United States
 Environmental Protection
 Agency
 Research and Development
 Air and Energy Engineering
 Research Laboratory
 Research Triangle Park, NC 27711
 EPA/600/S8-91/212  Dec. 1991
 Project  Summary
 Standard  Measurement
 Protocols,  Florida Radon
 Research  Program
 Ashley D. Williamson and Joe M. Finkel
  In support of the Florida Radon Re-
 search Program (FRRP), a manual was
 compiled containing standard protocols
 for key measurements where data qual-
 ity is vital to the program. This manual is
 divided Into two sections. The first sec-
 tion, soil measurements, contains field
 sampling protocols for soil gas perme-
 ability and radon concentration, in-situ
 soil density, soil classification, and pen-
 etrometer analysis. Laboratory proce-
 dures Include soil moisture, radium and
 radon emanation, particle-size analysis,
 specific gravity, the proctor method for
 moisture/density relationships, a  labo-
 ratory gas permeability test, a radon dif-
 fusion coefficient measurement, and two
 radon flux  measurements. The second
 section, building measurements, in-
 cludes  diagnostic procedures for sub-
 slab radon, sub-slab communications,
 and differential pressure measurements
 followed by building leakage measure-
 ments.
  This Project Summary was developed
 by EPA's Air and Energy Engineering
 Research Laboratory, Research Triangle
 Park, NC, to announce key findings of
 the research project that Is fully docu-
 mented In a separate report of the same
 title (see Project Report ordering Infor-
 mation at back).

 Introduction
  As mandated by the 1988 Florida Legis-
 lature, the Florida Department of Commu-
 nity Affairs (DCA)  is required to develop
construction standards for radon resistant
buildings and for mitigation of radon in exist-
ing buildings. In orderto lay technical ground-
work for these standards, the DCA has
established  the Florida Radon Research
 Program (FRRP), an extensive program of
 research and development ranging from
 fundamental studies to demonstrations and
 field validations.
  To ensure the quality of data generated
 by multiple research groups in the FRRP,
 key measurements have been identified
 and standardized. The standard measure-
 ment protocols forthese key measurements
 were compiled into a  manual that is in-
 tended to be distributed to all research
 groups participating in the FRRP. Every
 attempt was made to  use validated  and
 generally accepted methods for each mea-
 surement with a minimum of modification.
 Thus, methods that have been documented
 by the American Society for Testing  and
 Materials (ASTM)  were used whenever
 applicable. Likewise, several radon-related
 protocols developed or standardized by the
 U.S. Environmental Protection Agency
 (EPA) have been  incorporated into  this
 manual.

 Standard Measurement
 Protocols Included in the
 Manual

 1.0 Soil Measurement

 1.1 Permeability/Soil Radon/Soil/
 Fill Sample Collection
  Field Procedures for Soil Gas Permeabil-
 ity and Radon Measurement, and Corre-
 sponding In-Situ Soil Density Sampling: A
protocol for field measurement of soil gas
permeabilities  and  collection of soil gas
radon samples, corresponding field-density
soil samples, and additional soil grab
samples for particle size, soil moisture, and
radiological analyses.
                                                 Printed on Recycled Paper

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1.2 In-Situ Soil Density
ln-SHu Soil Density Sampling Procedure
(Rogers & Associates): Instructions for col-
lecting samples for in-srtu soil density mea-
surements at locations which correspond to
In-situ gas permeability measurements us-
ing the RP-2 permeometer.

ASTMD2937-83StandardTestMethodfor
Density of Soil in Place by the Drive-Cylin-
der Method; A method forthe determination
of in-place  density  of soil by the drive-
cylinder method.

1.3 Soil Classification
Soil Texture, Coarse Fragments, Stoniness
and Rockiness, Appendix I: Terms Used to
Descrfoo Soils, In:  Soil Taxonomy,  U.S.
Dopartmentoi'Agriculture, Washington, D.C.
December  1975:  Guidance material for
definitions of soil textural classes on the
basis of size distributions and for field clas-
sification in terms of visual-manual proce-
dures.

ASTM D2487-85 Standard Test Method for
Classification of Soils for Engineering Pur-
poses: A method for classifying mineral and
organo-mineral soils for engineering pur-
poses based on laboratory determination of
particle-size characteristics, liquid limit, and
plasticity index.

ASTM D 2488-84 Standard Practice for
Description and Identification of Soils (Vi-
sual-Manual Procedure}:. A method for de-
scribing soil for engineering  purposes and
for identifying soils based on the classifica-
tion system described in ASTM D 2487.

 1.4 Penetrometer Analysis
 Protocol for Soil Density Profiling Using a
 Barkley& Dexter Model HP-102 Penetrom-
 eter. A protocol for the use of a hand cone
penetrometer to profile soil  density gradi-
ents of undisturbed native soils, prepared
soil fills  (pre-slab),  and post-construction
sub-slab soils (both fill and native). Specifi-
cally, operating and maintenance instruc-
tions for the Barkley & Dexter Model HP-
 102 Soil Penetrometer are given.

 ASTMD1586-84 Standard Method for Pen-
 etratbn  Test and Split-Barrel Sampling of
 Soils: A method for driving a split-barrel
 sampler to obtain  a representative soil
 sample and a measure of the resistance of
 the soil to penetration of the sampler.


 1.5 Soil Moisture
 ASTMD2216-80Standard' Method forLabo-
 ratory Determination  of  Water (Moisture)
 Content of Soil, Rock, and Soil-Aggregate
 Mixtures: k method forthe laboratory deter-
 mination of moisture content of soil, rock,
 and soil-aggregate mixtures by weight.

 1.6 Soil Radium  Content/Radon
 Emanation
 Measurement of Radium-226, Radon Ema-
 nation Coefficient, and Moisture Contenton
 Large faQuart) Core and Surface Samples:
 A combined protocol forthe measurement
 and calculation of radium content, emana-
. tion coefficient, and moisture content of soil
 samples. Counting is done with a high reso-
 lution gamma spectroscopy system.

 1.7 Soil Particle-Size Analysis
 ASTMD 422-63 (Reapproved 1972) Stan-
 dard Method for Particle-Size Analysis of
 Soils: A method forthe quantitative determi-._
 nation of the distribution of particle sizes in
 soils.

 1.8 Specific Gravity of Soils
 ASTM D 854-83 Standard Test Method for
 Specific Gravity of Soils: A method for the
 determination of the specific gravity of soils
 by means of a pycnometer.

 1.9 Standard Proctor
 ASTMD 698-78 Standard Test Methods for
 Moisture-Density Relations of Soils and Soil-
 Aggregate Mixtures Using 5.5-lb (2.49-kg)
 Rammer and  12-in.  (305-mm) Drop: A
 method forthe determination of the relation-
 ship between the moisture content and den-
 sity of soils and soil-aggregate mixtures
 when compacted in a mold of a given size
 with a 5.5-lb rammer dropped from a height
 of 12 in.

  1.10 Laboratory Permeability
  Procedure for Laboratory Measurements of
  Air Permeability of Sub-Slab Land Fill (Uni-
  versity of Florida): A procedure to measure
  air permeability of a soil sample by applying
  a known vacuum to the sample and mea--
  suring air flow.

  1.11 Radon Diffusion Coefficient
  Comparison of Radon Diffusion Coefficients
  Measured by  Transient-Diffusion and
  Steady-State Laboratory Methods (Rogers
  & Associates):  A method for determining
  radon gas diffusion coefficients based on
  measurement of the non-equilibrium ortran-
  sient movement of  radon through a sample
  material, ratherthan on the more traditional
  steady-state transport of radon through the
  sample.

  1.12 Radon Flux
  Radon Flux Measurement by Charcoal
  Cartridge (University of Florida): A method
  for radon flux measurements made by a
charcoal absorbertechnique. The collected
radon is measured by gamma counting of
the cartridge, and the radon flux is calcu-
lated from the measured radon.

Radon Flux Measurements (Florida State
University): This method is similar in prin-
ciple to the University of Florida version,
except that 25-g diffusion barrier canisters
of the University  of Pittsburgh design are
deployed.

2.0 Building Measurement

2.1 Sub-Slab Radon
Alpha Scintillation  Cell Sub-Slab Grab
Samples (EPA/AEERL): A method for ob-
taining sub-slabgrab samples and measur-
ing counting data from scintillation.ceH
samples with a portable phbtomultip'lfer tube"
scintillation counter.

2.2 Sub-Slab Communication Test
Sub-Slab Communication Test A method
for the quantitative characterization of the
potential for air flow and pressure field ex-
tensions along all house shell surfaces in
contact with soil by inducing  sub-slab de-
pressurization using a vacuum cleaner.

2.3 Differential Pressure
Measurements
Differential Pressure Measurement Proto-
col: A method for measuring pressure differ-
ences which occur within a house and across
the house envelope,  including the floor/
slab, as a result of ambient effects and the
effects of mechanical equipment.

2.4 Building Leakage

 2.4.1 Blower Door
This  section'contains the primary ASTM
 reference for fan pressurization, followed
 by a one page suggested addendum.

 ASTM E 779-87 Standard Test Method for
 Determining Air- Leakage Rate by Fan Pres-
 surization: A method for measuring air-leak-
 age rates through a building  envelope un-
 der controlled pressurization and depres-
 surization.

 Test Method for Determining  MAC Duct
 System Leakage: A method for measuring
 the air-leakage rates through a heating and
 air-conditioning  (HAG) duct system under
 controlled depressurization.  The  method
 consists of mechanical depressurization of
 a building and its HAG duct system and
 measurements of the resulting airflow rates
 at five indoor-outdoor static pressure differ-
 ences.

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2.4.2 Tracer Dilution
This section contains the primary ASTM
reference for tracer dilution, followed by a
modified procedure to measure changes in
infiltration rate induced  by mechanical air
handling systems.

ASTM E 741-83 Standard Test Method for
Determining Air-Leakage Rate by Tracer
Dilution:A method for determining airchange
rate in buildings under natural meteorologi-
cal conditions by tracer gas dilution.

Tracer Gas Infiltration  Test Method: A
method for determining the airchange rates
in a house by tracer gas dilution.

2.4.3 Site Detection
ASTM E 1186-87 Standard Practices for
Air-Leakage Site Detection in Building En-
velopes: Practices for locating air leakage in
building envelopes. The practices are for
qualitative measurements and notfordeter-
mining quantitative leakage rates. The tech-
niques include combined building depres-
surization and infrared scanning, building
pressurization and smoke tracers, building
depressurization and air-flow measure-
ments devices, generated sound and sound
detection to locate air-leakage sites, and
detection of tracer gas concentration after
adding tracer gas upstream of the leakage
site.

2.5 Indoor Radon
Indoor Radon and Radon Decay Product
Measurement Protocols, EPA-520/1-89-
009, NTISPB89-224273, U.S. Environmen-
tal Protection. Agency, Washington, D.C.:
This document contains indoor radon mea-
surement protocols by several commonly
used techniques. The methods most suit-
able for use in FRRP projects are Protocols
2.1  (Continuous Radon Monitor), 2.2 (Al-
pha-Track Detector), 2.3 (Electret Ion Cham-
ber), 2.4 (Charcoal Canisters), and 2.8 (Grab
Sampling). Other radon and decay product
methods are also included which  are less
likely to be applicable to the project. The
protocols describe sampler deployment,
operation, calculations, and quality assur-
ance. An introductory section covers screen-
ing  measurements and deployment strat-
egy. Due to the length of this document, it is
incorporated by reference.
                                                                        &U.S. GOVERNMENT PRINTING OFFICE: 1992 - £48-080/40115

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A Williamson andJ. Finkelare with Southern Research Institute, Birmingham, AL
  35255-5305.
David C. Sanchez  is the EPA Project Officer (see below).
The complete report, entitled "Standard Measurement Protocols, Florida Radon
  Research Program" (Order No. PB92-115294;  Cost: $26.00, subject to change)
  will be available only from:
        National Technical Information Service
        5285 Port Royal Road
        Springfield, VA 22161
        Telephone: 703-487-4650
The EPA Project Officer can be contacted at:
        Air and Energy Engineering Research Laboratory
        U.S. Environmental Protection Agency
        ResearchTriangle Park, NC 27711
United States
Environmental Protection
Agency
Center for Environmental
Research Information
Cincinnati, OH 45268
      BULK RATE
POSTAGE & FEES PAID
         EPA
   PERMIT No. G-35
Official Business
Penalty for Private Use $300
EPA/600/S8-91/212

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