Tobacco Institute
Comments on US Department of Labor Proposed Rule on Indoor Air Quality in Federal Register , Vol. 59, No. 65, April 5, 1994, Pp. 15968-16039 Docket No. H-122
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ANDREWS OFFICE PRODUCTS CAPITOL HEIGHTS, MD (K)

DOCKET OFFICER
DATE AUG 12 1994
TIME 41: ' " n AA
-
Comments on U.S. Department of Labor Proposed Rule
on
Indoor Air Quality in Federal Register, Vol. 59, No. 65,
April 5, 1994, pp. 15968-16039
Docket No. H-123
August 12, 1994
By
W. Kip Viscusi
George O. Allen Professor of Economics
Duke University
Department of Economics
Box 90097
Durham, NC 27708-0097
Telephone: (919) 660-1833
Faxi (919) 684-8974
TIBR 0007358

Professional Backaround
I have been retained by Covington & Burling to provide an
analysis of the proposed OSHA rule for indoor air quality.
My professional career has been devoted to an analysis of
the economics of risk-related issues. I am currently the George
G. Allen Professor of Economics at Duke University and have
published 15 books and over 150 articles, many of which deal with
the issues addressed in this rulemaking. For example, many of
these books focus on job safety. One of my recent books and
several recent articles focus on cigarette smoking. I am the
founding editor of the Journal of Risk and Uncertainty and
currently serve on seven other editorial boards, including the
American Economic Review.
I am also quite familiar with the rulemaking process.
During the Carter Administration I served as the Deputy Director
of the President's Council on Wage and Price Stability, which was
responsible for all White House oversight of major new government
regulations. In that position, I also served as a member of the
Regulatory Analysis Review Group.
During the 1980s I had several contracts and purchase orders
with the U.S. Department of Labor's occupational Safety and
Health Administration and with the Office of the Secretary of
Labor, in which I prepared studies focused on job safety issues.
One of my efforts in this regard involved being called in to
settle a dispute between the Occupational Safety and Health
Administration and the U.S. Office of Management and Budget over
2
TIBR 0007359

the OSHA hazard communication rule. My analysis of this rule,
which supported issuance of the regulation, was credited by both
the New York Times and the washington Post as being instrumental
in leading to the promulgation of the OSHA hazard communication
standard. I also served as a consultant under contract in the
preparation of several analyses that formed the substantive basis
for the regulatory impact assessments submitted by OSHA as part
of the rulemaking process.
I have also served as a consultant or as a contractor to a
wide variety of Federal regulatory agencies and to the U.S.
Office of Management and Budget. I currently serve on two EPA
Science Advisory Boards. For further information on my
background, I have attached a copy of my C.V. and bibliography.
Overall Comment
I have been retained by Covington & Burling to focus
primarily on the environmental tobacco smoke (ETS) aspect of the
proposed indoor air quality standards. Although I will focus on
this aspect of indoor air pollution, I will also offer some
comments that are more general in nature.
Overall, I believe that OSHA has not prepared a sufficiently
thorough analysis of the benefits and the costs of the proposed
regulation. The benefits are overstated, and many of the
critical cost components have been ignored. Perhaps most
important is that even from the rather narrow perspective of
whether this regulation addresses a significant risk, there is no
rationale for the regulation. The potential ETS risks are highly
3 TIBR 0007360

speculative and, even if they are at the levels claimed by OSHA,
they may not even be sufficiently significant to warrant
regulation. The proposal also has a number of serous
methodological problems.
1. OSHA did not quantify the benefits and costs of the
reaulation in a comprehensive manner.
In effect, the supporting analysis treated detailed
assessment of the benefits and costs as being beyond the scope of
what was necessary for a proposed rule. The discussion of the
OSHA Benzene case (see page 16000) suggested that all that must
be shown is that there is a°significant risk of harm" in the
workplace and that "the new standard is reasonably necessary to
reduce or eliminate that risk."
OSHA is required to quantify the benefits and costs of
regulation under Executive Order 12866 governing the regulatory
oversight process. Moreover, the existence of a significant risk
alone cannot provide a sensible basis for policy. Ultimately
some balancing is required. Taking the logic of OSHA's policy
approach to another context, it would be desirable to abolish the
construction industry because doing so would eliminate truly
significant risks. There would, of course, be costs associated
with this, but few could argue, given the inherently dangerous
nature of construction activity, that banning such activity would
be "reasonably necessary" to eliminate these risks.
OSHA does not apply this narrow logic to risks throughout
the economy because doing so would not be a sensible approach to
4
TIBR 0007361

regulation. Throughout its history, OSHA has attempted to
achieve some kind of informal balancing of the costs of a
regulation and the benefits derived from it. In some cases this
balancing comes in the form of discussions of "affordability."
In other instances, the focus may be on employment effects, which
may serve as a signal that the costs involved are too large. The
position that I will take here is that what is "reasonably
necessary" depends on the costs associated with the regulation
and not simply the risk.
The ultimate test for any policy is that the benefits that
it provides to society exceed the costs that it imposes. These
effects may not all be quantifiable in dollar terms, but unless
the regulation is in fact improving societal welfare, then one
would be hard-pressed to argue that it is °reasonably necessary"
to pursue such a course of action.
2. ;s the ETS risk significant?
In justifying the ETS indoor air regulations, OSBA focuses
primarily on whether the risk is significant. The significance
of the risk provides the primary impetus for issuing the
regulation.
The discussion supporting the significance of the risk draws
upon the OSHA Benzene decision in which the Supreme Court
indicated that a one in a billion risk from drinking chlorinated
water would not be considered significant, but a 1/1,000 risk
from gasoline vapors would be significant. In that regard, OSHA
5
TIBR 0007362

has calculated that the risk from ETS is 1 in a 1,000 (page
16001) and consequently qualifies as being significant.
It is helpful to consider this example in detail since it
should not be taken at face value. Because OSHA has used a
lifetime risk perspective, I will adopt a similar approach here.
The amount of water people drink per day from different sources
ranges from 2.1 - 2.9 quarts.' To be conservative, I will
assume that people drink nine glasses of chlorinated water per
day where this may come, for example, from sodas or other
products. An individual who drinks 9 glasses per day each year
for 70 years will drink 229,950 glasses in his or her lifetime.
If the risk per glass is 1 in a billion, as hypothesized by the
Court, the lifetime risk is 2/10,000.
Now let us consider ETS. OSHA estimates that between 144
and 722 people will die from lung cancer (page 16000) each year
because of ETS. If the base population of 74 million nonsmoking
American workers exposed to ETS (page 16001) are exposed over
their entire 40 year worklife expectancy,' the lifetime risk
ranges from 1/10,000 to 4/10,000. Thus, the risk of drinking
chlorinated water falls between the two bounds of the risk range
estimated by OSHA for ETS. Overall, when translated into
lifetime risks as opposed to risks from a particular exposure so
that both the ETS risks and the risks being discussed by the
'See Food and Nutrition Encyclopedia (1994).
ZThe worklife expectancy is 39.1 years. See BLS Bulletin
2254. Even for a 70 year worklife, the ETS risk range claimed by
OSHA is not much greater, as it is 1/10,000 - 7/10,000.
6
TIBR 0007363

Court in the Benzene decision would be on the same time frame, we
find that the risks are quite comparable and are of the same
general magnitude. Even if we take OSHA's risk assessments at
face value, the assessed risks are in the range for which the
Court has indicated that "the risk clearly could not be
considered significant." As I will note below, the risks
associated with ETS appear to be much smaller than OSHA has
claimed, if indeed there are any risks at all.
3. The ETS risk assessments are hiahly soeculative.
What is relevant for the purposes of the expected effects of
the regulation are the expected mean effects of ETS, not the
upper bound. Moreover, it is the consensus estimate, not the
worst case, that is pertinent. If one is applying classical
statistical methods, as has been the case in past analyses of
ETS, the standard procedure is to use 95 percent confidence
intervals for these tests. All but one ETS study fails to meet
this test of statistical significance.
Although there continues to be considerable debate about the
magnitude of the ETS risks, it is noteworthy that a recent report
by the Congressional Research Service concluded that the risks
involved remain highly speculative.' Indeed, even the comments
by OSHA in the Federal Reaister indicate that our knowledge of
ETS risks is highly imprecise and the apparent magnitude of these
risks appears to be quite small. For example, in the Federal
'See Appendix A of Jane Gravelle and Dennis Zimmerman
(1994).
7
TIBR 0007364

Register discussion OSHA notes that "...in passive smokers these
risks are not so easily demonstrated" (page 15976). The
discussion continues, as there is later the claim that "recent
evidence suggests that passive smoking has subtle but
statistically significant affects on the respiratory health of
adults" (page 15977). These statements reflect both the
imprecision of our knowledge as well as the absence of firm
statistical evidence at the usual confidence levels for judging
statistical significance.
Other submissions no doubt will explore these issues in much
greater detail, but for the purposes of obtaining a comprehensive
economic assessment one should note that OSHA's risk assessments
cannot be accepted at face value because of the absence of
reliable data.
4. The overall costs of the indoor air quality standard
will lead to adverse mortality effects.
OSHA estimates that the annual cost of compliance with the
indoor air quality standard will be $8.1 billion. For reasons
that will be detailed below, this estimate is likely to be low,
but for the purposes of the discussion here this estimate
provides a useful reference point for discussion.
Considerable recent economic literature` has documented the
link between regulatory expenditures and health. In effect,
regulatory expenditures make society poorer because these
°See, for example, the entirety of vol. 8, no. 1(January
1994) of the Journal of Risk and Uncertaintv.
8
TIBR 0007365

expenditures represent a real opportunity cost to society.
Society could allocate the cost of regulation, including lower
wages, higher prices, and related impacts to other uses, such as
more expenditures on medical care, food, housing, and other
mortality-related expenditures.
Based on the direct relationship between mortality and
income, the U.S. Office of Management and Budget's economists
Randall Lutter and John Morrall have estimated that for every
regulatory expenditure of $9 million-$12 million there is a loss
of one statistical life.s Using a quite different methodology
linked to the labor market estimates of the value of life, I have
estimated that for every regulatory expenditure there is the loss
of one statistical life for every $50 million in regulatory
costs.s For the purpose of this assessment, I will consequently
use $10 million per statistical life as the lower bound and $50
million per statistical life as the upper bound for the analysis.
Using these figures and the $8.1 billion cost estimate
provided by OSHA, the indoor air quality regulation will lead to
the loss of between 162 and 810 lives per year. By almost any
standard, this is a substantial impact. Moreover, if one adjusts
the risk assessments OSHA prepared for the proposed regulation to
reflect the expected effects that the regulation is likely to
have, as opposed to a more speculative worst case scenario, then
the regulation may lead to more lives lost than will be saved.
SSee Randall Lutter and John F. Morrall (1993).
6See W. Kip Viscusi (1994).
9
TIBR 0007366

Although a careful analysis may suggest that the regulation
will not have counter-productive effects on mortality, what these
estimates do suggest is that the assessment of the benefits and
the costs of regulation must be more thorough and accurate than
those that have been prepared. It is essential to obtain
unbiased assessment of the true expected risks, the value of the
risk reduction to society, and the associated costs of the
regulation. The current analysis provides only a sketchy
treatment of these components. In effect, this analysis takes as
a given that society should proceed with the regulation provided
that the agency can show that there is some significant risk
reduction. What such a calculus neglects is that there may be
other risk effects of the regulation that are adverse and may in
fact outweigh the purported beneficial impacts.
5. The cost estimates defy economic logic
and are not credible.
In its assessment of the indoor air quality regulation, 03HA
breaks out three different classes of effects. First, there will
be health benefits to workers, which presumably should have some
value to them and would be reflected in compensating wage
differentials. Second, the regulation will have direct costs,
which the agency estimates to be $8.1 billion annually. Third,
the regulation will have cost savings, which the agency estimates
to be $15 billion annually (page 16002).
For the purposes of this discussion, let us neglect the
health effects and focus on the cost savings. What this analysis
10 .
TIBR 0007367

suggests is that the regulation would cost businesses $8.1
billion, but would save them $15.1 billion annually. Firms'
failure to take advantage of this opportunity to make almost $2
for every dollar expended cannot be attributed to the market
imperfections alleged by OSHA. These market imperfections, such
as an assumed lack of worker information about the risks of ETS,
pertain to the value of the health effects and their transmittal
through the compensating differential mechanism.
Instead, what we have is an assumed market failure on the
part of firms, which fail to realize that they could make $15.1
billion more every year in return for an annual expenditure of
$8.1 billion. There is no reason why firms would not take
advantage of such an opportunity, if it in fact existed.
The major implication of these numbers is not that there is
a large market failure that merits government intervention.
Rather, it is that the components of the OSAA regulatory analysis
simply do not make economic sense. This lack of internal
consistency calls into question the overall legitimacy of all the
cost estimates that have been put forth.
6. Market forces will lead to the adoption of smoking
restrictions and smoking policies
that are desirable.
Individuals who smoke in the workplace will generate a
perceived environmental risk to their nonsmoking workers. If
nonsmokers believe that there is a risk associated with ETS, they
will demand a compensating differential to work in such
environments. Firms will have an incentive to institute policies
" TIBR 0007368

to limit workplace smoking or to provide smoking areas in much
the same manner as they would to control other public aspects of
the workplace environment, such as the level of noise and noxious
fumes. In effect, the compensating differential mechanism gives
firms a financial incentive to carry out the bargains that are
appropriate given the perceived risks that are being generated.
The OSHA proposal recognizes that these mechanisms are
pertinent (page 16008) but discusses various market forces that
could impede these mechanisms. Much of this discussion of market
imperfections draws upon analyses that I first advanced in the
economic literature. For example, the discussion of marginal
workers and worker mobility on page 16008 first appeared in my
book, Emnlovment Hazards: An Investigation of Market Performance
(Cambridge: Harvard University Press, 1979), and in my article,
"Unions, Labor Market Structure, and the Welfare Implications of
the Quality of Work," Journal of Labor Research, Vol. 1, No. 1,
Spring 1980, pp. 175-192. However, this discussion of market
imperfections is much more pertinent to dimly understood risks
than to smoking.
The critical link in all these arguments is information.
The discussion of the proposed rule correctly notes that in
general workers do not always have "perfect knowledge of job
risks." In this case, the risk involved is that of smoking. My
past research on the perception of smoking risks indicates that
throughout society there is not an accurate understanding of
these risks. However, the nature of the bias is the opposite of
12
TI$g 0007369

the direction that would be needed to have a market failure that
warrants government intervention.
As I document in my book, Smoking: Makina the Riskv
Decision (New York: Oxford University Press, 1992), in 1985 the
average adult in the population assessed the risk of lung cancer
from smoking to be 0.43, whereas estimates based on reports of
the Surgeon General at that time placed the risk between .05 and
.10. Even more recent official estimates of the lung cancer
mortality risk are only as high as .06-.13, so that the perceived
risk of lung cancer greatly exceeds the risk value that is
assessed by the U.S. Surgeon General. To test the sensitivity of
this result, I have explored other measures of the risk as well.
In particular, I have examined the overall total smoking-
mortality risk perc=ption in society, which I found to be 0.54.
In contrast, the overall mortality risk to the smoker based on
estimates by the U.S. Surgeon General ranges from 0.18 to 0.36.
Thus, even in the case of the total mortality risks of smoking,
there is substantial overestimation of these risks on the part of
the population.
A third measure of the risk perception pertains to the loss
of life expectancy involved. In particular, do people fully
understand the extent of the loss of life that the Surgeon
General assesses based on smoking behavior? In the case of
public perception regarding loss of life, one finds a result that
parallels attitudes about the alleged risks of smoking: the
overall assessed life expectancy loss is 11.5 years, whereas the
13
TIBR 0007370

estimated life expectancy loss based on reports by the u.s.
Surgeon General range from 3.6 to 7.2 years.'
What distinguishes the potential risks of smoking from other
health hazards in the workplace is that they have been highly
publicized. Indeed, the potential hazards of smoking are among.
the most widely publicized risks in society. I have documented
the substantial publicity given to smoking in Viscusi (1992).
The current public debate over smoking and ETS involves prominent
officials from the U.S. EPA, the U.S. Occupational Safety and
Health Administration, and the FDA. Most workers would certainly
be acutely aware of this debate. Indeed, OSHA cites evidence
indicating that "88 percent of nonsmokers are aware of the
negative health consequences of ETS" (p. 16007). These results
are inconsistent with OSHA's view that the ETS risks are ignored.
The opposite problem may in fact be the case. Unfortu-
nately, the practical effect of the substantial publicity given
to ETS is not necessarily the fostering of accurate risk
perceptions. Literature on the economics and psychology of risk
perception clearly documents that highly publicized risks tend to
be overestimated. The potential hazards of smoking are among the
most highly publicized and widely discussed risks in our society;
in consequence, it is not surprising that the net result is that
these risks are currently overassessed.
What this overassessment implies from the standpoint of
compensating differentials is that the market response to the
'See page 80 of W. Kip Viscusi, Smoking.
14
TIBR 0007371

risks of smoking will in fact be excessive. Rather than leading
to too little market accommodation of the preferences of
nonsmokers, this over-perception of the risk will lead to
excessive restrictions on smoking in the workplace. Thus, the
actions that have been undertaken may already be too stringent
from the standpoint of their overall social desirability.
As is indicated in the discussion of the proposed rule, the
private market agreements have already been quite extensive in
this area. OSHA summarizes the nature of these actions (page
16007):
"A 1991 survey of company smoking policies shows that
of the 85 percent of firms with smoking policies, 34
percent have complete bans and another 34 percent
prohibit smoking in all open work areas. Over 90
percent of non-manufacturing establishment have smoking
policies [H-030EX.77].
"Workplace smoking policies are more common in larger
[than in smaller] businesses. In a survey of personnel
managers, 63 percent of those with 1,000 or more
employees report having a smoking policy compared with
52 percent of companies with fewer employees."
Thus, we have not only a substantial role of smoking
policies but also substantial heterogeneity of smoking policies
across the labor market. One would expect, for example, that
smoking policies would be more prevalent for large workplaces.
There should be economies of scale in providing smoking areas in
such work environments and also a greater need to standardize
smoking policies as opposed to letting the voluntary discussions
of small worker groups address the appropriate smoking policy on
a decentralized basis.
15
TIBR 0007372

Another class of market imperfection that is discussed in
the OSHA proposal (page 16008) pertains to the lack of "perfect
employee mobility between jobs." This limitation pertains not
only to potential ETS risks but also to every workplace hazard.
If there were in fact worker immobility, one could use this
rationale to justify the regulation of any type of workplace risk
in any industrial situation. However, even though worker
mobility is not perfect it is indeed substantial. There is
little lifetime commitment to jobs in the U.S. economy.
Moreover, I have documented in my past work that job hazards
alone account for 1/3 of all manufacturing quit rates.e The
textbook discussions of a coal mine worker trapped at a single
firm in a company town are apocryphal and do not pertain to the
1990s. Moreover, even if there were a problem of worker mobility
in which a worker began work on the job, subsequently discovered
that there were hazards associated with it, and felt unable to
quit because of the transactions cost involved, this stylized
scenario would not fit the potential risks associated with ETS.
The presence of ETS and the ventilation conditions of the
workplace are readily observable characteristics that can be
monitored by the worker. They are not the kind of dimly
understood health risks for which there is associated the usual
type of market failure.
BSee W. Kip Viscusi, Risk By Choice: Regulating Health and
Safety in the Worknlace (Cambridge: Harvard University Press,
1983).
16
TIBR 0007373

7. The discussion of societal externalities of smoking
claims that smokers on balance impose a burden on
societv, whereas in fact the opoosite is the case.
Smokers pay substantial taxes specifically linked to their
smoking behavior. For the fiscal year ending in June 30, 1993,
federal taxes on cigarettes were $5.5 billion and state taxes
were $6.2 billion. Municipal taxes were a total of $187 million,
so that the total tax amount was $11.9 billion.
Potentially offsetting these taxes are the effects claimed
by OSHA on Social Security, welfare, Medicare, and related
programs (page 16008). However, even taking the estimated
hazards of smoking at face value, on balance the savings to
society from the estimated early mortality of smokers offset the
added cost to society in terms of higher health costs. At
reasonable rates of interest, such as a 3 percent real rate of
return, on balance smokers more than pay their own way. Indeed,
the tax payments they provide is an additional bonus since even
without taxes smokers on balance save society money. This result
has been documented in a recent study by the Congressional
Research Service as well as in a recent book published by the
RAND Corporation.'
Much of this discussion of societal externalities pertains
not to the risks of ETS but rather to the risk to smokers who
will be associated with the dominant external costs. This class
of issues involves a much larger debate over the societal effects
9See Jane Gravelle and Dennis Zimmerman (1994) and Willard
Manning, et. al., (1991).
17
TIBR 0007374

and, in particular, the role of smoking outside the workplace.
Because the OSHA rule is not primarily directed toward that issue
but rather toward workplace smoking, this aspect of OSHA's
analysis is quite appropriately not well-developed.
8. The most important cost component, the decreased
welfare of smokers and the societal loss from
smoking restrictions, has been completely ignored
in this analysis.
As in other consumer contexts, individuals who smoke spend
money on cigarettes and other tobacco products because the
economic value they derive from these products exceeds their
cost. In particular, they reap a welfare gain from smoking
behavior. Similarly, there is a benefit to companies as well,
who earn profits from producing tobacco products. There are also
widespread benefits to society in terms of increased employment
and tax revenues.
None of these effects on either cigarette smokers or the
tobacco industry has been recognized in the analysis. If smoking
is banned in the workplace, for eight hours of the day, or
approximately half of their waking hours, smokers will be unable
to smoke. If smokers are relegated to a specific smoking area,
their welfare will also be decreased and their productivity may
be affected as well.
The decreased consumption of cigarettes not only will impose
a welfare loss on smokers, but would also lead to a reduction in
the consumption of tobacco products overall. From the standpoint
of a comprehensive economic analysis, it is important to
18
TIBR 0007375

calculate the lost producers' surplus (loss to companies) as weli
as the loss in consumer surplus.
The first matter that will be considered is the magnitude of
the lost consumers' surplus from a decrease in the demand for
cigarettes stemming from limitations on smoking in the workplace.
From an economic standpoint, the consumer surplus that an
individual consumer reaps from consuming a commodity is the
difference between the price the consumer would be willing to pay
for the good and the price that the consumer is actually charged.
To estimate the amount of the consumers' surplus for the market
as a whole, the main critical component is the shape of the
consumer demand curve, or more specifically the demand
elasticity, which gives the percentage change in the quantity of
the good purchased that will result from a unit percentage change
in its price.
Table 1 presents estimates of the lost consumer surplus for
five different demand elasticities ranging from -0.2 to -1.4.
This range of estimates spans the estimated range in the
literature, which I have surveyed in my book, Smoking: Making
the Risky Decision (see especially pages 102-105). Most of the
demand elasticities tend to be clustered in the range from -0.4
to -1.0 so that the elasticity of -0.7 can be viewed as the
midpoint of the estimated range. The 1994 Congressional Research
Service study (p. CRS-27) focused on a population-wide elasticity
of -0.31. Teenagers appear to be most responsive to cigarette
prices, as they exhibit demand elasticities of -1.4. What is
19
TIBR 0007376

TABLE I
LOSSES FROM SMOKING RESTRICTIONS
Panel A: Loss of Consumers' Surplus
Post-Ban Consumers' Surplus Loss of Consumers' Surplus
(billion $) from ban (billion S)
Assumed Smoking Reduction Assumed Smoking Reduction
Pre-Ban
Billions of Average Consumers
Packs Sold Price Surplus
Elasticity (1993) (1993) (billion S) 10Yu 20% 30"/0 10°/a 20% 30%
-0.2 25.1644 1.693 $106.51 $86.27 $68.17 $52.19 $20.24 $38.34 55432
-0.4 25.1644 1.693 $53.25 $43.14 $34.08 $26.09 $10.12 519.)7 $27.16
-0.7 25.1644 1.693 $30.43 $24.65 $19.48 $14.91 $5.78 $10.96 $15.52
-1
Li 25.1644 1.693 $21.30 $1725 $13.63 $10.44 $4.05 $7.67 $10.86
-1.4 25.1644 1.693 51522 $1232 $9.74 $7.46 $2.89 $5.48 57.76
Panel B: Loss of Producers' Surplus
Fortune 500
Forbes SW
Note: Profits are for U.S. sales only.
Assumed Smoking Reduction
Loss of Producers' Surplus
20%
$0.18
$0.23
30%
$0.27
$0.35

Panel C; Loss of Tax Revenue
Loss of Revenues
Assumed Smoking Reduction
Tax Revenue
(Billion 1993)
IO°/a
20X
30%
Federal $5.53 $0.55 $1.11 $1.66
State $6.18 $0.62 $1.24 $1.95
Local $0.19 $0.02 $0.04 $0.06
Total $11.89 S1.19 $2.38 $3.57

pertinent for the purposes of our calculations is the overall
demand elasticity from the standpoint of the market, for which
most studies yield results closer to the middle of the table.
For illustrative purposes, I will focus on the demand elasticity
of -0.4.
At that demand elasticity, before the enactment of the OSHA
regulations consumers would reap a surplus of $53 billion
annually. In effect, smokers would be willing to pay $S3 billion
more for cigarettes than they are actually charged. The loss in
consumers' surplus depends on the effect of the smoking
restrictions on the level of smoking. The estimates in Table 1
pertain to three different scenarios, where restrictions reduce
the total consumption of cigarettes by 10 percent, 20 percent,
and 30 percent. Focusing on the midpoint of this range, one has
a consumers' surplus after the smoking reduction of $34 billion,
leading to a total consumers' surplus loss of $19 billion
annually. For demand elasticities that indicate less
responsiveness to price, such as -0.2, there will be a larger
estimated consumer surplus loss, and for demand elasticities that
indicate greater responsiveness to price, such as the demand
elasticity of -1.4, there will be a smaller welfare loss.
The second party that loses because of the decrease in
smoking is the tobacco industry or, more specifically, the stock-
holders in that industry. Panel B of Table 1 reports on a series
of calculations that assume for simplicity that profits are
proportional to sales. A 20 percent reduction in cigarette
20
TIBR 0007379

consumption would lead to a loss in profits of approximately $0.2
billion per year. This calculation excludes the lost profits to
tobacco farmers and other groups whose economic well-being is
dependent on the tobacco industry.
The final component of the societal loss that I have
calculated pertains to the lost tax revenue from a reduction in
smoking. If there is a 20 percent reduction in cigarette
consumption, the total loss of tax revenues will be $2.38
billion, with the loss being roughly evenly split between Federal
and State governments.
What these calculations suggest is that the effect of the
proposed regulation in reducing smoking at the workplace and
smoking overall will be nontrivial. Moreover, the group with the
greatest amount to lose will not be the tobacco industry but
rather the individual smokers who will suffer an annual welfare
loss on the order of $11 billion. The group that will suffer the
second greatest loss will also not be the tobacco industry but
rather the recipients of the cigarette taxes. The Federal and
State tax loss will exceed the loss in profits to companies by a
factor of 10. None of these effects of the proposed OSHA
regulation were addressed in the OSHA analysis, and it is clear
from these estimates that the effects on society are truly
substantial.
OSHA's analysis of the employment effects of the proposed
regulation should also take into account the effects that will
occur because of the reduced consumption of tobacco products,
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rather than limiting the employment effects discussion to the
effect of higher costs of introducing ventilation equipment. In
short, OSHA has ignored the central cost component and the
adverse employment consequences associated with the ETS segment
of the proposed rule.
9. The cost estimates of smoking restrictions
fail to include the caoital costs.
OSHA estimates the cost for eliminating ETS exposures as
ranging from $0 to $68 million (page 16002). Such cost estimates
appear to be strikingly low and should serve as a red flag for
anyone considering the reasonableness of the cost estimates that
have been prepared.
Most important, OSHA completely neglects the capital costs
for creating nonsmoking areas. Although the cost of setting up
the appropriate ventilation system is included, the cost of the
office space is not (page 16017). In effect, OSHA treats office
space as being a free good in excess supply. This is certainly
not the case generally. The cost for a 150 square foot room will
go beyond that of the $4,000 cost of retro-fitting an HVAC
system. Office space is not a free good and this cost, which
will certainly exceed that of the HVAC system, should be included
in a comprehensive analysis.
10. The indoor air quality standard does not pass an
economic feasibility test.
Even though OSHA did not calculate all the costs of the
proposed regulation, it concluded that the costs imposed would be
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substantial. If demand curves are elastic, these costs could
have an effect on profits of 0.94 percent overall, and as high as
4.5 percent for the fishing industry (page 16019). The effect on
profits of close to 1 percent from a single regulation is not
trivial.
To put such effects in perspective, one should realize that
the indoor air pollution regulation is not the only regulatory
cost resulting from OSHA activities. Moreover, OSHA is not the
only regulatory agency issuing regulations. If every agency in
the federal government treated individual regulations as being
inconsequential if they only decreased profits by 1 percent, then
very few private businesses would remain solvent.
Rather than presenting the two extreme cases (completely
elastic and completely inelastic demand curves) as OSHA did in
its analysis, it would have been more instructive to focus on the
effects for demand elasticities for the particular industries.
Moreover, it is inappropriate to dismiss as being unimportant a
decline in profits of 1 percent. A more pertinent question would
be how many firms will be forced to close their operations if
their profitability rates would decline by almost 1 percent. In
its analysis OSHA should assess the number of firms that will be
forced to cease operation because of this regulation and the
number of jobs that will be lost because of it. This job loss
should include the adverse effects resulting from decreased
tobacco consumption as well.
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11. The discount rate used is too low.
Throughout the analysis OSHA utilizes a discount rate of 10
percent. As a real rate of return, this rate is certainly too
high. Over the past decade, the real rate of return (e.a., the
Treasury bill rate minus the rate of growth in the GDP deflator)
has been in the range of 2 to 3 percent. The use of a real rate
of return of 10 percent may be required for illustrative
purposes, but in annualizing the capital costs of the regulation
a more appropriate rate would be a real rate of return of 2 to 3
percent.
12. There is too much missing information to
move forward with the reaulation.
The overall sense that one derives from reading this
proposed regulation is that it was rushed into print because of a
believed risk associated with ETS. This risk has not been
precisely documented in a manner that would pass the usual tests
of scientific validity. Moreover, as was noted above, there are
many other missing elements to the OSHA analysis.
Zndeed, in the course of the analysis prepared by OSHA some
of these missing data elements are identified. For example, it
is noted that "OSHA has no data on the number of establishments
currently permitting smoking in designated smoking areas" (page
16017). A careful regulatory analysis that undertook a survey of
firms could readily establish this number, but this was not done.
Similarly, it is noted that "OSHA estimated preliminary
costs of complying with the proposed standard. OSHA's cost
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assumptions and methodologies are based on information available
from the rulemaking record." Reliance on the rulemaking record
can potentially provide biased estimates of compliance costs to
the extent that these compliance costs are based on past actions
by firms which have chosen to institute smoking policies. There
will tend to be a self-selection process whereby the costs
incurred by firms that have instituted HVAC systems in smoking
areas, for example, will be less than those firms that have not.
OSHA's discussion, which places substantial reliance on past
practices, has in no way corrected for this self-selection bias.
Many of the cost estimates in the OSHA analysis are also
based on speculation. The entire sick building syndrome and the
causes of it remain highly controversial. In particular, data
pertaining to the role of ETS in contributing to these outcomes
are not sufficiently precise to indicate a clear-cut linkage.
The role of smoking in causing indoor air contamination and in
leading to adverse health effects has not been precisely
documented. The OSHA regulation runs the risk of addressing a
"problem" that involves uncertain health effects and for which
the contributory role of ETS has not been established.
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REFERENCES
Ensminger, Audrey, M.E. Ensminger, James Konlande, and John
Robson, (1994). Food and Nutrition Encvclonedia. 2nd Edition,
Ann Arbor: CRC Press.
Gravelle, Jane and Dennis Zimmerman, (1994). "Cigarette Taxes to
Fund Health Care Reform: An Economic Analysis," Congressional
Research Service Reoort to Congress Washington: Congressional
Research Service-The Library of Congress.
Journal of Risk and Uncertainty, Vol. 8, No. 1, (1994).
Lutter, Randall, and John Morrall. (1993). "Health-Health
Analysis: A New Way To Evaluate Health and Safety Regulation,"
Journal of Risk and Uncertainty, Vol. 8, No. 1, pp. 43-66.
Manning, Willard, Emmett Keeler, Joseph Newhouse, Elizabeth
Sloss, and Jeffrey Wasserman. (1989). The Costs of Poor Health
Habits, Cambridge: Harvard University Press.
Viscusi, W. Kip. (1979). Emplovment Hazards: An Investigation
of Market Performance, Cambridge: Harvard University Press.
(1983). Risk By Choice: Regulatina Health and
Safety in the Workolace, Cambridge: Harvard University Press.
(1992). Smokina: Making the Risky Decision,
New York: Oxford University Press.
(1994). "Mortality Effects of Regulatory Costs
and Policy Evaluation Criteria," RAND Journal of Economics, Vol.
25, No. 1, pp. 94-109.
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