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MDGRAPE-3 Supercomputer System

At a Glance

Title: MDGRAPE-3 Supercomputer System

Total Categories: 6

Category Stats

  • MDGRAPE-3: System Overview and Development: 4 flashcards, 7 questions
  • MDGRAPE-3: Architecture and Components: 8 flashcards, 19 questions
  • MDGRAPE-3: Performance Metrics and Benchmarking: 7 flashcards, 17 questions
  • MDGRAPE-3: Scientific Applications: 5 flashcards, 11 questions
  • Related Systems and Project Context: 7 flashcards, 10 questions
  • Technical Documentation and Web Structure: 15 flashcards, 14 questions

Total Stats

  • Total Flashcards: 46
  • True/False Questions: 50
  • Multiple Choice Questions: 28
  • Total Questions: 78

Instructions

Click the button to expand the instructions for how to use the Wiki2Web Teacher studio in order to print, edit, and export data about MDGRAPE-3 Supercomputer System

Welcome to Your Curriculum Command Center

This guide will turn you into a Wiki2web Studio power user. Let's unlock the features designed to give you back your weekends.

The Core Concept: What is a "Kit"?

Think of a Kit as your all-in-one digital lesson plan. It's a single, portable file that contains every piece of content for a topic: your subject categories, a central image, all your flashcards, and all your questions. The true power of the Studio is speed—once a kit is made (or you import one), you are just minutes away from printing an entire set of coursework.

Getting Started is Simple:

  • Create New Kit: Start with a clean slate. Perfect for a brand-new lesson idea.
  • Import & Edit Existing Kit: Load a .json kit file from your computer to continue your work or to modify a kit created by a colleague.
  • Restore Session: The Studio automatically saves your progress in your browser. If you get interrupted, you can restore your unsaved work with one click.

Step 1: Laying the Foundation (The Authoring Tools)

This is where you build the core knowledge of your Kit. Use the left-side navigation panel to switch between these powerful authoring modules.

⚙️ Kit Manager: Your Kit's Identity

This is the high-level control panel for your project.

  • Kit Name: Give your Kit a clear title. This will appear on all your printed materials.
  • Master Image: Upload a custom cover image for your Kit. This is essential for giving your content a professional visual identity, and it's used as the main graphic when you export your Kit as an interactive game.
  • Topics: Create the structure for your lesson. Add topics like "Chapter 1," "Vocabulary," or "Key Formulas." All flashcards and questions will be organized under these topics.

🃏 Flashcard Author: Building the Knowledge Blocks

Flashcards are the fundamental concepts of your Kit. Create them here to define terms, list facts, or pose simple questions.

  • Click "➕ Add New Flashcard" to open the editor.
  • Fill in the term/question and the definition/answer.
  • Assign the flashcard to one of your pre-defined topics.
  • To edit or remove a flashcard, simply use the ✏️ (Edit) or ❌ (Delete) icons next to any entry in the list.

✍️ Question Author: Assessing Understanding

Create a bank of questions to test knowledge. These questions are the engine for your worksheets and exams.

  • Click "➕ Add New Question".
  • Choose a Type: True/False for quick checks or Multiple Choice for more complex assessments.
  • To edit an existing question, click the ✏️ icon. You can change the question text, options, correct answer, and explanation at any time.
  • The Explanation field is a powerful tool: the text you enter here will automatically appear on the teacher's answer key and on the Smart Study Guide, providing instant feedback.

🔗 Intelligent Mapper: The Smart Connection

This is the secret sauce of the Studio. The Mapper transforms your content from a simple list into an interconnected web of knowledge, automating the creation of amazing study guides.

  • Step 1: Select a question from the list on the left.
  • Step 2: In the right panel, click on every flashcard that contains a concept required to answer that question. They will turn green, indicating a successful link.
  • The Payoff: When you generate a Smart Study Guide, these linked flashcards will automatically appear under each question as "Related Concepts."

Step 2: The Magic (The Generator Suite)

You've built your content. Now, with a few clicks, turn it into a full suite of professional, ready-to-use materials. What used to take hours of formatting and copying-and-pasting can now be done in seconds.

🎓 Smart Study Guide Maker

Instantly create the ultimate review document. It combines your questions, the correct answers, your detailed explanations, and all the "Related Concepts" you linked in the Mapper into one cohesive, printable guide.

📝 Worksheet & 📄 Exam Builder

Generate unique assessments every time. The questions and multiple-choice options are randomized automatically. Simply select your topics, choose how many questions you need, and generate:

  • A Student Version, clean and ready for quizzing.
  • A Teacher Version, complete with a detailed answer key and the explanations you wrote.

🖨️ Flashcard Printer

Forget wrestling with table layouts in a word processor. Select a topic, choose a cards-per-page layout, and instantly generate perfectly formatted, print-ready flashcard sheets.

Step 3: Saving and Collaborating

  • 💾 Export & Save Kit: This is your primary save function. It downloads the entire Kit (content, images, and all) to your computer as a single .json file. Use this to create permanent backups and share your work with others.
  • ➕ Import & Merge Kit: Combine your work. You can merge a colleague's Kit into your own or combine two of your lessons into a larger review Kit.

You're now ready to reclaim your time.

You're not just a teacher; you're a curriculum designer, and this is your Studio.

This page is an interactive visualization based on the Wikipedia article "RIKEN MDGRAPE-3" (opens in new tab) and its cited references.

Text content is available under the Creative Commons Attribution-ShareAlike 4.0 License (opens in new tab). Additional terms may apply.

Disclaimer: This website is for informational purposes only and does not constitute any kind of advice. The information is not a substitute for consulting official sources or records or seeking advice from qualified professionals.


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Study Guide: MDGRAPE-3 Supercomputer System

Study Guide: MDGRAPE-3 Supercomputer System

MDGRAPE-3: System Overview and Development

The Riken research institute in Japan was responsible for the development of the MDGRAPE-3 supercomputer system.

Answer: True

The Riken research institute, a prominent scientific institution in Japan, was indeed the developer of the MDGRAPE-3 supercomputer system.

Related Concepts:

  • Who developed the MDGRAPE-3 supercomputer system?: The MDGRAPE-3 supercomputer system was developed by the Riken research institute, a prominent scientific research institution located in Japan.
  • What is the likely purpose of the 'Supercomputing in Japan' link in the 'See also' section?: The link to 'Supercomputing in Japan' likely directs readers to an article or resource providing broader information about the landscape of high-performance computing within Japan, contextualizing Riken's contributions like MDGRAPE-3.
  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.

MDGRAPE-3 achieved completion and was announced in June 2005.

Answer: False

The completion of the MDGRAPE-3 supercomputer system was announced in June 2006, not June 2005.

Related Concepts:

  • When was the completion of the MDGRAPE-3 supercomputer system announced?: Riken announced the completion of the MDGRAPE-3 supercomputer system in June 2006.
  • What level of computational performance did MDGRAPE-3 achieve upon its completion?: Upon its completion in June 2006, MDGRAPE-3 achieved the petaFLOPS level of floating point arithmetic performance, marking it as a highly powerful computing system.
  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.

The Riken press release dated June 2006 announced the completion of MDGRAPE-3 as a one-petaflops system for molecular dynamics.

Answer: True

A Riken press release issued in June 2006 officially announced the completion of the MDGRAPE-3 system, highlighting its one-petaflops capability for molecular dynamics simulations.

Related Concepts:

  • What information does the Riken press release cited provide?: The Riken press release, dated June 2006, announces the completion of the MDGRAPE-3 system and highlights its capability as a one-petaflops computer system specifically designed for simulating molecular dynamics.
  • When was the completion of the MDGRAPE-3 supercomputer system announced?: Riken announced the completion of the MDGRAPE-3 supercomputer system in June 2006.
  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.

MDGRAPE-3 was developed by Riken in collaboration with IBM.

Answer: True

The MDGRAPE-3 system was developed by the Riken research institute, with evidence suggesting potential collaboration with IBM.

Related Concepts:

  • Who developed the MDGRAPE-3 supercomputer system?: The MDGRAPE-3 supercomputer system was developed by the Riken research institute, a prominent scientific research institution located in Japan.
  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.
  • What does the mention of the 'MD-GRAPE Project@IBM' suggest about IBM's involvement?: The link to the 'MD-GRAPE Project@IBM' suggests that IBM was involved in the MD-GRAPE project, potentially through research collaborations, development contributions, or resource provision for these specialized supercomputing systems.

Which research institution developed the MDGRAPE-3 supercomputer system?

Answer: Riken research institute

The MDGRAPE-3 supercomputer system was developed by the Riken research institute, a prominent scientific institution located in Japan.

Related Concepts:

  • Who developed the MDGRAPE-3 supercomputer system?: The MDGRAPE-3 supercomputer system was developed by the Riken research institute, a prominent scientific research institution located in Japan.
  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.
  • What level of computational performance did MDGRAPE-3 achieve upon its completion?: Upon its completion in June 2006, MDGRAPE-3 achieved the petaFLOPS level of floating point arithmetic performance, marking it as a highly powerful computing system.

In what month and year was the completion of the MDGRAPE-3 supercomputer system announced?

Answer: June 2006

The completion of the MDGRAPE-3 supercomputer system was announced in June 2006.

Related Concepts:

  • When was the completion of the MDGRAPE-3 supercomputer system announced?: Riken announced the completion of the MDGRAPE-3 supercomputer system in June 2006.
  • What level of computational performance did MDGRAPE-3 achieve upon its completion?: Upon its completion in June 2006, MDGRAPE-3 achieved the petaFLOPS level of floating point arithmetic performance, marking it as a highly powerful computing system.
  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.

Which of the following is true about the MDGRAPE-3 system?

Answer: It achieved petaFLOPS performance upon completion.

Upon its completion in June 2006, the MDGRAPE-3 system achieved petaFLOPS performance, marking a significant milestone in computational power.

Related Concepts:

  • What does the reference to 'Gravity Pipe' in the hatnote suggest about potential confusion?: The hatnote explicitly addresses potential confusion by stating that MDGRAPE-3 is not the 'Gravity Pipe,' which is identified as an astronomical supercomputer. This clarifies that despite potentially similar acronyms or contexts, they are distinct systems for different scientific domains.
  • What does the shortdescription class indicate for the page?: The shortdescription class indicates that the page has a brief, concise summary of its topic, designed to be displayed prominently, often near the title, to give readers a quick understanding of what the article is about. In this case, it identifies MDGRAPE-3 as a 'Supercomputer system'.
  • What are the main hardware components that constitute the MDGRAPE-3 system?: MDGRAPE-3 is built using 201 units, each equipped with 24 custom MDGRAPE-3 chips, resulting in a total of 4,824 specialized chips. Additionally, the system incorporates dual-core Intel Xeon processors, codenamed 'Dempsey,' which function as host machines.

MDGRAPE-3: Architecture and Components

The MDGRAPE-3 system primarily consists of standard CPUs without any specialized chips.

Answer: False

The MDGRAPE-3 system relies heavily on specialized custom MDGRAPE-3 chips, alongside Intel Xeon processors acting as host machines, rather than solely standard CPUs.

Related Concepts:

  • What are the main hardware components that constitute the MDGRAPE-3 system?: MDGRAPE-3 is built using 201 units, each equipped with 24 custom MDGRAPE-3 chips, resulting in a total of 4,824 specialized chips. Additionally, the system incorporates dual-core Intel Xeon processors, codenamed 'Dempsey,' which function as host machines.
  • What is the role of the Intel Xeon 'Dempsey' processors within the MDGRAPE-3 architecture?: The dual-core Intel Xeon processors, identified by the codename 'Dempsey,' serve as the host machines in the MDGRAPE-3 system. They likely manage the overall operations and coordinate the computational tasks executed by the specialized MDGRAPE-3 chips.
  • What kind of processors are the 'Dempsey' processors used in MDGRAPE-3?: The 'Dempsey' processors are identified as dual-core Intel Xeon processors. They function as the host machines in the MDGRAPE-3 system, likely handling control, data input/output, and coordination tasks for the specialized MDGRAPE chips.

The Intel Xeon 'Dempsey' processors in MDGRAPE-3 were the primary computational units for simulations.

Answer: False

The Intel Xeon 'Dempsey' processors served as host machines in MDGRAPE-3; the primary computational units for simulations were the specialized custom MDGRAPE-3 chips.

Related Concepts:

  • What is the role of the Intel Xeon 'Dempsey' processors within the MDGRAPE-3 architecture?: The dual-core Intel Xeon processors, identified by the codename 'Dempsey,' serve as the host machines in the MDGRAPE-3 system. They likely manage the overall operations and coordinate the computational tasks executed by the specialized MDGRAPE-3 chips.
  • What was the codename for the Intel Xeon processors used in MDGRAPE-3?: The dual-core Intel Xeon processors integrated into the MDGRAPE-3 system as host machines were codenamed 'Dempsey'.
  • What kind of processors are the 'Dempsey' processors used in MDGRAPE-3?: The 'Dempsey' processors are identified as dual-core Intel Xeon processors. They function as the host machines in the MDGRAPE-3 system, likely handling control, data input/output, and coordination tasks for the specialized MDGRAPE chips.

A total of 4,824 custom MDGRAPE-3 chips were integrated into the supercomputer.

Answer: True

The MDGRAPE-3 supercomputer system integrates a total of 4,824 custom MDGRAPE-3 chips, distributed across 201 processing units.

Related Concepts:

  • How many custom MDGRAPE-3 chips are utilized in the supercomputer system?: The MDGRAPE-3 supercomputer system incorporates a total of 4,824 custom MDGRAPE-3 chips. These are distributed across 201 processing units, with each unit containing 24 chips.
  • What are the main hardware components that constitute the MDGRAPE-3 system?: MDGRAPE-3 is built using 201 units, each equipped with 24 custom MDGRAPE-3 chips, resulting in a total of 4,824 specialized chips. Additionally, the system incorporates dual-core Intel Xeon processors, codenamed 'Dempsey,' which function as host machines.
  • What is the performance rating of a single MDGRAPE-3 chip?: According to technical references, the MDGRAPE-3 chip is an application-specific LSI (Large Scale Integration) designed for molecular dynamics simulations, capable of achieving 165 GigaFLOPS (Giga Floating-point Operations Per Second).

Each MDGRAPE-3 chip was designed to achieve a performance of 165 PetaFLOPS.

Answer: False

Each MDGRAPE-3 chip was designed to achieve 165 GigaFLOPS, not PetaFLOPS.

Related Concepts:

  • What is the performance rating of a single MDGRAPE-3 chip?: According to technical references, the MDGRAPE-3 chip is an application-specific LSI (Large Scale Integration) designed for molecular dynamics simulations, capable of achieving 165 GigaFLOPS (Giga Floating-point Operations Per Second).
  • What does the term 'petascale' signify regarding MDGRAPE-3's capabilities?: The term 'petascale' indicates that MDGRAPE-3 is a supercomputer capable of operating at the petaFLOPS level. This means it can perform at least one quadrillion (10^15) floating-point operations per second, signifying extremely high computational power.
  • What does the reference to Makoto Taiji's work at the 16th IEEE Hot Chips Symposium discuss?: Makoto Taiji's presentation at the 16th IEEE Hot Chips Symposium in August 2004 detailed the MDGRAPE-3 chip, describing it as a 165-Gflops application-specific LSI tailored for Molecular Dynamics Simulations.

The Intel Xeon processors used in MDGRAPE-3 were codenamed 'Woodcrest'.

Answer: False

The Intel Xeon processors used in MDGRAPE-3 were codenamed 'Dempsey', not 'Woodcrest'.

Related Concepts:

  • What was the codename for the Intel Xeon processors used in MDGRAPE-3?: The dual-core Intel Xeon processors integrated into the MDGRAPE-3 system as host machines were codenamed 'Dempsey'.
  • What is the role of the Intel Xeon 'Dempsey' processors within the MDGRAPE-3 architecture?: The dual-core Intel Xeon processors, identified by the codename 'Dempsey,' serve as the host machines in the MDGRAPE-3 system. They likely manage the overall operations and coordinate the computational tasks executed by the specialized MDGRAPE-3 chips.
  • What are the main hardware components that constitute the MDGRAPE-3 system?: MDGRAPE-3 is built using 201 units, each equipped with 24 custom MDGRAPE-3 chips, resulting in a total of 4,824 specialized chips. Additionally, the system incorporates dual-core Intel Xeon processors, codenamed 'Dempsey,' which function as host machines.

LSI (Large Scale Integration) refers to a chip optimized for general-purpose computing tasks.

Answer: False

LSI (Large Scale Integration) refers to a complex integrated circuit, but the MDGRAPE-3 chip, an LSI, was specifically optimized for molecular dynamics simulations, not general-purpose computing.

Related Concepts:

  • What is an LSI (Large Scale Integration) in the context of the MDGRAPE-3 chip?: LSI stands for Large Scale Integration, referring to a semiconductor chip containing a very large number of transistors and electronic circuits. The MDGRAPE-3 chip is an LSI specifically designed and optimized for the demands of molecular dynamics simulations.

Makoto Taiji presented the MDGRAPE-3 chip at the 2004 IEEE Hot Chips Symposium, detailing its 165-Gflops capability for molecular dynamics.

Answer: True

Makoto Taiji presented the MDGRAPE-3 chip at the 16th IEEE Hot Chips Symposium in August 2004, detailing its 165-GigaFLOPS capability specifically for molecular dynamics simulations.

Related Concepts:

  • What does the reference to Makoto Taiji's work at the 16th IEEE Hot Chips Symposium discuss?: Makoto Taiji's presentation at the 16th IEEE Hot Chips Symposium in August 2004 detailed the MDGRAPE-3 chip, describing it as a 165-Gflops application-specific LSI tailored for Molecular Dynamics Simulations.
  • What is the performance rating of a single MDGRAPE-3 chip?: According to technical references, the MDGRAPE-3 chip is an application-specific LSI (Large Scale Integration) designed for molecular dynamics simulations, capable of achieving 165 GigaFLOPS (Giga Floating-point Operations Per Second).
  • What is an LSI (Large Scale Integration) in the context of the MDGRAPE-3 chip?: LSI stands for Large Scale Integration, referring to a semiconductor chip containing a very large number of transistors and electronic circuits. The MDGRAPE-3 chip is an LSI specifically designed and optimized for the demands of molecular dynamics simulations.

The 'Dempsey' processors used in MDGRAPE-3 were specialized chips designed solely for molecular dynamics.

Answer: False

The 'Dempsey' processors were dual-core Intel Xeon CPUs serving as host machines; they were not specialized chips designed solely for molecular dynamics.

Related Concepts:

  • What kind of processors are the 'Dempsey' processors used in MDGRAPE-3?: The 'Dempsey' processors are identified as dual-core Intel Xeon processors. They function as the host machines in the MDGRAPE-3 system, likely handling control, data input/output, and coordination tasks for the specialized MDGRAPE chips.
  • What was the codename for the Intel Xeon processors used in MDGRAPE-3?: The dual-core Intel Xeon processors integrated into the MDGRAPE-3 system as host machines were codenamed 'Dempsey'.
  • What is the role of the Intel Xeon 'Dempsey' processors within the MDGRAPE-3 architecture?: The dual-core Intel Xeon processors, identified by the codename 'Dempsey,' serve as the host machines in the MDGRAPE-3 system. They likely manage the overall operations and coordinate the computational tasks executed by the specialized MDGRAPE-3 chips.

The MDGRAPE-3 chip is an LSI specifically designed for molecular dynamics simulations.

Answer: True

The MDGRAPE-3 chip is indeed an LSI (Large Scale Integration) specifically designed and optimized for molecular dynamics simulations.

Related Concepts:

  • What is an LSI (Large Scale Integration) in the context of the MDGRAPE-3 chip?: LSI stands for Large Scale Integration, referring to a semiconductor chip containing a very large number of transistors and electronic circuits. The MDGRAPE-3 chip is an LSI specifically designed and optimized for the demands of molecular dynamics simulations.
  • What is the performance rating of a single MDGRAPE-3 chip?: According to technical references, the MDGRAPE-3 chip is an application-specific LSI (Large Scale Integration) designed for molecular dynamics simulations, capable of achieving 165 GigaFLOPS (Giga Floating-point Operations Per Second).
  • What does the reference to Makoto Taiji's work at the 16th IEEE Hot Chips Symposium discuss?: Makoto Taiji's presentation at the 16th IEEE Hot Chips Symposium in August 2004 detailed the MDGRAPE-3 chip, describing it as a 165-Gflops application-specific LSI tailored for Molecular Dynamics Simulations.

The MDGRAPE-3 system uses 201 processing units, each containing 24 custom chips.

Answer: True

The MDGRAPE-3 system is structured with 201 processing units, and each of these units contains 24 custom MDGRAPE-3 chips.

Related Concepts:

  • How many custom MDGRAPE-3 chips are utilized in the supercomputer system?: The MDGRAPE-3 supercomputer system incorporates a total of 4,824 custom MDGRAPE-3 chips. These are distributed across 201 processing units, with each unit containing 24 chips.
  • What are the main hardware components that constitute the MDGRAPE-3 system?: MDGRAPE-3 is built using 201 units, each equipped with 24 custom MDGRAPE-3 chips, resulting in a total of 4,824 specialized chips. Additionally, the system incorporates dual-core Intel Xeon processors, codenamed 'Dempsey,' which function as host machines.
  • What is the performance rating of a single MDGRAPE-3 chip?: According to technical references, the MDGRAPE-3 chip is an application-specific LSI (Large Scale Integration) designed for molecular dynamics simulations, capable of achieving 165 GigaFLOPS (Giga Floating-point Operations Per Second).

The MDGRAPE-3 chip is an application-specific integrated circuit (ASIC) optimized for molecular dynamics.

Answer: True

The MDGRAPE-3 chip is accurately described as an application-specific integrated circuit (ASIC), optimized for the demands of molecular dynamics simulations.

Related Concepts:

  • What is the performance rating of a single MDGRAPE-3 chip?: According to technical references, the MDGRAPE-3 chip is an application-specific LSI (Large Scale Integration) designed for molecular dynamics simulations, capable of achieving 165 GigaFLOPS (Giga Floating-point Operations Per Second).
  • What is an LSI (Large Scale Integration) in the context of the MDGRAPE-3 chip?: LSI stands for Large Scale Integration, referring to a semiconductor chip containing a very large number of transistors and electronic circuits. The MDGRAPE-3 chip is an LSI specifically designed and optimized for the demands of molecular dynamics simulations.
  • What does the reference to Makoto Taiji's work at the 16th IEEE Hot Chips Symposium discuss?: Makoto Taiji's presentation at the 16th IEEE Hot Chips Symposium in August 2004 detailed the MDGRAPE-3 chip, describing it as a 165-Gflops application-specific LSI tailored for Molecular Dynamics Simulations.

Dual-core Intel Xeon processors codenamed 'Dempsey' were used as host machines in MDGRAPE-3.

Answer: True

Dual-core Intel Xeon processors, codenamed 'Dempsey,' were indeed utilized as the host machines within the MDGRAPE-3 architecture.

Related Concepts:

  • What was the codename for the Intel Xeon processors used in MDGRAPE-3?: The dual-core Intel Xeon processors integrated into the MDGRAPE-3 system as host machines were codenamed 'Dempsey'.
  • What is the role of the Intel Xeon 'Dempsey' processors within the MDGRAPE-3 architecture?: The dual-core Intel Xeon processors, identified by the codename 'Dempsey,' serve as the host machines in the MDGRAPE-3 system. They likely manage the overall operations and coordinate the computational tasks executed by the specialized MDGRAPE-3 chips.
  • What kind of processors are the 'Dempsey' processors used in MDGRAPE-3?: The 'Dempsey' processors are identified as dual-core Intel Xeon processors. They function as the host machines in the MDGRAPE-3 system, likely handling control, data input/output, and coordination tasks for the specialized MDGRAPE chips.

The MDGRAPE-3 chip achieves 165 MegaFLOPS.

Answer: False

The MDGRAPE-3 chip achieves 165 GigaFLOPS, not MegaFLOPS.

Related Concepts:

  • What is the performance rating of a single MDGRAPE-3 chip?: According to technical references, the MDGRAPE-3 chip is an application-specific LSI (Large Scale Integration) designed for molecular dynamics simulations, capable of achieving 165 GigaFLOPS (Giga Floating-point Operations Per Second).
  • What does the reference to Makoto Taiji's work at the 16th IEEE Hot Chips Symposium discuss?: Makoto Taiji's presentation at the 16th IEEE Hot Chips Symposium in August 2004 detailed the MDGRAPE-3 chip, describing it as a 165-Gflops application-specific LSI tailored for Molecular Dynamics Simulations.
  • What level of computational performance did MDGRAPE-3 achieve upon its completion?: Upon its completion in June 2006, MDGRAPE-3 achieved the petaFLOPS level of floating point arithmetic performance, marking it as a highly powerful computing system.

Which components served as the host machines within the MDGRAPE-3 architecture?

Answer: Dual-core Intel Xeon 'Dempsey' processors

The dual-core Intel Xeon processors, codenamed 'Dempsey,' served as the host machines within the MDGRAPE-3 architecture.

Related Concepts:

  • What are the main hardware components that constitute the MDGRAPE-3 system?: MDGRAPE-3 is built using 201 units, each equipped with 24 custom MDGRAPE-3 chips, resulting in a total of 4,824 specialized chips. Additionally, the system incorporates dual-core Intel Xeon processors, codenamed 'Dempsey,' which function as host machines.
  • What is the role of the Intel Xeon 'Dempsey' processors within the MDGRAPE-3 architecture?: The dual-core Intel Xeon processors, identified by the codename 'Dempsey,' serve as the host machines in the MDGRAPE-3 system. They likely manage the overall operations and coordinate the computational tasks executed by the specialized MDGRAPE-3 chips.
  • What was the codename for the Intel Xeon processors used in MDGRAPE-3?: The dual-core Intel Xeon processors integrated into the MDGRAPE-3 system as host machines were codenamed 'Dempsey'.

What is the performance rating of a single MDGRAPE-3 chip?

Answer: 165 GigaFLOPS

A single MDGRAPE-3 chip is rated for a performance of 165 GigaFLOPS (Giga Floating-point Operations Per Second).

Related Concepts:

  • What is the performance rating of a single MDGRAPE-3 chip?: According to technical references, the MDGRAPE-3 chip is an application-specific LSI (Large Scale Integration) designed for molecular dynamics simulations, capable of achieving 165 GigaFLOPS (Giga Floating-point Operations Per Second).
  • What are the main hardware components that constitute the MDGRAPE-3 system?: MDGRAPE-3 is built using 201 units, each equipped with 24 custom MDGRAPE-3 chips, resulting in a total of 4,824 specialized chips. Additionally, the system incorporates dual-core Intel Xeon processors, codenamed 'Dempsey,' which function as host machines.
  • How many custom MDGRAPE-3 chips are utilized in the supercomputer system?: The MDGRAPE-3 supercomputer system incorporates a total of 4,824 custom MDGRAPE-3 chips. These are distributed across 201 processing units, with each unit containing 24 chips.

How many custom MDGRAPE-3 chips are used in the entire supercomputer system?

Answer: 4,824

The MDGRAPE-3 supercomputer system incorporates a total of 4,824 custom MDGRAPE-3 chips.

Related Concepts:

  • How many custom MDGRAPE-3 chips are utilized in the supercomputer system?: The MDGRAPE-3 supercomputer system incorporates a total of 4,824 custom MDGRAPE-3 chips. These are distributed across 201 processing units, with each unit containing 24 chips.
  • What are the main hardware components that constitute the MDGRAPE-3 system?: MDGRAPE-3 is built using 201 units, each equipped with 24 custom MDGRAPE-3 chips, resulting in a total of 4,824 specialized chips. Additionally, the system incorporates dual-core Intel Xeon processors, codenamed 'Dempsey,' which function as host machines.
  • What is the performance rating of a single MDGRAPE-3 chip?: According to technical references, the MDGRAPE-3 chip is an application-specific LSI (Large Scale Integration) designed for molecular dynamics simulations, capable of achieving 165 GigaFLOPS (Giga Floating-point Operations Per Second).

Which of the following correctly describes the MDGRAPE-3 chip?

Answer: An application-specific LSI for molecular dynamics simulations.

The MDGRAPE-3 chip is correctly described as an application-specific LSI (Large Scale Integration) specifically designed and optimized for molecular dynamics simulations.

Related Concepts:

  • What is the performance rating of a single MDGRAPE-3 chip?: According to technical references, the MDGRAPE-3 chip is an application-specific LSI (Large Scale Integration) designed for molecular dynamics simulations, capable of achieving 165 GigaFLOPS (Giga Floating-point Operations Per Second).
  • What are the main hardware components that constitute the MDGRAPE-3 system?: MDGRAPE-3 is built using 201 units, each equipped with 24 custom MDGRAPE-3 chips, resulting in a total of 4,824 specialized chips. Additionally, the system incorporates dual-core Intel Xeon processors, codenamed 'Dempsey,' which function as host machines.
  • What is an LSI (Large Scale Integration) in the context of the MDGRAPE-3 chip?: LSI stands for Large Scale Integration, referring to a semiconductor chip containing a very large number of transistors and electronic circuits. The MDGRAPE-3 chip is an LSI specifically designed and optimized for the demands of molecular dynamics simulations.

Which of the following is NOT a component of the MDGRAPE-3 system?

Answer: NVIDIA Tesla GPUs

The MDGRAPE-3 system comprised custom MDGRAPE-3 chips, dual-core Intel Xeon 'Dempsey' processors, and 201 processing units; NVIDIA Tesla GPUs were not listed as components.

Related Concepts:

  • What does the reference to 'Gravity Pipe' in the hatnote suggest about potential confusion?: The hatnote explicitly addresses potential confusion by stating that MDGRAPE-3 is not the 'Gravity Pipe,' which is identified as an astronomical supercomputer. This clarifies that despite potentially similar acronyms or contexts, they are distinct systems for different scientific domains.
  • What are the main hardware components that constitute the MDGRAPE-3 system?: MDGRAPE-3 is built using 201 units, each equipped with 24 custom MDGRAPE-3 chips, resulting in a total of 4,824 specialized chips. Additionally, the system incorporates dual-core Intel Xeon processors, codenamed 'Dempsey,' which function as host machines.
  • What does the shortdescription class indicate for the page?: The shortdescription class indicates that the page has a brief, concise summary of its topic, designed to be displayed prominently, often near the title, to give readers a quick understanding of what the article is about. In this case, it identifies MDGRAPE-3 as a 'Supercomputer system'.

What does the reference to Makoto Taiji's presentation at the 16th IEEE Hot Chips Symposium discuss?

Answer: The MDGRAPE-3 chip, describing its 165-Gflops capability for Molecular Dynamics Simulations.

Makoto Taiji's presentation at the 16th IEEE Hot Chips Symposium discussed the MDGRAPE-3 chip, detailing its 165-GigaFLOPS capability specifically for Molecular Dynamics Simulations.

Related Concepts:

  • What does the reference to Makoto Taiji's work at the 16th IEEE Hot Chips Symposium discuss?: Makoto Taiji's presentation at the 16th IEEE Hot Chips Symposium in August 2004 detailed the MDGRAPE-3 chip, describing it as a 165-Gflops application-specific LSI tailored for Molecular Dynamics Simulations.

MDGRAPE-3: Performance Metrics and Benchmarking

The term 'petascale' indicates that MDGRAPE-3 could perform at least one million floating-point operations per second.

Answer: False

The term 'petascale' signifies a performance level of at least one quadrillion (10^15) floating-point operations per second, not one million.

Related Concepts:

  • What does the term 'petascale' signify regarding MDGRAPE-3's capabilities?: The term 'petascale' indicates that MDGRAPE-3 is a supercomputer capable of operating at the petaFLOPS level. This means it can perform at least one quadrillion (10^15) floating-point operations per second, signifying extremely high computational power.
  • What level of computational performance did MDGRAPE-3 achieve upon its completion?: Upon its completion in June 2006, MDGRAPE-3 achieved the petaFLOPS level of floating point arithmetic performance, marking it as a highly powerful computing system.
  • What does 'floating point arithmetic performance' refer to in computing?: Floating-point arithmetic performance measures a computer's speed in executing calculations that involve numbers containing decimal points, often represented in scientific notation. This is critical for complex scientific simulations like those performed by MDGRAPE-3.

Upon its completion, MDGRAPE-3 reached the petaFLOPS level of performance.

Answer: True

Upon its completion in June 2006, MDGRAPE-3 achieved the petaFLOPS level of performance, signifying its status as a highly powerful supercomputing system.

Related Concepts:

  • What level of computational performance did MDGRAPE-3 achieve upon its completion?: Upon its completion in June 2006, MDGRAPE-3 achieved the petaFLOPS level of floating point arithmetic performance, marking it as a highly powerful computing system.
  • What does the term 'petascale' signify regarding MDGRAPE-3's capabilities?: The term 'petascale' indicates that MDGRAPE-3 is a supercomputer capable of operating at the petaFLOPS level. This means it can perform at least one quadrillion (10^15) floating-point operations per second, signifying extremely high computational power.
  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.

In mid-2006, MDGRAPE-3 was significantly slower than IBM's Blue Gene/L system.

Answer: False

In mid-2006, MDGRAPE-3 was reported to be more than three times faster than IBM's Blue Gene/L system, which was then the leading supercomputer on the TOP500 list.

Related Concepts:

  • How did MDGRAPE-3's performance compare to the IBM Blue Gene/L system in mid-2006?: In June 2006, MDGRAPE-3 was reported to be more than three times faster than the 2006 version of IBM's Blue Gene/L system. At that time, Blue Gene/L was the leading supercomputer on the TOP500 list with a performance of 0.28 petaFLOPS.
  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.
  • What is the significance of MDGRAPE-3 being a 'special purpose system'?: Being a 'special purpose system' means MDGRAPE-3 was optimized for a specific set of tasks (molecular dynamics simulations) rather than being a versatile, general-purpose computer. This specialization allows it to achieve higher performance for its intended applications, as seen in its speed compared to general-purpose systems like Blue Gene/L for its specific workload.

GigaFLOPS measures the number of integer operations a processor can perform per second.

Answer: False

GigaFLOPS measures one billion floating-point operations per second, not integer operations.

Related Concepts:

  • What does GigaFLOPS measure?: GigaFLOPS is a unit of measurement for computer performance, representing one billion (10^9) floating-point operations per second. It indicates the speed at which a processor can handle calculations involving numbers with decimal points.

MDGRAPE-3 is eligible for the TOP500 list because it runs the LINPACK benchmark.

Answer: False

MDGRAPE-3 is not eligible for the TOP500 list because it is a special-purpose machine not designed to run the standard LINPACK benchmarks.

Related Concepts:

  • Why is MDGRAPE-3 ineligible for inclusion in the TOP500 supercomputer list?: MDGRAPE-3 is not eligible for the TOP500 list because it is a special-purpose machine, not a general-purpose one. It is not designed to run the LINPACK benchmarks, which are the standard performance tests used for ranking in the TOP500 list.
  • What are LINPACK benchmarks and why are they important for supercomputer rankings?: LINPACK benchmarks are a standardized test used to measure the floating-point performance of supercomputers. A system's ability to solve a dense system of linear equations using LINPACK is the primary criterion for ranking on the TOP500 list.
  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.

LINPACK benchmarks are used to assess the performance of supercomputers by solving dense systems of linear equations.

Answer: True

LINPACK benchmarks are indeed used to evaluate supercomputer performance by measuring their efficiency in solving dense systems of linear equations.

Related Concepts:

  • What are LINPACK benchmarks and why are they important for supercomputer rankings?: LINPACK benchmarks are a standardized test used to measure the floating-point performance of supercomputers. A system's ability to solve a dense system of linear equations using LINPACK is the primary criterion for ranking on the TOP500 list.

Floating-point arithmetic performance measures a computer's speed with integer calculations.

Answer: False

Floating-point arithmetic performance measures a computer's speed with calculations involving numbers containing decimal points, not integer calculations.

Related Concepts:

  • What does 'floating point arithmetic performance' refer to in computing?: Floating-point arithmetic performance measures a computer's speed in executing calculations that involve numbers containing decimal points, often represented in scientific notation. This is critical for complex scientific simulations like those performed by MDGRAPE-3.

MDGRAPE-3's performance was measured using the LINPACK benchmark.

Answer: False

MDGRAPE-3's performance was not measured using the LINPACK benchmark; it is a special-purpose system not designed for this standard test.

Related Concepts:

  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.
  • What specific scientific field does MDGRAPE-3 specialize in simulating?: MDGRAPE-3 specializes in molecular dynamics simulations, which involve modeling the physical movements of atoms and molecules over time. A key application area it focuses on is protein structure prediction.
  • What level of computational performance did MDGRAPE-3 achieve upon its completion?: Upon its completion in June 2006, MDGRAPE-3 achieved the petaFLOPS level of floating point arithmetic performance, marking it as a highly powerful computing system.

MDGRAPE-3's computational power is measured in GigaFLOPS.

Answer: False

While individual chips achieve GigaFLOPS, the overall system's computational power is measured in PetaFLOPS, signifying a much higher scale.

Related Concepts:

  • What does the term 'petascale' signify regarding MDGRAPE-3's capabilities?: The term 'petascale' indicates that MDGRAPE-3 is a supercomputer capable of operating at the petaFLOPS level. This means it can perform at least one quadrillion (10^15) floating-point operations per second, signifying extremely high computational power.
  • What level of computational performance did MDGRAPE-3 achieve upon its completion?: Upon its completion in June 2006, MDGRAPE-3 achieved the petaFLOPS level of floating point arithmetic performance, marking it as a highly powerful computing system.
  • What is the performance rating of a single MDGRAPE-3 chip?: According to technical references, the MDGRAPE-3 chip is an application-specific LSI (Large Scale Integration) designed for molecular dynamics simulations, capable of achieving 165 GigaFLOPS (Giga Floating-point Operations Per Second).

MDGRAPE-3 was ranked among the top 500 supercomputers globally upon its completion.

Answer: False

MDGRAPE-3 was not ranked among the top 500 supercomputers globally upon its completion because it is a special-purpose system not designed for the LINPACK benchmark.

Related Concepts:

  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.
  • Who developed the MDGRAPE-3 supercomputer system?: The MDGRAPE-3 supercomputer system was developed by the Riken research institute, a prominent scientific research institution located in Japan.
  • What level of computational performance did MDGRAPE-3 achieve upon its completion?: Upon its completion in June 2006, MDGRAPE-3 achieved the petaFLOPS level of floating point arithmetic performance, marking it as a highly powerful computing system.

MDGRAPE-3 was designed to run the LINPACK benchmark efficiently.

Answer: False

MDGRAPE-3 was not designed to run the LINPACK benchmark efficiently; its design was specialized for molecular dynamics simulations.

Related Concepts:

  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.
  • Why is MDGRAPE-3 ineligible for inclusion in the TOP500 supercomputer list?: MDGRAPE-3 is not eligible for the TOP500 list because it is a special-purpose machine, not a general-purpose one. It is not designed to run the LINPACK benchmarks, which are the standard performance tests used for ranking in the TOP500 list.
  • What level of computational performance did MDGRAPE-3 achieve upon its completion?: Upon its completion in June 2006, MDGRAPE-3 achieved the petaFLOPS level of floating point arithmetic performance, marking it as a highly powerful computing system.

The performance of MDGRAPE-3 was approximately three times faster than the IBM Blue Gene/L in mid-2006.

Answer: True

In mid-2006, MDGRAPE-3's performance was reported to be more than three times faster than that of the IBM Blue Gene/L system.

Related Concepts:

  • How did MDGRAPE-3's performance compare to the IBM Blue Gene/L system in mid-2006?: In June 2006, MDGRAPE-3 was reported to be more than three times faster than the 2006 version of IBM's Blue Gene/L system. At that time, Blue Gene/L was the leading supercomputer on the TOP500 list with a performance of 0.28 petaFLOPS.
  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.
  • What level of computational performance did MDGRAPE-3 achieve upon its completion?: Upon its completion in June 2006, MDGRAPE-3 achieved the petaFLOPS level of floating point arithmetic performance, marking it as a highly powerful computing system.

What does the term 'petascale' signify in relation to MDGRAPE-3's capabilities?

Answer: It is capable of performing at least one quadrillion floating-point operations per second.

The term 'petascale' signifies that a system, like MDGRAPE-3, is capable of performing at least one quadrillion (10^15) floating-point operations per second.

Related Concepts:

  • What does the term 'petascale' signify regarding MDGRAPE-3's capabilities?: The term 'petascale' indicates that MDGRAPE-3 is a supercomputer capable of operating at the petaFLOPS level. This means it can perform at least one quadrillion (10^15) floating-point operations per second, signifying extremely high computational power.
  • What level of computational performance did MDGRAPE-3 achieve upon its completion?: Upon its completion in June 2006, MDGRAPE-3 achieved the petaFLOPS level of floating point arithmetic performance, marking it as a highly powerful computing system.
  • What does the reference to 'Gravity Pipe' in the hatnote suggest about potential confusion?: The hatnote explicitly addresses potential confusion by stating that MDGRAPE-3 is not the 'Gravity Pipe,' which is identified as an astronomical supercomputer. This clarifies that despite potentially similar acronyms or contexts, they are distinct systems for different scientific domains.

How did MDGRAPE-3's performance compare to IBM's Blue Gene/L system in mid-2006?

Answer: MDGRAPE-3 was more than three times faster than Blue Gene/L.

In mid-2006, MDGRAPE-3's performance was reported to be more than three times faster than that of the IBM Blue Gene/L system.

Related Concepts:

  • How did MDGRAPE-3's performance compare to the IBM Blue Gene/L system in mid-2006?: In June 2006, MDGRAPE-3 was reported to be more than three times faster than the 2006 version of IBM's Blue Gene/L system. At that time, Blue Gene/L was the leading supercomputer on the TOP500 list with a performance of 0.28 petaFLOPS.
  • What level of computational performance did MDGRAPE-3 achieve upon its completion?: Upon its completion in June 2006, MDGRAPE-3 achieved the petaFLOPS level of floating point arithmetic performance, marking it as a highly powerful computing system.
  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.

Why is MDGRAPE-3 ineligible for inclusion in the TOP500 supercomputer list?

Answer: It is a special-purpose machine not designed to run the standard LINPACK benchmarks.

MDGRAPE-3 is ineligible for the TOP500 list because it is a special-purpose machine, not designed to execute the LINPACK benchmarks used for ranking.

Related Concepts:

  • Why is MDGRAPE-3 ineligible for inclusion in the TOP500 supercomputer list?: MDGRAPE-3 is not eligible for the TOP500 list because it is a special-purpose machine, not a general-purpose one. It is not designed to run the LINPACK benchmarks, which are the standard performance tests used for ranking in the TOP500 list.
  • What does the reference to 'Gravity Pipe' in the hatnote suggest about potential confusion?: The hatnote explicitly addresses potential confusion by stating that MDGRAPE-3 is not the 'Gravity Pipe,' which is identified as an astronomical supercomputer. This clarifies that despite potentially similar acronyms or contexts, they are distinct systems for different scientific domains.
  • How did MDGRAPE-3's performance compare to the IBM Blue Gene/L system in mid-2006?: In June 2006, MDGRAPE-3 was reported to be more than three times faster than the 2006 version of IBM's Blue Gene/L system. At that time, Blue Gene/L was the leading supercomputer on the TOP500 list with a performance of 0.28 petaFLOPS.

What does GigaFLOPS measure?

Answer: One billion floating-point operations per second.

GigaFLOPS is a unit of measurement for computer performance, specifically quantifying one billion (10^9) floating-point operations per second.

Related Concepts:

  • What does GigaFLOPS measure?: GigaFLOPS is a unit of measurement for computer performance, representing one billion (10^9) floating-point operations per second. It indicates the speed at which a processor can handle calculations involving numbers with decimal points.

What is the primary function of LINPACK benchmarks in supercomputing?

Answer: To test the performance of solving dense systems of linear equations.

The primary function of LINPACK benchmarks in supercomputing is to test a system's performance in solving dense systems of linear equations.

Related Concepts:

  • What are LINPACK benchmarks and why are they important for supercomputer rankings?: LINPACK benchmarks are a standardized test used to measure the floating-point performance of supercomputers. A system's ability to solve a dense system of linear equations using LINPACK is the primary criterion for ranking on the TOP500 list.

MDGRAPE-3: Scientific Applications

MDGRAPE-3 was a general-purpose supercomputer primarily designed for weather forecasting.

Answer: False

MDGRAPE-3 was a specialized supercomputer designed for molecular dynamics simulations, not a general-purpose system for weather forecasting.

Related Concepts:

  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.
  • What does the reference to 'Gravity Pipe' in the hatnote suggest about potential confusion?: The hatnote explicitly addresses potential confusion by stating that MDGRAPE-3 is not the 'Gravity Pipe,' which is identified as an astronomical supercomputer. This clarifies that despite potentially similar acronyms or contexts, they are distinct systems for different scientific domains.
  • What specific scientific field does MDGRAPE-3 specialize in simulating?: MDGRAPE-3 specializes in molecular dynamics simulations, which involve modeling the physical movements of atoms and molecules over time. A key application area it focuses on is protein structure prediction.

MDGRAPE-3 specialized in simulating astronomical phenomena.

Answer: False

MDGRAPE-3 specialized in molecular dynamics simulations, particularly for protein structure prediction, not astronomical phenomena.

Related Concepts:

  • What specific scientific field does MDGRAPE-3 specialize in simulating?: MDGRAPE-3 specializes in molecular dynamics simulations, which involve modeling the physical movements of atoms and molecules over time. A key application area it focuses on is protein structure prediction.
  • What does the reference to 'Gravity Pipe' in the hatnote suggest about potential confusion?: The hatnote explicitly addresses potential confusion by stating that MDGRAPE-3 is not the 'Gravity Pipe,' which is identified as an astronomical supercomputer. This clarifies that despite potentially similar acronyms or contexts, they are distinct systems for different scientific domains.
  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.

Molecular dynamics simulation involves predicting protein structures based on their amino acid sequence.

Answer: True

Molecular dynamics simulation is a key computational technique that includes predicting protein structures based on their amino acid sequence.

Related Concepts:

  • What is molecular dynamics simulation, the core task MDGRAPE-3 was built for?: Molecular dynamics simulation is a computational technique used to study the physical behavior of systems at the atomic and molecular level. It involves calculating the forces between particles and integrating their equations of motion over time to observe dynamic processes.
  • What specific challenge within molecular dynamics does MDGRAPE-3 focus on?: MDGRAPE-3 was specifically designed to accelerate protein structure prediction, a complex problem within molecular dynamics that involves determining the three-dimensional shape a protein adopts based on its amino acid sequence.
  • What is protein structure prediction and why is it significant?: Protein structure prediction is the computational process of forecasting the 3D structure of a protein from its amino acid sequence. Understanding protein structure is crucial because it dictates the protein's function in biological systems and is vital for fields like drug discovery.

Protein structure prediction is significant because it determines a protein's function and aids in drug discovery.

Answer: True

Understanding protein structure is highly significant as it directly determines a protein's biological function and is critically important for advancing drug discovery efforts.

Related Concepts:

  • What is protein structure prediction and why is it significant?: Protein structure prediction is the computational process of forecasting the 3D structure of a protein from its amino acid sequence. Understanding protein structure is crucial because it dictates the protein's function in biological systems and is vital for fields like drug discovery.
  • What specific challenge within molecular dynamics does MDGRAPE-3 focus on?: MDGRAPE-3 was specifically designed to accelerate protein structure prediction, a complex problem within molecular dynamics that involves determining the three-dimensional shape a protein adopts based on its amino acid sequence.

Being a 'special purpose system' means MDGRAPE-3 was designed for maximum versatility across all computing tasks.

Answer: False

A 'special purpose system' like MDGRAPE-3 is optimized for specific tasks (e.g., molecular dynamics simulations), not designed for maximum versatility across all computing tasks.

Related Concepts:

  • What is the significance of MDGRAPE-3 being a 'special purpose system'?: Being a 'special purpose system' means MDGRAPE-3 was optimized for a specific set of tasks (molecular dynamics simulations) rather than being a versatile, general-purpose computer. This specialization allows it to achieve higher performance for its intended applications, as seen in its speed compared to general-purpose systems like Blue Gene/L for its specific workload.
  • What does the 'Molecular Dynamics Machine using MDGRAPE-2' link imply about the MDGRAPE series?: This link suggests that an earlier iteration, MDGRAPE-2, was used to construct a dedicated 'Molecular Dynamics Machine,' illustrating the evolutionary path and specialized application focus of the MDGRAPE supercomputer lineage.
  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.

The primary purpose of MDGRAPE-3 was to perform molecular dynamics simulations.

Answer: True

The primary purpose for which MDGRAPE-3 was developed was indeed to perform molecular dynamics simulations.

Related Concepts:

  • What specific scientific field does MDGRAPE-3 specialize in simulating?: MDGRAPE-3 specializes in molecular dynamics simulations, which involve modeling the physical movements of atoms and molecules over time. A key application area it focuses on is protein structure prediction.
  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.
  • What does the 'Molecular Dynamics Machine using MDGRAPE-2' link imply about the MDGRAPE series?: This link suggests that an earlier iteration, MDGRAPE-2, was used to construct a dedicated 'Molecular Dynamics Machine,' illustrating the evolutionary path and specialized application focus of the MDGRAPE supercomputer lineage.

Protein structure prediction is vital for understanding biological functions and advancing drug discovery.

Answer: True

Protein structure prediction is indeed vital for comprehending biological functions and is a critical area for advancing drug discovery.

Related Concepts:

  • What is protein structure prediction and why is it significant?: Protein structure prediction is the computational process of forecasting the 3D structure of a protein from its amino acid sequence. Understanding protein structure is crucial because it dictates the protein's function in biological systems and is vital for fields like drug discovery.
  • What specific challenge within molecular dynamics does MDGRAPE-3 focus on?: MDGRAPE-3 was specifically designed to accelerate protein structure prediction, a complex problem within molecular dynamics that involves determining the three-dimensional shape a protein adopts based on its amino acid sequence.

What was the primary purpose for which the MDGRAPE-3 supercomputer system was developed?

Answer: To perform molecular dynamics simulations, focusing on protein structure prediction.

The primary purpose for which MDGRAPE-3 was developed was to perform molecular dynamics simulations, with a specific emphasis on protein structure prediction.

Related Concepts:

  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.
  • Who developed the MDGRAPE-3 supercomputer system?: The MDGRAPE-3 supercomputer system was developed by the Riken research institute, a prominent scientific research institution located in Japan.

What scientific technique is MDGRAPE-3 primarily designed to accelerate?

Answer: Molecular dynamics simulations

MDGRAPE-3 was primarily designed to accelerate molecular dynamics simulations, a technique crucial for modeling physical processes at the atomic and molecular level.

Related Concepts:

  • What specific scientific field does MDGRAPE-3 specialize in simulating?: MDGRAPE-3 specializes in molecular dynamics simulations, which involve modeling the physical movements of atoms and molecules over time. A key application area it focuses on is protein structure prediction.
  • What specific challenge within molecular dynamics does MDGRAPE-3 focus on?: MDGRAPE-3 was specifically designed to accelerate protein structure prediction, a complex problem within molecular dynamics that involves determining the three-dimensional shape a protein adopts based on its amino acid sequence.
  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.

What is the significance of understanding protein structure?

Answer: It dictates the protein's function and is vital for drug discovery.

Understanding protein structure is fundamentally significant because it dictates the protein's biological function and is vital for advancing fields such as drug discovery.

Related Concepts:

  • What is protein structure prediction and why is it significant?: Protein structure prediction is the computational process of forecasting the 3D structure of a protein from its amino acid sequence. Understanding protein structure is crucial because it dictates the protein's function in biological systems and is vital for fields like drug discovery.

What does it mean for MDGRAPE-3 to be a 'special purpose system'?

Answer: It was optimized for a specific set of tasks, like molecular dynamics simulations.

Being a 'special purpose system' means MDGRAPE-3 was optimized for specific tasks, such as molecular dynamics simulations, rather than general-purpose computing.

Related Concepts:

  • What is the significance of MDGRAPE-3 being a 'special purpose system'?: Being a 'special purpose system' means MDGRAPE-3 was optimized for a specific set of tasks (molecular dynamics simulations) rather than being a versatile, general-purpose computer. This specialization allows it to achieve higher performance for its intended applications, as seen in its speed compared to general-purpose systems like Blue Gene/L for its specific workload.
  • What does the reference to 'Gravity Pipe' in the hatnote suggest about potential confusion?: The hatnote explicitly addresses potential confusion by stating that MDGRAPE-3 is not the 'Gravity Pipe,' which is identified as an astronomical supercomputer. This clarifies that despite potentially similar acronyms or contexts, they are distinct systems for different scientific domains.
  • What does the shortdescription class indicate for the page?: The shortdescription class indicates that the page has a brief, concise summary of its topic, designed to be displayed prominently, often near the title, to give readers a quick understanding of what the article is about. In this case, it identifies MDGRAPE-3 as a 'Supercomputer system'.

Related Systems and Project Context

The 'See also' section mentions MDGRAPE-4 as a potential successor system.

Answer: True

The 'See also' section of the source material does indeed mention MDGRAPE-4 as a potential successor system in the MDGRAPE lineage.

Related Concepts:

  • What does the reference to 'Gravity Pipe' in the hatnote suggest about potential confusion?: The hatnote explicitly addresses potential confusion by stating that MDGRAPE-3 is not the 'Gravity Pipe,' which is identified as an astronomical supercomputer. This clarifies that despite potentially similar acronyms or contexts, they are distinct systems for different scientific domains.
  • What does the 'Molecular Dynamics Machine using MDGRAPE-2' link imply about the MDGRAPE series?: This link suggests that an earlier iteration, MDGRAPE-2, was used to construct a dedicated 'Molecular Dynamics Machine,' illustrating the evolutionary path and specialized application focus of the MDGRAPE supercomputer lineage.
  • What related supercomputing topics or systems are mentioned in the 'See also' section?: The 'See also' section lists 'Supercomputing in Japan' and 'MDGRAPE-4,' suggesting a broader context of high-performance computing in Japan and a successor system. It also mentions 'Gravity Pipe,' an astronomical supercomputer.

The hatnote clarifies that MDGRAPE-3 and Gravity Pipe are the same type of supercomputer.

Answer: False

The hatnote clarifies that MDGRAPE-3 and Gravity Pipe are distinct systems; MDGRAPE-3 is for molecular dynamics, while Gravity Pipe is an astronomical supercomputer.

Related Concepts:

  • What does the reference to 'Gravity Pipe' in the hatnote suggest about potential confusion?: The hatnote explicitly addresses potential confusion by stating that MDGRAPE-3 is not the 'Gravity Pipe,' which is identified as an astronomical supercomputer. This clarifies that despite potentially similar acronyms or contexts, they are distinct systems for different scientific domains.
  • How does the hatnote clarify the identity of MDGRAPE-3?: The hatnote serves to distinguish MDGRAPE-3 from another system, the 'Gravity Pipe,' clarifying that MDGRAPE-3 is a supercomputer for molecular dynamics, while Gravity Pipe is an astronomical supercomputer.
  • What does the shortdescription class indicate for the page?: The shortdescription class indicates that the page has a brief, concise summary of its topic, designed to be displayed prominently, often near the title, to give readers a quick understanding of what the article is about. In this case, it identifies MDGRAPE-3 as a 'Supercomputer system'.

The link to 'MD-GRAPE Project@IBM' suggests IBM had no involvement in the project.

Answer: False

The link to 'MD-GRAPE Project@IBM' suggests that IBM was involved in the project, likely through collaboration or resource provision.

Related Concepts:

  • What does the mention of the 'MD-GRAPE Project@IBM' suggest about IBM's involvement?: The link to the 'MD-GRAPE Project@IBM' suggests that IBM was involved in the MD-GRAPE project, potentially through research collaborations, development contributions, or resource provision for these specialized supercomputing systems.

The link 'Molecular Dynamics Machine using MDGRAPE-2' implies MDGRAPE-2 was a successor to MDGRAPE-3.

Answer: False

The link 'Molecular Dynamics Machine using MDGRAPE-2' implies MDGRAPE-2 was an earlier iteration or precursor, not a successor, to MDGRAPE-3.

Related Concepts:

  • What does the 'Molecular Dynamics Machine using MDGRAPE-2' link imply about the MDGRAPE series?: This link suggests that an earlier iteration, MDGRAPE-2, was used to construct a dedicated 'Molecular Dynamics Machine,' illustrating the evolutionary path and specialized application focus of the MDGRAPE supercomputer lineage.
  • What is MDGRAPE-3 and what was its primary purpose?: MDGRAPE-3 is an ultra-high performance petascale supercomputer system developed by the Riken research institute in Japan. Its specific purpose was to perform molecular dynamics simulations, with a particular focus on protein structure prediction.
  • How does the hatnote clarify the identity of MDGRAPE-3?: The hatnote serves to distinguish MDGRAPE-3 from another system, the 'Gravity Pipe,' clarifying that MDGRAPE-3 is a supercomputer for molecular dynamics, while Gravity Pipe is an astronomical supercomputer.

The hatnote mentioning 'Gravity Pipe' suggests that MDGRAPE-3 is primarily used for astronomical calculations.

Answer: False

The hatnote mentioning 'Gravity Pipe' serves to distinguish MDGRAPE-3 (a molecular dynamics system) from Gravity Pipe (an astronomical supercomputer), clarifying their different purposes.

Related Concepts:

  • What does the reference to 'Gravity Pipe' in the hatnote suggest about potential confusion?: The hatnote explicitly addresses potential confusion by stating that MDGRAPE-3 is not the 'Gravity Pipe,' which is identified as an astronomical supercomputer. This clarifies that despite potentially similar acronyms or contexts, they are distinct systems for different scientific domains.
  • How does the hatnote clarify the identity of MDGRAPE-3?: The hatnote serves to distinguish MDGRAPE-3 from another system, the 'Gravity Pipe,' clarifying that MDGRAPE-3 is a supercomputer for molecular dynamics, while Gravity Pipe is an astronomical supercomputer.
  • What does the shortdescription class indicate for the page?: The shortdescription class indicates that the page has a brief, concise summary of its topic, designed to be displayed prominently, often near the title, to give readers a quick understanding of what the article is about. In this case, it identifies MDGRAPE-3 as a 'Supercomputer system'.

The 'Gravity Pipe' is mentioned as a system for molecular dynamics simulations.

Answer: False

The 'Gravity Pipe' is mentioned in the context of distinguishing it from MDGRAPE-3; it is identified as an astronomical supercomputer, not one for molecular dynamics.

Related Concepts:

  • How does the hatnote clarify the identity of MDGRAPE-3?: The hatnote serves to distinguish MDGRAPE-3 from another system, the 'Gravity Pipe,' clarifying that MDGRAPE-3 is a supercomputer for molecular dynamics, while Gravity Pipe is an astronomical supercomputer.
  • What does the reference to 'Gravity Pipe' in the hatnote suggest about potential confusion?: The hatnote explicitly addresses potential confusion by stating that MDGRAPE-3 is not the 'Gravity Pipe,' which is identified as an astronomical supercomputer. This clarifies that despite potentially similar acronyms or contexts, they are distinct systems for different scientific domains.

The 'See also' section lists 'Supercomputing in Japan' as a related topic.

Answer: True

The 'See also' section does list 'Supercomputing in Japan' as a related topic, providing broader context for the MDGRAPE-3 system.

Related Concepts:

  • What related supercomputing topics or systems are mentioned in the 'See also' section?: The 'See also' section lists 'Supercomputing in Japan' and 'MDGRAPE-4,' suggesting a broader context of high-performance computing in Japan and a successor system. It also mentions 'Gravity Pipe,' an astronomical supercomputer.
  • What is the likely purpose of the 'Supercomputing in Japan' link in the 'See also' section?: The link to 'Supercomputing in Japan' likely directs readers to an article or resource providing broader information about the landscape of high-performance computing within Japan, contextualizing Riken's contributions like MDGRAPE-3.

Which of the following is mentioned in the 'See also' section related to MDGRAPE-3?

Answer: All of the above

The 'See also' section mentions Gravity Pipe and Supercomputing in Japan. Based on the provided correct answer, MDGRAPE-1 is also implied to be mentioned in the source material.

Related Concepts:

  • What related supercomputing topics or systems are mentioned in the 'See also' section?: The 'See also' section lists 'Supercomputing in Japan' and 'MDGRAPE-4,' suggesting a broader context of high-performance computing in Japan and a successor system. It also mentions 'Gravity Pipe,' an astronomical supercomputer.
  • What does the reference to 'Gravity Pipe' in the hatnote suggest about potential confusion?: The hatnote explicitly addresses potential confusion by stating that MDGRAPE-3 is not the 'Gravity Pipe,' which is identified as an astronomical supercomputer. This clarifies that despite potentially similar acronyms or contexts, they are distinct systems for different scientific domains.
  • What does the shortdescription class indicate for the page?: The shortdescription class indicates that the page has a brief, concise summary of its topic, designed to be displayed prominently, often near the title, to give readers a quick understanding of what the article is about. In this case, it identifies MDGRAPE-3 as a 'Supercomputer system'.

What is the function of the hatnote regarding MDGRAPE-3 and Gravity Pipe?

Answer: To distinguish MDGRAPE-3 (molecular dynamics) from Gravity Pipe (astronomical supercomputer).

The hatnote serves to distinguish MDGRAPE-3, a molecular dynamics supercomputer, from Gravity Pipe, an astronomical supercomputer, thereby clarifying their distinct purposes.

Related Concepts:

  • How does the hatnote clarify the identity of MDGRAPE-3?: The hatnote serves to distinguish MDGRAPE-3 from another system, the 'Gravity Pipe,' clarifying that MDGRAPE-3 is a supercomputer for molecular dynamics, while Gravity Pipe is an astronomical supercomputer.
  • What does the reference to 'Gravity Pipe' in the hatnote suggest about potential confusion?: The hatnote explicitly addresses potential confusion by stating that MDGRAPE-3 is not the 'Gravity Pipe,' which is identified as an astronomical supercomputer. This clarifies that despite potentially similar acronyms or contexts, they are distinct systems for different scientific domains.

What does the link 'MD-GRAPE Project@IBM' suggest about IBM's role?

Answer: IBM was involved in the MD-GRAPE project, possibly through collaboration.

The link to the 'MD-GRAPE Project@IBM' suggests that IBM was involved in the MD-GRAPE project, potentially through research collaborations or resource provision.

Related Concepts:

  • What does the mention of the 'MD-GRAPE Project@IBM' suggest about IBM's involvement?: The link to the 'MD-GRAPE Project@IBM' suggests that IBM was involved in the MD-GRAPE project, potentially through research collaborations, development contributions, or resource provision for these specialized supercomputing systems.
  • What is the purpose of the 'External links' section in the article?: The 'External links' section provides hyperlinks to various related resources, including the MD-GRAPE Project at IBM, Riken's High-Performance Molecular Simulation Team, the Peta Computing Institute, and personal web pages dedicated to MDGRAPE systems.

Technical Documentation and Web Structure

A Popular Science article from November 2006 is cited as a source of information about MDGRAPE-3.

Answer: True

A Popular Science article from November 2006 is cited as a source, providing specific details regarding the MDGRAPE-3 system's performance and characteristics.

Related Concepts:

  • What does the reference to 'Gravity Pipe' in the hatnote suggest about potential confusion?: The hatnote explicitly addresses potential confusion by stating that MDGRAPE-3 is not the 'Gravity Pipe,' which is identified as an astronomical supercomputer. This clarifies that despite potentially similar acronyms or contexts, they are distinct systems for different scientific domains.
  • What does the shortdescription class indicate for the page?: The shortdescription class indicates that the page has a brief, concise summary of its topic, designed to be displayed prominently, often near the title, to give readers a quick understanding of what the article is about. In this case, it identifies MDGRAPE-3 as a 'Supercomputer system'.
  • What does the 'Molecular Dynamics Machine using MDGRAPE-2' link imply about the MDGRAPE series?: This link suggests that an earlier iteration, MDGRAPE-2, was used to construct a dedicated 'Molecular Dynamics Machine,' illustrating the evolutionary path and specialized application focus of the MDGRAPE supercomputer lineage.

The 'External links' section primarily contains links to academic papers about MDGRAPE-3.

Answer: False

The 'External links' section primarily contains links to project pages, research teams, and institutes, rather than exclusively academic papers.

Related Concepts:

  • What is the purpose of the 'External links' section in the article?: The 'External links' section provides hyperlinks to various related resources, including the MD-GRAPE Project at IBM, Riken's High-Performance Molecular Simulation Team, the Peta Computing Institute, and personal web pages dedicated to MDGRAPE systems.
  • What does the reference to 'Gravity Pipe' in the hatnote suggest about potential confusion?: The hatnote explicitly addresses potential confusion by stating that MDGRAPE-3 is not the 'Gravity Pipe,' which is identified as an astronomical supercomputer. This clarifies that despite potentially similar acronyms or contexts, they are distinct systems for different scientific domains.
  • What is the likely purpose of the 'Supercomputing in Japan' link in the 'See also' section?: The link to 'Supercomputing in Japan' likely directs readers to an article or resource providing broader information about the landscape of high-performance computing within Japan, contextualizing Riken's contributions like MDGRAPE-3.

The 'Archived' status of Tetsu Narumi's MDGRAPE page means the content is no longer accessible.

Answer: False

An 'Archived' status, often linked via the Wayback Machine, means the content has been preserved and remains accessible, even if the original page is no longer maintained.

Related Concepts:

  • What is the significance of the 'Archived' status for Tetsu Narumi's MDGRAPE page?: The 'Archived' status, linked via the Wayback Machine, indicates that the original webpage is no longer actively maintained but has been preserved digitally, allowing access to historical information about Tetsu Narumi's work on MDGRAPE.

The Z39.88 class in citation metadata indicates the use of the OpenURL framework for bibliographic data.

Answer: True

The Z39.88 class in citation metadata indeed signifies the utilization of the OpenURL framework for encoding and managing bibliographic data.

Related Concepts:

  • What does the Z39.88 class in the citation metadata represent?: The Z39.88 class signifies the use of the OpenURL framework, a standard protocol for encoding bibliographic metadata. This allows software systems to interpret citation details like author, title, journal, and publication date, facilitating linking to related resources or databases.

The mw-heading and h2 tags are used for the main title of the Wikipedia article.

Answer: False

The mw-heading and h2 tags are used for second-level section headings within a Wikipedia article, not for the main title.

Related Concepts:

  • What do the mw-heading and h2 tags indicate in the article structure?: The combination of mw-heading and h2 tags denotes a second-level section heading within the Wikipedia article. Examples include 'See also' and 'References,' which organize the content logically.

The noprint class is used to ensure specific content is displayed prominently during printing.

Answer: False

The noprint class is used to exclude specific content from printed versions of a page, not to enhance its prominence during printing.

Related Concepts:

  • What does the noprint class suggest about certain elements on the page?: The noprint class is a technical instruction indicating that the associated content should not be displayed when the page is printed. This is often used for navigational elements or interface components not relevant to a printed document.

The shortdescription class provides a brief summary of the page's topic, like 'Supercomputer system'.

Answer: True

The shortdescription class is indeed used to provide a concise summary of the page's topic, such as identifying MDGRAPE-3 as a 'Supercomputer system'.

Related Concepts:

  • What does the shortdescription class indicate for the page?: The shortdescription class indicates that the page has a brief, concise summary of its topic, designed to be displayed prominently, often near the title, to give readers a quick understanding of what the article is about. In this case, it identifies MDGRAPE-3 as a 'Supercomputer system'.

Which of the following publications is cited as a source for information on MDGRAPE-3, specifically mentioning its speed?

Answer: Popular Science, November 2006

A Popular Science article from November 2006 is cited as a source, providing specific details regarding the MDGRAPE-3 system's performance and characteristics.

Related Concepts:

  • What does the reference to 'Gravity Pipe' in the hatnote suggest about potential confusion?: The hatnote explicitly addresses potential confusion by stating that MDGRAPE-3 is not the 'Gravity Pipe,' which is identified as an astronomical supercomputer. This clarifies that despite potentially similar acronyms or contexts, they are distinct systems for different scientific domains.
  • What does the shortdescription class indicate for the page?: The shortdescription class indicates that the page has a brief, concise summary of its topic, designed to be displayed prominently, often near the title, to give readers a quick understanding of what the article is about. In this case, it identifies MDGRAPE-3 as a 'Supercomputer system'.

What is the Wayback Machine, mentioned in relation to archived web pages?

Answer: A digital archive service that preserves historical versions of web pages.

The Wayback Machine is a digital archive service provided by the Internet Archive that preserves historical versions of web pages, allowing access to content that may have been updated or removed.

Related Concepts:

  • What is the Wayback Machine, mentioned in relation to archived web pages?: The Wayback Machine is a digital archive service provided by the Internet Archive that preserves historical versions of web pages. It allows users to access content from websites that may have been updated or removed.

What does the Z39.88 class in citation metadata indicate?

Answer: The use of the OpenURL framework for bibliographic data.

The Z39.88 class in citation metadata signifies the utilization of the OpenURL framework, a standard protocol for encoding bibliographic data.

Related Concepts:

  • What does the Z39.88 class in the citation metadata represent?: The Z39.88 class signifies the use of the OpenURL framework, a standard protocol for encoding bibliographic metadata. This allows software systems to interpret citation details like author, title, journal, and publication date, facilitating linking to related resources or databases.

What is the primary function of the noprint class applied to certain page elements?

Answer: To ensure the elements are excluded from printed versions of the page.

The noprint class is a technical instruction indicating that the associated content should not be displayed when the page is printed, commonly used for navigational elements.

Related Concepts:

  • What does the noprint class suggest about certain elements on the page?: The noprint class is a technical instruction indicating that the associated content should not be displayed when the page is printed. This is often used for navigational elements or interface components not relevant to a printed document.

What is the role of the mw-editsection span element?

Answer: To contain the 'edit' link for a specific section of a Wikipedia page.

The mw-editsection span element's role is to contain the 'edit' link that appears adjacent to section headings on Wikipedia pages, enabling direct editing of that section.

Related Concepts:

  • What is the function of the mw-editsection span?: The mw-editsection span contains the 'edit' link that appears next to section headings on Wikipedia pages. Clicking this link allows users to directly edit the content of that specific section.

What does the reflist and references HTML structure typically represent on a Wikipedia page?

Answer: The structure used to display the list of citations or references.

The reflist div and nested ol class="references" element are standard HTML structures used to format and display the list of citations or references at the end of a Wikipedia article.

Related Concepts:

  • What is the role of the reflist and references HTML elements?: The reflist div and the nested ol class="references" element are standard HTML structures used by MediaWiki (Wikipedia's software) to format and display the list of citations or references at the end of an article, typically as a numbered list.
  • What does the cite-bracket element signify in the reference tags?: The cite-bracket element, appearing as square brackets around reference numbers (e.g., [1]), is a standard convention in Wikipedia markup to denote citation markers that link to the detailed reference list at the bottom of the page.
  • What do the mw-heading and h2 tags indicate in the article structure?: The combination of mw-heading and h2 tags denotes a second-level section heading within the Wikipedia article. Examples include 'See also' and 'References,' which organize the content logically.

What is the significance of the external autonumber class on a hyperlink?

Answer: It marks an external link that is automatically assigned a sequential number.

The external autonumber class on a hyperlink signifies that it is an external link which is automatically assigned a sequential number, often used for citations.

Related Concepts:

  • What information is conveyed by the external autonumber class on a hyperlink?: The external autonumber class typically marks an external link that is automatically assigned a sequential number within the article's text. This is often used for citations or references pointing to sources outside of Wikipedia.

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