This collection of data includes the following indicators, dates, and sources:
passports circulating, 1989-2015, Dept. of State
passports issued, 1974-2015, Dept. of State
licensed drivers, 1960-2014, Dept. of Transportation
biometric ID usage rates in hospitals, 2008-2012, Raymonde Charles et al.
voting rate, 1978-2014 & 1964-2014, Census Bureau
voter registration, 1966-2014 & 1828-1956, Census Bureau & Congressional Quarterly Press
people working in government, 2014/2024, BLS
federal laws passed, 1973-2015 & 1947-2013, GovTrack & Brookings Inst.
U.S. Passports Circulating (1989-2015) and Issued per Year (1974-2015)
Note: As of 1996, passports issued statistics are tabulated for the fiscal year.
US Department of State. Accessed October 17, 2016.
The Department of State has been issuing exclusively biometric/electronic passports since 2007.
Here’s a map showing the state-by-state distribution of Americans with active passports, for the year 2013.
The map is based on the State Department data given above for the number of passports issued in the last 10 years, divided by the total US population (per the Census Bureau, minus the ~12 million undocumented residents and ~13 million legal permanent residents who cannot obtain passports).
Matt Stabile. February 2014.
“How Many Americans Have A Passport?”
Licensed Drivers, Vehicle Registrations, and Resident Population (In Millions)
Department of Transportation. January 2016.
“Highway Statistics 2014.”
Gov’t Issued ID
The 2012 American National Election Survey asked survey respondents about what type of government-issued photo identification they possessed. The survey indicates that 6.3% of respondents do not have a valid, government-issued photo ID.
These are the total weighted percentages in responses.
Question: Do you have a non-expired Driver’s License?
Variable name: dem3_driver
Does not have: 15.4%
Don’t know: 0%
Total number of respondents: 6,112
Question: Do you now have a non-expired U.S. passport, or do you not have one?
Variable name: dem3_passport
Does not have: 58.4%
Don’t know: 0.2%
Total number of respondents: 5,914
Question: (If no valid driver’s license or passport) Do you have another form of non-expired, government issued photo ID, such as a state-issued ID or military ID?
Variable name: dem3_govtid
Does not have: 6.3%
Don’t know: 0%
Total number of respondents: 5,914
American National Election Studies. May 28, 2015.
“User’s Guide and Codebook for the ANES 2012 Time Series Study.”
The University of Michigan and Stanford University.
Other source notes:
Position: Pre-election survey, section-item no. 62.7-12, 62.7-13
NOTE: ANES confirmed by email that 2012 was the first year this data was collected. The same questions will be asked in the 2016 post-election survey, and results will be published at the end of the first quarter of 2017.
Although ANES has not collected any previous data on gov’t-issued ID possession rates, a couple other surveys have been conducted recently, in the context of voter ID requirements. For example:
2006 — the Brennan Center (NYU School of Law) commissioned a survey (of 987 voting-age Americans) finding that 11% of respondents did not have ready access to government-issued photo ID.
2001 — The Carter-Ford Commission on Election Reform found that 6-11% of voting-age citizens lacked state-issued photo ID.
Biometric Data Tracking
Biometric Update is a research and news source with a pretty wide range of news articles, research papers, white papers, and overviews describing current biometric identification technologies. The Government Purchasing news articles may be of particular interest. The statistics presented on the site are largely industry-focused.
biometric identification adoption rates
mobile driver’s license (Iowa pilot in 2016)
Rawlson O’Neil King. June 2014.
“National and Civil ID White Paper.”
Biometrics Research Group
Gives an overview of the format and use-cases for ePassports, eIDs, and electronic voting enrollment. Briefly describes (emphasizing shortcomings) the US social security number and driver license with regard to their use as identification.
Smithers Pira. July 2016.
“The Future of Personal ID to 2021.”
Contact: Stephen Hill firstname.lastname@example.org; Josh Rabb email@example.com
Note: This research firm focuses on packaging, paper and print industry supply chains.
Tables & Figures:
Trends in personal identification
The evolution of the ePassport
Market forecast of for personal ID by technology 2016-2021
Unit forecast of (2016-2021):
traditional national ID
The evolving landscape of personal identification 2016-2021
I have NOT established contact with this firm to inquire about data sharing, but, as noted above, the Department of State has been issuing exclusively biometric/electronic passports since 2007.
TechNavio, May 2016
“Biometrics Market In North America 2016-2020”
Market research analysts at Technavio have predicted that the biometrics market in North America will grow steadily at a moderate CAGR of more than 12% by 2020.
Owing to an increase in investments and the early adoption of biometric technology, the biometric market in North America will have a constant demand from the government sector. According to this market research analysis, this segment will account for about 40% of the total market share by 2020 and will dominate the market throughout the forecast period.
TechNavio, October 2015
“Global Law Enforcement Biometrics Market 2015-2019”
Technavio’s analysts forecast the global law enforcement biometrics market to grow at a CAGR of 13.35% over the period 2014-2019.
TechSci Research, May 2016.
“Global Biometrics Market By Type (Fingerprint Recognition, Facial Recognition, Hand/Palm Recognition, Iris Scanner, Voice Recognition, Vein Scanner & Others), By End Use Sector, By Region, Competition Forecast and Opportunities, 2011 – 2021.”
Includes market size and forecast value for North American Government applications (as well as other regions and sectors.
Data on the use of biometric information by government agencies is fairly hard to come by. Aside from the few reports mentioned above, I’ve found some data on the adoption rates of biometric data within US hospitals. Not sure if this might have any implications for adoption rates in other sectors, like government.
Biometric devices and their accompanying software in healthcare institutions permit the automatic authentication of patient and provider identity for different purposes such as secure EHR system access, and patient verification31. The most common hospital implementation of biometrics are the use of fingerprint and iris scanning32, 33. The unique authentication methods of biometrics make it difficult to mismatch and forge identities since no two irises or fingerprints are the same.
The use of fingerprint scanning had an average annual adoption increase of 1.23% per year from 2008, leading to a total of 15.9% (n=871) adoption within all hospital respondents (n=5467) in 2012. Iris scanning technology has an average annual adoption rate of 0.02% from the same time frame, and is only currently being used in 13 hospitals (0.02%) in 2012. Only 2.49% (n=136) hospitals in 2012 plan to expand or adopt the fingerprint technology in the following years, in contrast to only 12 hospitals (0.22%) for iris scanning.
Low adoption may be due to the costs in implementing biometrics within existing EHR systems and workflows.
Raymonde Charles Y. Uy et al. November 2015.
“The State and Trends of Barcode, RFID, Biometric and Pharmacy Automation Technologies in US Hospitals.”
AMIA Annual Symposium Proceedings Archive.
Examples of companies/technologies currently being deployed in the US:
“Unisys integrates NEC’s facial recognition software in CBP project at JFK airport.”
Biometric Update. May 2016
NEC‘s top NIST rated facial matching technology will be used to compare the image taken during the normal inspection process to the image stored on the traveler’s e-passport. The initial deployment will apply to first time Visa Waiver Program (VWP) travelers and returning U.S. citizens with e-Passports. … Unisys worked together with NEC to develop this entry/exit screening solution, which allows CBP officers to capture a live facial image. The facial image from electronic passports is then compared to the live captured image. If the images do not match, travelers may be subject to additional screening by CBP officers.
Voting Registration and Rates
Voting Rates in Congressional and Presidential Elections: 1978 to 2014
U.S. Census Bureau.
“Who Votes? Congressional Elections and the American Electorate: 1978–2014.” July 2015.
Figure 2, P. 4.
The Current Population Survey collects data on voting and voter registration in November of even-numbered years, and has done so since 1964. It provides information about voting and registration by many characteristics, including age, sex, race, and education. Because the data are from a survey, they are subject to sampling error.
U.S. Census Bureau. February 2012.
“Table A-1. Reported Voting and Registration by Race, Hispanic Origin, Sex, and Age Groups: November 1964 to 2014 (NOTE: Voting rates corrected February 2012).”
Historical Reported Voting Rates.
Voter Turnout in Presidential Elections: 1828 – 2012
Year % Turnout of Voting Age Population
Note: Voting Age Population includes those ineligible to vote such as felons. Because of this, V.A.P. figures are naturally lower than if the Voting Eligible Population (V.E.P.) is used as the denominator.
Note: Figures for 1960-2012 are also given on the source page, which cites data compiled by Gerhard Peters from data obtained from the Federal Election Commission.
Gerhard Peters and John T. Woolley. Accessed October 24, 2016.
“The American Presidency Project: Voter Turnout in Presidential Elections 1828-2012.”
(1824-1956) – Lyn Ragsdale, Vital Statistics on the Presidency (Washington, D.C.: Congressional Quarterly Press, 1998), 132-38.
Number of People Working in Gov’t 2014/2024
GovTrack aggregates publicly available data on the number of federal laws passed during each two-year Congressional session. Data are available going back to 1973.
Enacted Laws: Enacted bills and joint resolutions (both bills and joint resolutions can be enacted as law)
Passed Resolutions: Passed resolutions (for joint and concurrent resolutions, this means passed both chambers)
Got A Vote: Bills and joint/concurrent resolutions that had a significant vote in one chamber
Failed Legislation: Bills and resolutions that failed a vote on passage or failed a significant vote such as cloture, passage under suspension, or resolving differences
Vetoed Bills (w/o Override): Bills that were vetoed and the veto was not overridden by Congress
Other Legislation: Bills and resolutions that were introduced, referred to committee, or reported by committee but had no further action
GovTrack. Accessed November 3, 2016.
“Congress > Bills > Statistics and Historical Comparison > Bills by Final Status.”
Brookings Institution also aggregates figures on Congressional activity. This data set covers 1947-2013.
Raffaela Wakeman et al. July 9, 2013 (updated August 2014).
“Vital Statistics on Congress: Data on the U.S. Congress – A Joint Effort from Brookings and the American Enterprise Institute.”
In searching for prosthetic device usage rates and forecasts, I’m finding that the most accessible type of data available describes incidence of limb loss and associated prostheses. Data describing usage rates for other types of prostheses and assistive devices has been harder to find (for example, dental prostheses, cochlear implants, artificial heart valves, etc). This summary and set of excerpts focuses on limb loss and associated prostheses.
The CDC, via its National Health Interview Survey, collected data on the number of people using upper and lower limb prostheses. Data was collected in the mid 1990s – I’m not sure if CDC has more recent (or older) figures. (Email inquiry on Oct 6, 2015. No reply as of Oct 8.)
The US Department of Health and Human Services has documented rates of amputation in the US via its Healthcare Cost And Utilization Project (HCUP), although this effort does not document rate of prostheses usage. Estimated rates of prosthesis usage by amputees vary widely.
The National Commission on Orthotic and Prosthetic Education (NCOPE) has published a workforce demand study forecasting prosthesis user figures through 2020. An academic study has forecast amputee figures to 2050. We could apply the usage rate used in the NCOPE study to extrapolate a number of users from that second study.
CC emailed CDC. CC emailed reps from SFB’s Devices & Materials Committee and BMES’s Medical Devices Special Interest Group (including someone from FDA).
Donna Lochner (FDA) is not aware of any centralized repositories for overall prosthetics data, but she made a few suggestions by email: check the Center for Medicare and Medicaid Services (CMS) for the Medicare population, and individual registries by product areas (eg: INTERMACS for mechanically-assisted circulatory support devices; the Society for Thoracic Surgeons and the American College of Cardiology for transcatheter heart valves). Lochner thinks the highest volume implants are intraocular lenses, and this might be an area where CMS data would capture the vast majority of the implants.
Emailed William Polglase of CMS for assistance in interpretting data (10/15).
Emailed Medtech Solutions (recommended by BMES) to ask about general tallies.
Currently, there are an estimated 1.9 million people living with limb loss in the United States, almost half of whom are non-white. At its peak, an estimated 185,000 amputations occurred in 1996 in the United States.
Amputation rates in the total population (including individuals without diabetes, or with peripheral artery disease alone) are not known and active surveillance efforts do not exist.
Limb Loss Task Force/Amputee Coalition. 2012. “Roadmap for Preventing Limb Loss in America: Recommendations From the 2012 Limb Loss Task Force.”
82% [of amputations] are due to Peripheral Vascular Disease and Diabetes. More than 65 percent of amputations are performed on people age 50 and older.
While diseases such as diabetes and peripheral vascular disease are the leading causes of amputation, accidents and war continue to play a major role in driving the limb prosthetics market.
Technological growth and an increasing consumer base of amputees are bolstering the prosthetics market growth, according to an analysis from the business and research consulting firm Frost & Sullivan. The overall prosthetics market in the United States earned revenues of $1.45 billion in 2006 and estimates that number to reach $1.85 billion by 2013. The global dental prosthetics market is estimated to exceed $5 billion. Hip and knee replacements are big drivers of the orthopedic prosthetic market. Over 100,000 cochlea implants are currently in place globally. The limb future prosthetics devices and the accompanying services market are estimated to exceed $5 billion (of which an estimated $3 billion alone is in amputee patient services) in the U.S.
The lack of common standards, a common lexicon and common data collections negatively impact on the ability to assemble precise market data on limb prosthetics. A National Institutes of Health study concluded, “For example, documented rates of prosthesis use vary from 27 to 56 percent for upper-limb amputation (ULA) and from 49 to 95 percent for lower-limb amputation (LLA). A number of studies have attempted to identify variables that explain inconsistent use rates and identify persons less likely to wear and benefit from a prosthesis. Unfortunately, the existing literature is equivocal and limited by a number of factors.”
Research at the Bioengineering Institute of Worcester Polytechnic Institution, University of Utah, University of Washington and the University of Illinois at Chicago are current leaders in osseointegration and limb transplantation research.
Among the sources for this market analysis are:
Walter Reed Army Medical Center
Henry Jackson Foundation
Amputee Coalition of America
Frost & Sullivan
Securities and Exchange Commission
Atlas of Prosthetics
National Institutes of Health
some of the above tallies are from:
Persons Living with Limb Loss, 1996
National Health Interview Survey, Vital Statistics Report, Series 10, No. 200.
New Cases of Limb Loss, 1996
Health Care Utilization Project National Inpatient Sample (HCUP-NIS), 1996.
It is estimated that approximately 199,000 persons in the U.S. were using an artificial limb in 1994, with the majority using an artificial leg or foot (173,000).
Datasource: National Center for Health Statistics,
Disability Report. Table 1
EMAILED firstname.lastname@example.org TO SEE IF ITS BEEN UPDATED
Dr. Grant McGimpsey and Terry C. Bradford. “Limb Prosthetics Services and Devices” [White paper]. Bioengineering Institute Center for Neuroprosthetics, Worcester Polytechnic Institution.
The total number of persons with an amputation, and those using a prosthesis, is expected to increase by at least 47% by the year 2020.
The projected number of persons with amputations (excluding tips of fingers and toes) is based on rates by age group and sex determined in the 1993 Health Interview Survey. These projections (Table VII) assume that the rates will remain stable through the year 2020. The total number of persons with an amputation is expected to increase by 47% between 1995 and 2020. Of the total number of persons with amputations it is estimated that 75% use a prosthesis. The population using a prosthesis is also anticipated to increase by 47% during this time period. With the advent of improved prosthetic designs and lighter materials it is likely that the rate of use may increase, particularly if third party payers become more aware of the benefits of these products.
Projected Number of Persons with Absence of Extremities
(excluding tips of fingers and toes) 2000-2020
Year — Total Number — No. Of Users of Prostheses*
2000 — 1,752,838 — 1,314,629
2005 — 1,904,035 — 1,428,026
2010 — 2,065,993 — 1,549,495
2015 — 2,224,022 — 1,668,017
2020 — 2,382,413 — 1,786,810
*Based on 75% of total numbers of persons with amputations.
Caroline C. Nielsen. 2002 May. “Issues Affecting The Future Demand For Orthotists And Prosthetists:Update 2002.” National Commission on Orthotic and Prosthetic Education
Benson, V and Marano, MA. Current Estimates for the National Health Interview Survey, 1993. National Center for Health Statistics. Vital Health Statistics 10 (190). 1994.
Estimated number of persons with an amputation using a prosthesis (75%) estimated from data in 1) Current Estimates for the National Health Interview Survey, 1993 ; 2) Scremin, A.M. et al. Effect of Age on Progression Through Temporary Prostheses After Below-Knee Amputation. Am. J. of Phys. Med. and Rehab, 1993, and 3)Nielsen, C.C. A Survey of Amputees: Functional Level and Life Satisfaction, Information Needs and the Prosthetist’s Role, JPO, 1991.
NOTE: An updated version of this report was produced for NCOPE in 2015, but it does not provide estimates for the number of prosthesis users. (Instead it calculates the number of O&P doctors in demand.) I’ve written to the author to inquire if that data is available. The updated report is:
Joan E. DaVanzo, Audrey El-Gamil, Steven Heath, et al. 2015. “Projecting the Adequacy of Workforce: Supply to Meet Patient Demand.” National Commission on Orthotic and Prosthetic Education. p.17, Exhibit 5 – 2014 figures. p.19, Exhibit 6 – 2016, 2025 projections.
In the year 2005, 1.6 million persons were living with the loss of a limb. It is projected that the number of people living with the loss of a limb will more than double by the year 2050 to 3.6 million.
Projected Prevalence of Limb Loss by Etiology and Age (in thousands)
Year — Total
2005 — 1,568
2010 — 1,757
2020 — 2,213
2050 — 3,627
…Most striking, however, are the projected trends for the number of people living with the loss of a limb. This increase is related to the aging of the population and the associated increase in the number of people living with dysvascular conditions, especially diabetes. The prevalence of diabetes in the United States is projected to nearly double by the year 2030 solely because of changes in the demographic composition of the population. Our estimates of limb loss reflect, and indeed magnify, these trends. Even assuming that age-, sex-, and race-specific rates of both diabetes and diabetes-related amputations remain unchanged, the number of people with diabetes who are living with the loss of a limb will nearly triple by the year 2050. Overall, the prevalence of limb loss will more than double from 1.6 to 3.6 million people. Given the increase in the prevalence of obesity and the known relationship between obesity and diabetes, a projected increase in the incidence of amputations secondary to dysvascular conditions is likely.
…A goal of Healthy People 2010 is to reduce the number of lower-extremity amputations in persons with diabetes by 55%, from 4.1 per 1000 to 1.8 per 1000 persons.
Ziegler-Graham K, MacKenzie EJ, Ephraim PL, et al. 2008. “Estimating the prevalence of limb loss in the United States: 2005 to 2050.” Archives of Physical Medicine and Rehabilitation, 89(3).
UPDATE 10/27: INTERMACS confirmed tallies for ventricular assist devices from 2006-2015. They estimate that their figures cover 90-95% of the market.
Current injuries data is collected by two federal agencies, the Centers For Disease Control, and the Bureau for Labor Statistics. The CDCs data describes overall injury rates (fatal and nonfatal) going back to 2002. BLS’s data describes work-related injury and illness rates (fatal and nonfatal) going back to 1992 (only 2003 for nonfatal incidents).
The Pardee Center for International Futures produces the most long-ranging forecasts for injury- and illness-related fatalities that I’ve found so far. (As far as I can tell, their forecasts do not included non-fatal incidents.) I’ve taken samples of their data from the top of the decade through 2050, but annual data are available from 2010 through 2100.
Data from all three sources (CDC, BLS, and Pardee) are aggregated in this Google Spreadsheet:
This graphic from a 2011 Pardee paper shows the general trend in fatalities due to injuries versus disease:
Src: Barry B. Hughes, Randall Kuhn, Cecilia M. Peterson, et al. 2011. “Projections of global health outcomes from 2005 to 2060 using the International Futures integrated forecasting model.” Bulletin of the World Health Organization.
I consulted a few different sources of information for illness statistics. The Bureau of Labor Statistics has a very small sample of sick-leave used data (for 2009). Gallup and Healthways also have a small sample of sick-leave data (for 2012). No forecasts are available. Several think tanks are tracking reported rates of chronic illness. A couple forecasts are available. Results are summarized below.
In 2012, researchers from the Bureau of Labor Statistics conducted a one-time tabulation of sick leave provision and usage. The data used were compiled from the 2009 National Compensation Survey, looking only at full-time workers in private industry.
The researchers averaged the amount of sick leave used in each of 6 industry areas (financial activities; information industry; trade, transportation, and utilities; professional and business services; leisure and hospitality; construction). In the first four of those industries, workers used an average of 4 days of sick leave per year. In the last two industries (leisure and hospitality, and construction), workers used an average of 2 days of sick leave per year.
This was a one-time tabulation. Jason Ford says by email that he’s not aware of any forecasts. To his knowledge, additional years of this data are not available.
Ross O. Barthold, Jason L. Ford. 2012 February 29. “Paid Sick Leave: Prevalence, Provision, and Usage among Full-Time Workers in Private Industry.” Bureau of Labor Statistics.
2012 survey data of workers in 14 job categories found that usage of sick days ranged from 6 days per year to 3 days per year. The survey was conducted by Gallup and Healthways as part of Healthways’ annual Well-Being Index report. The survey was administered to 94,000 Americans who work at least 30 hours per week.
Days missed per month
Farmers, Foresters, Fishers: .25
Construction or Mining: .28
School Teacher: .39
Business Owners: .41
Clerical or Office Workers: .44
Service Workers: .47
Note: 24/7 Wall St. performed the analysis of data collected by Gallup-Healthways. Emailed Healthways (9/25) to see if they’re still collecting this data.
Michael B. Sauter, Samuel Weigley and Alexander E.M. Hess. 2013 May 9. “Workers Taking the Most Sick Days.” 24/7 Wall St.
Gallup and Healthways have compiled their Well-Being Index annually since 2008. It’s a “barometer of Americans’ perceptions of their well-being.” The index is compiled based on survey responses to questions about six areas of life: life evaluation, emotional health, work environment, physical health, healthy behavior, basic access.
Physical Health Index
The Physical Health Index is comprised of questions related to: Body Mass Index, disease burden, sick days, physical pain, daily energy, history of disease, and daily health experiences.
Overall Well-Being Score
Over the six years of our well-being measurement, Americans’ life evaluations have improved, emotional health and healthy behaviors have remained stable, and basic access, physical health, and work environment have declined. While there are dozens of trends that have impacted the national score since 2008, the three most prominent ones are:
* Annual decreases in the rate of those with health insurance;
* Rising rates of obesity;
* Declining work environment scores.
Gallup-Healthways Well-Being Index. 2014. “State of American Well-Being.”
Chronic Disease Rates
In 2008, The Milken Institute found that one third of Americans reported having at least one of seven common chronic diseases, with a total of 162.2 million cases in 2003. They forecasted a 42% increase in cases of those diseases by 2023, for a total of 230.7 million cases.
Of the seven chronic diseases, pulmonary conditions were the most common, with 49.2 million cases recorded. Next in prevalence were hypertension, with 36.8 million recorded cases, and mental disorders, with 30.3 million; followed by heart disease at 19.2 million; diabetes at 13.7 million; cancer at 10.6 million; and stroke at 2.4 million.
Ross DeVol, Armen Bedroussian. 2007. “An Unhealthy America: The Economic Burden of Chronic Disease.” Milken Institute.
In 2009, almost half of Americans, 145 million people, had at least one chronic condition. This represented an increase of 10 million people over the estimate that was made in 2002 for the year 2009.
The number of people with chronic conditions reached 125 million in 2000, forecast to reach 147 million by 2010 and 157 million by 2020. By 2030 half the population will have one or more chronic conditions.
2010. “Chronic Care: Making the Case for Ongoing Care.” Robert Wood Johnson Foundation.
Millions of Americans
Src: Wu, Shin-Yi and Anthony Green. Projection of Chronic Illness Prevalence and Cost Inflation. RAND Corporation; October 2000. (unavailable online)
Soeren Mattke, Lisa Klautzer, Tewodaj Mengistu, et al. 2010. “Health and Well-Being in the Home.” RAND Corporation.
The Marshall Protocol Knowledge Base. 2012. “Incidence and Prevalence of Chronic Disease.” Autoimmunity Research Foundation.
The CDC tracks U.S. dietary supplement usage (which includes multivitamins and multiminerals) via its National Health and Nutrition Examination Survey (NHANES), which began in the 1970s. In 2011, the CDC said over half of U.S. adults were taking dietary supplements.
Overall usage trend:
Usage prevalence percentages for adults over 20:
Vitamin D use by age group and gender:
Gahche J, Bailey R, Burt V, et al. 2011. “Dietary Supplement Use Among U.S. Adults Has Increased Since NHANES III (1988–1994).” NCHS data brief, no 61. Hyattsville, MD: National Center for Health Statistics.
Madison Park. 2011 April 13. “Half of Americans Use Supplements.” CNN.
Euromonitor tracks the vitamins and dietary supplements (VDS) market. In 2013, they estimated that the market would grow at a CAGR of 4% between 2013 and 2018 to reach $112 billion in 2018.
Euromonitor (via Reportlinker). 2013. “Global Vitamin and Supplement Industry Overview.”
Statistics describing dental services and usage rates are collected as part of the previously cited Medical Expenditure Panel Survey (MEPS topics: Dental Visits/Use/Events and Expenditures). Unfortunately, the publications that summarize this data often do not include procedure-level details, but instead focus on dental expenditure on the whole as a percentage of health spending.
One exception I’ve found is a paper from 2007 comparing detailed statistics from 1996 and 2004. Here are relevant excerpts:
The total number of procedures increased from about 496 million in 1996 to about 572 million in 2004.
Distribution of dental procedures
1996 2004 Diagnostic 40.2% 42.5% Preventive 29.0% 30.4% Restorative 8.2% 6.9% Prosthetic 7.3% 6.4% Oral surgery 4.1% 3.3% Periodontic 0.9% 0.9% Endodontic 2.1% 1.7% Orthodontic 6.8% 6.9% Other* 1.5% 1.0%
Diagnostic includes exams and x-rays.
Preventative includes cleanings, flouride, sealants and recall visits.
Restorative includes fillings and inlays.
Prosthetic procedures include crowns, bridges, and dentures.
Periodontic procedures include gums.
Endodontic procedures include root canals.
Orthodontic procedures include braces.
Other includes any other dental service not included above.
Richard J. Manski and Erwin Brown. 2007. “Dental Use, Expenses, Private Dental Coverage, and Changes, 1996 and 2004.” Agency for Healthcare Research and Quality, Rockville, MD.
Co-author Richard Manski (rmanski AT umaryland DOT edu) has written a couple of foreward-looking papers for RAND. I’ve emailed him to ask if he is aware of any ~10-year forecasts for dental braces usage.
EDIT: Manski is unaware of any forecasts.
Dental raw data from the on-going MEPS survey is available here: MEPSnet/HC Trend Query. Raw data for orthodontic visits in 2012 is here, for example: 2012 Full Year Person-Level File. DVGEN12 – # GENERAL DENTIST VISITS 12. Assistance in interpreting the data would be helpful.
“Driven by population growth and aging, the total number of office visits to primary care physicians is projected to increase from 462 million in 2008 to 565 million in 2025. After incorporating insurance expansion, the United States will require nearly 52,000 additional primary care physicians by 2025.”
Petterson, Stephen M., Winston R. Liaw, Robert L. Phillips, David L. Rabin, David S. Meyers, and Andrew W. Bazemore. 2012. “Projecting US Primary Care Physician Workforce Needs: 2010-2025.” The Annals of Family Medicine 10 (6): 503–9.
The study was based on data from the annual Medical Expenditure Panel Survey (MEPS), conducted by the U.S. Department of Health & Human Services.
In addition to the MEPS data, the CDC also produces annual estimates of physician office visits, as well as hospital visits via it’s National Ambulatory Medical Care Survey (NAMCS) as well as its National Hospital Ambulatory Medical Care Survey (NHAMCS). Tables of recent survey results are available here. We’ve not yet found a forecast for hospital visits, but we’ve aggregated NAMCS and NHAMCS figures going back to 2000 here.
Every year, The Millennium Project (MP) computes a “State of the Future Index” looking 10 years into the future, based on data from the previous 20 or more years. The index calculation is based on values for multiple, individually-forecast key variables (28 in 2015). The index is calculated globally, as well as for individual countries. The overall index is intended to show the direction of things to come.
For our purposes the forecasts for the 28 individual variables are of most interest. MP breaks the variables into two groups: those showing improvement, and those showing decline. The values for the individual variables (previous actual, and forecast) are displayed within the shaded area of the charts.
Src: Gordon, Theodore J. 2015. “2015 State of the Future Index.” The Millennium Project.
Charts for each indicator, and a brief indication of the source for the data are in this PDF.
The Millennium Project is an independent non-profit global participatory futures research think tank of futurists, scholars, business planners, and policy makers who work for international organizations, governments, corporations, NGOs, and universities. Their annual report collects and assesses judgments from over 3,000 people selected by its 56 nodes around the world.