August 28, 2019

Supply Chain Design - Important Points - Summary - Krajewski - 12th Edition


Chapter 12 Supply Chain Design


Learning Goals

Explain Strategic importance of supply Chain design

Supply Chains for Services and Manufacturing

Identify the nature of supply chains for service providers as well as manufacturers

Measuring Supply Chain Performance

Calculate the critical supply chain performance measures

Explain how efficient supply chains differ from responsive supply chains and the environment best suited for each type of supply chain.

Explain the strategy of mass customization and its implications for supply chain design


Outsourcing Processes, Vertical Integration. Make or Buy Decisions

Analyze a make or buy decision using break-even-analysis

------------------




A supply chain is the interrelated series of processes within a firm and across different firms that produces a service or product to the satisfaction of customers. More specifically, it is a network of service, material, monetary, and information flows that link a firm’s customer relationship, order fulfillment, and supplier relationship processes to those of its suppliers and customers.

Supply chain is responsible for customer satisfaction through its supply of products and services.

Supply chain management, the synchronization of a firm’s processes with those of its suppliers and customers to match the flow of materials, services, and information with demand, is an important management task in most organizations. A key part of supply chain management is supply chain design. The design of the supply chain has to enable the firm to meet the competitive priorities of the 
firm’s operations strategy.

Creating an Effective Supply Chain


An effective supply chain can be created by the recognition of external competitive pressures and judgments  sales, marketing, and product development departments regarding possible alternatives that are technically and financially feasible for the organization.

These pressures or trends that are to be recognized in the environment are: (1) dynamic sales volumes (periodic changes in demand), (2) customer service and quality expectations (they are increasing and customers are willing to pay competitive rates), (3) service/product proliferation (number of products and services to be offered by a firm are increasing), and (4) emerging markets (new consumption and supply locations are changing the market positions).

Supply Chains for Services and Manufacturing

Every firm or organization is a member of some supply chain.

The supply chain design for manufacturers has to focus on control of inventory by managing the quantities in the flow of materials. The typical manufacturer spends more than 60 percent of its total income from sales on purchased services and materials, whereas the typical service provider spends only 30 to 40 percent. 


Measuring Supply Chain Performance

Supply chains are to be designed for a specified performance which can be measured. Managers need performance measures to assess the implications of changes to supply chains. Inventory measures and financial measures are used to monitor supply chain performance and evaluate alternative supply chain designs.


1. Average aggregate inventory value = average inventory of each SKU multiplied by its value,
summed over all SKUs held in stock.

2. Weeks of supply = Average aggregate inventory value/Weekly sales (at cost)

3. Inventory turnover = Annual sales (at cost)/Average aggregate inventory value

Strategic Options for Supply Chain Design


A supply chain is  a network of firms. Each firm in the chain has to  design its own supply
chain.  Two distinct designs are available as strategic options:  efficient supply chains and responsive supply chains.

Efficient Supply Chains
Efficient supply chain design can be used in case of items with highly predictable demand (low forecast error). Many essential items of daily consumption have predictable demands. Ex: Food items, toiletries etc.

Made to stock production is the popular design for efficient supply chains.

Make-to-stock (MTS): The product is produced in response to  a sales forecast and sold to the customer from a finished goods stock through a retailer. The focus of the MTS supply chain is on efficient service, material, monetary, and information flows; and keeping inventories to a minimum in the supply chain. There is intense competition in these products and price becomes market winner. Contribution margins are low, hence efficiency is important to remain profitable in the business. Efficient supply chains are used wherein the competitive priorities are consistent quality and on-time delivery on the customer side and low-cost operations on the firm side.

Responsive Supply Chains
Responsive supply chains are designed to react quickly and service markets profitably even though they are uncertainties in demand. They work best when firms offer a great variety of services or products and demand predictability is low.

There are three types of designs for responsive supplychain: .Assemble-to-order (ATO):, Make-to-order (MTO):, and Design-to-order (DTO)


Mass Customization

A mass customization strategy when pursued in production and marketing  has three important competitive advantages.

Customer Relationships. Mass customization is based on detailed inputs from customers or data of customer behavior. The objective is to produce and deliver a product that satisfies the unique desires of a customer. By collecting data systematically and continuously, the firm can learn a lot about its customers. A significant competitive advantage is realized through this accumulated data and  the close customer relationships based on a strategy of mass customization.

Finished Goods Inventory. In mass customization, the final product is produced to a customer’s order and it is more efficient than producing to a forecast because forecasts are not perfect. The process has to be designed to have everything needed to produce the order quickly once it is received and the specification of the item is given.

Increase in Value of Services or Products. With mass customization, consumer often see  a higher value for the product in comparison to a standard product. This perception gives higher revenue to firms and provides  a bigger margin.

Outsourcing Processes, Vertical Integration. Make or Buy Decisions


How many of the processes involved in producing a saleable product or service should a firm own and operate? The answer to the question determines the extent of the firm’s vertical integration. The more processes  the organization performs itself, the more vertically integrated it is. If it does not perform some processes itself, it has to outsource them. It has to employ suppliers and distributors to perform those processes and provide needed services and materials.

What prompts a firm to outsource? It is the realization that another firm can perform the outsourced process more efficiently and with better quality than it can. Therefore external suppliers are added to the supply chains and internal suppliers (sections/shops/departments) are reduced.

Offshoring is a supply chain strategy that involves moving processes to another country.

Make-or-Buy Decisions
When managers opt for more vertical integration, less outsourcing occurs. The decisions related to vertical integration or outsourcing were earlied referred to as make-or-buy decisions. A make decision means more vertical integration and a buy decision means more outsourcing.


PART III: MANAGING SUPPLY CHAINS - Krajewski 12 Edition Chapters


12. Supply Chain Design

13. Supply Chain Logistic Networks

14. Supply Chain Integration

15. Supply Chain Sustainability

Supply Chain Management: Chopra and Meindl's Book Chapters - Important Points

Top Global Companies for Supply Chain Excellence - Supply Chain Strategies and Initiatives 

Index to Summaries of all Chapters of Krajewski's Book

Operations Management - Krajewski - 12th Edition - Chapter Summaries - Important Points

August 24, 2019

Management - Theories, Trends and Ideas for the Next 50 Years - McKinsey




Brilliant Machines

Connected Cars

Corporate Longevity

Elevating Women

The Future of Capitalism

Industry Growth in Emerging Economies

Lean is Still Strong

Organization Theory for the Future

The Productivity Imperative

Strategies for the Future



https://www.mckinsey.com/quarterly/overview/management-the-next-50-years

August 17, 2019

Types of Data Scientists and Organizing Data Science and Analytics Department




To hire the right people for the right roles and organize the data science department, it’s important to distinguish between different types of data scientist.

One type of data scientist creates output for the decision makers to use  in the form of product and strategy recommendations. They are decision scientists. The other creates output for using on machines like models, training data, and algorithms. They are modeling scientists.

Five key areas are required for  data science operations. In small organizations, one person may  do several of these things. In slightly bigger teams, each of these may be a role staffed by one or more individuals. In larger operations, each may be a team unto itself. These roles cover the creation, maintenance, and use of data.

Data infrastructure: data ingestion, availability, operations, access, and running environments to support workflows of data scientists. e.g. running a Hadoop cluster

Data engineering: determination of data schemas needed to support measurement and modeling needs, and data cleansing, aggregation, ETL, dataset management

Data quality and data governance: tools, processes, guidelines to ensure data is correct, gated and monitored, documented, standardized. This includes tools for data lineage and data security.

Data analytics engineering:  analytics software libraries, productizing workflows, and analytic microservices.

Data-product product manager: creating products for internal customers to use within their workflow, to enable incorporation of measurements and outputs created by data scientists. Examples include: a portal to read out results of A/B tests, a failure analysis tool, or a dashboard that enables self serve data and root cause diagnosing of changes to metrics or model performance.

How to organize Data Science Department?

Source
The Kinds of Data Scientist
Yael Garten
HBR, NOVEMBER 2018
https://hbr.org/2018/11/the-kinds-of-data-scientist

August 4, 2019

The Science and Practice of Management - Hamilton Church 1914 - Introduction


The Science and Practice of Management - A. Hamilton Church 

Copy Right:1914, Published 1918


"Two tasks are set for the worker in any science. One of these is to enrich the chosen field by the discovery of new facts and the statement of new experiences. The other . . . is to arrange the facts already known in 'the 'best order and to bring out the relations between them as closely as possible. Whenever progress in the first of these tasks has been rapid, the second becomes the more necessary, for it offers the only possible way of attaining mastery . . . and of bringing the science as a whole into a convenient and serviceable "form." — Wilhelm OSTWALD, " Fundamental Principles of Chemistry."

 In the spring of  1912, in conjunction with Mr. L. P. Alford, editor of the American Machinist,  I undertook an at  attempt to reduce the regulative principles of management to their simplest terms — that is, to express them in the broadest and most general way — and thus to provide a basic classification for administrative activity on which a detailed structure could subsequently be built up. We found that all the different working principles common in manufacturing could be reduced to one of three main groups, viz. :

(1) The systematic accumulation and use of experience.

(2) The economic control (or regulation) of effort.

(3) The promotion of personal effectiveness.

These regulative principles were afterward endorsed and adopted in the majority report of the special committee appointed by the American Society of Mechanical Engineers to investigate the new systems of management — a fourth principle, namely, the "transfer of skill," being added to them by the committee.

I contributed a series of articles to The Engineering Magazine (January-June 1913), in which the application of these principles was worked out. These articles were termed "Practical Principles of Rational Management", because at that time the peculiar feature of the modern system seemed to be the introduction of reasoning into management, as opposed to the old rule-of-thumb school.


Two Elements in Management: Determinative and Administrative


The first of these is the Determinative element, which settles the manufacturing policy of the business — what to make — and the distributive policy — where to sell and by what means. The second is the Administrative element, which takes the policy as determined, and gives it practical expression in buying, making, and selling.

Of these two elements, which are not infrequently combined in small businesses, the first — the Determinative — represents the higher and scarcer faculty.

The time has, perhaps, not yet come when we may reduce the Determinative element to a body of principles, or even working rules. It contains, today, too many unknown and variable factors. This book, therefore, makes no attempt to deal with this aspect of industry; it covers the element of Administration alone, and only one division of administration, namely, manufacturing. The administrative problems of Selling and Distribution are excluded from consideration in its pages.

Management, or rather administration (eliminating the determinative element), is an organic affair.
what is meant by the term "organic". The analogy of the human body gives the simplest illustration: the work of the great and lesser "organs" of the body, the heart, lungs, brain, etc., is independent yet coordinated. One of these organs may be working at a higher efficiency than the others, or vice versa, but on the balanced working of the whole set depends the health of the man, and his efficiency for whatever he wants to do — riding, walking, writing a poem, or dictating a business letter. Some
of these organs may fall into a state of inefficiency without marked results being at once visible, or again some one of them may be permanently lowered in efficiency without hindrance to particular kinds of work. But with each there is a point beyond which organic inefficiency cannot go without disaster.

Thinking along these lines, the author's attention was given to determine, if possible, what organic elements were to be found in industrial activity.

What we do find are groups of activities common to all industry, which groups are organic; that is, they perform specific functions in a specific way. Like the organs of the body, they are independent, yet closely co-ordinated.

Two great intellectual processes: Synthesis and Analysis


THE problem of management, broadly  regarded, consists in the practical application of two great intellectual processes. Whatever the end aimed at, whether the conduct of a military campaign or the manufacture of an industrial product, the processes involved are those of analysis and synthesis. In proportion as analysis is keen and correct, and synthesis is sure and unerring, so will be the resulting efficiency.

The neglect of analysis and the forceful use of synthesis are typical of the successful businesses of the past. The strong, shrewd, 'practical'  man could afford to neglect a careful analysis of his problem, because he had a very large margin of profit to draw on. His wastes were great, his lost opportunities many, but he knew nothing about them and cared less, because his operations were successful in proportion to his expectations. If his profits were not, as we can see now, as large as they should have
been, they were at least as large as those of everyone else.

During the last fifteen years there has been a considerable development of the art of analysis in the problems of management.

The introduction of the premium plan with the widespread notice it attracted, emphasized the need for more accurate determination of times, and as this happened in the machine-shop industry, which is of all industries the most complex and varied both in its machines and its product, it was found that some new departure was needed.

To meet this need, the particular kind of analysis now known as ''time study" was rediscovered.

The observations made by time study very soon disclosed the fact that great inefficiencies existed in and between these various kinds of work which are involved in production of a given piece.

From time study to motion study (itself also a method of analysis reaching back to the early beginnings of the use of machinery) is a natural step. Having ascertained that unit processes are in fact made up of a series of steps, and having recorded these steps and allotted times to them, it was a natural development to apply criticism to the steps themselves. Why should this be done, and why that? Why should the man bend down to pick up the material rather than the material be lifted up to the man? Why? indeed! The moment questions of this kind got into the air, it very soon became thick with them. The work of Mr. Gilbreth on motion study must be regarded as the most original contribution to the science of management that has yet been made.

The routing of product and the lay-out of machines is, then, a further development of the instrument of analysis that has very important bearing on efficiency.

The only difference between modern types of planning and the older practice is that, today, it is recognized as a subject of analysis, and that the planning department, or by whatever name it is known, is not merely a haphazard outgrowth of the business, but is organized after a careful analysis of the needs of the plant, with special reference to the kind, urgency, and aim of the operations carried on.

The really important point is the correct and exhaustive application of analysis to the actual facts of the case, that is, to the nature of the product, of the machines, of the men, and of the officials. Only when these facts are exhaustively known, may the design of a planning department commence.

Analysis is not a constructive instrument. We can make nothing by its aid. It distinguishes, it provides very accurate knowledge, it eliminates, but it does not build. That is the task of synthesis.

What then is synthesis! What kind of activities are grouped under that head? In what does it differ from analysis, and in what practical ways is it applied? These are interesting questions and will be briefly discussed.

Just as analysis is the art of separating and dissecting, so synthesis is the art of combining. As a practical art it naturally precedes analysis, or more correctly it precedes conscious analysis. While the elements of a problem are simple, the mind, intent on its aim, analyzes unconsciously to a degree sufficient for its needs. But in proportion as the number of elements grows — and in modern industry they have grown to a very large number — then conscious analysis must be brought into play, not to supersede hut to supplement the operations of synthesis.

The main distinction between synthesis and analysis in this connection is that synthesis is concerned with fashioning means to effect large ends, and analysis is concerned with the correct local use of given means. The view taken by synthesis is a wide and comprehensive one; it surveys the whole field of action ; its great task is to determine  " what to do". The view taken by analysis, on the other hand, is a narrow and limited one ; it concerns itself with the infinitely small. Its task is to say 'how to use certain means to the best advantage". Analysis builds up from the deeps. It may or may not its contribution to the whole.

But the synthetical side of management demands that every effort of analysis, like every other effort made in the plant, shall have some proportion, some definite economic relation to the purpose for which the business is being run.

The method of synthesis is to combine functions, that is, specific kinds of aim, in such a way that their co-operation produces some distinct and useful result. It is important to notice that industrial synthesis is not a mere combination of men, it is a combination of grouped activities or functions. It sets up a group of activities here.

It is evident therefore that the study of functions is of the greatest importance. But functions are a product of synthesis — analysis would never organize them nor coordinate them.

 But in beginning synthetically we should not take this point of view. We should first ask what was the objective of the whole organization.Thereafter we should proceed by erecting groupings successively less and less comprehensive.

Manufacturing - Five Organic Functions


In a manufacturing industry, according to the writer's examination of the subject, the objective of the whole, namely, production, is realized by a synthesis of five organic functions, which are invariably present in every type of industry, but to very different extent in each,
These five Organic Functions are:


  • Design, 
  • Equipment, 
  • Control, 
  • Comparison, and 
  • Operation. 



Consequently we can say that production is a synthesis of Design, Equipment, Control, Comparison, and Operation.

The important point is that both the elementary and the highly developed condition in which we find this function, design has Again, the nature of the Equipment, and the method of its employment, may be entirely different in a paper mill, a foundry, and a soap factory ; but yet each must have equipment, and in each certain laws as to the use of such equipment must be observed in the same way. In each there will be a layout more efficient than any other, in each there will be decay and replacement of equipment, depreciation, maintenance and repair, etc., quite irrespective of the kind of equipment or its uses. On the other hand, the lay-out of equipment will be much more important in some industries than in others. Product that can be pumped through pipes, or conveyed on endless bands, is much more independent of physical lay-out than one which demands great effort to move it even a short distance. Every variety of equipment will have its own problems, but a large number of these problems are common ; that is, they differ in degree and not in kind. But in no case is equipment absent altogether exactly the same.

The function of Control is also obviously common to all manufacturing plants. Broadlv stated it is the function of the "boss". But no industry exists in which control does not need intelligent organization
on its own merits.

Similarly, there is no industry in which the function of Comparison does not exist. For comparison deals with the record of quantities whether such quantities are expressed in time, money, degrees, levels, or other notation. It therefore includes testing, inspecting and cost accounting. Any data which are of significance at all, are only so by comparison. This comparison may be with previous or future work of the same kind, or it may be with standards. And such standards, again, may be specified standards set up by Design, such as limits, fits or dimensions, or may be comparisons between time allowed for a job, and time taken, or may deal with physical standards such as temperatures, pressures, degrees of vacuum, specific gravity and so forth. But all these cases postulate two things: (1) the observation and record; (2) something by which to judge the value of the observation and record. No industry is without need for some of these methods of comparison, while in many industries a very considerable development of the function is both proper and profitable.


The final Organic Function found in manufacturing is that of Operation. This comprises the exercise of manual skills, trades, and callings, usually by way of operating-machines, but not necessarily so. Operation is definable as the act of changing the status (that is, the form, dimension, or composition) of material in accordance with the specification of Design. In practical language it is the work of the
shops, but only the operative work of the shops. It does not include foremanship, which is part of Control; or inspection, which is part of Comparison. It goes without saying that Operation is a function present in every plant of every kind.

Industrial synthesis may be defined as the proportioning of means to ends. Analysis, in the same sense, is the study of the adroit use of certain specified means in the most efficient way. The difference is that in analysis we assume the means are as they are. In synthesis it is the choice, the relative effectiveness, the right proportion, the right kind of means that is in question. Synthesis is the physical (gross), analysis the miscroscopical examination of the problem. Synthesis chooses and combines, analysis discusses and reveals. It is evident that we are here in presence of two processes that need to complement each other.

The art of managing an industrial plant so as to effect production most efficiently must be recognized therefore as consisting of two parts. First, the right use of synthesis — determination of the kind of organic functions needed to be set up, their due proportion, their proper balance, and their internal organization; and secondly, the right use of analysis — the investigation of the minute steps, the small stages by "which product advances from stage to stage from the status of raw material to the status of finished goods. Of these two parts, the correct use of synthesis is by far the most important, as will be understood when it is realized that the systematic use of analysis is only now being introduced into industry. All the not inconsiderable triumph is of industry in the past were realized with a trifling use of analysis, and that mostly instinctive and unconscious.

To suppose that analysis is a method of management instead of an instrument of management is a fatal error, that has been becoming rather common of late. It seems desirable therefore to emphasize its due place, and to recall the fact that the results of synthesis remain those by which management will be finally judged in all cases.

THE  VERY administrative act arises from an aim or desire to do something. Examination shows us that five separate varieties of aim are distinguishable in manufacturing administrative work, and that this an analysis is exhaustive, i. e., no aim or end exists in manufacturing that cannot properly be as-
signed to one of these categories.

Each of these separate aims should have, normally, its own separate organization for bringing about the results it seeks, and each may therefore be regarded as a true type of Organic Function, These functions have already been enumerated as follows : —

1. Design, which originates.

2. Equipment, which provides physical conditions.

3. Control, which specifies duties, and which orders.

4. Comparison, which measures, records and compares.

5. Operation, which makes.

These organic elements of administration are specific functions and not things. They are elemental facts; not tangible entities, but facts of observation. Thus they imply different kinds of mental activity. The art of organization consists in entrusting these different kinds of mental activity to the right persons, and in supervising their co-ordination. It is very important, therefore, that the scope and limits of each function shall be as sharply defined as possible.

These organic functions (if correctly stated) are obviously basic and fundamental divisions of manufacturing activity. They form natural lines of organization to which all manufacturing organization must conform, irrespective of the taste or will of the organizer. Consequently, it follows that those organizations that conform to these primary elements in the most simple, the clearest and the most direct way, will be the most efficient examples of manufacturing administration.


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Industry 4.0 Top Consultants Reports, Opinions, Thoughts and Views



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https://www.mckinsey.com/industries/private-equity-and-principal-investors/our-insights/growing-opportunities-in-the-internet-of-things

CEOs are Talking About APIs, AI and ML
June 2019
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2018



Industry 4.0 is here. Why hasn’t your company adopted it?
ANDY DAECHER
Deloitte
Global survey of 361 business executives from organizations in seven industries (aerospace and defense, automotive, chemicals and specialty materials, industrial manufacturing, metals and mining, oil and gas, and power and utilities)

94 percent said that digital transformation is a top strategic objective for their organization.
But only  68 percent see digital transformation as a medium for profitability.

But,  11 percent of R&D budget targeted for digital transformation.
https://www.deloittedigital.com/us/en/blog-list/2018/industry-4-0-is-here--why-hasn-t-your-company-adopted-it.html


The fourth industrial revolution is here
Are you ready?
Deloitte
Deloitte surveyed 1,600 C-level executives across 19 countries
https://www2.deloitte.com/nl/nl/pages/consumer-industrial-products/articles/industry-4-0-readiness-report-2018.html


The Industry 4.0 paradox Executive summary
https://www2.deloitte.com/insights/us/en/focus/industry-4-0/challenges-on-path-to-digital-transformation/summary.html


The global Industry 4.0 market will reach $214B by 2023.


The "Industry 4.0 Technologies Market (Industrial Robotics, 3D Printing, AI, Big Data, Cybersecurity, Cloud Computing, H&V System Integration, Industrial IoT, Sensors, Simulation, VR, AR) – 2018-2023" report forecasts that the global Industry 4.0 market* will reach $214B by 2023.
https://www.prnewswire.com/news-releases/the-global-industry-40-market-will-reach-214b-by-2023-300609800.html

Five questions for Tobias Richter
What exactly does an Industry 4.0 technician do?
https://www.bosch.com/explore-and-experience/industry-4-0-consultant/

Industry 4.0: Global Digital Operations Study 2018 - PWC
https://www.pwc.com/gx/en/industries/industry-4-0.html



Transition to a Cognitive Supply Chain

Five key areas of the supply chain - Transitioning to a cognitive supply chain.
https://www.tcs.com/blogs/building-a-cognitive-supply-chain-for-industry-4-0




2017

How Intelligent Machines will transform everything
Markus Lorenz
BCG
TED@BCG

___________________

___________________

Six key dimensions to Industry 4.0
13 December 2017
https://home.kpmg.com/uk/en/home/insights/2017/12/six-dimensions-to-industry-4-0.html

Industry 4.0 – Starting the next industrial revolution in Germany
13.12.2017

Combining mechanical and electrical engineering with informatics yields an entirely new way of industrial production called Industry 4.0. The progress made in Germany seems to be the benchmark  for the rest of the world.
https://home.kpmg.com/de/en/home/insights/2017/12/industry-4-0-industrial-revolution-in-germany.html


HfS Blueprint Guide: Industry 4.0 Services

Excerpt for Accenture
April 2017


Industry 4.0 Framework: The Digital OneManufacturing Organization
Digital OneManufacturing is the abxility to do mass customization at scale so that manufacturing enterprises manufacture for one customer economically and efficiently. This is possible as  manufacturing enterprises can achieve a significant increase in cost efficiency, time productivity, and
flexibility, by aligning and integrating their manufacturing processes and technology landscape, which is possible in Industry 4.0 manufacturing environment.

The three pillars of Digital OneManufacturing
Digital Underbelly: 13 major technologies that are shaping Industry 4.0.
include Manufacturing Data Analytics, Robots, Manufacturing Automation, Digital Clone or Simulation, Three-Dimensional (3D) Printing, Manufacturing Internet of Things (IoT), Plant Cybersecurity, Manufacturing on Cloud, Virtual Reality in Manufacturing, Augmented Reality in Manufacturing, Artificial
Intelligence in Manufacturing, Visual Analytics in Manufacturing, and Small Batch Manufacturing.

Scope: These Industry 4.0 technologies can be implemented on the manufacturing shop floor at five levels:
smart component, smart machine, digital factory, connected factories, and Industry 4.0 enterprise.

Intelligent Digital Processes: These processes enable smarter and more intelligent manufacturing. There are described as three functions that are enabled by digital manufacturing processes: analysis, visualization, and control.

Levers of Industry 4.0

The links between the digital underbelly and intelligent digital processes are the following capabilities or levers:

Cyber-Physical System:
Smart Machines:
Data Flow:
Mass Customization:
Virtual Manufacturing:
Lean Manufacturing and Resource Management:

The following list of
competitive advantages: a manufacturing firm can expect from the implementation of Industry 4.0:

Manufacturing Process Optimization:
Streamlined Supply Chain:
Improved Inventory Management:
Better Resource Management:
End-User-Centric Manufacturing:
https://www.accenture.com/t20180625T094010Z__w__/us-en/_acnmedia/PDF-52/Accenture-Industry-4-Excerpt-for-Accenture-Report.pdf


2016

A Strategist’s Guide to Industry 4.0
strategy+business:
May 9, 2016 / Summer 2016 / Issue 83
Reinhard Geissbauer, Jesper Vedsø, and Stefan Schrauf, PWC


Updated on 4 August 2019,
17 November 2018


Corporate Theory - Todd Zenger



Corporate Theory - it is a guide to the selection of strategies




I offer what I call the corporate theory, which reveals how a given company can continue to create value. It is more than a strategy, more than a map to a position—it is a guide to the selection of strategies. The better its theory, the more successful an organization will be at recognizing and composing strategic choices that fuel sustained growth in value. - Todd Zenger, in an Harvard Business Review Article, 2013

http://hbr.org/2013/06/what-is-the-theory-of-your-firm/ar/1


We may think of entrepreneurs as scientists. They engage in theory development about possibilities and associated testing.

Entrepreneurs as Theorists
Teppo Felin and Todd R. Zenger
Strategic Entrepreneurship Journal
3: 127-146 (2009)


Teppo Felin - Google Site
https://sites.google.com/site/teppofelin2/


What Sets Breakthrough Strategies Apart
Magazine: MIT Sloan Review Winter 2018 Issue
Innovative strategies depend more on novel, well-reasoned theories than on well-crunched numbers.
https://sloanreview.mit.edu/article/what-sets-breakthrough-strategies-apart/

Updated on 5 August 2019, 4 June 2014


Practical Application of Science and Principles of Management - A. Hamilton Church

Book: The Science and Practice of Management, A. Hamilton Church 1914/1918

Organic Functions of Manufacturing Management/Administration: 

Design, Equipment, Control, Comparison and Operation

Principles of Management



  • Accumulate Experience and Use in Setting up new production units 

  • Regulate Effort of Machines and Men

  • Division of Effort
  • Coordination
  • Conservation - Efficiency - Productivity
  • Remuneration proportional to Effort

  • Increase Productiveness of Effort of Each Individual



Organizing the Function of Design


PRINCIPAL APPLICATIONS OF ANALYSIS IN REGARD TO DESIGN.
Related to Manufacture of Machinery

1. Analysis of the machine or other product into unit parts or components.

2. Analysis of each part into process units corresponding with operation units {e.g., planing, drilling, etc.)

3. Analysis of each process unit into two varieties  of work, namely, preparation or setting, and
operation.

4. Analysis of each of these varieties into its elements, namely, the several steps necessary
to do the work.

5. Time study of each of these separate steps. The aggregate of time required for all the
steps of preparation becomes a standard time. Similarly with time required for all
the steps of operation.

6. Motion study of preparation and operation steps may be desirable, when the frequent
repetition of the same work makes it remunerative.

7. In connection with (2) above, it may be  found necessary to specify the use of certain tools, jigs, etc. These may, in some cases, require designing and constructing. Then their use requires analysis and study in the same manner as components.

Analysis of the method of operating machines, apart from individual items of product, is a part of Operation Function.


Organizing the Function of Equipment 



The selection and installation of equipment has a separate set of efficiencies from its current working or administration. Careful selection and arrangement according to the Laws of Effort is essential unless the plant is to be burdened, more or less permanently, with inefficient conditions, since it is the function of equipment to provide suitable conditions for production in every department.

Similarly, when the equipment has been installed, a large part of the conditions it sets up are made effective only by efficient administration. The administrative side of equipment deals with maintaining suitable conditions. However good the equipment and however skillfully it may have been arranged in the first instance, the realizable efficiency will depend on whether the Laws of Effort are being observed in running it. Some of the principal ways in which the laws 
are applicable have been indicated. 

Both in installation and administration of equipment, there are standards to be ascertained, and lived up to. These standards are also subject to rectification and improvement from time to time. When both the original standards of installation and the current standards of administration are high, the function will be working at its best. If either of them has been organized without reference to standards, efficiency is a matter of luck and will probably be much lower than it should be. 

PRINCIPAL APPLICATIONS OF ANALYSIS IN REGARD TO EQUIPMENT.

1. Analysis of the proposed product, with a view to determine what kind of equipment must
be provided to handle the volume of work expected.

2. Quantitative analysis of the different kinds of equipment service that will be required, under the principal divisions of: — power plant; storage, handling and conveying facilities; operation equipment ; offices ; and the buildings that will be required to house these arrangements.

3. Determination of space allotment required for buildings, yards, offices and machinery,
based on (2).

4. Analysis of route to be followed by product, persons and communications between  departments.

5. Analysis of route to be followed by product,  persons and communications within departments or shops.

6. Arrangement of buildings, yards, offices and machinery to the best advantage in regard
to the space available, based on (4) and (5).



Organizing the Function of Operation


PRINCIPAL APPLICATIONS OF ANALYSIS IN REGARD TO OPERATION.

1. Analysis of the different skills, trades, callings and machine processes into operation units.
(Note. — Units of design must correspond exactly with these operation units.)

2. Analysis of the scope or range of each machine, where it is capable of performing more than one operation, or can be varied in capacity, speed, feed, etc.

3. Analysis, by means of motion study, of the various steps of feeding material to and operating each machine. This is the most valuable field for the employment of motion study, inasmuch as the now standards thus set up can be fostered into new habit on the part of the operator.

4. Analysis of the productive capacity of each machine or "production center", so that a "loading standard" can be set up. The average amount of product turned out in a given period can then be calculated and made use of in arranging sequence of orders and making promises of delivery.

5. Analysis of the "total effective production capacity" of the plant, based on number of working hours in a given period, so that "capacity used" can be distinguished from "capacity wasted", and thus a measure of the general efficiency of production in each shop set up.

Note. — The analysis of individual items of product by time or motion study is a part of Design.


Law of Efficient Flow 

page 388

Maximum efficiency as regards flow is achieved when each machine in the plant is continuously engaged in producing one single component of the product, the output of the various machines being so proportioned that all the components turned out in the shop are assembled as fast as they are produced ; also where the supply of raw material is so provided for that the quantity of raw material carried in stock is not more than absolutely necessary to prevent shortage which would stop the stream of production. Further, on the commercial side the flow of work is at its best when the manufactured and assembled product is sold and delivered as fast as it leaves the shop. 

These conditions can rarely be realized in the kinds of business that approximate to the ''engineering"  but for any type of business they represent what would be the highest efficiency— because the quickest turning over of capital— could they be realized. The nearer any business can approach these ideal conditions the nearer it will be to absolute efficiency, regarded from the point of view of the flow of work. Properly regarded these conditions become a measuring rule by which to compare the actual conditions in a plant. Some of them will be seen at once to be impossible of attainment owing to the nature of the work, but the most skillful organizer will be he who gets with the means at his disposal the nearest approximation to this continuous stream of production that his conditions will allow.


PRINCIPAL APPLICATIONS OF ANALYSIS IN REGARD TO COMPARISON.

1. Analysis of operation sequences, to determine at what points inspection is necessary.

2. Analysis of all accessory services (power, etc.) to determine the points at which observation
and record are necessary.

3. Analysis of operation sequences, to determine between which points costs should be taken
out.

4. Analysis of the different sources of wastes, to determine at what points they should be ob-
served and recorded.

5. Analysis of the material situation, to determine what varieties of material should be
subjected to chemical examination or physical inspection on receipt in stores.
6- Analysis of burden to determine how it should be charged against production capacity.



PRINCIPAL APPLICATIONS OF ANALYSIS IN REGARD TO CONTROL. 

1. Analysis of the material situation, to determine its requisition, purchase-ordering, receiving, storing, handling or conveying, and issue to shops. 

2. Analysis of the product situation, to determine its receipts by shops, passage from production center to production center, and subsequent delivery into stores or warehouse. 

3. Settlement of spheres of duty, based on (1) and (2). 

4. Analysis of the customers' order situation, to determine how they shall be received, accept- 
ed, delivery promises made, dissected departmentally, and passed to persons concerned. 

5. Settlement of spheres of duty based on (4). 

6. Analysis of the employment question, to decide on appointments, qualifications, and 
rates of wages or salaries. 

7. Determination of the method to be adopted as to rate fixing for piece-work, or bonus jobs — 
whether based on time study, standard price-lists, or fixed by a foreman or rate-setter. 

8. Settlement of spheres of duty based on (6) and (7). 

9. Analysis of the stages at which, in complex industries, instructions have to meet material, with a view to establishing a control office or planning department to co-ordinate such movements. 

10. Settlement of spheres of duty based on (9).


Five axioms of administration - All of them of prime importance.


1. Skill can be transferred to, and embodied or stored in appliances.

2. Interchangeability of parts is frequently desirable.

3. Lower unit cost normally implies increased capacity for output.

4. The amount of direct labor and of burden in unit cost, and not the ratio or percentage, is alone
the test of efficiency.

5. Capital is a factor in cost.

It is not supposed that this is an exhaustive presentation of all the important axioms of administration, but it is believed that these are the most important and fundamental. They are presented in this detached, independent form since none of them is directly-derivable from the principles already enumerated, yet none of them can be regarded in itself as a regulative principle. They are rather statements of fact, so nearly self- evident after a little examination as to be beyond all challenge.