2 research outputs found
Machine Learning enabled models for YouTube Ranking Mechanism and Views Prediction
With the continuous increase of internet usage in todays time, everyone is
influenced by this source of the power of technology. Due to this, the rise of
applications and games Is unstoppable. A major percentage of our population
uses these applications for multiple purposes. These range from education,
communication, news, entertainment, and many more. Out of this, the application
that is making sure that the world stays in touch with each other and with
current affairs is social media. Social media applications have seen a boom in
the last 10 years with the introduction of smartphones and the internet being
available at affordable prices. Applications like Twitch and Youtube are some
of the best platforms for producing content and expressing their talent as
well. It is the goal of every content creator to post the best and most
reliable content so that they can gain recognition. It is important to know the
methods of achieving popularity easily, which is what this paper proposes to
bring to the spotlight. There should be certain parameters based on which the
reach of content could be multiplied by a good factor. The proposed research
work aims to identify and estimate the reach, popularity, and views of a
YouTube video by using certain features using machine learning and AI
techniques. A ranking system would also be used keeping the trending videos in
consideration. This would eventually help the content creator know how
authentic their content is and healthy competition to make better content
before uploading the video on the platform will be ensured.Comment: The Paper has been ACCEPTED at the "2nd International Conference on
Computing and Communication Networks(ICCCN-2022)". This paper will be
published by AIP publishing and DOI will be issued later o
Robust Planning and Operation of Multi-Cell Homogeneous and Heterogeneous Networks
International audienceIn this work, we propose a robust planning tool that allocates power statically in homogeneous and heterogeneous cellular networks with non-regular base station (BTS) placement, to mitigate interference and improve overall performance. Each BTS will use the total available spectrum, but it will divide it into multiple sub-bands, and each BTS will transmit with a specific pre-computed power on each sub-band. We refer to such a power allocation as a power map. Our offline planning tool computes a robust power map for a given topology, by solving a non-convex, non-linear optimization problem, through simple transformations, based on geometric programming. The power map is computed based solely on the network topology, and it is made available to all BTSs that use it throughout the network operation to perform scheduling using a fast quasi-optimal online algorithm that we propose. We evaluate our planning tool for different homogeneous and heterogeneous networks (HetNets), first in a static setting where scheduling is performed optimally and then in a dynamic setting when scheduling is performed with our online scheduler. Results show that our solution significantly outperforms a classical equal power/fixed frequency reuse scheme in terms of sum-rate, by up to 30% in homogeneous networks and by up to 70% in HetNets