Seattle / Boston / Washington / DC / Philadelphia / Los Angeles / Chicago / /
Company
AT&T / Sprint / YouTube / T-Mobile / Verizon / /
Country
United States / / /
Facility
Northeastern University / TCP port / /
IndustryTerm
news site / Internet service providers / Web proxy interference / Web host / Web site types / client devices / carrier capacity / cellular networks / mobile Web browser / real Web host / arbitrary Web sites / Web proxy / Web Browsing / transparent Web proxies / replicated Web content / mobile Web workloads / proxy infrastructure / realistic Web browser workloads / Web performance / mobile device energy usage / transparent Web proxy implementations / wireless networks / Web file types / Internet flows / carrier implements proxying policies / satellite networks / Internet traffic / middleboxes inside their networks / Web servers / Web server IP / traffic management / Web traffic / phone-specific cellular carrier data plans / Web objects / e.g. server / dynamic window adjustment algorithm / rooted mobile devices / Web workloads / increased wireless link utilization / carrier segments / Web Proxies / Web site front pages / web resources / image-bound site / Web server / cellular network / Web flow characteristics / Web browsing results / carrier network / search engine / Web site replicas / /
OperatingSystem
Linux / Android / /
Organization
Northeastern University / /
Position
major US cell carriers / major US carriers / major US cellular providers / representative / /
ProgrammingLanguage
HTML / JavaScript / /
ProvinceOrState
Manitoba / /
Technology
image compression / Linux / dynamic window adjustment algorithm / mobile phones / streaming video / search engine / Android / mobile device / HTML / TCP/IP / mobile devices / DNS / HTTP / caching / simulation / Web server / /
Investigating Transparent Web Proxies in Cellular Networks Xing Xu1 , Yurong Jiang1 , Tobias Flach1 , Ethan Katz-Bassett1 , David Choffnes2 , and Ramesh Govindan1 1