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Showing posts with label data analytics. Show all posts
Showing posts with label data analytics. Show all posts

Friday, July 14, 2017

Pharma turns to big data to gauge care and pricing 07-13





From astrophysicists to entrepreneurs, technology leads drug makers to seek new skills.

After many years building successful technology businesses, Jeremy Sohn never imagined that at 43 he would find himself on the payroll of a big pharmaceutical company. But 18 months ago he was appointed global head of digital business development and licensing at Swiss drug maker Novartis.

His appointment is evidence of how an industry, slow to respond to the disruption of digitisation, is grasping its importance as it confronts pricing pressures, ever-vaster quantities of patient data and more empowered consumers. Digitisation is changing the way pharma interacts with payers, doctors and patients, leading drugmakers to seek out different skills and personality traits in employees.

Germany’s Merck last year appointed 30-year-old James Kugler as its first chief digital officer, with a degree in biomedical engineering and a tech background. Boehringer Ingelheim, Europe’s biggest private drugmaker, hired Simone Menne as chief financial officer from airline Lufthansa. She is in charge of a new digital “lab”, recruiting data specialists and software developers.

Mr Sohn, whose role at Novartis includes overseeing venture capital investments in technology companies — a growing trend in Big Pharma — says that working alongside highly qualified scientists, he “typically feels like the dumbest person in any meeting”. However, he and other external recruits have brought mindsets that are helping the group evolve from a pure science company into “a data [and] technology company”, he adds.According to Steven Baert, head of human resources, Novartis is starting to reap considerable benefits from digital investments, particularly in the speed and efficiency with which it can test medicines. 




He says: “We’re already seeing how real-time data capture can help analyse patient populations and demographics, to make it easier to recruit patients for clinical trials, and how real-time data-capture devices, like connected sensors and patient engagement apps, are helping to create remote clinical trials that aren’t site-dependent.”In the past five years, these changes have been visible in Novartis’s workforce.

While staffing overall has risen by just over 20 per cent, the salesforce — the traditional bedrock of pharma companies, and their combined $1tn in global revenues — has increased by just 13 per cent. At the same time the number employed in “market access” — negotiating prices with payers, whether governments or insurers — has risen up to five times faster than the average growth rate and now stands at 1,100. 

Novartis employs more than 1,200 dual-qualified mathematicians and engineers to analyse big data sets and calculate the value of new drugs — for instance, their potential to reduce hospitalisations and so cut costs. As recently as six years ago, not a single one was on the payroll. Behind these changes lie two key shifts. The first is the determination of cash-constrained global health systems to secure better value from the drugs they buy.

The second is the advance of digital technology, which is increasingly playing a role in how patients manage their conditions and companies communicate the benefits of their medicines to doctors. GlaxoSmithKline, for example, employs more than 50 people to run webinars with physicians — a “multichannel media team” that did not exist five years ago.The UK drugmaker has begun hiring astrophysicists to work in research and development, keen to deploy their ability to visualise huge data sets.

The company says these qualities are specially important as it seeks to use artificial intelligence to help spot patterns and connections amid a mass of information. At Boehringer, senior executives say that this level of disruption calls for agility and entrepreneurialism in employees — which in some cases may be better found outside the life sciences sector.

Andreas Neumann, head of HR, explains that, although new CFO Ms Menne had “no clue” about pharma, she had worked in a sector that had faced substantial upheaval. “She has significant experience in an industry which is under tremendous cost pressure and has gone through a tremendous amount of change. And you can learn from that experience, as a company.”US-based Pfizer last year recognised this new landscape by establishing a division to bring together health economists; researchers measuring the outcomes produced by different medicines; and market access specialists.

Previously these groups had been spread throughout the organisation.Andy Schmeltz, who heads the division, gives the example of Eliquis, an anticoagulant produced with Bristol-Myers Squibb. Data analysts processed “real world” evidence — derived from patients going about their normal lives, rather than taking part in a carefully managed trial — that suggested it was more cost effective than the long-established anticoagulant, Warfarin.

 Underpinning this work is a massive repository of data, from sources such as electronic medical records, that covers “over 300m lives”, says Mr Schmeltz. This, he says, “enables us to query the database and generate insights, even when we’re just trying to figure out the design of a trial and the feasibility of recruitment; are there enough patients out there that meet certain entry criteria? It enables us to make better decisions on clinical trial development. It also enables us to model different outcomes across different diseases.”

At Merck, chief executive Stefan Oschmann enthuses about its new breed of digitally savvy employee, led by “forward-thinking” Mr Kugler. “We’re working on stuff like the connected lab,” he says, “a laboratory where everything, every container, every machine, every pipette, is smart and connected and captures data automatically . . . So we [employ] a very different type of people these days.”

While the project is still in the planning stages, when complete it will allow staff to manage inventory and research across multiple labs and share findings more readily, as well as making it easier to access safety and regulatory compliance data. The pharma industry still has a considerable way to go before it exploits digital technology as successfully and automatically as many other sectors. A recent report by McKinsey, the global consultancy, assessed “digital maturity” under a range of categories including strategy and customer focus. Only the public sector, an infamous digital laggard, came out worse.





 Stefan Biesdorf, who leads McKinsey’s digital pharma and medical technology work in Europe, says: “While virtually every pharma company has either worked on its digital strategy or made plans about how to address the topic, compared with other industries pharma . . . still has a lot to do.” 

One analyst describes some big pharma companies as “schizophrenic” about how to respond to digital advances, aware they needed to act but unsure how much investment to divert from their core mission of drug discovery. Alyse Forcellina, leader of the Americas healthcare practice at executive recruitment consultancy Egon Zehnder, says Big Pharma needs outsiders because “nobody in pharma is excellent at digital”.

She warns, however, of the risk of “organ rejection” of new recruits who, for instance, may not understand that “many things are illegal or just not possible” in pharma, such as direct approaches to patients.Mr Baert of Novartis acknowledges there is also a danger that companies will hire the right people but fail to foster the internal culture required to take advantage of their expertise. However, he cites as a warning the example of Kodak, which was at the forefront of discovering digital technology but failed to accelerate the shift to a new business model.At Boehringer, Mr Neumann acknowledges the process is not always smooth. But he is in no doubt about the potential gains if companies can create an environment in which diversity of background is seen as an advantage, not a threat.

He says: “If you hire someone who is disruptive because you want disruption, you get what you have hired, right?”

Force driving salesAs pharma companies reshape their workforces for an evolving economic and regulatory climate, how far and how fast can the changes go?Some say it is possible to exaggerate the extent of the overhaul. Jo Walton, a pharma analyst at Credit Suisse, argues that the notion drugmakers will be able to dispense with sales forces altogether is unrealistic.She says: “If you think how many new drugs are developed after a doctor leaves university and medical school, clearly doctors require some form of continuing medical education.”

The most effective way for pharma groups to show the merits of their medicines is still by handing them out in doctors’ offices: “Putting a drug in a samples cabinet still requires someone to be in there,” she points out.Although the role of data analytics and health economics in demonstrating the value of drugs has grown, Steven Baert, head of HR at Novartis, acknowledges that “we’re not yet in a world where one can bring a product to patients without a sales force calling on physicians, which means that you need both today”.

However, as insurers and governments increasingly develop ways of pricing drugs according to the outcome they produce, an even more radical shake-up of the traditional pharma workforce is in prospect.Mr Baert says that matters are “moving in that direction [towards outcomes-based pricing], but it’s not yet a reality in one country, or in one disease area, or in one market”. “Do I expect that in five years the world will be completely different?,” he says. 

“No, not yet. Do I expect that in 20 years we will see a very different picture? Absolutely.”





Tuesday, May 30, 2017

Data science: teaming skills to harness insights faster 05-30



What skills determine success or failure for the new leaders of this age: data science teams? 



Data is the currency of the new millennium. But distilling and simplifying that data to gain real insight requires an increasingly complex skill set and equally sophisticated tools. Gartner researcher Peter Sondergaard sums up the power of data analysis in the context of other notable innovations in history stating, “Information is the oil of the 21st century, and analytics is the combustion engine.”
If you break down the origins of data, you’ll find that 20 percent of the world’s data is public, while the other 80 percent is proprietary. But, like any powerful tool, it needs a lead or guiding light, and data scientists have quickly risen to this challenge with developers and data engineers as their collaborators. These groups join virtually and physically to learn, curate, build and deploy analytic solutions to help extract insights from their vast data stores. This new cross functional collaboration has helped the data unit function as one, elevating the role of the data science team within the larger enterprise.

As organizations become increasingly data-driven and the influence of the data scientist skyrockets, what are the soft skills that determine success or failure for the new A-Team?



  • Creativity and imagination: The best data science teams are patient, persistent and focused. They understand how data pipelines function and are able to identify alternate solutions if something goes awry. The members of a data science team also love to learn, and their curiosity helps them come up with unexpected fixes to problems. When the different roles in a data science team come together, the result is a combined knowledge of numerous types of data sets and different programming languages.

  • Rigor and discipline: Data science teams manage enormous amounts of data every day. A good understanding of procedures and standards is crucial to stay on top of it all. When each member of the data science team is clear on best practices, the data management process is streamlined, therefore making life easier for those who rely on data to do their jobs. With a firm grasp on algorithms, code and how it benefits the infrastructure, data science teams have exponential power within their organizations.

  • Business acumen: Data science teams are the foundation of any data-driven organization. As such, they need to have a holistic view into how the business operates and what problems the company is looking to solve. A successful data science team has this information at their fingertips so they know how the data will ultimately be used to propel the organization towards the larger organization’s goals.
Once the data science team is built with these traits and proper guidelines are in place, a technological infrastructure with flexibility at its core must be created. Today’s organizations store data on a combination of public cloud, private cloud and on-premise hardware. Data science teams must be able to consistently manage data no matter where it is stored. In addition, because every industry has its own unique processes and compliance standards that data science tools must incorporate, the platforms themselves should be easily customizable.

Consider an actual example from IBM, NASA and the SETI Institute. These organizations are working together to analyze more than six terabytes of complex deep space radio signals to hunt for patterns that might identify the presence of intelligent extraterrestrial life. With the proper tools—IBM Analytics on Apache Spark, part of the Data Science Experience—SETI has been able to embark on its Stellar Pair Eavesdropping campaign, which enables the organization to look for potential communications between planets that might be orbiting in double star systems. More than half of all stars are, in fact, these types of planets. By extracting new features from millions of observations, researchers are able to use machine-learning techniques to classify signals and sharpen their focus for subsequent deep analysis on clusters of signals which are anomalous or outliers.

Without high-performing data science professionals and the right collaboration tools, organizations like SETI would not be able to handle and ultimately realize the full potential of their data. Just as an artist requires different tools for different creations, a data scientist needs a palette of capabilities to resolve the different problems they need to solve. IBM’s data science environment offers the most advanced analytics, open source technology and integrated development community, all built to encourage creativity and collaboration.


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Sunday, April 9, 2017

Understanding Machine Learning 04-08


What exactly is machine learning?
The simplest definition I came across:
Machine learning is “[…] the branch of AI that explores ways to get computers to improve their performance based on experience”.

Source: Berkeley
Let’s break that down to set some foundations on which to build our machine learning knowledge.
Branch of AI: Artificial intelligence is the study and development by which a computer and its systems are given the ability to successfully accomplish tasks that would typically require a human’s intelligent behavior. Machine learning is a part of that process. It’s the technology and process by which we train the computer to accomplish the said task.

Explores ways: Machine learning techniques are still emerging. Some models for training a computer are already recognized and used (as we will see below), but it is expected that more will be developed with time. The idea to be remembered here is that different models can be used when training a computer. Different business problems require different models.

Get computers to improve their performance: For a computer to accomplish a task with AI, it needs practice and adaptation. A machine learning model needs to be trained using data and in most cases, a little human help.

Based on experience: providing an AI with experience is another way of saying – to provide it with data. As more data is fed into the system, the more accurately the computer can respond to it and to future data that it will encounter. More accuracy in understanding the data means a better chance to successfully accomplish its given task or to increase its degree of confidence when providing predictive insight.

Quick example:

Entry data is chosen and prepared along with input conditions (e.g. credit card transactions).

The machine learning algorithm is built and trained to accomplish a specific task (e.g.detect fraudulent transactions).

The training data is augmented with the desired output information (e.g. these transactions appear fraudulent, these do not).






How Does Machine Learning Work?

Machine learning is often referred to as magical or a black box:
Insert data → magic black box→ Mission accomplished.

Let’s take a look at the training process itself to better understand how machine learning can create value with data.

Collect: Machine learning is dependent on data. The first step is to make sure you have the right data as dictated by the problem you are trying to solve. Consider your ability to collect it, its source, the required format, and so on.

Clean: Data can be generated by different sources, contained in different file formats, and expressed in different languages. It might be required to add or remove information from your data set, as some instances might be missing information while others might contain undesired or irrelevant entries. Its preparation will impact its usability and the reliability of the outcome. 

Split: Depending on the size of your data set, only a portion might be required. This is usually referred to as sampling. From the chosen sample, your data should be split into two groups: one to train the algorithm and the other to evaluate it.

Train: This stage essentially aims at finding the mathematical function that will accurately accomplish the chosen goal. Training takes on different forms depending on the type of model used. Fitting a line in a simple linear regression model can be seen as training; generating the decision trees for a Random Forest Algorithm is also training; changing the questions in a decision tree is effectively adjusting the parameters of the model.To keep things simple, let’s focus on neural networks. Basically, using a portion of your data set, the algorithm will attempt to process the data, measure its own performance and auto-adjust its parameters (also called backpropagation) until it can consistently produce the desired outcome with sufficient reliability.
Evaluate: Once the algorithm performs well on the training data, its performance is measured again with data that it has not yet seen. Additional adjustments are made when needed. This process allows you to prevent overfitting, which happens when the learning algorithm performs well but only with your training data.

Optimize: The model is optimized for integration within the destined application to ensure it is as lightweight and as fast as possible.

Are There Different Types of Machine Learning?


There are many different models that can be used in machine learning but they are typically grouped into three different types of learning: supervised, unsupervised, and reinforcement. Depending on the task to complete, some models are more appropriate and better performing than others.

Supervised learning: in this type of learning, the correct outcome for each data point is explicitly labeled when training the model. This means the learning algorithm is already given the answer when reading the data. Rather than finding the answer, it aims to find the relationship so that when unassigned data points are introduced, it can correctly classify or predict them.





In a classification context, the learning algorithm could be, for example, fed with historic credit card transactions each labeled as safe or suspicious. It would learn the relationship between these two classifications and could then label new transactions appropriately, according to the classification parameters (e.g. purchase location, time between transactions, etc.).




In a context where data points are continuous in relation to one another, like a stock’s price through time, a regression learning algorithm can be used to predict the following data point.






Unsupervised learning: In this case, the learning algorithm is not given the answer during training. Its objective is to find meaningful relationships between the data points. Its value lies in discovering patterns and correlations. For example, clustering is a common use of unsupervised learning in recommender systems (e.g. people who liked this bottle of wine, also enjoyed this one). 







Reinforcement learning: this type of learning is a blend between supervised and unsupervised learning. It is usually used to solve more complex problems and requires interaction with an environment. Data is provided by the environment and allows the agent to respond and learn. In practice, this ranges from controlling robotic arms to find the most efficient motor combination, to robot navigation where collision avoidance behavior can be learned by negative feedback from bumping into obstacles. Logic games are also well-suited to reinforcement learning, as they are traditionally defined as a sequence of decisions: games such as poker, backgammon and more recently Go with the success of AlphaGo from Google. Other applications of reinforcement learning are common in logistics, scheduling, and tactical planning of tasks.

What Can Machine Learning Be Used For?

Three stages of machine learning development and their application within a business are to be considered: descriptive, predictive, and prescriptive.

The descriptive stage refers to the recording and analysis of historical data for increased business intelligence. Managers are provided with descriptive information and a better understanding of the results and consequences of past actions and decisions. This process is now routine for most large businesses around the world- for example, reviewing sales records and matching promotional efforts to understand their impact and ROI.

The second stage of applied machine learning is prediction. Gathering data and using it to predict a specific outcome allows for increased reactivity and to make decisions faster and with more accuracy. For example, predicting churn can allow for its prevention. This stage of application is currently being embraced by most businesses.

Yet, the third and most advanced stage of machine learning is already being adopted by existing businesses and pushed forward by newly founded endeavors. Predicting a behavior or outcome is not sufficient when aiming for effective and efficient business practices. Understanding the cause, motive, and context is a prerequisite to optimal decision-making. Concretely, this stage is possible when human and machine combine efforts. Machine learning is used to find meaningful relations and to predict outcomes while data experts serve as translators to make sense of why the relation exists. As such, it becomes possible to prescribe actions with greater precision.

Furthermore, I would add another application of machine learning other than predictive insight: process automation.

Here are some examples of what problems machine learning can solve.

Logistics and production
  • Rethink Robotics uses machine learning to train their robotic arms and improve production speeds;
  • JaybridgeRobotics automates industrial grade vehicles for more efficient operations;
  • Nanotronics automates optical microscopes for improved inspections;
  • Netflix and Amazon optimize resource distribution according to user demand;
  • Other examples include: predicting ERP/ERM needs; predicting asset failure & maintenance, improving quality assurance, and increasing production line performance.
Sales and marketing
  • 6sense predicts which lead is more susceptible to buy and at what time;
  • Salesforce Einstein helps anticipate sales opportunities and automate tasks;
  • Fusemachines automates sales tasks with an AI assistant;
  • AirPR provides insight to increase PR performance;
  • Retention Science suggests cross-channel actions to drive engagement;
  • Other examples include: predicting a customer’s lifetime value, increasing customer segmentation accuracy, detecting customer shopping patterns, and optimizing a user’s in-app experience.
Human resources
  • Entelo helps recruiters identify and qualify candidates;
  • hiQ assists managers with talent management.
Finance
  • Cerebellum Capital and Sentient augment investment management decisions with machine learning powered software;
  • Dataminr can assist with real-time financial decisions by providing early alerts on social trends and breaking news;
  • Other examples include: detecting fraudulent behavior and predicting stock prices.
Healthcare
  • Atomwise uses predictive models to reduce medicine production time;
  • Deep6 Analytics identifies eligible patients for clinical trials
  • Other examples include: diagnosing diseases more accurately, improving personalized care, and assessing health risks. 

Monday, March 20, 2017

What’s Your Data Worth? 03-20


Many businesses don’t yet know the answer to that question. But going forward, companies will need to develop greater expertise at valuing their data assets.































Image credit : Shyam's Imagination Library


In 2016, Microsoft Corp. acquired the online professional network LinkedIn Corp. for $26.2 billion. Why did Microsoft consider LinkedIn to be so valuable? And how much of the price paid was for LinkedIn’s user data — as opposed to its other assets? Globally, LinkedIn had 433 million registered users and approximately 100 million active users per month prior to the acquisition. Simple arithmetic tells us that Microsoft paid about $260 per monthly active user.

Did Microsoft pay a reasonable price for the LinkedIn user data? Microsoft must have thought so — and LinkedIn agreed. But the deal generated scrutiny from the rating agency Moody’s Investors Service Inc., which conducted a review of Microsoft’s credit rating after the deal was announced. What can be learned from the Microsoft–LinkedIn transaction about the valuation of user data? How can we determine if Microsoft — or any acquirer — paid a reasonable price?

The answers to these questions are not clear. But the subject is growing increasingly relevant as companies collect and analyze ever more data. Indeed, the multibillion-dollar deal between Microsoft and LinkedIn is just one recent example of data valuation coming to the fore. Another example occurred during the Chapter 11 bankruptcy proceedings of Caesars Entertainment Operating Corp.

Inc., a subsidiary of the casino gaming company Caesars Entertainment Corp. One area of conflict was the data in Caesars’ Total Rewards customer loyalty program; some creditors argued that the Total Rewards program data was worth $1 billion, making it, according to a Wall Street Journal article, “the most valuable asset in the bitter bankruptcy feud at Caesars Entertainment Corp.” A 2016 report by a bankruptcy court examiner on the case noted instances where sold-off Caesars properties — having lost access to the customer analytics in the Total Rewards database — suffered a decline in earnings. But the report also observed that it might be difficult to sell the Total Rewards system to incorporate it into another company’s loyalty program. Although the Total Rewards system was Caesars’ most valuable asset, its value to an outside party was an open question.

As these examples illustrate, there is no formula for placing a precise price tag on data. But in both of these cases, there were parties who believed the data to be worth hundreds of millions of dollars.

Exploring Data Valuation

To research data valuation, we conducted interviews and collected secondary data on information activities in 36 companies and nonprofit organizations in North America and Europe. Most had annual revenues greater than $1 billion. They represented a wide range of industry sectors, including retail, health care, entertainment, manufacturing, transportation, and government.

Although our focus was on data value, we found that most of the organizations in our study were focused instead on the challenges of storing, protecting, accessing, and analyzing massive amounts of data — efforts for which the information technology (IT) function is primarily responsible.

While the IT functions were highly effective in storing and protecting data, they alone cannot make the key decisions that transform data into business value. Our study lens, therefore, quickly expanded to include chief financial and marketing officers and, in the case of regulatory compliance, legal officers. Because the majority of the companies in our study did not have formal data valuation practices, we adjusted our methodology to focus on significant business events triggering the need for data valuation, such as mergers and acquisitions, bankruptcy filings, or acquisitions and sales of data assets. Rather than studying data value in the abstract, we looked at events that triggered the need for such valuation and that could be compared across organizations.
We define data value as the composite of three sources of value: (1) the asset, or stock, value; (2) the activity value; and (3) the expected, or future, value.
All the companies we studied were awash in data, and the volume of their stored data was growing on average by 40% per year. We expected this explosion of data would place pressure on management to know which data was most valuable. However, the majority of companies reported they had no formal data valuation policies in place. A few identified classification efforts that included value assessments. These efforts were time-consuming and complex. For example, one large financial group had a team working on a significant data classification effort that included the categories “critical,” “important,” and “other.” Data was categorized as “other” when the value was judged to be context-specific. The team’s goal was to classify hundreds of terabytes of data; after nine months, they had worked through less than 20.

The difficulty that this particular financial group encountered is typical. Valuing data can be complex and highly context-dependent. Value may be based on multiple attributes, including usage type and frequency, content, age, author, history, reputation, creation cost, revenue potential, security requirements, and legal importance. Data value may change over time in response to new priorities, litigation, or regulations. These factors are all relevant and difficult to quantify.

A Framework for Valuing Data

How, then, should companies formalize data valuation practices? Based on our research, we define data value as the composite of three sources of value: (1) the asset, or stock, value; (2) the activity value; and (3) the expected, or future, value. Here’s a breakdown of each value source:

1. Data as Strategic Asset

For most companies, monetizing data assets means looking at the value of customer data. This is not a new concept; the idea of monetizing customer data is as old as grocery store loyalty cards. Customer data can generate monetary value directly (when the data is sold, traded, or acquired) or indirectly (when a new product or service leveraging customer data is created, but the data itself is not sold). Companies can also combine publicly available and proprietary data to create unique data sets for sale or use.

How big is the market opportunity for data monetization? In a word: big. The Strategy& unit of PwC has estimated that, in the financial sector alone, the revenue from commercializing data will grow to $300 billion per year by 2018.

2. The Value of Data in Use

Data use is typically defined by the application — such as a customer relationship management system or general ledger — and frequency of use. The frequency of use is typically defined by the application workload, the transaction rate, and the frequency of data access.

The frequency of data usage brings up an interesting aspect of data value. Conventional, tangible assets generally exhibit decreasing returns to use. That is, they decrease in value the more they are used. But data has the potential — not always, but often — to increase in value the more it is used. That is, data viewed as an asset can exhibit increasing returns to use. For example, Google Inc.’s Waze navigation and traffic application integrates real-time crowdsourced data from drivers, so the Waze mapping data becomes more valuable as more people use it.

The major costs of data are in its capture, storage, and maintenance. The marginal costs of using it can be almost negligible. An additional factor is time of use: The right data at the right time — for example, transaction data collected during the Christmas retail sales season — may be of very high value.

Of course, usage-based definitions of value are two-sided; the value attached to each side of the activity is unlikely to be the same. For example, for a traveler lost in an unfamiliar city, mapping data sent to the traveler’s cellphone may be of very high value for one use, but the traveler may never need that exact data again. On the other hand, the data provider may keep the data for other purposes — and use it over and over again — for a very long time.

3. The Expected Future Value of Data

Although the phrases “digital assets” or “data assets” are commonly used, there is no generally accepted definition of how these assets should be counted on balance sheets. In fact, if data assets are tracked and accounted for at all — a big “if” — they are typically commingled with other intangible assets, such as trademarks, patents, copyrights, and goodwill. There are a number of approaches to valuing intangible assets. For example, intangible assets can be valued on the basis of observable market-based transactions involving similar assets; on the income they produce or cash flow they generate through savings; or on the cost incurred to develop or replace them.
Making implicit data policies explicit, codified, and sharable across the company is a first step in prioritizing data value.

What Can Companies Do?

No matter which path a company chooses to embed data valuation into company-wide strategies, our research uncovered three practical steps that all companies can take.

1. Make valuation policies explicit and sharable across the company. It is critical to develop company-wide policies in this area. For example, is your company creating a data catalog so that all data assets are known? Are you tracking the usage of data assets, much like a company tracks the mileage on the cars or trucks it owns? Making implicit data policies explicit, codified, and sharable across the company is a first step in prioritizing data value.

A few companies in our sample were beginning to manually classify selected data sets by value. In one case, the triggering event was an internal security audit to assess data risk. In another, the triggering event was a desire to assess where in the organization the volume of data was growing rapidly and to examine closely the costs and value of that growth.

The strongest business case we found for data valuation was in the acquisition, sale, or divestiture of business units with significant data assets. We anticipate that in the future, some of the evolving responsibilities of chief data officers may include valuing company data for these purposes. But that role is too new for us to discern any aggregate trends at this time.

2. Build in-house data valuation expertise. Our study found that several companies were exploring ways to monetize data assets for sale or licensing to third parties. However, having data to sell is not the same thing as knowing how to sell it. Several of the companies relied on outside experts, rather than in-house expertise, to value their data. We anticipate this will change. Companies seeking to monetize their data assets will first need to address how to acquire and develop valuation expertise in their own organizations.

3. Decide whether top-down or bottom-up valuation processes are the most effective within the company. In the top-down approach to valuing data, companies identify their critical applications and assign a value to the data used in those applications, whether they are a mainframe transaction system, a customer relationship management system, or a product development system. Key steps include defining the main system linkages — that is, the systems that feed other systems — associating the data accessed by all linked systems, and measuring the data activity within the linked systems. This approach has the benefit of prioritizing where internal partnerships between IT and business units need to be built, if they are not already in place.

A second approach is to define data value heuristically — in effect, working up from a map of data usage across the core data sets in the company. Key steps in this approach include assessing data flows and linkages across data and applications, and producing a detailed analysis of data usage patterns. Companies may already have much of the required information in data storage devices and distributed systems.

Whichever approach is taken, the first step is to identify the business and technology events that trigger the business’s need for valuation. A needs-based approach will help senior management prioritize and drive valuation strategies, moving the company forward in monetizing the current and future value of its digital assets.

Reproduced from MITSLOAN Management Review

Monday, February 20, 2017

For the Data Freaks, who aren't Data experts. the SAP HANA express edition. 02-21



What is SAP HANA, express edition?

























SAP HANA, express edition is a streamlined version of SAP HANA that can run on laptops and other resource-constrained hosts, such as a cloud-hosted virtual machine. SAP HANA, express edition is free to use for in-memory databases up to 32GB.   



New to SAP HANA, express edition?

SAP HANA, express edition is targeted to run in resource-constrained environments and contains a rich set of capabilities for a developer to work with.



In-memory OLTP and Column Store Database Server

Eliminate disk bottlenecks and achieve groundbreaking performance with the SAP HANA in-memory database. SAP HANA is an ACID compliant database that stores compressed data in memory, in a columnar format and processes data in parallel, across multiprocessor cores and single instruction multiply data (SIMD) commands.

Bring your own language and micro-services

SAP HANA XS Advanced is delivered with the release and fully supports Apache TomEE Java and JavaScript/Node.js. XS Advanced uses a micro-services architecture based on cloud foundry.

Predictive Analytics

The Predictive Analytics Library (PAL) provides support for classic and universal predicitive analysis algorithms including:
  • Clustering
  • Classifification
  • Time Series
  • Statistics
  • And more.
PAL requires additional configuration of the base HXE server.

Geospatial

Store, process and visualize geo data within SAP HANA. You can also perform operations like distance calculations and determine union and intersection of mulitple objects. In addition, you can integrate geo-data with other structured data.




System requirements / features

SAP HANA, express edition comes as a binary installer or as a pre-configured virtual machine image (ova file). If your host runs on an SAP HANA, express edition supported operating system, you can choose either the binary installer or the ova file. Otherwise, you must use the ova file.
Operating systems supported by SAP HANA, express edition 1.0 SPS12 include:
  • SuSE Linux Enterprise for SAP Applications, 11.4, 12.0, 12.1
  • Red Hat Enterprise Linux 7.2
Operating systems supported by SAP HANA, express edition 2.0 include:
  • SuSE Linux Enterprise for SAP Applications, 12.1
SAP HANA, express edition databases are limited to 32 GB of RAM




SAP HANA, express edition diagram


This diagram shows the HANA platform services available in SAP HANA, express edition. Please review the Feature Scope document for more details.

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Saturday, January 21, 2017

How to Monetize Your Data 01-22



These days, most companies are awash in data. But figuring out how to derive a profit from the data deluge can help distinguish your company in the marketplace. 



























Image credit : Shyam's Imagination Library

The possession of rich amounts of data is hardly unique in today’s world. Indeed, data itself is increasingly a commodity. But the ability to monetize data effectively — and not simply hoard it — can be a source of competitive advantage in the digital economy.

Companies can take three approaches to monetizing their data: (1) improving internal business processes and decisions, (2) wrapping information around core products and services, and (3) selling information offerings to new and existing markets. These approaches differ significantly in the types of capabilities and commitments they require, but each represents an important opportunity for a company to distinguish itself in the marketplace.

Theoretically, companies can pursue more than one approach to data monetization at the same time. In practice, adopting each approach requires management commitment to specific organizational changes and targeted technology and data management upgrades. Thus, it’s best to identify your most promising opportunity and start there. In doing so, you will enhance your data in ways that will accelerate subsequent efforts related to the other approaches. More importantly, you’ll build your company’s capacity for monetizing its data.

Improving Internal Processes

Using data to improve operational processes and boost decision-making quality may not be the most glamorous path to monetizing data, but it is the most immediate. Executives often underestimate the financial returns that can be generated by using data to create operational efficiencies. Companies see positive results when they put data and analytics in the hands of employees who are positioned to make decisions, such as those who interact with customers, oversee product development, or run production processes. With data-based insights and clear decision rules, people can deliver more meaningful services, better assess and address customer demands, and optimize production.

When Satya Nadella became CEO of Microsoft Corp. in February 2014, he urged employees to find ways to improve the company’s processes with data. Within sales, executives believed that, with the right tools and systems, they could improve the productivity of their salespeople by 30%. To do so, Microsoft’s sales leaders sought to deploy tools that would help salespeople spend more of their time engaging with customers — and in more effective ways — by arming them with key computed insights such as how likely a sale is to close and when.

To deliver actionable insights, sales executives first had to define shared concepts (for example, what is meant by “a lead”). They then needed to locate data sources that could be used to calculate performance. They quickly learned that sales data was located in too many different systems to easily create a comprehensive snapshot of a salesperson’s business. Within a year, they created a new, integrated customer system that could produce 360-degree views of Microsoft’s relationships with corporate customers, including what those customers bought, what issues they encountered, and how the company engaged with them.

The new system saved 10 to 15 minutes per sales opportunity by eliminating the need for Microsoft salespeople to manually search for and prepare data. The system also helped sales executives more accurately manage their pipelines; it used predictive analytics and machine learning to compute the likelihood of a successful sales engagement based on data that the salesperson provided about an opportunity. For example, buying and deploying enterprise software is complex and often requires a partner’s involvement, so the system may calculate a higher likelihood for success when customers already have partners involved. Information about an opportunity’s likelihood of success, along with suggestions on how to advance engagements along the sales pipeline, helped salespeople prioritize their leads and act in ways most likely to achieve their goals. Over time, Microsoft salespeople learned how to forecast more accurately (for example, the accuracy of forecasts regarding global accounts has risen from 55% to 70%), which has led to better sales-pipeline data and, in turn, improved pipeline management.



Wrapping Information Around Products

Most companies have opportunities — often quite significant ones — to enrich their products, services, and customer experiences using data and analytics, a phenomenon that we call “wrapping.” Companies are wrapping their offerings with data to escape commoditization and satisfy increasingly hard-to-please customers — with the goals of generating sales increases, higher prices, and deeper customer loyalty. FedEx Corp. was an early exemplar of wrapping when it introduced online package tracking as a free service in the 1990s. Now examples abound as companies bundle reporting, alerts, and other information to add value to products ranging from credit cards to health monitors.

Wrapping is a creative exercise in which companies identify what problems their customers have and then find ways to solve those problems using data and analytics. For example, Capital One Financial Corp., a diversified bank based in McLean, Virginia, learned that many of its credit card holders are concerned about fraudulent transactions but find the task of examining every charge to be tedious. So the company helps customers identify fraud more easily and more quickly by displaying merchant logos and maps with each transaction in online statements. The visual cues jog cardholders’ memories about whether they made a purchase or not. As a result, customers are more satisfied with the credit card and more likely to use it more often.

Johnson & Johnson has discovered the value of providing pattern identification to users of its health-monitoring products, including those for diabetics. The company offers its OneTouch Verio Sync Meter customers historical reporting on their blood glucose levels along with tools to help them understand patterns of changes. The reporting is intended to help customers identify the possible causes for the glucose level variations and thus identify behavioral changes that can result in healthier living.

Wrapping activities are best viewed as extensions of a company’s product management processes. This means offering data and analytics to customers at the same level of quality as the core product. Doing so requires comparable levels of scrutiny and control. Most companies don’t manage and cannot deliver data and analytics in this way. In fact, exposing data to customers could reveal quality problems and a lack of analytical sophistication. Thus, in most cases, wrapping requires companies to “up their game” in their information capabilities so that wrapping doesn’t damage their reputation or undermine their value proposition. This effort may entail heavy investment in data-quality programs, advanced computing platforms (for instance, Hadoop), or data-science talent.

Selling Data

Many executives are eager to sell their company’s data, convinced that it has inherent value and can generate important new revenues for the company. We caution that selling represents the hardest way to monetize data, mainly because it requires a unique business model that most companies are not set up to execute. Yet it can be done to potentially great effect under the right circumstances.
State Street Corp. is a Boston, Massachusetts–based financial services company that reported $10.4 billion in 2015 revenue. It provides products and services to institutional investors such as mutual funds, corporate and public retirement plans, and insurance companies.

In 2013, State Street announced a new information-business division called State Street Global Exchange that would combine existing State Street data and analytics capabilities with new research to develop information-based solutions that clients would be willing to buy independently of the company’s core services. State Street established a new division for the information business in recognition of its unique business model needs — something the company had not done in 30 years.

Even though it started out as a discrete unit, State Street Global Exchange focused on developing products that were tightly associated with State Street’s core business. For example, State Street is one of the largest administrators of private equity assets, which means that it collects data about the financial capital that is not noted on a public exchange; this kind of data is of great value to markets that require an accurate representation of the private equity industry. State Street Global Exchange appreciated that the data was not automatically monetizable. Executives secured permission from 3,000 private equity clients to aggregate and anonymize that data — and then created an index that conveyed the financial performance of the private equity industry.

State Street leaders realized that they would need an entirely new operating model to support the information business. For one, sales processes had to change because, although State Street Global Exchange often sold to State Street clients, a buyer of Global Exchange products was frequently a different person or cost center than the kind of buyer traditional State Street products attract. In addition, the information business required salespeople with different selling experience and skills in selling stand-alone data and analytics-based products.

State Street understood that establishing an information business is hard and takes time. State Street Global Exchange had to learn to achieve balance between maintaining key ties with State Street (to create benefits from being a part of the larger organization) and responding quickly to new markets and new needs. Executives believe that State Street Global Exchange is gaining significant traction with its clients — and that their commitment will pay off. But we caution that such a model is not easy to replicate. Other companies should think carefully about the operational capabilities, investment, and commitment required to successfully sell data.

The Importance of Accountability

Chances are you have two major obstacles to monetizing your data. The first is the accessibility and quality of your data. Our research has found that only about a quarter of companies offer employees and customers easy access to the data they most need. You can’t monetize data no one can use.
The second obstacle is lack of accountability. All three approaches to data monetization require committed leaders who can redirect the behaviors of employees to deliver an important new value proposition.

Your inclination may be to solve the data quality issue first with big investments in new infrastructure. We propose that addressing the second issue of accountability will create urgency and commitment to addressing data quality issues — and so we recommend starting there.
Data monetization through process improvement requires strong process leaders. These leaders systematically use data to analyze the outcomes of existing processes and test hypotheses about proposed improvements. At Microsoft, for example, sales managers designated specific people to reshape and institutionalize new ways of selling. Process leaders are ultimately responsible for the design of best practices, the capture of the right data, the availability of tools, and the training of all staff regarding how to use data to do their jobs.

Data monetization through wrapping requires strong product leaders. These leaders treat the data that accompanies a core product or service much like any other product innovation — they hold it to the same quality standards. At Capital One, product leaders know the value of adding a data or analytics feature to a credit card because they predict — and then track — the lift in revenue from the information as well as the cost of providing it. Product leaders assemble teams to design experiments and methodologies that help analyze the impacts of information features and make appropriate adjustments.

Monetizing data by selling it requires a strong business-unit leader. That leader, in turn, must assemble a team that can launch and grow what is for most companies a new line of business. The head of that business will start by ensuring the value of the data and related services to potential customers. But the business head and his or her team must also design data, analytics, and dashboards to monitor the business and enable rapid response to new business opportunities.
Each of the data-monetization strategies requires new processes, new skills, and new cultures to generate maximum returns. Companies with data-monetization experience have learned that it is insufficient to simply put data and tools into the hands of employees. Microsoft refined goals, cleaned up data, honed reports and algorithms, grew talent, and changed habits. Capital One and Johnson & Johnson reshaped product-management talent, platforms, and capabilities. State Street redesigned its organization and created a new profit formula that would generate stand-alone revenues from information.

Impressive results from data monetization do not transpire from single “aha” moments. Instead, they stem from a clear data-monetization strategy, combined with investment and commitment.




Monday, December 5, 2016

Making data analytics work for you—instead of the other way around 12-06



Does your data have a purpose? If not, you’re spinning your wheels. Here’s how to discover one and then translate it into action.
          
The data-analytics revolution now under way has the potential to transform how companies organize, operate, manage talent, and create value. That’s starting to happen in a few companies—typically ones that are reaping major rewards from their data—but it’s far from the norm. There’s a simple reason: CEOs and other top executives, the only people who can drive the broader business changes needed to fully exploit advanced analytics, tend to avoid getting dragged into the esoteric “weeds.” On one level, this is understandable. The complexity of the methodologies, the increasing importance of machine learning, and the sheer scale of the data sets make it tempting for senior leaders to “leave it to the experts.”

But that’s also a mistake. Advanced data analytics is a quintessential business matter. That means the CEO and other top executives must be able to clearly articulate its purpose and then translate it into action—not just in an analytics department, but throughout the organization where the insights will be used.

This article describes eight critical elements contributing to clarity of purpose and an ability to act. We’re convinced that leaders with strong intuition about both don’t just become better equipped to “kick the tires” on their analytics efforts. They can also more capably address many of the critical and complementary top-management challenges facing them: the need to ground even the highest analytical aspirations in traditional business principles, the importance of deploying a range of tools and employing the right personnel, and the necessity of applying hard metrics and asking hard questions. All that, in turn, boosts the odds of improving corporate performance through analytics.


After all, performance—not pristine data sets, interesting patterns, or killer algorithms—is ultimately the point. Advanced data analytics is a means to an end. It’s a discriminating tool to identify, and then implement, a value-driving answer. And you’re much likelier to land on a meaningful one if you’re clear on the purpose of your data (which we address in this article’s first four principles) and the uses you’ll be putting your data to (our focus in the next four). That answer will of course look different in different companies, industries, and geographies, whose relative sophistication with advanced data analytics is all over the map. Whatever your starting point, though, the insights unleashed by analytics should be at the core of your organization’s approach to define and improve performance continually as competitive dynamics evolve. Otherwise, you’re not making advanced analytics work for you.

‘Purpose-driven’ data

“Better performance” will mean different things to different companies. And it will mean that different types of data should be isolated, aggregated, and analyzed depending upon the specific use case. Sometimes, data points are hard to find, and, certainly, not all data points are equal. But it’s the data points that help meet your specific purpose that have the most value.

Ask the right questions

The precise question your organization should ask depends on your best-informed priorities. Clarity is essential. Examples of good questions include “how can we reduce costs?” or “how can we increase revenues?” Even better are questions that drill further down: “How can we improve the productivity of each member of our team?” “How can we improve the quality of outcomes for patients?” “How can we radically speed our time to market for product development?” Think about how you can align important functions and domains with your most important use cases. Iterate through to actual business examples, and probe to where the value lies. In the real world of hard constraints on funds and time, analytic exercises rarely pay off for vaguer questions such as “what patterns do the data points show?”

One large financial company erred by embarking on just that sort of open-ended exercise: it sought to collect as much data as possible and then see what turned up. When findings emerged that were marginally interesting but monetarily insignificant, the team refocused. With strong C-suite support, it first defined a clear purpose statement aimed at reducing time in product development and then assigned a specific unit of measure to that purpose, focused on the rate of customer adoption. A sharper focus helped the company introduce successful products for two market segments. Similarly, another organization we know plunged into data analytics by first creating a “data lake.” It spent an inordinate amount of time (years, in fact) to make the data pristine but invested hardly any thought in determining what the use cases should be. Management has since begun to clarify its most pressing issues. But the world is rarely patient.

Had these organizations put the question horse before the data-collection cart, they surely would have achieved an impact sooner, even if only portions of the data were ready to be mined. For example, a prominent automotive company focused immediately on the foundational question of how to improve its profits. It then bore down to recognize that the greatest opportunity would be to decrease the development time (and with it the costs) incurred in aligning its design and engineering functions. Once the company had identified that key focus point, it proceeded to unlock deep insights from ten years of R&D history—which resulted in remarkably improved development times and, in turn, higher profits.

Think really small . . . and very big

The smallest edge can make the biggest difference. Consider the remarkable photograph below from the 1896 Olympics, taken at the starting line of the 100-meter dash. Only one of the runners, Thomas Burke, crouched in the now-standard four-point stance. The race began in the next moment, and 12 seconds later Burke took the gold; the time saved by his stance helped him do it. Today, sprinters start in this way as a matter of course—a good analogy for the business world, where rivals adopt best practices rapidly and competitive advantages are difficult to sustain.





The variety of stances among runners in the 100-meter sprint at the first modern Olympic Games, held in Athens in 1896, is surprising to the modern viewer. Thomas Burke (second from left) is the only runner in the crouched stance—considered best practice today—an advantage that helped him win one of his two gold medals at the Games.

The good news is that intelligent players can still improve their performance and spurt back into the lead. Easy fixes are unlikely, but companies can identify small points of difference to amplify and exploit. The impact of “big data” analytics is often manifested by thousands—or more—of incrementally small improvements. If an organization can atomize a single process into its smallest parts and implement advances where possible, the payoffs can be profound. And if an organization can systematically combine small improvements across bigger, multiple processes, the payoff can be exponential.

Just about everything businesses do can be broken down into component parts. GE embeds sensors in its aircraft engines to track each part of their performance in real time, allowing for quicker adjustments and greatly reducing maintenance downtime. But if that sounds like the frontier of high tech (and it is), consider consumer packaged goods. We know a leading CPG company that sought to increase margins on one of its well-known breakfast brands. It deconstructed the entire manufacturing process into sequential increments and then, with advanced analytics, scrutinized each of them to see where it could unlock value. In this case, the answer was found in the oven: adjusting the baking temperature by a tiny fraction not only made the product taste better but also made production less expensive. The proof was in the eating—and in an improved P&L.

When a series of processes can be decoupled, analyzed, and resynched together in a system that is more universe than atom, the results can be even more powerful. A large steel manufacturer used various analytics techniques to study critical stages of its business model, including demand planning and forecasting, procurement, and inventory management. In each process, it isolated critical value drivers and scaled back or eliminated previously undiscovered inefficiencies, for savings of about 5 to 10 percent. Those gains, which rested on hundreds of small improvements made possible by data analytics, proliferated when the manufacturer was able to tie its processes together and transmit information across each stage in near real time. By rationalizing an end-to-end system linking demand planning all the way through inventory management, the manufacturer realized savings approaching 50 percent—hundreds of millions of dollars in all.

Embrace taboos

Beware the phrase “garbage in, garbage out”; the mantra has become so embedded in business thinking that it sometimes prevents insights from coming to light. In reality, useful data points come in different shapes and sizes—and are often latent within the organization, in the form of free-text maintenance reports or PowerPoint presentations, among multiple examples. Too frequently, however, quantitative teams disregard inputs because the quality is poor, inconsistent, or dated and dismiss imperfect information because it doesn’t feel like “data.”

But we can achieve sharper conclusions if we make use of fuzzier stuff. In day-to-day life—when one is not creating, reading, or responding to an Excel model—even the most hard-core “quant” processes a great deal of qualitative information, much of it soft and seemingly taboo for data analytics—in a nonbinary way. We understand that there are very few sure things; we weigh probabilities, contemplate upsides, and take subtle hints into account. Think about approaching a supermarket queue, for example. Do you always go to register four? Or do you notice that, today, one worker seems more efficient, one customer seems to be holding cash instead of a credit card, one cashier does not have an assistant to help with bagging, and one shopping cart has items that will need to be weighed and wrapped separately? All this is soft “intel,” to be sure, and some of the data points are stronger than others. But you’d probably consider each of them and more when you decided where to wheel your cart. Just because line four moved fastest the last few times doesn’t mean it will move fastest today.

In fact, while hard and historical data points are valuable, they have their limits. One company we know experienced them after instituting a robust investment-approval process. Understandably mindful of squandering capital resources, management insisted that it would finance no new products without waiting for historical, provable information to support a projected ROI. Unfortunately, this rigor resulted in overly long launch periods—so long that the company kept mistiming the market. It was only after relaxing the data constraints to include softer inputs such as industry forecasts, predictions from product experts, and social-media commentary that the company was able to get a more accurate feel for current market conditions and time its product launches accordingly.
Of course, Twitter feeds are not the same as telematics. But just because information may be incomplete, based on conjecture, or notably biased does not mean that it should be treated as “garbage.” Soft information does have value. Sometimes, it may even be essential, especially when people try to “connect the dots” between more exact inputs or make a best guess for the emerging future.

To optimize available information in an intelligent, nuanced way, companies should strive to build a strong data provenance model that identifies the source of every input and scores its reliability, which may improve or degrade over time. Recording the quality of data—and the methodologies used to determine it—is not only a matter of transparency but also a form of risk management. All companies compete under uncertainty, and sometimes the data underlying a key decision may be less certain than one would like. A well-constructed provenance model can stress-test the confidence for a go/no-go decision and help management decide when to invest in improving a critical data set.

Connect the dots

Insights often live at the boundaries. Just as considering soft data can reveal new insights, combining one’s sources of information can make those insights sharper still. Too often, organizations drill down on a single data set in isolation but fail to consider what different data sets convey in conjunction. For example, HR may have thorough employee-performance data; operations, comprehensive information about specific assets; and finance, pages of backup behind a P&L. Examining each cache of information carefully is certainly useful. But additional untapped value may be nestled in the gullies among separate data sets.

One industrial company provides an instructive example. The core business used a state-of-the-art machine that could undertake multiple processes. It also cost millions of dollars per unit, and the company had bought hundreds of them—an investment of billions. The machines provided best-in-class performance data, and the company could, and did, measure how each unit functioned over time. It would not be a stretch to say that keeping the machines up and running was critical to the company’s success.

Even so, the machines required longer and more costly repairs than management had expected, and every hour of downtime affected the bottom line. Although a very capable analytics team embedded in operations sifted through the asset data meticulously, it could not find a credible cause for the breakdowns. Then, when the performance results were considered in conjunction with information provided by HR, the reason for the subpar output became clear: machines were missing their scheduled maintenance checks because the personnel responsible were absent at critical times. Payment incentives, not equipment specifications, were the real root cause. A simple fix solved the problem, but it became apparent only when different data sets were examined together.

From outputs to action

One visual that comes to mind in the case of the preceding industrial company is that of a Venn Diagram: when you look at 2 data sets side by side, a key insight becomes clear through the overlap. And when you consider 50 data sets, the insights are even more powerful—if the quest for diverse data doesn’t create overwhelming complexity that actually inhibits the use of analytics. To avoid this problem, leaders should push their organizations to take a multifaceted approach in analyzing data. If analyses are run in silos, if the outputs do not work under real-world conditions, or, perhaps worst of all, if the conclusions would work but sit unused, the analytics exercise has failed.

Run loops, not lines

Data analytics needs a purpose and a plan. But as the saying goes, “no battle plan ever survives contact with the enemy.” To that, we’d add another military insight—the OODA loop, first conceived by US colonel John Boyd: the decision cycle of observe, orient, decide, and act. Victory, Boyd posited, often resulted from the way decisions are made; the side that reacts to situations more quickly and processes new information more accurately should prevail. The decision process, in other words, is a loop or—more correctly—a dynamic series of loops (exhibit).






Best-in-class organizations adopt this approach to their competitive advantage. Google, for one, insistently makes data-focused decisions, builds consumer feedback into solutions, and rapidly iterates products that people not only use but love. A loops-not-lines approach works just as well outside of Silicon Valley. We know of a global pharmaceutical company, for instance, that tracks and monitors its data to identify key patterns, moves rapidly to intervene when data points suggest that a process may move off track, and refines its feedback loop to speed new medications through trials. And a consumer-electronics OEM moved quickly from collecting data to “doing the math” with an iterative, hypothesis-driven modeling cycle. It first created an interim data architecture, building three “insights factories” that could generate actionable recommendations for its highest-priority use cases, and then incorporated feedback in parallel. All of this enabled its early pilots to deliver quick, largely self-funding results.

Digitized data points are now speeding up feedback cycles. By using advanced algorithms and machine learning that improves with the analysis of every new input, organizations can run loops that are faster and better. But while machine learning very much has its place in any analytics tool kit, it is not the only tool to use, nor do we expect it to supplant all other analyses. We’ve mentioned circular Venn Diagrams; people more partial to three-sided shapes might prefer the term “triangulate.” But the concept is essentially the same: to arrive at a more robust answer, use a variety of analytics techniques and combine them in different ways.

In our experience, even organizations that have built state-of-the-art machine-learning algorithms and use automated looping will benefit from comparing their results against a humble univariate or multivariate analysis. The best loops, in fact, involve people and machines. A dynamic, multipronged decision process will outperform any single algorithm—no matter how advanced—by testing, iterating, and monitoring the way the quality of data improves or degrades; incorporating new data points as they become available; and making it possible to respond intelligently as events unfold.

Make your output usable—and beautiful

While the best algorithms can work wonders, they can’t speak for themselves in boardrooms. And data scientists too often fall short in articulating what they’ve done. That’s hardly surprising; companies hiring for technical roles rightly prioritize quantitative expertise over presentation skills. But mind the gap, or face the consequences. One world-class manufacturer we know employed a team that developed a brilliant algorithm for the options pricing of R&D projects. The data points were meticulously parsed, the analyses were intelligent and robust, and the answers were essentially correct. But the organization’s decision makers found the end product somewhat complicated and didn’t use it.

We’re all human after all, and appearances matter. That’s why a beautiful interface will get you a longer look than a detailed computation with an uneven personality. That’s also why the elegant, intuitive usability of products like the iPhone or the Nest thermostat is making its way into the enterprise. Analytics should be consumable, and best-in-class organizations now include designers on their core analytics teams. We’ve found that workers throughout an organization will respond better to interfaces that make key findings clear and that draw users in.

Build a multiskilled team

Drawing your users in—and tapping the capabilities of different individuals across your organization to do so—is essential. Analytics is a team sport. Decisions about which analyses to employ, what data sources to mine, and how to present the findings are matters of human judgment.

Assembling a great team is a bit like creating a gourmet delight—you need a mix of fine ingredients and a dash of passion. Key team members include data scientists, who help develop and apply complex analytical methods; engineers with skills in areas such as microservices, data integration, and distributed computing; cloud and data architects to provide technical and systemwide insights; and user-interface developers and creative designers to ensure that products are visually beautiful and intuitively useful. You also need “translators”—men and women who connect the disciplines of IT and data analytics with business decisions and management.

In our experience—and, we expect, in yours as well—the demand for people with the necessary capabilities decidedly outstrips the supply. We’ve also seen that simply throwing money at the problem by paying a premium for a cadre of new employees typically doesn’t work. What does is a combination: a few strategic hires, generally more senior people to help lead an analytics group; in some cases, strategic acquisitions or partnerships with small data-analytics service firms; and, especially, recruiting and reskilling current employees with quantitative backgrounds to join in-house analytics teams.

We’re familiar with several financial institutions and a large industrial company that pursued some version of these paths to build best-in-class advanced data-analytics groups. A key element of each organization’s success was understanding both the limits that any one individual can be expected to contribute and the potential that an engaged team with complementary talents can collectively achieve. On occasion, one can find “rainbow unicorn” employees who embody most or all of the needed capabilities. It’s a better bet, though, to build a collaborative team comprising people who collectively have all the necessary skills.

That starts, of course, with people at the “point of the spear”—those who actively parse through the data points and conduct the hard analytics. Over time, however, we expect that organizations will move to a model in which people across functions use analytics as part of their daily activities. Already, the characteristics of promising data-minded employees are not hard to see: they are curious thinkers who can focus on detail, get energized by ambiguity, display openness to diverse opinions and a willingness to iterate together to produce insights that make sense, and are committed to real-world outcomes. That last point is critical because your company is not supposed to be running some cool science experiment (however cool the analytics may be) in isolation. You and your employees are striving to discover practicable insights—and to ensure that the insights are used.

Make adoption your deliverable

Culture makes adoption possible. And from the moment your organization embarks on its analytics journey, it should be clear to everyone that math, data, and even design are not enough: the real power comes from adoption. An algorithm should not be a point solution—companies must embed analytics in the operating models of real-world processes and day-to-day work flows. Bill Klem, the legendary baseball umpire, famously said, “It ain’t nothin’ until I call it.” Data analytics ain’t nothin’ until you use it.

We’ve seen too many unfortunate instances that serve as cautionary tales—from detailed (and expensive) seismology forecasts that team foremen didn’t use to brilliant (and amazingly accurate) flight-system indicators that airplane pilots ignored. In one particularly striking case, a company we know had seemingly pulled everything together: it had a clearly defined mission to increase top-line growth, robust data sources intelligently weighted and mined, stellar analytics, and insightful conclusions on cross-selling opportunities. There was even an elegant interface in the form of pop-ups that would appear on the screen of call-center representatives, automatically triggered by voice-recognition software, to prompt certain products, based on what the customer was saying in real time. Utterly brilliant—except the representatives kept closing the pop-up windows and ignoring the prompts. Their pay depended more on getting through calls quickly and less on the number and type of products they sold.

When everyone pulls together, though, and incentives are aligned, the results can be remarkable. For example, one aerospace firm needed to evaluate a range of R&D options for its next-generation products but faced major technological, market, and regulatory challenges that made any outcome uncertain. Some technology choices seemed to offer safer bets in light of historical results, and other, high-potential opportunities appeared to be emerging but were as yet unproved. Coupled with an industry trajectory that appeared to be shifting from a product- to service-centric model, the range of potential paths and complex “pros” and “cons” required a series of dynamic—and, of course, accurate—decisions.

By framing the right questions, stress-testing the options, and, not least, communicating the trade-offs with an elegant, interactive visual model that design skills made beautiful and usable, the organization discovered that increasing investment along one R&D path would actually keep three technology options open for a longer period. This bought the company enough time to see which way the technology would evolve and avoided the worst-case outcome of being locked into a very expensive, and very wrong, choice. One executive likened the resulting flexibility to “the choice of betting on a horse at the beginning of the race or, for a premium, being able to bet on a horse halfway through the race.”

It’s not a coincidence that this happy ending concluded as the initiative had begun: with senior management’s engagement. In our experience, the best day-one indicator for a successful data-analytics program is not the quality of data at hand, or even the skill-level of personnel in house, but the commitment of company leadership. It takes a C-suite perspective to help identify key business questions, foster collaboration across functions, align incentives, and insist that insights be used. Advanced data analytics is wonderful, but your organization should not be working merely to put an advanced-analytics initiative in place. The very point, after all, is to put analytics to work for you.

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