CHAPTER 4
Supply‐Side Catalysts: Digital Technologies Alone Do Not Do the Trick

Remember, we assume that digital transformation catalysts, “like their chemical counterparts, … can amplify and accelerate [digital transformation] reactions without being consumed by them” (Briggs 2019, p. 121).

We structure them in two clusters with three elements each: a supply‐side, which will be explained in detail in this chapter, and a demand‐side plus overarching elements, which will be explained in the next chapter.

On the supply‐side we find the following catalysts:

  • Technology capabilities
  • Workforce skills
  • Abundance of funding

Digital Technology Does Not Scale Without New Skills and Funding

Our supply‐side catalysts cover all technology‐driven transformations and have one thing in common: The relation to or dependency on technology capabilities. But it is not all about technology and spending money on digital is not enough to generate value (Salviotti 2022).

We will also need to discuss other catalysts with often less emphasis but no less relevance. On the supply side, they include workforce skills plus funding mechanisms.

The good news is that no matter how unique and disruptive you think digital transformation may be, there are still commonalities among most extensively researched technology/IT/IS transformations and digital transformation. We can and should benefit from this. Still, the corresponding technology/IT/IS value concepts often do not refer to specific technologies.

They rather focus on constructs such as the following:

  1. IT investments (Devaraj and Kohli 2002; Kohli, Devaraj, and Ow 2012; Muhanna and Stoel 2010; Sircar, Turnbow, and Bordoloi 2000)
  2. IT assets (Aral and Weill 2007)
  3. IT capabilities (Bharadwaj 2000; Leonardi 2007; Mithas, Ramasubbu, and Sambamurthy 2011; Muhanna and Stoel 2010; Saunders and Brynjolfsson 2016)

This is because they are often based on resource‐based view and dynamic capabilities thinking (Aral and Weill 2007; Bohnsack et al. 2018) and therefore refer to technology mostly as an abstract placeholder. For only a few (McAfee and Brynjolfsson 2008; Peppard and Ward 2005) does a specific technology (for example, enterprise resource planning (ERP) and customer relationship management (CRM)) play a more relevant role.

But digital transformation is much more. It is not just an IT investment or (dynamic) IT capability but a portfolio of new and each potentially disruptive technologies becoming available within much shorter time frames (Kane et al. 2018). It can thus significantly reduce the required energy levels or even create an imperative (Fitzgerald et al. 2013; Gale and Aarons 2017; Raskino and Waller 2015) for transformational change. However, “becoming a digital leader isn't simply a matter of technological savvy” (Baculard 2017, p. 2). In this new world, not a single technology as such becomes a success factor, but rather the capability of a firm to monitor, evaluate, and capture beneficial technology breakthroughs at the right time (Andriole 2017), the “triple tipping point,” where the technology, the regulatory environment, and social developments play together (Raskino and Waller 2015, pp. 43–61) for maximum strategic impact. This is in line with innovation value research, clearly demonstrating the positive influence of managing “technology orientation,” “market orientation,” and “competitor orientation” in an integrated way (Strecker 2009).

Digital Technology Capabilities

There is substantial variation in actual naming of digital technology capabilities (Bohnsack et al. 2018; Briggs 2019; Brynjolfsson and McAfee 2014; Gimpel and Röglinger 2015; Parida, Sjödin, and Reim 2019; Rodriguez‐Ramos 2018; Schwab 2017; Sebastian et al. 2017; Westerman et al. 2011; Williams and Schallmo 2018). Still, clusters based on Briggs's (2019) more granular annual tech‐trends research were found to best summarize what we need for the purpose of this book. Admittedly very subjectively, I reordered them in decreasing order of relevance, at least from what I know now.

Table 4.1 structures all later‐explained technology based on their assumed maturity and their potential impact at a larger scale.

TABLE 4.1 Digital technologies overview.

Lower MaturityHigher Maturity
Higher impact at scaleIV. Analytics technology
VI. Cyber‐technology
I. Cloud technology
II. Digital experience technology
Lower impact at scaleVII. Digital reality technology
VIII. Blockchain technology
VIII. Longtail technologies
III. Intelligent automation technology

Cloud Technology The most relevant enterprise technology and supply‐side technology catalyst for digital transformation during the last decade was cloud technology (Briggs 2019). It is clearly among of the biggest shifts in the history of IT since the introduction of the internet.

Originally pioneered by VMWare to lower the cost of deploying technology by using central capacity and resources (Rodriguez‐Ramos 2018), cloud technology has moved away from a mere infrastructure cost lever to a potential catalyst for large‐scale delivery and business model innovations and transformations. It now goes beyond data‐center modernization and is, in terms of technology, dominated by well‐known innovation powerhouses like Amazon AWS, Google, Microsoft, IBM, Alibaba, and Tencent.

Driven by the multiple promises of the technology, many businesses already have moved or are in the process of migrating most of their workloads (applications and data) into the cloud in its numerous forms (inhouse, co‐location, hybrid, public, …). “From infrastructure‐as‐a‐service (IaaS) capabilities, to platforms‐as‐a‐service (PaaS), to now a growing ecosystem of vendors continue to methodically automate ever‐higher order processes to create industry‐optimized platforms” (Buchholz and Briggs 2022). The workloads affected cover the whole value chain from customer‐driven front‐ends to back‐end oriented finance systems. However, whenever you get the opportunity to look deeper into the underlying program designs, you will find most of these transformations to be technically driven under high time pressure with a limited or only retroactively constructed link to the overall business strategy. In addition, in a lot of companies, even if the business‐strategy link does exist, it is then not correctly translated into IT‐strategy implications. Think about your company. Did you, like many others, start rushing into the cloud some time ago? Did you fail to synchronize your multitude of cloud migration projects and end up with numerous cloud suppliers? Did this problem introduce consequences regarding processes, security, and governance? Do now neither internal nor (even worse) external customers feel any of the originally targeted benefits? I would not be surprised. The cloud is hardly ever used to its full potential. No wonder. From the outset, the business levers for harvesting this very potential were never clearly defined. In many cases, programs thus end up as a legacy infrastructure replacement exercise, not at all leveraging what they could do beyond infrastructure cost savings. Even more well‐designed programs are often only beneficial in comparison to a (by the way, very hard to derive) cost baseline. They use operational key performance indicators (KPIs) (e.g., from DevOps and other tools) and, in the best cases, some additional indirect KPIs to better understand the cloud's platform effect to later exercise the real option on the stacked‐on business value.

I almost never see cloud transformations designed to target and measure what really matters to the business (as a strategic business objective): the improvements for end‐customer and internal customer journeys that cloud transformations can bring (e.g., measured improved customer satisfaction scores like net promoter score (NPS) or customer satisfaction index (CSI)) and all the corresponding positive strategic and financial implications beyond cost savings).

And as if all of this would not be frustrating and challenging enough, you also have to cope with what has recently been brought to the attention of practitioners as the cloud paradox (Wang and Casado 2021). It suggests simply and painfully that it is “crazy to not start in the cloud [and] crazy if you stay [only] on it.” Why? Because the splendors of all the payday accelerators described in the following sections may not remain valid if you are not growing at the same pace as your exploding cloud costs. At some point, this can eat into your margins in a way you never expected. Ironic, or not? Especially since expected cost savings were and are the main reason why businesses choose to go to the cloud in the first place. Today, the admittedly counterintuitive idea that at some point there might be a need of “repatriating” some workloads from the cloud to own infrastructure or execute a cloud‐to‐cloud migration to another vendor is a major task. This is evermore true once you make all your infrastructure experts redundant, because you were so sure they would no longer be needed.

Before any of this comes into play, however, a major source of concern remains finding solutions for the issue of massive technical and technology debt (Magnusson and Bygstad 2014). Core IT needs to shed its siloed past and develop a more cross‐functional approach in which IT and business act as one bimodal (Haffke, Kalgovas, and Benlian 2017) or dual‐speed (Westerman, Bonnet, and McAfee 2014) integrated team. Given the complexity of their technical legacy environments, organizations aim to “show increased capability to reinvigorate their legacy core by exposing micro services to their technologists and the business” (Briggs 2019, p. 10).

So, when you are embarking on or continuing your journey to take workloads into the cloud you must make sure that the long‐term business rationale and approach behind doing so is very clear. Do you proceed based on a reasonable and resilient value case step by step—for example “Lift'n Shift”—by partial 1:1, porting of workloads and successive migration (rehost, replatform, refactor, recode, repurchase, retire) or go for a big bang? To decide, you must think about a large set of complex accelerators and decelerators, which will influence the timing and magnitude of your digital transformation payday.

Cloud Technology Payday Accelerators Once you have managed to migrate a relevant share of your external customer‐facing and internal workloads, or of enabling infrastructure to support a superior performance of your front‐ends into the cloud, your new cloud solutions can ideally be integrated with your digital experience technologies (explained later) and better support end‐to‐end customer journeys. This indirectly can increase related revenue and efficiency drivers. These you can model, target, and measure in your cloud migration business case. They include improved customer satisfaction scores, increased conversion and retention rates due to increased ease of use in front‐ends, and increased automation with less manual process steps in front‐end/back‐end integration. In addition, as I will explain in the Analytics Technology section of this chapter, the ability to combine data from various sources in one place (in the cloud) allows a wide range of additional benefits and new business models.

This business case upside has the potential to be boosted even more if you simultaneously aim to have more agility and faster time to market in order to react to upcoming market needs. Or, if you can outpace competition as a first mover with new propositions by carefully analyzing your data trove and applying analytics and pattern recognition. You can plan these impacts and measure them as incremental revenues from first‐mover product‐and‐services launches, profit improvements due to faster and segmented lifetime value‐driven service portfolio and pricing adjustment, or as the indirect benefits of faster customer journey improvements and process‐driven cost savings.

At the same time, your cloud solution can provide greater scalability and close‐to‐instant availability. This generates better capacity utilization versus cost ratios, which you can model in your business case as enablers of revenue growth cases or as mitigation to demand forecasting uncertainty/fault cost in case of massive volume peaks or surges.

Furthermore, you can aim to reduce your risks of service disruption, which can usually be extrapolated and estimated as cost avoidance or opportunity cost from related historical developments. Or you can forecast in different disruption‐threat scenarios, ideally closely linked with unfortunately high‐cost cyber‐technology considerations. These will be elaborated in much more detail later. The fact that (cyber) security is now under the responsibility of the cloud providers can provide synergies. This can, for example, be a shared cybersecurity team or immediate security updates in the cloud without the need of lengthy upgrade rollouts.

Such synergies can offer you cost advantages like as the best available services and features developed centrally by the vendors, and increased overall interoperability and flexibility. Obviously, depending on the cloud provider, this also means that you will lose autonomy and become a consumer of services instead of the driver of development. At the same time, you can substantially increase process efficiency in operations via new approaches for development cost reduction, which can be modeled in your business case when planning the corresponding cost buckets.

Finally, moving to the cloud can free you up from previous capex constraints, by moving the majority of spending into the opex bucket, which, as mentioned before, can also be a two‐sided sword—on the one hand, if the margin impact affects the view of investors on your valuation negatively, on the other hand, if headcount reductions will be feasible due to the fact that experts on your legacy systems and infrastructure topics will no longer be needed in‐house.

Cloud Technology Payday Decelerators Unfortunately, every cloud transformation also faces a wide range of payback decelerators, which I often see underrepresented in business cases. These decelerators start with (multi‐) cloud strategy design cost, a crucial investment, which is often overlooked, leading to a purely technology‐driven cloud transformation program, followed by the often substantial cost (if done right, because usually external neutral expertise is required over a long selection time period) for selecting the best fitting vendor or vendor portfolio in the light of the previously developed strategy, license, and usage cost and the often difficult‐to‐plan implementation and rollout cost from vendors, staff augmentation, subject‐matter experts, and consultants. As in any program, you should plan with a substantial buffer over and beyond what you think will be required.

This might technically take you to the cloud, but unfortunately required spending does not end here to generate the business impact you should be aiming for. Your payday will be further slowed down by softer sounding but often success‐critical hiring and training cost to replace the expensive externals you had to onboard in the early parts of your journey with very scarce and highly paid full‐time cloud expert staff; retention packages for already skilled users, developers, and architects you might have on board; and change management cost for the broader organization to actually appreciate and use the new technical, process, and innovation capabilities in line with your overall strategic goals. (All these workforce‐related topics will be further elaborated later in this chapter.)

Ongoing license, operations, and maintenance costs will obviously have to play another important role in your payback considerations, especially as the previously discussed value implications of impeding margin pressure after capex to opex shift could negatively influence your market capitalization from an external perspective. You could be stuck in a vendor lock‐in, potentially with substantial minimum‐volume commitments, without a proper exit and migration strategy to divorce from the relationship at a later stage if economics require you to do so. Cloud transformation is no one‐time effort but, rather, an ongoing process with permanent adaptations (new releases, new skills, and regulatory requirements).

Last, but often substantially underestimated, are the security costs any cloud transformation will add to your baseline, whether you like it or not. Buckets to include in your business case are data security validation efforts, regulation‐driven adjustments (e.g., from GDPR), and other contractual obligations.

Table 4.2 provides a summary that clusters some key accelerators and decelerators for cloud technology depending on their typical tangibility.

Digital Experience Technology Digital experience technology has become an umbrella term for architectures integrating a complex range of marketing, sales, CRM, and service technologies and platforms. Historically built for customer‐facing digital marketing and e‐commerce solutions, digital technology is now evolving more and more. It is developed with a strong focus on experience, to enhance “all the ways organizations, customers, employees and constituents engage and carry out transactions within digital environments” (Briggs 2019, p. 7). Digital experience technology works as a second supply‐side catalyst and changes the way firms act to create value for their customers. It is now envisioned to cover the entire enterprise either by one technology platform or by a tightly integrated portfolio of best‐of‐breed solutions, often combined with paradigms like microservices and headless approaches.

Large software vendors like Salesforce, SAP, Workday, ServiceNow, just to name a few, use this widespread paradigm shift to customer centricity to push new solutions into the market, advertising to offer new means to lower the barrier to digital transformation across all segments and channels.

Next to the big vendors just mentioned, an almost infinite number of technology companies in all different shapes, forms, and sizes aims to achieve two very simple things from a business perspective: First, to get the best out of a more intimate knowledge of the customer and enable acting based on value‐driven considerations at the customer interface, shared across all your channels and consistent in communication and customer lifetime view. Second, to ensure a seamless processing throughout the enterprise of whatever comes out of these targeted customer interactions. On the one hand, this requires a portfolio of solutions and a piece of software that combines data from multiple tools to create a single centralized customer database containing data on all touchpoints and interactions with product. On the other hand, a more systematic approach to act in a truly customer‐centric way becomes key. No longer is the process transaction from an internal perspective the focus but, rather, a full suite of end‐to‐end technologies from the website to online shop, to the middleware layer, and all the way to the integration with your back‐end systems.

TABLE 4.2 Cloud technology payday drivers.

DriversLess TangibleMore Tangible
Accelerators
  • Indirect support of customer satisfaction, conversion‐and‐retention rates due to increased ease of use in front‐ends and increased end‐to‐end automation
  • Fundament for analytics innovation plus new use cases and revenue streams
  • More agility and faster time to market
  • Reduced risks of service disruption, (cyber) security synergies on the central vendor platforms
  • Process automation driven cost savings
  • Development cost reduction (DevOps)
  • Operations effort reduction (but Capex to Opex shift)
  • Expert personnel cost savings (infrastructure, legacy system developers and so on)
Decelerators
  • Multicloud strategy design cost
  • Vendor or vendor portfolio selection cost
  • Hiring and training cost
  • Retention packages for already skilled users, developers, and architects
  • Change management cost
  • Cost for ongoing adaptations (releases, skills, regulatory requirements)
  • Security cost for data security validation efforts, regulation adjustments (for example, from GDPR)
  • Vendor‐exit strategy and migration cost
  • Risk buffer
  • Ongoing license, usage, operations, and maintenance cost

In any case, any effort to leverage digital experience technology must make sure that your long‐term business requirements are very clear and in line with your business strategy. At the same time, you need to establish a mindset that constant small changes and an adaptive approach are as important as working within the overall strategic vision.

I have often seen business requirements either just statically replicating the complex legacy status quo or, in somewhat better cases, aiming for improvements but lacking the answers on the true business questions that matter. Implementing digital experience technology effectively is a multiyear journey. Will the results put the company in a differentiating position after launch, or does the program end up becoming an exercise that does not differentiate from the competition, because everyone is doing the same thing?

Unfortunately, this means that digital experience technology does not only provide many nice‐sounding accelerators but will, in many cases, also imply high‐cost decelerators, which will influence the timing and magnitude of your digital transformation payday.

Digital Experience Technology Payday Accelerators Once you have all your digital experience platforms up and running, ideally as specified in an iterative process in which business and technology teams work closely together, the benefits of digital experience technologies can be manifold—at least if you manage to achieve a relevant and never‐resting capability boost versus your legacy systems. Then you can expect incremental revenues from many sources of new customers and within your existing customer base. These could take the form of:

  • Higher conversion rates from your campaigns
  • Lower acquisition costs
  • Incremental revenue uplifts from better matching customer needs and (next best) offers when upselling and cross‐selling
  • More successful identification and retention of valuable at‐risk customers
  • Phase‐out or migration of lower‐ or negative‐profit customers to other services

However, beware. These are part of the flashy hypothesis, which every 360‐degree vendor postulates. You need proof from experience or, even better, from properly executed pilots, before you can rely on any numbers for your business case.

Digital Experience Technology Payday Decelerators Digital transformation failure rates have one very important source of origin. In real life almost every digital experience implementation is fighting expected and unexpected payback decelerators, which often come as a surprise for management when they materialize, even though they should have been foreseeable. First and foremost, what you should factor in are the often‐unaccounted‐for cost for a preproject and a feasibility study to be surer of what you are doing prior to starting into the larger exercise. Iterative, lean, approaches must be constantly adjusted based on feedback and change. They require you to start early, fail, do it again, and correct your trajectory to do it right in the end. Design exercises that are too big up‐front only lead to inertia and projects not being started. These are all business design costs in the wider sense. Often overlooked are also the substantial cost (if done right, as usually external neutral expertise is required over a long selection period) for selecting the best fitting vendor or vendor portfolio in the light of the previously developed strategy. More transparent and plannable are license and usage costs, less so the often difficult‐to‐plan implementation and rollout costs from vendors, staff augmentation, subject‐matter experts, and consultants. I have seen many cases in which the initial happiness of selecting the cheapest solution turned out to be a rude awakening when change requests blew the budget to a magnitude no one expected. Very simply, if you buy cheap, you often buy twice, so a substantial risk buffer is advisable in any case. All this might make your systems go live one day, but required investments do not end here. Also to be considered are:

  • Success‐critical hiring and training
  • Onboarding cost to replace the inevitable externals you had to onboard in the early parts of your journey with very scarce and highly paid full‐time expert staff (either for implementation or for backfilling, as you still have a business as usual to run in parallel)
  • Retention packages for skilled users, developers, and architects you might already have on board
  • Change management cost for the broader organization to actually appreciate and use the new technical, process, and innovation capabilities in line with your overall strategic goals

All these workforce‐related topics will be further elaborated in separate workforce catalyst sections of this chapter.

Ongoing operations and maintenance cost will obviously have to play another important role in your payback considerations.

Last, but often substantially underestimated, are security costs. Buckets to include in your business case are data security validation efforts and regulation‐driven adjustments (e.g., from GDPR), which I will explain in more detail in a later section.

Table 4.3 clusters some key accelerators and decelerators for digital experience technology, depending on their typical tangibility.

Intelligent Automation Technology The third increasingly relevant supply‐side technology catalyst is more a group of technologies than a single innovation. It includes “technologies such as machine learning (ML), neural networks, robotic process automation (RPA), bots, natural language processing (NLP), and the broader domain of … (AI) … and can help make sense of ever‐growing data, handling both, the volume and complexity that human minds and traditional analysis techniques cannot fathom” (Briggs 2019, p. 9).

TABLE 4.3 Digital experience technology payday drivers.

DriversLess TangibleMore Tangible
Accelerators
  • More effective upselling and cross‐selling of new products and services
  • Higher conversion rates and lower acquisition cost from proven products and services
  • Better retention of valuable at‐risk customers
  • More targeted phase out or value‐based migration of lower‐ or negative‐profit customers
Decelerators
  • Preproject, feasibility study cost
  • Vendor or vendor‐portfolio selection cost
  • Hiring, training, and onboarding cost
  • Change management cost
  • Retention package cost for skilled users, developers, and architects
  • Technical implementation and rollout costs
  • Cost for staff augmentation, subject‐matter experts, consultants for implementation support and backfilling
  • Cyber‐ and data security cost, like data security validation efforts and regulation driven adjustments
  • Risk buffer
  • License and usage cost
  • Ongoing operations and maintenance cost

These intelligent automation technologies in practice already support manifold use cases ranging from automated contract and claims handling in finance and procurement, to cognitive solutions like virtual chat‐ and voicebots in customer service and HR/recruiting, to Internet‐of‐Things (IoT)‐data‐supported predictive maintenance, to causal machine learning in customer experience impact analysis, to AI‐driven large‐volume anomality recognition in supply chain and cybersecurity management, just to give a few examples.

The business reasons for implementing such intelligent automation solutions are usually quite intuitive. However, real‐life examples have consistently shown that overselling the financial impact of a first pilot (after an initial proof of concept) and the ability to scale up across the enterprise at high speed is usually not the best idea. Many projects I have seen struggle to achieve what they originally promised financially and often end up being associated to “softer” benefits at delayed timelines and with limited scale impacts.

Intelligent Automation Technology Payday Accelerators Rarely have I seen the intelligent automation solutions lead to full headcount reductions as the naivest and, from a worker's perspective, most feared benefit of adding “intelligent robots” to the workforce. Instead, even though there are exceptions where three‐digit number of headcounts have been reduced, in most cases the current state of available tools (especially RPA) rather allows part of the workload of personnel being given back to the business, not the full‐time equivalent headcount. This is achieved by offloading staff from cumbersome, inefficient, and, in most cases, boring and not very fulfilling tasks. Nevertheless, the impacts should not be underestimated: Companies with very high growth trajectories can shoulder the implied additional workload without significantly increasing their workforce. This is driven by the indirect impacts automations can have on compliance or risk pass/fail data, net promoter scores, process speed, first solution rates, and many more. Still, for real transformational personnel cost impact, processes cannot just be painted over with new intelligent automation tools but need to be completely redesigned as part of the overall digital transformation effort. Intelligent automation solutions can serve as an additional booster of automation, as a positive “modern” driver to start previously stuck process‐optimization discussions or as a bridging technology until the full‐scale process redesign becomes available.

Intelligent Automation Technology Payday Decelerators On the other hand, cognitive technology driven payback decelerators are much more concrete and immediate. You must plan cost for RPA, cognitive/AI software (licenses, support cost), and related bolt‐on solutions (e.g., OCR), the necessary hardware or cloud hosting cost, plus plan to invest substantial time and money into hiring, training, learning on the job, change management, and ramp‐up inefficiencies until the integration with other work steps is practiced well enough. Under the assumption that in the early days you do not have scalable cognitive/AI expertise in‐house, you will also face highly relevant cost for required external expertise: to raise awareness for the success‐critical process of scouting and mining (potentially by different software with additional cost), to find the right pilot processes with buy‐in and scalability potential, process detail analysis and documentation, platform implementation and configuration, go‐live/hyper care, and ongoing maintenance and support.

TABLE 4.4 Intelligent automation technology payday drivers.

DriversLess TangibleMore Tangible
Accelerators
  • Impacts automations can have on compliance or risk pass/fail data, net promoter scores, speed, first solution rates and many more
  • Personnel capacity given back to the business
  • Some full‐time equivalent headcount savings
Decelerators
  • RPA/cognitive/AI software (licenses, support cost) and bolt‐ons (OCR, …)
  • Hardware and/or cloud hosting cost
  • Hiring, training, learning on the job, change management cost
  • Ramp‐up inefficiencies
  • Cost for external expertise, to raise awareness, process scouting and mining, detail analysis and documentation
  • Cost for implementation and configuration, go‐live/hyper care and ongoing maintenance & support

Table 4.4 clusters some key accelerators and decelerators for intelligent automation technology depending on their typical tangibility.

Analytics Technology Leveraging the massively growing supply of continuously generated data (Rogers 2016) is the obvious next step for value creation, once the previously discussed cloud technology with superior computing capabilities (Brynjolfsson and McAfee 2014), centralized storage, and the possibility to analyze information at scale overcomes previous economic barriers (Rodriguez‐Ramos 2018) of data storage and aggregation. As soon as your digital experience platforms provide you with and give access to the data you need, you can leverage “big data,” structured and dark, inside and outside firm boundaries, analytics engines, algorithms, and supporting infrastructure, ideally combined with cognitive technologies (described later), to serve as a catalyst for firms to predict outcomes and recommend derived value‐creating actions at scale.

Analytics Technology Payday Accelerators Unfortunately, until recently, “most analytics efforts have struggled to deliver on the simplest version of that potential: the rearview mirror describing what has already happened—or, for the advanced few, presenting real‐time views into what is currently happening” (Briggs 2019, p. 7). Still, many analytics experts take it for granted that analytics should be a critical future cornerstone for any successful digital transformation. For them it seems obvious that a substantially growing annual analytics budget should be approved without any doubts and they are then surprised when they face resistance because the payday for analytics technology is not that easy to explain and demonstrate to their business. That does not mean that, in theory, the benefits of a successful analytics platform and team are not clear: With advanced analytics, you can better target which customers to acquire and keep for optimum value and how to best cross‐ and up‐sell to them. Furthermore, instead of using only basic measurements for decision‐making you can improve the effectiveness of your marketing attribution and media mix modeling and thus optimize your advertising spend. Analytics also allows you to get a better understanding of correlations and, in the best case, something close to causality between planned action and outcomes. On top of that, analytics also leverages data to do things faster. In combination with cognitive/AI catalysts (as explained later in this chapter), you can act much quicker without the previous manual analysis. The payday contribution of speed can be measured and demonstrated, for example, as a short‐term resource time and expense reduction for developing and deploying reports, and the longer‐term revenue gains and expense reductions from quicker performance analytics being used to streamline business process and identify opportunities for growth.

Analytics Technology Payday Decelerators On the other side of the equation, analytics payback decelerators are not to be forgotten. You must plan software cost (licenses, support cost), the necessary hardware or cloud hosting cost, and expect to invest substantial time and money into hiring, training, learning on the job, change management, and ramp‐up inefficiencies until the integration with other work steps is practiced well enough. Under the assumption that in the early days you do not have all the analytics expertise in your workforce, you will also face cost for external expertise: to raise awareness, to find the right use cases with buy‐in and scalability potential, process detail analysis and documentation, platform implementation and configuration, go‐live/hyper care, and ongoing maintenance and support.

Last, you should not forget implied security cost. This includes data security validation efforts and regulation‐driven adjustments (e.g., from GDPR).

Table 4.5 clusters some key accelerators and decelerators for analytics technology depending on their typical tangibility.

Cyber‐ and (Data) Security Technology All technology capability catalysts come at a substantial risk. Hostile security attacks plus regulatory data security and privacy boundaries from numerous stakeholders start to play an increasing role in any digital transformation: “With cybercrime estimated to cost US$ 6 trillion annually by the end of this year, cloud migration raises the cybersecurity stakes” (Golden and Kunchala 2021; Morgan 2020). As omnipresent threats or at least implicit or explicit business limiters and enablers, they can become catalysts by themselves. “Companies are pushing the boundaries of the security function and shaping their risk appetite before development begins. Going forward, cyber will undergird every component of the macro platform, and will be integrated into … all aspects of an organization's digital … agenda” (Briggs 2019, p. 11). In other words: Without a proper (cyber‐) security transformation element integrated right from the start, no digital transformation effort will survive long enough to create any value.

TABLE 4.5 Analytics technology payday drivers.

DriversLess TangibleMore Tangible
Accelerators
  • Better target which customers to acquire and keep for optimum value and how to best cross‐ and upsell to them.
  • Improve the effectiveness of your marketing attribution and media mix modeling
  • Gain better understating of correlations and in the best case something close to causality between planned action and outcomes
  • Leverage data to do things faster (for example, reports)
Decelerators
  • Hiring, training, learning on the job, change management cost
  • Ramp‐up inefficiencies
  • Cost for external expertise, to raise awareness, use case selection, detail analysis and documentation
  • Security cost
  • Risk buffer
  • Analytics software (licenses, support cost)
  • Cost for implementation and configuration, go‐live/hyper care and ongoing maintenance and support
  • Hardware and/or cloud hosting cost

So, while risk‐mitigation measures against attackers and for enhanced customer data security and privacy protection cannot be business objectives in isolation, they still become highly relevant as a make‐or‐break factor. In the age of cyber‐attacks, data thefts and prominent regulatory fines for data protection infringements, the assurance of integrity, confidentiality, and availability of services are no longer just an IT issue but a top management priority for any (digital) business transformation program.

This is even more true when you can expect the number of attacks and potential regulatory data security and privacy violations to grow exponentially with the number of cloud platforms and workloads planned to be migrated. In such a complex world outside of your direct influence, estimating related digital transformation payday accelerators and decelerators becomes a critical but very challenging task.

Cyber‐ (and Data) Security Technology Payday Accelerators The general problem of estimating cybersecurity and data protection technologies as a digital transformation payday accelerator is that they are abstract. They are designed to maintain customer trust and secure ownership of one of the most crucial assets of your organization—data. As such, next to enabling new business models, access to new markets, and strengthening of value propositions, they are first and foremost about loss prevention. When you invest in security, you aim to reduce risks threatening your assets. The return on security investment is calculated by estimating how much loss you avoided thanks to your investment. This requires approximating how high these damages in various forms could have been if nothing had been done to mitigate them. Unfortunately, a proper estimation requires replicable processes and correct data to be captured. At many companies, I know these do not exist at the level of quality you would expect them to be. The often‐necessary ad‐hoc gathering of information usually diminishes buy‐in of recommendations before even getting started. And sadly, even benchmarks do not help much here, because every enterprise is different.

There is certainly no lack of concepts (ENISA 2012) to still get a good estimate. They share the intuitive idea to approximate the damage a certain event would imply, the single loss expectancy (SLE) multiplied by the likelihood of its occurrence (the annualized risk of occurrence, or ARO), giving you the annual loss expectancy (ALE). Whatever your measures, subtract from this ALE the benefits you are looking for. Obviously, these benefits are very different in character compared to the digital transformation payday accelerators discussed earlier. The first key question is: What are the damages that are being avoided? They range from the implications of non‐adherence to regulatory requirements (to protect licenses, for example, in financial services), to data privacy violation linked penalties (GDPR), to related personal liabilities of board members. Also, the damages of a loss of trust must be considered, regardless of whether it comes from your customer base or from your ecosystem partners (if business‐critical information is visible to competitors) or if private data (for example, on financial status) is becoming public. Not to forget real damages (data theft and blackmailing, critical system outages, and many more). In any case, the annual rate of occurrence is hard to estimate, and the resulting numbers can vary highly from one environment to another. These approximations are often biased by our perception of the risk. The accuracy of statistical data used in the calculation of return on sustainability investments (ROSI) is therefore essential. However, actuarial data on security incidents are hard to find as companies are often reluctant to capture data on their security incidents.

Cyber‐ (and Data) Security Technology Payday Decelerators The cost of the required solutions and services is easier to predict provided all payday decelerators are considered. They can be best structured by asset classes:

  1. First, one must consider the cost for dedicated hardware whose prime purpose is IT security related, including firewalls, security gateways, security appliances, security toolset platforms, and ID tokens.
  2. Second, software cost like annual license and maintenance as well as costs associated with new purchases and upgrades for all software dedicated to operate or manage the security systems applications for each category of security expenditure are of relevance.
  3. Third, and not to be forgotten, facility and other costs such as hosting/facilities/occupancy for space dedicated to in‐scope security functions and personnel, such as the apportioned annual costs of hosting security‐related devices, storage arrays, and appliances in the data center, including power/heat management and raised floor. It would also include the annual cost of any consumables related to the security activities.
  4. Fourth, outsourcing fees for third‐party or outsourcing contracts primarily comprising services for managing or monitoring security devices, systems, or processes where the services are provided on‐site should be an integral part of the business case.
  5. Fifth, the cost of managed service providers (MSPs)/cloud as remote subscription‐based monitoring and/or management of security devices such as firewalls, intrusion detection, and prevention functions via customer‐premises‐based or network‐based devices can become a key digital transformation payday decelerator. It also includes remotely delivered specialist‐managed security services (e.g., threat intelligence, security information and event management/security operations (SIEM/SOC) center, distributed denial‐of‐service attack (DDoS), etc.) and cloud‐based security services such as identity‐as‐a‐service (IDaaS).
  6. Sixth, consulting services that help companies analyze and improve the efficacy of business operations and technology strategies.
  7. Seventh, IT security personnel whose roles and duties are primarily focused on information security activities can become a key cost block. This includes all full‐time, part‐time, and temporary full‐time equivalent resources (FTEs). These personnel provide support across the security functions.

TABLE 4.6 Cyber‐ (and data) security technology payday drivers.

DriversLess TangibleMore Tangible
Accelerators
  • Prevented post‐incident loss of trust from your customer base
  • Secure enablement of new business models
  • Avoided fines from non‐adherence to regulations, data privacy violations (GDPR), related personal liabilities of board members
Decelerators
  • Security consulting services
  • Risk buffer
  • Dedicated hardware cost (firewalls, gateways, security appliances, toolset platforms and ID tokens)
  • Software cost (purchase, annual license, and maintenance)
  • Annual costs of hosting security‐related devices, storage arrays and appliances in the data center
  • Outsourcing fees (for managing or monitoring security devices, systems, or processes)
  • Cost of managed service providers (MSPs)
  • IT security personnel cost

Table 4.6 clusters some key accelerators and decelerators for cyber‐technology depending on their typical tangibility.

Digital Reality Technology The sixth supply‐side technology catalyst for digital transformation is more a cluster of technologies than a technology itself. Way before the hype of the Metaverse became the talk of the town, immersive or even implantable (Schwab 2017) technologies like augmented reality (AR), virtual reality (VR), mixed reality (MR), and Internet of Things (IoT) based on a substantial evolution of mobile and fixed network infrastructures plus capacity were foreseen “redefining how humans interact with data, technology, and each other” (Briggs 2019, p. 8). This goes hand in hand with conversational interfaces, computer vision (Schwab 2017) and other recent innovations like the “metaverse” (Foutty and Bechtel 2022).

All these technologies are meant to ultimately replace the established human‐technology interface and can be used in marketing and sales, event/meeting management, in field services, and in training and immersive visualization of products and locations. No matter what the use case is, the abstract benefit claim is always the same—these technologies will generate new sources of revenue, increase productivity, or improve safety. Nevertheless, when you start to look deeper, in most use cases the underlying digital transformation payday accelerators and decelerators are very problematic to pin down more concretely.

Digital Reality Payday Accelerators Unfortunately, scaling up digital reality solutions in a meaningful way first requires a sufficiently large hardware user base in your organization. A few niche pilots will not move the needle in any way you can measure. Not only do you need many users to be able to one day find any meaningful benefits in your bottom line, but you also need them to use the devices for their respective use case very frequently to pay back the required hardware investments. This is certainly true for the most obvious and communicated training use cases (savings in travel and location cost, steeper learning curve, and so on) but even more for use cases in field services (reduced training cost, remote direct access to specific subject‐matter experts, and so on), not to mention the required customer take‐up rates required for any selling and marketing efforts in digital reality to make any sense from a reach‐and‐impact perspective.

Digital Reality Payday Decelerators Next to the cost of sourcing (buying or as a service) the necessary hardware and software platforms to achieve sufficient penetration in your workforce for the selected use cases, creating digital reality scenarios at scale requires a specific up‐front investment in terms of content creation. This can initially be external (agencies, consultants, subject‐matter experts), but if a certain scale must be reached, it requires also building up internal expert resources, which are forecasted to be high‐cost, even today.

Decelerators also include strategy design, followed by the substantial cost for selecting the best‐fitting vendor or vendor portfolio in the light of the previously developed strategy, license, and usage cost and the often difficult to plan implementation and rollout costs from vendors, staff augmentation, subject‐matter experts, and consultants. As in any innovative program, you should plan with a substantial buffer.

Your payday will be further slowed by softer sounding but often success‐critical hiring and training cost to replace the expensive externals with expert staff; retention packages for already skilled users, developers, and architects you might have on board; and change management cost for the broader organization to actually appreciate and use the new technical, process, and innovation capabilities in line with your overall strategic goals. Ongoing license, operations, and maintenance cost will obviously have to play another important role in your payback considerations.

Last are the implied security costs, and today we have not even begun to comprehensively assess them. Buckets to include in your business case are data security validation efforts and regulation‐driven adjustments (e.g. from GDPR).

TABLE 4.7 Digital reality technology payday drivers.

DriversLess TangibleMore Tangible
Accelerators
  • Steeper learning curve
  • Remote access to specific subject‐matter experts
  • New immersive virtual markets with marketing and sales potential
  • Savings in travel and location cost for trainings, meetings
Decelerators
  • Strategy design cost
  • Use case selection cost
  • Vendor or vendor portfolio selection cost
  • Content production cost
  • Hiring and training cost
  • Change management cost
  • Cost for ongoing adaptations (releases, skills, regulatory requirements)
  • Security cost
  • Risk buffer
  • Hardware and platform cost
  • Ongoing license, usage, operations, and maintenance cost
  • External advisory cost

For easier handling in your daily business, Table 4.7 clusters some key accelerators and decelerators for digital reality technology depending on their typical tangibility.

Blockchain/Distributed Ledger Technology Originally mostly known as the underlying technology of cryptocurrencies (Rodriguez‐Ramos 2018), blockchain and other (still) less prominent distributed ledger technologies (DLT) as supply‐side technology catalysts or shifts (Schwab 2017), begin to transform the crucial matter of trust in more and more business interactions and contractual transactions beyond trendy media headlines (Walker and Hansen 2021). They serve as “a profoundly disruptive technology that transforms not only business but the way humans transact and engage … with technical hurdles and policy limitations [now] being resolved, we will likely see breakthroughs in gateways, integration layers, and common standards in the next few years” (Briggs 2019, p. 8). Simply put, blockchain implementations can establish a more secure shared information vehicle, a single source of truth as a resource that is trusted by multiple parties. It can thus replace siloed data storages with biased owners and is, by design, much easier to protect against external security threats.

On the blockchain phenomenon, you will find two different views among strategists and technologists. They either see it as an overhyped longtail phenomenon or, and this is the growing faction and includes me, as a potential longer‐term solution to business challenges in highly interconnected ecosystems (for example, supply chains), that is across multiple entities; as a new answer when other technologies have never succeeded. Unfortunately, both camps mostly delve on the excitement on, or criticism of the same blockchain‐related use cases. And there are many, which are gaining traction: self‐sovereign data and digital personal identity, trusted data‐sharing among third parties, grant funding, intercompany accounting, supply chain transparency, customer and fan engagement, creator monetization (Buchholz and Briggs 2022).

They still often miss the core of what business leaders really want to know: When, if ever, is the payback on blockchain implementation happening at scale? Not just for small pilots, but within a timeframe that matters for the business overall and not just for niche business problems. To make things even more challenging, blockchain projects share many commonalities with other technology implementations but add one unusual complexity. They are meant to serve an ecosystem, where, as in the smart‐contracts business model, not every participant is under your direct influence. Therefore, forecasting the potential payday from blockchain becomes a serious challenge. Digital transformation payday accelerators will often be intangible (like uncovering a serious supply chain issue in real‐time) and long‐term, while decelerators are much less so.

Blockchain/Distributed Ledger Technology Payday Accelerators The primary abstract benefit of blockchain applications in an ecosystem will always be trust. Once the technology has replaced the traditional human‐relationship‐based notion of trust among the partners with a technical algorithm, your business can expect revenue increases from transactions otherwise not possible. Hand in hand with trust comes the advantage that blockchain creates unalterable records with strong encryption and is stored across a network of computers, making it very challenging to attack. It goes without saying that both these increases are very difficult to translate into concrete revenue increases. Easier to estimate are the implications on the costs for organizations by creating process efficiencies and easing reporting and auditing processes. Blockchain also helps businesses cut costs by removing third‐party providers, and by automating processes in transactions, blockchain can operate transactions significantly faster in a much more traceable manner, which should also be recorded as a cost benefit on the accelerator side of blockchain/distributed ledger technology (DLT) business cases.

Blockchain/Distributed Ledger Technology Payday Decelerators Unfortunately, the described abstract benefits come at a price. Every blockchain implementation is also producing a range of much more concrete payback decelerators. These decelerators start with the blockchain use case selection and partner search and contracting cost, both crucial investments to get right for later scalability in the ecosystem (or by joining a consortium) and continue with the cost for selecting the best‐fitting vendor or vendor portfolio in the light of the previously selected applications. Most of the time, you will only have small pockets (if any) of expertise in‐house and will have to consider the expense of bringing subject‐matter experts on board, either via traditional consulting projects or by hiring (temporary) expert staff to start building up the required capabilities. As with all other technologies discussed in this chapter, this might take you technically ahead, but, unfortunately, required spending does not end here to generate the scalability required for the blockchain to make sense. Your payday will be further slowed down by often success‐critical hiring and training cost to replace the expensive externals you had to onboard in the early parts of your journey with very scarce and highly paid full‐time blockchain expert staff, retention packages for already skilled users, developers and architects you might have, and change‐management cost for the broader organization to actually appreciate and use the new technical, process, and innovation capabilities in line with your overall strategic goals.

Ongoing license (if no open‐source stack is used), hosting, operations and maintenance cost will obviously have to play another important role in your payback considerations. Blockchain is no one‐time effort but an ongoing process with potential adaptations (new releases, new skills, regulatory requirements). While the security cost benefits have already been discussed on the accelerator side, blockchain implementations at scale also might, like any other IT implementation, carry security cost implications (which have not yet been fully reflected by regulators but for sure will be, not to mention the potential dangers of new technologies like quantum computing) with them, which should not be underestimated. Buckets for your business case are data security validation efforts, and regulation‐driven adjustments (e.g., from GDPR).

Table 4.8 clusters some key accelerators and decelerators for blockchain technology depending on their typical tangibility.

Longtail Technologies As always in the digital transformation age, the attitude of looking for the next big thing and the opportunities underlying these trends becomes crucial. That leads to the question, What's next? Next to more long‐term visions (sources), there are many resources you can use to build your opinion for the midterm, proven and unproven. For this I usually rely on the technology trends work (Buchholz and Briggs 2022), which my research colleagues have built over the last years. Several big themes will become relevant over the next years. They are covered in the following subsections.

TABLE 4.8 Blockchain technology payday drivers.

DriversLess TangibleMore Tangible
Accelerators
  • Revenue upsides from new transactions based on algorithm‐based trust is established among the participants
  • Increased security due to unalterable records with strong encryption and storage across a network of computers
  • Cost savings due to process efficiencies, ease of reporting, traceability, and simplification of process auditing
  • Cost savings due to removal of third‐party providers
Decelerators
  • Cost of blockchain use case selection and partner search and contracting cost
  • Hiring and training cost to replace expensive externals
  • Change management cost
  • Security cost like any other technology
  • Cost of bringing subject‐matter experts on board, either via traditional consulting projects or by hiring (temporary) expert staff
  • Ongoing license (if not open‐source), hosting, operations, and maintenance cost

Next‐Generation Infrastructure Technology You could argue that fiber rollouts, 5G/6G networks, IoT, and smart infrastructure are already here today and therefore should not be put as a future prospect here. Yes, they are. But believe me as a telecoms specialist, the promises of these technologies coming together at scale are still quite some time away from us. Nevertheless, I believe no company with serious digital transformation plan can afford to not have them on the midterm radar of digital transformation technology catalysts.

Quantum Technology Quantum is expected to transform technology in major areas like computing, sensing, and communications. Quantum computing can solve advanced problems by leveraging quantum phenomena to process information at unprecedented speeds. Quantum communication applies quantum mechanics to create ultra‐secure communication networks that should be able to detect any tampering. For sensing, quantum sensing devices are expected to be much more precise than conventional sensors with promising use cases in many sectors.

Exponential Intelligence The next generation of AI aims to generate a better understanding of human emotion and intent. This has already been proven to be possible, for example, when spotting emotions in client service calls and, in case of anger, routing the respective customer to conflict‐trained agents. On top of that, “Soon, these technologies will be able to look at a statistical correlation and, much like the human brain, determine if it makes sense or if it is just a random feature of the supporting data that has no intrinsic meaning” (Buchholz and Briggs 2022).

Ambient Computing Ambient computing will make technology ubiquitous in all our lives. High‐performing digital assistants based on an array of sensors, voice recognition, analytics, and exponential intelligence capabilities will be able to accompany you all day: “Augmenting an individual's physical experience with digital information will be another major dimension of life beyond the glass. Researchers and entrepreneurs alike are already exploring possibilities for using smart contact lenses and even implanted brain chips to augment our senses and (literally) read our minds. Think about it: Why wouldn't it be natural to look at the sun and see how many hours until sunset?” (Buchholz and Briggs 2022).

Obviously for these future speculative technologies a discussion of specific accelerators and decelerators does not (yet) make any sense. However, by now you should have enough information from the already‐developed technologies to understand what you need to watch out for when they become relevant.

Workforce Skills Digital transformation discussions have recently been accompanied by a focus on supply‐side workforce skills in general and the importance of the specific capabilities of digital talent (Kane et al. 2017). The utilization of these skills as a supply‐side catalyst is seen as a key success factor for digital transformations to have a positive outcome in terms of high digital maturity (Kane et al. 2017). As such, they can even be an outcome themselves, allowing reductions in energy levels when iteratively addressing further transformation steps in scope. Any “agile” or “hybrid” transformation process (reaction mechanism), as explained later, requires these skill sets to succeed. An actual in‐depth analysis of digital talent would be worth a book by itself. For our discussion however, we can summarize it simply this way: In order to succeed in the “Fourth Industrial Revolution” as fleshed out by Schwab, the relevance of supply of higher‐order cognitive skills (WorldBank 2018), systems skills, and complex‐problem‐solving skills will by far outgrow previously more crucial physical skills or technical abilities (Schwab 2017). This is even more true given the impact of “cognitive algorithms, robotic process automation, and predictive analytics tools” to help workers to “spend more of their time on nuanced, complex cases with an opportunity to more directly” (Briggs 2019, p. 7).

Therefore, it should be very clear why almost every technology catalyst discussed earlier also had a strong skill element in its accelerator and decelerator discussion. In fact, getting the capability question right is probably now one of the most crucial elements of any digital transformation: It will become an important driver for any digital transformation business case.

Workforce Skills Payday Accelerators A sufficiently skilled workforce will bring the ability to apply new ways of working in a much more agile and therefore higher‐paced way, which can allow faster time to market of new products and customer‐centric journey improvements with potentially positive implications on revenues. At the same time, previously untapped sources of creativity can be leveraged with potential differentiation upsides. Furthermore, in an idealized team of digitally up‐skilled teams the need for management overhead can be decreasing. Finally, more flexible working can lead to easier integration with skills outside of the firm—that is, from a wider ecosystem—potentially at lower fixed cost.

Workforce Skills Payday Decelerators However, the benefits of a more capable workforce also come at a price. Investments into establishing an end‐to‐end new way of working are required to avoid that the wave of accelerators just discussed is not hitting the breakwater of less‐skilled units and thus losing all its power (it might be the IT department in an agile business team or the other way around—the business team in a DevOps skilled development team). Because the skills to set up this new governance and ignite the spark of overall cultural change are usually not sufficiently scaled in‐house, external agile change coaches usually need to be hired and kept on board at substantial cost for a significant period until the end‐to‐end transition has been achieved. Especially in this transition period, this implies that management has less control of what is happening, a dangerous risk, especially if this occurs parallel to a large‐scale technical implementation program. It goes without saying that, given the scarcity of the capabilities just explained, additional retention cost and higher salaries must be considered, because the war for such talent is all over the place and loyalty of skilled workers falters, especially when they mostly work in digital‐only environments without proper attachment to a brand or a team or even less a manager. This and additional accelerators and decelerators will be explained in more detail later, when addressing the catalyst of new workforce expectations.

Table 4.9 clusters some key accelerators and decelerators for workforce skills depending on their typical tangibility.

Abundance of Funding and New Financing Vehicles

Not surprisingly, many of the described developments under the digital transformation umbrella would not have been/will not be possible if not for “vast amounts of funding” (Andal‐Ancion, Cartwright, and Yip 2003, p. 1) and new innovative financing and governance vehicles (Rodriguez‐Ramos 2018) to fuel the development. Sufficient supply‐side abundance of funding and new financing vehicles (e.g., via blockchain or crowd‐investing) therefore is another key catalyst of any sizable digital transformation. While this was obvious in the early days for the now‐established platform companies like Amazon and Google, the new vehicles still mostly have reduced the funding barrier for start‐ups and early‐stage ventures (Gale and Aarons 2017).

TABLE 4.9 Workforce skills payday drivers.

DriversLess TangibleMore Tangible
Accelerators
  • Increased speed/time to market
  • More creativity
  • Less overhead
  • Easier integration of ecosystem, less fixed workforce cost
Decelerators
  • External cost (coaches, consultants) to establish new end‐to‐end way of working
  • Culture change management cost
  • Loss of control/cost to establish new types of governance
  • Higher salaries
  • Increased retention cost

Nevertheless, adequate funding is as important or even more important for established firm digital transformations in scope of this book. The difference is that the hype of disruptive funding mechanisms like initial coin offerings (ICOs) as a new form of “digital governance” (Rodriguez‐Ramos 2018, pp. 121–152) still plays much less of a role in large firm digital investments and governance set‐ups. Widely discussed examples like Tesla's investments in bitcoins are still far outside the norm. In more established firms, the supply of funding for digital innovation and transformation is usually either channeled via corporate venture mechanisms (Benson and Ziedonis 2009; Keil, McGrath, and Tukiainen 2009), built on “the catalyzing effect of corporate entrepreneurship” (Yunis, Tarhini, and Kassar 2018, p. 344), or by establishing joint ventures with other firms (for example, to invest in aggressive fiber infrastructure rollouts) in the ecosystem or financial investors. All are substantial fields of research by themselves. For larger‐scale digital transformations, this comes hand in hand with the mundane challenges of controlling the optimal use of invested capital on an operational level and in normal corporate planning cycles (Baumöl 2016; Schönbohm and Egle 2017).

While the accelerators and decelerators of this catalyst are often hard to quantify, they still represent an important element of any digital transformation.

Funding Payday Accelerators First and foremost, new sources of funding open additional sources of capital that can potentially be even cheaper than traditional funding mechanisms (e.g., hybrid sustainability bonds or joint venture investments to generate additional sources of capital at improved financing cost) if the respective financing or partnering entities for one reason or the other want to push these instruments into the market or establish a foothold in a certain segment. These financing savings can be quantified and considered as an accelerator. At the same time, the established new financing structures allow for different risk appetites and acceptance in the new portfolio, which can also be beneficial in more disruptive digital transformation journeys.

Funding Payday Decelerators Unfortunately, the new funding mechanisms do not come without any risks. Beyond the obvious fluctuations in any bitcoin‐related instrument any partnership and new source of capital might lead to very different payback expectations between partners. This can, in my experience, significantly increase the often‐hidden cost of governance, as substantial efforts must be made to keep the shareholders but also to some extent other stakeholders aligned on an often less overlapping strategic and financial objective than originally foreseen. This is even more true when the new sources of funding are concentrated on investments outside of the firm's core business, because there these experiments are easier to implement in new firm constructs and unusual capital structures and earn‐out models. All these further aspects amplify barriers to reach the goal of a positive impact on the core business later.

Table 4.10 clusters some key accelerators and decelerators for workforce skills depending on their typical tangibility.

TABLE 4.10 Funding payday drivers.

DriversLess TangibleMore Tangible
Accelerators
  • New sources of capital
  • Allowed higher risk appetite in the portfolio
  • Lower financing cost
Decelerators
  • Higher governance cost
  • Increased barriers to transfer to core business
  • Increased risks
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