Burke Lubricants | Latest Articles http://www.oil.ie Read the latest news from the world of Burke Lubricants en-us http://www.oil.ie/news/view/71 <![CDATA[Palmer & Harvey Achieves Significant Fuel Economy Benefits With Mobil Delvac Lubricants]]> http://www.oil.ie/news/view/71 Thu, 17 May 2012 01:00:00 +0100 Synthetic engine and drivetrain lubricants reduce fuel consumption by an average of 4.7 percent

  • Mercedes-Benz, Iveco and DAF trucks demonstrate fuel economy savings
  • Mobil Delvac 1 LE 5W-30 and Mobilube 1 SHC 75W-90 help optimise drivetrain performance
  • Mobil Delvac synthetic lubricants can save truck operators money

BRUSSELS, BelgiumPalmer & Harvey, the UK’s largest delivered wholesaler, has reported an average fuel economy saving of 4.7 percent during a field trial using Mobil Delvac flagship synthetic engine and drivetrain lubricants, and Mobilube gear oils. The introduction of fully-synthetic, high performance lubricants, including Mobil Delvac 1 LE 5W-30 engine oil, has helped to improve the fuel economy of Mercedes-Benz, Iveco and DAF trucks.

The field trial was initiated as part of Palmer & Harvey’s ongoing commitment to improve its sustainability performance. At the company’s Dunfermline distribution centre, where approximately 50 HGVs travel an average of 65,000km per annum to service Palmer & Harvey’s customers throughout Scotland, four trucks were selected to test the performance of Mobil Delvac flagship lubricants.

Fully-synthetic lubricants replaced conventional mineral based products in the engine, transmission and rear axle of two Mercedes-Benz 1823 Atego trucks, one Iveco 180E23 and a DAF CF 85. Mobil Delvac 1 LE 5W-30 was used in the Mercedes-Benz and Iveco trucks, and Mobil Delvac 1 5W-40 in the DAF engine. Mobilube 1 SHC 75W-90 was used in the transmission and rear axle of all four vehicles.

Mobil Delvac 1 LE 5W-30 is a fully-synthetic high performance heavy-duty diesel engine oil that helps protect both the engine and emission system while providing long drain capability and fuel economy potential for modern diesel engines, including those fitted with Diesel Particulate Filters (DPF). Mobilube 1 SHC 75W-90 is a fully-synthetic, supreme performance commercial gear lubricant, suitable for total driveline application. Formulated using advanced base oils and an innovative additive system, Mobilube 1 SHC 75W-90 has been proven to deliver outstanding protection alongside fuel economy benefits.

Over a five month period, the fuel economy performance of the vehicles was monitored by Palmer & Harvey’s in-house transport maintenance team using an industry recognised Merridale fuel management system. Significant fuel economy benefits were achieved across all four vehicles, with the DAF, which travels over 100,000km per annum, demonstrating a 4.9 percent reduction in fuel consumption.

“As the UK’s largest delivered wholesaler, Palmer and Harvey constantly monitors and assesses our impact on the environment,” said Rhys Thomas, National Transport Manager, Palmer & Harvey. “Over the past year we have continued to improve our sustainability performance, ensuring we are doing all we can to reduce our impact on the world, without compromising on customer services or increasing costs. One example of this is the Mobil Delvac oil trial we have conducted at our distribution centre in Dunfermline.”

“The results reported by Palmer & Harvey demonstrate the significant benefits that could potentially be gained by using fully-synthetic, fuel-efficient lubricants in a vehicle’s engine and full drivetrain,” said Steve Crawley, UK & Ireland Commercial Vehicle Lubricants Manager, ExxonMobil Lubricants & Petroleum Specialties. “Other operators can also look to reduce their fuel bills by switching from conventional mineral oils to Mobil Delvac synthetic lubricants.”

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http://www.oil.ie/news/view/68 <![CDATA[Momentum Issue 9 Now Available ]]> http://www.oil.ie/news/view/68 Tue, 15 May 2012 01:00:00 +0100

New materials
We’ve been working on new sales material to support the Mobil Delvac brand. Take a look…
Mobil Delvac 1 Flagship Video

Mobil Delvac flagship products are a key part of the overall CVL product offering. These products offer great benefits and are a focus for 2011.

To this end, we have produced an animation to showcase the flagship brand. The video covers the full bumper-to-bumper offer and increases awareness of Mobil Delvac 1
flagship products.

Ask your Mobil Delvac representative for more information.

Mobil    Delvac    XHP    LE    sales    sheet

The Mobil Delvac XHP LE sales sheet has been produced to increase awareness of the new advanced engine and emission system protection.

The document offers an introduction to the product, and detailed information of the benefits offered by Mobil Delvac XHP LE.

 

 

 

 

 

 

Mobil

The pilot program for Mobil Delvac Champion has gone live in the UK and Poland and will run until March 2011. This is an incentive program that measures and rewards Distributor Sales Representatives for their outstanding commitment to the Mobil Delvac brand. The top performer will be named Mobil Delvac Champion and will win an exciting race day.

We’re looking forward to the results and full roll out across the Zone later this year.

 

2011 Exxon Mobil Corporation. The Mobil Delvac and ExxonMobil logotypes are registered trademarks of Exxon Mobil Corporation or one of its subsidiaries. The term “ExxonMobil” is used for convenience only and could refer to Exxon Mobil Corporation or one of its affiliates as the case may be. Other logotypes and trademarks are the property of the respective owners.

 

 

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http://www.oil.ie/news/view/67 <![CDATA[Momentum Issue 9 Additional Events]]> http://www.oil.ie/news/view/67 Thu, 10 May 2012 01:00:00 +0100

Mobil Delvac Truck Simulator at Bavaria Moscow City Racing

In July 2010, the team in Russia promoted Mobil Delvac at Bavaria Moscow City Racing, Russia’s biggest consumer motorsports event. This star-studded event sees famous racing teams including F1 cars driving through Red Square in the centre of Moscow.

Using the Mobil Delvac Truck Simulator to promote brand awareness, the team used the opportunity to build relationships with key CVL media and collect consumer data via questionnaires.

Owner operators were invited to come along and enter the competition via leaflets, emails and SMS. The activity was launched on a promotional Mobil Delvac and featured in CVL publications. On the first day, there was a competition to find the fastest truck driver with a chance to win VIP tickets to sit in the grandstand and watch the cars the following day.

On the second day the Mobil Delvac Truck Simulator moved to the VIP zone for the VIP guests and CVL media to give it a try. This was also the perfect opportunity to announce the launch of the Mobil Delvac Club to the key CVL media that attended the event.

The results were impressive. Nearly 200 guests tried out the simulator over the two days and 3000 people registered on the promotional website. The site gained 2.4m views and nearly 60 different pieces of media coverage were achieved.

An excellent, high impact PR campaign with impressive tangible results.

NEW Simulator Branding for 2011

Official 3 day opening for EvoBus
EvoBus, Italy's premier City Bus network, held an official 3 day opening from the 16th to the 18th September which attracted around 1,000 visitors. The event included a national press conference and presentation event, during which EvoBus demonstrated their products and services. There was an exhibition area dedicated to their sponsors, where ExxonMobil representatives gave presentations to EvoBus Service Area Managers about the Mobil Delvac product line, with a focus on how Mobil Delvac can benefit EvoBus and introducing the Mobil Delvac Express concept. During the 3 days, EvoTV was on-hand to capture the whole event, and the footage was broadcast across big screens, showing interviews with EvoBus representatives and corporate videos. Thanks to all those involved for a successful event.

 

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http://www.oil.ie/news/view/66 <![CDATA[Momentum Issue 9 Events]]> http://www.oil.ie/news/view/66 Tue, 08 May 2012 01:00:00 +0100

Mobil Delvac searches for Poland's strongest trucker
Now here’s a challenge with a difference.
In September, Mobil Delvac set about finding Poland’s strongest trucker in The Trucker Arm Wrestling Tournament. The event was only open to truck and bus drivers who in the first stage fought against a machine to win a place in the finals. All entrants received a pair of Mobil Delvac leather gloves and other prizes included satellite navigation systems, cameras and net books.

 

 

 

     Excellent Mobil Delvac 1 branding                                                  Fighting against the machine                                                           Fighting against each other!

The eight strongest truckers were then entered into Nemiroff World Cup 2010, a prestigious arm wrestling tournament held in Sopot on 5th and 6th November. Our truckers were up against the title defenders: the strongest left-handed arm wrestler, Denis Cyplenkov from Russia and the strongest right-handed arm wrestler, John Brzenka from USA.

 

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http://www.oil.ie/news/view/65 <![CDATA[Momentum Issue 9 News]]> http://www.oil.ie/news/view/65 Thu, 03 May 2012 01:00:00 +0100

Highlights from Russia
Once again, the team in Russia has been busy throughout their region, with a range of innovative and successful activities. Let’s take a look at a few of their recent highlights.

Ural
Our flagship Mobil Delvac 1 5W-40 product has been at great demand at KongorKhrom, part of Chelyabinsk Electro-metallurgical Plant in the Polar Ural region. Thanks to all involved in this new business success.

South
Over to the Sochi Olympic construction site, where a new customer has been acquired; DorozhnoTransportnaya Kompaniya (DTK) is one of the transportation companies
working over the site with quarry trucks (Tatra, Scania, Kamaz). Lubricants supplied include Mobil Delvac MX, MX Extra and XHP Extra. DTK have chosen to replace Shell products with Mobil Delvac.

Siberia
Team-work can really pay off! The CVL team, Distributors, and the supply functions in Novosibirsk, Vladivostok and Moscow came together to transport a container of Mobil
Delvac 1 SHC 5W-40 from Ulsan in Korea to our Omsk. This enabled a combined delivery to RUSAL (the world’s largest aluminum company) mining branch and optimization of stock at the Ulsan plant.

North West
A new Proof of Performance has been gained from SKK trucks in the Komi region. Syktyvkar operate a fleet of trucks including Scania, MAN and Maz vehicles. They have switched from Shell Rimula to Mobil Delvac and report reduced operating and maintenance costs as a result. Well done Mobil Delvac!

FER
A trial took place in the region of Terneyles with Iveco Trucks using Mobil Delvac 1 SHC 5W-40. Organised by our Distributor Dalmis, with supervisors from ExxonMobil
and Iveco AMT, the trial demonstrated excellent proof of performance. Oil drain interval was doubled to 800 hours instead of the recommended 400 - another amazing Proof of Performance for Mobil Delvac!

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http://www.oil.ie/news/view/64 <![CDATA[Momentum Issue 9 Additional Product News]]> http://www.oil.ie/news/view/64 Mon, 30 Apr 2012 01:00:00 +0100

Are your fuel costs heavy duty?

Where does the fuel go?

Fuel is a leading operating expense for individual owner/operators and fleets. Approximately half of the energy produced from fuel is lost as heat; a further 15% is lost as
friction, leaving only about 35% of the energy for hauling. Although friction cannot be completely eliminated, there are ways to reduce friction and increase fuel economy. Within an engine, there are two types of friction: viscous friction and contact friction. Viscous friction is related to the thickness of the oil and includes the energy losses related to pumping and moving engine parts through the oil. Contact friction is a result of metal-to-metal contact which can be due to inadequate lubrication. A high degree of friction can lead to both engine wear and a reduction in fuel economy. The aim of this guide is to supply you with information to help you choose a balanced formulation that will provide engine protection with better fuel economy.

Figure A: Fuel Energy Breakdown  

How does friction affect fuel economy?
Friction is always present. However, there are times when friction has a greater impact on fuel economy and engine wear. Low temperature operation is one of those times. During cold engine start-up and stop-and-go driving your oil will be the most viscous. This can lead to a high degree of viscous friction and as a result, it can reduce fuel economy.

Another instance when friction has a large effect on fuel economy is when engine components rub against one another. This can occur during engine start-up if the oil is too viscous to be pumped or at high temperatures if the oil is not thick enough to keep engine components separated. Figure B shows the relationship between lubricant viscosity and friction. It illustrates that there is an optimal viscosity which minimizes overall engine friction by balancing contact and viscous friction

Can viscosity be controlled?
The challenge is to formulate a lubricant that will maintain the desired viscosity over a wide temperature range and over the course of the drain interval.

There are many different viscosity grades available and
the optimal grade is going to be different depending on the specific engine and operating conditions. However, in choosing a lubricant capable of maintaining an optimal viscosity over a wide temperature range, high viscosity index (VI) is a key parameter.
VI is a measure of how the viscosity changes with temperature. The viscosity of a high VI lubricant will not
change as much as the viscosity of a low VI lubricant when the temperature changes. This means that at low temperatures the lubricant will be less viscous, leading to better fuel economy relative to a low VI lubricant. At high temperatures, the lubricant will be more viscous giving a greater film thickness compared to a low VI lubricant. This could allow the use of a lower viscosity lubricant to enhance fuel economy while maintaining engine protection. Figure C compares how viscosity changes with temperature for a multigrade (high VI) and a monograde (low VI) engine oil.

Figure B: Engine Friction Curve

How much savings can I capture?
With regards to how your lubricant can impact fuel economy, the single most important parameter is viscosity control. Having the optimum viscosity at each operating condition will minimize overall engine friction and reduce fuel consumption.

 

For low temperature and stop-and-go operation there is the potential for up to 5% fuel savings. A multigrade lubricant with a low “W” grade could provide improved savings. For example, using a 5W-XX compared to a 15W-XX would provide a better chance at capturing the potential fuel savings. For normal operation, once the engine is warmed up, there is the potential for up to 2% fuel savings. A multigrade lubricant with a lower, hightemperature viscosity grade could provide improved savings. For example, using a XW-30 compared to a XW-40 would provide a better chance of capturing the potential fuel savings. Additionally, these two modes of fuel savings could be combined by using a SAE 5W-30 for even greater potential benefit.


Also, viscosity can increase over time because of lubricant break-down and contamination. Soot particles, contaminants, and by-products of oil break-down can lead to oil thickening. This can lead to reduced fuel economy and compromise wear protection. A lubricant must be specifically designed to resist thermal, oxidative, and soot induced thickening.

Figure C: Multigrade engine oils show less viscosity
change over temperature range

 

If an oil can maintain its original viscosity, there is potential for fuel savings of up to 5% over the course of an oil drain interval. Viscosity retention may have the largest influence on total fuel savings because it plays a role across all operating conditions. Although fuel economy is a major concern, it is also important to choose a lubricant that can provide excellent engine protection. Mobil Delvac 1 LE 5W-30 has been formulated to achieve optimised performance as demonstrated by it's 5W-30 viscosity grade designation and extended drain approvals.
 

Testing source: EMRE

 

 

 

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http://www.oil.ie/news/view/62 <![CDATA[Momentum Issue 9 Product News]]> http://www.oil.ie/news/view/62 Thu, 26 Apr 2012 01:00:00 +0100

New OEM approvals
Mobil Delvac XHP Extra 10W-40 has been awarded the coveted LDF-3 approval from Scania, the longest oil drain engine oil approval available from this major European heavy-duty truck manufacturer. This further improves the profile of Mobil Delvac XHP Extra 10W-40, which already enjoys several long drain approvals from a range of OEMs.

The new full profile is:

 

 

- MB-Approval 228.5/235.27
- MAN M 3277
- Volvo VDS-3/VDS-2
- MTU Oil Category 3
- Scania LDF-3/LDF-2; ZF TE-ML 04C

 

 

- ACEA E7/E4
- Renault Truck RXD
- DAF Extended Drain

 

 

- API CF
- Cummins 20072

 

Mobil Delvac XHP Ultra 5W-30 has long been a key part of Mobil Delvac's offer to Mercedes-Benz dealerships. This excellent product now has additional ACEA and MAN performance claims to significantly extend its application, so there are even more opportunities for customers to benefit from the excellent performance of Mobil Delvac XHP
Ultra 5W-30.

The new full profile is:

 

 

- MB-Approval 228.5/235.28
- MAN M3277

 

 

- ACEA E4

 

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http://www.oil.ie/news/view/52 <![CDATA[Mobil at the CV Show]]> http://www.oil.ie/news/view/52 Tue, 24 Apr 2012 01:00:00 +0100

The Commercial Vehicle Show is approaching and Burke Lubricants is proud to say that ExxonMobil and Mobil Delvac will be presented there.

The CV Show takes place from the 24th to 26th of April at the National Exhibition Centre (NEC) in Birmingham. This year will be the 10th year running and is the largest road transport event in Britain. Thousands of guests attend the event that is described to be the most productive sourcing and selling occasion for the UK road and transport logistics industry.

Mobil Delvac has been recognised as the leader in heavy-duty specialised lubricants for the last 80 years. It’s used in commercial and utility vehicles. From heavy-duty oils to coolants, Mobil Delvac meets your needs and maximises your equipment life. You are welcome to come and meet
Burke Lubricants Sales Director, Cormac Gillman, who will be at the ExxonMobil stand to speak about fuel economy savings and extended vehicle life.

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http://www.oil.ie/news/view/61 <![CDATA[Momentum Issue 9 People Focus]]> http://www.oil.ie/news/view/61 Tue, 24 Apr 2012 01:00:00 +0100

Global CVL Team
In this issue we have a look at the career paths of two senior members of the Global CVL team.

Ray joined the former Mobil Research & Development Company in 1990 after receiving his B.S. degree in Chemical Engineering from Bucknell University. His initial assignments included Proof of Performance testing of U.S. Mobil 1 formulations, as well as working with the car manufacturers to obtain approvals on Mobil 1 engine oils. He also provided trackside, Mobil 1 technical support to
the Mobil 1 sponsored IndyCar and NASCAR race teams.

In 1995 Ray transferred to the North American Marketing and Refining (NAM&R) Division of Mobil Oil Corporation, where he assumed responsibility as an Assistant Product Manager for U.S. Automotive Lubes. Then, in 1998, Ray transferred into the NAM&R Sales division, where he was responsible for CVL sales to large U.S. Truck Fleets. Following this assignment, in 2000 Ray was transferred into the Americas Automotive Marketing department for ExxonMobil Lubes & Specialities (L&S). Here he was responsible for the development of marketing strategies and programs supporting Strategic Global Account factory-fill and service-fill programs in the U.S.

In 2002 Ray moved into the Americas Strategic Accounts Sales group, where he took on the role of Account Executive for North American factory-fill and service-fill lubricant sales to DaimlerChrysler and Ford. He then returned to ExxonMobil Research & Engineering in 2006, where he went on to lead the Passenger Vehicle Lubricants Team responsible for Mobil 1 Proof of Performance programs and OEM cooperative efforts.

Ray transferred into the L&S Technology Division in 2009, where he served as the Global Products Technical Advisor for Synthetic PVL products. Then, in 2010, he moved into the L&S Marketing Division, where he took over his current role.

 

Nathaniel was raised in Argentina and is married with an 18 year old son. He received his BBA degree in Management and Spanish from Evangel University in 1986 and began his career with Exxon in Houston, Texas in 1987.

Nathaniel held various analytical, supervisory, and managerial assignments for ExxonMobil while serving in a variety of increasing capacities in Controller’s, Treasurer’s, Fuels Marketing and Lubricants & Specialties. During this time he was assigned to Houston, Alaska, Coral Gables, Jamaica, Brazil, Pennsylvania, and Fairfax. Then in 2008, Nathaniel was named India Country Sales Manager for ExxonMobil Lubricants Private Limited leading the L&S business throughout all of India.

Nathaniel assumed his current position in December 2010. In this capacity, he manages the Mobil Delvac 1 and Mobil Delvac brands world-wide with a winning brand proposition of efficiently delivering value to truck and equipment owners through technology solutions and heavy duty specialisation.

Nathaniel has been an active sponsor of ExxonMobil’s involvement in Junior Achievement encouraging young people to further their education.

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http://www.oil.ie/news/view/59 <![CDATA[Momentum Issue 9]]> http://www.oil.ie/news/view/59 Thu, 19 Apr 2012 01:00:00 +0100

Dear Team

Welcome to the ninth edition of Momentum. In this issue we meet two senior colleagues of the Global CVL team and gain insight into their careers to date: Raymond McDonald, Global Marketing Advisor for CVL; and Nathaniel Hedman, Mobil Delvac Global Brand Manager.

We have some exciting product news and are pleased to announce new OEM approvals from Scania and Mercedes-Benz. We  also take an in-depth look at how selecting the correct lubricant can significantly improve fuel economy – an increasingly important issue for Owner Operators and Fleet Managers alike.

Plus, please make sure you read about Mobil Delvac’s search for Poland's strongest trucker – an innovative campaign that's boosting our brand advocacy in this region.

Remember, if there is anything you would like to see feature in future editions, simply click here to contact us or email tony.t.weatherill@exxonmobil.com and we’ll do our best to see that it is included.

Finally, thank you for your continued and enthusiastic support during 2010.

The Mobil Delvac brand goes from strength to strength due to your outstanding commitment.

We look forward to developing the Mobil Delvac brand even further in 2011.

Tony Weatherill

 

 

 

 

 

 

 

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http://www.oil.ie/news/view/60 <![CDATA[The Complexity of an F1 Steering Wheel]]> http://www.oil.ie/news/view/60 Mon, 16 Apr 2012 01:00:00 +0100 Over the years the F1 vehicle has developed and changed dramatically. The car has gotten lower and the cockpit narrower. The steering wheel has had to change too in order to accommodate the differences. From the days of being made completely out of wood and having no buttons, steering wheels have developed to include nearly twenty buttons and paddles and that number can change according to the preferences of the driver.

F1 safety is of vital importance and the steering wheel plays a big part in the rapid release of the driver in dangerous situations. The FIA technical regulations state that the driver needs to be able to get out of his vehicle in under five seconds and by only removing the steering wheel.

This video takes a look at the development of the F1 steering wheel over the years and the motorsport technology that goes into perfecting the driver’s connection to his machine.

 

 

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http://www.oil.ie/news/view/58 <![CDATA[Energy Saving Mobil Lubricants]]> http://www.oil.ie/news/view/58 Thu, 12 Apr 2012 01:00:00 +0100 Mobil, the leading innovators in lubrication technology for the past 100 years, have released two new lubricants that allow equipment to work at peak condition and are energy efficient. The new high-performance lubricants are Mobil SHC 600 Series and Mobil SHC Gear.

The previous Mobil lubricant that is similar to these two is the Mobil SHC Pegasus, which is the first energy-efficient and durable gas engine oil. The Mobil SHC 600 Series provides problem-free operation and increases productivity whilst the Mobil SHC Gear is used for optimising equipment and oil life in gearboxes. The Mobil SHC range is recognised for outstanding performance and innovation. These new lubricants symbolise Mobil’s commitment to using advanced technology to provide outstanding lubricant products.
 


 
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http://www.oil.ie/news/view/57 <![CDATA[Fire Resistant Fluids in Power Generation]]> http://www.oil.ie/news/view/57 Tue, 10 Apr 2012 01:00:00 +0100
The importance of the fluid selection and maintenance is visible on the Electro Hydraulic Control (EHC) systems that are responsible for governing steam to turbine generators. Fire resistant fluids need to be used when high pressures and temperatures are present as it could lead to dangerous and expensive fires. Phosphate esters are the most commonly used fluid in EHC systems in power turbine control systems and require special maintenance and care, as opposed to mineral oils.

Fire Resistant Fluids
Fire resistant hydraulic fluids are specially formulated lubricants and are more difficult to ignite; these fluids don’t transmit a flame from an ignition source. Fire resistant must not be confused with fire proof as it will ignite under certain conditions. There are several types but can mainly be classified as: oil and water emulsions, water glycols, and anhydrous synthetics.

The International Standards Organisation (ISO) further classifies the fluid as:

  • HFAE - oil in water emulsions that have no more than 20 percent emulsifying oil
  • HFAS -  synthetic aqueous fluids
  • HFB - water in oil emulsions that typically contain 60 percent oil
  • HFC - aqueous solutions of glycol and polyalkylene glycol thickener in water
  • HFDR - anhydrous fluids that compose of phosphate esters
  • HFDU -  synthetic anhydrous fluids other than phosphate esters, for example polyol esters and polyalkylene glycols


Flammability Evaluation
The fire resistance of fluids is usually measured in three ways:

  1. The ignition of pressurized fluid spray (spray flammability test).
  2. Ignition of a fluid when sprayed on a hot surface (hot surface ignition test).
  3. The ignition of a fluid that has impregnated porous or wick type materials (fluid evaporation test).

Additionally, Factory Mutual developed the Spray Flammability Parameter and European Economic Community developed the ‘stabilized flame heat release’, otherwise known as the ‘Buxton Test’, through the Luxembourg Report. Both of these standards use spray ignition tests and calculations for the heat rate.

Care of EHC Fluids
HDFR fluids (the phosphate esters type) and triaryl phosphates are usually used in EHC systems. These fluids require special care and maintenance. Resistivity, metals, cleanliness, and the content of water, acid, chlorine, and mineral oil need to be monitored for optimum performance.

Phosphate esters are hygroscopic, which means they have the natural affinity to absorb water, but have poor hydrolytic stability, i.e. fluid can degrade in the presence of water. In the presence of water, phosphate esters can undergo hydrolysis reactions which can lead to increasing acidity, system corrosion and/or the erosion of sensitive components. Therefore the water content and Total Acid Number (TAN) need to be closely monitored frequently.

A high fluid resistivity, or low conductivity, is necessary to avoid electromechanical erosion of the valve spool when using servo valves. Low resistivity is usually found when the fluid becomes acidic through hydrolysis or is contaminated with chlorine compounds. Chlorine contamination can result from the use of chlorinated solvents and can cause servo valve erosion problems.

The mineral oil content needs to be monitored. An excess (more than 0.5 percent) can affect the air and foam release properties whilst higher than 4 percent reduces the fire resistance and oxidation stability. Minimizing particulate contamination is vital when fire tolerance servo valves are used. Servo valves are sensitive to abrasive wear and erosion from particulates and can lead to the loss of system sensitivity and control. Particulate contamination could also impact resistivity of fluid and lead to further erosion of valve components.

Phosphate Ester conditioning
Special conditioning methods need to be followed to maintain a suitable fluid condition. This can usually be achieved with an absorbent solid filter, such as Fuller’s earth, or activated alumina in combination with vacuum dehydrators and standard particulate filters. Fuller’s earth is used to strip acids and chlorides from fluid to maintain a low fluid acid number level (this should be below 0.2 mgKOH/g). Calcium, sodium and magnesium levels should also be monitored. An excess could indicate that the particulate filters need replacing.

Vacuum dehydrators can be used to maintain the low water content and remove entrained air in the fluid. Particulate filters are used to maintain particulate levels in oil. Cleanliness is reported according to the ISO classification (ISO 4406) of fluid. Usually two filters are required to prevent particulates from damaging or blocking the servo valve components.

Fluid Condition Monitoring
A meticulous program is required to maintain a long problem-free operation. The suggested schedule of a fluid analysis test is as follows:

The TAN, water content, particle contamination and volume resistivity need to be monitored monthly. The other properties can be monitored on a quarterly or semi-annual basis.

Material Compatibility
Special conditions regarding material compatibility need to be taken. Phosphate esters will soften some paints and therefore epoxy based paints should be used. It’s also not compatible with standard nitrile rubber seals and specialised seal materials should then be used. Care should also be taken when mixing different phosphate ester from different suppliers.

References

  • “Current Standards for Certification of Fire Resistant Hydraulic Fluids Used in General Industrial Applications”, Fluid Power Journal Jan/Feb 2006 pp. 30-36.
  • “Managing the Health of Fire Resistant Steam Turbine Electro hydraulic (EHC) EHC Control Oils”, Machinery Lubrication 2006
  • Reolube Turbofluids Guide to their maintenance and use, Great Lakes Chemical Corporation Publication

 

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http://www.oil.ie/news/view/56 <![CDATA[Mobil SHC Cibus Series Oils Help Reduce the Energy Consumption of Food and Beverage Operations]]> http://www.oil.ie/news/view/56 Thu, 05 Apr 2012 01:00:00 +0100 Premits Improve Energy Savings, Deliver Optimum Equipment Protection and Enhance Safety Initiatives

• Lab tests document energy efficiency benefits up to 3.6 percent*
• Customers experience energy efficiency benefits up to 4.3 percent
• Mobil SHC Cibus Series oils are NSF H1 registered


COLOGNE, GERMANY (28 March 2012) – ExxonMobil Lubricants and Petroleum Specialties Company, a division of Exxon Mobil Corporation, today announced that its range of NSF H1 registered Mobil SHC Cibus Series oils have the potential to help food and beverage companies achieve energy efficiency savings of up to 3.6 percent for gear oil applications*.

Ideal for the full spectrum of hydraulic, gear, bearing, circulation system and heat transfer applications, Mobil SHC Cibus premium-performance synthetic lubricants offer enhanced safety and productivity benefits alongside energy efficiency potential. Mobil SHC Cibus Series oils are NSF H1 registered lubricants and comply with Title 21 CFR 178.3570 of the Food and Drug Administration (FDA) for lubricants with the potential for incidental food contact and are manufactured in facilities that meet the hygiene requirements of ISO 21469:2006. In addition to being manufactured in equipment where cross contamination is minimised, Mobil SHC Cibus Series lubricants are formulated to nut-, wheat- and gluten free and suitable under Kosher and Halal dietary law.

“Food and beverage processors are uniquely challenged not only with maximising equipment performance and boosting productivity, but also ensuring food safety,” said Rainer Lange, Mobil SHC Brand Advisor – Europe, Africa and Middle East, ExxonMobil Lubricants and Petroleum Specialties Company. “Mobil SHC Cibus Series lubricants are expertly formulated to help food and beverage processors meet their application-specific goals and provide valuable sustainability-related benefits, such as enhanced energy efficiency and extended oil drain intervals.”

Since their introduction, customers across Europe, the United States and Asia have reported extensive benefits from using the oils. A food manufacturer operating in China, reported energy savings of up to 4.3% when it upgraded its six oil-injected dual screw air compressors from mineral lubricants to Mobil SHC Cibus 32. The 4.3% savings claimed, would result in an annual power reduction of 22,170 kWh.

A manufacturer in Germany also reported energy savings of 3.4 percent by switching to Mobil SHC Cibus Series oils. ExxonMobil recommended converting to Mobil SHC Cibus Series lubricants to help address the issue of frequent unscheduled shutdowns as a result of a compressor overheating. After flushing the screw compressor’s lubricant system and replacing with Mobil SHC Cibus 46, the overheating issue was addressed, it was reported oil life doubled and energy savings of 58,000 kWh per year were realised.

The Mobil SHC Cibus Series for gear oil applications, is the latest ExxonMobil product to earn the official designation of an “Energy Efficient” industrial lubricant and will feature the company’s proprietary “Energy Efficiency” logo on packaging.

For more information about Mobil SHC branded synthetic lubricants, such as Mobil SHC Cibus, or any other Mobil-branded products and services, visit mobilindustrial.com.

Mobil, Mobil SHC Cibus and the energy efficiency design are trademarks of Exxon Mobil Corporation or one of its subsidiaries.

* The energy efficiency design is a trademark of Exxon Mobil Corporation. Energy efficiency relates solely to the fluid performance when compared to conventional (mineral) reference oils of the same viscosity grade in circulating and gear applications. The technology used allows up to 3.6 percent efficiency compared to the reference when tested in a worm gearbox under controlled conditions. Efficiency improvements will vary based on operating conditions and applications.

About ExxonMobil Lubricants and Petroleum Specialties Company
ExxonMobil is a leading marketer of finished lubricants, asphalts and specialty products, as well as one of the world's largest suppliers of lubricant base stocks.

About Mobil Industrial Lubricants
The team behind Mobil Industrial Lubricants delivers advanced products to major industrial equipment manufacturers to protect their customers’ engines and machinery, helping to enable peak performance while improving energy efficiency. This dedicated work force focuses on delivering a reliable supply of high-quality lubricants through its strong distribution network while also providing technical application expertise to customers around the world.

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http://www.oil.ie/news/view/55 <![CDATA[IEN EUROPE interviews Burkhard Busse]]> http://www.oil.ie/news/view/55 Tue, 03 Apr 2012 01:00:00 +0100 30 IEN EUROPE N° 9 - September 2011

IEN EUROPE interviews Burkhard Busse

Equipment Builder Engineer at ExxonMobil Lubricants & Specialties, Brussels

Getting Into Gear: Enhanced Productivity through Advanced Gear Lubrication
In an increasingly competitive marketplace, maximising productivity and reducing operating costs has never been more important. Recently, we had the chance to speak to Burkhard Busse, Europe, Africa, Middle East, equipment builder engineer from ExxonMobil Lubricants & Specialties, about how choosing the right gear lubricant can improve operators’ bottom line and help provide companies with a competitive edge.

IEN: How crucial are gears in the day-to-day running of a plant?
Busse: In gear driven operations such as metals or paper mills, processing industries and manufacturing plants, industrial gears play a critical role in maximising productivity and reducing unscheduled downtime. Critical to the successful functioning of most industrial equipment, providing the necessary torque and rotational speed for machinery to operate effectively, the performance of industrial gears are fundamental to the productivity of an operation.

Even a failure of one gearbox can cause an entire production line to ground to a halt, which can be very expensive both in terms of loss of production as well as associated labour costs and replacement parts to get the operation back on-line.

Lubricants are the lifeblood of a gearbox, helping to reduce friction and provide long-lasting protection for the rotating, sliding and moving components of a gearbox. With the associated costs of gear related downtime, we are seeing a shift by manufacturing and processing industries towards high quality synthetic gear oils such as Mobil SHC Gear, which offer superior protection and performance compared to standard mineral-based industrial gear oils.

IEN: How is the design/development of current/future
gearboxes impacting the requirements of gear lubricants?
Busse: Over the years, Equipment Builders (EB) have focused on developing new, more compact and efficient gearboxes that are capable of delivering even higher load capacities. Such improvements put additional stress on lubricants in terms of higher operating temperatures, faster speeds and heavier loads. These effects are compounded by the EB’s drive to reduce total life cycle costs for their products, which includes reducing oil volume while extending oil drain intervals.

To ensure lubricants meet the very latest requirements, leading lubricant suppliers such as ExxonMobil work closely with key EBs to ensure that its products are ideally formulated to meet the rapidly evolving gear designs and operation requirements. A good example of this approach in practice is the recently launched Mobil SHC Gear series of high performance fully synthetic gear oils. Mobil SHC Gear oils have been designed in close cooperation with leading EBs to ensure they operate effectively in the latest gearboxes. Based on extensive research and testing, Mobil SHC Gear oils demonstrate excellent wear protection for gears and bearings, enhanced resistance to micropitting fatigue, improved seal compatibility, excellent oxidation stability and outstanding viscosity behaviour in extreme temperature conditions, to ensure the latest industrial gears maximise their full performance potential.

IEN: How do operators select a gear oil which will help to maximise the performance of the gearbox?
Busse: While equipment is under warranty it is important for operators to select lubricants which have been approved/recommended by the EB to ensure the cover is not compromised. However, many EBs set the minimum requirements for an oil to operate in their equipment and companies can achieve signifi cant performance advantages by selecting lubricants which surpass these levels.

By using high performance industrial gear oils, companies can increase productivity and reduce unscheduled downtime by extending oil drain intervals and reducing component wear. In addition, as well as offering superior levels of protection, the latest synthetic gear oils such as Mobil SHC Gear can also help to improve energy efficiency of applications.

To help customers select the right lubricant for their equipment, ExxonMobil recently launched Looble, an online industrial product selector which provides customers with lubricant recommendations and application guidance based on specific applications and operating conditions across a wide range of industries. Included in the selector are a wide range of gears from leading manufacturers.

IEN: What are the performance advantages of a fully synthetic gear oil versus a conventional mineral-based oil?
Busse: Higher operating temperatures, faster or even slower speeds and heavier loads are just some of the challenges facing industrial gears today. While high-performance synthetic lubricants can perform in these conditions, conventional, mineral-based fluids really cannot deliver the same level of protection and operators need to look to upgrade to synthetic lubricants to help minimise unscheduled downtime and maximise performance.

Advantages of switching to synthetic gear oils such as Mobil SHC Gear oils include longer equipment life, excellent resistance to oxidation and protection against wear, extended drain-life, energy efficiency and high-temperature capability.

IEN: How can an advanced gear oil such as Mobil SHC Gear, offer energy efficiency potential as well as maintain superior protection?
Busse: Mobil SHC Gear’s high viscosity index and low traction coefficient combine to provide a significant reduction in energy consumption in many gear drives. In statistically validated laboratory tests and field trials, Mobil SHC Gear oils exhibited energy efficiency of up to 3.6 percent versus conventional oils, delivering considerable cost saving benefits to organisations.

As well as its energy efficiency potential, Mobil SHC Gear has a balanced formulation and has been developed to offer exceptional performance in all the critical areas required to keep a gearbox working efficiently. This includes outstanding gear and bearing protection as well as excellent oxidative stability, seal compatibility, rust and corrosion protection and foam control. Only by selecting oils which have a balanced formulation can operators look towards maximising productivity.

IEN: What advice can you offer to ensure a successful switch from a mineral to synthetic gear oil?
Busse: The recommended steps for switching gear oils depends on the application, the condition of the lubricant and the gearbox and how much time is available. Where possible, we would recommend carrying out a full drain and flush on the equipment. If the oil is not in a good condition, we would recommend flushing the system two-to-three times. The general rule is to get as much of the mineral oil out of the gears as possible before making the switch - that way you will get the maximum performance out of the synthetic lubrication.

IEN: How can engineers monitor the performance of a gearbox and gear oil?
Busse: In order to help maximise gearbox productivity and reduce costs, operators should incorporate an oil and equipment condition monitoring programme alongside the use of high quality gear lubricants. As part of routine maintenance, the “health” of the lubricant and the equipment itself should be regularly checked. Typically, it is advised that maintenance professionals perform quarterly oil analyses and annual system inspections.

The oil analysis should include a measurement of chemical condition, fluid viscosity, water content, particle count and dissolved metals to determine how well the system is operating. Examining changes in the oil analysis data over time, also known as ‘trending’, is necessary to assess the condition of the lubricant. By trending oil analysis data, it is possible to proactively address undesirable conditions before they become problems.

For equipment maintenance professionals who want an effective oil analysis programme, there is ExxonMobil’s proprietary online Signum oil analysis system. Signum oil analysis offers engineers immediate access to and direct control of their lubricant sampling programme.

Beyond oil analysis, visual system inspections should be conducted regularly to check and
document the condition of the gear box. Inspection data can be used to establish the optimum time to perform maintenance on critical components such as the gear teeth. Comprehensive leak detection should also be performed, especially if excessive oil usage is noted during a routine system inspection.

IEN: Mr Busse, thank you very much for the interview.

COMPACT HIGH SPEED THERMAL IMAGER

  • Real-time thermography with 120Hz frame rate via USB 2.0 interface
  • Exchangeable lenses with 6°FOV, 23°FOV and 48°FOV
  • Measuring range from -20°C to 900°C
  • Excellent thermal sensitivity of 0,08K
  • Extremely lightweight, very compact & rugged

IR-TEMPERATURE SENSORS

  • Temperature ranges from -50 °C to +1800 °C
  • CT laser series with laser integrated laser sighting
  • Up to 250°C ambient temperature without cooling
  • Exposure time from 1 ms
  • Analogue and digital outputs incl. Profibus DP
  • Specific wavelength versions for glass, metals, ceramics


35715 at www.ien.eu
www.micro-epsilon.com

MICRO-EPSILON
94496 Ortenburg / Germany
Tel. +49 85 42/168-0
info@micro-epsilon.com



 

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http://www.oil.ie/news/view/53 <![CDATA[Changing Your Oil]]> http://www.oil.ie/news/view/53 Thu, 29 Mar 2012 01:00:00 +0100 Changing your oil is vital to maintaining superb performance in your motor. Oil ensures the engine is lubricated, wear and damage is prevented and that your car runs properly. It also prevents dirt and sludge buildup which could lead to engine failure.

A few years back, it was recommended that your oil be changed every 3,000 miles or 3 months, whichever comes first. But due to the oil quality improving, it can now be changed every 7,500 miles or annually.

Amateur race driver, Bernard Juchli, is the general manager and mechanic at famed gearhead Jay Leno’s Big Dog Garage. He uses Mobil 1  5W-30 synthetic oil and takes us through the process of correctly changing your oil.

 

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http://www.oil.ie/news/view/54 <![CDATA[Fuel Saving Lubricants]]> http://www.oil.ie/news/view/54 Tue, 27 Mar 2012 01:00:00 +0100 Mobil Delvac has been proven to extend vehicle life and reduce fuel costs. Fuel savings of up to €1,495* can be made annually by HGV fleet operators using Mobil Delvac and an average of 4.7% in Iveco light trucks, as found in independent city-cycle tests.

Tests were conducted on Volvo and Iveco trucks and results showed Mobil Delvac 1 LE 5W-30 and Mobilube 1 SHC 75W-90 optimised drivetrain performance. Significant fuel economy savings were found in ExxonMobil’s flagship range of Mobil Delvac commercial vehicles. These benefits can see fleet operators making significant savings over a year period. For example, a company with 30 HGV trucks may save up to €48,000** a year. Savings can be made by switching from mineral-based products to Mobil Delvac flagship lubricants.

Evaluations were conducted at Millbrook Proving Ground in the UK. Two Volvo GM 440 Series Euro 5 trucks were used and loaded to 75% of their Gross Vehicle Weight, circa 33 tons. Two Iveco Eurocargo 75E16 EEV Euro 5 trucks were also used and loaded to 50% of their Gross Vehicle Weight, circa 6.2 tons. Mobil Delvac 1 LE 5W-30 was used in the engine, Mobilube 1 SHC 75W-90 was used in the rear axle and Mobil 1 SHC 75W-90 and Mobil Delvac Synthetic Transmission Oil V30 was used in the transmissions. Fuel savings were found and combined with extended vehicle life, fleet operators will receive the competitive edge.

Mobil Delvac is a fully synthetic high performance heavy duty diesel engine oil. It protects both the engine and emission system, provides long drain capability and fuel economy potential for modern diesel engines, including those fitted with Diesel Particulate Filters (PDF). Mobilube 1 SHC 75W-90 is a fully synthetic, supreme performance commercial gear lubricant that is suitable for total driveline application. Formulated using advanced base oils and an innovative additive system, the oil provides outstanding protection and fuel savings.

“With fuel costs continuing to rise and fleet operators looking to extend the vehicle life of their trucks, it’s a win-win situation when operators switch to advanced, fuel efficient lubricants throughout their drivetrains,” Steve Crawley said. He is the UK & Ireland Commercial Vehicle Lubricants Manager at ExxonMobil Lubricants & Petroleum Specialities. “Alongside proven fuel economy benefits of Mobil Delvac drivetrain lubricants, the superior performance of synthetic lubricants provides extended engine and component protection, which may enable truck operators to cost effectively extend the running-life of their fleet.”

ExxonMobil Lubricants and Petroleum Specialities Company is a leading marketer of finished lubricants, asphalts and speciality products and is one of the world’s largest lubricant base stock providers. Burke Lubricants (Wicklow) is a Mobil Strategic Lubricant Distributors in Ireland.

 

*Price quoted subject to exchange rate fluctuations saving base £1,270.

**Price quoted subject to exchange rate fluctuations saving base £45,977.

This article was adapted from the “Mobil Delvac Drivetrain Lubricants Achieve Fuel Economy Savings” article in Fleet Transport magazine, March 2012.

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http://www.oil.ie/news/view/51 <![CDATA[Turbine Oil Development ]]> http://www.oil.ie/news/view/51 Thu, 22 Mar 2012 00:00:00 +0000 Turbine oils perform under demanding conditions and their performance has a direct impact on the reliability and profitability of a power generation operation. Lubrication failures can lead to unplanned outages, costly downtime and possible equipment damage. It’s difficult to evaluate turbine oil performance in basic laboratory tests.

The requirements of a modern turbine oil are to deal with higher temperatures, provide long service life and to ensure long-term keep-clean performance. Long-term performance can often be provided by developers using a broad suite of accelerated aging tests. The most commonly used accelerated aging test is the RPVOT (Rotary Pressure Vessel Oxidation Test), otherwise known as the ASTM D2272. Although the aging test can determine long-term performance, it wasn’t intended for the performance comparison of different oil formulations.

The ASTM D2272
The test is conducted by placing lubricant, a copper catalyst and water into a pressure vessel that has a pressure gauge. The vessel is then pressurized with oxygen until it reaches 620kpa. It’s then placed in an oil bath at 150ºC and rotated at 100rpm. The result is the time it takes for a pressure drop of 175kpa below maximum pressure to occur. When there is a drop in oxygen pressure it means that oxygen has been consumed by reacting with the oil’s components. The oxidation stability of the lubricant can be determined by the minutes taken to meet the required pressure drop. This test is useful for quality control and in-service oil condition monitoring.

The advantages of using the RPVOT are the fast results and quality comparison. The results are available within minutes whereas months or years are required for other glassware tests, such as the Turbine Oil Stability Test (ASTM D943). The quality comparison can be used on the same product or as an overall analysis program for in-services oils of the same formulation.

The disadvantages are that the RPVOT doesn’t measure the formation of oxidation by-products, test reproducibility is on average 22%, and the test conditions aren’t regular operating conditions. The RPVOT can’t measure oxidation by-products such as lacquers, sludges, varnishes and acids that can cause lubrication and control system failures. The temperatures that the test runs at are higher to accelerate the oxidation process and are often not found in most turbine applications.

The RPVOT shouldn’t be used as the sole test to compare oxidation performance, oil life or deposit resistance of different formulations.

Balanced Turbine Oils Development
Products that have balanced structures that address multiple formulations is ExxonMobil’s goal. Three goals that are of critical importance in turbine oils are: maximize the life of the lubricant; reduce the by-products formed by oxidation; and manage the inevitable oxidation by-products that develop to avoid turbine operation interference.

Multiple oxidation tests, including standard industry tests, are used to develop Mobil turbine oils. Proprietary bench tests are also conducted to ensure that balanced performance is achieved although these tests aren’t completely sufficient in developing the highest quality oils.

The Results of a Dynamic Rig Test
ExxonMobil developed dynamic rig tests that more accurately represent operating conditions than the RPVOT or other glassware tests do. This measures the overall balanced performance of a turbine oil in a system. The key criteria measured in the test are: RPVOT retention; ultra centrifuge rating; and filter and reservoir cleanliness.

RPVOT Retention
The RPVOT value of new oil does not correlate to the longevity of the oil in a system. The value can be used to monitor the depletion of oil antioxidancy over time. The common limiting value of used oil is 25% of the new oil value per ASTM.

Ultra Centrifuge Rating
This rating is designed to measure the concentration and oxidation of by-products and insolubles in the oil. The rate tracking determines the oil tendency to form oxidation by-products that lead to varnish and sludge. The scale of the rating is from 1 to 8, from best performance to worst.

Filter and Reservoir Cleanliness
The ability of the oil to resist a tendency to lay down deposits in lubrication and control systems is measured by the cleanliness of the filter and reservoir during the rig test. Clean performance allows for smooth running and a decrease in unplanned outages.

The key factor is to ensure that the oil maintains the RPVOT value whilst providing a clean operation.

Conclusion
Control of the detrimental oxidation products, and the deposits that may result, is critical to long-term performance of turbine oils. Care needs to be taken when reading the RPVOT results as comparisons for different compositions is not tested. Standard oxidation tests provide an important indication of in-use oxidation performance of turbine oils. It is vital to include product development tests that address formation and control of the by-products of oxidation and aging. ExxonMobil uses standard industry test methods (with other simulated turbine tests) to develop balanced high performance turbine oil.

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http://www.oil.ie/news/view/47 <![CDATA[Safety in Formula 1]]> http://www.oil.ie/news/view/47 Thu, 15 Mar 2012 00:00:00 +0000 Formula 1 is a dangerous sport. Such a high risk factor puts everyone involved in varying levels of danger, which is why there are so many safety measures and requirements that need to be adhered to in order to avoid tragedy.

Safety is one of the key factors when designing an F1 car; the car needs to be able to protect the driver. Many safety and design advancements have been made over the years to ensure the safety of the drivers whilst maintaining the performance aspect. The clothing also plays a vital part in F1 safety. Fireproof clothing and carbon proof helmets need to be worn and there is even protection against neck injuries. Essential when you consider the G-forces these drivers are exposed to.

Outside of the safety of the vehicle and driver, there is also the safety car. The car is sent out when an accident has occurred on the track and the other drivers need to be diverted to avoid disruption. The cars follow behind the safety car until the track has been cleared.

There is a high level of safety involved with F1 and improvements are being researched constantly in order to maximise entertainment and excitement without endangering lives.

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http://www.oil.ie/news/view/48 <![CDATA[Compatible and Incompatible Greases]]> http://www.oil.ie/news/view/48 Tue, 13 Mar 2012 00:00:00 +0000 Mixing different grease can sometimes lead to ineffective lubrication which damages components and could lead to equipment failure if not spotted early enough. This occurs due to incompatible chemical or structural interactions between the thickener or additive systems of different greases.

Incompatibility symptoms vary but most will exhibit a change in consistency. The symptoms will be more visible if the operating temperature or grease mixture shearing rate increases. Incompatible grease may also display bleeding, or abnormal oil separation, at higher temperatures. If incompatible greases are mixed in the application, it could result in oil leakage, premature aging and insufficient oil bleeds in the contacting zones. Grease’ performance additives could adversely affect the lubrication and protection against friction, wear, rust and corrosion.

Laboratory Investigations
Industry Standard ASTM D6185 establishes protocol to evaluate the compatibility of binary mixtures of lubricating greases. The test comprises of blending and shearing the two greases under controlled and identical conditions. After a short amount of time at room temperature, the grease structure is compared to fresh greases’ stability to see if there are any changes.

Three properties are evaluated in a test: dropping point; shear stability by 100 000-stroke worked penetration; and storage stability at elevated temperatures via change in 60-stroke penetration after storage. The overall assessment will determine if the greases are compatible, borderline compatible or incompatible. It’s recommended that compatible mixtures go through a secondary testing process when the need to qualify the performance level of grease mixtures is indicated. Despite all the testing, you still need to be cautious when mixing greases. The tests don’t determine if the mixture will protect seals, prevent rust and yellow metal corrosion or reduce wear under heavy loads. They also can’t predict the long term effect that could potentially occur from chemical interaction between the additives from different greases. It could result in synergies impacting the grease mixture’s ability to perform an application.

Compatibility Test Results
The true compatibility of grease is affected by field operating conditions such as shear rates, temperature, the state of the used grease and the ratio of greases in the mixture. If two greases are rated as compatible, it implies that there is a low risk of structural instability occurring, especially if the operating conditions are mild. If they are incompatible, there is a high risk that softening or hardening of the grease mixture or oil separation will occur.

When changing grease from one type to another, it’s best to fully purge out the old grease with new grease. If this can’t be done, re-lubrication frequency should be increased to allow a purge of oil grease in a timely manner.  To avoid over-greasing during the purge, remove relief plugs during the first hour of operation to allow the excess grease to freely flow out of the bearing housing. The regular monitoring of the temperature, vibration and leak checks will allow for corrective measures if incompatibility is presented. The application of best practices are highly recommended if the greases being used are deemed to be not compatible.

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http://www.oil.ie/news/view/49 <![CDATA[Can your BMW run for One Million Miles?]]> http://www.oil.ie/news/view/49 Thu, 08 Mar 2012 09:47:28 +0000 Mobil 1 has been put to the test at the New Jersey research centre. A BMW E30 325i ran under test conditions for four years using Mobil 1 oil to see the extent of engine protection. Not only did Mobil 1 protect the BMW engine but the test also made history for wear protection.

The average car life is 13 years and approximately 145,000 miles. Would you believe that a BMW using Mobil 1 could run or travel one million miles, the equivalent of 40 times around the world? This may seem unattainable and unbelievable; that’s why we’ve included the video so you can see it for yourself.


 

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http://www.oil.ie/news/view/46 <![CDATA[Smoke Tours Mobil 1]]> http://www.oil.ie/news/view/46 Tue, 06 Mar 2012 00:00:00 +0000 Driver of the Year and Sprint Cup Champion, Tony Stewart, and the Stewart-Haas Race Team recently got to tour the Mobil 1 technology centre in New Jersey. They experienced what goes into manufacturing the leading synthetic oil brand and met the ExxonMobil staff who ensure the oil’s performance.

Tony and team witnessed the engine tests and the competitive oil comparisons in a vehicle. Tony even got to mix Mobil products into a personalised blend. There is a brand new high-tech robotic loading machine that has been named Smoke in honour of the champion. He was very impressed with the tour and trusts in Mobil 1 for his future racing successes.

 

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http://www.oil.ie/news/view/45 <![CDATA[The Breakdown of Rotary Screw Air Compressors]]> http://www.oil.ie/news/view/45 Thu, 01 Mar 2012 00:00:00 +0000 Rotary air compressors are a type of gas compressor that uses the rotary type of positive displacement mechanism. When it’s an oil-flooded rotary screw compressor, the oil is injected into the compression compartments to aid sealing and provide cooling. In this article we will touch on the compressor components, the lubrication process and routine checks.

Packaged air compressor units with oil-flooded rotary screw air compressors are usually self-contained and mounted on a skid base. These units are usually driven by electric motors and range in size from 25 to 450 horsepower. The compressor may be enclosed in a housing which can be accessed by removing or opening a panel to service the unit.

The Components
The components of an oil-flooded rotary screw compressor includes a housing, two screws (a male and female rotor), bearings and bearings support. The male rotor is either motor driven or driven through step-up gears in the housing. It has four lobes and drives the female rotor which has six lobes. The two rotors groove and mesh together to compress the inlet air during one of the compression stages. The compressed air is then discharged at a temperature of approximately 185ºF through the end plate port.

The related components in the compressor include the intake air filter, oil pump and inlet valve. The air filter is typically a dry tape paper filter that has replaceable elements. The oil pump is responsible for providing oil to the bearing, timing gears (present in specific models) and compressor rotors. Differential air pressure can be used as an alternative to an oil pump in certain compressors.

The control panel displays the conditions of the operations, air intake filter, air/oil separator and oil filters. The unit usually has two filters:  the primary filter which all the oil has to pass through and the secondary filter which is just for gear and bearing oil.

The Lubrication Process
Oil injected into the compressor during the compression cycle lubricates the bearings, gears and rotors. It cools the compressed air and seals running clearances in the rotor housing. Oil passes through and mixes with air and then is discharged into the air/oil separator. Majority of the oil drops out due to the velocity change or impingement. The separated oil drops to the bottom of the separator filter and then returns via an oil return line back into the system.

ExxonMobil’s primary recommendation for oil flooded rotary screw compressors is the Mobil Rarus SHC 1020 series of synthetic lubricants. The ISO viscosity grades that are usually recommended are the 32, 46 or 68. Synthetic lubricants are best as they may allow extended oil drain intervals of up to 8,000 hours whereas mineral oil based compressor oils usually only extend up to 1,000 hours.

When changing the lubricant, it is very important to check the compatibility. Mobil Rarus SHC 1020 series is compatible with most mineral and synthetic compressor lubricants.

Routine Checks
The oil level of the sump needs to be checked daily and the correct oil level in the sight level gauge needs to be maintained. The control panel needs to be checked at least weekly to ensure everything is running correctly. The oil return line sight glass needs to be checked to ensure oil is being removed from the air. The synthetic lubricant needs to be changed when the oil analysis shows the need; the oil strainer should be cleaned at this time too. The used oil needs to be disposed of correctly according to the local community’s specific requirements. To maintain safety, the air compressor needs to be started and stopped according to the manufacturer procedures.

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http://www.oil.ie/news/view/42 <![CDATA[Maintaining Electric Motors]]> http://www.oil.ie/news/view/42 Tue, 28 Feb 2012 00:00:00 +0000 The electric motor is a crucial part of every manufacturing process. But due to its simplicity and reliability, frequent maintenance is often overlooked. If motor damage has been sustained, minor repairs are often too late. In this article, we will touch on maintenance practices, correct lubrication and common motor failures.

Motors need to be in Prime Condition

New and rebuilt motors need to be in good condition at the time of purchase. Vibration checks should reveal defects. Mechanically balanced motors should also be requested, especially if high efficiency or high speed models are being used. Acceptable motor balancing limits are set by the International Standards Organization (ISO). Motors also need to be stored correctly. The bearings should be fully packed with grease to prevent moisture from corroding the motor before installation. The motor should also be rotated by hand every month to maintain a good condition and to prevent fretting corrosion.

Replacement Bearings should be Handled with Care
If a bearing needs to be replaced, the replacement bearing should be identical to the previous one. The bearings need to be stored in their original, unopened packaging in a clean, dry location. It is best to store them horizontally and rotate them monthly. Greased bearings should be turned over regularly to prevent grease buildup on one side. Never wash bearings before installation, as the bearings are already clean.

Ensure Proper Installation and Maintenance
A bearing needs to be handled with care and must not be pounded on directly. If it falls, it is best to avoid using it. The shaft and housing of the bearing also needs to be inspected carefully for size and damage. Any obvious damage should be repaired. Overheating of the motor should be prevented. A flame must never be in direct contact with the bearing nor should it be heated over 230ºF. It is also important that the right tools be used to decrease the risk of damage. Bearings need to be installed to fit properly by applying pressure to the outer race. Uneven pressure on the ring will damage the raceways.

Better Lubrication Choices
Proper lubrication is critical for motors, as it prevents wear and protects the elements against rust. The correct lubricant will also seal out dust, dirt and waste. ExxonMobil’s industrial lubricant recommendations for electric motors are the Mobilith SHC 100 and the Mobil Polyrex EM. There are three signs that indicate improper lubrication: excessive noise, vibration and high temperatures.

Common Failures
More then 90% of motor bearing failure is due to over-greasing, which causes the seals to burst. Misalignment is another problem that leads to motor damage. The most important part is to align the tight tolerances. The bigger and faster the motor, the tighter the tolerances need to be. Dirt buildup on the motor also needs to be avoided to prevent motor damage and failure. Dirt generates heat which then impacts the bearing life negatively.

Bearings can last up to ten years, therefore frequent failures need to be questioned. If failures occur often, it may be to do with installation or lubrication problems and this will need to be investigated.

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http://www.oil.ie/news/view/44 <![CDATA[Regreasing of Element Bearings]]> http://www.oil.ie/news/view/44 Thu, 23 Feb 2012 00:00:00 +0000 Rolling element bearings need to be relubricated regularly to replace the grease that’s been lost through deterioration, leakage or contamination. This article will touch on when you should relubricate but there is no set time or schedule to reference. The timeframe can range from a daily to an annual relubrication.

When to Relubricate

There are many factors that influence the frequency of the relubrication process. Generally, the smaller the bearing, the faster the speed therefore less frequent grease relubrication is needed. The larger, slower bearings require it more consistently. The type of bearing also has an affect. A radial ball bearing has base intervals, whilst the cylindrical roller will be five times as frequent. The thrust-ball and roller will be ten times the regular intervals.

Operating temperatures also affect the frequency. Higher operating temperatures increase the need for relubrication due to high temperatures increasing the oxidation rate of grease. The rate doubles for every 18ºF rise above 150ºF. Grease also softens with increased temperatures which could lead to the grease leaking out of the housing. High temperature greases are therefore better to use as they can help reduce the frequency. Another frequency factor would be if the bearings were contaminated, they would need lubrication more often.

Flushing Intervals
Most rolling element bearings require the relubrication of grease between flushing intervals. This practice is best done with a low-pressure grease gun. If the seals are in good condition, the need for grease might be small and sporadic.

To begin the process, check the grease amount in the bearing. The fitting or grease plug needs to be removed to see if excess grease comes out. The bearings and seals need to be checked for excess leakage. Grease needs to be applied in small amounts at a time and it’s very important to not over lubricate.

Grease Flushing
Follow these “pressure-relief” methods that are recommended for grease flushing.

  • Bearings with a fitting and a drain

The lower drain plug needs to be removed and cleaned out of hardened grease and wiped clean. Pump grease into the fitting until the old oil comes out and new oil appears. If it’s safe and possible, run the machine throughout the cleaning process. Running it at operating temperatures allows the grease to expand and force out the old oil. Clean the drain plug and reinstall it.

  • Bearing with a fitting and no drain

If it’s safe, remove the fitting whilst the machinery is still running. The fitting then needs to be cleaned and replaced. A limited amount of grease must then be pumped into the bearing to prevent the grease seal from rupturing. Remove the fitting again and allow the machine to run for a few minutes to purge it of the old grease. If no grease comes out, the bearing is dry. Repeat the previous steps and pump grease until old grease appears. Reinstall the fitting.

  • Bearing with a relief-type fitting and no drain

Clean the fitting and pump grease into the bearing until grease is relieved from the relief fitting. If grease doesn’t come out after a considerable amount of pumping, the relief slot may be plugged. Remove the relief fitting and clean the slot or replace the fitting with a new one, then repeat the cleaning and pumping process. Run the equipment at operating temperatures to check for excess grease at the relief fitting.

Precautions to be Aware Of
Excess grease and dirt needs to be cleaned up from the bearing and the surrounding area. This acts as an insulator and prevents heat dissipation. Procedures need to be followed closely, especially when there are electric motor bearings concerned. Where there are hard soap deposits, flush the bearing housing with hot oil from a grease gun. All old oil must be purged before machinery operation is continued.

Danger signs such as excessive noise, vibration and high temperature are signs of improper bearing operation. Condition monitoring instruments can also be used to detect problems quickly. Proper vigilance of operations will go a long way in the bearing maintenance process.

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http://www.oil.ie/news/view/43 <![CDATA[Mobil 1, the Choice for Winter]]> http://www.oil.ie/news/view/43 Tue, 21 Feb 2012 00:00:00 +0000 Winter takes its toll on your vehicle. The cold weather has several negative effects on your car, most of which can be defeated by a few simple tricks and precautionary measures. There are even guidelines that need to be adhered to in order to get your car through winter. There’s also the age-old debate on whether to leave your car idling before driving it.

Solidifying oil is one of the main negative effects that occur. The cold temperature thickens the oil, which then makes it harder for the engine to spin. If the oil doesn’t do its job, the engine will suffer from wear damage.

In this video, the Mobil 1 Research Team puts Mobil 1 oil to the test in sub zero temperatures. Mobil 1 has been proven to protect oil, and therefore the engine, in freezing conditions. The synthetic motor oils maintain their liquid form in the sub zero temperatures, thus making it the number one motor oil for winter.

 

 

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http://www.oil.ie/news/view/41 <![CDATA[The Grip of an F1 Car]]> http://www.oil.ie/news/view/41 Thu, 16 Feb 2012 00:00:00 +0000 Grip is a vital component when creating competitive F1 cars and the recent changes to tyre regulations have made them more important than ever. Grip is the downforce and traction of the vehicle. The faster the speed, the more important grip becomes.

There are two types of grip: aerodynamic and mechanical. The aerodynamic grip and downforce is generated by the wings and the air around the car. The mechanical grip is generated by the setup of the vehicle and mechanical characteristics of the chassis. The mechanical grip is mostly generated from the tyres, suspension and steering systems. The right tyres working together with the mechanical grip create a winning combination. The tyres that are now used on the tour are the Pirelli tyres.

In this video, we go through to the Vodafone McLaren Mercedes Technology Centre to view the mechanical aspects and importance of mechanical grip, and how tyres in particular can be used to improve race times.

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http://www.oil.ie/news/view/40 <![CDATA[Step Behind the Scenes]]> http://www.oil.ie/news/view/40 Tue, 14 Feb 2012 00:00:00 +0000 Johnnie Walker has celebrated its partnership with Vodafone McLaren Mercedes with a behind-the-scenes video campaign. The Step Inside the Circuit videos take fans on a journey into the experience of being an F1 driver, specifically Lewis Hamilton and Jenson Button.

This video was filmed whilst Hamilton and Button were in India for the Grand Prix, which was held at the brand new Buddh International Circuit. Hamilton has toured India before but it was Button’s first time in the country, and in true Indian style, he drove around the circuit in a traditional tuk tuk. After great preparation, Button finished second place in the Grand Prix.

 

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http://www.oil.ie/news/view/38 <![CDATA[The Technicality of Grease]]> http://www.oil.ie/news/view/38 Thu, 09 Feb 2012 00:00:00 +0000 Grease isn’t just a thick oil; it is made up of all different components. This article will break down what grease is about, when to use it and what happens when different grease samples are mixed together.

The Components that make up Grease
Grease is manufactured by the combination of three essential components: base oils, thickeners and additives. The base oil is the liquid and the largest component of the grease, typically making up 80 to 97% of the compound. It is a common lubricating oil and is usually mineral, synthetic or any fluid that contains lubricating properties. The viscosity may range from light (like mineral seal oil) to heavy (like heavy cylinder stock). The thickeners are any material that is combined with the base oil to produce a semi-fluid to solid substance. Lithium (being the most common), aluminium, calcium, clay and polyurea can be used alone or as a combination. Additives add special properties or enhance the existing properties of the grease. The additives or modifiers that are usually used are oxidation or rust inhibitors, pour point depressants, extreme pressure additives, anti-wear agents, lubricity-or-friction-reducing agents, molybdenum disulfide, graphite, and dyes or pigments (which only affect the colour and not the lubricating capability).


Mixing Incompatible Greases and the Consequences
An important factor to keep in mind is that mixing different grease types can result in incompatibility problems. This results from chemical interactions between the thickener or additive systems of dissimilar greases and can lead to equipment failure or damaged lubricant components. It is therefore imperative to test the compatibility of greases in a laboratory before changing from one grease to another.

When Grease is Used
Grease is often used as an alternative for a lubricant fluid when it’s required to maintain the original position in a mechanism. This alternative is especially used when frequent re-lubrication may be limited or not economically viable. The may be due to the physical configuration of the mechanism, motion and sealing type, or the need for the lubricant to perform the sealing function in the incident of lubrication loss or entrance of contaminants. The solid nature of grease represses its cooling and cleaning efficacy compared to a fluid lubricant. Other than those two elements, grease performs all other requirements a fluid lubricant fulfils.

How Grease is Graded
Consistency can be defined as the degree to which plastic material resists deformation under pressure. In grease, it’s the measure of relative softness or hardness and may indicate something of flow and dispensing properties. The consistency is measured in line with ASTM D 217 and Cone Penetration of Lubricating Grease. It is then documented with the National Lubricating Grease Institute (NLGI) grade.

The consistency is measured after the sample has been worked 60 strokes in the ASTM grease worker and is at a temperature of 77ºF. When the sample is ready, a penetrometer cone is released and sinks into the grease under its own weight and left for five seconds. The depth is then measured in millimeters and recorded. The NLGI uses a standardised numerical scale in order of increasing hardness for classifying grease consistency.The consistency is a result of the base oil and thickener ratio and not the base oil viscosity.

With this information, it will be easier to decide which fluid will be most suitable for your machinery: a grease or a lubricant.

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http://www.oil.ie/news/view/37 <![CDATA[Smoke, the Driver of the Year]]> http://www.oil.ie/news/view/37 Tue, 07 Feb 2012 00:00:00 +0000 Tony ‘Smoke’ Stewart has been named the Driver of the Year. Tony has won this prestigious award three times now; the previous being in 2002 and 2005.

The Richard Petty Driver of the Year is decided by the National Motorsports Press Association panel. This annual award was started in 1969 in memory of the leader of cup victories, Richard Petty. The winner is chosen based on a vote by the NMPA panel. Tony beat his Cup challenger, Carl Edwards, with 15 votes to 1.

Tony moved rapidly up the ranking with a Chase-record of five victories. He then went on to win the NASCAR Chase for the Spirit Cup. The 40-year-old is one of nine drivers to have won three or more Cup Championships.

Fellow Mobil 1 teammate, Lewis Hamilton, even recorded a message of congratulations. Well done, Tony! Here’s to a year of victories. 

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http://www.oil.ie/news/view/39 <![CDATA[The Big Reveal]]> http://www.oil.ie/news/view/39 Thu, 02 Feb 2012 12:59:28 +0000 McLaren was the first of the front-line Formula 1 teams to reveal their 2012 season challenger. The Vodafone McLaren Mercedes MP4-27 was debuted on the 1st of February at the McLaren Technology Centre in Woking, England. Jenson Button and Lewis Hamilton attended the unveiling. “As you can see, this is a beautiful car. Many you see will not be,” said Button, speaking of the new design.

The rear bodywork is narrower than the previous models to improve the airflow at the rear. Other changes are the exhaust regulations, which will reduce down-force and grip, and the front end of the chassis is lower then before. Whilst it does resemble the MP4-26, the major systems have been updated and re-designed.

Button and Hamilton won six races last year with the previous model. Button will be the first of the pair to try out the MP4-27. However, Oliver Turvey will test the vehicle before Button uses it at Spain’s Circuito de Jerez on the 7th of February for the first F1 track testing session.

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http://www.oil.ie/news/view/35 <![CDATA[Plant Safety Practises]]> http://www.oil.ie/news/view/35 Tue, 31 Jan 2012 00:00:00 +0000 To avoid injury in an industrial plant, strict safety regulations need to be adhered to. These regulations should be visible to employees at all times.

There are some safety tips to consider when handling a high pressure grease gun, as an injury from this gun is treated as a surgical emergency. To avoid injury, do not touch the nozzle of the grease gun. If an injury has occurred, seek immediate medical attention and identify the brand of the injected product. Also contact the manufacturer for further information. A body part shouldn’t be used to test the grease gun for grease flow, nor should it be used to stop a hydraulic leak. A high pressure injection can still occur from a leak and the hoses should be checked regularly for leaks or potential weak spots to prevent such injuries from occurring.  

The transporting of a drum should be monitored so that it doesn’t get out of control and fall, potentially bursting or injuring someone. Two people should move a drum or a drum sling should be used. Don’t use air pressure to empty the drum as this could also result in the drum bursting. Oil leaks also need to be monitored and dealt with immediately with an absorbent drying pad. Leaks should be repaired and leaking dispensary devices should be replaced.

Machinery should be handled with care. When applying lubrication to a machine, do not do so whilst it is in operation, unless it has a central lubrication system. A worker should also never reach around moving machinery. When using a ladder, do not overextend an extension ladder. Use one that reaches to the correct height and avoid using a metal one when there is electrical wiring present. Ladders, as well as work lifts, should be frequently checked for safety violations.

Safety clothing rules should be set by the plant and adhered to. No loose clothing should be worn near machinery, whilst long sleeves should be worn around hot surfaces. Rubber gloves should also be used to avoid hazardous materials from coming into contact with the skin. Affected skin should be washed regularly to prevent rash and irritation.

Gasoline shouldn’t be used for cleaning and there should be no smoking around a plant, as these are both fire hazards. If a fire does occur, notify the plant’s emergency team and locate fire extinguishers to fight the fire. Stay upwind and avoid breathing in potential toxic smoke and fumes. Use dry chemicals, foam or CO2 extinguishing agents to fight the fire effectively. Emergency exits should be clearly identified, as should safety routes.

These points, and further safety tips of the plant, should be visible to the employees at all times to avoid any unnecessary injuries.

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http://www.oil.ie/news/view/34 <![CDATA[The Hunt for One]]> http://www.oil.ie/news/view/34 Fri, 27 Jan 2012 00:00:00 +0000 Life for Arjun Maini from Bangalore will never be the same again. The 14-year-old was the chosen winner of the One from a Billion Hunt and will be nurtured for the next five years to become a Formula 1 driver. Along with Arjun, Indian teenagers between the ages of 14 and 17 had the opportunity of taking part, thanks to the Sahara Force India F1 team and Mobil 1.

The competition travelled through seven cities in India over the course of a few months to find the first Indian Formula 1 driver. From thousands of applicants, ten finalists were chosen and flown to the UK to undergo training. They spent a week at Silverstone circuit (where the Drive of a Lifetime also took place) and received a Formula 1 driving education.  

Arjun and the two runner-ups have a place in the academy for the next five years. The Hunt will occur every two years and will allow more teens to make their dreams a reality.

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http://www.oil.ie/news/view/33 <![CDATA[Synthetic Lubricants, the Superior Choice]]> http://www.oil.ie/news/view/33 Wed, 25 Jan 2012 00:00:00 +0000 Industrial plants choose synthetic lubricants over conventional mineral oils because they can contribute to the increased productivity of the industrial equipment and therefore decrease maintenance costs. That alone is reason enough to choose the synthetic kind.

Mineral lubricants can be traced back to crude petroleum,
otherwise known as crude oil or simply crude. Crude is a complex mixture of hydrocarbons and possesses basic elements. Light gases (such as ethane, propane, methane and butane) are removed from the crude by atmospheric distillation. Gasoline and other fuels are also distilled by crude, but this results in residuum. Mineral lubricants are derived from that residuum.

Synthetic lubricants are produced by chemical reactions therefore the pressure, temperature and ratio of component elements can be carefully controlled. This results in a pure compound with maximized properties and molecules that are uniform in size. The uniform size is important as this reduces the traction coefficient (the force required to move a load divided by a load) of a synthetic lubricant. Mobil synthetic lubricants have an edge of up to 30% over mineral oils with regards to traction coefficient. The uniform molecules distribute the load easily as the molecules are all the same size therefore less force is used. A decrease in force will also result in an energy decrease.

Research shows that low traction synthetic oil reduces the power consumption by up to 5% per reduction in a spur or helical gear and up to 8% in high reduction worm gears. Energy in a gearbox is lost through movement and heat. If the temperature of the gearbox is reduced, less energy will be used to produce the same amount of work. This practice is well documented in laboratories. The decrease in temperature will then increase the gearbox efficiency, which will reduce operating costs. The component life will also be extended.

The higher oxidation stability of the Mobil SHC fluid means a longer life compared to mineral oils, even under severe operating conditions. Longer life means a decrease in maintenance, labour costs and downtime. This positively impacts the maintenance budget. The Mobil SHC synthetic gear oil usually lasts three or four times longer than a conventional mineral oil. Drain intervals are also extended which reduces waste oil and affects the budget spent on lubricants annually.

Synthetic lubricants also offer superior protection to the plant equipment and extend the component life which lowers maintenance costs, replacements costs and downtime. With such reductions in the financial department, synthetic lubricants are the choice of the future.

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http://www.oil.ie/news/view/31 <![CDATA[Drive of a Lifetime]]> http://www.oil.ie/news/view/31 Thu, 19 Jan 2012 12:10:14 +0000 Twenty prizewinners. Three days of McLaren training. One winner to take it all. The prize? Getting to drive Lewis Hamilton’s 2008 championship-winning McLaren Mercedes MP 4-23.

This global competition is part of Johnnie Walker’s Drive of a Lifetime program and allows a member of the public the opportunity to race on the famous Silverstone circuit in the UK.

This video is what dreams are made of. The winner was Serbian banker, Djorge Simic, who’s emotions swung from nervousness to excitement. The professionals advised him to remain calm, despite that being the last reaction he would feel driving a race car. But after his run, he excitedly jumped up and down and then thanked all those involved.

 

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http://www.oil.ie/news/view/29 <![CDATA[Common Plant Injuries]]> http://www.oil.ie/news/view/29 Wed, 18 Jan 2012 10:47:51 +0000 The number of injuries taking place at industrial plants has increased over the past few years. Not only does it affect the staff but it also affects the plant, as it suffers from personnel and monetary losses. Most of the accidents taking place would not have occurred had the safety regulations been adhered to. Plant employees often work alone and in dangerous environments, therefore they need to pay special attention to the safety regulations.

Different injuries need different responses, but most will need medical attention. High pressure injection hazards are also known as grease gun injuries. These injuries occur when there is an accidental injection of foreign material, such as oil or grease, into the skin. This injury should be treated as a surgical emergency. Immediate medical attention should be sought out, regardless of the appearance or size of the wound. These pressurised grease guns are mostly used in service stations, garages and industrial plants and have the velocity of a muzzled rifle bullet. The most common injury is to the hands or fingers as a result of wiping the nozzle or when the nozzle slips off the grease fitting. A worker can also be injected from a gas leak in a grease line and should avoid stopping the leak with a body part to evade injury.

There are also mechanical hazards involved with working at a plant. Drums should be transported correctly to avoid straining muscles or losing control of the drum. Oil and grease spills should be monitored as an employee could have a serious fall and it’s a potential fire hazard. Employees also need to take care when handling machinery, which needs to have safeguards, as a machinery injury could result in amputation. Metal ladders shouldn’t be used near electrical wiring as a person could be electrocuted or a fire could start.

Depending on the nature of the plant, there are different work-related injuries that need to be taken into account and prevented at all costs. And when in doubt, seek medical attention.


 

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http://www.oil.ie/news/view/26 <![CDATA[The Winds of Change]]> http://www.oil.ie/news/view/26 Thu, 12 Jan 2012 22:00:00 +0000 Wind turbines are used to convert kinetic energy into mechanical energy and can be used to produce electricity or drive machinery. It can also be used as a renewable energy source.

Wind turbines are highly engineered, sophisticated machinery that mainly operate in harsh environments. The main gearbox is the pivotal component of the turbine and therefore needs extra attention and correct lubrication.

To maximize the lifespan of the gearbox in a wind turbine, the gear oil should offer long term gear and bearing protection, excellent oxidation stability, rust and corrosion protection and have exceptional filtration capabilities. The correct oil can extend the lifespan, reduce downtime and maintenance costs, and improve productivity.

When choosing a lubricant, there are different requirements such as weight restrictions that require protection against micro-pitting and scuffing. Lubricant property retention as well as long term protection against aging is also important. Oil filtration capabilities under dry and wet conditions is critical, as is the flow ability of the oil at low temperatures and the anti-wear capability at high temperatures. Off-shore applications also need to have rust and corrosion protection against salt water.

Mobil SHC XMP 320 lubricants are engineered for the lubrication of the main and ancillary gearbox and meet the demands of wind turbine applications. In the past ten years, this lubricant has been used in over 30,000 wind turbines worldwide. The lubricant must perform well on multiple dimensions to meet the demands of wind turbine gearboxes. The Mobil lubricant offers outstanding anti-wear and load carrying properties, provides long term protection against rust and corrosion, superb filterability and water tolerance. These characteristics are what make Mobil SHC XMP 320 the product of choice for the wind power industry.

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http://www.oil.ie/news/view/24 <![CDATA[Solutions for Cement Manufacturers]]> http://www.oil.ie/news/view/24 Tue, 10 Jan 2012 22:00:00 +0000 Extending equipment life is a crucial requirement for cement manufacturers. The overall cost of damaged equipment, production loss and labour expenditure is due to poor lubrication. This has lead to manufacturers choosing the best overall lubricant, as opposed to the one with the lowest price.

Lubricant advances have seen the extension of equipment life and oil drain intervals. High quality, synthetic lubricants like the Mobil SHC range offer benefits that mineral oils cannot. Synthetic lubricants are the best option, as they can hold their own in severe operating conditions, such as hot temperatures, heavy loads and high pressures. The Mobil SHC 639 series of lubricants are designed to provide long-term equipment protection, oil life and problem-free operation.

The Mobil Industry Lubricants are also working with India's leading cement company, ACC Ltd, as they are struggling with ID spindle bearing failures and significant downtime. Mobil engineers suggested using Mobil SHC 100. The anti-wear and extreme pressure grease is primarily recommended for higher speed applications where reduced frictions, low wear and long service is required. The solution resulted in the bearing running for 1000 consecutive hours and a huge saving.

Zhujang Cement in China also benefited from Mobil's assistance. Due to increased product capacity, the operating temperature of bearings increased from 50ºC to 90ºC. The engineers recommended upgrading to Mobil SHC 460 synthetic grease. This grease is engineered to exceed requirements for severe applications operating at extreme temperatures. The solution increased productivity, therefore increasing savings. The full range of Mobil products aim to reduce energy cost and environmental footprints. The Mobil SHC 600 series high performance gear oils can reduce power consumption of some gearbox applications by up to 8% compared to mineral oils.

Mobil's recent development, SHC Pegasus, is a high performance natural gas engine oil created to support cement companies using natural gas operations. It optimises equipment and protection; it also maximises productivity and reduces cost by incorporating oil and equipment condition-monitoring programs to work with high quality lubricants. Oil analysis should include fluid viscosity measurement, water content, dissolved metals and a particle count to show how well the system is working. Oil analysis over time is called trending and is crucial to assess the condition of the lubricant. By trending oil data, it is possible to identify and address problems before they occur. A visual system inspection should also be conducted regularly, as well as comprehensive leak detection.

Ultimately, cement manufacturers gain an edge by investing in high quality lubricants and associated services to help achieve corporate goals.

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http://www.oil.ie/news/view/25 <![CDATA[Maintenance and Care Tips for Air Compressors]]> http://www.oil.ie/news/view/25 Thu, 05 Jan 2012 22:00:00 +0000 The operating costs of plants have increased substantially, making it more important to know where to reduce costs in the running of a plant. There are three basic factors in the total cost of producing compressed air in plants: power costs (65%), operating costs (25%), and asset costs (10%).

There are many different elements to ensure effective cost reduction in the plant costs. Some of those elements are:

Clean, cool inlet air
Cooler inlet air decreases the need to produce line pressure. The air intake should be located outside the plant and six feet from the ground. It should be in a dry, shaded and clean area.

Correct air filter condition and capacity
Regular readings should be taken from the installed instrumentation in the suction line between the filter and the compressor. This should be done to check for leakage or excessive restriction. A correct filter helps reduce costs through longer filter change intervals and reduced load time.

Optimum operating temperature of compressor
It is important that the correct operating temperature is maintained as an abnormally high operating temperature may result in an explosion or fire. To prevent this, maintain the temperature that was recommended by the compressor manufacturer. A proper operating temperature can also be ensured by never starting a compressor with water flow and ceasing flow when the compressor is shut down.

Correct lubricant and feed rate
Select a lubricant that has characteristics that are suited to the plant's service needs. Ensure cleanliness in the storing and dispensing of lubricants. Cylinder oil lubrication is also an important factor. Maintaining a correct feed rate protects metal surfaces, and prevents sludge and deposit build up. If the correct amount is not used, it may result in high wear rates, over heating and high oil consumption. Centrifugal lubrications also help protect bearings. If the correct oil is used it minimizes wear, resists oxidation and is able to perform with water present. When wet, a properly cooled oil is required to absorb heat caused by compression and lubricate the rotors and provide sealing. Oil-to-air or water-to-air heat exchanges help ensure a cool oil supply and minimizes carbon deposits on compressor components.

Efficient air-cooling systems
Clogged dirt restricts proper cooling. Therefore separating, trapping and draining water condensed from air is essential. Ensure that proper water draining is taking place.

Safe storage of reserve air
The air receiver is a key part in most plant air systems. It needs to be arranged in a way that will drain oil or water that is condensed from air or carried over from after-coolers. A spring-loaded safety valve needs to be installed at the receiver and tested regularly to ensure safe running.

Dry air delivered at required pressure to point of use
Maintenance costs can be spent fighting the damage caused by unwanted moisture in compressed air systems. Air is often cooled after being discharged from the compressor to remove water and decrease condensation from occurring in the air distribution system. Regular inspections ensure dry air and delivery at intended pressure.

Air line lubrications
Air line lubrications provide lubricant for devices that are run by compressed air. A lightweight oil that is easily carried by air helps operational efficiency. It is best to keep the oilers fill and replace any dirty or milky oil.

Decreased air leaks
Leaks in the air system can cause the compressor to compress more air, therefore increasing operational costs. This can be prevented by using ultrasonic leak detectors to pick them up early.

A plant using these methods should be able to reduce their operational costs, saving money and energy.

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http://www.oil.ie/news/view/19 <![CDATA[Reducing Fuel Consumption through Lubrication]]> http://www.oil.ie/news/view/19 Mon, 02 Jan 2012 22:00:00 +0000 Fuel prices are on the rise, as are operating costs. The CVL (Commercial Vehicle Lubricants) sector is struggling in this difficult business environment, with fuel being the top expense of individual operators and fleets. This economic pressure can be relieved through improved fuel economy by upgrading to a fully synthetic heavy duty diesel engine oil.

Approximately half of fuel-produced energy is lost as heat and 15% lost as friction which leaves 35% for hauling. There are ways to decrease this friction which improve fuel economy. There are two types of friction: viscous and contact. The viscous friction relates to the thickness of oil and the energy lost from pumping and moving engine parts through it. Contact friction results from metal-to-metal contact which can occur from inadequate lubrication. A high degree of friction could result in engine wear and a decrease in fuel economy.

Friction is always present. Operations at low temperatures are when friction has a greater impact. Cold engine start-up and stop-and-go driving results in oil being most viscous and can result in reduced fuel economy. The fuel economy can also be affected when engine components rub against each other, causing friction. This sometimes occurs if the oil is too viscous to be pumped during the start-up or if the oil isn't thick enough to keep engine components separated at high temperatures.

The solution is to formulate a lubricant that maintains desired viscosity over a range of temperatures and throughout the course of drain interval. The optimal viscosity grade will depend on the specific engine and operating conditions. A high viscosity index (VI) is a measure of how the viscosity changes with temperature and a key parameter when choosing the lubricant. The higher the VI, the less variance in the viscosity of the lubricant caused by changes in temperature. Lubricants will be less viscous at a low temperature which leads to a better fuel economy relative to a low VI lubricant. A higher temperature lubricant will be more viscous and thicker compared to a low VI lubricant. This could allow the use of lower viscosity lubricant to enhance fuel economy and maintain engine protection.

The most important parameter in fuel economy is viscosity control. Optimum viscosity reduces fuel consumption and minimises engine friction. With low temperature and stop-and-go operations there is the potential of up to 5% in fuel savings. A multi-grade lubricant with a "W" grade could improve those savings even more. For example, to save fuel use a 5W-XX as opposed to a 15W-XX. This could result in up to 2% fuel savings for normal operations. A multigrade lubricant with a lower high temperature viscosity grade could improve that. For example, use a XW-30 compared to a XW-40. To combine the two modes of fuel saving use a SAE 5W-30.

Additionally, over time the viscosity can increase due to lubricant breakdown and contamination. Oil thickening can result from contaminants, soot particles and by-products of oil breakdown. This will reduce the fuel economy and decrease wear protection. The lubricant must therefore be designed to resist thermal, oxidative and soot induced thickening. If the oil maintains its original viscosity, there will be fuel savings of up to 5% over the course of oil drain intervals. Viscosity retention may have the biggest impact on fuel saving.

It is very important to choose a lubricant that will provide long-term engine protection. Mobil Delvac 1 LE 5W-30 is formulated to achieve optimal performance as shown by its 5W-30 viscosity grade and extended drain approvals. It is a fully synthetic supreme performance heavy duty diesel engine oil that extends engine and emission system life. It provides long drain capability and fuel economy potential for modern diesel engines, including those with Diesel Particulate Filters. This oil is recommended for use in heavy-duty applications and operating environments found in on-road transport and off-road mining, and construction and agricultural industries.

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http://www.oil.ie/news/view/20 <![CDATA[Mobil 1 Keeps You Going in Winter]]> http://www.oil.ie/news/view/20 Wed, 28 Dec 2011 22:00:00 +0000 Cold temperatures are tough conditions for vehicles to operate in. When temperatures fall below freezing point, conventional lubricants can thicken and lose their ability to pump oil, which results in accelerated engine wear. But that's where using Mobil 1 makes a difference.

Mobil 1 is a synthetic lubricant and therefore delivers sustained excellent performance at low temperatures, including start-ups in sub-zero temperatures. This reason is why more OEMs (Original Equipment Manufacturers) are choosing Mobil 1 over other oils. This is the oil that has gone through tough testing in cold temperatures and still performed. A range of compact cars, using Mobil 1 oil, were put into a Cold Chamber and required to perform at temperatures of -30ºC. The oil could still offer sufficient lubrication, fast flow to engine parts, minimal wear in start-up and overall protection throughout the cold temperatures.

Testing like that led to Nick Baggarly choosing to use Mobil 1 on his 16 month world trip. Baggarly is the director of the non-profit group, Drive Around the World and from the San Francisco Bay Area. His team experienced temperatures below -30ºC in places like Alaska and Siberia and the vehicles still maintained excellent performance.

These kind of performances make Mobil 1 the standout oil to use in cold temperatures.

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http://www.oil.ie/news/view/21 <![CDATA[Mobil & McLaren: 11 Years of Racing & Innovation]]> http://www.oil.ie/news/view/21 Mon, 26 Dec 2011 22:00:00 +0000 This video tells of the 11-year-long business relationship between ExxonMobil and McLaren. It takes a look at what they've done together and the new range Mobil is working on. 

 

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http://www.oil.ie/news/view/18 <![CDATA[Mobil SHC Gear Series Launched]]> http://www.oil.ie/news/view/18 Wed, 21 Dec 2011 22:00:00 +0000 ExxonMobil's new lineup of high-performance, fully-synthetic industrial gear lubricants is called the Mobil SHC Gear series. These SHC Gear Lubricants contain advanced ExxonMobil additive technology designed to provide industrial gearboxes with excellent protection against conventional wear modes, such as scuffing, and a high level of resistance against micropitting fatigue.

Mobil SHC Gear series offers the potential for improved energy efficient benefits over many gearbox applications and shows energy savings of up to 3.6% versus conventional oils in statistically validated laboratory tests*. This can translate to valuable cost savings for both plant and procurement management.

The Mobil SHC gear series' high oxidation resistance allows oil life to extend up to six times compared to standard mineral gear and bearing lubricants, especially when operating at elevated temperatures. Backed by extensive research and testing, the Mobil SHC Gear oils also demonstrate great water-handling properties, enhanced resistance to micropitting fatigue, improved seal compatibility and shear stability.

Mobil SHC Gear lubricants feature the most advanced technology so that industrial customers can reduce their equipment downtime, decrease maintenance costs and increase productivity. The Gear fluids also exceed most of the specifications by other major industries and OEMs (Original Equipment Manufacturers) for industrial gearbox applications.

*Energy efficiency relates solely to the fluid performance when compared with conventional reference oils of the same viscosity grade in gear applications. The technology used allows up to 3.6% efficiency compared with the reference when tested in a worm gearbox under controlled conditions. Efficiency improvements will vary based on operation conditions and application.

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http://www.oil.ie/news/view/23 <![CDATA[Mobil SHC Pegasus Ready to Soar]]> http://www.oil.ie/news/view/23 Sun, 18 Dec 2011 22:00:00 +0000 Mobil SHC Pegasus is helping gas engine operators maximize productivity whilst reducing costs. The benefits of using Pegasus are oil drain interval, extended equipment life and reliability, increased equipment operating efficiency and up to 1.5% energy efficiency savings. Other benefits include reduced resource use, reduction in oil disposal costs, greater fuel efficiency and reduced emission results. 

Enogex, one of the largest natural gas transmission and midstream services in the U.S., has conducted field testing using the Mobil SHC Pegasus. It was discovered that the engine ran for more than 16,000 hours without drain, whereas a regular oil change occurs every 3,000 hours. The engine parts were in excellent condition, there was minimal wear, and minimal 'sludging' carbon deposits.

Another field test showed an energy saving of 1.5%. Mobil Industrial Lubricants has been working closely with three of the biggest OEMs (Original Equipment Manufacturers) in Europe and the US, conducting proof of performance field testing with each OEM. Mobil SHC Pegasus optimizes equipment productivity and protection.

It was one of the first gas engine oil formulations to deliver real energy saving potential. Extensive independent university laboratory and field testing has taken place and demonstrates that using Pegasus reduces fuel consumption up to 1.5%.

 

The oil delivers increased oil drain intervals for more than 16,000 hours as opposed to 3,000 or 4,000 for conventional oil. Field tests have also taken part on older gas model engines. There was next to no 'sludging' or carbon deposits, and up to 4 to 8 times longer oil drain intervals. There are also additional products in the Pegasus range. The Mobil Pegasus SR is a high performance gas engine oil specifically formulated for the lubrication of modern, medium and high-speed four cycle engines operating on aggressive gases typically containing siloxanes where high wear or scuffing is an issue. Mobil is confident Pegasus is applicable to all natural gas engines, and can deliver significant benefits to engines regardless of the model.

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http://www.oil.ie/news/view/22 <![CDATA[Safety First: Lubricants for Food Machinery]]> http://www.oil.ie/news/view/22 Sun, 11 Dec 2011 22:00:00 +0000 Lubricating oils play a very important role in the smooth running of food machinery such as mixers and conveyors. The risk is that leakage may occur and get into or on the food. With that comes huge pressure on the food processing sector to minimize that risk of contamination. If contamination does occur, product has to be recalled, there are public notices, negative publicity and potential litigation. It could destroy a brand. 

 

Contamination risk can be reduced by using appropriate food registered machinery lubricants. High quality lubricants for food machinery should meet legislative and regulatory requirements and customer needs. It should also be fit-for-purpose and show high performance. The U.S. FDA (Food and Drug Administration) manages a list of the components that are allowed in food machinery lubricants. These lubricants are specially formulated with base oils and additives that comply with FDA requirements. These approved base oils and additives have advanced with time and shouldn't affect the performance of the lubricant. The lubricant formulation then needs to be submitted to the NSF (National Sanitation Foundation) which then reviews the data and checks FDA compliance. If the submission is successful, the lubricant will be allowed to use the NSF logo on their packaging and labels. An NSF H1 label means that the lubricant is "suitable for use where incidental contact may occur between the lubricant and food". HACCP (Hazard Analysis and Critical Control Points) also help manufactures recognize high risk areas where leakage can occur. 

 

The risk before final delivery to customers also needs to be reduced by having a robust process used to control blending, transportation and packaging. Customers are choosing more factories that are using food registered lubricants throughout the factories to minimize contamination risk. ExxonMobil offers a range of NSF H1 registered lubricants based on synthetic base oils. These oils add benefits of longer life, lower maintenance costs and potential energy savings compared to conventional oils. These lubricants can be used above and below processing line, which reduces inventory and risk. The Mobil lubricants not only help customers reduce risk if contamination occurs but also ensure maximum performance and longevity of equipment. 

 

Mobil-branded NSF H1 registered food lubricants comply with the FDA listing, are multi purpose and offer outstanding performance. Backed by over 100 years of industry experience and expertise in lubrication, the new Mobil SHC Cibus Series oils for food machinery are specially formulated to help maximize productivity, ensure food quality, and provide high-performance lubrication for a variety of food processes, including meatdairybaked goods, beverage, brewery, pet food, sugar, pharmaceuticals, and grain. Mobil SHC Cibus Series lubricants that include compressor, hydraulic, and gear oils, together with the Mobilgrease FM Series and Mobil SHC Polyrex Series of greases and other Mobil-branded lubricants, have been designed for the diverse range of operating conditions found in the food processing industry. These conditions range from extreme freezing and baking temperatures to frequent high-pressure washdowns, and hot, corrosive atmospheres.

The Mobil SHC Cibus Series of colorless food machinery lubricants is formulated for food products destined for many global markets and is manufactured for use in Halal and Kosher (Parve) food preparation. It has also been specifically designed to comply with your Hazard Analysis and Critical Control Points (HACCP) planning schedules, a globally accepted systematic risk-management approach to food safety.

 
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http://www.oil.ie/news/view/17 <![CDATA[Mercedes-Benz Chooses Mobil to Power Sprinter Series]]> http://www.oil.ie/news/view/17 Wed, 07 Dec 2011 22:00:00 +0000 Mercedes-Benz will now use Mobil lubricant for factory fill for all new Sprinter vans running on Diesel. And for service fill, Mobil Delvac will be the lubricant of choice. The decision strengthens the existing relationship between the two companies and will undoubtedly lead to manufacturing and engineering advances for everyone involved.

The factory fill lubricant is a low ash 5W-30 formulation lubricant that has been approved against MB-Approval 225.11. The service fill lubricant has gone through rigorous testing with Mercedes-Benz and will be one of the first 5W-30 grade oils to be awarded with the prestigious MB-Approval 228.51 and the MB-Approval 228.5 accreditations.

The Mobil products were selected because of the performance at extreme low temperatures, which provides optimum cold-start protection. The engine is protected in even the coldest temperatures. The low ash formulations also protect emission systems while the lubricants maximise oil drain intervals and drive fuel economy potential.

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http://www.oil.ie/news/view/16 <![CDATA[F1 Car Made of 1500 Mobil 1 Bottles]]> http://www.oil.ie/news/view/16 Mon, 05 Dec 2011 22:00:00 +0000 Check out this great stop-motion video of performing artists Lori and Hans building a lifesize F1 car out of old Mobil 1 bottles.

It takes the concept of kitcars to another level. The artists used over 1500 bottles to construct the model, and the end result is an impressive piece of engineering. It's certainly the lightest car on the track. Perhaps it's a sign of things to come and in a not-so-distant future Lewis Hamilton will be winning races in a car constructed from recycled plasic.

 

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http://www.oil.ie/news/view/15 <![CDATA[ Lewis Hamilton talks about his Vodafone McLaren Mercedes]]> http://www.oil.ie/news/view/15 Fri, 30 Sep 2011 14:10:36 +0100 He set the Formula One World alight in 2008 with his Championship winning performances, and this year has been a serious contender to regain the title. Check out the video below to watch Lewis Hamilton take viewers underneath the hood of his McLaren Mercedes.

 

 

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http://www.oil.ie/news/view/13 <![CDATA[Thinking inside the box: Improve wind turbine operators bottom line ]]> http://www.oil.ie/news/view/13 Mon, 19 Sep 2011 14:29:50 +0100 Every month on DNet, we bring you the latest technical information from ExxonMobil experts to help equip you with the knowledge you need to help your customers enhance productivity. This month, we speak to Michael Hawkins, Global Brand Manager for ExxonMobil’s Mobil SHC brand of synthetic lubricants, about how its flagship lubricants and application expertise are helping the wind energy sector to expand and become more cost competitive. 

 
How extensive is ExxonMobil’s portfolio of lubricants for wind turbines? 
 
Hawkins: ExxonMobil has been pioneering synthetic lubricant technologies for nearly half a century and has a long-standing reputation for serving even the most demanding applications, including wind turbines. Today, we have an extensive portfolio of expertly formulated lubricants that deliver exceptional, long lasting performance for wind turbine operations. 
 
Perhaps the most recognized product is our flagship Mobilgear SHC XMP 320, a high-performance synthetic gear oil for wind turbine gearboxes. Mobilgear SHC XMP 320 is used in more than 30,000 wind turbines worldwide and is the initial-fill gear oil of choice for the majority of the world’s top 12 wind-turbine builders. 
 
We recently analyzed more than 15,000 used-oil samples of Mobilgear SHC XMP 320 and the results demonstrated that the oil delivered superb wear protection, with few issues related to aging detected during the analysis. An easy choice for any of your customers wanting increased protection for their applications. 
 
As well as Mobilgear SHC XMP 320, we offer a wide range of lubricants that are formulated to deliver exceptional protection for all parts of a wind turbine. Mobil SHC Grease 460WT is our premier synthetic grease for the lubrication of main, pitch and yaw bearings. It offers exceptional low and high temperature performance, structural stability even in the presence of water, false brinelling protection, excellent wear protection and rust and corrosion inhibition. 
 
In addition, Mobil SHC 524 high performance synthetic hydraulic oil delivers exceptional performance in critical wind turbine applications, such as the hydraulic pitch control of rotor blades. 
 
Why is lubrication such an essential component of wind turbine performance? 
 
Hawkins: Wind turbine maintenance presents many challenges that can impact productivity. The main gearbox is the heart of a wind turbine and drives the generator. With their advanced designs and overall importance to system performance, gearboxes can be very costly to repair or replace after the warranty expires. 
 
For example, when factoring in all expenses, replacing a gearbox for a 1.4 MW turbine can cost a company more than €400,000, including the price of a new gearbox, labour costs, crane rental and lost revenue from turbine downtime. In remote locations like offshore, costs might be even higher and after the warranty period, the operator becomes responsible for keeping the turbine running for the remainder of its service life. 
 
For the main gearbox, as for all pieces of industrial equipment, lubrication plays a vital role in optimizing performance and minimizing downtime. 
 
What are the key challenges facing wind turbine operators and maintenance personnel? 
 
Hawkins: Maintaining and prolonging the performance of the main gearbox is the greatest lubrication challenge in a wind turbine. The most common cause of gearbox downtime is related to bearing failure. 
 
Considering the variable load, speed and dramatic temperature conditions wind turbines operate under, bearings are put under a significant amount of stress. These factors, combined with improper lubrication, can result in the need for bearing replacements; if damaged bearings are not replaced promptly, significant gear damage can result. 
 
The drive to minimize up-tower weight has resulted in compact gearbox designs which, in combination with high loads found in wind turbines with hardened surfaces, makes these gears susceptible to micropitting, which can cause numerous surface cracks. The cracks propagate at  a shallow incline to the surface, forming extremely small micropits that can reduce gear tooth accuracy and lead to significant gear damage. 
 
In addition to protecting against micropitting and other forms of equipment wear, Mobilgear SHC XMP 320 exceeds the performance of traditional oils by extending the interval between oil changes from 18 months to three years or more. Extended oil life translates into a variety of benefits, including reduced volume of oil purchases, used-oil disposal volumes, maintenance effort and lubricant-related downtime for oil changes. 
 
Why does using synthetic lubricants versus conventional oils make such a difference in wind turbine applications? 
 
Hawkins: The need for manufacturers to minimize up-tower weight in wind turbines has resulted in compact gearbox designs that incorporate the case hardening of the gear surfaces. Case-hardened gears exposed to unpredictable winds and loads found in wind turbines are susceptible to micropitting, and require a gear lubricant that protects against this type of wear. 
 
The extreme conditions wind turbines are subjected to are easily endured by high-performance synthetic lubricants. By comparison, conventional, mineral-based fluids really cannot deliver the same level of protection. Upgrading to synthetic lubricants brings a number of advantages which help maximize the performance of wind turbines. 
 
Compared to conventional mineral oils, Mobil SHC fluids can actually help to reduce energy consumption in many applications. Other advantages include longer equipment life, high-temperature capability, excellent resistance to oxidation and protection against wear. These kind of performance advantages can help customers generate significant bottom line savings and, equally important, enable them to maximize their productivity. 
 
Besides choosing the right lubricant, what other maintenance strategies are essential for maximizing wind turbine performance? 
 
Hawkins: Oil analysis is one of the most widely used proactive maintenance strategies for wind turbines and employs a test slate that is designed to evaluate the condition of the in-service lubricant and the condition of internal hardware. Using routine oil analysis as part of a preventative maintenance programme, maintenance professionals can extend the useful lives of 
both the gear oil and the gearbox by detecting and acting on early warning signs, such as contamination or increasing wear metals. 
 
To obtain the greatest benefit from oil analysis, it is imperative that your customers work closely with an expert lubricant manufacturer and participate in oil analysis every three to six months. Identifying trends in the data will help maintenance professionals make better informed oil suitability decisions. 
 
Describe the importance of ExxonMobil’s partnerships with wind turbine and gearbox manufacturers? 
 
Hawkins: A key factor in the development of lubricants is the close working relationships that our ExxonMobil scientists and application specialists have with key OEMs. Through these technology partnerships, we are able to ensure that our product offerings deliver exceptional performance and are ideally formulated to meet the rapidly evolving gear designs and operation requirements. 
 
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http://www.oil.ie/news/view/6 <![CDATA[Mobil 1 Goes The Distance ]]> http://www.oil.ie/news/view/6 Mon, 19 Sep 2011 14:08:54 +0100 Mobil 1 proven to excel even after one million kilometers 

As the world’s leading synthetic motor oil brand, Mobil 1 is renowned for its ability to protect engines over long distances and in extreme conditions. 
 
With this in mind, the ExxonMobil Research and Development team based in Paulsboro, New Jersey, USA, decided to partner with Mercedes-Benz to put this lubricant to the test over a grueling one million kilometers of driving, to give customers yet another reason to select Mobil 1 synthetic motor oil. Even though customers would probably already have bought a new car long before they ever reached one million kilometers, the benefits of Mobil 1 that the test proves remain the same, so take a look… 
 
 
On specially-designed highway simulators, the Paulsboro technical team ran a Mercedes-Benz E350 for one million kilometers using Mobil 1. Distance was not the only challenge - the car was also subjected to weather elements and seasonal temperature changes to demonstrate Mobil 1’s ability to function effectively in temperatures as low as -50°C. Throughout the journey, the team subjected the car to 13,000 mile oil drain intervals – totaling 48 by the end of the test! 
 
The results 
Once the test was complete, the team of ExxonMobil scientists, engineers and text experts pulled the engine apart to see how the million kilometers had impacted on the state of the engine. Unsurprisingly, Mobil 1 had provided outstanding protection against both wear and deposits. The team commented on how everything from the cam followers to the bearings were remarkably clean, with tight lifters and little valve recession. 
 
The engine’s cleanliness was testament to how Mobil 1 can keep an engine running ‘like new’ for longer. Even after a million kilometers, the engine is still left with possibly hundreds of thousands more left in it! Keep in mind that many customers will be looking to prolong the longevity of their cars, so please remember to tell them about how Mobil 1 can help their car stay on the road for miles more than they thought! 
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http://www.oil.ie/news/view/3 <![CDATA[Mobil 1 Car Swap]]> http://www.oil.ie/news/view/3 Mon, 19 Sep 2011 10:14:06 +0100 Picture this scene. Designed to throw a spotlight on Mobil 1, the world’s leading synthetic motor oil brand and its rich heritage in supporting the world’s greatest motorsports stars, ExxonMobil recently brought together two of the most recognisable names in global motorsports for a once-in-a-lifetime event. Formula One™ 2008 World Champion Lewis Hamilton of Vodafone McLaren Mercedes and two-time NASCAR Sprint Cup Series champion Tony Stewart of Stewart-Haas Racing arrived at the legendary Watkins Glen International Raceway in New York state to put their driving skills to the ultimate test. How? By swapping cars with each other.

 
Champions out of their comfort zones
 
While thousands of motorsports fans took their seats in the stands, the world’s media from as far as Russia and Brazil gathered to witness the hotly-anticipated event after months of buzz. On a slightly wet and windy afternoon, the two drivers stepped onto the grid for a challenge that both were visibly eager for – no mean feat when your day job is motor racing! Lewis Hamilton geared up to drive the No. 14 Mobil 1/Office Depot Chevrolet Impala, while Tony Stewart was fitted for Lewis’s championship-winning Vodafone McLaren Mercedes MP4-23, two vehicles that had little in common besides their reliance on Mobil 1 lubricants to help give them championship-winning performance.
 
 
Talking each other through how to get the best out of their own vehicles, Tony and Lewis first took a trip around the track together to test out the damp conditions and get to know the legendary twists and turns of what was once the home of the American Grand Prix. After trading a few jokes about what would befall the driver who damaged the other’s car, the two drivers were ready to start their engines.
 
Eagerly awaiting their chance to put the pedal to the floor, each driver took his turn to race a few laps around the 3.4-mile, 11-turn lap Watkins Glen circuit. Both drivers were clearly thrilled to get behind the wheel, with Lewis finishing his run with celebratory “doughnuts” at the end of the track! On climbing out of the MP4-23, Tony Stewart gushed that “there’s not a present you could put under the Christmas tree that’s going to compare to this experience today”.
 
At the post-event press conference hosted by Formula One™ legend David Coulthard and attended by Alan Kelly, President of ExxonMobil Lubricants and Specialties, both drivers were brimming with enthusiasm about their experience, taking questions from the hundreds of journalists that had gathered to report on the event. Lewis Hamilton described how it was “good to be out there and be a kid again” whilst Tony Stewart said it was “truly the experience of a lifetime”. The event was a resounding success, reported on by the BBC (Europe), Speed TV (USA), Auto Plus (Russia) and some of the most important sports publications in the world, reaching audiences of millions with Mobil 1 messaging.
 
Share the action with your own customers.
 
Mobil 1’s own TV show, the Grid, was there to capture every moment of the drivers’ challenge. The cameras went behind the scenes to speak to the drivers about what the experience was like, what they had expected and what they learned from their time swapping cars. By uploading the Grid1.TV media player onto the Mobil-branded part of your website, you can now share this experience with your customers to help promote your company’s offer and sales of Mobil branded lubricants in your local area. The Grid1.TV media player is an easy tool to embed in your website and now you can include all the action from the Car Swap! Visit the Grid1.TV media player section on DNet today to find out how easy it is to use this tool – and all the buzz from the Car Swap - to help bring more traffic to your website and communicate your offer, with the ultimate aim of increasing sales of Mobil lubricants.

 

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