1 Dominican Peso = 70.7935 Colombian Peso

1 Dominican Peso = 0.1285 Chinese Yuan Renminbi

1 Dominican Peso = 15.0036 Chilean Peso

1 Dominican Peso = 0.0176 Swiss Franc

1 Dominican Peso = 0.0255 Canadian Dollar

1 Dominican Peso = 0.2206 Botswana Pula

1 Dominican Peso = 0.1041 Brazilian Real

1 Dominican Peso = 0.1253 Bolivian Boliviano

1 Dominican Peso = 0.0257 Brunei Dollar

1 Dominican Peso = 0.0069 Bahraini Dinar

1 Dominican Peso = 0.0328 Bulgarian Lev

1 Dominican Peso = 1.5442 Bangladeshi Taka

1 Dominican Peso = 0.0278 Australian Dollar

1 Dominican Peso = 1.2077 Argentine Peso

1 Dominican Peso = 0.0326 Netherlands Antillean Guilder

1 Dominican Peso = 0.0667 United Arab Emirates Dirham

Haskell Track and Field is finally back …. Approximately four years ago the Haskell Track and Field Program was put on hold.  A couple of years later the distance portion of Track and Field returned.  In 2011-2012, Haskell opened up the Indoor and Outdoor Seasons to include the addition of sprints, mid-distance, and throws.  Yesterday at the Emporia State Twilight Meet the Indians added long jump, triple jump, and a relay team to the track and field mix. 

NCAA Division II, Emporia State University served as the 2^ndmeet of the Outdoor Track and Field season for the Indians.  Highlights from the meet include:

Ian Stand, a sophomore from Bay Point, California returned to the discus ring and completed a toss of 36.52 meters, an improvement from his first meet.  Stand, also earned a seventh place finish in the shot put with a distance of 10.76 meters. 

Two Haskell men finish fourth, while one Indian woman places sixth

Christina Belone, Talisa Budder and Matt Woody compete in the 85^th edition of the annual event

Liberty, MO - The Haskell Indian Nations University Men's track and field teams competed at the Darrel Gourley Open on Saturday.

1 Papua New Guinean Kina = 12.5757 Uruguayan Peso

1 Papua New Guinean Kina = 5.0047 Seychellois Rupee

1 Papua New Guinean Kina = 46.54 Pakistani Rupee

1 Papua New Guinean Kina = 14.7199 Philippine Peso

1 Papua New Guinean Kina = 0.9909 Peruvian Nuevo Sol

1 Papua New Guinean Kina = 35.2544 Nepalese Rupee

1 Papua New Guinean Kina = 6.9009 Mexican Peso

1 Papua New Guinean Kina = 11.5761 Mauritian Rupee

1 Papua New Guinean Kina = 54.3724 Sri Lanka Rupee

1 Papua New Guinean Kina = 22.0104 Indian Rupee

1 Papua New Guinean Kina = 16.045 Dominican Peso

1 Papua New Guinean Kina = 1135.88 Colombian Peso

1 Papua New Guinean Kina = 240.7325 Chilean Peso

1 Papua New Guinean Kina = 19.3777 Argentine Peso

1 Brunei Dollar = 30.5249 Uruguayan Peso

1 Brunei Dollar = 12.1479 Seychellois Rupee

1 Brunei Dollar = 112.9658 Pakistani Rupee

1 Brunei Dollar = 35.7294 Philippine Peso

1 Brunei Dollar = 2.4051 Peruvian Nuevo Sol

1 Brunei Dollar = 85.5724 Nepalese Rupee

1 Brunei Dollar = 16.7504 Mexican Peso

1 Brunei Dollar = 28.0984 Mauritian Rupee

1 Brunei Dollar = 131.9771 Sri Lanka Rupee

1 Brunei Dollar = 53.4254 Indian Rupee

1 Brunei Dollar = 38.9457 Dominican Peso

1 Brunei Dollar = 2757.1006 Colombian Peso

1 Brunei Dollar = 584.3256 Chilean Peso

1 Brunei Dollar = 47.0351 Argentine Peso

With more and more SoCs employing sophisticated interconnect IP to link multiple processor cores, caches, memories, and dozens of other IP functions, the designs are enabling a new generation of low-power servers and high-performance mobile devices. The complexity of the interconnects and their advanced configurability contributes to already formidable design and verification challenges which lead to the following questions:

While your interconnect subsystem might have a correct functionality, are you starving your IP functions of the bandwidth they need? Are requests from latency-critical initiators processed on time? How can you ensure that all applications will receive the desired bandwidth in steady-state and corner use-cases?

To answer these questions, Cadence recommends the Performance Verification Methodology to ensure that the system performance meets requirements at the different levels:

1. Performance characterization: The first level of verification aims to verify the path-to-path traffic measuring the performance envelope. It targets integration bugs like clock frequency, buffer sizes, and bridge configuration. It requires to analyze the latency and bandwidth of design’s critical paths.
2. Steady state workloads: The second level of verification aims to verify the master-by-master defined loads using traffic profiles. It identifies the impact on bandwidth when running multi-master traffic with various Quality-of-Service (QoS) settings. It analyzes the DDR sub-system’s efficiency, measures bandwidth and checks whether masters’ QoS requirements are met.
3. Application specific use cases: The last level of verification simulates the use-cases and reaches the application performance corner cases. It analyzes the master-requested bandwidth as well as the DDR sub-system’s efficiency and bandwidth.

Cadence has developed a set of tools to assist customers in performance validation of their SoCs. Cadence Interconnect Workbench simplifies the setup and measurement of performance and verification testbenches and makes debugging of complex system behaviors a snap. The solution works with Cadence Verification IPs and executes on the Cadence Xcelium® Enterprise Simulator or Cadence Palladium® Accellerator/Emulator, with coverage results collected and analyzed in the Cadence vManager  Metric-Driven Signoff Platform.

To verify the performance of the Steady State Workloads, Arm has just released a new AMBA Adaptive Traffic Profile (ATP) specification which describes AMBA abstract traffic attributes and defines the behavior of the different traffic profiles in the system.

With the availability of Cadence Interconnect Workbench and AMBA VIP support of ATP, early adopters of the AMBA ATP specification can begin working immediately, ensuring compliance with the standard, and achieving the fastest path to SoC performance verification closure.

For more information on the AMBA Adaptive Traffic Profile, you can visit Dimitry's blog on AMBA Adaptive Traffic Profiles: Addressing The Challenge. 

More information on Cadence Interconnect Workbench solution is available at Cadence Interconnect Solution webpage.

Thierry