Skip to content
Sungho ParkRESEARCH & DISCOVERY
← All writing

Reference value

Pulse Wave Velocity Reference Values by Age and Measurement Method

Vascular health · reference values

Pulse Wave Velocity Reference Values by Age and Measurement Method

Compare published pulse wave velocity (PWV) reference values by age and measurement method, including 4D flow MRI, 2D phase-contrast MRI, and carotid–femoral PWV (cfPWV). If you are looking for normal PWV by age, start with healthy cohorts that match your method and arterial segment. The plots include different participant populations, so check each study before selecting a reference for your data.

How to compare PWV values

Start with a study that matches your measurement method, arterial segment, and participant population. MRI-derived aortic PWV and tonometry-derived cfPWV sample different pathways, and reported values also depend on distance and transit-time estimation. The plotted study summaries should therefore be read as method-specific context rather than one universal normal range.

Related resources

For blood-pressure-related interpretation, see total, structural, and load-dependent PWV. For ventricular filling measurements, explore the 4D flow MRI E/A reference resource.

Page updated: . This update adds related reading and improves mobile chart readability.

For interpretation alongside age and measurement method, read how structural and load-dependent stiffness contribute to PWV. For broader context, see the 4D flow MRI research hub, the 4D flow MRI E/A reference values, or use the online group comparison tool for exploratory analysis.

PWV by age

Points are published study summaries, not individual measurements. Colors identify methods: 4D flow MRI red, 2D PC MRI teal, cfPWV blue. A line joins age bands only within a study.

Values behind the plot

StudyMethod / summaryAge (years)PWV (m/s)

Measurement context

4D flow MRI estimates aortic PWV from time-resolved three-dimensional flow and a defined aortic path. 2D PC MRI measures flow at selected planes, often across an aortic segment. cfPWV uses carotid-to-femoral pulse transit and a surface distance. Values from different routes or transit-time algorithms are shown side by side for comparison, not pooled into one clinical threshold.

Study details and sources

[1] Johnson, Ethan MI, et al. “Global aortic pulse wave velocity is unchanged in bicuspid aortopathy with normal valve function but elevated in patients with aortic valve stenosis: insights from a 4D Flow MRI study of 597 subjects.” Journal of Magnetic Resonance Imaging 57.1 (2023): 126-136.

Age (# of participants)median PWV [m/s]
< 30 years (16)4.9 m/s
30–40 years (20)5.4 m/s
40–50 years (20)6.3 m/s
50–60 years (24)7.3 m/s
60–70 years (19)7.8 m/s
70 years < (25)8.5 m/s

Total number of healthy participants: 124
PWV measurement method: (I) 4D flow MRI, and (II) cross-correlation algorithm

Please click HERE to be redirected to the paper.

[2] van Hout, Max J., et al. “Normal and reference values for cardiovascular magnetic resonance-based pulse wave velocity in the middle-aged general population.” Journal of Cardiovascular Magnetic Resonance 23.1 (2021): 46.

Agemean PWV [m/s] [95% CI]median PWV [m/s] [10–90th pc]
45–50 years5.4 [5.3–5.6]5.4 [4.6–6.5]
50–55 years5.8 [5.6–5.9]5.6 [5.0–6.5]
55–60 years6.1 [5.8–6.5]6.0 [5.0–7.1]
60–65 years6.8 [6.5–7.0]6.8 [5.7–7.9]

Total number of healthy participants: 397
PWV measurement method: (I) 2D PC MRI; (II) Weighted mean of PWV across the (1) both the ascending and the proximal descending aorta, (2) just below the diaphragm perpendicular to the descending aorta and (3) just above the bifurcation of the abdominal aorta; (III) Foot-to-foot transit time method

Age (Men)mean PWV [m/s] [95% CI]median PWV [m/s] [10–90th pc]
45–50 years5.6 [5.3–6.0]5.5 [4.9–6.8]
50–55 years5.8 [5.6–6.1]5.8 [5.1–6.5]
55–60 years6.2 [5.8–6.7]6.1 [5.3–7.8]
60–65 years6.6 [6.2–7.1]6.8 [5.4–8.0]
Age (Women)mean PWV [m/s] [95% CI]median PWV [m/s] [10–90th pc]
45–50 years5.3 [5.1–5.5]5.2 [4.6–6.1]
50–55 years5.7 [5.5–5.9]5.6 [5.0–6.5]
55–60 years6.1 [5.7–6.5]5.8 [5.0–7.0]
60–65 years6.8 [6.5–7.1]6.8 [5.7–7.9]

Healthy participants had blood pressure within the normal range (<130/80 mmHg). This group was further subdivided into men and women. The study also evaluates stage 1 and stage 2 hypertension, providing both normal and reference PWV values. Body mass index for total populations (n=1,394) is 25.4 ± 3.7.

Please click HERE to be redirected to the paper.

[3] Dushfunian, David, et al. “Robustness of 4D flow MRI derived aortic wall shear stress and pulse wave velocity across different protocols in healthy controls and in patients with bicuspid aortic valve.” The International Journal of Cardiovascular Imaging 41.1 (2025): 137-149.

Type: no previous cardiovascular disease or intervention
Total number of participants: 38 (22 males)
PWV measurement method: (I) 4D flow MRI, and (II) cross-correlation algorithm
Remarks: Age-matched BAV patients’ PWV were compared.

Please click HERE to be redirected to the paper.

[4] Wang, Bingyi, et al. “Highly Accelerated Aortic 4D Flow MRI: Implications for Pulse Wave Velocity Measurements.” Journal of Magnetic Resonance Imaging (2025).

Exclusion criteria: contraindications to MRI, pregnancy, and a history of cardiovascular diseases.
Total number of participants: 16 (8 males)
PWV measurement method: (I) 4D flow MRI, and (II) cross-correlation algorithm
Remarks: This is an interesting study evaluating the feasibility of compressed sensing (CS) across acceleration factors from R = 4.4 to 20.5. Maximum velocity and flow rates were compared, and the impact on PWV estimation was further assessed using time-to-foot, time-to-median, cross-correlation, fitting plane, and maximum likelihood estimation methods.

Please click HERE to be redirected to the paper.

[5] Reference Values for Arterial Stiffness’ Collaboration. “Determinants of pulse wave velocity in healthy people and in the presence of cardiovascular risk factors:‘establishing normal and reference values’.” European heart journal 31.19 (2010): 2338-2350.

Exclusion criteria: Identified genetic cause of hypertension; overt cardiovascular disease; treated for hypertension or dyslipidaemia.
Total number of participants: 11,092
PWV measurement method: Carotid–femoral pulse wave velocity
Remarks: 13 centres distributed across eight European countries. This study further investigates PWV according to the age and blood pressure category (optimal, normal, high normal, Grade I hypertention, and Grade II/III hypertention).

Please click HERE to be redirected to the paper.

[6] Riedl, Katharina A., et al. “Associations between cardiovascular risk factors and diseases with aortic pulse wave velocity and aortic distensibility: magnetic resonance imaging in the Hamburg city health study.” Clinical Research in Cardiology 115 (2026): 1389-1399.
PopulationWithout cardiovascular risk factors or cardiovascular disease
Number of participants139
PWV [m/s]; median [IQR]5.80 [4.91–7.19]

PWV measurement method: (I) 2D PC MRI; (II) ascending-to-descending aortic transit time; (III) PWV 50% algorithm using the time at half of peak flow.
Remarks: Healthy subgroup of the Hamburg City Health Study. The reported median age of 66.5 [59.0–72.0] years applies to the full CMR cohort (n = 2,270), not specifically to this subgroup. Values are median [25th–75th percentile].

Please click HERE to be redirected to the paper.


Hypertensive or at-risk individuals

[1] Pewowaruk, Ryan, et al. “Effects of Blood Pressure Control on Arterial Stiffness Mechanisms in SPRINT: A Randomized Controlled Trial.” Hypertension 82.6 (2025): 1004-1011.

Presented as median (25th, 75th percentile)

Exclusion criteria: the presence of atrial fibrillation.
PWV measurement method: Carotid–femoral pulse wave velocity
Remarks: This study separates conventionally measured PWV into two components:
(1) structural PWV, which reflects age-related, intrinsic arterial stiffness, and
(2) load-dependent PWV, which increases as blood pressure loads the arterial wall fibers.

It is not surprising that intensive blood pressure treatment reduces blood pressure dependent arterial loading.

What is noteworthy for me, however, is that age-related arterial stiffening—assessed by both measured and structural PWV—shows limited responsiveness to blood pressure intervention, underscoring its independence from short-term hemodynamic changes.

Please click HERE to be redirected to the paper.


Overweight or diabetes mellitus

[1] Smith, Andrew, et al. “Aortic pulse wave velocity and albuminuria in patients with type 2 diabetes.” Journal of the American Society of Nephrology 16.4 (2005): 1069-1075.

Type: Type 2 Diabetes
Total number of participants: 134
PWV measurement method: (I) carotid-femoral tonometry

Please click HERE to be redirected to the paper.

[2] Abushamat, Layla A., et al. “Obesity dominates early effects on cardiac structure and arterial stiffness in people with type 2 diabetes.” Journal of hypertension 41.11 (2023): 1775-1784.

Type: Overweight participants without type 2 diabetes
Total number of participants: 27–31
Remark: Overweight (BMI > 25 kg/m2)

Type: Overweight participants with type 2 diabetes
Total number of healthy participants: 16–20
Remark: Overweight (BMI > 25 kg/m2)

Please click HERE to be redirected to the paper.


Bicuspid aortic valve

[1] Dushfunian, David, et al. “Robustness of 4D flow MRI derived aortic wall shear stress and pulse wave velocity across different protocols in healthy controls and in patients with bicuspid aortic valve.” The International Journal of Cardiovascular Imaging 41.1 (2025): 137-149.

Type: no surgical intervention required
Total number of participants: 10 (7 males)
PWV measurement method: (I) 4D flow MRI, and (II) cross-correlation algorithm
Remarks: Age-matched controls’ PWV were compared.

Please click HERE to be redirected to the paper.