receiving and sending radio signals from and to the antenna, transmission means (37, 39) for connecting the radio equipment and the antenna so as to carry the signals therebetween, AC power service lines (47) for providing power to the site, and telephone lines (48, and/or 115) for connecting the site with a telephone or other communication network. The services protection enclosure comprises a cabinet (35) adapted to be secured to a suitable foundation (29), the cabinet having side walls (55, 57), a top (53), and at least one door (61 or 63) providing access to the interior of the cabinet. The cabinet houses an AC power distribution panel (101) and receives the AC service lines (47), the telephone lines (48), and the RF transmission means (37, 39).

Abstract: A service protection enclosure (SPE) for a cellular telephone or other wireless telecommunications transceiver site is disclosed. The site has at least one antenna (3) which transceives communication signals, radio equipment for receiving and sending radio signals from and to the antenna, transmission means (37, 39) for connecting the radio equipment and the antenna so as to carry the signals therebetween, AC power service lines (47) for providing power to the site, and telephone lines (48, and/or 115) for connecting the site with a telephone or other communication network. The services protection enclosure comprises a cabinet (35) adapted to be secured to a suitable foundation (29), the cabinet having side walls (55, 57), a top (53), and at least one door (61 or 63) providing access to the interior of the cabinet. The cabinet houses an AC power distribution panel (101) and receives the AC service lines (47), the telephone lines (48), and the RF transmission means (37, 39).

Abstract: An injection molding apparatus capable of producing disposable wax patterns or the like and which apparatus includes a logic control and a servo-control especially designed to provide a substantially automatic molding process and to continuously monitor and to dynamically control certain variable parameters which are encountered during the molding process, as for example, in the present embodiment of apparatus, the control of the dynamics of fluid (wax) flow and pressure for providing substantially an automatic molding process.The servo-control is a "closed loop" servo type of control which, in the present embodiment of apparatus, continuously provides signals which relate to the fluid (wax) flow, i.e.