PDCs - 1 Day, Sat., Sun. or Wed.

1-Day Saturday Professional Development Courses

Saturday, October 27, 8:00 a.m.–5:00 p.m.
Member $345/$425; Nonmember $395/$475

 PDC 2
Electrical Safety I: Basic Principles & Electrical Installations/Engineering Controls

Introductory / 8 contact hours / an estimated  8 CM credits/1.0 CEU & 1.0 COC

See certification information for further guidance.

Description
The course provides an introduction to the fundamental principles of electrical safety. It is assumed that participants have little or no experience in this subject area. It covers principles needed to protect the worker to voltages greater than 50 V through engineering control. This course will examine how-to issues using a participant hands-on approach to comprehend and demonstrate concepts learned in the lecture portions. Content will cover the basic principles required to meet OSHA and NEC standards. To build upon concepts learned in this course and for an overview of safe work practices for energized work/NFPA 70E (2012 Edition), participants should also enroll in PDC 6: Electrical Safety II: Energized Work Practices/Arc Flash/NFPA 70E (2012 Edition).

Value Added
Understand OSHA Subpart S recent revisions for electrical installations/engineering controls. Implement NEC requirements for electrical installations. ABIH Safety Rubric.

Outcomes
Upon completion, the participant will be able to:

  • Describe engineering design requirements and safeguards necessary to protect workers from electrical shock through engineering controls based on NEC and OSHA requirements.
  • Discuss the basic principles of electricity, including basic circuitry and electrical units.
  • Identify hazards of electricity to the human body.
  • Explain general requirements for electrical installations, wire design and protection, and hazardous locations.
  • Demonstrate skills learned through hands-on laboratory sessions/team exercises on basic principles, reverse polarity, and hazardous location electrical installation requirements.

Outline

  • Basic principles of electricity
  • Hazards of electricity
  • Electrical installations
  • Wiring protection and design
  • Hazardous locations

Transfer of Knowledge
Instructors will evaluate participants understanding of the materials presented based on:

  • Post-course test
  • Hands-on demonstrations and practicum
  • Practice exercises
  • Workshops
  • Group activities

Instructor
Paul A Zoubek, CSP, CIH, Zoubek Consulting, LLC, San Diego, CA

 

 PDC 3
Noise Control Engineering

Introductory / 8 contact hours / an estimated  8 CM credits/1.0 CEU & 1.0 COC
See certification information for further guidance.

Description
The most effective way to prevent occupational noise-induced hearing loss is through effective implementation of engineering noise controls. With some advanced education and training, it is feasible for IHs with a basic knowledge of the fundamentals of noise to develop noise control solutions; establish noise control priorities; identify and select optimum products for retrofitting equipment; work effectively with design engineers to implement a pro-active approach to noise control; and predict the impact new equipment will on the existing noise levels.

Value Added
 Receive The Noise Manual (electronic version) and a CD containing spreadsheet programs and references.

Prerequisites
Familiarity with the fundamentals of noise and basic terminology: A-weighted sound levels, decibel addition, octaveband frequencies, noise dose, and employee time-weighted average noise exposure. 

Outcomes
Upon completion, the participant will be able to:

  • Conduct a noise control survey.
  • Identify noise-generating mechanisms and prioritize items for their control.
  • Develop feasible engineering controls through effective implementation of the principles of noise control.
  • Discuss noise control design and retrofit applications for a variety of industrial equipment.
  • Work effectively with design contractors, acoustical product suppliers, and consultants to achieve stated noise criteria or goals.

Outline

  • PDC Introduction
  • Principles of Noise Control
  • Room Acoustics
  • Acoustical Absorption
  • Sound Transmission Loss
  • Workshop: Estimating the New Sound Level After Relocating Equipment
  • Noise Control Options and Applications for Specific Equipment: Electric Motors, Vibration Isolation, Pneumatic and Compressed Air Systems, Pipe Radiated Noise, Acoustical Lagging, Machine Casing or Panel Radiated Noise, Vibration Damping, Industrial Fans, Enclosures, and Silencers.

Transfer of Knowledge
Instructors will evaluate participants understanding of the materials presented based on:

  • Hands-on demonstrations and practicum
  • Practice exercises
  • Group activities

Instructors
Dennis Driscoll, PE, Associates In Acoustics, Inc., Evergreen, CO
Joshua Leasure, Associates In Acoustics, Inc., Austin, TX

 

 PDC 4
GHS: The New Hazard Communication

Intermediate/ 8 contact hours / an estimated  8 CM credits/1.0 CEU & 1.0 COC
See certification information for further guidance.

Description
GHS for the Hazard Communication Professional, an in-depth technical PDC on classification, labeling and SDS under the GHS. The PDC presents the classification system for hazardous chemicals called the GHS or Globally Harmonized System for the Classification and Labelling of Chemicals directed to the practicing IH/Hazard Communication Professional. The final revised OSHA HazCom Standard was issued in the Spring of 2012 and the transition period has begun. Other countries and regions are quickly adopting the GHS into their hazard communication systems.

The GHS introduces new and far more detailed hazard classification criteria. It also introduces a system of standardized pictograms and hazard and precautionary statements for product labels and safety data sheets. This change will require revision of all MSDS and labels for chemicals in the U.S. IHs who are responsible for hazard communication for their workers and customers must be ready for the challenge. IHs must start now to learn and apply this new system to the management of chemical risk in the workplace.

Value Added
Receive a classification summary guide GHS symbol definition sheet, the URL for the 3rd revision of the GHS, and final OSHA standard and practice in classifying substances for the mixtures and label development.

Prerequisites
Basic understanding of chemical hazards and Hazard Communication in the U.S.

Outcomes
Upon completion, the participant will be able to:

  • Describe how chemicals (substances and mixtures) are classified under the GHS for physio-chemical, health and environmental hazards. Stephanie, I think it might be physicochemical instead of physiochemical.
  • Recognize the pictograms (symbols) used in the GHS.
  • Recognize comparative hazard level using GHS standard hazard statements and signal words.
  • Identify resources that can be used to determine chemical classifications for pure substances and mixtures.
  • Know the essential elements of a GHS compliant SDS and label.

Outline

  • Background: Development of the GHS as an International System Scope of the GHS Classification and Criteria (all Hazard Classes will be covered)
  • Health Hazards
  • Substance criteria and mixture rules
  • Environmental Hazards
  • Substance criteria and mixture rules physio-chemical Hazards
  • Hazard Communication Elements
  • Labeling
  • Pictograms
  • Signal Words
  • Hazard Statements
  • Precautionary Statements
  • Safety Data Sheets
  • International and U.S. Implementation of the GHS (detailed review of the revised OSHA Hazcom Standard

Transfer of Knowledge
Instructors will evaluate participants understanding of the materials presented based on:

  • Group activities
  • Hands-on demonstrations and practicum

Instructors
Denese Deeds, CIH, Industrial Health & Safety Consultants, Inc., Huntington, CT
Chandra Gioiello, MS, Industrial Health & Safety Consultants, Inc., Naperville, IL

 

 PDC 5
Welding: IH’s Latest Challenge

Introductory / 8 contact hours / an estimated  8 CM credits/1.0 CEU & 1.0 COC
See certification information for further guidance.

Description
This PDC describes common welding and thermal cutting processes and the health/safety hazards associated with these processes. Terminology used in the welding industry is incorporated throughout the PDC as a means of familiarizing participants with the vocabulary used in the workplace. Materials, thermal processes and scenarios associated with potential for overexposures are described. Emphasis is placed on Manganese and Hexavalent Chromium exposures as well as many other H&S hazards. Suggestions for improving the quality of monitoring data are provided as are suggestions for prioritizing exposure assessments. Ventilation techniques and respiratory protection options are also described. A plan for developing a Metal Fume Exposure Control Program is outlined.

Value Added
Receive Welding Health and Safety: A Field Guide for OEHS Professionals (electronic version)

Prerequisites
Basic understanding of ventilation principles

Outcomes
Upon completion, the participant will be able to:

  • Describe general H&S hazards associated with welding and thermal cutting.
  • Develop an exposure assessment strategy for welding and thermal cutting strategies.
  • Create a Metal Fume Exposure Control Program.
  • Recognize and recommend effective ventilation for confined space welding and thermal cutting.
  • Identify issues that need to be addressed during welding and thermal cutting in confined spaces.

Outline

  • Introduction and Overview
  • Welding/Cutting Processes and Associated Health hazards
  • Metals and Associated Health Hazards
  • SEGs and Exposure Assessments
  • Controlling exposures
  • Process Selection
  • Ventilation
  • PPE
  • Developing a Metal Fume Exposure Control Program

Transfer of Knowledge
Instructors will evaluate participants understanding of the materials presented based on:

  • Post course test

Disclosure:
The following instructors have disclosed significant financial interests or other relationships, including grants, research support, employment, consulting, major stockholder, speakers bureau member, and so on,  with manufacturers/providers of commercial products and services.

Mike Harris, PhD, CIH – Sells Industrial Air Cleaners for use in welding applications. 

Instructor
Mike K. Harris, PhD, CIH, Hamlin & Harris, Inc., Baton Rouge, LA

 


1-Day Sunday Professional Development Courses

Sunday, October 28, 8:00 a.m.–5:00 p.m.
Member $345/$425; Nonmember $395/$475

 PDC 6
Electrical Safety II: Energized Work Practices/Arc Flash/NFPA 70E (2012 Edition)

Intermediate / 8 contact hours / an estimated  8 CM credits/1.0 CEU & 1.0 COC
See certification information for further guidance.

Description
This course builds upon PDC 2: Electrical Safety I. It covers principles needed to protect the worker during energized work from shock and arc flash hazards through personnel protection. A chronological sequence will also be provided for implementing an electrical hazardcontrol and management program through hands-on and team exercises. Also covered are updated requirements and interpretation of the 2012 Edition of NFPA 70E (Standard for Electrical Safety in the Workplace).

Value Added
Receive the revised 2012 NFPA 70E: Electrical Safety in the Workplace. ABIH Safety Rubric.

Prerequisites
PDC 2 Electrical Safety I or Basic Electrical Safety with Application of NFPA 70E at previous AIHce.

Outcomes
Upon completion, the participant will be able to:

  • Describe personnel protection/management requirements and practices for energized work including application of the 2012 National Fire Protection Association (NFPA) 70E electrical safety & arc flash requirements.
  • Apply safety-related work practices for energized systems, including the assignment of protective clothing, other personal protective equipment (PPE), and approach and flash boundaries utilizing NFPA 70E and IEEE 1584 arc flash calculations.
  • Implement training requirements for qualified persons.
  • Established an electrical safety program.
  • Demonstrate skills learned through hands-on laboratory sessions/team exercises on risk assessment, and PPE/personnel protection assignment based on shock and arc flash potential.

Outline

  • Work practices
  • Risk assessment
  • Personal protective equipment assignment
  • Approach and flash boundaries
  • Electrical safety program
  • Training for qualified persons

Transfer of Knowledge
Instructors will evaluate participants understanding of the materials presented based on:

  • Post-course test
  • Hands-on demonstrations and practicum
  • Practice exercises
  • Workshops
  • Group activities

Instructor
Paul A Zoubek, CSP, CIH, Zoubek Consulting, LLC, San Diego, CA

 

  PDC 7
Confined Space: How Will You Prepare Your Workers for a Safe Entry and Exit?

Introductory / 8 contact hours / an estimated  8 CM credits/1.0 CEU & 1.0 COC
See certification information for further guidance.

Description
A course for Safety and Health Professionals involved with writing permits for confined space entry, identifying hazards, precautions, and requirements associated with confined spaces. Participants will learn how to identify hazards of confined spaces and determine how to protect employees from asphyxiating atmospheres, flammable atmospheres, toxic atmospheres, physical hazards, engulfment hazards, electrocution, noise, falls, heat stress and other hazards. OSHA’s standards will be reviewed for confined spaces (29CFR1910.146) that contain the requirements for practices and procedures to protect employees in general industry. In addition, other appropriate OSHA standards will be discussed that apply to the hazards associated with various confined spaces including respiratory protection, fall protection, welding, lock out/tag out, chemical specific hazards, personal protective equipment, and documentation of permits and training.

Hands-on work sessions provide participants an opportunity to develop their own problem-olving skills during class scenarios where the participants are divided into small groups to develop a confined space work plan for different vessel entry situations.

A practical hands-on session will allow students to operate the atmospheric monitoring equipment, set up rescue equipment and determine what equipment is needed in the various scenarios that will be set up to test their knowledge in the confine space skills session.

Outcomes
Upon completion, the participant will be able to:

  • Recognize hazard classes associated with various confined spaces
  • Identify protective measures associated with the various hazards
  • Select and operate the testing and monitoring equipment needed to check atmospheres in a confined space
  • Develop a written confined space program including documenting training and permit records
  • Coordinate entry operations with multiple crafts
  • Identify how to develop a rescue plan and how to select rescue equipment.

Outline

  • I. Introduction and Overview
    • a. Definitions
    • b. OSHA Regulation for Confined Space: General Industry, Construction, and Maritime
    • c. Fatalities Investigated
    • d. Non-Permit Spaces
  • II. The Respiratory Protection for Confined Space Entry
    • a. Respiratory System, Health and Protection
    • b. Respirator Medical Requirements, Selection, Use and Maintenance
  • III. Atmospheric Hazards
    • a. Oxygen - Deficient and Oxygen - Enriched
    • b. Flammable Hazards
    • c. Toxic Hazards
  • IV. Physical Hazards
    • a. Mechanical,
    • b. Engulfment
    • c. Liquids
    • d. Energy
    • e. Vehicles
  • V. Confined Space Entry Program Requirements
    • a. Hazard Identification
    • b. Hazard Control
    • c. Entry Permit System
    • d. Specialized Equipment

i. Ventilation
ii. Air Sampling
iii. Communications
iv. Alarm Systems
v. Respirators

    • e. Employee Designation

i. Authorized Entrant
ii. Attendant

    • f. Testing and Monitoring
    • g. Coordination Other Employee Entries
    • h. Emergency Response Plan
    • i. Employee Training and Documentation
    • j. Annual Program Review

Transfer of Knowledge
Instructors will evaluate participants understanding of the materials presented based on hands-on demonstrations of:

  • Hands-on demonstrations and practicum
  • Practice exercises
  • Group activities

Instructors
Jacqueline Armstrong, MPH, BMB Risk, Houston, TX
Charlie Scott, PhD, BMB Risk, Houston, TX


 PDC 8
Bayesian Statistics: Overview and Applications in IH Data Interpretation

Intermediate / 8 contact hours / an estimated  8 CM credits/1.0 CEU & 1.0 COC
See certification information for further guidance.

Description
The Bayesian statistical framework offers exciting opportunities for improving the accuracy, efficiency, and transparency of our exposure judgments. Bayesian techniques can be used to formally combine our professional judgment regarding a particular exposure and its uncertainty along with the statistical analysis of current exposure data. The language and framework of the approach holds promise for expressing the output of exposure assessments in a manner that is much more easily understood and communicated than the output from more traditional statistical analysis. Best of all, the Bayesian decision analysis approach formalizes traditional exposure assessment processes already used by industrial hygienists today. This PDC will provide an overview of the Bayesian framework for decision analysis and explore, through discussion and workshops, opportunities for its application in industrial hygiene data interpretation and exposure risk assessment.

Value Added
Receive software for performing Bayesian decision analysis calculations and participate in workshops on formalizing the exposure assessment process.

Prerequisites
Familiarity with A Strategy for Assessing and Managing Occupational Exposures. Experienced in exposure assessments and monitoring data interpretation

Learning Aids
Participants must bring a laptop. A software program for performing Bayesian decision analysis calculations will be distributed. Note that the software is designed for Windows-based PCs. It will not run on a Macintosh computer without an emulator.

Outcomes
Upon completion, the participant will be able to:

  • Implement techniques for improving the accuracy of their exposure judgments.
  • Relate a Bayesian framework for decision analysis to the AIHA Exposure Assessment Strategy.
  • Use a software tool to perform Bayesian decision analysis of industrial hygiene monitoring data.

Outline

  • Making Good Exposure Decisions: Interpreting Data
  • Importance of Professional Judgment
  • AIHA Exposure Assessment Model: Inherently a Bayesian Approach
  • Improving Judgments: Bayesian Decision Analysis (BDA) Theory and Tool
  • Putting Improvement Ideas to Practice: Scenario Examples
  • Use of Subjective Decisions
  • Integrating Improvement Activities into Your Professional Practice

Transfer of Knowledge
Instructors will evaluate participants understanding of the materials presented based on:

  • Hands-on demonstrations and practicum
  • Practice exercises
  • Group activities

Instructors
Perry Logan, PhD, CIH, 3M Company, St. Paul, MN
John Mulhausen, PhD, CIH, CSP, 3M Company, St. Paul, MN
Gurumurthy Ramachandran, PhD, CIH, University of Minnesota School of Public Health - Environmental Health Sciences, Minneapolis, MN

 

 PDC 9
Sustainability Measures and Metrics: Changing the World Through Transparency

Intermediate / 8 contact hours / an estimated  8 CM credits/1.0 CEU & 1.0 COC
See certification information for further guidance.

Description
This PDC will focus on the history, current and best practices for measuring and reporting sustainable business practices including:

  • History and context of sustainability measures (1999 through 2007): the history of the GRI guidelines and individual corporate measurements of sustainability practices are reviewed, and the basics of sustainability are displayed.
  • Current practices and directions: the history of one company’s work in this realm.
  • The new stewardship counsel and G4 Guidelines: the work of AIHA and Tellus/Ceres and their applicability to IH performance.
  • Workshop: Developing sustainability measures: participants will work together to apply some practices and discuss their experiences.
  • The future of Sustainability Measures and Metrics: looking beyond sustainable development to regenerative development – A case study of one company’s efforts to move beyond sustainable business practices

Outcomes
Upon completion, the participant will be able to:

  • Provide a historical perspective of sustainability practices.
  • Discuss state-of-the-art practices and applications of sustainability metrics.
  • Cite examples of common practices and efforts to move beyond current practices.

Outline

  • History and context of sustainability measures
  • Current practices and directions
  • The new Stewardship Counsel and G4 guidelines
  • Skill building workshop
  • The future of sustainability measures and metrics

Transfer of Knowledge
Instructors will evaluate participants understanding of the materials presented based on:

  • Workshops

Instructors
Glenn Barbi, CIH, Becton Dickinson and Company, Franklin Lakes, NJ
Jeffrey S. Hogue, CIH, REA, Danisco A/S, Oak Brook, IL
S. Zack Mansdorf, PhD, CIH, CSP, QEP, Sustainability Consultants, Boca Raton, FL
Deborah Martin, CIH, MPH, Pacific Biosciences, Menlo Park, CA
Edward Quevedo, Paladin Law Group, Walnut Creek, CA

 

1-Day Wednesday Professional Development Courses

Wednesday, October 31, 8:00 a.m.–5:00 p.m.
Member $345/$425; Nonmember $395/$475

 PDC 12
Mold Recognition: Effective Sampling Strategies and Results Interpretation

Intermediate / 8 contact hours / an estimated  8 CM credits/1.0 CEU & 1.0 COC
See certification information for further guidance.

Description
The PDC will enable participants to recognize indoor mold, develop effective sampling strategies and interpret laboratory results, all in the context of current mold control and remediation principles. Participants will acquire a detailed understanding of the methods used to investigate mold growth in buildings, and types of samples to collect. Discussions will explore the biology of molds, the causes of mold growth, as well as mold control and common indoor molds.

Prerequisites
Basic knowledge of biology, indoor mold and microbial sampling techniques.

Outcomes
Upon completion, the participant will be able to:

  • Differentiate among fungi, molds, yeasts and bacteria.
  • List factors responsible for mold growth.
  • Decipher the differences in primary, secondary and tertiary colonizers.
  • Design effective sampling methods.
  • Explain limitations in current laboratory analytical methods.
  • Gain skills on how to interpret laboratory reports.

Outline

  • An overview of various types of molds
    • What is mold and what makes it grow?
    • What health effects are associated with indoor mold growth?
  • How to recognize indoor mold growth
    • Factors favoring mold growth
    • Signs of mold growth
    • Conducting a visual inspection and categorizing the extent of the mold contamination
  • How to develop effective sampling strategies
    • Sampling objectives
    • When to collect samples, which ones to collect and where to collect them
  • Air samples: viable and nonviable
  • Bulk samples
  • Swab samples
  • Tape lift samples
  • Dust samples
  • How to interpret laboratory results

Transfer of Knowledge
Instructors will evaluate participants understanding of the materials presented based on:

  • Practice exercises

Instructor
Jackson Kung'u, PhD, MS, BS, Mold & Bacteria Consulting Laboratories (MBL) Inc., Mississauga, ON, Canada

 

 PDC 13
What Every EHS Professional Should Know About Water Resources, Conservation, and Protection

Intermediate / 8 contact hours / an estimated  8 CM credits/1.0 CEU & 1.0 COC
See certification information for further guidance.

Description
Water conservation is probably the second most important aspect of environmental performance in sustainability and corporate social responsibility.  Some contend that it is more important than global warming, which is considered by most as the primary issue.  This is because lack of potable water presents a far more immediate problem in much of the world than climate change.  Lack of water can present a very significant risk for both high-volume users of water as well as those who have not considered water availability to be critical.  Regulations in the U.S. echo the importance of water as a resource. This short course will review:

  • Why water conservation is important
  • Areas under water stress and the risks presented
  • Agricultural and industrial impacts on water
  • Energy production and water
  • Current concepts in water use and conservation including water foot printing
  • Alternate source of water such as desalination
  • The role that EHS professionals can play in water conservation
  • Water conservation methods and approaches
  • Water use reporting
  • Water regulations in the U.S.
  • Water quality considerations

There will also be case study reviews and group exercises within the course activity.

Outcomes
Upon completion, the participant will be able to:

  • Learn the importance of water as a natural resource
  • Understand why water conservation is important
  • Understand the water cycle and where water is used, how it is recycled and the significance of contamination of water
  • Become familiar with current trends and concepts in water use mapping, water foot printing and other schemes in water management
  • Learn how EHS professionals can be involved in water conservation and water protection
  • Learn about water conservation methods and approaches
  • Learn about alternate sources of water in areas of diminished supply
  • Understand the various schemes for publically reporting water use
  • Understand the regulatory structure of water resources protection

Instructors
Adrienne Boer, TRC Companies, Austin, TX
S. Zack Mansdorf, PhD, CIH, CSP, QEP, Sustainability Consultants, Boca Raton, FL
Greg Flores, San Antonio Water System, San Antonio, TX