Abstract: Provided are systems and methods of attendance verification using mobile electronic devices (or “mobile devices”). In some embodiments, a person's biometric data is acquired and verified locally by a mobile device associated with the person while the mobile device is located in a geographic region associated with an event, and attendance data, including an indication of the verification of the biometric data along with a unique identifier of the mobile device, such as an international mobile equipment identity (IMEI) of the mobile device, is transmitted to an attendance server that makes a record of the person's attendance of the event based on the attendance data.

Abstract: Provided are systems and methods of attendance verification using mobile electronic devices (or “mobile devices”). In some embodiments, a person's biometric data is acquired and verified locally by a mobile device associated with the person while the mobile device is located in a geographic region associated with an event, and attendance data, including an indication of the verification of the biometric data along with a unique identifier of the mobile device, such as an international mobile equipment identity (IMEI) of the mobile device, is transmitted to an attendance server that makes a record of the person's attendance of the event based on the attendance data.

Abstract: Provided are systems and methods of attendance verification using mobile electronic devices (or “mobile devices”). In some embodiments, a person's biometric data is acquired and verified locally by a mobile device associated with the person while the mobile device is located in a geographic region associated with an event, and attendance data, including an indication of the verification of the biometric data along with a unique identifier of the mobile device, such as an international mobile equipment identity (IMEI) of the mobile device, is transmitted to an attendance server that makes a record of the person's attendance of the event based on the attendance data.

Abstract: Provided are systems and methods of attendance verification using mobile electronic devices (or “mobile devices”). In some embodiments, a person's biometric data is acquired and verified locally by a mobile device associated with the person while the mobile device is located in a geographic region associated with an event, and attendance data, including an indication of the verification of the biometric data along with a unique identifier of the mobile device, such as an international mobile equipment identity (IMEI) of the mobile device, is transmitted to an attendance server that makes a record of the person's attendance of the event based on the attendance data.

Abstract: Provided are systems and methods of attendance verification using mobile electronic devices (or “mobile devices”). In some embodiments, a person's biometric data is acquired and verified locally by a mobile device associated with the person while the mobile device is located in a geographic region associated with an event, and attendance data, including an indication of the verification of the biometric data along with a unique identifier of the mobile device, such as an international mobile equipment identity (IMEI) of the mobile device, is transmitted to an attendance server that makes a record of the person's attendance of the event based on the attendance data.

Abstract: Provided are systems and methods of attendance verification using mobile electronic devices (or “mobile devices”). In some embodiments, a person's biometric data is acquired and verified locally by a mobile device associated with the person while the mobile device is located in a geographic region associated with an event, and attendance data, including an indication of the verification of the biometric data along with a unique identifier of the mobile device, such as an international mobile equipment identity (IMEI) of the mobile device, is transmitted to an attendance server that makes a record of the person's attendance of the event based on the attendance data.

Abstract: Provided are systems and methods of attendance verification using mobile electronic devices (or “mobile devices”). In some embodiments, a person's biometric data is acquired and verified locally by a mobile device associated with the person while the mobile device is located in a geographic region associated with an event, and attendance data, including an indication of the verification of the biometric data along with a unique identifier of the mobile device, such as an international mobile equipment identity (IMEI) of the mobile device, is transmitted to an attendance server that makes a record of the person's attendance of the event based on the attendance data.

Abstract: Provided are systems and methods of attendance verification using mobile electronic devices (or “mobile devices”). In some embodiments, a person's biometric data is acquired and verified locally by a mobile device associated with the person while the mobile device is located in a geographic region associated with an event, and attendance data, including an indication of the verification of the biometric data along with a unique identifier of the mobile device, such as an international mobile equipment identity (IMEI) of the mobile device, is transmitted to an attendance server that makes a record of the person's attendance of the event based on the attendance data.

Abstract: Larger, expandable high performance computing (HPC) clusters which are of different generations and performance speeds are provided for reservoir simulation. This provides scalability and flexibility for running computation-intensive reservoir simulation jobs on HPC machines. Availability of larger numbers of processors in a processor pool makes simulation of giant models possible and also reduces fragmentation when multiple jobs are run. A hardware performance based domain decomposition is performed which results in computation load balancing. The reservoir domain is decomposed efficiently to reduce communication overhead. Adaptive detection of the available mix of computation resources is performed, and reservoir simulation decomposition methodology adjusts the distribution of load based on the available hardware and different processor generation resources to minimize the reservoir simulation runtime.

Abstract: Larger, expandable high performance computing (HPC) clusters which are of different generations and performance speeds are provided for reservoir simulation. This provides scalability and flexibility for running computation-intensive reservoir simulation jobs on HPC machines. Availability of larger numbers of processors in a processor pool makes simulation of giant models possible and also reduces fragmentation when multiple jobs are run. A hardware performance based domain decomposition is performed which results in computation load balancing. The reservoir domain is decomposed efficiently to reduce communication overhead. Adaptive detection of the available mix of computation resources is performed, and reservoir simulation decomposition methodology adjusts the distribution of load based on the available hardware and different processor generation resources to minimize the reservoir simulation runtime.