TSL Professional Services



Similar documents
TEST REPORT. Rendered to: FAIRWAY BUILDING PRODUCTS, LP. For: LandMarke Railing System. PVC Guardrail System "Patent Number 7,487,941"

Load Design Charts. R-CONTROL SIPs STRUCTURAL INSULATED PANELS. CONTROL, NOT COMPROMISE.

Structural Integrity Analysis

TEST REPORT. Rendered to: DEXERDRY. For: Deck Weatherproofing System Installed with AZEK Deck Boards

TEST REPORT. Rendered to: INTEX MILLWORK SOLUTIONS, LLC. For: Rigid Cellular PVC Guardrail System Hampton RS40

STANDARD REQUIREMENTS FOR BONDING OR MECHANICAL ATTACHMENT OF INSULATION PANELS AND MECHANICAL ATTACHMENT OF ANCHOR AND/OR BASE SHEETS TO SUBSTRATES

Creep Behavior of Structural Insulated Panels (SIPs)

A transverse strip of the deck is assumed to support the truck axle loads. Shear and fatigue of the reinforcement need not be investigated.

Technical Notes 3B - Brick Masonry Section Properties May 1993

ESR-1190 Reissued December 1, 2009 This report is subject to re-examination in two years.

Nanping Weishi LVL Scaffold Plank Brochure

ABERLINK 3D MKIII MEASUREMENT SOFTWARE

UL 580 TEST REPORT. Rendered to: ARMSTRONG WORLD INDUSTRIES. SERIES/MODEL: MW Vector PRODUCT TYPE: Ceiling System, 3' OC

5 G R A TINGS ENGINEERING DESIGN MANUAL. MBG Metal Bar Grating METAL BAR GRATING MANUAL MBG METAL BAR GRATING NAAMM

PC-Concrete Injectable Concrete Anchoring and Repair System

Overview of Topics. Stress-Strain Behavior in Concrete. Elastic Behavior. Non-Linear Inelastic Behavior. Stress Distribution.

Long term performance of polymers

DESIGN OF SLABS. 3) Based on support or boundary condition: Simply supported, Cantilever slab,

APE T CFRP Aslan 500

SUPPLEMENTAL TECHNICAL SPECIFICATIONS BI-DIRECTIONAL STATIC LOAD TESTING OF DRILLED SHAFTS

POST AND FRAME STRUCTURES (Pole Barns)

ASTM E 1886 and ASTM E 1996 TEST REPORT. Rendered to: NORSE, INC.

Collapse of Underground Storm Water Detention System

2.9 WINDOW & DOOR BUCKS

Introduction to Beam. Area Moments of Inertia, Deflection, and Volumes of Beams

The entire document shall be read and understood before proceeding with a test. ISTA 3B Page 1 of 35

December J-Ply Roofing, Flooring and Decking

SCREW THREADS C H A P T E R 17

Depend-O-Lok FxE Expansion Coupling. System No. Submitted By Spec Sect Para Location Date Approved Date. DEPEND-O-LOK FxE EXPANSION COUPLING

Memory Modules User Guide

Residential Decks. Planning and Development Services Department

SECTION 5 ANALYSIS OF CONTINUOUS SPANS DEVELOPED BY THE PTI EDC-130 EDUCATION COMMITTEE LEAD AUTHOR: BRYAN ALLRED

Guidelines for Earthquake Bracing of Residential Water Heaters

Foam Firmness Measurements IFD For Most Furniture And Bedding Applications

Technical Bulletin Technical Bulletin Technical Bulletin Technical Bulletin Technical Bulletin Technical Bulletin Technical Bulletin BULLETIN

Product Guide Specification

HURRICANE MITIGATION RETROFITS FOR EXISTING SITE-BUILT SINGLE FAMILY RESIDENTIAL STRUCTURES

Prestressed Concrete I-Beam and TxGirder Haunch Design Guide

Featuring TJ Rim Board and TimberStrand LSL

Guidelines for Earthquake Bracing Residential Water Heaters

Series 4000 Fiberglass Pipe and Fittings

Evaluation of In-Place Strength of Concrete By The Break-Off Method. Tarun Naik Ziad Salameh Amr Hassaballah

Bending, Forming and Flexing Printed Circuits

Gate Leg Drop Leaf Table Plans

Chapter 5 Bridge Deck Slabs. Bridge Engineering 1

Safety Grating GSSG-13R GRIP STRUT. safety grating

LOAD-CARRYING CAPACITY OF AXIALLY LOADED RODS GLUED-IN PERPENDICULAR TO THE GRAIN

09/07/07 GLASSFIBER REINFORCED CEMENT (GRC) C. S. I. Spec Master Spec Page 1

SLAB DESIGN. Introduction ACI318 Code provides two design procedures for slab systems:

SECTION 3 DESIGN OF POST TENSIONED COMPONENTS FOR FLEXURE

LABORATORY EXPERIMENTS TESTING OF MATERIALS

ASTM D 1599 Standard Test Method for Resistance to Short-Time Hydraulic Pressure of Plastic Pipe, Tubing, and Fittings

TEST REPORT. Rendered to: TFC A DIVISION OF CENTURION INDUSTRIES, INC. Garrett, Indiana

IHSS-N1 WELDED HONEYCOMB CORE SPECIFICATION. Generated: Sergiy Papyshev Engineering. Approved: Don Prysi Manufacturing. Approved: Merzuk Ramic Quality

MECHANICS OF SOLIDS - BEAMS TUTORIAL 1 STRESSES IN BEAMS DUE TO BENDING. On completion of this tutorial you should be able to do the following.

There are as many reasons to test metals as there are metals:

TEST REPORT. Rendered to: LMT-Mercer Group, Inc. For: PRODUCT: 4" x 4" and 5" x 5" PVC Porch Posts with Aluminum Reinforcing

DE Frame with C Series Sidelight

ENGINEERING SPECIFICATION PULTRUDED DYNARAIL FIBERGLASS LADDER & LADDER CAGES

DSM 1 (800)

TA-A BED TYPE MILLING CENTRE

Introduction... 3 Setting the Combination... 4 Securing the DEFCON CL... 5 Locking the DEFCON CL to your Notebook Computer...

WORKBOOK MODELING OF MULTI- MEMBER MACHINES

Universal Gauge Measuring System USERS MANUAL

Technical Regulations

SECTION GUARDRAILS

WHI 90-Minute Rated Veneered Door Frame Installation Instructions

TEST REPORT. Report No.: A Rendered to: BAMCO INC. Middlesex, New Jersey. PRODUCT TYPE: Wall Cladding System SERIES/MODEL: Dry Concept

DECKING INSTALLATION, CARE & MAINTENANCE INSTRUCTIONS MOISTURESHIELD.COM limited lifetime warranty

HP 36-Port InfiniBand Switch Cable Management Kit Installation Guide

Torsion Tests. Subjects of interest

FINAL REPORT STRUCTURAL LOAD TESTING AND FLEXURE ANALYSIS OF THE ROUTE 701 BRIDGE IN LOUISA COUNTY, VIRGINIA

Formwork for Concrete

CH. 2 LOADS ON BUILDINGS

OPERATING P L AYA B I L I T Y P R E C I S I O N D E S I G N

Reinforced Concrete Slab Design Using the Empirical Method

Properties of Materials

3. Test Methods for Evaluation of ESCR of Plastics

The tablesaw may be your shop s most valuable cutting. Crosscut Sleds. Foolproof. Innovative approach guarantees perfect results

Typical Deck Details

PERFORMANCE TEST REPORT. Rendered to: FORMTECH ENTERPRISES, INC. SERIES/MODEL: Truline PRODUCT TYPE: PVC Seawall

NATURAL STONE LABORATORY

SECTION 3 DESIGN OF POST- TENSIONED COMPONENTS FOR FLEXURE

Tensile properties of paper and paperboard (using constant rate of elongation apparatus) (Revision of T 494 om-01)

SpaceClaim Introduction Training Session. A SpaceClaim Support Document

Evaluation of Initial Setting Time of Fresh Concrete

Technical Drawing Specifications Resource A guide to support VCE Visual Communication Design study design

15. MODULUS OF ELASTICITY

F1 in Schools World Finals Technical Regulations

SPECIFICATIONS, LOADS, AND METHODS OF DESIGN

Step 11 Static Load Testing

ICC-ES Evaluation Report

In-situ Load Testing to Evaluate New Repair Techniques

INTERNATIONAL HOCKEY FEDERATION PERFORMANCE REQUIREMENTS AND TEST PROCEDURES FOR HOCKEY BALLS. Published: April 1999

Wall installation for Samsung Galaxy

Solid shape molding is not desired in injection molding due to following reasons.

Memory Modules. Document Part Number: This guide explains how to replace and upgrade memory in the computer.

Design of reinforced concrete columns. Type of columns. Failure of reinforced concrete columns. Short column. Long column

30 minutes in class, 2 hours to make the first time

Policy on Water Heater Installations Policy No. UPC Effective: September 1, 1995 Revised: February 10, 1996

Transcription:

Report For: Laboratory #: 402876-05 5375 Edgeway Drive, ALLENDALE, MI, USA Report Date: December 21, 2005 49401 Received Date: November 3, 2005 Phone: 616 875 7725 Fax: 616 875 6009 Customer P.O. #: COD E-Mail: njspooner@charter.net Attention: Specimen: Nancy Spooner & Richard Schroetenboer Polypropylene Decking & Dock System Material TEST REPORT RE: TESTING OF POLYPROPYLENE DECKING & DOCK SYSTEM MATERIAL 1.0 INTRODUCTION On October 20, 2005 submitted TREDZ Polypropylene Decking & Dock System material to Cambridge Materials Testing Limited (CMTL) for physical property testing. The submitted material was tested using the following test methods: - Coefficient of Linear Expansion as per ASTM D696-03 - Creep - Recovery Test as per ASTM D7031-04 Section 5.10.1 and ASTM D6109-05 (Method A) - Izod Impact Test as per ASTM D256-05 - Flexural Property Testing as per ASTM D6109-05 (Method A) - Clip Pull-Though Resistance Test as per ASTM D1761-88 (2000)-Modified - Lateral Clip Resistance Test as per ASTM D1761-88 (2000)-Modified The following results were obtained: This report is subject to the following terms and conditions: 1. This report relates only to the specimen provided and there is no representation or warranty that it applies to similar substances or materials or the bulk of which the specimen is a part. 2. The content of this report is for the information of the customer identified above only and it shall not be reprinted, published or disclosed to any other party except in full. Prior written consent from Cambridge Materials Testing Limited is required. 3. The name Cambridge Materials Testing Limited shall not be used in connection with the specimen reported on or any substance or materials similar to that specimen without the prior written consent of Cambridge Materials Testing Limited. 4. Neither Cambridge Materials Testing Limited nor any of its employees shall be responsible or held liable for any claims, loss or damages arising in consequence of reliance on this report or any default, error or omission in its preparation or the tests conducted. 5. Specimens are retained 6 months, test reports and test data are retained 7 years from date of final test report and then disposed of, unless instructed otherwise in writing. Page 1 of 10

2.0 COEFFICIENT OF LINEAR THERMAL EXPANSION TSL Professional Services Specimens were tested to determine Coefficient of Linear Expansion (Thermal) in accordance with ASTM D696-03. They were prepared from the polypropylene Decking and Dock System Material by milling to finished dimensions of approximately 2 x 0.5 x 0.125 inches. Two specimens were prepared with the specimen length parallel to the length of the deck board and two specimens were prepared with the specimen length perpendicular to the length of the deck board. The specimens were conditioned for a minimum of 40 hours at 23 ± 2 C and 50 ± 5% relative humidity prior to testing. Direction Trial Temperature Range Coefficient of Linear ( F) Thermal Expansion Parallel to Decking Material Length A -24.3 to 87.8 to 24.7 1.42 x 10-5 1 F B -23.6 to 88.2 to 24.2 1.61 x 10-5 1 F Perpendicular to Decking Material A -22.9 to 87.8 to 23.8 2.70 x 10-5 1 F Length B -23.8 to 88.7 to 24.5 2.70 x 10-5 1 F Page 2 of 10

3.0 CREEP- RECOVERY Ten specimens were tested to determine Creep Recovery in accordance with ASTM D7031-04, Section 5.10.1 and ASTM D6109-05 using a 16 inch support span and load of 200 psf. The loading noses and supports were aligned so that the axes of the cylindrical surfaces were parallel and the load span was one-third of the support span. The load was applied for 24 hours and the specimens were allowed to recover with no superimposed load for an additional 24 hours. A calibrated dial gauge was secured under the deck boards and the deflection at the mid-span was recorded four times: (1) prior to the application of load, (2) at 24 hour with load on, (3) within one minute after the load is removed, and (4) after the 24 hour recovery period. The percent recovery was calculated as follows: Total Deflection = (2) Deflection at 24h with load on (1) Deflection prior to application the of load Recovered Deflection = Total Deflection (4) Deflection at the end of the 24h recovery period Percent Recovery = Recovered Deflection x 100 Total Deflection Direction Deflection (inches) Board 1 Board 2 Board 3 Board 4 Board 5 Total Deflection 0.1930 0.1935 0.1935 0.1952 0.2009 Recovered Deflection 0.1622 0.1613 0.1653 0.1668 0.1691 Percent Recovery 84% 83% 85% 85% 84% Direction Deflection (inches) Board 6 Board 7 Board 8 Board 9 Board 10 Total Deflection 0.1909 0.1798 0.2136 0.1986 0.1910 Recovered Deflection 0.1604 0.1563 0.1708 0.1677 0.1597 Percent Recovery 84% 87% 80% 84% 84% Page 3 of 10

4.0 IMPACT RESISTANCE NOTCHED IZOD Five specimens were machined and notched by Cambridge Materials Testing to ASTM D256-05 specifications. The specimens were prepared with the specimen length parallel to the length of the deck board. They were tested for Izod Impact testing in accordance with ASTM D256-05, Method A using a 2 ft lbf pendulum. The specimens were conditioned a minimum of 40 hours at 23 ± 2 C and 50 ± 5% R.H. prior to testing. Depth Under Notch (mm) Width Along Notch (mm) Impact Resistance (J/m) Type of Failure 10.12 10.12 10.11 10.11 10.14 3.30 3.35 3.42 3.38 3.37 47.8 40.1 36.3 48.2 56.2 Complete Break Complete Break Complete Break Complete Break Complete Break Average = 45.7 J/m Page 4 of 10

5.0 FLEXURAL PROPERTY TESTING The baseline flexural properties were determined in accordance with ASTM D6109-05, Method A procedures using third point loading. The testing parameters used for all ASTM D6109-05 tests are outlined below. Testing Position Flatwise Radius of Support Noses 2 Nominal Sample Size 29 x 5.5 x 1.50 Radius of Loading Noses 1 Support Span 24 Distance from Neutral Axis 1.087" Support Span to Depth Ratio 16:1 Testing Machine United SFM20 Testing Speed 0.490 /minute Operating Software Satec Partner For each flexural test conducted, the operating software recorded the deflection of the deck board at the midspan between the supports and the corresponding load. Five (5) boards were tested at 73+/-3 F. The key properties recorded and calculated for each board sample tested were: Load at Rupture measured in pounds-force (lbf) this property is extrapolated from the load-deflection curve at the point where the board samples reached the maximum load. Load at L/180 measured in pounds-force (lbf) this property is recorded from the load-deflection curve at the deflection corresponding to the support span (L) divided by 180. Modulus of Rupture (MOR) measured in pounds force per square inch (psi) this property is calculated using the following equation: MOR = (Load at Rupture x 24 x Distance from Neutral Axis) (6 x Moment of Inertia) Slope of Tangent measured in lbf/in this property is recorded from the load-deflection curve between the steepest initial portion of the load-deflection curve. Modulus of Elasticity (MOE) measured in pounds force per square inch (psi) this property is calculated using the following equation: MOE = (24 3 x Slope of Tangent to Load-Deflection Curve) (56.25 x Moment of Inertia) Page 5 of 10

5.0 FLEXURAL PROPERTY TESTING (Cont d) Board No. 1 2 3 4 5 Load at Rupture (lbf) 182 178 182 180 178 Load at L/180 (lbf) 113 124 76 82 81 Slope of Tangent (lbf/in) 598 525 352 535 293 Average = 180 lbf Average = 95 lbf Average = 461 lbf/in Note: Moment of Inertia must be known to calculate MOR and MOE. This variable can be obtained from UMA Engineering Ltd. Page 6 of 10

6.0 DIRECT WITHDRAWAL LOAD TEST Specimens were subjected to a direct withdrawal load test. Each clip was attached to the 1-1/2 wide face of a section of 2 x 6 pressure treated lumber using the JIMDI-supplied #8 X 1-1/4 screws. Two pieces of the JIMDI-supplied plastic decking were slid into each groove of the clip (refer to Figure 1). The maximum force required to either pull the clip from the two pieces of plastic decking or from the pressure treated lumber was measured. The force (F) was applied by pulling on the pressure treated lumber while the plastic decking was secured to the table of the testing machine. Testing was performed according to ASTM D1761-88(2000) E1 (modified) with a test speed of 2.5 mm/minute. All materials were conditioned for a minimum of 48 hours at 23 C and 50% RH prior to testing. F Rounded Tab Angled Tab Figure 1 Page 7 of 10

6.0 DIRECT WITHDRAWAL LOAD TEST (Cont d) Trial # Maximum Force (lbf) Observations 1 109 The angled tab on the decking cracked as the clip pulled away. 2 110 The clip pulled away from the angled tab on the decking. 3 111 The angled tab on the decking cracked as the clip pulled away. 4 120 The angled tab on the decking cracked as the clip pulled away. 5 106 The angled tab on the decking cracked as the clip pulled away. Page 8 of 10

7.0 LATERAL CLIP RESISTANCE Specimens were subjected to lateral resistance load tests. Each clip was attached to the 1-1/2 wide face of a section of 2 x 6 pressure treated lumber using the JIMDI-supplied #8 X 1-1/4 screws. Testing was performed according to ASTM D1761-88(2000) E1 (modified) at a test speed of 2.5 mm/minute. All materials were conditioned for 48 hours at 23 C and 50% RH prior to testing. Test #1 was conducted with the force (F) applied along the tab farthest from the screw hole with the direction of force being away from the screw hole, refer to Figure 1. Test #2 was conducted with the force (F) applied along the tab closest to the screw hole with the direction of force being towards the screw hole, refer to Figure 1. Test #3 was conducted with the force (F) applied along the length of one of the long sides of the clip with the direction of force being parallel to the long direction of the tabs, refer to Figure 1. F Test #1 F Test #3 Test #2 F Figure 1 Page 9 of 10

Test #1 Trial # Maximum Force (lbf) Observations 1 149 Clip bent. Bottom edge of round slot had small cracks across it. 2 168 Clip bent. Bottom edge of round slot cracked all the way across. 3 170 Clip bent. Bottom edge of round slot cracked all the way across. 4 159 Clip bent. 5 175 Clip bent. Bottom edge of round slot had a small crack. Test #2 Trial # Maximum Force (lbf) Observations 1 249 Clip pulled up away from the board. Crack appeared underneath (on wood side) on the clip. 2 226 Clip pulled up and away from the board. 3 244 Clip pulled up and away from the board. 4 264 Clip pulled up away from the board. Crack appeared underneath (on wood side) on the clip. 5 219 Clip pulled up away from the board. Crack appeared on the inside edge of the clip. Test #3 Trial # Maximum Force (lbf) Observations 1 615 The screw hole enlarged as the clip and screw were pushed across the wood. 2 651 The screw hole enlarged as the clip and screw were pushed across the wood. 3 628 The screw hole enlarged as the clip and screw were pushed across the wood. 4 627 The screw hole enlarged as the clip and screw were pushed across the wood. 5 638 The screw hole enlarged as the clip and screw were pushed across the wood. Page 10 of 10