Chapter 6: Moore's Law & Hardware

Meet Bluey, your cute blue study buddy. Bluey is here to help you review the biggest ideas from Chapter 6, including Moore’s Law, price/performance trends, multicore chips, cloud computing, latency, bandwidth, e-waste, and Disney’s MagicBand.

This page is built to help you study faster with clean definitions, quick examples, and five application-based multiple-choice questions.

Moore's Law
Multicore & Parallelism
Cloud & Latency
E-waste
MagicBand
🐶

Hi, I'm Bluey!

I want to help you study smarter, not harder. Scroll down for key terms, chapter examples, and a quiz that matches your professor's rules.

Big Idea 1

Technology keeps getting cheaper and more powerful, which changes what businesses can build and what customers expect.

Big Idea 2

Hardware design matters strategically because speed, compatibility, switching costs, and cloud access can shape competition.

Big Idea 3

Managers also have to think about environmental impact, project coordination, infrastructure limits, and long-term disruption.

Key Vocabulary & Definitions

Moore's Law

The widely used managerial interpretation of Moore’s Law says that for the same money, computer chips will be about twice as fast or store about twice as much data in roughly eighteen months, or chips with the same performance will cost about half as much.

Why it matters: Managers should expect rapid improvement in cost and performance when planning products, investments, and timing decisions.

Price/Performance Trend

A price/performance trend means that technology keeps improving so users can get more computing power, storage, or transmission speed for the same price over time.

Price Elasticity of Demand for Technology

Demand for computing is highly elastic because when computing becomes cheaper, people buy more of it and create new uses for it, which can lead to entirely new products and markets.

Semiconductor

A semiconductor is a material that conducts electricity under some conditions and blocks it under others, making it the foundation of modern computer chips.

Transistor

A transistor is a tiny electronic switch that can turn on or off to represent binary data and perform calculations inside a chip.

Bit

A bit is a binary digit, either 0 or 1, and it is the smallest unit used to represent data in a computer.

Byte

A byte is a unit of storage equal to 8 bits and is often used to measure files and storage capacity.

Multicore Processor

A multicore processor places two or more processing cores on the same chip so tasks can be handled more efficiently, often with less heat and lower power use than a single very fast core.

Parallel Processing

Parallel processing solves a problem by dividing it into smaller parts that multiple processors can work on at the same time.

Grid Computing

Grid computing uses existing computers connected through software to work together like a much larger computing system.

Cluster Computing

Cluster computing links multiple servers together through software and networks so they function as one computing resource.

Cloud Computing

Cloud computing lets organizations rent computing power, storage, and related services over the internet instead of buying and maintaining all hardware themselves.

Latency

Latency is the delay between sending a request and getting a response back, so it measures how quickly data starts moving or returns from another system.

Bandwidth

Bandwidth is the amount of data that can be moved over a connection in a given amount of time.

E-waste

E-waste is discarded electronic technology that may contain harmful materials and can create environmental damage if it is not recycled or disposed of responsibly.

Chapter 6 Examples That Matter

Apple's M-Series Transition

  • Apple improved speed and power efficiency with redesigned chips.
  • A major risk was compatibility with older software.
  • An emulator helped older apps still work during the transition.
  • This shows why architecture decisions are strategic, not just technical.

Cloud Computing & AI

  • Organizations can now rent high-performance computing instead of owning a supercomputer.
  • This lowers upfront cost and increases access.
  • But cloud use can create latency and security concerns because data must travel over networks.
  • This is especially important for AI, which is often processed in the cloud.

Chip Fabs as Barriers

  • A fab is a semiconductor manufacturing plant.
  • Fabs are extremely expensive and require massive power, water, and specialized facilities.
  • That makes chip manufacturing hard to enter and can concentrate production among a few firms.
  • This also creates geopolitical and supply chain concerns.

Disney MagicBand

  • MagicBand combines admission, payments, hotel access, and guest tracking into one system.
  • The front-end wearable depends on a huge back-end system for data capture, coordination, and analytics.
  • Disney used data to reduce wait times, improve staffing, and increase guest spending.
  • This shows how hardware, data, and information systems work together for business value.

Latency vs. Bandwidth

  • High bandwidth means a lot of data can move at once.
  • Low latency means responses arrive quickly.
  • Streaming needs strong bandwidth, while gaming and live class tools also need low latency.
  • Managers should match the network need to the task.

E-Waste & Responsibility

  • Fast improvement in devices can also increase discarded electronics.
  • Improper recycling can expose people and ecosystems to toxic materials.
  • Managers should audit recycling and disposal partners carefully.
  • AI and robotics may improve sorting and recycling in the future.

5 Practice Multiple-Choice Questions

1.

A student startup wants to build an app that uses AI to turn class notes into custom practice quizzes. Last year, the founders thought this would be too expensive because they would need a lot of computing power. Now they see that cloud-based AI tools are cheaper and easier to access than before. They believe the idea is now realistic for a small team with a limited budget.

Which concept BEST explains why this startup idea may become practical over time?

A. Switching costs
B. Moore's Law and related price/performance advances
C. Brand loyalty in consumer markets
D. Vertical integration in manufacturing

Correct answer: B

Explanation: This scenario is about computing becoming cheaper and more capable over time, which is the key managerial meaning of Moore’s Law and related fast/cheap technology trends. That is exactly why an idea that once seemed too expensive can become realistic later. A is wrong because switching costs describe how hard it is to move from one system to another. C is wrong because the issue is not customer preference for a brand. D is wrong because the startup is not solving its problem by owning more of the production chain.

2.

A campus gaming club is trying two internet plans for its tournament room. Plan One has very high bandwidth but sometimes players notice a delay between pressing a button and seeing the action on screen. Plan Two moves a little less data overall, but the response feels more immediate. Club leaders care most about making gameplay feel smooth and responsive.

Which factor is MOST important for the club to prioritize?

A. Lower latency
B. Larger storage capacity
C. Greater byte size
D. Higher switching costs

Correct answer: A

Explanation: Online gaming depends heavily on low latency because players need actions to register almost instantly. The scenario says the biggest problem is the delay between action and response, which points directly to latency rather than total data volume. B is wrong because storage capacity does not solve live gameplay delay. C is wrong because byte size is a storage measure, not the key issue here. D is wrong because switching costs describe lock-in, not network responsiveness.

3.

A company is considering entering the advanced chip manufacturing business. Executives learn that a fab can cost tens of billions of dollars, needs massive water and power systems, and requires highly specialized cleanrooms and equipment. After reviewing the numbers, they decide that entering this market would be extremely difficult for a new firm.

Which barrier to entry is MOST significant in this scenario?

A. Network effects
B. Customer data lock-in
C. Capital intensity
D. Low price elasticity

Correct answer: C

Explanation: The scenario focuses on the massive upfront investment needed to build and operate a fab, which is a classic example of capital intensity. When entering a market requires enormous spending on facilities and infrastructure, new firms face a major entry barrier. A is wrong because network effects depend on user growth making a product more valuable. B is wrong because no lock-in based on stored data is described. D is wrong because elasticity is about demand changing with price, not entry cost.

4.

A design student buys a new laptop with a multicore processor for video editing. Some of her old software still runs, but only modestly faster than before. Her professor explains that the biggest gains from multicore chips happen when software is designed so different parts of a task can be handled at the same time. She realizes that not every kind of program benefits equally from the new hardware.

Why might the new laptop fail to deliver the full performance gain the student expected?

A. The laptop stores files in bits instead of bytes
B. The software may not be rewritten to divide tasks across multiple cores
C. The processor cannot run any older programs at all
D. The laptop needs higher switching costs to unlock more speed

Correct answer: B

Explanation: Multicore chips work best when software is written or adapted so separate parts of a task can run in parallel. The scenario directly states that her biggest gains depend on dividing work across multiple cores, so B is the best answer. A is wrong because bits and bytes are units of data, not the reason multicore performance is limited. C is wrong because multicore processors can often run older software, just not always with full advantage. D is wrong because switching costs have nothing to do with processor speed.

5.

A theme park introduces a wristband that lets guests enter rides, open hotel rooms, pay for food, and receive better service based on where they are in the park. The device seems simple on the surface, but the project requires many systems to work together behind the scenes. Managers use the data from the wristband to improve staffing, reduce wait times, and increase sales.

Which interpretation BEST explains why this wearable creates business value?

A. It works mainly because it reduces the need for any back-end systems
B. It creates value mainly because guests enjoy wearing new gadgets
C. It creates value because one device replaces the need for business processes
D. It creates value because the front-end device is connected to many back-end systems and analytics capabilities

Correct answer: D

Explanation: The wearable creates value because it connects guest actions to a larger information system that collects data, coordinates services, and improves decisions. The scenario highlights system integration, analytics, staffing, and wait-time reduction, which all depend on powerful back-end support. A is wrong because the chapter emphasizes that projects like this require extensive back-end systems. B is wrong because novelty alone does not explain the operational gains. C is wrong because the device supports business processes rather than replacing them.

Source Notes / Citations Section

Primary Textbook: Gallaugher, John. Information Systems: A Manager's Guide to Harnessing Technology (with SmartGrader for Excel), v10.1.4.

Course Materials: University of Texas at Austin, MIS 301 course slide deck (Chapter 6: Moore’s Law & Hardware).