Dream Property Group 47-46 Vernon Blvd 7184820222 (Office), 9178039223 (Cell), 7184820224 (Fax)
Experience:
4 years
Description:
Hardeep has participated in a variety of real estate contract transactions, including commercial, luxury residential properties in New York City . Over the years Hardeep has established relationships and local experience providing a unique advantage to his clients. To navigate the complex decisions involved in todays real estate market requires the guidance of a professional. Hardeep is dedicated to service, committed to excellence and pays close attention to detail. He puts pride in and emphasis on accountability, reliability, timeliness and enthusiasm. Hardeep will provide all his clients all theinformation necessary to help them make real estate investment decisions throughout the changing market cycles. A successful real estate transaction is built upon the strength of relationships and the experience of how to get things done. Being well respected by his peers and has developed invaluable working relationships with other professionals in the industry such as title companies, attorneys, lenders and appraisers is very important to him. Being a licensed Real Estate Broker he is bound by a code of ethics in which he is proud of.
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Resumes
Senior Software Development Engineer, New Intiative, Edge Services
Amazon Web Services
Senior Software Development Engineer, New Intiative, Edge Services
Amazon Web Services Mar 2017 - Feb 2018
Senior Software Development Engineer, Amazon Cloudfront
Amazon Web Services Feb 2013 - Mar 2017
Software Development Engineer, Amazon Cloudfront
Google Jun 2012 - Aug 2012
Software Engineering Intern
University of Massachusetts Amherst Sep 2010 - May 2012
Graduate Research Assistant
Education:
University of Massachusetts Amherst 2010 - 2012
Master of Science, Masters, Computer Science
University of Washington 2007 - 2010
Bachelors, Bachelor of Science, Computer Science
North Seattle College 2005 - 2007
Skills:
Distributed Systems Hadoop Java Python Software Engineering Amazon Web Services Scalability Software Development Infrastructure Networking Big Data Sql Linux C++ Networks Cassandra Mapreduce Algorithms C
- Seattle WA, US Hardeep Singh Uppal - Seattle WA, US
International Classification:
H04L 12/26 G06F 16/957 G06F 16/955 H04L 29/12
Abstract:
Systems and methods for sloppy routing are provided. A client transmits a DNS query corresponding to a requested resource to a content delivery network (CDN) service provider. In some embodiments, the CDN service provider processes the DNS query to determine whether a threshold content delivery bandwidth has been exceeded by data links at cache servers. In other embodiments, additionally or alternatively, the CDN service provider determines whether a content provider has exceeded a threshold network usage that indicates a price at which the CDN service provider to provide content on behalf of the content provider. Using both or either of these thresholds, the CDN service provider can further process the DNS query by providing an alternative resource identifier or a cache IP address, both associated with an alternative POP. In some embodiments, the CDN service provider determines a routing mode for the response to the DNS query.
Load Balanced Access To Distributed Scaling Endpoints Using Global Network Addresses
- Seattle WA, US Harvo Reyzell Jones - Gig Harbor WA, US Hardeep Singh Uppal - Seattle WA, US Dennis Marinus - Seattle WA, US Dhiraj Gupta - Kirkland WA, US
Systems and methods are described to enable the load-balanced use of globalized network addresses, addressable throughout a network to access a network-accessible service. A set of global access points are provided, which advertise availability of the globalized network addresses. On receiving a request to access a network-accessible service, a global access point can select an endpoint for the service from among a number of data centers, based on a desired distribution of traffic among the data centers. The access point is responsive to scaling that might occur at endpoints by periodically retrieving updated configuration information for the endpoints, enabling the access point to nimbly respond to changes in endpoints for the service.
Load Balanced Access To Distributed Endpoints Using Anycasted Global Network Addresses And Network Address Translation
- Seattle WA, US Harvo Reyzell Jones - Gig Harbor WA, US Hardeep Singh Uppal - Seattle WA, US Dennis Marinus - Seattle WA, US Dhiraj Gupta - Kirkland WA, US
Systems and methods are described to enable the load-balanced use of globalized network addresses, addressable throughout a network to access a network-accessible service. A set of global access points are provided, which advertise availability of the globalized network addresses. On receiving a request to access a network-accessible service, a global access point can select an endpoint for the service from among a number of data centers, based on a desired distribution of traffic among the data centers. The access point then forwards the traffic to the selected endpoint. In one embodiment, the access point applies network address translation to enable the traffic to be routed to the endpoint without terminating a connection at the endpoint. The access point may use a variety of techniques to ensure resiliency of the network and knowledge of available endpoints.
Load Balanced Access To Distributed Endpoints Using Resiliently Advertised Global Network Addresses
- Seattle WA, US Harvo Reyzell Jones - Gig Harbor WA, US Hardeep Singh Uppal - Seattle WA, US Dennis Marinus - Seattle WA, US Dhiraj Gupta - Kirkland WA, US
Systems and methods are described to enable the load-balanced use of globalized network addresses, addressable throughout a network to access a network-accessible service. A set of global access points are provided, which advertise availability of the globalized network addresses. Globalized network addresses can be divided among different pools, and each service can be associated with addresses of more than one pool. To increase resiliency, access points can advertise different pools of addresses to different neighboring devices, creating different pathways to reach the access point. If an error occurs on a neighboring network, a client can try to access the service via an address of a different pool, which can be expected to be routed through a different neighboring network, thus enabling the client to reach the access point.
Load Balanced Access To Distributed Endpoints Using Global Network Addresses And Connection-Oriented Communication Session Handoff
- Seattle WA, US Harvo Reyzell Jones - Gig Harbor WA, US Hardeep Singh Uppal - Seattle WA, US Dennis Marinus - Seattle WA, US Dhiraj Gupta - Kirkland WA, US
Systems and methods are described to enable the load-balanced use of globalized network addresses, addressable throughout a network to access a network-accessible service. A set of global access points are provided, which advertise availability of the globalized network addresses. The access points enable rapid use of connection-oriented communication sessions by conducting an initialization phase of the sessions locally on the access point. Session context information is then handed off to an endpoint for the service, which can provide the service through the already-established sessions. To avoid breaking sessions due to changes in network routing, each access point can apply a uniform selection criteria for endpoints, such that if client traffic is routed to a different access point, that access point redirects the traffic to the same endpoint previously servicing the traffic via an established session.
Routing Mode And Point-Of-Presence Selection Service
- Seattle WA, US Hardeep Singh Uppal - Seattle WA, US
International Classification:
H04L 12/707 H04L 12/26
Abstract:
Systems and methods for sloppy routing are provided. A client transmits a DNS query corresponding to a requested resource to a content delivery network (CDN) service provider. In some embodiments, the CDN service provider processes the DNS query to determine whether a threshold content delivery bandwidth has been exceeded by data links at cache servers. In other embodiments, additionally or alternatively, the CDN service provider determines whether a content provider has exceeded a threshold network usage that indicates a price at which the CDN service provider to provide content on behalf of the content provider. Using both or either of these thresholds, the CDN service provider can further process the DNS query by providing an alternative resource identifier or a cache IP address, both associated with an alternative POP. In some embodiments, the CDN service provider determines a routing mode for the response to the DNS query.
Dns Resolution Using Link-Level Capacity Of Destination Systems
- Seattle WA, US Harvo Reyzell Jones - Gig Harbor WA, US Fan Mo - Seattle WA, US Anton Stephen Radlein - Seattle WA, US Hardeep Singh Uppal - Seattle WA, US Jorge Vasquez - Mercer Island WA, US Axel David Velazquez - Renton WA, US
International Classification:
H04L 29/12 H04L 12/741
Abstract:
Systems and methods are described to enable routing of network communications in a content delivery system in a manner expected not to exceed the capacity of individual communication links of points of presence (POPs) within the content delivery system. Specifically, a route mapping service is disclosed that can determine the effect of potential DNS records on volumes of traffic expected to reach a POP through individual communication links, and that can alter DNS records such that the expected traffic does not exceed a capacity of those individual communication links. Illustratively, the DNS records may be altered at a level of individual DNS resolvers interacting with the content delivery system, and the volumes of traffic expected to reach a POP through individual communication links can be determined based on a volume of traffic of client computing devices associated with an individual DNS resolver.