The World’s First Dedicated Closure Measurement System.

EZSLAM

Index:

1. Introduction.

2. EZSLAM Concept.

3. Technology.

4. C.I.M.

5. Key Metrics.

6. Energy Balance.

7. Troubleshooting Using EZSLAM.

8. EZSLAM Software.

9. Your EZSLAM.

EZSLAM:

1.Introduction.2.EZSLAM Concept.3.Technology.4.C.I.M.5.Key Metrics.6.Energy Balance.7.Troubleshooting Using EZSLAM.8.EZSLAM Software.9.Your EZSLAM.

1. Introduction:

A. Closure Challenge:

WHAT is a GOOD door?HOW does that TRANSLATE to your quality?HOW do you BENCHMARK your door?HOW do you CHECK your door?

1. Introduction:

B. Closure Solution:

Until now, it took hours and days of testing to obtain a handful of metrics on 1 single door.

EZSLAM:

1.Introduction.2.EZSLAM Concept.3.Technology.4.C.I.M.5.Key Metrics.6.Energy Balance.7.Troubleshooting using EZSLAM.8.EZSLAM Software.9.Your EZSLAM.

2. EZSLAM Concept:

A. The Basics of EZSLAM:

2. EZSLAM Concept:

B. Configurations:

a. Real Time:

Immediate detailed results as you go

b. Off Line:

Fast, pre-programmed procedures

2. EZSLAM Concept:

C. Standard Test Procedure:

EZSLAM:

1.Introduction.2.EZ SLAM Concept.3.Technology.4.C.I.M.5.Key Metrics.6.Energy Balance.7.Troubleshooting using EZSLAM.8.EZSLAM Software.9.Your EZSLAM.

3. Technology:

A. Bundle of Technology collects all sensor data at minimal 3600Hz:

3. Technology:

B. Example 1: YZ Trajectory:

-10 0 10 20 30 40 50 60 70-0.3

-0.2

-0.1

0

0.1

0.2

0.3

0.4

0.5

Y (mm)

Z (

mm

)

Door drop

Over slam

Door motion

Latch – Striker interaction

Latched position

Initial Speed

End of Pulse

-10 0 10 20 30 40 50 600

200

400

600

800

1000

1200

1400

Angular Position (degrees)

Speed (

mm

/sec)

3. Technology:

C. Example 2: Speed in function of Angle:

Impact Speed

Door Motion Acceleration

OpenClosed

90mm from Latch

Impact

3. Technology:

D. Example 3: Force in function of Y:

-10 0 10 20 30 40 50 60-50

0

50

100

150

200

250

Y (mm)

For

ce (

N)

Static Force to Latch (N)

Compression Energy (J)

Door motion (Slow)

Latch Point orMinimum requiredover slam to latch (mm)

Closed: Flush (0mm)

EZSLAM:

1.Introduction.2.EZSLAM Concept.3.Technology.4.C.I.M.5.Key Metrics.6.Energy Balance.7.Troubleshooting using EZSLAM.8.EZSLAM Software.9.Your EZSLAM.

4. C.I.M.: Combined Integrated Model:

A. Definition:

C.I.M.

Combined Integrated Model:

In the analysis to determine key values or

characteristics, EZSLAM tests are

undergoing a mathematical iteration

where results from one test will be used

in other test and the other way around.

4. C.I.M.: Combined Integrated Model:

B. Principle:

4. C.I.M.: Combined Integrated Model:

C. Example: Minimum Closing Speed - Step 1:

0 200 400 600 800 1000 1200 1400 16000

1

2

3

4

5

6

Speed (mm/sec)

Ove

rsla

m (

mm

)

Actual SamplesSpeed vs.. Over slam

Minimal Speed to latch.

Latch Point orMinimum requiredover slam to latch(Push test)

Curve Fit Regression

4. C.I.M.: Combined Integrated Model:

C. Example: Minimum Closing Speed - Step 2:

-10 0 10 20 30 40 50 600

200

400

600

800

1000

1200

1400

Angular Position (degrees)

Spe

ed (

mm

/sec

)

Minimal Closing Speed Curve

Minimal Closing Speed

Door Check Linearity

Closing Speed Curves

Closing Speed

Door Check Slope

4. C.I.M.: Combined Integrated Model:

D. Other Examples:

EZSLAM:

1.Introduction.2.EZSLAM Concept.3.Technology.4.C.I.M.5.Key Metrics.6.Energy Balance.7.Troubleshooting using EZSLAM.8.EZSLAM Software.9.Your EZSLAM.

5. Measured Key Metrics:

5. Measured Key Metrics:

Define Your New Standard:

“Quantify the Quality withA Standard User independent Procedure.”

EZSLAM:

1.Introduction.2.EZSLAM Concept.3.Technology.4.C.I.M.5.Key Metrics.6.Energy Balance.7.Troubleshooting using EZSLAM.8.EZSLAM Software.9.Your EZSLAM.

6. Energy Balance:

A. Energy Input:Energy Input from

Pulse from User Gravity Hinge System

6. Energy Balance:

B. Energy Output –single configuration-:Energy Dissipation through

Drag Static Latching Dynamic Latching

Drag 1: 6.0%53%

Drag 2: 1.1%9%

Dynamic 1: 0.9%8%

Dynamic 2: 2.5%22%

Static 1: 0.9%8% Static 2: 0.0%0%E300 Total :11.4J

1:Full2:Door Open

6. Energy Balance:

C. Energy Output –multi configuration- :Energy Dissipation, decomposed

according to modified components:

Drag Static Latching Dynamic Latching

EZSLAM:

1.Introduction.2.EZSLAM Concept.3.Technology.4.C.I.M.5.Key Metrics.6.Energy Balance.7.Troubleshooting Using EZSLAM.8. EZSLAM Software.9. Your EZSLAM.

7. Troubleshooting Using EZSLAM:

A. Important Time Saving:

CMM 2

Seals?

Striker aligned?CMM 1

Force 3

Seal gap?

General classic method requires Hours or even Days: EZSLAM requires ONLY 10 MINUTES :

7. Troubleshooting Using EZSLAM:

B. Examples:

EZSLAM:

1.Introduction.2.EZ SLAM Concept.3.Technology.4.C.I.M.5.Key Metrics.6.Energy Balance.7.Troubleshooting using EZSLAM.8.EZSLAM Software.9.Your EZSLAM.

8. EZSLAM Software:

A. Main Screen:

6 button user interface. Customizable Logos.

8. EZSLAM Software:

B. Result Screen:

1 Page overview. Automatic reporting. Numerical and Graphical Support. Nominal & Tolerance Color.

8. EZSLAM Software:

C. Comparison Screen:

Compare a selection of results. Overlay graphics. Compare Key Metrics.

EZSLAM:

1.Introduction.2.EZ SLAM Concept.3.Technology.4.C.I.M.5.Key Metrics.6.Energy Balance.7.Troubleshooting using EZSLAM.8.EZSLAM Software.9.Your EZSLAM.

9. Your EZSLAM:

A. Hardware Levels:

9. Your EZSLAM: B. Maintenance Levels:

Thank you