Abdollahi 2020 [9] |
Low back |
94 patients, age 20–50 years |
Classification |
ML can effectively classify pain intensity based on quantitative kinematic data |
Lee 2019 [12] |
Low back |
53 patients, age 18–60 years |
Classification |
ML can effectively classify intensity of evoked pain |
Liew 2020 [13] |
Low back |
33 patients and 16 controls, age 18–55 years |
Classification |
ML can effectively classify pain intensity using electromyographic and kinematic data |
Rahman 2018 [15] |
Various causes |
782 patients |
Manifestation |
ML can effectively measure and predict pain volatility |
Santana 2019 [16] |
Low back fibromyalgia |
60 patients and 98 controls, age 18–55 years |
Classification |
ML can effectively classify pain intensity using fMRI data |
Snyder 2021 [18] |
Low back |
10 subjects |
Manifestation |
ML can classify the relative risk of low back pain due to lifting activities, using gyroscope and accelerometer data |
Kimura 2021 [21] |
Osteoarthritis |
23 patients, age 44–80 years |
Classification |
ML can effectively classify pain using EEG data |
Levitt 2020 [26] |
Spinal cord injury |
37 patients and 20 controls, age ≥ 25 years |
Classification |
ML can effectively classify pain using EEG data |
Rojas-Mendizabal 2021 [29] |
Thoracic |
256 patients |
Classification |
ML can effectively classify pain using demographic and clinical data |
Gruss 2015 [25] |
Evoked heat pain |
85 subjects, age 18–65 years |
Classification |
ML can effectively classify evoked pain using biopotential data |
Santra 2020 [17] |
Low back |
30 patients |
Diagnosis |
ML can effectively diagnose the cause of low back pain |
Rogachov 2018 [30] |
Ankylosing spondylitis |
71 patients and 62 controls, age 18–61 years |
Classification |
ML can effectively classify pain using fMRI data |
Grauhan 2021[11] |
Shoulder |
2442 patients |
Diagnosis |
ML can effectively diagnose the cause of shoulder pain analysig plain X-rays |
Darvishi 2017 [10] |
Low back |
92 patients and 68 controls, age 29–50 years |
Manifestation |
ML can predict development of work-related low back pain |
Miettinen 2021 [14] |
Various causes |
277 patients, age 18–77 years |
Classification |
ML can effectively predict pain based on sleep patterns |
Fernandes 2017 [20] |
Osteoarthritis |
1822 subjects, age 40–79 years |
Manifestation |
ML can effectively predict pain manifestation in community-based population using clinical data |
Lotsch 2020 [22] |
Rheumatoid arthritis |
288 patients, age 18–70 years |
Manifestation |
ML can effectively predict pain manifestation using demographic and clinical data |
Tighe 2020 [24] |
Post-surgery |
8071 subjects, age > 21 years |
Manifestation |
ML can effectively predict acute pain manifestation using clinical data |
Tan 2020 [31] |
Labor |
20,716 subjects |
Manifestation |
ML can effectively predict pain manifestation during labor using clinical data |
Juwara 2020 [28] |
Cancer |
195 subjects, mean age 56 years |
Manifestation |
ML can effectively predict manifestation of neuropathic pain using clinical data |
Goldstein 2020 [33] |
Low back pain |
65 patients, age 21–70 |
Manifestation |
ML can effectively predict pain manifestation based on clinical data |
Yang 2018 [32] |
Sickle cell disease |
40 patients |
Classification |
ML can predict pain intensity using physiological parameters |
Pouromran 2021 [27] |
Evoked heat pain |
87 subjects, age 18–65 years |
Classification |
ML can predict pain intensity using electrophysiological parameters |
Parthipan 2019 [23] |
Post-surgery |
4306 subjects, mean age 58 years |
Management |
ML can effectively predict the required opioids dose for pain management |
Ahn 2018 [19] |
Osteoarthritis |
40 patients, age 50–70 years |
Management |
ML demonstrated the effect of transcranial direct current stimulation (tDCS) in the management of pain |
Wang 2021 [34] |
Cancer |
746 subjects |
Management |
ML can effectively predict whether patients should receive local treatment for pain due to bone metastases |