Abstract: An apparatus includes a porous membrane for retaining antigens from a sample as the sample passes through the membrane. The apparatus also includes a first binding region within the membrane. The first binding region includes antibodies associated with a first antigen of interest. At least some of the antigens retained in the membrane are brought into contact with the first binding region by applying an electrophoresis field across the membrane. The porous membrane could also include an electrophoresis buffer. A presence of the first antigen of interest could be detected by exposing the first binding region to a chemiluminescent reagent, and a quantity of the first antigen of interest could be determined by performing a chemiluminescent assay on the binding region.

Abstract: An apparatus includes first and second input terminals configured to be coupled to one of multiple types of input sources. The apparatus also includes a diode and a resistor coupled in series between the first and second input terminals. The apparatus further includes a plurality of switches each coupled to at least one of the diode and the resistor. The switches are configured to be opened and closed to reconfigure the apparatus depending on the type of input source. The switches could include a first switch coupled to the first input terminal, a current source, and a first side of the diode. The switches could also include a second switch coupled to the current source, a second side of the diode, and a first side of the resistor. In addition, the switches could include a third switch coupled to the second input terminal and a second side of the resistor.

Abstract: An asset information collection device can be used during inspections of assets in a processing, production, or other system. The asset information collection device includes at least one image capture unit configured to capture images of assets, such as a video capture unit and a photo capture unit. The asset information collection device also includes a sound capture unit configured to capture audio information associated with the assets, such as oral notes made by an inspector. The asset information collection device further includes a controller configured to associate the captured images and audio information with particular ones of the assets. In addition, the asset information collection device includes at least one interface, such as a wireless transceiver, configured to wirelessly transmit the captured images and audio information and information identifying the associations to an external destination.

Abstract: A method includes receiving light from a material at a digital imaging device. The method also includes filtering the light into at least three spectral bands using a filter, where different regions of the filter pass different spectral bands. The method further includes measuring the light in each of the spectral bands and determining at least one color associated with the material using the measured light in the spectral bands. The different regions of the filter could include multiple masks (where each mask passes one of the spectral bands), different areas of a linear variable filter, and/or individual filters (where each individual filter passes one of the spectral bands). The digital imaging device could include a digital camera. The filter could be formed on a detector in the digital camera, and/or a component of the digital camera could be replaced with the filter.

Abstract: An apparatus, method, and computer program are provided for automated closed-loop identification of an industrial process in a process control system. Multiple models (such as multiple model structure-model order combinations) can be identified, where the models are associated with a process to be controlled. One or more metrics (such as a prediction metric or rank) can be determined for each of the models. At least one of the models can be selected based on the one or more metrics. A final model for controlling the process can be provided (such as to a controller), where the final model is based on the at least one selected model. A band pass filter could be designed using some of the identified models. The band pass filter could be used to identify at least one other of the models or to determine at least one of the one or more metrics.

Abstract: A model-based system and method for analyzing power source performance and optimizing operational costs are provided. Data from the power source (such as a battery) and/or a device associated with the power source is analyzed and processed to predict an operating life of the power source. This could allow, for example, a power source replacement schedule to be generated for the device. If the analysis indicates that abnormal conditions exist or that any user-defined alerts are warranted, a message could also be sent to an operator terminal. The system and method may continue to monitor the device and thus provide real-time data. The data may also be stored in memory, collected over time, and analyzed or used in various ways. The system and method thus provide a cost effective and reliable analysis of power source performance and any associated operational and replacement costs.

Abstract: A method includes receiving, in a scanner, at least one radio-frequency (RF) signal from a sensor proximate to the scanner. The method also includes storing location information, corresponding to a location of the scanner, and signal strength information corresponding to the scanner. The method further includes calibrating location records according to the signal strength information and location information. There is also a system for calibrating location records. The system includes a plurality of sensors each configured to transmit an RF signal. The system also includes a scanner configured to receive at least one RF signal from a sensor proximate to the scanner, store location information corresponding to a location of the scanner, and store signal strength information corresponding to the scanner.

Abstract: A method includes wirelessly receiving a message at a receiving node. The method also includes extracting a partial counter value from the message, where the partial counter value represents a subset of bits from a complete counter value of a transmitting node. The method further includes decrypting and authenticating the message based on the partial counter value. Decrypting and authenticating the message could include examining a bitmap to identify a bit value associated with the partial counter value, decrypting and authenticating the message if the identified bit value has a first value, and discarding the message if the identified bit value has a second value. Decrypting and authenticating the message could also include identifying at least one complete counter value at the receiving node based on the partial counter value and attempting to decrypt and authenticate the message using the at least one complete counter value.

Abstract: A system includes a first controller configured to monitor processes associated with a process facility and to generate control data for optimizing the process facility. The system also includes a second controller configured to use stochastic calculus of variations calculations to modify at least a portion of the control data and provide one of (i) continuous supply chain control and optimization for the process facility and (ii) discrete supply chain control and optimization for the process facility. The system further includes third controllers configured to operate in accordance with the control data to control the processes and to optimize the process facility.

Abstract: A method includes receiving a sheet of material at a sensor assembly. The sensor assembly includes a sensor configured to measure a property of the sheet. The method also includes stabilizing the sheet with respect to the sensor using a guide roller. Stabilizing the sheet includes using the guide roller to remove at least a portion of a first boundary layer of air moving towards the guide roller and to reform at least a portion of a second boundary layer of air moving away from the guide roller. For example, the guide roller could include a plurality of grooves or openings in a surface of the guide roller, or the guide roller could include a plurality of rings spaced apart from one another. Air could move from one side of the guide roller to another side of the guide roller through the grooves, through the openings, or between the rings.

Abstract: An apparatus includes at least one scanner. Each scanner includes a plurality of sensors, and each sensor is capable of measuring one or more characteristics associated with a portion of a substrate. The substrate has printing produced by a printing system. The apparatus also includes a controller capable of receiving at least some of the measurements from the plurality of sensors and determining a quality of the printing on the substrate using the received measurements. The substrate could represent paper, and the printing system could represent an offset printing system. At least one of the sensors may be in a fixed position and/or at least one of the sensors may be movable over part of a surface of the substrate. The determined quality of the printing could involve density, dot area, dot gain, contour sharpness, doubling, mottling, ghosting, misregister of different colored inks, slur, or improper positioning of the printing.

Abstract: A method includes initiating an installation of software on a device or a removal of software from the device. The installation or removal of the software involves a plurality of installers capable of installing software components on or removing the software components from the device. The method also includes presenting a status panel associated with the installation or removal of the software to a user. The status panel identifies a plurality of operations associated with the installation or removal of the software and a status of each of the operations. The plurality of operations is associated with at least two different installers. The status panel includes at least one indicator that repeatedly changes to indicate that the installation or removal of the software is progressing.

Abstract: A method includes receiving information identifying one or more elements to be presented in a first faceplate. The first faceplate is associated with control of a process system. The method also includes receiving information identifying an auto-selection behavior associated with the first faceplate. The method further includes displaying the first faceplate to an operator and automatically selecting one of the elements in the first faceplate based on the received information. A centralized component (like a faceplate controller) automatically selects elements in multiple faceplates, including the first faceplate. The centralized component could automatically select the element to receive focus in the first faceplate. The centralized component could also identify a specified element associated with a command to be executed, even when the specified element does not have focus in the first faceplate.

Abstract: Methods (and semiconductor substrates produced therefrom) of fabricating (n?1) SDOI substrates using n wafers is described. A donor substrate (e.g., silicon) includes a buffer layer (e.g., SiGe) and a plurality of multi-layer stacks formed thereon having alternating stress (e.g., relaxed SiGe) and strain (e.g., silicon) layers. An insulator is disposed adjacent an outermost strained silicon layer. The outermost strained silicon layer and underlying relaxed SiGe layer is transferred to a handle substrate by conventional or known bonding and separation methods. The handle substrate is processed to remove the relaxed SiGe layer thereby producing an SDOI substrate for further use. The remaining donor substrate is processed to remove one or more layers to expose another strained silicon layer. Various processing steps are repeated to produce another SDOI substrate as well as a remaining donor substrate, and the steps may be repeated to produce n?1 SDOI substrates.

Abstract: A method includes identifying a white space at a first wireless node and selecting a channel in the identified white space. The white space includes at least one frequency or frequency band not in use (like a licensed frequency or frequency band). The method also includes identifying at the first wireless node a channel access factor for each of multiple wireless nodes including the first wireless node. The method further includes determining if the first wireless node has a specified channel access factor. In addition, the method includes transmitting data from the first wireless node on the channel when the first wireless node has the specified channel access factor. The channel access factors can be identified and the determination whether the first wireless node has the specified channel access factor can be performed without using control signals transmitted between the wireless nodes. The channel access factor could represent a hash function value.

Abstract: A system includes an asset tag associated with an asset, the asset tag having a motion sensor to detect a movement of the asset. The system also includes a plurality of readers, each reader receiving one or more signals from the asset tag and measuring a distance between the asset tag and the reader based on the signals. The system further includes a controller receiving a measured distance from each of the plurality of readers and determining a location of the asset based on the measured distances.

Abstract: A system includes a server configured to generate a request for status information and/or diagnostic information associated with a field device in a process control system. The system also includes an interface component having (i) an emulator configured to emulate a device manager associated with the field device and (ii) a communication manager configured to communicate with the field device over a communication link using a specified protocol. The server is configured to provide the request to the communication manager through the emulator, receive the status information and/or the diagnostic information from the field device through the communication manager and the emulator, and generate a user interface based on the status information and/or the diagnostic information. The communication manager could represent a communication Device Type Manager (DTM), and the emulator could emulate at least some functions of a device DTM.

Abstract: A sensor assembly includes a sensor configured to detect at least one material or condition, such as a smoke detector, fire detector, or carbon monoxide detector. The sensor assembly also includes a base configured to be mounted on a structure, such as a wall or ceiling, and to receive the sensor. The sensor assembly further includes a wireless module located between the sensor and the base. The wireless module is configured to transmit position information. The wireless module may include one or more electrical contacts used to form at least one electrical connection between the base of the sensor assembly and the sensor. The wireless module may also include a printed circuit board having the contacts, wireless radio circuitry, an antenna, and other components. The printed circuit board could be substantially hidden from view when the sensor is attached to the base and the base is mounted on the structure.

Abstract: A system includes a computing cloud having at least one data storage unit and at least one processing unit. The computing cloud is configured to provide at least one service. The system also includes a client configured to communicate with the computing cloud and to selectively offload data to the computing cloud based upon one or more specified criteria. The client is also configured to offload processes to the computing cloud based upon the one or more specified criteria and to use the at least one service of the computing cloud. At least one of the specified criteria may be based upon a determination of whether the data is required for at least one real time process and/or a determination of whether each process is required for at least one real time process. The system may be used in a data storage and retention application or in an industrial automation application.

Abstract: An apparatus, method, and computer program for controlling an ammonia production system are provided. At least one model is associated with production equipment operable to produce ammonia, where the production equipment includes a reformer section, a carbon dioxide wash section, and an ammonia synthesis reactor section. The production equipment is controlled using the at least one model. The at least one model is associated with a plurality of controlled variables and a plurality of manipulated variables. At least some of the controlled variables are associated with the reformer section, the carbon dioxide wash section, and/or the ammonia synthesis reactor section. At least some of the manipulated variables are associated with the reformer section, the carbon dioxide wash section, and/or the ammonia synthesis reactor section.