Jump to:

Product Design

Changes in FTC Intake Produced by Changes in FTC Delivery

Date: Jun 1970
Length: 22 pages
1003286591-6612
Jump To Images
snapshot_pm 1003286591-1003286612

Abstract

Examines how changes in delivery levels of a cigarette effect daily tar intake. Suggests three theories: Constant Intake, Delivery Dependant or Response Invariance as possible outcomes. Describes experimental cigarettes with increased or decreased tar and nicotine deliveries and uses a Marlboro-type control delivering 19 mg tar and 1.26 mg nicotine per cigarette. Finds the Response Invariance hypothesis consistant with findings in that "a specific low delivery cigarette appears to be smoked in the same manner as a higher delivery cigarette." and suggests further studies.

Fields

Notes

Contains some marginalia.

Author
Ryan, Frank J. (PM Scientist)
Philip Morris scientist (circa 1973), developed smoker puff-profiles, compiled data on compensation and lip occlusion of ventilation holes. Associate Senior Scientist with PM, c. 1987.
Recipient
Charles, James L., Ph.D. (PM, R&D VP, Pharmacologist, Industry Expert)
Vice President of Research and a scientist for Philip Morris, Inc. Vice President of Research for Philip Morris, Inc. in 1986 and then again from 1992 to 1993.
Cohen, Melvyn B. (PM Logistics, Specialized Services for SEX-2 Study)
Provided specialized services as requested by Barbara Forrest who was to coordinate the Executive evalution of the SEX-2 Study as written by Myron Johnson on March 3, 1969.
Daylor, Frank L. (PM Gen. Products Development. Mgr., R&D)
Was involved in flavor development for Philip Morris; worked for PM Research and Development in Products Development 1962-93.
#618 (Eichorn, P. A.)
Fagen, Raymond DVM (Epidemiologist in late 1960's--worked for PM)
Raymond Fagen was a Epidemiologist in the (late 60's) and 1983. (Source: NM Tobacco Companies Personnel List). Before working for Philip Morris, he worked at the NCI/NIH
Filias, G.
Johnston, Myron E., Jr. (PM Marketing researcher)
Martin, Peggy
Specialist
Osmalov, Jerome "Jerry" S. (Joined PM in Dec. 1964 to work on filter development)
Resnik, Frank Edward (Vice Pres., then Pres. and Chairman of Bd, Philip Morris)
TI Executive Committee. Proté§© of Clifford Goldsmith. Vice President Philip Morris, Inc. from 1979 to 1984. President in 1984 and served on the Board of Directors from 1985 to 1989.
Seligman, Robert B. (PM VP of R&D c. 1976-82)
Vice President of Research and Development at Philip Morris Richmond, VA 1976-1982. Reported to Senior Vice President of Operations. In 1982 transferred to tobacco technology group. Wanted to share ammonia and other tobacco technology with PM International companies.
Tamol, Ronald Adam, Sr. (PM Research Engineer)
Defense
Thomson, Richard N. (PM Development Director, scientist)
Defense
Tindall, John E. (PM Product Evaluation, R&D )
Defense
Wakeham, Helmut R. R., Ph.D. (PM R&D VP)
Vice President and Director of Research & Development, Philip Morris
Will, Fritz, III (PM Manager)
Defense
Hypothesis
FTC machine testing and ratings
Design changes to achieve altered FTC smoke machine tar and nicotine ratings, with or without measured changes in human intake.
Inhalation Profile
Are cigarettes designed to cater to individual inhalation profiles?
Low-yield cigarettes
Modification of low yield products to assure that adequate levels of nicotine delivery are maintained, and effects of yield changes on toxicity and dependence.
Measuring human intake
Development of scientifically valid procedures for measuring tar and nicotine levels that more accurately reflect human intake.
Measuring human smoking behavior
Measuring the effects of changes in human smoking behavior on intake of nicotine and smoke constituents.
Smoking psychology and behavior
Smoking psychology and behavior
Use of tobacco processing/ blends
Modification of tobacco products through changes in tobacco processing and use of blends, and measuring effects on dependence, behavior, and toxicity.
Keyword
Attribute perception ratings
Behavioral effects (Behavioral pharmacology)
Addiction behavior, withdrawal, and measured nicotine effects
Consumer acceptability (Consumer preference)
Daily intake
Dose-response
Human testing
Inhalation (Smoke inhalation)
Inner need
Intake (Smoker yield)
Low delivery (Reduced delivery)
Nicotine delivery (Smoke nicotine or nicotine yield)
Per puff delivery
Per puff tar, per puff nicotine, and per puff CO
Puff count
Puff parameters
Puffing behavior (Human puff parameters)
Self-administration
Sensory response
Smoker behavior (Human smoking behavior)
Puff parameters, daily intake, etc.
Smoking dynamics
Tar/Nicotine ratio (Nicotine/Tar Ratio or T/N ratio)
Total particulate matter (TPM or Tar)
Smoke Constituent
Nicotine
Total particulate matter
Design Component
Butt length
Filter efficiency (FE)
Porous tipping paper
Pressure drop (PD, Resistance to draw (RTD), Flow rate or Draft)
Static burn rate
Tobacco weight
Operation/Project
SEX-II
Named Organization
Federal Trade Commission (Enforcement agency for laws against deceptive advertising)
Enforces laws against false and deceptive advertising, including ads for tobacco products. Ensures proper display of health warnings in ads and on tobacco products;collects and reports to Congress information concerning cigarette and smokeless tobacco advertising, sales expenditures, and the tar, nicotine, and carbon monoxide content of cigarettes.
Product Opinion Lab (industry-funded)
Brand
Benson & Hedges (PM)
EXPERIMENTAL
Marlboro (PM)
Parliament (PM)
Virginia Slims (PM)
Winston (RJR)
Marlboro 100
Alpine
PALL MALL FILTER
Benson & Hedges Menthol
Subject
Behavioral Effects (Effects)
Compensation (Measures)
Low Yield Cigarettes (Products)
Metabolites (Measures)
Puff Parameters (Measures)
Smoke Delivery/Transport (Measures)
Smoke Nicotine (Measures)
@smoke_constituents_measures
T/N Ratios (Measures)
Tar (Measures)
Test/Consumer Preference (Testing)
Test/Smoke Constituents (Testing)
Test/Smoking Behavior (Testing)

Document Images

Text Control

Highlight Text:

OCR Text Alignment:

Image Control

Image Rotation:

Image Size:

Page 1: jcl46e00
June, 1970 Project 1600 SEX-II Evaluation Report #415 CHANGES IN FTC INTAKE PRODUCED f. GONFlQEE11TI%L 6t Cr' ;HNGcS I~~ F'TC DE'..IhFRY Distribution Dr. H. Wakeham Dr. R. Seligman Mr. R. Thomson Dr. P. Eichorn Dr. F. Will Mr. J. Osmalov Mr. F. Daylor Mr. G. Filias Mr. F. Resnik Dr. R. Fagan Mr. M. Johnston Mr. J. Tindall Mr. J. Charles Mr. M~. Cohen Mr. R. Tamol Mrs. P. Martin
Page 2: jcl46e00
a I ZI 11 n RESULTS . . . . . PREDICTED POSTSHIFT BEHAVIOR . OBSERVED DOWNSHIFT BEHAVIOR . OBSERVED UPSHIFT BEHAVIOR . SOME QUESTIONS AND ANSWERS . . . . . . . . . . . . . . . . . . . . . . . . . 12 . 17 . 18 . 18
Page 3: jcl46e00
During the fall and winter of 1968-69, the Product Opinion i I I 1 I I I tar in smoke, and filter efficiency, we were able to calculate how much smoke had passed through each filter into the smoker's knowledge of the relationships of the nicotine in smoke, FTC other things, mea-suring the amount of nicotine deposited in -filters of cigarettes smoked by the general public. From Exposure I (SEX-I), for an outside client. It involved, among Laboratory carried out a research project,, titled Smoke mouth. .Eventually we began a pilot-experiment called SEX-II to investi- gate the effects of changes in FTC del.ivery on smoker FTC tar Experience with this project caused us to ask a number of questions about cigarette consumption, cigarette FTC tar delivery level, smoker FTC tar intake, butt lengths, and allied subjects. intake. We asked: if we were to change the delivery level of an B5mm cigarette, what would happen to the smoker's daily FTC tar intake? There are a number of possible answers. The first is that it would not change but would remain constant. The smoker would smoke as much tobacco as needed to keep his daily intake at the accustomed'level. If the delivery was increased, then the constant intake would be produced by smoking fewer cigarettes, or less of each rod, or some combination of the two. If the change were downward, smokers would consume more cigarettes,'or more rod, or both. We call this the Constant Intake hypothesis. O A second possibility is that the smoker's i'ntake would ~ change as a direct function of the nominal change in' tar delivery. ~ 0? ~ W
Page 4: jcl46e00
This suggests that a 20% increase or decrease in FTC tar delivery (as recorded on a smoking machine in analytical division) would -4~ less tar from each one.' We call this the Delivery Dependent suming the same number of cigarettes but by getting 20% more or intake. Such an increase would be produced by the smoker con produce a 20% increase or decrease in total daily smoker FTC tar .hypothesis. suggests that each cigarette is puffed in exactly the same manner1l, A number of other outcomes are possible. Among them is the ; Response Invariance or Constant Smoke Volume hypothesis. This that changes in cigarette characteristics have little effect on puffing behavior. As a result, the smoker takes in about the same volume of smoke each day. has sophisticated apparatus for detecting changes in the body,'s biochemistry and physiology. covert reasons which will only be evident to an observer who physiological deficit state. It suggests that we smoke for The three hypotheses stress different things. Constant intake stresses the physiological and chemical effects of the smoke. It emphasizes the impact of the FTC tar on the lungs and the physiological consequences of the nicotine in the smoke. It suggests that a cigarette is put out when enough FTC tar or nicotine has been ingested to compensate for some transitory - The Delivery Dependent hypothesis places its stress on the data in tables such as those of our Monthly C.I. Report and this report's Table I. It is a chemical hypothesis, a smoking ~ machine hypothesis. It is the type of hypothesis which anti- ~ smoking forces would employ in condemning the tobacco industry W for producing high delivery cigarettes. .-,-+ . ... . . ~ : ,. .- , - , e., . >>.. _.. . ,
Page 5: jcl46e00
7 I J a I a a 7 _1 a The Constant Volume (Response Invariance) hypothesis emphasizes the habitual components of the smoking: puff volume, puff duration, number of puffs, duration of interpuff interval,'etc. It is a psychological interpretation which stresses the behavior of men, not machines, while ignoring the chemistry of both men and cigarettes. It should be obvious that these three hypotheses are only unrefined first approxi-mations. They are a starting place for a research project, not the final answer. They are not neces- sarily exclusive - they may all be acting at once: some people may smoke as if one rule governed their behavior, others as if a second rule, still others may vacillate between one and another. A test of the three hypotheses was performed at R & D during the autumn of 1969. Smokers were first given an unlimited supply of a Marlboro-like cigarette. Then they were either shifted up to a cigarette with more FTC tar and nicotine or shiftedidown to a cigarette with less FTC tar and nicotine. Consumption and intake measures were taken throughout the study period in the hope that preshift-to-postshift changes in intake level and patterns of smoking behavior would support one of the three hypotheses. The Cigarettes The three cigarette types used are characterized by the analytical data of Table I. Compared to the preshift Marlboro- like cigarette, the downshift cigarette delivered about 20% less tar and 19% less nicotine while the upshift cigarette delivered 28.4% more tar and 19% more nicotine. The filler of the three cigarettes was identical. All were made from the
Page 6: jcl46e00
4 same batch of Marlboro-type tobaccos. The altered delivery levels were achieved by changing the cellulose acetate of the filter and the porosity of the paper. Compared to the preshift model, the downshift cigarette had a more efficient filter, more porous paper, a higher RTD, and a slightly lower burn time while the upshift model had the same filter and RTD, a less porous paper, and a longer burn time. As a result, to burn the preshift and downshift cigarettes to a 28mm butt took 9.0 and 9.2 puffs compared to 10.5 puffs for the upshift cigarette. These burn rates and puff differ- ences are critical, and greatly affect the interpretation of the results; TABLE I A Summary of the Analytical Data of the Three Cigarettes Downshift Preshift Upshift Smoke Butt Length, mm 28 FTC tar, mg/cigt. 15.2 Nicotine, mg/cigt. 1.02 Puff Count 9.2 Filtration Eff., % 56 Cigarette Total RTD, in. of H20 5.72 Static Burn. Time, Mlin. 8.2 Length, mm 84.4 Circumference, mm 25.3 Paper Porosity, sec. 14 Filter RTD, in. of H20 4.01 Length, mm 20.0 Weight, gms 0.18 Fi11er Total alkaloids, % 1-.71 Total reducing sugars, % 6.6 W t. o f T o b.gm.s. 0.84 ~ U•~ 4 -I , ~, 2 8 --.: -~' 2 8 (19.01) ~.2 4..4 z } : 261 . 50 9.0 10.5 46 46 4.53 8.6 84.4 25~4 4.82 10.5 84.4 25.3 26 36 2.78 2.78 19.9 19.7 0.15 0.15 1.73 1.66 6.8 7.0 0.85 0.87
Page 7: jcl46e00
©ne hundred and one filter-cigarette smokers from R & D and J I a I postshift cigarettes and seven were eliminated because they: pally illness or general dissatisfaction with the preshift or Table II. Eighteen more withdrew for various reasons, princi- was promised for all who completed the study. Usable data was obtained from 76 smokers, whose regular brands are presented in . ration. A $10 gift certificate from a leading department store Richmond Operations were recruited to participate in the study. Having promised to smoke only the experimental cigarettes during the study period', they were given as many free experimental ciga- rettes as they wished in addition to their normal employee's data is based on over 30,000 cigarettes smoked. (1) forgot their butts on more than one of the four collection days•of any single week, or (2) had a mean daily intake of less than 3 mg on any day. Butt length or analytical measures were occasionally missed for some smokers on some days, but in no case are reported scores based on fewer than 32 people per day per group. The sample size only appears small. It is actually quite large for a pilot project using an extended series of repeated measures on the same subjects. For example, the usable TABLE II Regular Brands of Smokers in the Two Groups Number in Downshift Group Regular Brand Number in Upshift Group 17 Marlboro 19 O 3 Marlboro 100 3 O 6 B & H 7 W 1 Alpine 1 N Virginia Slims 5 5 P.M. Filter - 1 Marlboro Menthol C11 Parliament 2 Ca NJ B & H Menthol 1 Winston 1 39
Page 8: jcl46e00
Procedure a I ~ ~ I I I a Group Upshift began smoking the highest delivery cigarette and brand and to smoke only the test cigarettes for a period of six weeks. For,the first two weeks, all panelists received the pre- shift cigarette. Beginning the third week, the panelists were randomly divided into two groups for the remainder of the study. All panelists were asked to discontinue smoking their regular space provided'on the pouch identification label. Our measure of the "yumber of cigarettes smoked" was the sum of the number of butts in the pouch plus the estimated number omitted. The fold-over aluminum foil pouches, originally designed for pipe tobacco, were deposited daily at designated pickup points. omitted from each day's pouch and recorded this number in a them in individual pouches. They estimated the number of butts Group Downshift the lowest delivery cigarette. Each group con- tinued smoking these cigarettes for four weeks. The panelists were not informed of the shift and they did not know the purpose of the test. Throughout the entire six weeks they saved all the butts from cigarettes smoked Monday through Thursday and placed From here they were retrieved by a technician who recorded the number of butts in the packet, measured the lengths of two randomly selected butts, and prepared the entire sample for analysis. She removed the tobacco and paper from each filter section and sliced one side of each plug along its longitudinal axis so as to lay open the plug material. A day's batcKof prepared plugs for a given subject was placed in a paper cup and submitted for chemical analysis. The number of plugs per cup was reduced down to 5, 10 or 20 plugs, whichever came first, in order to facilitate handling and treatment by the chemical analysis group. The amount of residual nicotine in the filter material was then determined, and the average
Page 9: jcl46e00
amount of FTC tar which had'lpassed through the filters was calculated. Total daily FTC tar for each smoker was calculated by multiplying the average FTC tar times the number of cigarettes smoked on that day. Butts were not analyzed in Week 1. All analytical data collected on one day (Tuesday, October 28, 1969) proved so unusual that it was ignored.* The number of cigarettes smoked that day was, however, included in the results. Results The preshift and postshift smoking behavior of the two groups .1 I I will refer to them continuously. represent the principal fi'ndings of the study and the discussion are presented in Figures 1, 2, and~ 3. The data of these figures When smoking the preshift Marlboro-like cigarettes, there were some slight consumption differences between the two groups. Both groups left almost exactly the same length of butt (see Figure 1) but the upshift group smoked about 22 more cigarettes per day per person than the downshift group (Figure 2). As a consequence of the extra cigarettes, the upshift group had a higher average daily intake of FTC tar, 240mg vs. 207mg (Figure 3). F-h 0 * Many subjects fell below 3mg that day: whether this was due O N to collection errors, analytical errors, weather factors, or some unknown event is unclear. October 27 was a payday. ~ ~ Ca 0
Page 10: jcl46e00
I U 40 39 38 33 I 0 PRESHIFT ~ ----- .~ o-~' ~"O DOWNSHIFT y y 2 3 4 5 6 PRE- POST WEEK SWITCH MEANS Fig. 1 - Butt lengths were increased among the upshift group, µA• stayed the same among the downshift group. .o--

Text Control

Highlight Text:

OCR Text Alignment:

Image Control

Image Rotation:

Image Size: