Abstract: A method and apparatus for creating backup files by creating an overhead segment for each file that is to be backed up and creating a data segment containing the data that is to be backed up for each file. After creating overhead segment and the data segment, the overhead segment is placed into an overhead stream and the data segment is stored in a memory. The overhead segment is also positioned in the overhead stream with a pointer that identifies the location of the data within the memory. As such, the backup file comprises a data segment and an overhead stream.

Abstract: A system, method, and computer-accessible medium for centralized backup of a plurality of virtual machines are disclosed. Each virtual machine comprises at least one virtual volume. The plurality of virtual volumes are accessed through a central computer system. The central computer system is used to backup data from the plurality of virtual volumes in a manner substantially independent of execution of the plurality of virtual machines.

Abstract: Various methods and systems for presenting a logical view of a database backup are disclosed. One method involves querying a database recovery manager for logical identifiers that correspond to physical backup pieces generated during a backup. The method uses the logical identifiers to display a backup view to a user. The backup view identifies logical database components that are available to be restored.

Abstract: A method of forming a multi-doped junction on a substrate is disclosed. The method includes providing the substrate doped with boron, the substrate including a first substrate surface with a first surface region and a second surface region. The method also includes depositing a first set of nanoparticles on the first surface region, the first set of nanoparticles including a first dopant. The method further includes heating the substrate in an inert ambient to a first temperature and for a first time period creating a first densified film, and further creating a first diffused region with a first diffusion depth in the substrate beneath the first surface region.

Abstract: A method for evaluating a healthcare information system includes first determining a first specification for the healthcare information system. The first specifications may include healthcare profile data for specifying a profile of a healthcare provider, technology profile data for specifying a profile of technology resources, and performance data for measuring the benefits associated with performance indicators of the healthcare information system. Then, an evaluation is determined from the first specification, which may include system performance values. Additionally, characteristic values for performance indicators may be presented to the user. Next, a second specification is then determined by specifying to the user that at least some values of the first specification may be changed. Then, an evaluation for the healthcare information system is determined for the second specification.

Abstract: A method and system for multiline transmission in communications systems are described. A transmitter (1102) performs MIMO pre-processing (1104) on symbol vectors. A signal vector associated with the symbol vector is transmitted. A receiver (1106) performs MIMO post-processing (1108) on the received signal vectors to minimize the effects of crosstalk on pairs of lines in the multiline communications system.

Abstract: A molded plastic cylindrical container has a petaloidal base with a plurality of feet for supporting the container. A plurality of spacings are between the feet, with at least one of the spacings or one of the feet being of a different size or shape than the other spacings for ascertaining the position of the container.

Abstract: A method and system are disclosed for improving the performance of a multiline transmission system by using one or more split-pair receivers in a multiline communications system to identify crosstalk on a pair of transceivers coupled to the split pair receivers, wherein each split pair receiver receives a signal including the crosstalk from each transceiver and provides a corresponding signal vector to a post processing unit, and performing MIMO post-processing on signal vectors received at a receiver from each transceiver and each split-pair receiver while minimizing crosstalk on pairs of lines in the multiline communications system with a frequency equalizer.

Abstract: A method and system for multiline transmission in communications systems are described. A transmitter (1102) performs MIMO pre-processing (1104) on symbol vectors. A signal vector associated with the symbol vector is transmitted. A receiver (1106) performs MIMO post-processing (1108) on the received signal vectors to minimize the effects of crosstalk on pairs of lines in the multiline communications system.

Abstract: According to an embodiment of the invention, a system and method for performing simulations is provided. Using parallelism-in-systems, the method decomposes a larger problem into several smaller partitions. A series of iterations is performed until the waveforms exchanged between the partitions converge. Approximate pre-view solutions of strongly coupled partitions are introduced to reduce the number of iterations required for convergence. These approximate pre-view solutions are introduced before the simulations occur. Once the waveforms converge, the simulation has determined a solution.

Abstract: A technique is disclosed for evaluating and monitoring performance of a heat exchanger system. Operating parameters of the system are monitored and fouling factors for heat transfer surfaces of the exchanger are determined. Trending of fouling may be performed over time based upon the fouling factors, and a model of fouling may be selected from known sets of models, or a model may be developed or refined. Fluid treatment, such as water treatment regimes may be taken into account in evaluation of fouling. An automated knowledge based analysis algorithm may diagnose possible caused of fouling based upon sensed and observed parameters and conditions. Corrective actions may be suggested and the system controlled to reduce, avoid or correct for detected fouling.

Abstract: An apparatus for controlling a railway consist, the apparatus comprising: a consist model adapted for computing an objective function from a set of candidate driving plans and a set of model parameters; a parameter identifier adapted for calculating the model parameters from a set of consist measurements; and a trajectory optimizer adapted for generating the candidate driving plans and for selecting an optimal driving plan to optimize the objective function subject to a set of terminal constraints and operating constraints.

Abstract: A heat treatment apparatus for making a heat treatment while estimating temperatures of objects-to-be-processed that can estimate correct temperatures of the objects-to-be-processed. A reaction tube includes heaters and temperature sensors, and receives a wafer boat. A controller estimates temperatures of wafers and temperatures of the temperature sensors in zones in the reaction tube corresponding to the heaters by using the temperature sensors and electric powers of the heaters. Based on relationships between estimated temperatures of the temperature sensors and really metered temperatures, functions expressing the relationships between the estimated temperatures and the really metered temperatures are given for the respective zones. The functions are substituted by the estimated wafer temperatures to correct the estimated wafer temperatures.

Abstract: There is provided a batch type heat treatment system, control method and heat treatment method capable of appropriately coping with a multi-product small-lot production. A reaction tube 2 comprises a plurality of heaters 31 through 35 and a plurality of temperature sensors, and houses therein a wafer boat 23. A control part 100 stores therein many mathematical models for estimating (calculating) the temperature of wafers W in the reaction tube 2, in accordance with the number and arranged position of the wafers W mounted on the wafer boat 23, and many target temperature trajectories. If the wafer boat 23 is loaded in the reaction tube 2, a mathematical model and a target temperature trajectory corresponding to the number and arranged position of the mounted wafers W are read.