Auto Body Shop in New Providence

It happens to all of us at one point in time. We get into an automobile collision and need the best auto body shop in New Providence. Hopefully, it is not too bad and we are not seriously injured. But usually the car does not fare as well and comes away with significant damage.

What is the next step after your collision and you need an auto body shop?

Likely, after informing the insurance company you take your vehicle to one of their “approved” vendors.

Here is what happens next. You tell the insurance company what company you choose. By this time they have already taken phones of the car and know how extensive the damage is. If you need an expert to take a look, make sure you go to a repair shop in New Providence. 

They have a computer system that gives them a printed estimate stating what the replacement parts and labor will be based upon a set hourly rate.

This statement is given to the body shop. It comes with a break down of what the labor and parts “should” be and the company has to usually be able to totally fix the car for that price.

What Is An Damage Repair Estimate? - Auto Estimating Part 1

Keep in mind that what is printed out represents the best case scenario and doesn’t allow for items on the car that was missed or problems that come up.

Now here are some things to watch out for. a local auto body shop in New Providence is operating under very, very thin margins and the incentive to “cut corners” is huge. Getting an extra $300 off a job can really add up over the course of the month when you are talking about doing at least 3-5 vehicles every week.

Auto Body Shops and Custom Work

Replacement Parts in Auto Body Shops

Make sure the parts being used on your car are OEM parts. These are replacement auto body parts in New Providence are sent directly from the car manufacturers and are designed with the same specs as the vehicle came with.

Custom Tires

Aftermarket parts can be significantly cheaper yet are not the same quality and make not hold up the same in the event of another accident.

No Realignment? Talk to Your Auto Repair Team!

The frame is usually somewhat bent when a car goes through an accident of any kind. It needs to be properly realigned. You need a serious all hands on deck auto body shop to take care of you here.

Unfortunately, because the money made off one car can be very little the propensity to skip this step is very high. Later down the road this will cause your car to not drive straight but at a tilt and your tires will wear prematurely. So if you need to brush up on some tire repair, ask your mechanic straight away.

Using Bondo (Fillers) Instead of Replacing the Part

Filling any damage in with bondo is not bad in itself. If you know what the auto body shop in New Providence is doing, they tell you, and this is what you are paying for then it is fine.

The problem comes in when you think you are getting a vehicle back that is 99.9% the same as before it was wrecked and it is not. Filling a damaged part in with filler rather than replacing the expensive part is a common tactic and you want to make sure it is not done on your vehicle.

Laser Wheel Alignment: Chassis Mounted Vs Wheel Mounted

All damaged parts should be replaced unless you are paying a lower price for the car to just be fixed (in the case you want the cheapest price and do not care about having a car exactly the same as before). Again, you should really speak to your best auto body shop nearest you!

Keep in mind that most auto body repair shops are honest and are surviving in a tough industry.

>>> WELL, IF YOUR CAR IS EVER DAMAGED IN AN ACCIDENT OR REPAIRED THROUGH MAJOR INSURANCE COMPANY IN THIS COUNTRY, THERE ARE STATE AND FEDERAL LAWSUITS IN THIS COUNTRY YOU SHOULD KNOW ABOUT.

AUTO BODY SHOPS ACROSS THE COUNTRY, MORE THAN 500 OF THEM CLAIM SOME BIG INSURANCE COMPANIES LONG DELIBERATELY SKIMPED WHEN IT COMES TO REPAIR DAMAGED VEHICLES.

ALSO, THE INSURANCE COMPANIES CAN HAVE THEIR PROFITS.

THE LAWSUITS ALLEGE IT'S A SCHEME THAT CANNOT ONLY LEAD TO RUSHED AND MINIMAL REPAIRS BUT RECYCLED, REMANUFACTURED AND ONE LAWYER PUTS IT JUNKED PARTS TO FIX YOUR CAR.

ATTORNEY GENERAL BELIEVES THE ALLEGED SCHEME YOU COULD BE DRIVING A DANGEROUS CAR.

CNN SENIOR INVESTIGATIVE CORRESPONDENT DREW GRIFFIN REPORTS.

>> Reporter: TO SEE WHAT'S REALLY GOING ON, YOU'VE GOT TO DO SOMETHING YOU PROBABLY CAN'T DO AT HOME.

LIFT WHAT YOU THINK IS YOUR REPAIR CAR, GET OUT SOMETHING CALLED A BORROW SCOPE AND CHECK THE FRAME TO SEE IF THE AUTO BODY SHOP FIXED IT, WHAT YOUR INSURANCE COMPANY LIKELY RECOMMENDED.

>> THERE'S THE RIFF IN THE RAIL.

>> Reporter: BILL BURN, A NATIONAL AUTO REPAIR EXPERT TESTIFIES ABOUT BAD REPAIRS AND THIS, HE SAID, IS ONE OF THEM.

THE RESULT OF A SYSTEM DESIGNED TO SAVE MONEY FOR INSURANCE COMPANIES.

>> WHAT THEY DID WAS REPLACED THE NEW END CAP ON THERE AND THE END CAP COVERS THAT, SO THE CONSUMER WOULD NEVER SEE THIS.

IT IS UNSAFE.

>> AND YET THEY PUT IT BACK.

>> CORRECT.

>> Reporter: BURN IS NOW PART OF THE MAJOR LAWSUIT INVOLVING MORE THAN 500 AUTO BODY SHOPS IN 36 STATES.

ALL SUING DOZENS OF INSURANCE COMPANIES ACROSS THE COUNTRY.

THE SHOPS BELIEVE THE INSURANCE INDUSTRY IS INVOLVED IN A DELIBERATE SYSTEM TO SEND YOU AND YOUR CAR TO SHOPS THAT ARE PRESELECTED BY INSURERS TO DO THE ABSOLUTE BARE MINIMUM TO FIX IT.

EVEN TELLING BODY SHOPS TO USE USED OR RECYCLED PARTS BECAUSE THEY'RE CHEAPER.

MATT PARKER IS AN AUTO SHOP OWNER IN MONROE, LOUISIANA, WHO SAID HE SEES THE SAME PROBLEM.

HE SAID STATE FARM TOLD HIM TO USE A REMANUFACTURED HEADLIGHT IN A TOYOTA TACOMA.

THIS IS WHAT HE GOT.

>> IT'S GOT A HOLE IN IT HERE AND THEN YOU CAN SEE WHERE THEY SCREWED THIS BRACKET BACK ON THE VEHICLE.

NOW, YOU CAN SEE HERE WHERE ALL THESE PARTS WERE KNOCKED OFF AND GLUED BACK TOGETHER.

YOU CAN ALSO SEE HERE WHERE THE TOP CORNER AND THE LENS IS BUSTED AND THIS PART OF THE HEADLIGHT IS BROKEN.

THIS CAME OUT OF A BOX WRAPPED LIKE IT WAS SUPPOSED TO BE -- ABSOLUTELY, LIKE A NEW PART.

THE INSURANCE COMPANY WANTS US TO PUT THIS STUFF ON THE CAR.

IF WE REFUSE TO PUT IT ON THE CAR, THEN THEY LABEL US AS A SHOP NOT WILLING TO GO ALONG WITH THEIR PROGRAM AND THEN TRY TO STEER OUR BUSINESS AWAY FROM US.

>> Reporter: THIS IS WHY HE AND THE OTHER SHOPS RETAINED JOHN ARTHUR EVES TO SUE.

>> EVERY STATE IN THE UNION IS EXPERIENCING THE SAME SORT OF STRUGGLE HERE BETWEEN THE BODY SHOPS TRYING TO DO AND INSURANCE COMPANY TRYING TO USE UNSAFE PARTS AND METHODS ON THEIR CARS.

>> Reporter: BUDDY CALDWELL OF LOUISIANA BELIEVE IT TOO.

PREPARING A LAWSUIT.

LOUISIANA FILED CLAIMING STATE FARM'S PRACTICE IS PUTTING DRIVERS IN DANGER.

AND WHAT IS THE PRACTICE? WHAT'S BEING PUT IN THEIR CARS? >> AFTERMARKET PARTS, JUNK YARD PARTS AND ALL OF THIS WITHOUT ANY COMMUNICATION WITH THE CONSUMER AND THAT'S THE MAIN ISSUE, THE SAFETY ISSUES AND THE KNOWLEDGE THAT THEIR PRODUCT IS BEING DEVALUED BY THE PRACTICES OF THE INSURANCE COMPANY.

I MEAN, BUDDY HAS FOUND NUMEROUS CASES HERE IN LOUISIANA.

WE FOUND IN MISSISSIPPI, THE BODY SHOPS, PUT JUNK PARTS AND WELD THE PATCH.

>> Reporter: WHEN AUTO SHOPS DON'T GO ALONG, MISSISSIPPI'S ATTORNEY GENERAL SAID THOSE AUTO SHOPS BUSINESS GETS CUT.

IT'S CALLED STEERING.

INSURANCE COMPANIES STEERING BUSINESS ELSEWHERE.

>> THEY'RE GOING TO SAY, WE'LL BLACKBALL YOU.

WE WON'T PUT YOU ON OUR SELECT SERVICE LIST AND WE'RE GOING TO MAKE YOU SEND ESTIMATESTOUS TO FIVE TIMES.

>> Reporter: U.

S.

SENATOR RICHARD BLOOMEN THAT WILL WHO USED TO BE CONNECTICUT'S ATTORNEY GENERAL NOT ONLY THE POTENTIAL FOR SMALL BUSINESS TO BE HURT BUT BELIEVE CARS REPAIRED THROUGH THE PREFERRED SERVICE CENTERS PROPOSE A SAFETY RISK AND ASKED THE U.

S.

DEPARTMENT OF JUSTICE TO INVESTIGATE.

>> SALVAGE PARTS INFERIOR OR EVEN COUNTERFEIT PARTS RAISE SAFETY CONCERNS AND OFTEN, THOSE KIND OF PARTS INVOLVED IN THE PRACTICE OF STEERING AND THAT'S WHY I HAVE BEEN CONCERNED FOR YEARS ABOUT IT.

AND WHY I THINK THE DEPARTMENT OF JUSTICE SHOULD BE INVESTIGATING.

>> Reporter: LOUISIANA'S ATTORNEY GENERAL CHOSE STATE FARM BECAUSE THEY'RE THE BIGGEST INSURER IN HIS STATE AND LEGAL FILINGS, THE COMPANY DENIES ALL THE ALLEGATIONS INCLUDING THE ALLEGATION THAT STATE FARM MANDATES USING AFTERMARKET PARTS.

STATE FARM WOULD NOT GRANT INTERVIEW BUT SENT A STATEMENT INSTEAD.

IT SAID OUR CUSTOMERS CHOOSE WHERE THEIR VEHICLES ARE GOING TO BE REPAIRED.

WE PROVIDE INFORMATION ABOUT OUR SELECT SERVICE PROGRAM WHILE AT THE SAME TIME MAKING IT CLEAR THEY CAN SELECT WHICH SHOP WILL DO THE WORK.

STATE FARM TOLD US TO BRING OUR SPECIFIC QUESTIONS TO NEIL OLRIDGE WITH THE NATIONAL ASSOCIATION OF MUTUAL INSURANCE COMPANIES.

>> IT'S NOT JUST IN THE ECONOMIC INTEREST OF THE INSURER TO HAVE A CAR GO IN AND OUT OF AN AUTO BODY SHOP FOUR OR FIVE TIMES TO GET IT RIGHT.

>> Reporter: WHY WOULD THEY RECOMMEND USED PARTS, FIXED PARTS OFF MARKET? >> SURE.

MOST COMPANIES DON'T REQUIRE THIS.

MOST COMPANIES OFFER A CHOICE TO CONSUMERS.

MOST OF THE ANY SORT OF AFTERMARKET PART YOU MIGHT HEAR ABOUT ARE USUALLY COSMETIC PARTS.

NOTHING RELATED TO THE SAFETY, THE MECHANICAL PARTS OF THE OPERATION OF THE VEHICLE.

THERE ARE LAWS IN ALMOST EVERY STATE THAT REQUIRE CONSUMERS TO BE TOLD THAT IF AFTERMARKET PARKTS ARE USED AND WHAT THEY ARE.

>> Reporter: WE FOUND THIS NOTICE ON PAGE FOUR OF THE ESTIMATE ON PAGE SIX OF THIS ONE.

>> IN MANY CASES, THESE PARTS ARE NO DIFFERENT.

THEY'RE MADE ON THE SAME FACTORIES.

ONE JUST COMES OUT WITH AN AUTO MANUFAC MANUFACTURER'S NAME ON IT AND OTHERS DON'T.

>> THAT'S NOT TRUE.

>> IT IS TRUE.

>> Reporter: IT CERTAINLY ISN'T TRUE IN THE CASE OF THIS REPLACEMENT HOOD FOR A HONDA MADE IN TAIWAN AND ALREADY COMING APART.

THIS AFTERMARKET BUMPER STRAIGHT OUT OF THE BOX NOT ONLY DOESN'T FIT BUT THE FASTENERS HAVE BEEN GLUED BACK TOGETHER AND THEN THERE'S THE QUESTION ABOUT THAT BROKEN AND REPAIRED TOYOTA TACOMA HEAD LAMP.

>> IT'S OBVIOUSLY A REPURPOSED PART FROM A JUNK YARD AND IF YOU LOOK CLOSELY, YOU'LL SEE HOW IT WAS GLUED TOGETHER, SNAPPED TOGETHER AND IN SOME CASES, EVEN WELDED AND SCREWED TOGETHER AND THIS IS WHAT THE INSURER TOLD THE PREFERRED BODY SHOP TO PUT ON THE CAR.

LOOK AT THIS.

YOU WOULDN'T WANT THAT IN YOUR CAR, I WOULDN'T WANT THAT IN MY CAR.

>> I DON'T KNOW THE CIRCUMSTANCES OF THE PICTURE, SO I REALLY CAN'T COMMENT ON IT.

>> Reporter: SO ARE THE ATTORNEY GENERALS WRONG IN SAYING THAT THE INSURANCE INDUSTRY AS A WHOLE, STATE FARM IN PARTICULAR, IS STEERING THEIR CUSTOMERS TO PREFERRED BODY SHOPS, PREFERRED BECAUSE THEY SAVE THE INSURANCE COMPANY MONEY, NOT THE CONSUMER? >> THE INSURANCE COMPANY MAY PROVIDE A LIST OF AUTO BODY SHOPS.

AND THE CUSTOMER CAN SAY NO, I WANT TO GO TO JOE'S BODY SHOP AROUND THE CORNER AND THAT'S THE CHOICE.

>> Reporter: THAT'S WHAT PROGRESSIVE INSURANCE TOLD US HAPPENED FOR THIS CAR.

REMEMBER, IT'S THE CAR WE TOLD YOU ABOUT EARLIER WITH THE RIP TAIL FRAME THAT YOU COULD ONLY SPOT WITH THE BOROSCOPE.

ONLY HIT FROM BEHIND.

A PREFERRED BODY SHOP AND SENT BACK ON THE ROAD WITH A RIPPED AND HIDDEN TAIL FRAME.

TURNS OUT IT WASN'T OLD, NOT REPAIRED.

THREE OF FOUR TIRE RIMS ARE DAMAGED AND THE UNDERCARRIAGE OF THE CAR IS PUSHED IN ACCORDING TO AUTO EXPERT BILL BURN AND OUTSIDE, THE PAINT JOB IS FILLED WITH POCKMARKS.

PROGRESSIVE INSURANCE SAY THEY DIDN'T CHOOSE THE BODY SHOP, THE OWNER DID.

WELL, THIS IS THE OWNER.

EUG EUGENEA RANDALL WHO NEEDS THE CAR TO CARRY HER 2-YEAR-OLD SON ROMAN AND REMEMBERS THE CONVERSATION WITH PROGRESSIVE MUCH DIFFERENTLY.

>> THEY DIDN'T GIVE ME A CHOICE AS TO WHERE I WANTED TO TAKE IT.

THEY JUST TOLD ME TO TAKE IT TO THEIR PREFERRED SHOP.

>> Reporter: RANDLE SAID BECAUSE IT WAS A PREFERRED SHOP, IT WOULD BE REPAIRED TO A HIGHER STANDARD BUT WHEN SHE PICKED IT UP, SHE IMMEDIATELY KNEW SOMETHING WASN'T RIGHT.

>> COSMETICALLY TO ME IT LOOKED FINE BUT ONCE I GOT IN AND GOT DOWN THE STREET, IT JUST STARTED DRIVING REALLY CRAZY AND I IMMEDIATELY TOOK IT BACK.

>> Reporter: SO HOW CRAZY WAS RANDLE'S CAR DRIVING? I DECIDED TO FIND OUT FOR MYSELF BY GETTING BEHIND THE WHEEL.

>> ANYTHING OVER 50 MILES PER HOUR, THIS THING JUST SHAKES.

THIS THING IS REALLY SHAKING NOW.

>> Reporter: NOT ONLY THE TAIL SECTION RIPPED AN UNREPAIRED, THREE OF FOUR TIRE RIMS DAMAGED AND AS I DROVE, THE STEERING WHEEL SHAKING SO VIOLENTLY, I HAD TO GRIP DOWN FROM VEERING TO THE RIGHT.

THE FRONT LEFT TIRE WAS JUST WOBBLING.

I CAREFULLY DROVE THIS SHAKING CAR RIGHT BACK TO THE INSURANCE COMPANY'S PREFERRED AUTO BODY SHOP.

WHERE THE GENERAL MANAGER PROMPTLY TOLD US TO LEAVE.

>> DON'T TURN THAT ON WITHOUT THE SERVICE PERMISSION IF YOU DON'T MIND.

>> Reporter: AS FOR THE SHAKING CAR, THE INSURANCE COMPANY EVENTUALLY DECLARED IT A TOTAL LOSS GIVING HER FULL REPLACEMENT VALUE.

BUT ONLY AFTER SHE HIRED AN ATTORNEY AND CNN BEGAN INVESTIGATING THIS STORY.

>> THE VEHICLE SPUN OUT.

>> UNBELIEVABLE.

DREW GRIFFIN JOINING US NOW.

I HAD NO IDEA ABOUT THIS WHOLE PLAN THEY HAVE.

DID THE REPAIR COMPANY THAT SUPPOSEDLY FIXED THE SHAKING CAR EVER GIVE AN EXPLANATION? >> Reporter: THE COMPANY SERVICE KING SAID THEY DID WHAT THE INSURANCE COMPANY APPROVED AND SAID ALL THEIR REPAIRS COME WITH A WRITTEN LIFETIME WARRANTY.

SERVICE KING'S CORPORATE OFFICE SAID IT WAS UNAWARE THERE WERE PROBLEMS OR COMPLAINTS AND.

How to Pick the Right Auto Body Repair Shops

The insurance companies nickel and dime them at every turn and they are made to give them at time ridiculous discounts to get any business. That’s why having an auto body shop in your corner can’t be stressed enough.

Nevertheless, all an auto body shop should be on is your side and corners should not be cut at your expense and being watchful is just a smart way to go.

Your Auto Body Shop In New Providence Should Help You With What Car Needs Exactly?

Collision Shops Near Me

  (Redirected from Mechanical Engineering) Mechanical Engineering, is the discipline that applies engineering, physics, and materials science principles to design, analyze, manufacture, and maintain mechanical systems. It is the branch of engineering that involves the design, production, and operation of machinery.[1][2] It is one of the oldest and broadest of the engineering disciplines. The mechanical engineering field requires an understanding of core areas including mechanics, kinematics, thermodynamics, materials science, structural analysis, and electricity. In addition to these core principles, mechanical engineers use tools such as computer-aided design (CAD), and product life cycle management to design and analyze manufacturing plants, industrial equipment and machinery, heating and cooling systems, transport systems, aircraft, watercraft, robotics, medical devices, weapons, and others. Mechanical engineering emerged as a field during the Industrial Revolution in Europe in the 18th century; however, its development can be traced back several thousand years around the world. In the 19th century, developments in physics led to the development of mechanical engineering science. The field has continually evolved to incorporate advancements; today mechanical engineers are pursuing developments in such areas as composites, mechatronics, and nanotechnology. It also overlaps with aerospace engineering, metallurgical engineering, civil engineering, electrical engineering, manufacturing engineering, chemical engineering, industrial engineering, and other engineering disciplines to varying amounts. Mechanical engineers may also work in the field of biomedical engineering, specifically with biomechanics, transport phenomena, biomechatronics, bionanotechnology, and modeling of biological systems. W16 engine of the Bugatti Veyron. Mechanical engineers design engines, power plants, other machines... ...structures, and vehicles of all sizes. The application of mechanical engineering can be seen in the archives of various ancient and medieval societies. In ancient Greece, the works of Archimedes (287–212 BC) influenced mechanics in the Western tradition and Heron of Alexandria (c. 10–70 AD) created the first steam engine (Aeolipile).[3] In China, Zhang Heng (78–139 AD) improved a water clock and invented a seismometer, and Ma Jun (200–265 AD) invented a chariot with differential gears. The medieval Chinese horologist and engineer Su Song (1020–1101 AD) incorporated an escapement mechanism into his astronomical clock tower two centuries before escapement devices were found in medieval European clocks. He also invented the world's first known endless power-transmitting chain drive.[4] During the Islamic Golden Age (7th to 15th century), Muslim inventors made remarkable contributions in the field of mechanical technology. Al-Jazari, who was one of them, wrote his famous Book of Knowledge of Ingenious Mechanical Devices in 1206, and presented many mechanical designs. He is also considered to be the inventor of such mechanical devices which now form the very basic of mechanisms, such as the crankshaft and camshaft.[5] During the 17th century, important breakthroughs in the foundations of mechanical engineering occurred in England. Sir Isaac Newton formulated Newton's Laws of Motion and developed Calculus, the mathematical basis of physics. Newton was reluctant to publish his works for years, but he was finally persuaded to do so by his colleagues, such as Sir Edmond Halley, much to the benefit of all mankind. Gottfried Wilhelm Leibniz is also credited with creating Calculus during this time period. During the early 19th century industrial revolution, machine tools were developed in England, Germany, and Scotland. This allowed mechanical engineering to develop as a separate field within engineering. They brought with them manufacturing machines and the engines to power them.[6] The first British professional society of mechanical engineers was formed in 1847 Institution of Mechanical Engineers, thirty years after the civil engineers formed the first such professional society Institution of Civil Engineers.[7] On the European continent, Johann von Zimmermann (1820–1901) founded the first factory for grinding machines in Chemnitz, Germany in 1848. In the United States, the American Society of Mechanical Engineers (ASME) was formed in 1880, becoming the third such professional engineering society, after the American Society of Civil Engineers (1852) and the American Institute of Mining Engineers (1871).[8] The first schools in the United States to offer an engineering education were the United States Military Academy in 1817, an institution now known as Norwich University in 1819, and Rensselaer Polytechnic Institute in 1825. Education in mechanical engineering has historically been based on a strong foundation in mathematics and science.[9] Archimedes' screw was operated by hand and could efficiently raise water, as the animated red ball demonstrates. Degrees in mechanical engineering are offered at various universities worldwide. In Ireland, Brazil, Philippines, Pakistan, China, Greece, Turkey, North America, South Asia, Nepal, India, Dominican Republic, Iran and the United Kingdom, mechanical engineering programs typically take four to five years of study and result in a Bachelor of Engineering (B.Eng. or B.E.), Bachelor of Science (B.Sc. or B.S.), Bachelor of Science Engineering (B.Sc.Eng.), Bachelor of Technology (B.Tech.), Bachelor of Mechanical Engineering (B.M.E.), or Bachelor of Applied Science (B.A.Sc.) degree, in or with emphasis in mechanical engineering. In Spain, Portugal and most of South America, where neither B.Sc. nor B.Tech. programs have been adopted, the formal name for the degree is "Mechanical Engineer", and the course work is based on five or six years of training. In Italy the course work is based on five years of education, and training, but in order to qualify as an Engineer one has to pass a state exam at the end of the course. In Greece, the coursework is based on a five-year curriculum and the requirement of a 'Diploma' Thesis, which upon completion a 'Diploma' is awarded rather than a B.Sc. In Australia, mechanical engineering degrees are awarded as Bachelor of Engineering (Mechanical) or similar nomenclature[10] although there are an increasing number of specialisations. The degree takes four years of full-time study to achieve. To ensure quality in engineering degrees, Engineers Australia accredits engineering degrees awarded by Australian universities in accordance with the global Washington Accord. Before the degree can be awarded, the student must complete at least 3 months of on the job work experience in an engineering firm. Similar systems are also present in South Africa and are overseen by the Engineering Council of South Africa (ECSA). In the United States, most undergraduate mechanical engineering programs are accredited by the Accreditation Board for Engineering and Technology (ABET) to ensure similar course requirements and standards among universities. The ABET web site lists 302 accredited mechanical engineering programs as of 11 March 2014.[11] Mechanical engineering programs in Canada are accredited by the Canadian Engineering Accreditation Board (CEAB),[12] and most other countries offering engineering degrees have similar accreditation societies. In India, to become an engineer, one needs to have an engineering degree like a B.Tech or B.E or have a diploma in engineering or by completing a course in an engineering trade like fitter from the Industrial Training Institute (ITIs) to receive a "ITI Trade Certificate" and also have to pass the All India Trade Test (AITT) with an engineering trade conducted by the National Council of Vocational Training (NCVT) by which one is awarded a "National Trade Certificate". Similar systems are used in Nepal. Some mechanical engineers go on to pursue a postgraduate degree such as a Master of Engineering, Master of Technology, Master of Science, Master of Engineering Management (M.Eng.Mgt. or M.E.M.), a Doctor of Philosophy in engineering (Eng.D. or Ph.D.) or an engineer's degree. The master's and engineer's degrees may or may not include research. The Doctor of Philosophy includes a significant research component and is often viewed as the entry point to academia.[13] The Engineer's degree exists at a few institutions at an intermediate level between the master's degree and the doctorate. Standards set by each country's accreditation society are intended to provide uniformity in fundamental subject material, promote competence among graduating engineers, and to maintain confidence in the engineering profession as a whole. Engineering programs in the U.S., for example, are required by ABET to show that their students can "work professionally in both thermal and mechanical systems areas."[14] The specific courses required to graduate, however, may differ from program to program. Universities and Institutes of technology will often combine multiple subjects into a single class or split a subject into multiple classes, depending on the faculty available and the university's major area(s) of research. The fundamental subjects of mechanical engineering usually include: Mechanical engineers are also expected to understand and be able to apply basic concepts from chemistry, physics, chemical engineering, civil engineering, and electrical engineering. All mechanical engineering programs include multiple semesters of mathematical classes including calculus, and advanced mathematical concepts including differential equations, partial differential equations, linear algebra, abstract algebra, and differential geometry, among others. In addition to the core mechanical engineering curriculum, many mechanical engineering programs offer more specialized programs and classes, such as control systems, robotics, transport and logistics, cryogenics, fuel technology, automotive engineering, biomechanics, vibration, optics and others, if a separate department does not exist for these subjects.[17] Most mechanical engineering programs also require varying amounts of research or community projects to gain practical problem-solving experience. In the United States it is common for mechanical engineering students to complete one or more internships while studying, though this is not typically mandated by the university. Cooperative education is another option. Future work skills[18] research puts demand on study components that feed student's creativity and innovation.[19] Engineers may seek license by a state, provincial, or national government. The purpose of this process is to ensure that engineers possess the necessary technical knowledge, real-world experience, and knowledge of the local legal system to practice engineering at a professional level. Once certified, the engineer is given the title of Professional Engineer (in the United States, Canada, Japan, South Korea, Bangladesh and South Africa), Chartered Engineer (in the United Kingdom, Ireland, India and Zimbabwe), Chartered Professional Engineer (in Australia and New Zealand) or European Engineer (much of the European Union), or Professional Engineer in Philippines and Pakistan. In the U.S., to become a licensed Professional Engineer (PE), an engineer must pass the comprehensive FE (Fundamentals of Engineering) exam, work a minimum of 4 years as an Engineering Intern (EI) or Engineer-in-Training (EIT), and pass the "Principles and Practice" or PE (Practicing Engineer or Professional Engineer) exams. The requirements and steps of this process are set forth by the National Council of Examiners for Engineering and Surveying (NCEES), a composed of engineering and land surveying licensing boards representing all U.S. states and territories. In the UK, current graduates require a BEng plus an appropriate master's degree or an integrated MEng degree, a minimum of 4 years post graduate on the job competency development, and a peer reviewed project report in the candidates specialty area in order to become a Chartered Mechanical Engineer (CEng, MIMechE) through the Institution of Mechanical Engineers. CEng MIMechE can also be obtained via an examination route administered by the City and Guilds of London Institute. In most developed countries, certain engineering tasks, such as the design of bridges, electric power plants, and chemical plants, must be approved by a professional engineer or a chartered engineer. "Only a licensed engineer, for instance, may prepare, sign, seal and submit engineering plans and drawings to a public authority for approval, or to seal engineering work for public and private clients."[20] This requirement can be written into state and provincial legislation, such as in the Canadian provinces, for example the Ontario or Quebec's Engineer Act.[21] In other countries, such as Australia, and the UK, no such legislation exists; however, practically all certifying bodies maintain a code of ethics independent of legislation, that they expect all members to abide by or risk expulsion.[22] Further information: FE Exam, Professional Engineer, Incorporated Engineer, and Washington Accord Mechanical engineers research, design, develop, build, and test mechanical and thermal devices, including tools, engines, and machines. Mechanical engineers typically do the following: Mechanical engineers design and oversee the manufacturing of many products ranging from medical devices to new batteries. They also design power-producing machines such as electric generators, internal combustion engines, and steam and gas turbines as well as power-using machines, such as refrigeration and air-conditioning systems. Like other engineers, mechanical engineers use computers to help create and analyze designs, run simulations and test how a machine is likely to work.[23] The total number of engineers employed in the U.S. in 2015 was roughly 1.6 million. Of these, 278,340 were mechanical engineers (17.28%), the largest discipline by size.[24] In 2012, the median annual income of mechanical engineers in the U.S. workforce was $80,580. The median income was highest when working for the government ($92,030), and lowest in education ($57,090).[25] In 2014, the total number of mechanical engineering jobs was projected to grow 5% over the next decade.[26] As of 2009, the average starting salary was $58,800 with a bachelor's degree.[27] An oblique view of a four-cylinder inline crankshaft with pistons Many mechanical engineering companies, especially those in industrialized nations, have begun to incorporate computer-aided engineering (CAE) programs into their existing design and analysis processes, including 2D and 3D solid modeling computer-aided design (CAD). This method has many benefits, including easier and more exhaustive visualization of products, the ability to create virtual assemblies of parts, and the ease of use in designing mating interfaces and tolerances. Other CAE programs commonly used by mechanical engineers include product lifecycle management (PLM) tools and analysis tools used to perform complex simulations. Analysis tools may be used to predict product response to expected loads, including fatigue life and manufacturability. These tools include finite element analysis (FEA), computational fluid dynamics (CFD), and computer-aided manufacturing (CAM). Using CAE programs, a mechanical design team can quickly and cheaply iterate the design process to develop a product that better meets cost, performance, and other constraints. No physical prototype need be created until the design nears completion, allowing hundreds or thousands of designs to be evaluated, instead of a relative few. In addition, CAE analysis programs can model complicated physical phenomena which cannot be solved by hand, such as viscoelasticity, complex contact between mating parts, or non-Newtonian flows. As mechanical engineering begins to merge with other disciplines, as seen in mechatronics, multidisciplinary design optimization (MDO) is being used with other CAE programs to automate and improve the iterative design process. MDO tools wrap around existing CAE processes, allowing product evaluation to continue even after the analyst goes home for the day. They also utilize sophisticated optimization algorithms to more intelligently explore possible designs, often finding better, innovative solutions to difficult multidisciplinary design problems. The field of mechanical engineering can be thought of as a collection of many mechanical engineering science disciplines. Several of these subdisciplines which are typically taught at the undergraduate level are listed below, with a brief explanation and the most common application of each. Some of these subdisciplines are unique to mechanical engineering, while others are a combination of mechanical engineering and one or more other disciplines. Most work that a mechanical engineer does uses skills and techniques from several of these subdisciplines, as well as specialized subdisciplines. Specialized subdisciplines, as used in this article, are more likely to be the subject of graduate studies or on-the-job training than undergraduate research. Several specialized subdisciplines are discussed in this section. Mohr's circle, a common tool to study stresses in a mechanical element Main article: Mechanics Mechanics is, in the most general sense, the study of forces and their effect upon matter. Typically, engineering mechanics is used to analyze and predict the acceleration and deformation (both elastic and plastic) of objects under known forces (also called loads) or stresses. Subdisciplines of mechanics include Mechanical engineers typically use mechanics in the design or analysis phases of engineering. If the engineering project were the design of a vehicle, statics might be employed to design the frame of the vehicle, in order to evaluate where the stresses will be most intense. Dynamics might be used when designing the car's engine, to evaluate the forces in the pistons and cams as the engine cycles. Mechanics of materials might be used to choose appropriate materials for the frame and engine. Fluid mechanics might be used to design a ventilation system for the vehicle (see HVAC), or to design the intake system for the engine. Training FMS with learning robot SCORBOT-ER 4u, workbench CNC Mill and CNC Lathe Main articles: Mechatronics and Robotics Mechatronics is a combination of mechanics and electronics. It is an interdisciplinary branch of mechanical engineering, electrical engineering and software engineering that is concerned with integrating electrical and mechanical engineering to create hybrid systems. In this way, machines can be automated through the use of electric motors, servo-mechanisms, and other electrical systems in conjunction with special software. A common example of a mechatronics system is a CD-ROM drive. Mechanical systems open and close the drive, spin the CD and move the laser, while an optical system reads the data on the CD and converts it to bits. Integrated software controls the process and communicates the contents of the CD to the computer. Robotics is the application of mechatronics to create robots, which are often used in industry to perform tasks that are dangerous, unpleasant, or repetitive. These robots may be of any shape and size, but all are preprogrammed and interact physically with the world. To create a robot, an engineer typically employs kinematics (to determine the robot's range of motion) and mechanics (to determine the stresses within the robot). Robots are used extensively in industrial engineering. They allow businesses to save money on labor, perform tasks that are either too dangerous or too precise for humans to perform them economically, and to ensure better quality. Many companies employ assembly lines of robots, especially in Automotive Industries and some factories are so robotized that they can run by themselves. Outside the factory, robots have been employed in bomb disposal, space exploration, and many other fields. Robots are also sold for various residential applications, from recreation to domestic applications. Main articles: Structural analysis and Failure analysis Structural analysis is the branch of mechanical engineering (and also civil engineering) devoted to examining why and how objects fail and to fix the objects and their performance. Structural failures occur in two general modes: static failure, and fatigue failure. Static structural failure occurs when, upon being loaded (having a force applied) the object being analyzed either breaks or is deformed plastically, depending on the criterion for failure. Fatigue failure occurs when an object fails after a number of repeated loading and unloading cycles. Fatigue failure occurs because of imperfections in the object: a microscopic crack on the surface of the object, for instance, will grow slightly with each cycle (propagation) until the crack is large enough to cause ultimate failure. Failure is not simply defined as when a part breaks, however; it is defined as when a part does not operate as intended. Some systems, such as the perforated top sections of some plastic bags, are designed to break. If these systems do not break, failure analysis might be employed to determine the cause. Structural analysis is often used by mechanical engineers after a failure has occurred, or when designing to prevent failure. Engineers often use online documents and books such as those published by ASM[29] to aid them in determining the type of failure and possible causes. Structural analysis may be used in the office when designing parts, in the field to analyze failed parts, or in laboratories where parts might undergo controlled failure tests. Main article: Thermodynamics Thermodynamics is an applied science used in several branches of engineering, including mechanical and chemical engineering. At its simplest, thermodynamics is the study of energy, its use and transformation through a system. Typically, engineering thermodynamics is concerned with changing energy from one form to another. As an example, automotive engines convert chemical energy (enthalpy) from the fuel into heat, and then into mechanical work that eventually turns the wheels. Thermodynamics principles are used by mechanical engineers in the fields of heat transfer, thermofluids, and energy conversion. Mechanical engineers use thermo-science to design engines and power plants, heating, ventilation, and air-conditioning (HVAC) systems, heat exchangers, heat sinks, radiators, refrigeration, insulation, and others. A CAD model of a mechanical double seal Main articles: Technical drawing and CNC Drafting or technical drawing is the means by which mechanical engineers design products and create instructions for manufacturing parts. A technical drawing can be a computer model or hand-drawn schematic showing all the dimensions necessary to manufacture a part, as well as assembly notes, a list of required materials, and other pertinent information. A U.S. mechanical engineer or skilled worker who creates technical drawings may be referred to as a drafter or draftsman. Drafting has historically been a two-dimensional process, but computer-aided design (CAD) programs now allow the designer to create in three dimensions. Instructions for manufacturing a part must be fed to the necessary machinery, either manually, through programmed instructions, or through the use of a computer-aided manufacturing (CAM) or combined CAD/CAM program. Optionally, an engineer may also manually manufacture a part using the technical drawings, but this is becoming an increasing rarity, with the advent of computer numerically controlled (CNC) manufacturing. Engineers primarily manually manufacture parts in the areas of applied spray coatings, finishes, and other processes that cannot economically or practically be done by a machine. Drafting is used in nearly every subdiscipline of mechanical engineering, and by many other branches of engineering and architecture. Three-dimensional models created using CAD software are also commonly used in finite element analysis (FEA) and computational fluid dynamics (CFD). Mechanical engineers are constantly pushing the boundaries of what is physically possible in order to produce safer, cheaper, and more efficient machines and mechanical systems. Some technologies at the cutting edge of mechanical engineering are listed below (see also exploratory engineering). Micron-scale mechanical components such as springs, gears, fluidic and heat transfer devices are fabricated from a variety of substrate materials such as silicon, glass and polymers like SU8. Examples of MEMS components are the accelerometers that are used as car airbag sensors, modern cell phones, gyroscopes for precise positioning and microfluidic devices used in biomedical applications. Main article: Friction stir welding Friction stir welding, a new type of welding, was discovered in 1991 by The Welding Institute (TWI). The innovative steady state (non-fusion) welding technique joins materials previously un-weldable, including several aluminum alloys. It plays an important role in the future construction of airplanes, potentially replacing rivets. Current uses of this technology to date include welding the seams of the aluminum main Space Shuttle external tank, Orion Crew Vehicle test article, Boeing Delta II and Delta IV Expendable Launch Vehicles and the SpaceX Falcon 1 rocket, armor plating for amphibious assault ships, and welding the wings and fuselage panels of the new Eclipse 500 aircraft from Eclipse Aviation among an increasingly growing pool of uses.[30][31][32] Composite cloth consisting of woven carbon fiber Main article: Composite material Composites or composite materials are a combination of materials which provide different physical characteristics than either material separately. Composite material research within mechanical engineering typically focuses on designing (and, subsequently, finding applications for) stronger or more rigid materials while attempting to reduce weight, susceptibility to corrosion, and other undesirable factors. Carbon fiber reinforced composites, for instance, have been used in such diverse applications as spacecraft and fishing rods. Main article: Mechatronics Mechatronics is the synergistic combination of mechanical engineering, electronic engineering, and software engineering. The purpose of this interdisciplinary engineering field is the study of automation from an engineering perspective and serves the purposes of controlling advanced hybrid systems. Main article: Nanotechnology At the smallest scales, mechanical engineering becomes nanotechnology—one speculative goal of which is to create a molecular assembler to build molecules and materials via mechanosynthesis. For now that goal remains within exploratory engineering. Areas of current mechanical engineering research in nanotechnology include nanofilters,[33] nanofilms,[34] and nanostructures,[35] among others. See also: Picotechnology Main article: Finite element analysis This field is not new, as the basis of Finite Element Analysis (FEA) or Finite Element Method (FEM) dates back to 1941. But the evolution of computers has made FEA/FEM a viable option for analysis of structural problems. Many commercial codes such as ANSYS, NASTRAN, and ABAQUS are widely used in industry for research and the design of components. Some 3D modeling and CAD software packages have added FEA modules. In the recent times, cloud simulation platforms like SimScale are becoming more common. Other techniques such as finite difference method (FDM) and finite-volume method (FVM) are employed to solve problems relating heat and mass transfer, fluid flows, fluid surface interaction, etc. In recent years meshfree methods like the smoothed particle hydrodynamics are gaining popularity in case of solving problems involving complex geometries, free surfaces, moving boundaries, and adaptive refinement.[citation needed] Main article: Biomechanics Biomechanics is the application of mechanical principles to biological systems, such as humans, animals, plants, organs, and cells.[36] Biomechanics also aids in creating prosthetic limbs and artificial organs for humans. Biomechanics is closely related to engineering, because it often uses traditional engineering sciences to analyse biological systems. Some simple applications of Newtonian mechanics and/or materials sciences can supply correct approximations to the mechanics of many biological systems. Over the past decade the Finite element method (FEM) has also entered the Biomedical sector highlighting further engineering aspects of Biomechanics. FEM has since then established itself as an alternative to in vivo surgical assessment and gained the wide acceptance of academia. The main advantage of Computational Biomechanics lies in its ability to determine the endo-anatomical response of an anatomy, without being subject to ethical restrictions.[37] This has led FE modelling to the point of becoming ubiquitous in several fields of Biomechanics while several projects have even adopted an open source philosophy (e.g. BioSpine). Main article: Computational fluid dynamics Computational fluid dynamics, usually abbreviated as CFD, is a branch of fluid mechanics that uses numerical methods and algorithms to solve and analyze problems that involve fluid flows. Computers are used to perform the calculations required to simulate the interaction of liquids and gases with surfaces defined by boundary conditions. With high-speed supercomputers, better solutions can be achieved. Ongoing research yields software that improves the accuracy and speed of complex simulation scenarios such as transonic or turbulent flows. Initial validation of such software is performed using a wind tunnel with the final validation coming in full-scale testing, e.g. flight tests. Main article: Acoustical engineering Acoustical engineering is one of many other sub disciplines of mechanical engineering and is the application of acoustics. Acoustical engineering is the study of Sound and Vibration. These engineers work effectively to reduce noise pollution in mechanical devices and in buildings by soundproofing or removing sources of unwanted noise. The study of acoustics can range from designing a more efficient hearing aid, microphone, headphone, or recording studio to enhancing the sound quality of an orchestra hall. Acoustical engineering also deals with the vibration of different mechanical systems.[38] Manufacturing engineering, Aerospace engineering and Automotive engineering are sometimes grouped with mechanical engineering. A bachelor's degree in these areas will typically have a difference of a few specialized classes. Lists Associations Wikibooks

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