Platforms of Intelligence Archives - 91 /tag/platforms-of-intelligence/ IT Consulting, Strategy & Outsourcing Services Company Tue, 26 Oct 2021 13:43:06 +0000 en-US hourly 1 https://wordpress.org/?v=6.8.5 /wp-content/uploads/2020/03/itc-logo.png Platforms of Intelligence Archives - 91 /tag/platforms-of-intelligence/ 32 32 Digital Next Manufacturing Powered by Platforms of Intelligence /digital-next-manufacturing-powered-by-platforms-of-intelligence/ Thu, 07 Jan 2021 06:00:08 +0000 https://staging.itcinfotech.com/?p=35477 A disruption like no other. COVID 19 unfolded the unthinkable. The manufacturing sector is the worst-hit sector during the pandemic. Factories were shut down, supply chains were clogged, product innovations […]

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A disruption like no other. COVID 19 unfolded the unthinkable. The manufacturing sector is the worst-hit sector during the pandemic. Factories were shut down, supply chains were clogged, product innovations were put on hold. More than 80% of manufacturers in the US expressed apprehension of adverse financial impact, while 53% were worried over disruption in operations. How do we future proof manufacturing – make it agile, resilient, predictive, efficient, and autonomous?

Intelligent manufacturing, leveraging advanced technologies for end-to-end digitization and automation could be the answer. Let us delve deeper.

Siloed Data Ecosystems, Lack of Real-time Visibility and Reactive Approach Hinder Efficiency

A large number of manufacturing units run on aging equipment causing 45% unscheduled downtime. Operations are disrupted in factories as asset health is not regularly monitored. Maintenance of equipment becomes a major challenge and 80% of the time production managers and factory staff are fixing issues after the damage is done. The ability to proactively apprehend and resolve incidents is limited, leading one in three manufacturers to spend more than 10% of their operating budget on maintenance alone. At the enterprise level visibility on plant health, operating processes, and floor level performance is hindered with siloed data and access to actionable reports, on time. This creates an environment of vulnerability, posing challenges in meeting safety and regulatory compliance requirements. The end result is sub-optimal productivity and sub-par performance impacting the bottom line.

Intelligence Powered Digital Next Manufacturing Accelerates Growth and Amplify Outcomes

The manufacturing sector has the opportunity to reinvent their production and supply chain, augment the workforce, and drive deeper engagement with their customers with advanced technology adoption. The ability to harmonize, analyze, and drive real-time insights from multiple data streams define the strength of a digital enterprise. No wonder, more than 50% of manufacturers are keen to invest in building Big Data capabilities. The need for real-time inline quality control and visibility into the end-to-end process is driving 80% of technology leaders in the sector to increase investments in digitization, Artificial Intelligence, and Advanced Analytics.

Cognitive supply chain and operations with AI-based advanced planning and automation improves the ability to pre-empt issues, sense the operational challenges to respond with agility and speed. This removes vulnerability from systems and improves the health of assets by over 40%, saving huge maintenance costs and reducing unplanned downtime by almost 50%.

Companies improve the bottom line with a 5-10% reduction in operating cost and increased earnings by up to 10%. The advantages are obvious, the question is how do manufacturers accelerate their journey to digital next future?

Roadmap to Digital Next Manufacturing

As manufacturers embrace emerging technologies the focus must remain on creating a definitive roadmap to achieve desired goals. Here is an incremental approach, that equips technology leaders to chart a sustained path to digital enablement:

Roadmap for Digital Next Intelligent Manufacturing

Connect Plant and Enterprise – Astrong data foundation built on IT-OT convergence and integration across multiple data streams forms the bedrock of a connected organization. Implementing gateway solutions that provide multi-device support and build a machine to machine (M2M) connectivity enable real-time visibility, optimize capacity, and improve the quality of the output.

Conduct Prescriptive and Predictive AnalyticsOnce the organizations gain the ability to harness data, they are enabled to leverage AI, ML, and advanced analytics to build predictive models and interactive dashboards. Real-time data management and AI/ML algorithms provide prescriptive analytics to improve overall equipment efficiency and reduce inventory. As they decrease the lead time for procurement there are substantial cost savings, equipping business leaders to optimize their budget.

Drive Cognitive Intelligence– As manufacturers operationalize self-tuning AI/ML algorithms at the enterprise level, they gain the ability to contextualize intelligence. Processes are automated with a digital feedback loop and systems are equipped to take decisions with scripted algorithms. These advanced cognitive capabilities pave way for a responsive and flexible value chain and proactive risk management.

Augment Intelligence on EdgeBuilding on cognitive technologies, CIOs can adopt edge computing and advanced AI/ML modeling to connect products and services. The strength of their ML algorithms will create an ecosystem for autonomous decision making to keep the assets performing at peak. Augmented and Virtual Reality (AR/VR) adoption can bring them closer to floor level operations and create opportunities for product innovation. The technology prowess ultimately translates to enhanced productivity and efficiency, leading to improved margins.

Manufacturing Platforms of Intelligence

Under our , we offer Factory, Supply Chain, and Product Intelligence to equip manufacturers to build digital next manufacturing organizations that are cost-efficient, high performing, and more profitable. We can work with you to explore the use cases and assess the readiness with us through a discovery workshop and demonstrate value with a pilot MVP for a use case in 3 months.

91 has been supporting manufacturers to gain streamline operations and gain a competitive advantage with Platforms of Intelligence. Our pedigree in CPG and manufacturing comes from our expertise and experience with our parent group ITC. We bring the advantages of Cloud, Big Data, Advanced Analytics, AI/ML, and Augmented Reality on a single platform, we accelerate the journey fully connected ecosystem. We leverage our various strategic partners like Microsoft, PTC ThingWorx, Anaplan, and Salesforce.

To know more, write to us.


Authors:

Amit Tulshiram Derkar
Senior Manager, DX Offerings & GTM


References

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Optimal Overbooking Strategy of Airlines using Statistical/Machine Learning Algorithms & their use in post pandemic situation – an expert view /optimal-overbooking-strategy-of-airlines-using-statistical-ml-algorithms/ Mon, 21 Dec 2020 08:18:48 +0000 https://staging.itcinfotech.com/?p=35406 Airlines across the globe during pre-COVID situation were striving to achieve profitable growth in a highly volatile and competitive business environment, not to mention declining yield/RASK (RASM as in some […]

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Airlines across the globe during pre-COVID situation were striving to achieve profitable growth in a highly volatile and competitive business environment, not to mention declining yield/RASK (RASM as in some different metric). Growth in passenger bookings has also taken an upsurge leading to capacity crunch for major airlines across the world. Aviation Industry, like many others, leverages data driven analytics for efficient business strategy across multiple functions (like planning, commercial, operations, engineering etc.) to overcome such hindrances.

Adopt ML-based optimal booking strategy to maximize the yield and revenues

Overbooking flights is a common practice in the aviation industry based on the expectation that some fraction of the booked passengers will either cancel their booking at the eleventh hour or fail to show up at the departure gate (commonly known as no-show). Accurate forecasts of the number of no-show passengers for each flight can help the airline to accrue more revenue by simultaneously reducing the number of spoiled seats and lowering the cases of involuntary denied boarding which produce significant cost penalty. Optimal booking policies seek to maximize the yield as a tradeoff between the revenue due to additional sales offset by the cost of any denied boarding that might happen. Flights flying fully occupied are not only of economic interest but are of ecological importance as well.

Implementation of relevant statistical/machine learning based algorithms may ensure an advanced and robust prediction of the no-show numbers for each scheduled flight, which can aid the airlines company to accept optimum number of additional bookings over the inventory capacity. The solution comprised of two steps – prediction of cabin-level no show rates using specific information on the individual passengers booked on each flight and later employing these predicted no-show rates along with features extracted from historically similar flights to arrive at the final no-show estimate.

Build a robust prediction framework to identify no-shows

At the beginning, individual passenger details from historical flights were utilized to capture their booking trend and understand their travel pattern. Different classification models were employed to capture the different bias-variance structures and then ensembled together to come up with a more robust prediction framework. Identification of individual learners that will eventually lead to lower misclassification is the key. Below is the mis classification table.

Predicted

no-show

Predicted flown
Actual

no-show

A1 A2
Actual

flown

B1 B2

Here B2 are the cases where a passenger predicted as flown have actually flown. A1 are the cases where one predicted as no-show didn’t turn up. The passengers who have been predicted to be flown passenger but in reality didn’t turn up are A2. B1 are the passengers who have been predicted to not turn up but eventually did. Though both A2 and B1 cases are misclassified, an increased number of B1 cases will result into higher instances of denied boarding which will escalate the cost in the form of penalty.

At the next step some generalized linear model concepts were employed to come up with the estimated no show numbers. A GLM model for the unique combination of ith Flight Market Departure Date is of the form:

g(yi) = f(xi) + εi

where g() is the appropriate link function applied on the response variable, that would help to model it as a linear function of the explanatory variables. In this case, f() is a linear function and ε is the corresponding error vector.

While experts will agree that individual passenger information for a particular flight is of immense importance, airlines usually accept bookings till few hours before departure, and hence any model based on the same data will be too volatile, and always be based out of incomplete data. Rather, we assume that the pattern of travelers in a particular Flight- Market would be similar in certain Days of Week. So, we utilize the cabin level no show rate from the first model as an auxiliary variable for the passenger level information in a GLM (Generalized Linear Model). We used GLM over other because of following reasons

  • The response variable is a count variable (more than 0 but less than a certain number, which may vary from Market to Market)
  • The variance structure of the error will guide on the selection of the appropriate link function
  • The response variable might also be taken to be of type ratio (rate of no show) and may guide to selection of a totally different link function

A GLM yielding lower RMSE (Root Mean Square Error) values is considered as an appropriate prediction equation.

The General workflow can be summarized by the below diagram:

Improved inventory visibility and intelligent network planning for airlines

Improved inventory visibility and intelligent network planning for airlines

Some benefits reaped by the Airlines those have implemented Optimal Overbooking Strategy are:

  • Reduction of spoiled seats as well as the number of involuntarily denied boarding that not only maximized the revenue of the airlines due to additional bookings but also curtailed additional cost due to compensation due to DNBs and gave a boost to the reputation of the company
  • Accurate prediction teamed with historical booking pattern helped the client in network planning and inventory management

How scenario changes post pandemic

COVID-19 has changed how industries operate and Aviation is no exception. Most of the airlines worldwide had been grounded and very few are operating across limited routes. Some Indian airlines have started their domestic and international operations, but the number of flights deployed is just a fraction of their pre-pandemic frequency. Center for Aviation (CAPA) India has indeed stated that, “Indian Aviation Sector may lose $4 billion in FY 21.”* Currently, with limited transportation options, airlines is the only viable mode of transportation as people stranded in places away from home has an urge to return to near and dear ones.

In such trying situations having an Optimal Booking Policy at place can truly help sustain airlines. Though prediction of overbooking becomes more difficult in such an unprecedented situation, the airlines deems it to be even more important to have a robust and accurate demand forecast along with an Overbooking Strategy. Smart deployment of inventory along with the decision to set the Optimum Booking Limit, might help in the yield management more than ever.

New consideration of factors like instances of relaxation or implementation of sudden lockdown due to increasing cases of Corona outbreak at respective cities are important as this may result into cancellation of tickets for some passengers due to lack of transportation facilities giving room for overbooking.

Though one might say that the future of aviation looks bleak in current scenario, with the right changes applied at the right time to the existing model, we have the potential to maximize the revenue of an airline today and in the future.

We are building capabilities like these using AI/ML for optimal overbooking strategy in our platform of intelligence for airlines. Our platform can help airlines accelerate the value realization – 2% incremental PLF, 4% savings in fuel 3% upside in crew utilization and 2% improvement in TAT – using airline intelligence platform.

Stay tuned to know more about for .


Authors:

Devangana Dasgupta
Data Scientist, DATA

Akshay Vijay Medhane
Junior Data Scientist, DATA

Anindya Neogi
GM, Chief Data Scientist, Digital Experience


References

  • “Passenger Based Predictive Modelling of Airline No Show Rates” – Richard D. Lawrence, Se June Hong, Jacques Cherrier
  • “Forecasting and Forecast Combination in Airline Revenue Management Applications” – Christian Lemke, Bogdan Gabrys
  • “Cancellation Predictor for Revenue Management applied in the Hospitality Industry” – R. van Leeuwen
  • Categorical Data Analysis, Second Edition – Andre Agresti

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Product quality improvement in manufacturing using Machine Learning and Stochastic Optimization /product-quality-improvement-in-manufacturing-using-machine-learning-and-stochastic-optimization/ Tue, 13 Oct 2020 06:05:20 +0000 /?p=34895 The post Product quality improvement in manufacturing using Machine Learning and Stochastic Optimization appeared first on 91.

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The Manufacturing Industry relentlessly seeks to reduce costs without compromising quality. To do this it is imperative that production and the parameters associated with it, be mathematically understood and controlled. A precise understanding allows manufacturers to use intelligent recommendations for improvement on a continuous basis and realize cost savings, improve quality and unlock several other benefits. An engagement with a paper/paper board manufacturer, where 91 was required to reduce the cost of manufacturing while maintaining quality and customer acceptance parameters, resulted in the reduction of raw materials (pulp) used. The engagement also provided clear insight on operational parameters influencing paper quality. The interventions and outcomes could apply to several other manufacturing processes across industries.

Resolution

Paperis produced by pressing together moistfibersofcellulosepulp derived fromwood,ragsorgrasses, and drying them into flexible sheets. It is a versatile material with many uses includingwriting,printing, packaging,cleaning, decorating, and a number of industrial and construction processes. It is characterized by properties like caliper (thickness in µm), GSM (grams per square meter) and moisture content (%) which determine properties like stiffness (ability for a sheet ofpaperto resist bending), bulk (weight per unit volume), tensile strength (maximum stress to break a paper sheet), edge wick (water absorption at the edge) and many others. 91 established the statistical relationship between moisture content and operational parameters using regression model. Once established and validated, the model parameters operating limits to achieve a specific range of moisture was arrived at by Stochastic Optimization algorithms. These algorithms were implemented during the production process.

Approach and Solution

The methodology used can be broadly summarized as business understanding of the production process, data understanding, data pre-processing, data quality checks, data munging and analytical dataset preparation, model development and validation, and model parameter optimization. The objective of the customer engagement was to identify the optimal operating ranges of operational parameters significantly impacting end product moisture content, thus enabling the end users to save on multiple costs.

Reel Moisture was modelled as the dependent variable whose behavior would be explained by several sensors capturing real time information on differential steam pressure, stock flow and machine speed (to name a few of the parameters). For each paper grade, various models were developed viz. Multiple Linear Regression, Multivariate Adaptive Regression Splines, Generalized Additive Model, Neural Networks and Support Vector Machines. These established the mathematical relationship between Reel Moisture and Sensor Variables.

Once a particular model was finalized for a given product, the operational parameters that had a significant influence on the end product, the operational ranges, i.e. the range in which the particular operating parameter needs to be maintained to realize a desired percentage of Moisture Content consistently, were determined using Stochastic Optimization through genetic algorithm. For a given desired range of output of Moisture Content percent, the corresponding ranges for the operational parameters was determined iteratively. These mathematically arrived ranges of the controlling variables were then implemented on a real time basis on the paper machine and the outcome was found to be in consensus with the expected range of Moisture Content percent.

Paper manufacturing machines and associated processes

Paper manufacturing machines and associated processes
Implications

The impact of operational parameters on the moisture in the end product was statistically proven and the operational ranges prescribed had a profound impact in restricting/controlling the moisture percentage in the pre-defined range. The cost savings realized by the business in terms of reduction in steam consumption and material saved (pulp) had been proven in the trial phase. The business continues to use the recommendations, and this is a testimony to the efficacy of the solution.

Moisture Content Percentage model development process and control equation for the recommendation of operating limits of the sensors

Moisture Content Percentage model development process and control equation for the recommendation of operating limits of the sensors

Savings resulting from the implementation

The recommended control limits of the relevant sensor variables, when implemented in a single machine producing 5 different paper grades covering 70% of total production, was able to save approximately $0.85M in one year. An extrapolation of the savings across all the plants and machines would amount to a significant saving.

Future direction

A straightforward extension of our solution is to achieve a “Golden Batch” production state—a state where the production process is capable of generating consistent end products with respect to all the essential/critical quality parameters. In this case the parameters would be GSM, Caliper and Stiffness apart from Moisture Content. To achieve this, controlling the equation for each critical metric to be mathematically modelled as a function of different sensor variables along with the study of interdependence structure of the set of critical quality variables is necessary. Once this is done, a multi-variate Stochastic Optimization setup would generate the vector of recommended operable control limits for sensors to achieve a near Golden Batch state.

The solution is generic enough to be considered for any production process, not only limited to Paper and Paperboard Manufacturing. Among the many other useful applications, one would be to model defects in production run to minimize Cost of Poor Quality. This would be applicable across industries.


Author:

Anindya Neogi
GM, Chief Data Scientist, Digital Experience

Nikhil Dodecha
Senior Principal Consultant, Business Consulting Group

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Digital Next Banks with AI/ML powered Platforms of Intelligence /digital-next-banks-with-ai-ml-powered-platforms-of-intelligence/ Thu, 01 Oct 2020 10:41:55 +0000 /?p=34444 Banks today have access to the vast amount of customer, product, and operational data. The data is from internal and external sources that include streaming real-time data from sensors, devices, […]

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Banks today have access to the vast amount of customer, product, and operational data. The data is from internal and external sources that include streaming real-time data from sensors, devices, mobile apps, IoT and enterprise data centers. Banks are also struggling with the usage of unstructured data such as comments, complaints, emails, etc. besides the structured data lying archived. As the volume, variety, and velocity of the data continue to increase, banks need to find new and better ways to harness the insights hiding in their data to deliver more value to their customers, seize new opportunities and respond effectively to continuous disruptions. Digital next banks are making significant investments in emerging technologies to modernize infrastructure & data engineering and personalization of customer services through the use of Artificial Intelligence/Machine Learning (AI/ML)-based insights. This investment becomes a critical success factor in increasing a bank’s market share. Restructuring traditional products, upgrading legacy infrastructure and optimizing processes to make them simple and efficient add to the success.

Platform-enabled transformations

The banking industry is data-intensive with typically massive sets of unused and unappreciated data. New models of platform-based data mining and advanced analytics techniques can leverage the data, equipping digital next banks to target the right customers for acquisition/upgrade, reduce churn, manage market uncertainty, minimize fraud and control risk exposure.

91’s Banking Intelligence Platform is an end-to-end integrated AI, Data Science and Analytics platform that ingests manages and analyzes large amounts of data. It uncovers hidden patterns, correlations and deeper insights to innovatively visualize results for better decision making. It is a combination of leading technologies on the cloud with AI/ML capabilities, Natural Language Processing, Real-time Data Processing, Predictive Customer Touchpoints, Customer Relationship Management, Loyalty Management, Governance, Risk & Compliance and Advanced Analytical Models.

The platform, with its predictive customer touchpoints (like AI-powered chatbots), can be used to personalize product recommendations based on parameters such as customer account balances, transaction history, demographics, customer behavior etc. In addition, the platform uses Intelligent Virtual Assistants, that can be integrated across web pages as well as mobile applications, to make routine customer services fast and accurate and thereby enhance the overall customer experience.

Banking Intelligence Platform
Banking Intelligence Platform

Customer life cycle management is increasingly moving towards the cloud which integrates various functions and provides a 360-degree view of customer financials, including channel transactions, account opening and closing, default, fraud and customer attrition. Contact & Lead Management and Loan/Deposit Workflows are going completely paperless and contactless without the need for customers to visit branches. Advanced Analytics is providing customers with instant information on products along with pricing recommendations/optimization. It also provides the bank the vital ability to cross-sell/up-sell, create customer churn predictions and improve performance.

New trends like incentivizing retail customers for deposit/loan referrals are picking up. Various personalized offers and promotions are being made to customers through the use of Loyalty Points. Mobile Apps are being developed for Loyalty Management and Loyalty Points Redemption. Offer Management, Campaign Planning and Audience Management are integrated with Cloud-Based Architectures.

Social media and sentiment analysis provide actionable insights and quantifiable predictions about customer behavior. It also assesses brand awareness and can measure the success/failure of campaigns. Unstructured data analytics incorporates information from online discussion forums, social networks and call scripts to determine customer sentiment or market opportunities.

Insights about customer behaviors like shopping patterns, lifestyle, eating habits, credit history, spending habits etc. can be uncovered through multivariate descriptive analytics, as well as through predictive analytics. It can help improve a bank’s ability to segment, target, acquire and retain customers. Additionally, improvements in risk management and understanding the customers enable digital next banks to maintain and grow a more profitable customer base.

Risk analytics for credit risks, market risks and operational risks such as digital credit assessment, advanced early-warning systems, next-generation stress testing, credit-collection analytics etc., are performed by applying risk indicators to large datasets to detect risks that would otherwise remain hidden.

  • Natural-language analytics are used to understand questions, context and semantics and analyze terabytes of data to identify and rank likely answers
  • Algorithms are created to measure their own accuracy and feed that information back into the model to create self-improving predictive analysis
  • Real-time analysis of data sources, such as financial markets, stock exchanges, or news is performed to gain risk insights

 

Leading use cases for banks

Leading use cases for banks

 

Kick-starting an effective use case

Implementing platforms of intelligence across the bank can be a daunting and potentially expensive prospect due to:

  • Complex, heterogeneous technology architectures
  • Operationally optimized but siloed processes and systems
  • Data fragmented across multiple databases
  • Constrained investment budgets with competing agendas
  • Lack of skilled resources
  • Perception that the available data lacks the quality to support analysis

All of these are genuine obstacles. However, it should not be assumed that analytical insight cannot be extracted until all the obstacles have been overcome. That road leads either to major programs striving to create perfect data that can answer any question or to an acceptance that any such effort is futile. Organizations do not necessarily have to solve all these issues to initiate an intelligent platform project and put it on the path to success.

A more pragmatic approach starts with selecting a critical question or objective, identifying the necessary data and recognizing that the data is not perfect. This allows the business to derive answers and information correlations with a corresponding confidence level. This approach does not replace the strategic architecture investment required to reach accuracy, but it provides a framework for business owners to control the level of their expenditures in a way that is proportionate to the benefit unlocked.

AI/ML based platforms of intelligence is the way forward for digital next banks across the world which can transform how banks analyze data, breaking down siloed decision making and improving overall customer experience. It can enable banks to respond quickly to disruption, propel the business forward and outmaneuver competitors in the market.


Author:

Abhiram Shankara
Lead Consultant, DATA

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