This lesson plan introduces students to the story Down River by Will Hobbs. It uses a slideshow with images and music to build background knowledge about the setting. Students make predictions about the story and discuss related experiences like camping. They reflect on questions to help understand characters' experiences. For homework, students research an Outward Bound story and write a background for its subject. The lesson aims to motivate reading and understanding of the story.
WebRTC has been an exciting technology, and extremely fast moving for the past years. While its adoption and its disruptive power are not challenged anymore, the fast evolution pace, and the fast update cycles of the browsers made it difficult to build complex solutions on top of it which would leverage all that webrtc has to offer. Late 2015, the different standard committees and corresponding working groups that compose webRTC have finally reach a consensus, and from the convergence of all their efforts, stable specifications were born.
Through the use of GoToMeeting and other software, we will illustrate first the usual pains that most using webrtc have experienced, and then show how the webrtc APIs, which had started as a peer-to-peer API, were extended with an object model API to provide more options and more controls to this who need it, while keeping the simplicity of P2P for the others. The similitudes between the new Object Model API, and the ORTC API (implemented in edge) will also be illustrated.
This document summarizes Mitesh R. Meswani's dissertation research on improving throughput of simultaneous multithreading (SMT) processors using application signatures and thread priorities. The research shows that prioritizing hardware threads based on an application's resource usage characteristics can improve processor throughput over the default equal priorities in nearly half of all tested applications. Signatures representing an application's floating point, fixed point, cache and TLB utilization are captured. Predictions using signature microbenchmarks improve throughput for 87% of application pairs compared to default priorities.
Here an older presentation from 2010 - the basics are still alright and setting up a squid network on your own is even simpler today than it ever was! We use a form of this optimization on http://www.tradebit.com/ ourselves!
(CMP310) Data Processing Pipelines Using Containers & Spot InstancesAmazon Web Services
It's difficult to find off-the-shelf, open-source solutions for creating lean, simple, and language-agnostic data-processing pipelines for machine learning (ML). This session shows you how to use Amazon S3, Docker, Amazon EC2, Auto Scaling, and a number of open source libraries as cornerstones to build one. We also share our experience creating elastically scalable and robust ML infrastructure leveraging the Spot instance market.
This lesson plan introduces students to the story Down River by Will Hobbs. It uses a slideshow with images and music to build background knowledge about the setting. Students make predictions about the story and discuss related experiences like camping. They reflect on questions to help understand characters' experiences. For homework, students research an Outward Bound story and write a background for its subject. The lesson aims to motivate reading and understanding of the story.
WebRTC has been an exciting technology, and extremely fast moving for the past years. While its adoption and its disruptive power are not challenged anymore, the fast evolution pace, and the fast update cycles of the browsers made it difficult to build complex solutions on top of it which would leverage all that webrtc has to offer. Late 2015, the different standard committees and corresponding working groups that compose webRTC have finally reach a consensus, and from the convergence of all their efforts, stable specifications were born.
Through the use of GoToMeeting and other software, we will illustrate first the usual pains that most using webrtc have experienced, and then show how the webrtc APIs, which had started as a peer-to-peer API, were extended with an object model API to provide more options and more controls to this who need it, while keeping the simplicity of P2P for the others. The similitudes between the new Object Model API, and the ORTC API (implemented in edge) will also be illustrated.
This document summarizes Mitesh R. Meswani's dissertation research on improving throughput of simultaneous multithreading (SMT) processors using application signatures and thread priorities. The research shows that prioritizing hardware threads based on an application's resource usage characteristics can improve processor throughput over the default equal priorities in nearly half of all tested applications. Signatures representing an application's floating point, fixed point, cache and TLB utilization are captured. Predictions using signature microbenchmarks improve throughput for 87% of application pairs compared to default priorities.
Here an older presentation from 2010 - the basics are still alright and setting up a squid network on your own is even simpler today than it ever was! We use a form of this optimization on http://www.tradebit.com/ ourselves!
(CMP310) Data Processing Pipelines Using Containers & Spot InstancesAmazon Web Services
It's difficult to find off-the-shelf, open-source solutions for creating lean, simple, and language-agnostic data-processing pipelines for machine learning (ML). This session shows you how to use Amazon S3, Docker, Amazon EC2, Auto Scaling, and a number of open source libraries as cornerstones to build one. We also share our experience creating elastically scalable and robust ML infrastructure leveraging the Spot instance market.
The document discusses the memory hierarchy and cache memories. It begins by describing the main components of the memory system: main memory and secondary memory. The key issues are that microprocessors are much faster than memory, and larger memories are slower. To address this, a memory hierarchy is used that combines fast, small, expensive memory levels with slower, larger, cheaper levels. Caches are discussed as a small, fast memory located between the CPU and main memory. Caches improve performance by exploiting locality of reference in programs. Different cache organizations like direct mapping and set associative mapping are described to determine where blocks are placed in the cache on a miss.
This document summarizes several dynamic cache replication mechanisms: Victim Replication replicates cache lines evicted from the local cache to reduce access latency. Adaptive Selective Replication dynamically adjusts replication based on estimated costs and benefits. Adaptive Probability Replication replicates blocks based on predicted reuse probabilities. Dynamic Reusability-based Replication replicates blocks with high reuse. Locality-Aware Data Replication only replicates high-locality blocks to reduce misses while maintaining low replication overhead. The document provides details on these schemes and compares their approaches to dynamic cache block replication.
The document discusses fragmentation issues that arise from deduplication in backup storage systems. It proposes three algorithms - History-Aware Rewriting (HAR), Cache-Aware Filter (CAF), and Container-Marker Algorithm (CMA) - to address these issues. Experimental results on real-world datasets show that HAR improves restore performance significantly by 2.84-175.36 times while only rewriting 0.5-2.03% of data.
The document discusses fragmentation issues that arise from data deduplication in backup storage systems. It proposes three algorithms - History-Aware Rewriting algorithm (HAR), Cache-Aware Filter (CAF), and Container-Marker Algorithm (CMA) - to address these issues. Experimental results on real-world datasets show that HAR can significantly improve restore performance by 2.84-175.36 times while only rewriting 0.5-2.03% of data.
This document discusses energy-efficient hardware data prefetching. It begins with an introduction to data prefetching and why it is needed due to the growing gap between processor and memory speeds. It then covers different types of prefetching techniques including software-based, hardware-based, sequential, stride, and pointer prefetching. It also discusses the tradeoffs between software and hardware approaches. Finally, it introduces the concept of energy-aware data prefetching to reduce the increased energy consumption from aggressive prefetching techniques.
The document provides an overview of MIPS 64-bit processors. It discusses that MIPS 64-bit architecture is backward compatible with MIPS32 and adds 64-bit addressing. Key features include 64-bit virtual addresses, instruction pointer and registers. It has separate integer and floating point units for high performance. The block diagram shows it has on-chip instruction and data caches, a write buffer, and dual issue superscalar pipelined architecture for high efficiency.
The document discusses cache organization and mapping techniques. It describes:
1) Direct mapping where each block maps to one line. Set associative mapping divides cache into sets with multiple lines per set.
2) Replacement algorithms like FIFO and LRU that determine which block to replace when the cache is full.
3) Write policies like write-through and write-back that handle writing cached data back to main memory.
Cache memory is a small, fast memory located between the CPU and main memory that temporarily stores frequently accessed data. It improves performance by providing faster access for the CPU compared to accessing main memory. There are different types of cache memory organization including direct mapping, set associative mapping, and fully associative mapping. Direct mapping maps each block of main memory to only one location in cache while set associative mapping divides the cache into sets with multiple lines per set allowing a block to map to any line within a set.
Cache memory is a small, fast memory located close to the CPU that stores frequently accessed data from main memory to speed up processing. It is organized into multiple levels - L1 cache is inside the CPU, L2 cache is external, and main memory is L3. The cache improves performance by reducing access time - when data is in cache it is a "hit" and very fast to access, while a "miss" requires loading from main memory which is slower. Factors like cache size, mapping technique, replacement policy, and write strategy impact how efficiently it services memory requests.
This document discusses multicore computers and their organization. It describes how hardware performance issues around increasing parallelism and power consumption led to the development of multicore processors. Multicore computers combine two or more processors on a single chip for improved performance. The main variables in multicore organization are the number of cores, levels of cache memory, and whether cache is shared.
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Cache memory is a fast memory located between the CPU and main memory that stores frequently accessed instructions and data. It improves system performance by reducing memory access time. Cache is organized into multiple levels - L1 cache is closest to the CPU, L2 cache is next, and some CPUs have an L3 cache. (Level 1, 2, 3 caches refer to their proximity to the CPU.) Cache memory uses SRAM instead of DRAM for faster access. It is organized into rows containing a data block, tag, and flag bits. Optimization techniques for cache include improving data locality through code transformations and maintaining coherence across cache levels.
Project Slides for Website 2020-22.pptxAkshitAgiwal1
This document describes a resource efficient ternary content addressable memory (TCAM) architecture. It uses a pipelined layer architecture to increase operating frequency. The TCAM was implemented on an FPGA with a size of 64x32 and achieved a 10.52% higher speed, 7.62% lower power, and 50% lower resource utilization compared to existing designs. When implemented in ASIC using a 45nm process, the proposed TCAM achieved 121.10% higher speed, 70.12% lower power, and an 18.7x smaller area compared to existing designs.
This document describes a cache simulator project. It discusses cache memory, types of cache including L1, L2 and L3 caches. It also describes cache mapping techniques like direct mapping, associative mapping, and set associative mapping. The document explains cache hits and misses. It covers write policies like write-back and write-through. Replacement algorithms like FIFO and LRU are also summarized. The cache simulator calculates metrics like hit rate, runtime, and memory access latency based on a memory access pattern file. It is implemented using data structures like queues for FIFO and doubly linked lists for LRU replacement.
This document discusses various techniques for improving cache performance, including reducing the miss rate and miss penalty. It describes reducing misses through larger block sizes, higher associativity, victim caches, and prefetching. It also covers reducing miss penalties via read priority on misses, non-blocking caches, and adding a second level cache. The goal is to improve CPU performance by lowering the miss rate, miss penalty, and time to hit in the cache.
The document discusses CPU caching concepts. It explains that caches are faster but smaller memories that store copies of frequently accessed data from main memory, due to principles of locality of reference and the speed gap between CPUs and memory. The document outlines cache hierarchy levels, organization, mapping techniques, handling cache misses through replacement policies, updating policies for writes, issues of stale data, and modern research areas like cache coherence for multicore CPUs.
This document compares the RISC Alpha 21164 chip and the CISC Pentium Pro chip. Both chips were leading implementations from their respective architectural schools at the time and were built using similar 0.5-0.6 micron technology. The Alpha 21164 is a quad-issue superscalar design with on-chip caches but no out-of-order execution, while the Pentium Pro uses dynamic execution with register renaming and out-of-order execution. Performance comparisons on industry benchmarks show the Alpha 21164 outperforming the Pentium Pro, though performance is also dependent on system platform and compiler used.
Qo s provisioning for scalable video streaming over ad hoc networks using cro...Mshari Alabdulkarim
This document discusses providing quality of service (QoS) for scalable video streaming over ad-hoc networks using cross-layer design. It begins by introducing multi-hop wireless networks and ad-hoc networks, noting their advantages and challenges. It then discusses QoS and cross-layer design approaches. The document proposes using cross-layer design to provision QoS for scalable video streaming over ad-hoc networks in order to overcome challenges like variable topology, limited resources and interference.
This document discusses methods for generating and testing random numbers. There are two main types of random number generators discussed: combined generators and inversive generators. Combined generators work by combining the outputs of two or more simpler random number generators. They are useful for simulating highly reliable systems or complex networks. The document also discusses how to test random numbers using the Kolmogorov-Smirnov test and runs tests. The Kolmogorov-Smirnov test compares the cumulative distribution function of observed values to expected values, while runs tests examine the arrangements of values in a sequence. Both can be used to determine if a random number generator is producing independent and identically distributed values.
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The document discusses fragmentation issues that arise from data deduplication in backup storage systems. It proposes three algorithms - History-Aware Rewriting algorithm (HAR), Cache-Aware Filter (CAF), and Container-Marker Algorithm (CMA) - to address these issues. Experimental results on real-world datasets show that HAR can significantly improve restore performance by 2.84-175.36 times while only rewriting 0.5-2.03% of data.
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The document discusses cache organization and mapping techniques. It describes:
1) Direct mapping where each block maps to one line. Set associative mapping divides cache into sets with multiple lines per set.
2) Replacement algorithms like FIFO and LRU that determine which block to replace when the cache is full.
3) Write policies like write-through and write-back that handle writing cached data back to main memory.
Cache memory is a small, fast memory located between the CPU and main memory that temporarily stores frequently accessed data. It improves performance by providing faster access for the CPU compared to accessing main memory. There are different types of cache memory organization including direct mapping, set associative mapping, and fully associative mapping. Direct mapping maps each block of main memory to only one location in cache while set associative mapping divides the cache into sets with multiple lines per set allowing a block to map to any line within a set.
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This document describes a resource efficient ternary content addressable memory (TCAM) architecture. It uses a pipelined layer architecture to increase operating frequency. The TCAM was implemented on an FPGA with a size of 64x32 and achieved a 10.52% higher speed, 7.62% lower power, and 50% lower resource utilization compared to existing designs. When implemented in ASIC using a 45nm process, the proposed TCAM achieved 121.10% higher speed, 70.12% lower power, and an 18.7x smaller area compared to existing designs.
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AI 101: An Introduction to the Basics and Impact of Artificial IntelligenceIndexBug
Imagine a world where machines not only perform tasks but also learn, adapt, and make decisions. This is the promise of Artificial Intelligence (AI), a technology that's not just enhancing our lives but revolutionizing entire industries.
Driving Business Innovation: Latest Generative AI Advancements & Success StorySafe Software
Are you ready to revolutionize how you handle data? Join us for a webinar where we’ll bring you up to speed with the latest advancements in Generative AI technology and discover how leveraging FME with tools from giants like Google Gemini, Amazon, and Microsoft OpenAI can supercharge your workflow efficiency.
During the hour, we’ll take you through:
Guest Speaker Segment with Hannah Barrington: Dive into the world of dynamic real estate marketing with Hannah, the Marketing Manager at Workspace Group. Hear firsthand how their team generates engaging descriptions for thousands of office units by integrating diverse data sources—from PDF floorplans to web pages—using FME transformers, like OpenAIVisionConnector and AnthropicVisionConnector. This use case will show you how GenAI can streamline content creation for marketing across the board.
Ollama Use Case: Learn how Scenario Specialist Dmitri Bagh has utilized Ollama within FME to input data, create custom models, and enhance security protocols. This segment will include demos to illustrate the full capabilities of FME in AI-driven processes.
Custom AI Models: Discover how to leverage FME to build personalized AI models using your data. Whether it’s populating a model with local data for added security or integrating public AI tools, find out how FME facilitates a versatile and secure approach to AI.
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Main news related to the CCS TSI 2023 (2023/1695)Jakub Marek
An English 🇬🇧 translation of a presentation to the speech I gave about the main changes brought by CCS TSI 2023 at the biggest Czech conference on Communications and signalling systems on Railways, which was held in Clarion Hotel Olomouc from 7th to 9th November 2023 (konferenceszt.cz). Attended by around 500 participants and 200 on-line followers.
The original Czech 🇨🇿 version of the presentation can be found here: https://www.slideshare.net/slideshow/hlavni-novinky-souvisejici-s-ccs-tsi-2023-2023-1695/269688092 .
The videorecording (in Czech) from the presentation is available here: https://youtu.be/WzjJWm4IyPk?si=SImb06tuXGb30BEH .
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12. The first & second level caches are assumed to be direct-mapped ⟹ “fastest effective access time”.
13. The data cache can be either write-through or write-back. How to obtain? 1 2 3 Very fast on-chip clock Issuing many inst. per cycle Using higher speed technology for the processor chip
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15. There are two separate first-level caches: instruction and data caches.
16. The size of the first-level caches is 4KB (with 16B lines).
17. The size of the second-level is 1MB (with 128B lines).
20. Direct-Mapped Cache Performance Baseline Design (6): Performance lost in memory hierarchy Baseline design performance Net performance of the system
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22. Compulsory misses: are misses required in any cache organization because they are the first references to an instruction or piece of data.
23. Capacity misses: occur when the cache size is not sufficient to hold data between references.
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26. Miss cache: is a small fully-associative cache containing on the order of two to five cache lines of data.
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29. Each time the upper cache is probed, the miss cache is probed as well.
39. Direct-Mapped Cache Performance Reducing Capacity and Compulsory Misses (4): Stream Buffers: Goal: start the prefetch before a tag transition can take place.
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41. As each prefetch request is sent out, the tag for the address is entered into the stream buffer, and the available bit is set to false.
42. When the prefetch data returns it is placed in the entry with its tag and the available bit is set to true.
43. If a reference misses in the cache but hits in the buffer the cache can be reloaded in a single cycle from the stream buffer.
51. Direct-Mapped Cache Performance Reference: N. P Jouppi, “Improving direct-mapped cache performance by the addition of a small fully-associative cache and prefetch buffers,” in Computer Architecture, 1990. Proceedings., 17th Annual International Symposium on, 2002, 364–373.