Wednesday, February 8, 2012

Top 12 Compressed Air Safety Guidelines


1. Never apply compressed air to the skin or direct it at a person. Even air at a pressure of 15 psi (1 bar) can cause serious injury. Never use a compressed air hose to clean dirt or dust from your clothing or body.


2. When using compressed air for cleaning purposes, ensure pressure does not exceed 30 psi. Always use goggles or a face shield over approved safety glasses for this application.


3. Wear ear protection. Exposure to excessive noise can damage hearing. Noise reducing mufflers can be fitted to machines to lessen the noise health hazard.


4. Never crimp, couple, or uncouple pressurized hose. Shut off valves and bleed down pressure before making any hose adjustments.


5. Use heavy duty clamps made especially for compressed air systems. Use only the correct type and size of hose end fittings and connections.


6. Never use frayed, damaged or deteriorated hoses. Always store hoses properly and away from heat sources or direct sunlight. A hose failure can cause serious injury. Hose Reels can decrease your chances of injury, as well as help hoses last longer.


7. When blowing compressed air through a hose or air line, ensure that the open end is held securely. A free end can whip and can cause injury. Open the supply air cock carefully and ensure that any ejected particles will be restrained. A blocked hose can become a dangerous “compressed air gun.”


8. Make sure all hoses exceeding 1/2 inch ID have a safety device at the source of supply or branch line to reduce the pressure in case of hose failure.


9. Do not use air directly from a compressor for breathing purposes, for example charging air cylinders, unless the system has been specifically designed for such purpose and suitable breathing air filters and regulators are in place.


10. Isolating valves should be of the self venting type and designed to be locking in the "off" position so that air pressure cannot be applied inadvertently while the machine is being worked on.


11. Never alter or install an A.S.M.E. safety relief valve that has a higher PSIG rating than the pressure vessel rating to which it is attached.


12. Only pressure vessels built to a national or international standard should be used for air receivers.

Click here to learn more air compressor tips

Click here to download a FREE Compressed Air Safety Poster

Be safe and buy quality equipment...

Tommy McGuire

McGuire Air Compressors, Inc.
"Real People with Real Compressor Experience"
compressors@mcguire.biz
1-888-229-9999

www.hosereels.biz
www.airdryers.biz

Wednesday, October 19, 2011

Turn your compressor oil into cash savings for your business

Whether you are the business owner or the one who does equipment maintenance…you’ll save time and money by upgrading from mineral-based oils to quality Synthetic Air Compressor Lubricants.

If you are the business owner – you’ll love saving money because you upgraded to synthetic oil!

If you are the one who changes the oil - you’ll be glad to make a lot less oil changes!


Eight proven benefits from upgrading to quality Synthetic Air Compressor Lubricants in Reciprocating Type Compressors:
1- Saves 7%-10% in Electrical Usage in Reciprocating Type Compressors
2- Creates Less Friction which Equals Less Wear
3- Oil Will Last up to 8 Times Longer than mineral based oils
4- No Carbon deposit build-up in Valves or Rings
5- Creates Thermal Stability & Solvency
6- No Seasonal Oil Change as with mineral oil
7- Less Impact on the Environment
8- Saves on Labor & Disposal Cost

Eight proven benefits from upgrading to quality Synthetic Air Compressor Lubricants in Rotary Vane Type Compressors:
1- Saves 8%-12% in Electrical Usage in Rotary Vane Type Compressors
2- Creates Less Friction which Equals Less Wear
3- Synthetic Oil Lasts up to 4 Times Longer than mineral based oils
4- No Carbon build-up in Vanes or Ports
5- Results in Thermal Stability & Solvency
6- No Seasonal Oil Change
7- Less Impact on the Environment
8- Save Money on Labor & Disposal Costs


Upgrading to a good quality Synthetic Compressor Oil gives you leading edge technology in lubricants:
- Profit from big savings overall, even though the initial cost a bit more
-Improve fire-resistance because of the properties of synthetic oils. Cleaner valves and less lubricant reduce the chance of fires and explosions in reciprocating air compressor systems
-Synthetic oils provide cleanliness in reciprocating air compressor crankcases that result in better heat transfer and prevention of moving parts sticking. The result can be less power usage.

There are lots of high-tech, scientific reports about synthetic lubricants you could read, but the bottom line is this: Upgrade to Synthetic Air Compressor Lubricants and save time and money!

Note: Not all synthetic compressor oils are the same. The quality and quantity of the base stocks and additives package are where the difference is. Remember the old saying – “You get what you pay for”? In this case – it’s really is true. Make sure when you upgrade from mineral oil to synthetic that you drain the mineral oil for a complete change. Don’t just “ADD” the synthetic oil to the old mineral oil.

Tommy McGuire
McGuire Air Compressors, Inc.
Email: compressors@mcguire.biz
www.IndustrialAirCompressors.biz
Located at 729 East Elm St, Graham NC 27253
Mailing Address: P.O. Box 1100, Graham NC 27253
1-888-229-9999 or (336) 229-9999

Wednesday, April 27, 2011

How much does your air compressor cost you in electrical energy?

Before we see how much electricity costs, we have to understand how it’s measured. When you buy gas they charge you by the gallon. When you buy electricity they charge you by the kilowatt-hour (KWH). When you use 1000 watts for 1 hour - that unit of energy is called a kilowatt-hour. The kilowatt hour is most commonly known as a billing unit for energy delivered to consumers by electric utilities.

Once you know how much it is costing you in electrical energy…what can you do to REDUCE those costs and save money?


Seven Steps to figure the electrical energy cost of running your air compressor:
Take these first 3 steps to figure your Electrical Cost per Kilowatt Hour (KWH) (we shall use some average examples to help you see how this works)



1. Find your electrical utility bill for the facility where your air compressor operates and find your total amount due on your utility bill.


2. From you utility bill, find the total kilowatts used


3. Use this FORMULA:  Total Amount Due ÷ Total KWH Used = KWH Cost


Example:Total Dollar Amount Due Ex: $300.00
Total KWH Used Ex: 2500

Amount Due Divided By Total KWH Used
$300.00 Due ÷ 2500 KWH Used = 0.12 Per KWH
Results: Your Cost Per Kilowatt Hour is $0.12 Cents
(you will use your cost per KWH in the next formula)


In the next 4 Steps – let’s figure the ELECTRICAL ENGERY COST of running your Air Compressor
(we shall use some average examples to help you see how this works)



4. Determine your TOTAL HORSEPOWER (TOTAL HP) using this formula:
Motor Data Plate HP (EX: 25HP) X 110% = (27.5 HP)
NOTE: Most air compressors @ Max PSI use 110% of the rated horsepower



5. Figure your YEARLY HOURS of operation:
# Hours running per day X # days per week X # weeks per year running = The total time the equipment runs in a year.
(Example: 10 Hours Per Day X 5 Days Week X 52 Wks = 2600 HOURS)


6. Find your MOTOR EFFICIENCY (EFF):
MOTOR EFFICIENCY can be found on the motor data plate as a percentage.
(Example=.90 %)  It is the ratio of input power minus the output power.


7. Use this FORMULA:
Total HP x .746* x yearly hours compressor operates x KWH cost ÷ motor efficiency = Your Annual Electrical Cost to Operate Your Air Compressor

Using our EXAMPLES given…you can see how to figure your annual electrical costs:
27.5 hp x .746* x 2600 hours x $.12 ÷ .90 = $7111.87 per year to run your air compressor

EXAMPLE ANNUAL ELECTRIAL COST FOR COMPRESSED AIR = $7111.87


Most likely – your air compressor’s electrical costs were a lot more than you thought. Now that you know how much your Air Compressor is costing you in electrical energy…what can you do to REDUCE those costs and save money?
_______________________________________



 Want to learn how to save big bucks on your air compressor’s electrical costs?

If you are serious about your business saving money – then you should invest in a new handbook that will show you seven steps to slash your air compressor electric costs 20% to 50%. When you follow the steps -you can save hundreds- even thousands- of dollars in electrical costs. 
The best part is that every step recommended can be done in-house without spending much money. Small investment with big payoffs! Isn’t that what we all want?

Click here to order your copy today.


*NOTE: Where does the “.746” come from?
746 watts per hour of electrical energy is required to convert to 1 Horsepower of mechanical energy. KWH= your cost per 1000 watts of electrical energy per hour. KILOWATTS per HP = .746 watts



Friday, March 25, 2011

How to cut your air compressor electric costs

This new handbook shows you step by step
how to slash your compressor’s
annual electrical bill 20% to 50%

Compressed air is considered an "industrial utility" that usually comes with a huge annual electric bill.

Now you can have access to the compressed air industry's energy audit secret formulas.  

Professional compressed air energy audits can cost thousands of dollars.  But this step-by-step book will show you the formulas the pros use to discover how much energy you are wasting. These formulas would take you hours of research to discover- if you had access to the industry’s technical material. We have collected them for you and put them in a simple, easy-to-follow order that will help you find and fix your top four biggest compressed air energy-wasters.

Here’s what you’ll get in this one-of-a-kind book:
-A detailed PDF manual, with seven step by step instructions and industry-standard formulas to help you slash your compressed air electrical costs

-Steps to figure your existing cost per year to operate your air compressor

-Time-tested professional recommendations that can save 20% to 50% of your annual electrical cost of operating your compressed air system-but cost very little to implement

-The prescription to fix the four biggest energy-wasters in most compressed air systems

-Seven pages of formula worksheets you can print out and use to figure your own energy savings

ECONOMICAL Steps to BIG Savings
-One of the biggest advantages to this handbook’s approach is that you don’t have to spend “an arm and a leg” in order to see BIG savings.

-You’ll get instructions to make key adjustments on your equipment – which will cost very little.

-You will need to perform a thorough annual PM on your air compressor system – which should be inexpensive as well as part of your normal preventative maintenance.

-You can even use the formulas to figure your savings BEFORE you begin to implement  the recommendations.


This is not a gimmick, hype or a fad...
It's just a smarter way of operating your compressed air system
.

The valuable information in this handbook can save you hundreds, probably thousands of dollars this year. Don’t pass up this opportunity. 
All these compressed air industry's secret formulas and step-by-step instructions to huge savings are yours for only $39.95.

Click here to order your copy today.


Tommy McGuire
Owner of McGuire Air Compressors, Inc.
"Real People with Real Air Compressor Experience"
1-888-229-9999
compressors@mcguire.biz
Champion Industrial Air Compressors http://www.industrialaircompressors.biz/
Genuine Reelcraft Hose Reels: http://www.hosereels.biz/
Deltech Refrigerated Air Dyers: http://www.airdryers.biz/

Wednesday, February 9, 2011

What size piping does your compressed air system need?

Figuring the correct pipe size for your compressed air distribution system is an important task.  Pipe that is sized too small can create big pressure losses and reduce operating efficiency. Replacing piping is costly.  On average, 70% of a contracted piping job goes for labor and 30% for materials.
Do you know the biggest mistakes made in figuring compressed air piping sizes?
 Many people who plan the piping never consider the fittings or the future.

FITTINGS: Every pipe fitting creates a certain amount of increased frictional air loss that is equal to a specified length of pipe. For every 100 feet of pipe you will have a ONE POUND PRESSURE DROP caused by frictional air loss.
Any turns in the pipe at fittings, ells, tees, and valves increase pressure drops even more.  That’s why the EQUIVALENT LENGTH OF PIPE (FT.) for PIPE FITTINGS chart was developed to help you determine the best pipe size for your system.
FUTURE:
Are you planning to add more equipment in the next year or two?  Then plan for larger piping now.  Since the material costs in piping are low compared to installation or replacement cost, it’s wise to select pipe of an adequate size. If there is any doubt that a pipe size may create a pressure drop, use the next largest size. Remember that an oversize pipe compensates for possible scale build-up and provides for future expansion of the overall air system.
Steps to figuring what size piping your compressed air system needs:

1.    
Determine your air compressor’s maximum CFM.

2.    
Draw a piping schematic and show all pipe fittings, valves, etc.

3.    
Measure and write the corresponding lengths of pipe on your schematic, then total the length of all straight pipes needed and note that on your schematic.

4.    
Using TABLE 1  (click here to download the PDF with TABLE 1 & TABLE 2), find your compressor’s CFM number on the far left column, and then go to the right until you see the column header with nearest length in feet to your total pipe length. Find where the CFM & PIPE LENGTH intersect on the chart and it will show the recommended pipe size for that length.

5.    
Take that pipe size to TABLE 2 and use the table to find all the EQUIVELENT LENGTHS OF PIPE needed for each PIPE FITTING.  Write these lengths on your piping schematic at each fitting.
     
6.    
TOTAL all the EQUIVELENT LENGTHS OF PIPE needed for each PIPE FITTING and add to your total of straight length of pipe.  This will give you a new and more accurate total pipe length needed.

7.    
Take your new total of EQUIVELENT LENGTH OF PIPE IN FEET back to TABLE 1 and use this number to determine the PIPE SIZE you need.

8.    
Think of the FUTURE!
Now is the time to plan for larger piping that may needed for additional future equipment.
Table 1



Table 2

For more information on Compressed Air Basics visit
McGuire Air Compressors, Inc.
1-888-229-9999
McGuire Air Compressors also sells industrial products on line:
Champion industrial air compressors:
 
http://www.industrialaircompressors.biz
Featuring
new Industrial Champion Air Compressors, replacement compressor pumps, Gas & Diesel Compressors, Refrigerated Air Dryers, Champion Service Kits & Oil, PDF Champion manuals available online.

Deltech refrigerated compressed air dryers:
http://www.airdryers.biz -Deltech Refrigerated Air Dryers & Filters remove water and particulates from compressed air.

Reelcraft hose reels online:
http://www.hosereels.biz -
Featuring
Industrial Reelcraft Reels for air hose, oil hose, water hose, welding cable, electrical cords. Made in the USA.





Thursday, January 27, 2011

Do you need to remove harmful moisture from your compressed air system?
Then consider adding a Deltech Refrigerated Air Dryer.

Friday, October 15, 2010

Why is it important to fix Compressed Air leaks?

Leaks can be a big source of wasted energy in an industrial compressed air system, sometimes wasting 20 to 30 percent of a compressor’s output. A typical plant that has not been well maintained will likely have a leak rate equal to 20 percent of total compressed air production capacity. On the other hand, proactive leak detection and repair can reduce leaks to less than 10 percent of compressor output.

In addition to being a source of wasted energy, leaks can also contribute to other operating losses.
Leaks cause a drop in system pressure, which can make air tools function less efficiently, adversely affecting production. In addition, by forcing the equipment to run longer, leaks shorten the life of almost all system equipment (including the compressor package itself).

Increased running time can also lead to additional maintenance requirements and increased unscheduled downtime. Finally, leaks can lead to adding unnecessary compressor capacity.

Q. Where do most leaks usually occur?

Answer:
While leakage can come from any part of the system, the most common problem areas are:

• Couplings, hoses, tubes, and fittings

• Pressure regulators

• Open condensate traps and shut-off valves

• Pipe joints, disconnects, and thread sealants.

Q. How much can compressor leaks cost my business?

Answer:
A small leak - no larger than 1/16" can cost an extra $523 a year*.
Add a few other small leaks here and there until you have leaks equal to a 1/4" opening...and now that "small leak" can cost you $8,382 a year.* It is easy to see that what seems like a small leak comes with a very high price tag over time.

*Costs calculated using electricity rate of $0.05 per kilowatt-hour, assuming constant operation and an efficient compressor.

Q. How do you estimate the SIZE of AIR LEAKS?
Answer:
It’s not very hard. We’ll use the “TIME METHOD” to estimate percentage % of loss due to air leaks in your plant.

1- Turn OFF all air operated end-user equipment.
2- Start your air compressor and let it cycle 3 times
3- Time the OFF-LINE / UNLOAD TIME (not pumping time) using your watch. (Example: 5 minutes)
4- Time the ON-LINE / LOAD TIME (pumping time) using your watch. (Example: 2 minutes)
5- Calculate total percentage of air leaks as follows:

Add the OFF / UNLOAD and the ON / LOAD times together:

Example: T(5 minutes) + T (2 minutes)= 7 minutes
Divide ON / LOAD time T (2 minutes) by the total minutes: 2 ÷ 7 = 0.29

The result tells you 29% of your air compressor’s CFM’s are maintaining your AIR LEAKS.
This would mean that you are losing almost ONE THIRD of your compressed air to air leaks.

Click here to see how to estimate the SIZE of AIR LEAKS


Q. What's the best way to detect and fix compressor leaks?

Answer:
Since air leaks are almost impossible to see, other methods must be used to locate them.

The best way to detect leaks is to use an ultrasonic acoustic detector, which can recognize the high-frequency hissing sounds associated with air leaks. These portable units consist of directional microphones, amplifiers, and audio filters, and usually have either visual indicators or earphones to detect leaks.

A simpler method is to apply soapy water with a paint brush to suspect areas. Although reliable, this method can be time consuming.

Q. How To Fix Leaks

Answer:
Leaks occur most often at joints and connections.

Stopping leaks can be as simple as tightening a connection or as complex as replacing faulty equipment, such as couplings, fittings, pipe sections, hoses, joints, drains, and traps. In many cases, leaks are caused by failing to clean the threads or by bad or improperly applied thread sealant. Select high quality fittings, disconnects, hose, tubing, and install them properly with appropriate thread sealant.

Non-operating equipment can be an additional source of leaks. Equipment no longer in use should be isolated with a valve in the distribution system.

Another way to reduce leaks is to lower the air pressure of the system. The lower the pressure differential across an orifice or leak, the lower the rate of flow, so reduced system pressure will result in reduced leakage rates. Stabilizing the system header pressure at its lowest practical range will minimize the leakage rate for the system. Once leaks have been repaired, the compressor control system must be re-evaluated to realize the total savings potential.

Establishing a Leak Prevention Program

There are two basic types of leak repair programs:

1. The leak tag program
2. The seek and repair program.

The” seek and repair” method is the simplest. As it states, you simply find the leak and repair it immediately.

With the leak tag program, the leak is identified with a tag and logged for repair at a later time. This is often a two-part tag; one part stays on the leak and the other part is turned into the maintenance department, identifying the location, size, and description of the leak to be repaired. The best approach depends on the type, size, and the culture/work practices of the facility. It is more likely that the best solution will be a combination of the two.

*SOURCE: Based on definitions taken from “Improving Compressed Air System Performance” published as a cooperative effort of the U.S. Department of Energy’s Office of Energy Efficiency and Renewable Energy (EERE) Best Practices and the Compressed Air Challenge®.