Guarantee your career with DES-6322 test prep and Practice test DES-6322 cheat sheets offers each of you that you have to take the Certified exam. We offer 100% free DES-6322 test prep to download and evaluate. Our DELL-EMC DES-6322 Exam will give you exam questions with valid answers that reflect the real exam. We at are made game plans to draw in you to finish your DES-6322 test with good grades.

Exam Code: DES-6322 Practice test 2023 by team
DES-6322 Specialist - Implementation Engineer-VxRail

Exam Specification: DES-6322 Specialist - Implementation Engineer-VxRail

Exam Name: DES-6322 Specialist - Implementation Engineer-VxRail
Exam Code: DES-6322
Exam Duration: 90 minutes
Passing Score: 70%
Exam Format: Multiple-choice
Exam Delivery: Proctored online or at a testing center

Course Outline:

1. Introduction to VxRail
- Overview of VxRail hyper-converged infrastructure
- Understanding the benefits and features of VxRail
- Exploring the architecture and components of VxRail

2. VxRail Planning and Design
- Preparing for VxRail implementation
- Designing VxRail clusters based on requirements
- Network, storage, and compute planning for VxRail

3. VxRail Deployment and Configuration
- Deploying VxRail hardware and software components
- Configuring VxRail clusters and nodes
- Implementing network and storage configurations

4. VxRail Management and Operations
- Managing and monitoring VxRail clusters
- Performing routine maintenance and upgrades
- Troubleshooting common issues in VxRail

5. VxRail Integration and Expansion
- Integrating VxRail with existing infrastructure and systems
- Expanding VxRail clusters and adding new nodes
- Implementing data protection and disaster recovery solutions

Exam Objectives:

1. Understand the concepts, benefits, and features of VxRail.
2. Plan and design VxRail clusters based on given requirements.
3. Deploy and configure VxRail hardware and software components.
4. Manage and operate VxRail clusters, including monitoring and maintenance.
5. Troubleshoot common issues and perform basic diagnostics in VxRail.
6. Integrate VxRail with existing infrastructure and expand VxRail clusters.
7. Implement data protection and disaster recovery solutions in VxRail.

Exam Syllabus:

Section 1: Introduction to VxRail (10%)
- VxRail hyper-converged infrastructure overview
- Benefits and features of VxRail
- Architecture and components of VxRail

Section 2: VxRail Planning and Design (25%)
- Preparing for VxRail implementation
- Designing VxRail clusters based on requirements
- Network, storage, and compute planning for VxRail

Section 3: VxRail Deployment and Configuration (30%)
- Deploying VxRail hardware and software components
- Configuring VxRail clusters and nodes
- Network and storage configurations in VxRail

Section 4: VxRail Management and Operations (20%)
- Managing and monitoring VxRail clusters
- Routine maintenance and upgrades in VxRail
- Troubleshooting common issues in VxRail

Section 5: VxRail Integration and Expansion (15%)
- Integrating VxRail with existing infrastructure and systems
- Expanding VxRail clusters and adding new nodes
- Data protection and disaster recovery solutions in VxRail

Specialist - Implementation Engineer-VxRail
DELL-EMC Engineer-VxRail teaching
Killexams : DELL-EMC Engineer-VxRail teaching - BingNews Search results Killexams : DELL-EMC Engineer-VxRail teaching - BingNews Killexams : CRN's Coverage Of Dell EMC World 2016

Power At Every Position: Dell Fills Exec Lineup With Seasoned Channel, Sales Veterans
The new Dell Technologies intends to lean heavily on EMC's channel experts. Here's a rundown of the executives leading Dell Technologies' sales and channel operations.

Dell Adds Systems Integrators To Its IoT Solutions Partner Program
Systems integrators have a 'unique vertical experience,' says a Dell IoT executive, and have expertise in manufacturing, utilities and industrial automation.

Dell EMC Launches First Midmarket-Focused VMAX Solution At Sub-$100K Price Point
The new 250F is 'VMAX for everyone,' says Dell EMC Vice President of Marketing Peter Smails, delivering enterprise capabilities to a new market of midsize customers.

Partners: Cisco And Dell EMC Will 'Inevitably' Hit VCE Architecture And Sales Crossroads
Although Cisco and Dell are playing nice around VCE for now, partners say architectural differences and sales incentives will inevitably lead to a break up.

6 Fun Facts About Dell Technologies You Might Not Know
Ahead of the first Dell EMC World, here are six fun facts about Dell Technologies, including its environmental efforts, sports sponsorships and its high profile in television and movies.

Mon, 17 Oct 2016 02:22:00 -0500 en text/html
Killexams : Dell-EMC

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Fri, 26 Jul 2019 03:19:00 -0500 en text/html
Killexams : Dell EMC World 2017

CRN is live at Dell EMC World 2017 in Las Vegas. Get all of ourr coverage of the event, as well content from the Dell EMC World 2017 special issue of CRN, here.

Dell EMC World

CRN is live at Dell EMC World 2017 in Las Vegas. Get all of our coverage of the event, as well content from the Dell EMC World 2017 special issue of CRN, here.

Dell EMC World News

Dell EMC Bringing Mission-Critical Cloud Power Virtustream Into Channel Program
The Virtustream Enterprise Cloud's move into the Dell EMC partner program is effective immediately and was announced today at the Dell EMC World conference in Las Vegas.

Pat Gelsinger: VMware Opens Up Tech Partners To Expand Cloud Capabilities
VMware CEO Pat Gelsinger said new partnerships with Amazon Web Services, Google, and other parts of the Dell EMC business will make it easier for customers to run applications and manage IoT over private, hybrid, and public clouds.

Virtustream Extends Mission-Critical Cloud Tech To Complex Health Care Applications
Virtustream, known mainly for its public cloud infrastructure for mission-critical apps like SAP, is now providing the ability to run Epic and other health care apps in a HIPAA-compliant cloud.

Michael Dell To Partners: 'Enormous Cross-Selling Opportunities For You'
Dell EMC CEO Michael Dell tells partners that the complexity inherent in enterprise digital transformations opens up more opportunities for partners to sell across Dell EMC's broad portfolio.

Dell EMC's David Goulden: Modern, Automated Infrastructure Provides The First Step For Cloud Migration
A big focus of this week's Dell EMC World is the ability of Dell EMC to provide the modern infrastructure that lets customers look at the cloud and other ways to add flexibility to their applications.

Dell EMC Rolls Out 'Flexible Consumption' Rebate For Partners
Channel Chief John Byrne hit the Dell EMC World conference stage in Las Vegas to talk about the vendor's new consumption-based rebate model for partners selling cloud and hyper-converged resources.

Dell EMC Takes Aim At Cisco With New Open Networking Push
Dell EMC is putting the pressure on Cisco and other networking market leaders, unveiling a slew of new open networking products at this week's Dell EMC World.


Dell North America Sales Chief: 'Winning In Both Consumer And Commercial PCs' Is Key
David Schmoock, who took over as North America sales head at Dell EMC in early April after the departure of 18-year sales veteran Bill Rodriguez, made the case at Dell EMC World for keeping the competitive pressure on in the PC arena.

Dell EMC World: Michael Dell's 7 Keys To The Future Of Dell Technologies And The IT Industry
In a keynote at the Dell EMC World conference in Las Vegas, Dell laid out the company's broad product portfolio for the more than 13,000 in attendance and gave insights into how that portfolio is positioned for the future of global business.

Dell EMC World: Enterprise Sales Chief Scannell Says Partners Are Booting Competitors, Winning Big Deals Amid Huge Market Opportunity
Scannell says the market opportunity for Dell EMC now is bigger than he's seen in more than three decades.

Michael Dell To Partners: 'Enormous Cross-Selling Opportunities For You'
Dell is contributing its Project FUSE source code to the EdgeX Foundry initiative, a project aiming to create a standard to align market leaders around a common Internet of Things framework.

Partner Marketing Push: Dell EMC Arms Partners With New MDF Resources
Dell EMC is simplifying its MDF strategy with its Partner Marketing Institute, an online portal that enables partners to seamlessly make their marketing efforts an extension of Dell EMC's.

Dell EMC Gives Partners The Nod On Commercial PCs With Extension Of Partner-Led Strategy
Dell EMC moves closer to launching its sales strategy for servers, storage and networking lines, establishing a "line of sight" for partners to make money.

Dell EMC Launches All-Flash Storage Barrage
Dell EMC debuts its VMAX 950X all-flash enterprise storage array and second-generation XtremIO all-flash block storage platform at Dell EMC World.

15 Hot Products Unleashed At Dell EMC World 2017
Whether you made it to Las Vegas for Dell EMC World or not, CRN was there.

Dell EMC World Special Issue

Dell EMC World

Dell EMC World: Transformation Titans Map Out Dell EMC's Path To Growth
With the right pieces now in place, Dell EMC's complete-portfolio call to action is being heard loud and clear across the partner ecosystem.

Marius Haas On Why There's 'Zero Debate' About The Value Of Dell EMC's End-To-End Portfolio
Marius Haas believes that when it comes to determining which vendor partner is going to provide you with long-term value creation opportunities, there's no debate that it's Dell EMC.

John Byrne On Partners Pivoting Away From Cisco, HPE, Lenovo, And Selling The Entire Dell EMC Portfolio
John Byrne says that Dell EMC partners are rapidly moving away from competing vendors and aggressively pushing new business opportunities across the entire combined portfolio.

Dell EMC's Cheryl Cook On The Combined Partner Marketing Perspective
Dell EMC's global channel marketing chief Cheryl Cook talks to CRN about the importance of communication when combining the marketing efforts of two massive partner programs.

Chad Sakac On Dell EMC's Push To Turn Hyper-Converged Infrastructure Into A Utility
Dell EMC is putting the 'pedal to the medal' when it comes to hyper-converged infrastructure and is tasking Chad Sakac and his team with making customer transformation as simple as possible for partners.

Jeremy Burton On How Partners Can Take Advantage Of A Combined Dell, EMC
Ahead of Dell EMC World 2017, Jeremy Burton dug into the blockbuster acquisition and how it primes partners to take advantage of the new combined company.

Dell EMC's David Goulden On What It Means To Be The Biggest Player In Storage
Ahead of Dell EMC World 2017, David Goulden talks to CRN about the new combined storage powerhouse and why you won't heard anyone referred to as 'ex-Dell' or 'ex-EMC.'

Mon, 18 Mar 2019 04:59:00 -0500 en text/html
Killexams : Engineering Education

Under The Center for the Advancement of STEM Teaching and Learning (CASTLE), faculty, staff and students engage in interdisciplinary research and programming that advances STEM pedagogy. CASTLE is directed at STEM learning within the Drexel community, the broader Philadelphia community, and in the tri-state region and nationally.

CASTLE’s programming initiatives include:

  • The Allabach program to Improve student presentation skills
  • Engineers Without Borders
  • DragonsTeach, for STEM majors to experience secondary teaching and earn teaching certification alongside their major
  • DARE EXCEL/Experiential Learning Through the Cooperative Education Lifecycle

Students attend STEM camp

Sun, 04 Nov 2018 02:49:00 -0600 en text/html
Killexams : This Dell monitor doubles as a swiveling, tablet-like touchscreen

Dell has released a new 23.8-inch monitor that swivels and tilts and features a 10-point multi-touch tablet-like screen.

TheDell 24 Touch USB-C Hub Monitor with touchscreen monitor and swivel stand can pivot toward your desk to be used at a 60-degree angle, not unlike Microsoft's Surface Studio

However, unlike Microsoft's Surface, Dell's monitor doesn't have computing elements, so it's not a 24-inch tablet or computer on its own. But when connected via the USB-C cable -- which features up to 90W power delivery and Ethernet -- it lets you navigate your computer with touch at a comfortable angle. 

Also: The best monitor deals: Samsung, Acer, Dell, and more on sale right now


With the monitor connected to power supply and Ethernet cable, you only have to connect the USB-C cable to your computer to enjoy high-speed connectivity and bypass your laptop's charger. 

The monitor riser also conceals the cables in the articulating stand for improved convenience and a sleek look. 

The movement range of the Dell 24 Touch USB-C Hub Monitor.


As a result, the Dell 24 Touch USB-C Hub Monitor can tilt, swivel, slant, and raise or lower without interfering with the cables. Cushioning on the lower edge of the monitor protects it against bumps from repeated movement.

Also: These top curved monitors are great for the school or work year ahead

Aside from the Ethernet port, the monitor also has HDMI, DisplayPort 1.2, and USB-A and USB-C downstream ports. The Dell 24 Touch Hub Monitor boasts built-in top-firing speakers, an audio line out, and a joystick-style control on the back to adjust settings. The Power Sync feature from Dell also wakes and launches your Dell PC even if the laptop is closed.

The Dell 24 Touch USB-C Hub Monitor screen has a 1080p resolution, but while it doesn't reach 4K, it is quite reasonably priced at $520. 

Wed, 16 Aug 2023 09:02:00 -0500 en text/html
Killexams : Earning A Master’s In Computer Engineering: What To Know

Editorial Note: We earn a commission from partner links on Forbes Advisor. Commissions do not affect our editors' opinions or evaluations.

If you work in the computer technology or engineering field and already have a bachelor’s degree, a master’s in computer engineering can help you qualify for higher-level positions or even a doctoral program, if that’s your goal.

But with the vast selection of master’s degrees out there for tech professionals, how do you know if a master’s in computer engineering is right for you?

In this article, we cover everything you need to know about computer engineering master’s degrees, including admission requirements, common coursework, specializations and career options. Read on to learn more.

What Is a Master’s in Computer Engineering?

A master’s in computer engineering prepares you to work in various technical careers or to pursue a doctoral degree. A computer engineering master’s helps you develop in-depth knowledge of subjects like computer networks and communications principles, hardware, software and computer architecture.

As a computer engineering master’s student, you may need to choose a specialization or concentration, which focuses your studies on a specific area of the field. You should also expect to meet practicum requirements, such as a thesis or project. These often involve in-depth research on an area of interest.

A master’s in computer engineering typically requires around 30 credits and takes two years of full-time study to complete.

Admission Requirements for a Computer Engineering Master’s Degree

Below we list common admission requirements for a computer engineering master’s degree. Standards vary by program but often include the following:

  • Application
  • Bachelor’s degree
  • Transcripts demonstrating a minimum GPA
  • Prerequisite coursework
  • Statement of purpose
  • Résumé
  • Letters of recommendation
  • GRE or GMAT scores
  • English proficiency

Specializations for a Master’s in Computer Engineering

Computer engineering programs may allow you to specialize in a niche area of study. Specialization offerings vary among programs but may include:

Hardware and Computer Architecture

This specialization focuses on subjects related to hardware and computer architecture. It covers advanced digital design, parallel computer architecture, computer hardware testing theory, introduction to embedded systems, high-performance programming and advanced microprocessor design.

Computer Communications and Networks

Students in this specialization undergo in-depth training in wireless communication, cybersecurity, advanced coding theory, randomized network algorithms, digital communication, error-control codes and mobile ad hoc networking.


This specialization covers subjects essential to cybersecurity, including computer communication networks, fundamentals of cryptography, advanced cryptography, advanced data structures, computer network security and cybersecurity.


In this specialization, you might build knowledge of various software concepts, including software system design, advanced data structures, advanced software for computer engineers, software system design, high-performance programming and information-theoretical design of algorithms.


A robotics specialization allows you to design a robotic prototype, develop robotic applications and create robots. Expect to study robotics, machine learning and applications, robotics and ROS, computer vision and applications, and mobile robots.

Integrated Circuits and Systems

This specialization provides the knowledge needed to work in computer chip design or the manufacturing industry. It covers advanced digital system design, digital systems testing, low-power system design, digital systems synthesis and optimization, and functional verification.

Common Courses in a Computer Engineering Master’s Program

Course options vary by program, but below are some common courses for computer engineering master’s students.

Computer Organization and Design

This course covers the foundations of computer design. It teaches software and hardware principles, memory hierarchy, parallel programming models, instruction set architectures, computer arithmetic, game console architectures, and multicores and multiprocessors.

Computer Networks

Students in this course explore computer networking technologies and other issues involved in our global information structure. The curriculum introduces sensor networking and looks at how the internet and communication technologies have affected information access.

Optical Interferometry and Laser Metrology

Learners in an optical interferometry and laser metrology course learn to identify and analyze interferometric measurements and schemes of interferometers. The course provides an introduction to laser sources, high-resolution metrology, applications, data analysis and interferometric techniques.

Electrical Power Engineering

An electrical power engineering course covers the systems engineering life cycle, including methods for evaluating and analyzing this process. Learners study real-world experiences and explore design and analysis tools and case studies related to the system design process.

Computer Engineering vs. Computer Science: What’s the Difference?

The computer engineering and computer science fields both involve working with computer and information systems, problem-solving, testing and coding. However, the fields are notably different. Computer engineering emphasizes the design and development of computer systems, hardware and interfaces. Computer science focuses on computer theory, including algorithms, cybersecurity, data analysis and computer networks.

If you’re trying to decide between a master’s in computer engineering and a master’s in computer science, you should first think about how you want your career path to look. If you prefer working with computer systems and hardware, a computer engineering degree may suit you better. If you see yourself working with more theoretical and analytical concepts, consider a computer science major instead.

What Can You Do With a Master’s in Computer Engineering?

The salary data below comes from the U.S. Bureau of Labor Statistics.

Computer Hardware Engineer

Median Annual Salary: $132,360
Minimum Required Education: Bachelor’s degree, some prefer a master’s degree
Job Overview: Computer hardware engineers research, design, develop, modify and test various aspects of building computer systems and components. These may include networks, processors, memory devices, routers and circuit boards. These professionals also work with software developers to ensure the hardware and software operate correctly together.

Computer Network Architect

Median Annual Salary: $126,900
Minimum Required Education: Bachelor’s degree
Job Overview: Computer network architects design, build and troubleshoot data communication and information networks. They assume a proactive role by analyzing data and estimating growth to identify potential network issues that may arise down the road. Computer network architects typically collaborate with information technology staff to ensure networks operate correctly and meet users’ needs.

Computer and Information Research Scientist

Median Annual Salary: $136,620
Minimum Required Education: Master’s degree, some may accept a bachelor’s degree
Job Overview: Computer and information research scientists design, create and optimize the computer software and hardware used in business, medicine and science, among other industries. They develop and apply theories to identify system needs and solve computing problems. These professionals also use data science and machine learning techniques to test software system operation.

Computer Systems Analyst

Median Annual Salary: $102,240
Minimum Required Education: Bachelor’s degree, some prefer a master’s degree
Job Overview: Computer systems analysts study business, engineering and other data processing obstacles and procedures, developing solutions to address issues. They identify information technology needs, research new technologies, analyze the benefits and costs of upgrades, test systems, and configure software and hardware to ensure computer systems operate correctly.

Information Security Analyst

Median Annual Salary: $112,000
Minimum Required Education: Bachelor’s degree
Job Overview: Information security analysts ensure the security of computer networks and systems. They monitor and identify security breaches, maintain data encryption programs and firewalls, stay updated on information technology trends, create documentation on attempted security breaches and attacks, and recommend system improvements to maintain a high level of security.

Frequently Asked Questions (FAQs) About Computer Engineering Master’s Degrees

Is a master’s degree in computer engineering worth it?

For many professionals, yes. A master’s degree in computer engineering helps prepare you for advanced positions developing computer networks, hardware and systems. If your desired career path requires specialized skills in these areas, a master’s in computer engineering can help you achieve your goals.

Is a master’s in computer engineering the same as computer science?

No, computer engineering and computer science are not the same area of study. Computer engineering focuses more on building computer networks and systems, while computer science emphasizes computing theory, data analysis and algorithms.

Fri, 28 Jul 2023 09:39:00 -0500 Sheryl Grey en-US text/html
Killexams : Professional Education

HOP Champions: Human and Organizational Performance. Spartan Training and Performance. ASCE-100 Human and Organizational Performance: Champions Course

Quick Facts

9-week course

Totally online,
fixed dates

10% discounts for companies sending 5-9 individuals

15% discount for 10-15 individuals

20% for more than 15 individuals

3 CEUs/
non-credit course

Course cost: $1,200

Course Offered: Fall 2023, Sept. 11, 2023-Nov. 12, 2023
A weekly online 1-hour live session will be conducted to discuss the course content for the particular week.

The Human and Organizational Performance (HOP) course addresses numerous shortcomings in many of today’s leadership and management systems, safety management systems, and work method planning and execution systems. With a foundational premise that human error is inevitable and that complex systems can contain latent error traps, the HOP course will enable learners to create team-based approaches to Improve work system development, hazard mitigation strategies that make it harder for employees to do the work incorrectly and easier for them to do it correctly, and leadership strategies that empower employees at all levels to do their best work. Particular emphasis is given to implementation of a HOP culture and non-technical leadership and team optimization skills within a HOP framework that are often absent from other hard-science academic offerings. One of the ultimate goals of this course is to help organizations become learning organizations with a focus on continuous improvement in not only safety but in leaders, teams, and operational performance.

“This was a great course with thought provoking instructors. The course taught me several new things about Human & Organization Performance (HOP) and I enjoyed the different perspective the Spartan team brings to HOP from their extensive military backgrounds. I would highly recommend this course to anyone wanting to expand their knowledge in HOP or for anyone who needs a refresher on the overall philosophy of HOP as well as implementation tools.”

Matthew J. Twerdy, MBA, CSP, CHMM
Director, Site EHS, Collins Aerospace
Class of spring 2023

Learner Outcomes

Upon completion of this course, learners will be able to:

  • Describe the purpose of Human and Organizational Performance
  • Assess each HOP Principle's ability to positively influence corporate operations and culture
  • Explain why human error occurs during routine and non-routine work
  • Identify work contexts that influence worker behavior
  • Distinguish between effective learning strategies that will further your organization's HOP journey
  • Develop a notional policy statement for addressing human error and failure that avoids blame language


Please download this Course Enrollment Guide for assistance in registering and accessing your Professional Studies course. Contact Randy Cadieux at This email address is being protected from spambots. You need JavaScript enabled to view it. for more information about this course.

Wed, 06 Jul 2022 22:01:00 -0500 en-US text/html
Killexams : The role of ethics in engineering education

Engineering as a career field and education stream has been one of the topmost choices of Indian youth in the past couple of decades. The trend to study and pursue engineering has gripped the youth so much so that even when some aspirants want to pursue some other field of interest, they would still pursue B.Tech, before switching streams. With more and more engineers graduating every year, it becomes all the more important for the masses to understand the ethical affiliations of the field. Engineering demands a great deal of dedication and commitment, and this is not just limited to the study of it. When an engineer enters the professional field, this responsibility becomes manifold and involves a greater deal of self-discipline. Ethics play a great role in engineering and a responsible engineer is required to understand his/her social responsibility along with the technical proficiency. The key aspects that should be emphasized in engineering curricula are discussed below.

Cultivating Ethical Awareness

It is essential for colleges and institutes that impart engineering education to include aspects of ethical awareness in the curriculum. The work carried out by engineers in the immediate society and community in which their work is much larger than they realize during the course of their studies. It is very important for the students to critically analyze their actions and the eventual impact they would cause on the people. This can be done by including case studies, real-life examples, and group discussions and engaging the students in ethical reasoning practices. 

Developing Ethical Decision-Making

In the words of Dale Carnegie, “Knowledge isn’t power until it is applied.” Only understanding the concepts of ethical awareness is not necessary, it is important to also apply them. Engineering students must be equipped with the proper tools and skills to reach ethical conclusions and logical decisions. Students can develop critical thinking ability and thus be more reasonable in their decision, while in the field. It is very important for students to follow a structured approach to reach ethical decisions. 

Promoting Professional Responsibility

The Professional Codes of Conduct of Engineering includes several ethical obligations and responsibilities. Instilling a sense of accountability towards the job is crucial and it must be packed with honesty, integrity and confidentiality. Chapters on professional code of conduct, responsible research practices and conflict of interest must be included in the curriculum. 

Fostering Ethical Leadership

Engineers often find themselves in leadership roles, where they have the opportunity to influence decision-making and drive positive change. Engineering education should emphasize the development of ethical leadership skills, empowering students to make ethical decisions both as individuals and as leaders within their organizations. By promoting a culture of ethical behavior and responsible project management, engineering programs can shape graduates who act ethically and inspire ethical practices in others.

Integrating Social and Environmental Considerations

Given the global challenges of climate change, resource depletion, and social inequality, engineering education must address the social and environmental aspects of technological advancements. Curricula should include courses on sustainable design, environmental ethics, social justice, and the United Nations Sustainable Development Goals. Equipping engineers with the knowledge and tools to assess the broader impacts of their work fosters a commitment to making sustainable choices and actively contributing to addressing pressing global issues.

Communication Skills

Ethical decision-making is closely intertwined with effective communication skills. Engineering education should prioritize the development of strong communication abilities, enabling engineers to articulate ethical concerns, collaborate with diverse stakeholders, and engage in ethical dialogues within multidisciplinary teams. Effective communication fosters understanding, encourages ethical reflection, and facilitates the integration of diverse perspectives in engineering decision-making processes.

Promoting Ethical Responsibility in Professional Collaboration 

Collaboration with professionals from various disciplines is a common aspect of engineering practice. Engineering education should emphasize the ethical responsibilities that engineers have when working in multidisciplinary teams. By promoting ethical responsibility in professional collaboration, engineers can establish relationships based on trust, mutual respect, and ethical decision-making. This ensures that ethical considerations are consistently addressed and respected throughout the collaborative process.

Ethics is an integral part of engineering education and essential for producing engineers who possess both technical expertise and ethical awareness. By integrating ethics into engineering curricula, we can nurture a generation of responsible and ethical engineers who prioritize the well-being of humanity and the environment. Through ethical education, we can build a future where technological advancements are guided by the principles of sustainability, social responsibility, and ethical decision-making, ultimately contributing to a better world for all.

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Views expressed above are the author's own.


Thu, 20 Jul 2023 20:54:00 -0500 Er Koneru Satyanarayana en-US text/html
Killexams : Earning A Mechanical Engineering Degree: Everything You Should Know

Editorial Note: We earn a commission from partner links on Forbes Advisor. Commissions do not affect our editors' opinions or evaluations.

If you enjoy designing and building things, and you have a knack for finding out how something works and how to Improve it, a mechanical engineering career might be a good fit for you.

Many mechanical engineering jobs require a mechanical engineering degree. Earning a bachelor’s degree in mechanical engineering qualifies you for a wide selection of high-paying, challenging careers.

This article explores the bachelor of science in mechanical engineering. We cover everything from admission requirements and accreditation information to courses and specializations, helping you shape your education trajectory so you can achieve the career you want. Read on to learn more about mechanical engineering degrees.

What Is a Bachelor of Science in Mechanical Engineering?

A bachelor of science in mechanical engineering equips you to research and analyze problems and apply engineering skills to design and create solutions. This degree builds the decision-making, technical and communication skills needed in various industries, such as robotics, electricity and manufacturing.

A bachelor’s in mechanical engineering explores computer-aided design, engineering design processes, prototyping, testing and validating, finite-element analysis, mechanical design, energy transfer, and sensors and control devices. It delivers the skills you need to design and build mechanical components, systems and devices.

Earning a bachelor of science in mechanical engineering typically requires about 120 to 128 credits and takes around four years to complete. If you plan to earn your master’s in mechanical engineering, some universities offer blended bachelor’s and master’s programs, allowing students to earn both degrees simultaneously on an accelerated timeline.

Admission Requirements for a Mechanical Engineering Degree

While admission requirements vary by program, you should expect to submit the following when you apply for a mechanical engineering bachelor’s degree program:

  • A completed application
  • A high school diploma, GED certificate or the equivalent
  • Prerequisite high school coursework in math and science
  • Minimum GPA (typically 2.5 to 3.0)
  • SAT or ACT scores
  • English language proficiency

Concentrations for a Mechanical Engineering Bachelor’s Degree

Most mechanical engineering majors choose a specialization or concentration as part of their degree requirements. While concentration offerings vary by program, below are a few popular options:


An energy concentration assesses the role of mechanical systems in energy production and use. Subjects covered include advanced energy solutions, aircraft and spacecraft propulsion, internal combustion engines, powertrain control, environmental law and environmental values in public policy.


This concentration builds students’ leadership and research skills for positions in the manufacturing industry. It explores advanced mechatronics for manufacturing, metals manufacturing, production and inventory control, material handling systems and global manufacturing.

HVAC and Refrigeration

Students concentrating in HVAC and refrigeration prepare for careers in heating, ventilation, air conditioning and refrigeration. This concentration covers advanced control systems, fundamentals of HVAC systems, refrigeration principles and design, building heating and cooling loads, and HVAC air and water distribution system design.


A mechatronics concentration explores the design and manufacturing processes for smart machines with electronic and mechanical components. Students explore mechatronics, intermediate dynamics, manufacturing automation, robotics, automation of industrial systems and advanced control systems.


This concentration prepares learners to work in the robotics field, exploring the ideation, design, development and control of robots. It covers computational linear algebra, dynamics and vibrations, mechatronic systems design, analytical and computational dynamics, robot kinematics and dynamics, autonomous vehicles and neural engineering.

Common Courses in a Mechanical Engineering Degree Program

Below we list several courses you might encounter as a mechanical engineering major. Since each degree program determines its own curriculum, you should check with your school for detailed information about required coursework.

Advanced Machine Design

This course covers the analysis and design of machine components, force analysis, rotor dynamics, kinematic synthesis, statistical issues, energy methods, gyrodynamics, and stresses in flywheels and thick cylinders.

Introduction to Robotics

A robotics introductory course takes a systems engineering perspective on robotics. It covers manipulators, actuators, sensors, end effectors, programming of manipulators, pattern recognition, dynamics and computer vision.

Nuclear Energy Power Generation

This course teaches concepts related to operating a nuclear electric generation station. The curriculum explores electrical science, mechanical science, digital process control systems, reactor water chemistry and civil engineering for power plant engineers.

Introduction to Mechatronics

This course introduces assembly language programming and microcontrollers. Students learn about interfacing techniques for microcontroller components and applications, such as timers, A/D conversion, D/A conversion, pulse-width modulation and interrupts.

Accreditation for Mechanical Engineering Degrees

ABET, previously known as the Accreditation Board for Engineering and Technology, is a nonprofit organization that provides accreditation for engineering, engineering technology, and applied and natural science degree programs. ABET has accredited around 500 mechanical engineering bachelor’s degree programs worldwide, about 400 of which are located in the United States.

Before conferring accreditation, ABET thoroughly evaluates a program to ensure it meets the rigorous academic standards necessary to set up students for success as mechanical engineers. Accreditation depends on several criteria, including a program’s educational objectives, student performance and outcomes, curriculum requirements and faculty qualifications.

When you choose an ABET-accredited program, you know you are choosing a high-quality, well-respected program. ABET accreditation also signifies to employers that you’re properly educated and qualified for their job openings. Since many employers, including multinational corporations, require their employees to graduate from accredited programs, this opens up many job opportunities for you.

Moreover, if you plan to become a licensed professional engineer, your state may require you to hold a degree from an ABET-accredited program.

What Can You Do With a Bachelor’s in Mechanical Engineering?

You can qualify for many jobs with a bachelor’s in mechanical engineering, including the popular options we explore below. If you have a particular career path in mind, choose a degree program offering a relevant concentration to ensure your coursework aligns with your goals.

We sourced salary data from the U.S. Bureau of Labor Statistics (BLS).

Mechanical Engineer

Median Annual Salary: $96,310
Minimum Required Education: Bachelor’s degree
Job Overview: Mechanical engineers research, design and build mechanical and thermal devices, such as sensors, engines, tools and machines. They diagnose and analyze problems and create solutions by developing or updating designs or systems. Mechanical engineers also test prototypes and monitor manufacturing processes.

Industrial Engineer

Median Annual Salary: $96,350
Minimum Required Education: Bachelor’s degree
Job Overview: Industrial engineers create systems to address inefficiency and wastefulness and increase production in industrial environments. They examine engineering specifications, production schedules, process flows and other data to identify problems and develop plans and procedures to solve them. Their duties typically include creating systems to integrate personnel, machines, energy and materials in the manufacturing process.

Mechanical Engineering Technologist

Median Annual Salary: $61,990
Minimum Required Education: Associate degree or related postsecondary training, bachelor’s degree may be preferred
Job Overview: Mechanical engineering technologists work alongside mechanical engineers to design, create and test tools, machines, engines and other manufacturing devices. They may analyze design drawings and specifications, recommend design changes, assemble industrial equipment and mechanical parts, or create business estimates.

Materials Engineer

Median Annual Salary: $100,140
Minimum Required Education: Bachelor’s degree
Job Overview: Materials engineers develop and test materials used in various products and devices. This role involves analyzing the properties of composites, metals, plastics, nanomaterials and other materials to ensure they meet the chemical, mechanical and electrical requirements to develop products. Materials engineers also monitor materials and identify and solve problems related to product failure.

Nuclear Engineer

Median Annual Salary: $122,480
Minimum Required Education: Bachelor’s degree
Job Overview: Nuclear engineers research and identify problems related to nuclear energy and waste disposal. They design and create nuclear batteries, reactor cores, radiation shielding and related instruments. Nuclear engineers may work in the medical field, military defense, space exploration, utility power generation, or research and regulation.

Electro-Mechanical or Mechatronic Technologist

Median Annual Salary: $60,570
Minimum Required Education: Associate degree or related postsecondary training, bachelor’s degree may be preferred
Job Overview: Electro-mechanical and mechatronic technologists operate and test unmanned, robotic, automated and electromechanical equipment by incorporating principles of electrical, electronic and mechanical technology. They read blueprints and schematics, operate metalworking machinery, repair hydraulic and pneumatic assemblies, analyze test results, and use soldering and precision-measuring equipment.

Frequently Asked Questions (FAQs) About Mechanical Engineering Degrees

Which degree is best for mechanical engineering?

If you want to work in the mechanical engineering field, earning a bachelor’s degree in mechanical engineering qualifies you for many relevant career paths. If you plan to become a licensed professional engineer, ensure your degree is accredited by ABET.

What is a mechanical engineer’s salary?

Mechanical engineers have the potential to earn a high salary. The median annual salary for mechanical engineers is $100,140, according to the BLS.

Tue, 01 Aug 2023 02:36:00 -0500 Sheryl Grey en-US text/html
Killexams : Plastics Engineering

Plastics are said to be the most versatile materials on Earth

UMass Lowell offers the first and largest ABET* accredited Plastics Engineering program in the U.S. and a research-oriented graduate program.

The Plastics Engineering Department is an internationally recognized leader in plastics engineering education. Founded in 1954, we offer the first and largest ABET* accredited Plastics Engineering program in the U.S. More than 3,000 graduates are working in the plastics industry, some with their own entrepreneurial businesses (see video), in leadership positions worldwide. Learn more.

Chris & Paula White


The founders of what has become a multimillion dollar premium, all-natural cookie dough and ice cream sandwich company hold degrees in engineering.

Mark Saab

Plastics Engineering

Alumni donor Mark Saab's UMass Lowell education provided the foundation for a successful career. His gratitude to the plastics engineering program is expressed through the generous donations he's bestowed upon the University.

Cheryl and Paul Katen

Plastics Technology; Physics

Cheryl and Paul Katen are funding a scholarship to supply diverse students “a leg up.”

Patrick McCallum

Plastics Engineering

Patrick McCallum got a leg up on his plastics engineering career with an internship at Wittmann Battenfeld, where he worked alongside the company's president, alum David Preusse '85.

Joey Mead

Plastics Engineering

For most of her professional life, Prof. Joey Mead has been interested in plastics.

Yrvanie Joseph

Plastics Engineering

Yrvanie Joseph is grateful for alumni scholarships because they confirm the value of her hard work and academic achievements.

Abby Mastromonaco

Plastics Engineering

Abby Mastromonaco’s passion for sustainability led to a Rist Institute for Sustainability and Energy fellowship and research experience in a plastics engineering lab.

Sid Iyer

Plastics Engineering

Sid Iyer has taken advantage of internships, research opportunities, the DifferenceMaker program and more to pursue his goal: a career in biomedical research and development.

Molly Tecce

Plastics Engineering

Plastics Engineering major Molly Tecce and partners from the 3D Club leapt into action to make PPE when the pandemic struck.

Kraig Scharn

Plastics Engineering

Thanks to his internship and co-op experiences, plastics engineering major Kraig Scharn ’20 discovered that sales was the right career path for him. He is now a junior technical service engineer for Entec Polymers in Charlotte, North Carolina.

Brianna Atwood

Plastics Engineering

Brianna Atwood came to UMass Lowell to study plastics engineering – but she’s done so much more. The honors student started a volunteer program that connects UML students with a local school. She has also participated in the professional co-op program, working on fire-resistant seals for airplanes.

Evan Yu

Plastics Engineering

Evan Yu didn’t know much about plastics engineering coming into college. He graduates with a deep appreciation for its role in helping the planet.

Leo Montagna

Plastics Engineering

Plastics Engineering alumnus Leo Montagna Jr. '70, '76 says he wouldn't be where is is today with the University. He is a devoted UMass Lowell donor and supporter of the Plastics Engineering Department.

Madison Reed

Plastics Engineering

Madison Reed works as a research assistant with Plastics Engineering Prof. Ramaswamy Nagarajan in the UML Fabric Discovery Center.

Greg Reimonn

Plastics Engineering

Greg Reimonn found a faculty mentor to help him research microplastics in waterways, thanks to an honors fellowship.

Fri, 04 Aug 2023 07:23:00 -0500 en text/html
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