Relevant bibliographies by topics / QUIC Protocol

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  1. Journal articles
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Academic literature on the topic 'QUIC Protocol'

Author: Grafiati
Published: 4 June 2021
Last updated: 1 February 2022

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Journal articles on the topic "QUIC Protocol"

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Wang, Jianyi. "The Performance and Future of QUIC Protocol in the Modern Internet." Network and Communication Technologies 6, no. 1 (July 7, 2021): 28. http://dx.doi.org/10.5539/nct.v6n1p28.

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Quick UDP Internet Connections (QUIC) protocol is a potential replacement for the TCP protocol to transport HTTP encrypted traffic. It is based on UDP and offers flexibility, speed, and low latency. The performance of QUIC is related to the everyday web browsing experience. QUIC is famous for its Forward Error Correction (Luyi, Jinyi, & Xiaohua, 2012) and congestion control (Hari, Hariharan, & Srinivasan, 1999) algorithm that improves user browsing delay by reducing the time spent on loss recovery (Jörg, Ernst, & Don, 1998). This paper will compare QUIC with other protocols such as HTTP/2 over TCP, WebSocket, and TCP fast open in terms of latency reduction and loss recovery to determine the role of each protocol in the modern internet. Furthermore, this paper will propose potential further improvements to the QUIC protocol by studying other protocols.
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Smith, Jean-Pierre, Prateek Mittal, and Adrian Perrig. "Website Fingerprinting in the Age of QUIC." Proceedings on Privacy Enhancing Technologies 2021, no. 2 (January 29, 2021): 48–69. http://dx.doi.org/10.2478/popets-2021-0017.

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Abstract With the meteoric rise of the QUIC protocol, the supremacy of TCP as the de facto transport protocol underlying web traffic will soon cease. HTTP/3, the next version of the HTTP protocol, will not support TCP. Current website-fingerprinting literature has ignored the introduction of this new protocol to all modern browsers. In this work, we investigate whether classifiers trained in the TCP setting generalise to QUIC traces, whether QUIC is inherently more difficult to fingerprint than TCP, how feature importance changes between these protocols, and how to jointly classify QUIC and TCP traces. Experiments using four state-of-theart website-fingerprinting classifiers and our combined QUIC-TCP dataset of ~117,000 traces show that while QUIC is not inherently more difficult to fingerprint than TCP, TCP-trained classifiers may fail to detect up to 96% of QUIC visits to monitored URLs. Furthermore, classifiers that take advantage of the common information between QUIC and TCP traces for the same URL may outperform ensembles of protocol-specific classifiers in limited data settings.
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Khalifeh, Ala’, Ma’moun Mansour, and Sahel Alouneh. "QUIC transmission protocol: Test-bed design, implementation and experimental evaluation." Journal of Electrical Engineering 72, no. 1 (February 1, 2021): 20–28. http://dx.doi.org/10.2478/jee-2021-0003.

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Abstract With the ever increasing demand for higher speed internet connectivity that can fulfil the application continuous need for higher bandwidth Google being the pioneer in many web-based services has launched a new UDP-based protocol named quick UDP internet connections (QUIC), which aims at providing faster data delivery without requiring upgrades or modifications to the network infrastructure. The goal of this paper is to provide an overview about QUIC protocol, propose the design and implementation of a test-bed, that is used experimentally to evaluate QUIC protocol under different network conditions and scenarios. In particular, the performance advantage of QUIC in terms of delay and throughput are examined taking into account different network conditions that resemble the real internet environment. Two scenarios are proposed, the first one investigates the protocol performance under a controlled network environment, while the second one tests the protocol in a real uncontrolled network. To achieve that, a test-bed is proposed and implemented that emulates the network impairments encountered in real-network such as packet loss, bit errors, and bandwidth limitation in a controlled manner. After that, QUIC is tested in real operational wired and wireless networks. In both scenarios, QUIC outperforms TCP in terms of delay, which strengthens QUIC position for being a potential alternative to TCP.
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Roy, Minakshi, Shamsh Ahsan, Gaurav Kumar, and Ajay Vimal. "Implementation of Quick UDP Internet Connections." International Journal of Engineering and Computer Science 9, no. 01 (January 22, 2020): 24921–24. http://dx.doi.org/10.18535/ijecs/v9i01.4425.

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With the advent of the Internet growth worldwide, we need to have a protocol which is faster and provides a better support for the following problems: Faster Connection Establishment Time Good Congestion Control Connection Migration Good Error Correction One of the key aspects taken under consideration was current scenario of connection establishment time whenever a website is requested and poor video buffering over existing Internet Connections. The prime objective is to create a proxy server which routes the incoming connection requests to QUIC supported libraries if the client supports QUIC. If the client does not support QUIC then it routes the incoming request to existing web server which can then handle the request using TCP. After creation of the proxy server a website has to be created using which we can test various aspects of the QUIC protocol. Keyword: Quick, Protocol, UDP, Network
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De Coninck, Quentin, and Olivier Bonaventure. "Multiflow QUIC: A Generic Multipath Transport Protocol." IEEE Communications Magazine 59, no. 5 (May 2021): 108–13. http://dx.doi.org/10.1109/mcom.001.2000892.

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Kharat, Prashant, and Muralidhar Kulkarni. "Modified QUIC protocol for improved network performance and comparison with QUIC and TCP." International Journal of Internet Protocol Technology 12, no. 1 (2019): 35. http://dx.doi.org/10.1504/ijipt.2019.098489.

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Kulkarni, Muralidhar, and Prashant Kharat. "Modified QUIC protocol for improved network performance and comparison with QUIC and TCP." International Journal of Internet Protocol Technology 12, no. 1 (2019): 35. http://dx.doi.org/10.1504/ijipt.2019.10019902.

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Zhang, Jingjing, Xianming Gao, Lin Yang, Tao Feng, Dongyang Li, and Qiang Wang. "A Systematic Approach to Formal Analysis of QUIC Handshake Protocol Using Symbolic Model Checking." Security and Communication Networks 2021 (August 20, 2021): 1–12. http://dx.doi.org/10.1155/2021/1630223.

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As a newly proposed secure transport protocol, QUIC aims to improve the transport performance of HTTPS traffic and enable rapid deployment and evolution of transport mechanisms. QUIC is currently in the IETF standardization process and will potentially carry a significant portion of Internet traffic in the emerging future. An important safety goal of QUIC protocol is to provide effective data service for users. To aim this safety requirement, we propose a formal analysis method to analyze the safety of QUIC handshake protocol by using model checker SPIN and cryptographic protocol verifier ProVerif. Our analysis shows the counterexamples to safety properties, which reveal a design flaw in the current protocol specification. To this end, we also propose and verify a possible fix that is able to mitigate these flaws.
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Lopes, Raul H. C., Virginia N. L. Franqueira, and Duncan Rand. "Integration and Evaluation of QUIC and TCP-BBR in longhaul Science Data Transfers." EPJ Web of Conferences 214 (2019): 08026. http://dx.doi.org/10.1051/epjconf/201921408026.

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Two recent and promising additions to the internet protocols are TCP-BBR and QUIC. BBR defines a congestion policy that promises a better control in TCP bottlenecks on long haul transfers and can also be used in the QUIC protocol. TCP-BBR is implemented in the Linux kernels above 4.9. It has been shown, however, to demand careful fine tuning in the interaction, for example, with the Linux Fair Queue. QUIC, on the other hand, replaces HTTP and TLS with a protocol on the top of UDP and thin layer to serve HTTP. It has been reported to account today for 7% of Google’s traffic. It has not been used in server-to-server transfers even if its creators see that as a real possibility. Our work evaluates the applicability and tuning of TCP-BBR and QUIC for data science transfers. We describe the deployment and performance evaluation of TCP-BBR and comparison with CUBIC and H-TCP in transfers through the TEIN link to Singaren (Singapore). Also described is the deployment and initial evaluation of a QUIC server. We argue that QUIC might be a perfect match in security and connectivity to base services that are today performed by the Xroot redirectors.
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Fernández, Fátima, Mihail Zverev, Pablo Garrido, José R. Juárez, Josu Bilbao, and Ramón Agüero. "Even Lower Latency in IIoT: Evaluation of QUIC in Industrial IoT Scenarios." Sensors 21, no. 17 (August 26, 2021): 5737. http://dx.doi.org/10.3390/s21175737.

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In this paper we analyze the performance of QUIC as a transport alternative for Internet of Things (IoT) services based on the Message Queuing Telemetry Protocol (MQTT). QUIC is a novel protocol promoted by Google, and was originally conceived to tackle the limitations of the traditional Transmission Control Protocol (TCP), specifically aiming at the reduction of the latency caused by connection establishment. QUIC use in IoT environments is not widespread, and it is therefore interesting to characterize its performance when in over such scenarios. We used an emulation-based platform, where we integrated QUIC and MQTT (using GO-based implementations) and compared their combined performance with the that exhibited by the traditional TCP/TLS approach. We used Linux containers as end devices, and the ns-3 simulator to emulate different network technologies, such as WiFi, cellular, and satellite, and varying conditions. The results evince that QUIC is indeed an appropriate protocol to guarantee robust, secure, and low latency communications over IoT scenarios.
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Dissertations / Theses on the topic "QUIC Protocol"

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Srivastava, Amit. "Performance Evaluation of QUIC protocol under Network Congestion." Digital WPI, 2017. https://digitalcommons.wpi.edu/etd-theses/220.

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TCP is a widely used protocol for web traffic. However, TCP€™s connection setup and congestion response can impact web page load times, leading to higher page load times for users. In order to address this issue, Google came out with QUIC (Quick UDP Internet Connections), a UDP-based protocol that runs in the application layer. While already deployed, QUIC is not well-studied, particularly QUIC€™s congestion response as compared to TCP€™s congestion response which is critical for stability of the Internet and flow fairness. To study QUIC€™s congestion response we conduct three sets of experiments on a wired testbed. One set of our experiments focused on QUIC and TCP throughput under added delay, another set compared QUIC and TCP throughput under added packet loss, and the third set had QUIC and TCP flows share a bottleneck link to study the fairness between TCP and QUIC flows. Our results show that with random packet loss QUIC delivers higher throughput compared to TCP. However, when sharing the same link, QUIC can be unfair to TCP. With an increase in the number of competing TCP flows, a QUIC flow takes a greater share of the available link capacity compared to TCP flows.
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Ekberg, Adam, and Ivan Tedengren. "Benchmarking och Utvärdering av Protokollet QUIC : En jämförelse av QUIC gentemot TCP." Thesis, KTH, Skolan för informations- och kommunikationsteknik (ICT), 2017. http://urn.kb.se/resolve?urn=urn:nbn:se:kth:diva-209401.

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Since 2012 Google has been developing a new transport protocol called QUIC (Quick UDP Internet Connections). The purpose of the QUIC-protocol is to speed up the web and first of all produce lower response time on websites. This is interesting in several perspectives. First of all, this is good news for the common user that browse the web but also in an economical perspective. Studies show that quicker response time on websites attracts customers both short term and long term which is important in areas as e-commerce. On top of this the Internet alone (home computers, data centers etc.) stands for about 10% of the worlds electricity consumption and a quicker and more effective transport protocol could contribute to lower this number since a lot of data is transferred through the Internet each day. QUIC is already in use by many of Google´s servers and can be used when browsing the web in a chrome or Opera browser. This means that many people have already been in touch with QUIC unknowingly. This degree project focuses on the main problems which makes the QUICprotocol needed and compares QUIC to TCP. TCP has been the dominating transport protocol regarding reliable data transmission for decades and still is. In this project an environment for testing is implemented which makes it possible to compare response time for websites. Two different tests are made where different common internet conditions are simulated to see how these conditions effects the response time for each protocol. The tests have shown that QUIC and TCP are pretty much equal regarding response time when the delay is 100 ms or less and there is no packet loss. When the delay exceeds 100 ms have our tests shown that QUIC delivers quicker response times. The tests have also shown that QUIC is superior to TCP when data is transferred over a connection with packet losses. Although it can be questioned if we could have optimized our TCP-server to compete with QUIC in a better way.
Google utvecklar sedan 2012 ett nytt pålitligt transportprotokoll, QUIC (Quick UDP Internet Connections). Syftet med detta är att göra webben ”snabbare” genom att bland annat minska svarstider för hemsidor. Detta är intressant ur en mängd perspektiv. Dels ur användarsynpunkt vid surf på webben men även ur ett rent ekonomiskt perspektiv då forskning visar att snabbare hemsidor lockar fler kunder både på kort och lång sikt vilket är intressant inom t ex. ehandel. Dessutom beräknas Internet stå för ungefär 10% av all elkonsumtion på hela planeten och ett snabbare och effektivare transportprotokoll kan förhoppningsvis bidra till att förbättra den siffran. QUIC används redan idag på flera av Googles egna servrar och uppkopplad mot Internet med webbläsaren Chrome eller Opera har användaren med stor sannolikhet redan stött på QUIC utan att veta om det. Detta arbete fokuserar på några av de problem som ligger som grund för vad QUIC är tänkt att förbättra och jämförs sedan med transportprotokollet TCP som har varit standardprotokollet för pålitlig dataöverföring i decennier. I arbetet upprättas en testmiljö som gör det möjligt att mäta svarstider på en webbklient för de olika protokollen vid olika simulerade förhållanden. Testerna går ut på att variera fördröjning och paketförluster för att se hur detta påverkar svarstiderna för respektive protokoll. Jämförelsen har resulterat i att QUIC och TCP är jämna i avseende på svarstider då inga paketförluster förekommer och fördröjningen är 100 ms eller lägre. Däremot när fördröjningen ökar till en nivå över den genomsnittliga fördröjningen överstiger 100 ms så pekar våra tester på att QUIC levererar snabbare svarstider. Dessutom har testerna visat att QUIC är överlägset TCP gällande svarstider då paketförluster förekommer. Det kan dock ifrågasättas huruvida vår TCP-server hade kunnat optimerats för hålla jämnare steg med QUIC.
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Camarinha, Diego de Araujo Martinez. "Análise de desempenho do nsQUIC: um módulo para smulação do protocolo QUIC." Universidade de São Paulo, 2018. http://www.teses.usp.br/teses/disponiveis/45/45134/tde-16102018-181616/.

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Várias características da Internet mudaram drasticamente desde que o TCP foi criado, como o maior compartilhamento de recursos devido à maior quantidade de usuários, maior largura de banda disponível, a existência de muitas conexões que podem percorrer longas distâncias e a ubiquidade das redes sem fio. Confrontado com essas novas características, o TCP apresenta diversas limitações. Dentre elas estão a subutilização da rede quando a largura de banda é da ordem de centenas de Gbps, o favorecimento de conexões que possuem pouco atraso (poucas dezenas de milisegundos), a incapacidade de distinção de causas de perdas de pacote e a demora para estabelecimento de conexões seguras (até 3 RTTs). Nesse contexto, com o objetivo de tornar o transporte de dados na Internet mais rápido e eficiente, a Google desenvolveu o protocolo QUIC. O QUIC propõe diversos avanços em relação aos protocolos existentes, como um novo mecanismo para estabelecimento de conexão e controle de congestionamento otimizado. Resultados apresentados pela Google mostraram claro ganho de desempenho em relação ao TCP, justificando o trabalho de tornar o QUIC um padrão IETF da Internet. Porém, esses resultados são impossíveis de serem verificados porque nos relatórios divulgados não há informação suficiente para que os cenários de teste sejam reproduzidos e porque é implausível possuir a mesma infraestrutura para os testes que a Google tem. Neste trabalho, avaliamos o desempenho do protocolo QUIC em diversos cenários de rede, comparando-o com o desempenho de várias implementações do TCP, principalmente o CUBIC. Diferente do realizado na literatura, todos os cenários utilizados são bem descritos, permitindo a reprodutibilidade dos experimentos. Além disso, para a realização dos experimentos foi criado um novo módulo que implementa o QUIC no simulador de redes NS-3. Este módulo está disponível como software livre, permitindo que outros pesquisadores usem o módulo para replicar e verificar nossos experimentos e para criarem novos experimentos de forma reprodutível. Ademais, eles também podem usar o módulo como uma ferramenta para avaliar, de maneira rápida, o comportamento de novas técnicas dentro do protocolo.
Many characteristics of the Internet have drastically changed since TCP was created such as the increase on resource sharing due to a larger number of Internet users, the growth of available bandwidth, the existence of many connections that may travel long distances and the ubiquity of wireless networks. When faced with those new characteristics, TCP showed severe limitations. Among them are network underutilization in high bandwidth environments of hundreds of Gbps, favoring of connections with small delays (few tens of milliseconds), incapacity of distinguishing packet loss causes and high delays for establishing secure connections (up to 3 RTTs). In this context, with the goal of making Internet data transport faster and more efficient, Google has developed the QUIC protocol. QUIC proposes many advances compared to existing protocols, such as a new mechanism for establishing connections and an optimized congestion control algorithm. Google has reported results indicating that QUIC performs better than TCP, justifying the work on making QUIC an IETF Internet standard. However, those results cannot be verified because on the published reports there is not enough information to reproduce the test scenarios and it is implausible to have the same test infrastructure Google has. In this work, we evaluate QUICs performance in a number of network scenarios, comparing it with the performance of different TCP flavours, specially TCP CUBIC. Unlike other works in the literature, all scenarios are well described, enabling experiment replicability. Furthermore, to run experiments we created a new module that implements QUIC on the network simulator NS-3. The module is available as free software, allowing other researchers to use it to reproduce and verify our experiments and to create new ones in a replicable way. Additionally, they can use the module as a tool to quickly assess the behaviour of new techniques in the protocol.
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Rabitsch, Alexander. "Evaluation of Packet Schedulers for Multipath QUIC." Thesis, Karlstads universitet, Institutionen för matematik och datavetenskap (from 2013), 2018. http://urn.kb.se/resolve?urn=urn:nbn:se:kau:diva-67810.

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The Web has outgrown the transport mechanisms that have been used since its inception. Due to the increasing complexity of web pages in terms of both total size and number of individual resources, HTTP over TCP can no longer provide a satisfactory user performance. In recent years, much progress has been made in this area by evolving the web's underlying mechanisms. Multipath QUIC (MPQUIC) is one such approach. MPQUIC is a new transport protocol which enables multihomed devices, such as smartphones, to aggregate their network interfaces in order to achieve greater performance. Additionally, MPQUIC is capable of multiplexing several data streams concurrently over a single connection, which can also provide performance benefits. This work began with a validation of our MPQUIC setup, which was performed by comparing MPQUIC to another multipath solution in a large set of experiments. The results show that MPQUIC is generally beneficial for the transfer time of large files, which corresponds with results from previous works. We additionally investigated ways to exploit MPQUIC's multipath and stream features to achieve lower latencies for web pages via the means of packet scheduling. We implemented the Earliest Completion First (ECF) scheduler, and investigated how it compares against MPQUIC's default path scheduler. The results indicate that the ECF scheduler is significantly more capable of handling heterogeneous network scenarios than the default scheduler, and can achieve higher throughput and lower latencies. Next, a Stream Priority scheduler was designed and implemented, which utilizes stream priorities to achieve lower completion times for select streams. The results from the investigation indicate that proper stream scheduling can significantly reduce download times of the prioritized resources. This effect was especially noticeable as path characteristics diverge. We also show that proper configuration of stream priorities is critical for such a scheduler, as a sub-optimal configuration yielded poor performance.
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Yao, Haoran. "The Design and Evaluation of a Seamless Approach to Migrate the State of QUIC Connections for Load Balancing Purposes." Thesis, KTH, Skolan för elektroteknik och datavetenskap (EECS), 2021. http://urn.kb.se/resolve?urn=urn:nbn:se:kth:diva-292094.

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QUIC is an emerging connection-oriented transport layer protocol that aims to support low-latency and highly secure communication between users and cloud services. Cloud load balancers distribute incoming QUIC connections towards a pool of backend servers where applications run. The sheer size of today’s clouds requires to deploy large pools of load balancing instances across multi-core servers. Today, once a connection is handled by a load balancing instance, the handling of the connection cannot be delegated to another instance which is possibly running on an underutilized server or core. Recent work has shown that such imbalances lead to poor utilization of the server resources when implementing the load balancer component itself. Moving the handling of a connection from one load balancing instance to another one is key to achieve uniform distribution of the workload among the load balancing instances. This thesis discusses the system design, algorithmic principles, and evaluation of an approach to move the state of a QUIC connection from one QUIC instance to another one, a task that we call “connection migration”. Our preliminary investigation focuses on inter-CPU-core thread-based migration of QUIC connections within the same server machine with the goal of supporting different types of load balancers that dynamically spread the workload across the load balancing instances. We evaluated the performance of the proposed implementation in a real physical testbed in NSLab at KTH across different dimensions: the number of active connections, the size of the file transfers within each connection, and the number of load balancing instances. The results show that under ideal circumstances, the throughput of a server system built by an 8-core computer reaches 100MB per second and handles up to 500 client requests per second. Finally, this thesis analyzes the bottleneck of the system and the critical parts of the implementation that should be optimized for better performance.
QUIC är ett framväxande anslutningsorienterat protokoll för transportlager som syftar till att stödja låg latens och mycket säker kommunikation mellan användare och molntjänster. Molnslastbalansering distribuerar inkommande QUIC-anslutningar mot en pool av Backend-servrar där applikationer körs. Den stora storleken på dagens moln kräver att stora pooler av lastbalanseringsinstanser distribueras över flerkärniga servrar. Idag, när en anslutning hanteras av en lastbalanseringsinstanser, kan hanteringen av anslutningen inte delegeras till en annan instans som möjligen körs på en underutnyttjad server eller kärna. Senaste arbetet har visat att sådana obalanser leder till dåligt utnyttjande av serverresurserna vid implementering av själva lastbalanseringskomponenten. Att flytta hanteringen av en anslutning från en lastbalanseringsinstans till en annan är nyckeln för att uppnå enhetlig fördelning av arbetsbelastningen mellan lastbalanseringsinstanserna. Denna avhandling diskuterar systemdesign, algoritmiska principer och utvärdering av en metod för att flytta tillståndet för en QUIC-anslutning från en QUIC-instans till en annan, en uppgift som vi kallar “anslutningsmigrering”. Vår preliminära undersökning fokuserar på intel-CPU-core trådbaserad migration av QUIC-anslutningar inom samma servermaskin med målet att stödja olika typer av belastningsutjämnare som dynamiskt sprider arbetsbelastningen över lastbalanseringsinstanser. Vi utvärderade prestanda för den föreslagna implementeringen i en riktig fysisk testbädd i NSLab vid KTH över olika dimensioner: antalet aktiva anslutningar, storleken på filöverföringarna inom varje anslutning och antalet lastbalanseringsinstanser. Resultaten visar att under idealiska omständigheter når genomströmningen av ett serversystem som byggts av en 8-kärnig dator 100 MB per sekund och hanterar upp till 500 klientförfrågningar per sekund. Slutligen analyserar denna avhandling systemets flaskhals och de kritiska delarna av implementeringen som bör optimeras för bättre prestanda.
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Corbel, Romuald. "Évolution des protocoles de transport du point de vue de l'équité." Thesis, Ecole nationale supérieure Mines-Télécom Atlantique Bretagne Pays de la Loire, 2019. http://www.theses.fr/2019IMTA0160.

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Cette thèse s’inscrit dans le cadre de la mesure de la congestion sur le réseau et sur l’évolution des protocoles de transport. Des changements sont apportés continuellement afin de répondre aux besoins des utilisateurs et des nouveaux services. La congestion est l’un des problèmes les plus critiques car elle a un impact sur la performance des réseaux Internet, d’où la nécessité pour les algorithmes de contrôle de congestion de la prévenir ou de la supprimer. Aujourd’hui, aucun algorithme ne répond parfaitement aux exigences attendues, et de nombreux travaux de recherches sont en cours. Néanmoins, ces nouveaux algorithmes peuvent affecter l’équité du réseau étant donné que le comportement du protocole de transport peut changer radicalement en fonction de l’algorithme de contrôle de congestion utilisé dans les points finaux. De plus, durant ces dernières années, les protocoles de transport ont subi des évolutions majeures. Un exemple significatif récent est celui de Quick UDP Internet Connections (QUIC), un protocole introduit par Google, qui vise à remplacer deux protocoles de transport et de sécurité largement utilisés, à savoir Transmission Control Protocol (TCP) et Transport Layer Security (TLS).QUIC est implémenté dans les applications utilisateurs (plutôt que dans le noyau du système d’exploitation). Il se veut résistant à l’ossification et donc de ce fait il est plus versatile. Ceci rend alors les fournisseurs de contenus, comme Google, hégémoniques sur le débit de ses utilisateurs. En raison du développement progressif des algorithmes de contrôle de congestion et de la nature évolutive des protocoles de transport, de nouveaux défis se posent en matière de gestion de l’équité. C’est pourquoi, dans cette thèse nous nous sommes orientés sur le développement d’une plateforme de tests pour mesurer l’équité réseau à partir du débit des différents flux. De plus, afin de caractériser l’équité telle que la perçoit un utilisateur, nous nous sommes concentrés sur la détermination d’une procédure impartiale d’évaluation de l’équité durant toute une session d’un flux de transport (nommée Session Fairness Assessment (SFA) et Weighted Session Fairness Assessment (WSFA)). A partir de ces éléments, nous avons analysé spécifiquement l’équité des protocoles lorsque les flux TCP et QUIC coexistent sur un réseau fixe et mobile. Lors de nos évaluations de l’équité, nous avons identifié l’impact des aspects de la mise en œuvre de QUIC tels que : l’émulation de connexions TCP multiples, la limitation de la taille des fenêtres de congestion et l’utilisation de l’option hybrid start (hystart). Les résultats montrent que ces mécanismes ont une forte influence sur l’équité que ce soit sur réseau fixe ou réseau mobile. En effet, un mauvais réglage des paramètres par défaut de ces mécanismes ou l’activation de l’option hystart peut affecter la performance des protocoles de transport et par conséquent l’équité. En ce qui concerne l’évaluation des algorithmes de contrôle de congestion, les résultats montrent que l’équité entre deux algorithmes différents dépend de la configuration du réseau. Cette conclusion démontre qu’une procédure de mesures, telle que celle qui a été présentée dans cette thèse, est pertinente pour réaliser l’évaluation de l’équité. Dans cette thèse nous pouvons conclure que le manque de standardisation, par exemple de l’émulation de connexions TCP multiples dans QUIC nous amène à nous interroger plus largement sur la manière dont la philosophie de conception de QUIC tient compte de l’équité. De plus, les résultats obtenus sur l’évaluation de l’équité des algorithmes de contrôle de congestion, nous permet de remettre en cause l’évaluation de l’équité de plusieurs contributions lorsqu’elle n’est pas testée dans suffisamment de configurations réseau
This thesis is in the context of measuring congestion on the network and the evolution of transport protocols. Changes are continually being made to meet the needs of users and new services. Congestion is one of the most critical issues because it has an impact on the performance of Internet networks, hence the need for congestion control algorithms to prevent or remove it. Today, no algorithm perfectly meets the expected requirements, and a lot of research is underway. Nevertheless, these new algorithms can affect network fainress since the behaviour of the transport protocol can change radically depending on the congestion control algorithm used in the endpoints. In addition, in recent years, transport protocols have undergone major changes. A recent significant exampleis Quick UDP Internet Connections (QUIC), a protocol introduced by Google, which aims to replace two widely used transport and security protocols, Transmission Control Protocol (TCP) and Transport Layer Security (TLS). QUIC is implemented in user applications (rather than in the operatingsystem kernel). It is designed to be resistant to ossification and therefore more versatile. This makes content providers, such as Google, hegemonic about the data rate of their users. Due to the progressive development of congestion control algorithms and the evolving nature of transport protocols, new challenges arise in fairness management. This is why, in this thesis, we focused on the development of a test platform to measure network fairness based on the flow rate of the different flows. In addition, in order to characterize fairness as perceived by a user, we focused on determining an impartial procedure for assessing fainress during an entire session of a transport flow (called Session Fairness Assessment(SFA) and Weighted Session Fairness Assessment(WSFA)). Based on these elements, we specifically analyzed the fairness of the protocols when TCP and QUIC flows coexist on a fixed and mobile network. In our fairness assessments, weidentified the impact of aspects of QUIC implementation such as: emulating multiple TCP connections, limiting the size of congestion windows and using the hystart option. The results show that these mechanisms have a strong influence on fairness on both fixed and mobile networks. Indeed,a wrong setting of the default parameters of these mechanisms or the activation of the hystart option can affect the performance of transport protocols and therefore fainress. With regard to the evaluation of congestion control algorithms, the results show that the fainress between two different algorithms depends on the network configuration. This conclusion demonstrates that a measurement procedure, such as the one presented in this thesis, is relevant to conducting the fairness assessment. In this thesis we can conclude that the lack of standardization, for example of emulating multiple TCP connections in QUIC, leads us to question more broadly how QUIC’s design philosophy takes fairness into account. In addition, the results obtained on the evaluation of the fainress of congestion control algorithms allow us to question the fainress evaluation of several contributions when it is not tested in enough network configurations
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Moučka, Martin. "Laboratorní scénáře umožňující srovnání protokolů přenosu webových stránek." Master's thesis, Vysoké učení technické v Brně. Fakulta elektrotechniky a komunikačních technologií, 2017. http://www.nusl.cz/ntk/nusl-316967.

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This diploma thesis focuses on theoretical and practical comparison of webpage transport protocols such as HTTP/HTTPS (Hypertext Transfer Protocol) v1.1, SPDY, HTTP/2 and QUIC using UDP (User Datagram Protocol), TCP (Transmission Control Protocol) and SCTP (Stream Control Transmission Protocol) as transport protocols. This work also contains design and manual for practical laboratory tasks on which can students verify theoretical assumptions. These tasks compares protocols in different conditions such as packet loss, latency and jitter.
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Modugno, Alberto. "QUIC tramite udp: un’indagine sul protocollo che intende velocizzare il web." Bachelor's thesis, Alma Mater Studiorum - Università di Bologna, 2016. http://amslaurea.unibo.it/10475/.

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In questo documento ho analizzato lo scenario della passata e dell’odierna Internet, dal classico protocollo HTTP, al protocollo sperimentale QUIC, argomento di questa tesi. In primis ho analizzato gli attuali protocolli utilizzati nella rete e ricercato i motivi che hanno portato a crearne di nuovi, successivamente ho effettuato un analisi teorica del protocollo affidandomi ai documenti forniti dall'IETF, poi in un capitolo a sé ho descritto l'handshake crittografato tipico di questo protocollo ed infine nell'ultimo capitolo ho mostrato graficamente e praticamente come lavora il protocollo in una reale implementazione. Dopo aver completato questa tesi, mi sono potuto rendere conto di quanto sia necessario un cambio di rotta verso protocolli di rete più veloci, sicuri ed affidabili. I classici protocolli oramai non sono più sufficienti a soddisfare le migliaia di richieste di connessione e presentano, come si vedrà, delle lacune a cui bisogna porre rimedio. Gran parte della popolazione mondiale ha accesso al web,ed è uno strumento ormai alla portata di tutti e non più privilegio di pochi e ci si augura per il bene della rete Internet che tale protocollo o protocolli simili possano prendere presto piede per una migliore esperienza di navigazione a livello globale. Probabilmente saranno necessari molti anni, ma l’idea che già si pensi ad un futuro non tanto prossimo fa ben sperare su quello che ci aspetta. Nella lettura di questa tesi si vedrà come queste ultime affermazioni possano diventare realtà.
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Somers, Neil A. "Elucidation of enzyme-substrate selectivity using a quick quantitative screening protocol." Thesis, National Library of Canada = Bibliothèque nationale du Canada, 2000. http://www.collectionscanada.ca/obj/s4/f2/dsk3/ftp04/mq64456.pdf.

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Biolek, Martin. "Klientská aplikace protokolu DNS s grafickým rozhraním pro účely výuky." Master's thesis, Vysoké učení technické v Brně. Fakulta elektrotechniky a komunikačních technologií, 2021. http://www.nusl.cz/ntk/nusl-442404.

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The goal of the Master thesis on the topic of the Client application of DNS protocol with graphical interface for teaching purposes is to create a program with the features of sending, receiving DNS, MDNS and LLMNR protocols with optional parameters. Additionally, compare the created application with available tools such as Nslookup, Dig and create examples of application for teaching.
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Books on the topic "QUIC Protocol"

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Mantel, Eleanor S., 1972- author, Basso, Danny A., 1967- author, Thomas Kathy S. author, Kerr Bryan R. author, and Society of Nuclear Medicine and Molecular Imaging, eds. Quick-reference protocol manual for nuclear medicine technologists. Reston, VA: Published by Society of Nuclear Medicine and Molecular Imaging, 2014.

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CCVP QOS Quick Reference Sheets. Indianapolis, Ind: Cisco Press, 2006.

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CCVP GWGK quick reference sheets. Indianapolis, Ind: Cisco Press, 2007.

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CCNP ROUTE 642-902 quick reference. Indianapolis, Indiana: Cisco Press, 2010.

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Network, Scottish Intercollegiate Guidelines. Control of pain in patients with cancer: Quick reference guide. Edinburgh: Scottish Intercollegiate Guidelines Network, 2000.

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Intercultural, BLC, ed. Going to Japan on business: A quick guide to protocol, travel & language. Berkeley, CA: Stone Bridge Press, 1991.

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Cisco IOS in a nutshell: A desktop quick reference for IOS on IP networks. Beijing: O'Reilly, 2002.

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T, Velte Anthony, ed. Cisco 802.11 wireless networking quick reference. Indianapolis, Ind: Cisco Press, 2006.

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Canada, Canada Environment. The Right choice at the right time : highlights of the global benefits and costs of the Montreal Protocol on substances that deplete the ozone layer =: Le bon choix au bon moment : principaux avantages et coûts mondiaux du Protocole de Montréal relatif à des substances qui apprauvrissent la couche d'ozone. Ottawa, Ont: Environment Canada = Environnement Canada, 1997.

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Scheid, John. Recherches archéologiques à la Magliana: Commentarii Fratrum Arvalium qui supersunt : les copies épigraphiques des protocoles annuels de la confrérie arvale : 21 av.-304 ap. J.-C. Rome: Ecole française de Rome, 1998.

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Book chapters on the topic "QUIC Protocol"

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Soni, Mukesh, and Brajendra Singh Rajput. "Security and Performance Evaluations of QUIC Protocol." In Lecture Notes on Data Engineering and Communications Technologies, 457–62. Singapore: Springer Singapore, 2020. http://dx.doi.org/10.1007/978-981-15-4474-3_51.

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Qi, Lin, Zhihong Qiao, Aowei Zhang, Hui Qi, Weiwu Ren, Xiaoqiang Di, and Rui Wang. "Performance Analysis of QUIC-UDP Protocol Under High Load." In Lecture Notes of the Institute for Computer Sciences, Social Informatics and Telecommunications Engineering, 69–77. Cham: Springer International Publishing, 2020. http://dx.doi.org/10.1007/978-3-030-62205-3_6.

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Sharma, Anurag, and Deepali Kamthania. "QUIC Protocol Based Monitoring Probes for Network Devices Monitor and Alerts." In Studies in Big Data, 127–50. Cham: Springer International Publishing, 2021. http://dx.doi.org/10.1007/978-3-030-77214-7_6.

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Campbell, Matthew. "Protocols." In Swift Quick Syntax Reference, 133–35. Berkeley, CA: Apress, 2014. http://dx.doi.org/10.1007/978-1-4842-0439-9_46.

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Campbell, Matthew. "Protocols." In Objective-C Quick Syntax Reference, 81–83. Berkeley, CA: Apress, 2013. http://dx.doi.org/10.1007/978-1-4302-6488-0_23.

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Méhes, Gábor, Tamás Csonka, and Katalin Hegyi. "One-Day Quick FISH." In Springer Protocols Handbooks, 141–46. Berlin, Heidelberg: Springer Berlin Heidelberg, 2016. http://dx.doi.org/10.1007/978-3-662-52959-1_13.

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Swan, Tricia B., and Sadiqa A. I. Kendi. "Pediatric Fever Protocols." In Quick Hits for Pediatric Emergency Medicine, 93–96. Cham: Springer International Publishing, 2018. http://dx.doi.org/10.1007/978-3-319-93830-1_14.

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Cingi, Cemal, and Nuray Bayar Muluk. "Clinical Trial Protocols." In Quick Guide to Good Clinical Practice, 231–37. Cham: Springer International Publishing, 2016. http://dx.doi.org/10.1007/978-3-319-44344-7_24.

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Lehotay, Steven J. "Quick, Easy, Cheap, Effective, Rugged, and Safe Approach for Determining Pesticide Residues." In Pesticide Protocols, 239–61. Totowa, NJ: Humana Press, 2006. http://dx.doi.org/10.1385/1-59259-929-x:239.

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Ogawa, Akiyo, and Yuya Ogawa. "A Quick Immuno-FISH Protocol for Detecting RNAs, Proteins, and Chromatin Modifications." In Methods in Molecular Biology, 251–57. New York, NY: Springer US, 2020. http://dx.doi.org/10.1007/978-1-0716-1158-6_15.

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Conference papers on the topic "QUIC Protocol"

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Langley, Adam, Alistair Riddoch, Alyssa Wilk, Antonio Vicente, Charles Krasic, Dan Zhang, Fan Yang, et al. "The QUIC Transport Protocol." In SIGCOMM '17: ACM SIGCOMM 2017 Conference. New York, NY, USA: ACM, 2017. http://dx.doi.org/10.1145/3098822.3098842.

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Kharat, Prashant K., Aniket Rege, Aneesh Goel, and Muralidhar Kulkarni. "QUIC Protocol Performance in Wireless Networks." In 2018 International Conference on Communication and Signal Processing (ICCSP). IEEE, 2018. http://dx.doi.org/10.1109/iccsp.2018.8524247.

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Viernickel, Tobias, Alexander Froemmgen, Amr Rizk, Boris Koldehofe, and Ralf Steinmetz. "Multipath QUIC: A Deployable Multipath Transport Protocol." In 2018 IEEE International Conference on Communications (ICC 2018). IEEE, 2018. http://dx.doi.org/10.1109/icc.2018.8422951.

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Zhang, Jingjing, Lin Yang, Xianming Gao, and Qiang Wang. "Formal analysis of QUIC handshake protocol using ProVerif." In 2020 7th IEEE International Conference on Cyber Security and Cloud Computing (CSCloud)/2020 6th IEEE International Conference on Edge Computing and Scalable Cloud (EdgeCom). IEEE, 2020. http://dx.doi.org/10.1109/cscloud-edgecom49738.2020.00030.

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Cao, Xudong, Shangru Zhao, and Yuqing Zhang. "0-RTT Attack and Defense of QUIC Protocol." In 2019 IEEE Globecom Workshops (GC Wkshps). IEEE, 2019. http://dx.doi.org/10.1109/gcwkshps45667.2019.9024637.

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Basyoni, Lamiaa, Aiman Erbad, Mashael Alsabah, Noora Fetais, and Mohsen Guizani. "Empirical Performance Evaluation of QUIC Protocol for Tor Anonymity Network." In 2019 15th International Wireless Communications and Mobile Computing Conference (IWCMC). IEEE, 2019. http://dx.doi.org/10.1109/iwcmc.2019.8766609.

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Islam, Md, and Christian Rothenberg. "HAS Based Empirical QoE Study over TCP and QUIC on Diverse Networks." In Workshop Pré-IETF. Sociedade Brasileira de Computação, 2020. http://dx.doi.org/10.5753/wpietf.2020.13794.

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HTTP adaptive streaming (HAS) is the de-facto standard for video services over the Internet delivering increased Quality of Experience (QoE) as a function of the network status. Such adaptive streaming atop HTTP relies predominantly on TCP as the reliable transport protocol. Recently, QUIC, an alternative of TCP transport, has emerged to overcome TCP’s native shortcomings and improve the HTTP-based applications QoE. This paper investigates three strategies (Rate, Buffer, and Hybrid) based adaptive bitrate streaming (ABS) algorithms behavioral performance over the traditional TCP and QUIC transport protocol. For this purpose, we experimentally evaluate different cellular network traces in a high-fidelity emulated testbed and compare the performance of ABS algorithms considering QoE metrics over TCP and QUIC. Our empirical results show that each ABS algorithm’s (Conventional, BBA, and Arbiter) QoE performance is biased for TCP. As a result, QUIC suffers the ineffectiveness of traditional state-of-art ABS algorithms to improve video streaming performance without specific changes.
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Fischlin, Marc, and Felix Günther. "Multi-Stage Key Exchange and the Case of Google's QUIC Protocol." In CCS'14: 2014 ACM SIGSAC Conference on Computer and Communications Security. New York, NY, USA: ACM, 2014. http://dx.doi.org/10.1145/2660267.2660308.

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Yang, Siyu, Hewu Li, and Qian Wu. "Performance Analysis of QUIC Protocol in Integrated Satellites and Terrestrial Networks." In 2018 14th International Wireless Communications & Mobile Computing Conference (IWCMC). IEEE, 2018. http://dx.doi.org/10.1109/iwcmc.2018.8450388.

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Wang, Peng, Carmine Bianco, Janne Riihijärvi, and Marina Petrova. "Implementation and Performance Evaluation of the QUIC Protocol in Linux Kernel." In MSWIM '18: 21st ACM Int'l Conference on Modelling, Analysis and Simulation of Wireless and Mobile Systems. New York, NY, USA: ACM, 2018. http://dx.doi.org/10.1145/3242102.3242106.

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Reports on the topic "QUIC Protocol"

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Fairhurst, G., and A. Sathiaseelan. Quick-Start for the Datagram Congestion Control Protocol (DCCP). RFC Editor, August 2009. http://dx.doi.org/10.17487/rfc5634.

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Wierbowski, D., F. Detienne, and P. Sethi. A Quick Crash Detection Method for the Internet Key Exchange Protocol (IKE). Edited by Y. Nir. RFC Editor, June 2011. http://dx.doi.org/10.17487/rfc6290.

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Nishida, Y., P. Natarajan, A. Caro, P. Amer, and K. Nielsen. SCTP-PF: A Quick Failover Algorithm for the Stream Control Transmission Protocol. RFC Editor, April 2016. http://dx.doi.org/10.17487/rfc7829.

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