Prakash Suthar

Prakash Suthar

The Colony, Texas, United States
500+ connections

About

I currently work at Google and I lead Google Edge Cloud (GEC) platform team. GEC's main…

Activity

Experience

  • Google Graphic

    Google

    Dallas, Texas, United States

  • -

    San Francisco Bay Area

  • -

    Greater Chicago Area

  • -

    India

Education

  • Northwestern University Graphic

    Northwestern University

    -

    MS Datascience (MSDSP) program with specialization artificial intelligence. The course is divided into 6 Quarters (10 week). Course includes Qtr-1 (Mathematics for Datascience, Applied Statistics), Qtr-2( Introduction to Data Science, Python for data Science), Qtr-3(Database systems and Data Preparations, Practical Machine Learning), Qtr-4( Decision Analytics, Data Governance, Ethics and Laws), Qtr-5( NLP, AL and Deep Learning), Qtr-6( Computer Vision, Capstone Project)

  • -

    One year postgraduate program with hands on lab and projects covering 10 modules. The course start with statistical foundations, python foundation, supervised learning, unsupervised learning, ensemble techniques, recommended system, deep learning, computer vision, natural language processing(NLP), model deployments and Capstone project.

  • -

  • -

  • -

Licenses & Certifications

Volunteer Experience

  • Northern Illinois Food Bank Graphic

    Voluter Activities

    Northern Illinois Food Bank

    - Present 11 years 8 months

    Poverty Alleviation

    Leading and organizing volunteering for food supplies

Publications

  • Interworking and migration for 4G and 5G

    IEEE

    5G technology enables mobile operators globally to offer new capabilities not just to traditional mobiles subscriber but different segments such as enterprise services, industry verticals etc. 5G cab be deployed either as greenfield or brownfield by upgrading and interworking with existing 3G/4G etc . By leveraging interworking functions, operators can leverage or transform their existing infrastructures to optimize total cost of ownership. The main goal of this paper is to provide system…

    5G technology enables mobile operators globally to offer new capabilities not just to traditional mobiles subscriber but different segments such as enterprise services, industry verticals etc. 5G cab be deployed either as greenfield or brownfield by upgrading and interworking with existing 3G/4G etc . By leveraging interworking functions, operators can leverage or transform their existing infrastructures to optimize total cost of ownership. The main goal of this paper is to provide system architecture and methods for interworking and migration between 4G and 5G mobile technologies.
    Mobile providers are looking for strategies to introduce 5G seamlessly and enhance their overall service offering with new capabilities. Some key strategic considerations includes, their ability leverage existing packet core and integrate new 5G radio without overloading existing network, leverage network slicing for enterprise, industry verticals, heterogeneous network with indoor WiFi, Smallcell, outdoor macro cellular, enable 5G devices with new applications and enhanced quality of service etc.
    This paper start with interworking strategy and goes deepdive into design considerations, and possible solutions. In summary, mobile provider should define their own transformation journey towards 5G because it start with existing 3G/4G network, subscribers, existing services, marketing plans with new business use cases they plan to offer. We have developed this paper based on our experience and industry best practices with practical tips.

    Other authors
    See publication
  • Manage Session 5G Mobile Core and Network Slicing

    Linux Foundation - Open Source Summit Americas 2017

    5G mobile technology will transform business models for service providers and contents providers. 5G core is built using open-source tools and end-to-end virtualization. One of unique feature is “networking slicing” which manages life cycle of 5G services ensuring end-to-end QoS and SLA. This session discusses about overall architecture for 5G architecture, open sources tools network slicing. The presentation will also cover use cases being deployed by service providers.

    See publication
  • Native ICN Deployment in 4G, LTE Networks

    IEEE Explorer

    Mobile networks using LTE, 4G technologies are challenging. Managing mobility and content delivery using IP transport is complex and not optimized for content delivery. IP unicast routing from server to clients is used for delivery of multimedia content to User Equipment (UE), where each user gets separate stream. From bandwidth and routing perspective this approach is inefficient. Multicast and broadcast technologies have emerged recently for mobile networks, but their deploy- ments are very…

    Mobile networks using LTE, 4G technologies are challenging. Managing mobility and content delivery using IP transport is complex and not optimized for content delivery. IP unicast routing from server to clients is used for delivery of multimedia content to User Equipment (UE), where each user gets separate stream. From bandwidth and routing perspective this approach is inefficient. Multicast and broadcast technologies have emerged recently for mobile networks, but their deploy- ments are very limited or at an experimental stage due to complex architecture and radio spectrum issues. ICN is a rapidly emerging technology with built in features for efficient multimedia content delivery, however majority of the work is focused either on fixed networks or unlicensed WiFi-based wireless networks. The main focus of this document is on native deployment of ICN in cellular mobile networks by embedding ICN into 3GPP protocol stack at IP datagram or replacing IP for non-IP datagrams. ICN has an inherent capability for mobility, security and it is optimized for content delivery using local caching at the edge. We believe that ICN native or dual stack (with IP) deployment will bring all inherent benefits and help in optimizing mobile networks.

    Other authors
    See publication
  • Native Deployment of ICN in LTE, 4G Mobile Networks

    IETF

    LTE, 4G mobile networks use IP transport which is not optimized for
    data transport. IP unicast routing from server to clients is used for
    delivery of multimedia content to User Equipment (UE), where each
    user gets separate stream. From bandwidth and routing perspective
    this approach is inefficient. Multicast and broadcast technologies
    have emerged recently for mobile networks, but their deployments are
    very limited or at an experimental stage due to complex…

    LTE, 4G mobile networks use IP transport which is not optimized for
    data transport. IP unicast routing from server to clients is used for
    delivery of multimedia content to User Equipment (UE), where each
    user gets separate stream. From bandwidth and routing perspective
    this approach is inefficient. Multicast and broadcast technologies
    have emerged recently for mobile networks, but their deployments are
    very limited or at an experimental stage due to complex architecture
    and radio spectrum issues. ICN is a rapidly emerging technology with
    built in features for efficient multimedia data delivery, however
    majority of the work is focused on fixed networks. The main focus of
    this draft is on native deployment of ICN in cellular mobile networks
    by using ICN into 3GPP protocol stack. ICN has an inherent capability
    for multicast, anchorless mobility, security and it is optimized for
    data delivery using local caching at the edge. The native ICN or dual
    stack (along with IP) deployment will bring all inherent benefits and
    help in optimizing mobile networks.

    Other authors
    See publication
  • 5G Technology Updates

    Ciscolive Berlin

    Mobile industry saw major inflection point in 2008 when Long Term Evolution (LTE) was introduced. LTE served the need to radio and core harmonization using all IP architecture. Yet another biggest inflection will when 5G technology specification are released. Unlike LTE, 5G specifications are developed Internet of Things (IoT). Different standards bodies are working aggressively to propose architecture and framework, which will lay foundation for 5G. This session will demystify some of terms…

    Mobile industry saw major inflection point in 2008 when Long Term Evolution (LTE) was introduced. LTE served the need to radio and core harmonization using all IP architecture. Yet another biggest inflection will when 5G technology specification are released. Unlike LTE, 5G specifications are developed Internet of Things (IoT). Different standards bodies are working aggressively to propose architecture and framework, which will lay foundation for 5G. This session will demystify some of terms and architecture proposal and discussions in layman language. Speaker has done extensive work in LTE design and deployment for many mobile providers and actively engaged with different standard bodies for 5G. We will share knowledge and framework for 5G architecture discussed at different standardization organizations. Such as ITU, 3GPP, NGMN, ETSI etc.

    See publication
  • GiLAN Service Chaining

    Ciscolive

    The current practices for deploying mobile value added services are operational complex and practically inflexible. Mobile Services architecture using Network Function Virtualization (NFV) and Software Defined Networking (SDN) promise to change that. This session presents an approach for managing the complexity of the VAS services by using NfV and for supporting personalized and more easily monetizable services by introducing an SDN coupled to the 3GPP policy layer.

    Other authors
    See publication
  • Keynote on TelcoCloud for Mobile Operators

    IEEE Latin America Mexico

    Mobile service providers across the globe are building next-gen mobile broadband infrastructure based upon LTE, Wi-Fi and other access technologies. User will expect seamless access to content irrespective of location, network access types and also would like to pay less. Telco Cloud offer unique opportunity where all traditional purpose built hardware centric devices can be migrated to cloud architecture to reduce total cost of ownership (TCO). Many Telcos have been acquiring cloud service…

    Mobile service providers across the globe are building next-gen mobile broadband infrastructure based upon LTE, Wi-Fi and other access technologies. User will expect seamless access to content irrespective of location, network access types and also would like to pay less. Telco Cloud offer unique opportunity where all traditional purpose built hardware centric devices can be migrated to cloud architecture to reduce total cost of ownership (TCO). Many Telcos have been acquiring cloud service providers to augment their cloud capabilities and are also expanding their existing cloud services in partnership with third-party vendors. What will be needed more is proper design for module scalable, standardized architecture which can meet strict SLA what Telcos are used to for their existing TDM based architecture.
    This paper will discuss whole lifecycle for Telco Cloud starting from design, deployment, provisioning and management of Telco Cloud infrastructures. Simply put Telco Cloud will be next XaaS offering multitudes of services we will all consume. Let us think through and build elastic but robust network. Participants will be able to understand nuts and bolts of Telco Cloud which includes design and deployment strategies, case study for real TelcoCloud deployments.

    See publication
  • LTE Roaming Design and Deployment

    Ciscolive

    Long Term Evolutions (LTE) is newest technology for mobile operators. Most of existing 2G, 3G mobile networks are migrating to LTE. Compared with 3G, LTE provides high throughput, much better QoS control and low latency. Subscribers have same expectation whether in home network or roaming. This is intermediate level session covering LTE along with 2G/3G roaming design and deployment. The session will focus on LTE roaming using IP exchange (IPX) network and how to inter-operate GRX and IPX…

    Long Term Evolutions (LTE) is newest technology for mobile operators. Most of existing 2G, 3G mobile networks are migrating to LTE. Compared with 3G, LTE provides high throughput, much better QoS control and low latency. Subscribers have same expectation whether in home network or roaming. This is intermediate level session covering LTE along with 2G/3G roaming design and deployment. The session will focus on LTE roaming using IP exchange (IPX) network and how to inter-operate GRX and IPX simultaneously. I will also cover in depth about policy, QoS implementation, and different local breakout options during roaming. LTE security for home and roaming subscribers will be covered in detail. The participants are expected to learn LTE roaming and security design using best practices and case studies. The content of session will be based speakers hands on experience with tier-1/2 mobile networks.

    See publication
  • Mobile Service Provider Smartphone Signaling Challenges

    Ciscolive

    Rapid insertion of smartphone with multiple operating system and uncontrolled application create signaling storm in mobile network. This is biggest challenge faced by all service providers. This session will discuss about signaling issues, industry best practices and Cisco's recommendations.

    Other authors
    • Arghya Mukherjee
    See publication
  • LTE Design and Deployment Strategies

    Ciscolive

    LTE as technology has received wider acceptance from vendors, operators. The promise of technology can be realized only if network is designed carefully keeping long-term view. This session focus on LTE design focusing eNodeB bandwidth, IP Backhaul, MPLS Core, Mobile datacenters, MME, SGW, PGW, HSS, PCRF, Billing and mediation, DNS, Large scale NAT etc. The session also covers methodologies for integration, test and validations, field trials and services introductions for LTE network. The…

    LTE as technology has received wider acceptance from vendors, operators. The promise of technology can be realized only if network is designed carefully keeping long-term view. This session focus on LTE design focusing eNodeB bandwidth, IP Backhaul, MPLS Core, Mobile datacenters, MME, SGW, PGW, HSS, PCRF, Billing and mediation, DNS, Large scale NAT etc. The session also covers methodologies for integration, test and validations, field trials and services introductions for LTE network. The content is based upon practical experience of speakers with different mobile networks transitioning from 3G to LTE including multivendor scenarios.
    The session provides LTE design and deployment insights for network engineers and managers involved in design, deployment and operations of LTE network for mobile service providers. Pre-requisites for this session are good understanding of network architecture 3GPP. Professional level routing knowledge will be helpful.

    See publication
  • Next Gen Datacenter for Mobile Operators

    Ciscolive

    Majority of mobile operators across the globe have legacy architecture consisting of circuit switched voice, hybrid backhaul (leased, ATM, FR, IP etc.) and centralized datacenter hosting mobile gateways and other applications. This breakout session is geared toward retrofitting or fork lifting existing architecture to next-generations distributed architecture which is simple, secure, resilient and scalable.

    Speaker will present the design methodologies and architectures for Datacenters…

    Majority of mobile operators across the globe have legacy architecture consisting of circuit switched voice, hybrid backhaul (leased, ATM, FR, IP etc.) and centralized datacenter hosting mobile gateways and other applications. This breakout session is geared toward retrofitting or fork lifting existing architecture to next-generations distributed architecture which is simple, secure, resilient and scalable.

    Speaker will present the design methodologies and architectures for Datacenters geared towards maximizing the investments and improving design and operational efficiencies. The session will go in details about zone & pod architecture, virtualized services hosting using new technologies such as Nexus, large scale NAT, optimized video delivery etc.

    The session is targeted for network engineers and managers involved in design and operations of datacenter for mobile service providers. Pre-requisites for this session is good understanding of network architecture at CCNP, CCIP level and mobility standards for 3GPP, Femto, WiMAX etc.

    See publication
  • LTE Design using IPv6

    Rocky Mountain IPv6 Forum



    Majority of mobile network are in transition from CDMA, GSM, and UMTS to LTE/EPC technologies. At the same mobile industry is focusing on integrating IPv6 into their network. All 3GPP standards pertaining to LTE/EPC outlines support for IPv6 in all the interfaces. There is an opportunity for mobile network designers to build LTE/EPC architecture using IPv6, so that industry can benefits from IPv6 capabilities and we lay right foundations for End-to-end Intelligent Mobile…



    Majority of mobile network are in transition from CDMA, GSM, and UMTS to LTE/EPC technologies. At the same mobile industry is focusing on integrating IPv6 into their network. All 3GPP standards pertaining to LTE/EPC outlines support for IPv6 in all the interfaces. There is an opportunity for mobile network designers to build LTE/EPC architecture using IPv6, so that industry can benefits from IPv6 capabilities and we lay right foundations for End-to-end Intelligent Mobile Architectures.

    Cisco is making significant contributions in the industry focusing on LTE/EPC, IPv6 and next-gen mobile network. This session will focus on designing end-to-end IPv6 architecture in Radio Access networks (IP-RAN), MPLS Core, Mobile Packet Core involving Mobility Management Entity (MME), Serving Gateway (SGW), Packet Gateway (PGW), Policy Control & Charging Functions (PCRF, PCEF), DNS64, and NAT64. Materials covered the session will be based upon practical experience designing mobile networks for tier-1/2 service providers and the emphasis will be on overall architecture.

    See publication

Patents

  • Securing communication for roaming user equipment (UE) using a native blockchain platform

    Issued US 10,742,396

    A network function (NF) entity in a communication network receives authentication data associated with a User Equipment (UE), determines the UE supports a blockchain registration procedure based on the authentication data, exchanges authentication messages with a Blockchain Roaming Broker (BRB) entity over a blockchain network interface, receives a blockchain authentication confirmation from the BRB entity, and registers the UE with the core network based on the blockchain authentication…

    A network function (NF) entity in a communication network receives authentication data associated with a User Equipment (UE), determines the UE supports a blockchain registration procedure based on the authentication data, exchanges authentication messages with a Blockchain Roaming Broker (BRB) entity over a blockchain network interface, receives a blockchain authentication confirmation from the BRB entity, and registers the UE with the core network based on the blockchain authentication confirmation

    Other inventors
    See patent
  • Provisioning network resources in a wireless network using a native blockchain platform

    Issued US 10,673,618

    A Network Function (NF) entity in a telecommunication network receives blockchain credentials associated with UE and selects a Blockchain Charging Function (BCF). The NF entity further generates a Charging Data Record (CDR) corresponding to network resources, and sends a charging request based on the CDR (and policy rules) to the BCF entity over a blockchain network interface. The BCF entity sends a confirmation of the charging request, and the NF entity, based on the confirmation, provisions…

    A Network Function (NF) entity in a telecommunication network receives blockchain credentials associated with UE and selects a Blockchain Charging Function (BCF). The NF entity further generates a Charging Data Record (CDR) corresponding to network resources, and sends a charging request based on the CDR (and policy rules) to the BCF entity over a blockchain network interface. The BCF entity sends a confirmation of the charging request, and the NF entity, based on the confirmation, provisions the network resources to the UE.

    Other inventors
    See patent
  • Providing user equipment location information indication on user plane

    Issued US 10,660,061

    Aspects of the disclosed technology provide ways to report User Equipment (UE) device locations in a 5G network for the purpose of redirecting application traffic from proximately located Data Networks (DNs). In one aspect, the disclosed technology encompasses a process for conveying User Equipment (UE) information to an Application Function (AF), the process includes steps for receiving, at an intermediate-User Plane Function (I-UPF) entity, User Equipment (UE) uplink data from a Radio Access…

    Aspects of the disclosed technology provide ways to report User Equipment (UE) device locations in a 5G network for the purpose of redirecting application traffic from proximately located Data Networks (DNs). In one aspect, the disclosed technology encompasses a process for conveying User Equipment (UE) information to an Application Function (AF), the process includes steps for receiving, at an intermediate-User Plane Function (I-UPF) entity, User Equipment (UE) uplink data from a Radio Access Network (RAN), determining if sharing of location information or application information associated with the UE is restricted, and encapsulating first location metadata or application metadata in an SRv6 packet if the sharing of location information or application information is not restricted. Systems and machine-readable media are also provided.

    Other inventors
    See patent
  • SYSTEMS, DEVICES, AND TECHNIQUES FOR REGISTERING USER EQUIPMENT (UE) IN WIRELESS NETWORKS USING A NATIVE BLOCKCHAIN PLATFORM

    Issued US 10,505,718

    A network function (NF) entity in a communication network determines a User Equipment (UE) supports a blockchain authentication procedure, exchanges authentication messages with a Blockchain Authentication Function (BAF) entity over a blockchain network interface (e.g., based on the blockchain authentication procedure), receives a blockchain authentication confirmation from the BAF entity, and registers the UE based on the blockchain authentication confirmation

    Other inventors
    See patent
  • Systems, devices, and techniques for managing data sessions in a wireless network using a native blockchain platform

    Issued US 10,299,128

    A network function (NF) entity in a communication network receives session request data associated with a User Equipment (UE), which includes blockchain authentication data. The NF entity selects a Blockchain Authentication Function (BAF) entity based on the session request data, and exchanges at least a portion of the blockchain authentication data with the BAF entity over a blockchain network interface. The NF entity further receives authentication confirmation data from the BAF entity over…

    A network function (NF) entity in a communication network receives session request data associated with a User Equipment (UE), which includes blockchain authentication data. The NF entity selects a Blockchain Authentication Function (BAF) entity based on the session request data, and exchanges at least a portion of the blockchain authentication data with the BAF entity over a blockchain network interface. The NF entity further receives authentication confirmation data from the BAF entity over the blockchain network interface, and establishes a data session associated with the UE based on the authentication confirmation data

    Other inventors
    See patent
  • Method and device for multicast content delivery

    Issued US 10,469,278

    In accordance with various implementations, a method is performed at a multicast gateway node within an operator network, where the multicast gateway node includes one or more processors, non-transitory memory, an ingress interface, and one or more egress interfaces. The method includes determining a multicast identifier for a user device in response to obtaining a registration request associated with the user device. The method also includes generating a header for a multicast data stream…

    In accordance with various implementations, a method is performed at a multicast gateway node within an operator network, where the multicast gateway node includes one or more processors, non-transitory memory, an ingress interface, and one or more egress interfaces. The method includes determining a multicast identifier for a user device in response to obtaining a registration request associated with the user device. The method also includes generating a header for a multicast data stream based at least in part on the multicast identifier in response to obtaining a multicast flow join request. The method further includes populating a packet associated with the multicast data stream with the header. The method further includes forwarding the packet to the user device via a portion of the one or more egress interfaces, where the portion of the one or more egress interfaces is associated with the user device.

    Other inventors
    See patent
  • Information Centric Networking for Long Term Evolution (LTE)

    Filed US 10,447,824

    A method for improving content delivery for a user equipment (UE) implemented on a computing device and includes receiving a request from an application layer on the UE, determining whether said request is an ICN-based request using information Centric Networking (ICN) transport protocol or an IP-based request using Internet Protocol (IP) transport protocol, and for each ICN-based request according to the determining: forwarding the ICN-based request to an ICN function on the UE, and…

    A method for improving content delivery for a user equipment (UE) implemented on a computing device and includes receiving a request from an application layer on the UE, determining whether said request is an ICN-based request using information Centric Networking (ICN) transport protocol or an IP-based request using Internet Protocol (IP) transport protocol, and for each ICN-based request according to the determining: forwarding the ICN-based request to an ICN function on the UE, and compressing ICN headers in the ICN-based request using robust header (RoHC) compression.

    A method for improving content delivery is performed on a mobile base station and includes: configuring the mobile base station to support ICN transport protocol, and storing content for delivery over the ICN transport protocol in an ICN content cache on the mobile base station.

    A method for supporting ICN on a long term evolution (LTE) evolved packet core (EPC) device includes: receiving an initial attach request from a user equipment (UE), where the initial attach request includes an indication of support for ICN transport protocol on the UE, authenticating the UE, creating a session for the UE, where a Packet Data Network (PDN) type is assigned for the session is ICN.

    Other inventors
    See patent
  • Closed-loop optimization of a wireless network using an autonomous vehicle

    Issued US 10419903

    The invention use a real-time closed-loop system to optimize a wireless network. The system includes a drone controlled by a self-organizing network (SON) to retrieve RF data corresponding to the wireless network. In one embodiment, the SON provides the drone with a predetermined path through the coverage area of the wireless network. As the drone traverses the path, a RF scanner mounted on the drone collects RF data. The drone transmits this data to the SON which processes the RF data to…

    The invention use a real-time closed-loop system to optimize a wireless network. The system includes a drone controlled by a self-organizing network (SON) to retrieve RF data corresponding to the wireless network. In one embodiment, the SON provides the drone with a predetermined path through the coverage area of the wireless network. As the drone traverses the path, a RF scanner mounted on the drone collects RF data. The drone transmits this data to the SON which processes the RF data to identify problems in the wireless network (e.g., cell tower interference). The SON generates one or more actions for correcting the identified problem and transmits these actions to a wireless network controller. Once the wireless network controller performs the action, the SON instructs the drone to re-traverse the portion of the path to determine if the problem has been resolved.

    Other inventors
    See patent
  • Securing communications for roaming user equipment (UE) using a native blockchain platform

    Issued US 10,299,128

    A network function (NF) entity in a communication network receives authentication data associated with a User Equipment (UE), determines the UE supports a blockchain registration procedure based on the authentication data, exchanges authentication messages with a Blockchain Roaming Broker (BRB) entity over a blockchain network interface, receives a blockchain authentication confirmation from the BRB entity, and registers the UE with the core network based on the blockchain authentication…

    A network function (NF) entity in a communication network receives authentication data associated with a User Equipment (UE), determines the UE supports a blockchain registration procedure based on the authentication data, exchanges authentication messages with a Blockchain Roaming Broker (BRB) entity over a blockchain network interface, receives a blockchain authentication confirmation from the BRB entity, and registers the UE with the core network based on the blockchain authentication confirmation.

    Other inventors
    See patent
  • Providing user equipment location information indication on user plane

    Issued US https://patents.justia.com/patent/10285155

    Aspects of the disclosed technology provide ways to report User Equipment (UE) device locations in a 5G network for the purpose of redirecting application traffic from proximately located Data Networks (DNs). In one aspect, the disclosed technology encompasses a process for conveying User Equipment (UE) information to an Application Function (AF), the process includes steps for receiving, at an intermediate-User Plane Function (I-UPF) entity, User Equipment (UE) uplink data from a Radio Access…

    Aspects of the disclosed technology provide ways to report User Equipment (UE) device locations in a 5G network for the purpose of redirecting application traffic from proximately located Data Networks (DNs). In one aspect, the disclosed technology encompasses a process for conveying User Equipment (UE) information to an Application Function (AF), the process includes steps for receiving, at an intermediate-User Plane Function (I-UPF) entity, User Equipment (UE) uplink data from a Radio Access Network (RAN), determining if sharing of location information or application information associated with the UE is restricted, and encapsulating first location metadata or application metadata in an SRv6 packet if the sharing of location information or application information is not restricted. Systems and machine-readable media are also provided.

    Other inventors
    See patent
  • SYSTEM AND METHOD TO FACILITATE DEPLOYING INFORMATION CENTRIC NETWORKING (ICN) IN LONG TERM EVOLUTION (LTE) MOBILE NETWORKS

    Issued US 10,257,327

    This patent covers methods and system to deploy Information centric Networking (ICN) natively for efficient delivery of video contents in Long Term Evolution (LTE)/ 4G technology. This patent covers modifications in 3GPP protocols to implement ICN natively between users (consumer) and application provider (publisher)

    See patent
  • Operating unmanned aerial vehicles to maintain or create wireless networks

    Issued US 9,913,102

    Memethod, comprising: instructing an unmanned aerial vehicle (UAV) to travel a line of sight (LOS) path between a first location and a second location; instructing the UAV to determine a Fresnel radius at one or more defined locations along the LOS path between the first location and the second location; determining a Fresnel zone between the first location and second location based in part on the determined Fresnel radius for each of the defined locations along the LOS path; receiving…

    Memethod, comprising: instructing an unmanned aerial vehicle (UAV) to travel a line of sight (LOS) path between a first location and a second location; instructing the UAV to determine a Fresnel radius at one or more defined locations along the LOS path between the first location and the second location; determining a Fresnel zone between the first location and second location based in part on the determined Fresnel radius for each of the defined locations along the LOS path; receiving information regarding one or more obstacles detected, by the UAV, within the Fresnel radius at one or more of the defined locations along the LOS path; generating a three dimensional cylindrical visual representation of the LOS path and Fresnel zone based in part on the received information and the determined Fresnel radius for each of the defined locations; and evaluating the Fresnel zone to determine if the LOS path can support a LOS wireless communication link.

    See patent
  • DEPLOYING CELL ON DRONE OR DRONEAP TO MITIGATE RADIO CAPACITY AND COVERAGE ISSUES

    Issued US 9,854,408

    This invention provides system and methods to deploy cell on drone or DroneAP to mitigate radio capacity and coverage issues. DroneAP is automatically deployed using close-loop SON system.

    See patent
  • Closed-loop optimization of a wireless network using an autonomous vehicle

    Issued US 9,363,690

    A method comprising: transmitting a path to a drone; receiving, at a self-organizing network (SON), RF data measured by the drone while traversing the path; upon determining a problem in a wireless network based on the received RF data, transmitting an action to change a parameter of a wireless network; after transmitting the action to change the parameter, instructing the drone via the SON to measure updated RF data at a location on the path corresponding to the problem; evaluating the updated…

    A method comprising: transmitting a path to a drone; receiving, at a self-organizing network (SON), RF data measured by the drone while traversing the path; upon determining a problem in a wireless network based on the received RF data, transmitting an action to change a parameter of a wireless network; after transmitting the action to change the parameter, instructing the drone via the SON to measure updated RF data at a location on the path corresponding to the problem; evaluating the updated RF data at the SON to determine whether the problem was resolved; transmitting a scanner profile from the SON to the drone, the scanner profile identifying one or more frequencies to be scanned by the drone to generate the RF data; and transmitting an attenuation profile from the SON to the drone, the attenuation profile providing parameters for processing the RF data based on environmental conditions along the path.

    Other inventors
    See patent
  • Interactive Dynamic Ordering of Deep Packet Inspection Rules

    Issued US US Patent No. 9,288,290

    A network device processes packets transiting the device using successive deep packet inspection (DPI) rules. For each rule, the device attempts to apply the DPI rule to each packet, applies the DPI rule to each packet for which the attempt is successful, determines a probability that the attempt is successful across a plurality of packets, determines an average computational cost of applying the rule across a plurality of packets, and determines a merit of the DPI rule based on the average…

    A network device processes packets transiting the device using successive deep packet inspection (DPI) rules. For each rule, the device attempts to apply the DPI rule to each packet, applies the DPI rule to each packet for which the attempt is successful, determines a probability that the attempt is successful across a plurality of packets, determines an average computational cost of applying the rule across a plurality of packets, and determines a merit of the DPI rule based on the average computational cost and the probability. The device reorders the successive DPI rules in an order of decreasing merit (computational cost), and processes new packets using the optimized DPI rules. The method of re-arranging DPI rules provides significant saving for network devices including mobile gateways in terms of computational cost.

    Other inventors
    See patent

Courses

  • CCIE- Service Provider

    26373

  • PMP

    506403

  • VMware VCP

    128476

Honors & Awards

  • VMware Certified Profesional (VCP550-DCV)

    VMware

    VMware Certified Professional (VCP550-DCV) is professional level expertise in software defined datacenter design and deployments

Languages

  • Hindi

    Full professional proficiency

  • English

    Full professional proficiency

Organizations

  • IEEE

    Senior Member and Chicago IEEE Symposium Organizing Committee

    - Present
  • http://www.mychinmaya.org/index.php

    Volunteer

    - Present

Recommendations received

View Prakash’s full profile

  • See who you know in common
  • Get introduced
  • Contact Prakash directly
Join to view full profile

Other similar profiles

Explore collaborative articles

We’re unlocking community knowledge in a new way. Experts add insights directly into each article, started with the help of AI.

Explore More

Others named Prakash Suthar in United States

Add new skills with these courses