SUPERSEDED Local Coverage Determination (LCD)

Platelet Rich Plasma Injections for Non-Wound Injections


Expand All | Collapse All
Proposed LCD
Proposed LCDs are works in progress that are available on the Medicare Coverage Database site for public review. Proposed LCDs are not necessarily a reflection of the current policies or practices of the contractor.
To see the currently-in-effect version of this document, go to the section.

Document Note

Note History

Contractor Information

LCD Information

Document Information

Source LCD ID
Original ICD-9 LCD ID
Not Applicable
LCD Title
Platelet Rich Plasma Injections for Non-Wound Injections
Proposed LCD in Comment Period
Source Proposed LCD
Original Effective Date
For services performed on or after 01/23/2022
Revision Effective Date
For services performed on or after 01/23/2022
Revision Ending Date
Retirement Date
Notice Period Start Date
Notice Period End Date

CPT codes, descriptions, and other data only are copyright 2023 American Medical Association. All Rights Reserved. Applicable FARS/HHSARS apply.

Fee schedules, relative value units, conversion factors and/or related components are not assigned by the AMA, are not part of CPT, and the AMA is not recommending their use. The AMA does not directly or indirectly practice medicine or dispense medical services. The AMA assumes no liability for data contained or not contained herein.

Current Dental Terminology © 2023 American Dental Association. All rights reserved.

Copyright © 2024, the American Hospital Association, Chicago, Illinois. Reproduced with permission. No portion of the AHA copyrighted materials contained within this publication may be copied without the express written consent of the AHA. AHA copyrighted materials including the UB‐04 codes and descriptions may not be removed, copied, or utilized within any software, product, service, solution, or derivative work without the written consent of the AHA. If an entity wishes to utilize any AHA materials, please contact the AHA at 312‐893‐6816.

Making copies or utilizing the content of the UB‐04 Manual, including the codes and/or descriptions, for internal purposes, resale and/or to be used in any product or publication; creating any modified or derivative work of the UB‐04 Manual and/or codes and descriptions; and/or making any commercial use of UB‐04 Manual or any portion thereof, including the codes and/or descriptions, is only authorized with an express license from the American Hospital Association. The American Hospital Association (the "AHA") has not reviewed, and is not responsible for, the completeness or accuracy of any information contained in this material, nor was the AHA or any of its affiliates, involved in the preparation of this material, or the analysis of information provided in the material. The views and/or positions presented in the material do not necessarily represent the views of the AHA. CMS and its products and services are not endorsed by the AHA or any of its affiliates.


Issue Description

This is a NON-coverage policy for all Platelet Rich Plasma Injections and/or applications as a means of managing musculoskeletal injuries and/or joint conditions.

Issue - Explanation of Change Between Proposed LCD and Final LCD


CMS National Coverage Policy

Title XVIII of the Social Security Act, §1862(a)(1)(A) allows coverage and payment for only those services that are considered to be reasonable and necessary for the diagnosis or treatment of illness or injury or to improve the functioning of a malformed body member.

Title XVIII of the Social Security Act, §1862(a)(1)(D) addresses services that are determined to be investigational or experimental.

CMS Internet-Only Manual, Pub. 100-02, Medicare Benefit Policy Manual, Chapter 16, §10 General Exclusions from Coverage

CMS Internet-Only Manual, Pub. 100-03, Medicare National Coverage Determinations (NCD) Manual, Chapter 1, Part 4, §270.3 Blood-Derived Products for Chronic Non-healing Wounds.1 Effective August 2, 2012, updated 4/13/21, the Centers for Medicare and Medicaid Services (CMS) has determined that platelet-rich plasma (PRP) – an autologous blood-derived product, will be covered for the treatment of chronic non-healing diabetic wounds under section 1862(a)(1)(A) for a duration of 20 weeks, when prepared by devices who FDA cleared. Indications include the management of exuding cutaneous wounds, such as diabetic ulcers.

CMS Internet-Only Manual, Pub. 100-04, Medicare Claims Processing Manual, Chapter 23, §30A Physician’s Services

CMS Internet-Only Manual, Pub. 100-04, Medicare Claims Processing Manual, Chapter 30, §50.3.1 Mandatory ABN Uses

Coverage Guidance

Coverage Indications, Limitations, and/or Medical Necessity

This is a NON-coverage policy for all Platelet Rich Plasma Injections and/or applications as a means of managing musculoskeletal injuries and/or joint conditions.

Summary of Evidence


Platelet-rich plasma (PRP) is defined as a platelet-rich concentrate with platelet levels greater than the baseline platelet count in whole blood. This autologous derived substance, also referred to as autologous platelet-derived growth factors, platelet gel, platelet-rich concentrate, autogenous platelet gel, plasma rich in growth factors, or platelet releasate, has been proposed for the treatment of multiple conditions to enhance healing. Theoretically, these growth factors function as a mitogen for fibroblasts, smooth muscle cells, osteoblasts, and vascular endothelial growth factors.2,3 While PRP may work by activating the innate immune response and stimulating tissue anabolism, its precise mechanism of action is still unclear.3 The role that white blood cells may play is particularly unclear, as the immune cells may act as antimicrobial and/or proinflammatory agents. Furthermore, PRP preparations are not standardized and exhibit wide variability in platelet and white blood cell concentrations and the use of thrombin activators. How variations in PRP composition may impact clinical outcomes is also unclear.4 Mishra et al.5 proposed classifying these types in 3 categories: the presence of white blood cells (e.g., leukocyte-rich or - poor), whether the PRP is activated or not, and the concentration of platelets.

Several factors have contributed to the growing popularity of biologic therapies despite the dearth of high-quality clinical trials supporting their use. Musculoskeletal conditions are both severe and prevalent. Conventional treatment, for the most part, is lacking in success. Platelet-rich plasma has the appeal of a simple, minimally invasive treatment with little regulation, which can be easily administered via local injection by clinicians. In addition, the biotechnology companies that manufacture the equipment used to assist in producing these therapies have conducted nationwide marketing directly to clinicians and consumers, touting success with high profile professional athletes.

A collection and preparation system is used to collect a small sample of blood at the patient’s point of care or clinical laboratory. The systems used for preparing autologous platelet-derived growth factors are Federal Drug Administration (FDA) approved under the 510(k) process. While the technology to obtain PRP is FDA-approved, PRP itself is currently not indicated for direct injection. Centrifugation of this blood sample separates the denser red cells from the plasma. The plasma components are divided into a buffy coat and an adjacent layer. The buffy coat contains leucocytes and most of the platelets. The adjacent layer of plasma is less rich in platelets and has few leucocytes.6

There are various techniques used to harvest the buffy coat, the adjacent plasma layer, or both. Some methods concentrate the buffy coat further using a "double spin" technique. This process involves a second centrifugation of the supernatant obtained from the initial centrifugation and produces a more concentrated sample. Depending on the method used, the number of platelets in PRP varies between 1 and 9 times that of whole blood. Techniques that produce higher platelet concentrations (e.g., double spin) typically produce higher leucocyte concentrations. Hence, PRP is often referred to as leucocyte rich (LR-PRP) or leucocyte poor (LP-PRP).7

Some practitioners add exogenous calcium salts to the PRP before administration to ensure platelet activation, while others assume that contact with tendon collagen will suffice.8 PRP composition can also differ by donor age, health status, gender, and even time of day when collected.9

Administration protocols also vary per type of injury. PRP may be injected using a peppering technique, whereby the PRP is injected with several penetrations of the tendon from a single skin penetration10 or may be injected directly into a joint. The frequency of injections varies. For tendon conditions, one to four intratendinous injections are given over two weeks. Joint conditions typically have three injections within a 6-month time frame, usually performed 3-4 weeks apart.11 A local anesthetic is often utilized, and an ultrasound (US) may provide guidance. Local anesthetics may compromise the efficacy of the PRP.12 Patients need to refrain from non-steroidal anti-inflammatory medications for two weeks before harvesting due to the effect on platelet function.13 There are no accepted exercise protocols or return-to-sport guidelines following PRP treatment. PRP usage can be broadly separated into three categories which will be discussed further: primary treatment for tendinopathies/non-tendon inflammation, the surgical augmentation of repairs, and primary treatment for osteoarthritis.

Primary Treatment for Tendinopathies/Non-Tendon Inflammation

The evidence regarding PRP treatment of tendinopathies/non-tendon inflammation includes multiple randomized control trials (RCT) and systematic reviews with meta-analyses (SR/MA). Typical outcomes are pain relief and functional status. The literature is clustered around usage for the following: lateral epicondylitis (LE), carpal tunnel syndrome (CTS), rotator cuff (RC) tears, plantar fasciitis (PF), Achilles tendinopathy (AT), and patellar tendinopathy (PT).

Andia3 conducted a review of over 1500 patients treated with PRP for tendinopathies in 58 studies evenly distributed between lower and upper extremities. Six of these were of Level 1 Evidence Quality, primarily utilizing LR-PRP. Given the heterogeneity in tendinopathies and preparation of PRP, they concluded the data was insufficient to make a recommendation for treatment.

A 2014 systematic review of 19 randomized and quasi-randomized trials of PRP for musculoskeletal soft tissue injuries, involving 1088 participants, noted no difference in clinically meaningful outcomes.14 The quality of these studies was limited by small numbers of participants, non-standardization of treatment preparation, and outcome measures that focused on subjective pain scores rather than more objective measures of tendon tissue healing or improvement in function. Additional limitations were the lack of accounting for other confounding factors, such as differentiation between an overuse injury vs. degenerative tendon rupture and whether or not bursal involvement was present. As previously stated, the role of leukocytes in tendon healing is controversial, but the few randomized trials that differentiated between LR-PRP and LP-PRP suggest that LR-PRP may be more effective in the treatment of tendinopathies.15 The evidence, examined in detail below, is insufficient to determine the benefit of PRP on health outcomes for tendinopathies/non-tendon inflammation.

Lateral epicondylitis

Lateral epicondylitis (LE), commonly known as “tennis elbow”, affects approximately 1-3% of the population, with men and women equally represented. An overuse injury is characterized by angiofibroblastic hyperplasia.16 Patients typically complain of pain for 6-12 weeks, but in some cases, pain can persist for up to 2 years. Eighty percent recover with no treatment.17 Although self-limiting, this condition still results in disability, lost productivity, and health care utilization costs. Conservative efforts include non-steroidal anti-inflammatory drugs, orthotic devices, physical therapy, glucocorticoid injection, and extracorporeal shock wave therapy.

The Washington State Health Care Authority18 recently published a comprehensive health technology assessment, in which they examined the efficacy and safety of PRP when used in the patient with recalcitrant LE (> 6 months duration). The authors included 5 RCTs that compared PRP with corticosteroid injection (CS)19-23 and 2 RCTs that compared PRP with an anesthetic.10,24 In the short term, neither CS nor local anesthetic differed from PRP regarding pain or function. While in the intermediate term, low quality evidence suggested PRP was superior to CS (P = 0.007) for pain and function, but not local anesthetic (P = 0.08). In the long term, low quality evidence suggested PRP and CS were not different (P = 0.11), but PRP was superior to local anesthetic (P < 0.00001).

Stratification of systematic review/meta-analysis (SR/MA) of 8 randomized controlled trials (RCT) by Mi et al.25 found that treatment with PRP appeared to be more effective than CS at intermediate term (12 weeks) and long term (6 months and one year) intervals, whereas CS demonstrated superiority in the short term (2-8 weeks).

Montalvan et al.26 conducted a RCT, which found that 2 US guided PRP injections in 25 patients were no more efficacious than saline injections at 6 and 12 months on either pain score reduction or functional improvement. Mishra et al.10 conducted a RCT of 112 patients with LE comparing LR-PRP and bupivacaine injections, concluding there were no differences in global pain scores at 12 weeks. Schoffl found no significant difference between PRP vs. saline in functional improvement at three months in a double-blinded (DB) RCT of 50 patients.27

Li et al.28 conducted a systematic review and meta-analysis to compare the effectiveness of PRP vs. corticosteroids for treatment of patients with lateral elbow epicondylitis. Five RCTs were included in the meta-analysis. Authors concluded local corticosteroid injections demonstrated significantly lower DASH scores compared with local PRP treatments during short-term follow-up (4 weeks and 8 weeks post-treatment). Whereas, at long-term follow-up (24 weeks post-treatment), PRP injections significantly improved pain and function more than corticosteroid injections. Study limitations include small sample size, varying follow-up times, and high to unclear risk of bias in included trials.

Simental-Mendia et al.29 performed a systematic review and meta-analysis to compare the effects of PRP injection vs. placebo (saline injection) on pain and joint function in lateral epicondylitis in randomized placebo-controlled trials. Five RCTs comprised of 276 patients were included. Authors reported no difference in improvement regarding joint pain and function between the PRP and placebo injection groups. Study limitations include small sample size, high heterogeneity across trials, possible confounding, lack of technique protocols, and various tools used to report outcomes.

Tang et al.30 conducted a systematic review, pairwise and network meta-analysis of RCTs to compare PRP, autologous blood (AB) and corticosteroid injections for lateral epicondylitis. Twenty RCTs with 1271 patients were included in this study. Pain intensity, strength, and function were outcomes measured with standardized assessment tools. Authors concluded PRP achieved more improvement than the comparators among pain intensity and function long term whereas, corticosteroids achieved the most improvement in the short term follow up.

Linnanmaki et al.31 performed a parallel group, randomized, controlled participant- and assessor-blinded study including adults with clinically diagnosed LE. The participants were recruited from a secondary referral center after not responding to initial nonoperative treatment. One hundred nineteen participants were randomized to receive PRP, saline, or autologous blood. Follow-up visits were at 4, 8, 12, 26, and 52 weeks after the injection. The primary outcome measure was improvement in pain, measured with Visual Analog Scale (VAS) in a 0-10 range, without specification as to whether the pain was activity related or at rest, from baseline to 52 weeks. The secondary outcomes were the Disabilities of the Arm, Shoulder, and Hand (DASH) score. There were no clinically significant differences in the mean VAS pain or DASH scores among the groups at any timepoint. Level of evidence Level II therapeutic study.

One small study looked at PRP as an alternative to operative management. Mayo Clinic32 conducted a non­randomized trial where 15 patients were treated with a series of 2 LR-PRP injections, and 18 patients were treated with surgery. Outcome measures included time to pain-free status, time to a full range of motion (ROM), the Mayo Elbow Performance Score (MEPS), and the Oxford Elbow Score (OES). Successful outcomes were observed in 80% of patients treated with PRP and 94% of those treated operatively (P = 0.37). A statistically significant improvement was noted in both time to full ROM (42.3 days for PRP vs. 96.1 days for surgery; P < 0.01) and time to pain-free status (56.2 days for PRP vs. 108.0 days for surgery; P < 0.01). No significant difference was found in return-to-activity rates, overall successful outcomes, MEPS scores, or OES scores.

Overall, the current evidence suggests that PRP may yield some long-term benefits that are not apparent before six months, particularly when compared with CS. However, the quality of evidence is limited by sample size too small to be sufficiently powered and lack of correction for multiple comparisons.

Carpal Tunnel Syndrome

Literature reports comparing 5% Dextrose in Water (D5W), CS and PRP injections with non-surgical management of carpal tunnel syndrome (CTS) were systematically reviewed by Lin et al.33 Ten studies with 497 patients comparing five treatments (D5W, PRP, splinting, CS, and normal saline (NS)) were included. The primary outcome was the standardized mean difference (SMD) of the symptom severity and functional status scales of the Boston Carpal Tunnel Syndrome Questionnaire 3 months after injections. The results showed that D5W injection was likely to be the best treatment, followed by PRP injection, in terms of clinical effectiveness in providing symptom relief. For functional improvement, splinting was ranked higher than PRP and D5W injections. Lastly, CS and saline injections were consistently ranked fourth and fifth in terms of therapeutic effects on symptom severity and functional status. D5W and PRP injections are more effective than splinting and corticosteroid or saline injection for relieving the symptoms of CTS. Compared with splinting, D5W and PRP injections do not provide better functional recovery.33

In 2009, the UK National Institute for Health and Clinical Excellence (NICE) stated that current evidence on PRP's safety and efficacy for tendinopathy is inadequate in quantity and quality.34 This was reiterated in recent systematic reviews of the evidence.35

Rotator Cuff Tears

Rotator cuff (RC) tears are a common clinical problem in the geriatric population with rates as high as 80% in those over age 80, and debate exists over how to best provide pain relief and restore shoulder function. Treatment options can be broadly divided into non-surgical and surgical, with most patients initially placed on a trial of conservative therapy. A primary concern with RC repairs in older patients is decreased vascularity and healing potential of the tendons. With more inadequate healing, there is an increased risk of re-rupture, and older age is associated with higher rates of failure following repair. For those with irreparable RC tears, low functional demand, or interest in nonoperative management, there are many non-surgical treatments to consider, including rehabilitation and injections of CS, hyaluronic acid (HA), and PRP.

Several meta-analyses have been published, but none have focused exclusively on level 1 RCTs until Chen’s work.36

Eighteen Level I studies were evaluated. The VAS scores were significantly improved short term (-0.45 [95% CI, - 0.75 to -0.15]; P < 0.01). Sugaya grade IV and V retears in PRP-treated patients were significantly reduced long term (odds ratio [OR], 0.34 [95% CI, 0.20-0.57]; P < 0.01). In PRP-treated patients with multiple tendons torn, there were reduced odds of retears (OR, 0.28 [95% CI, 0.13-0.60]; P < 0.01). Long-term odds of retears were decreased, regardless of leukocyte content (LP-PRP: OR, 0.36 [95% CI, 0.16-0.82]; LR-PRP: OR, 0.32 [95% CI, 0.16-0.65]; all P < 0.05) or usage of gel (non-gel: OR, 0.42 [95% CI, 0.23-0.76]; gel: OR, 0.17 [95% CI, 0.05­0.51]; all P < 0.01). The conclusion was that long-term retear rates were significantly decreased in patients with rotator cuff-related abnormalities who received PRP. Significant improvements in PRP-treated patients were noted for multiple functional outcomes, but none reached their respective minimal clinically important differences. Overall, the results suggest that PRP may positively affect clinical outcomes, but limited data, study heterogeneity, and poor methodological quality hinder firm conclusions.

In their double-blind RCT of 40 patients (average age 51) with RC tears, Kesikburun et al.37 randomized patients to a single 5-mL injection of either PRP or saline, in addition to a standard 6-week exercise program. At 1-year follow-up, the authors found that PRP was no better than placebo at improving quality of life, pain, disability, and shoulder ROM. In contrast, positive results were reported by Rha et al.38 in their study of 39 patients (average age 45) with tendinosis or partial RC tears. Patients were randomized to either two injections of PRP or dry needling spaced four weeks apart. At the 6-month follow-up, those treated with PRP had superior results regarding pain, function, and ROM.

Plantar Fasciitis

Singh et al.39 conducted an SR/MA study comparing PRP injections and CS injections for plantar fasciopathy (PF). Studies were assessed using the Cochrane Risk of Bias Tool and the Newcastle Ottawa Scale (NOS). The primary endpoint was pain and function score at 3- and 6-month follow-up. Ten studies with a total of 517 patients were included. Seven studies were randomized. Studies reported outcomes using the VAS and American Orthopedic Foot and Ankle Score (AOFAS). At 3-month follow-up, PRP injections were associated with improved VAS scores (standard mean difference [SMD], -0.66; 95% CI, -1.3 to -0.02; p = 0.04) and AOFAS scores (SMD, 1.87; 95% CI, 0.16-3.58; p = 0.03). However, by the 6-month follow-up, there was no difference in VAS score (SMD, -0.66; 95% CI, -1.65 to 0.3; p = 0.17) or AOFAS scores (SMD, 1.69; 95% CI, -1.06 to 4.45; p = 0.23).

Sarah Johnson-Lynn et al.40 randomized 28 patients with six months or more of magnetic resonance imaging (MRI)-proven PF to PRP or saline. Using the VAS, both treatments resulted in a similar, significant improvement in symptoms at six months. Levels of Evidence: Level II.

A larger, randomized trial41 of 115 patients compared CS to PRP using Foot Function Index pain score (FFI) for chronic plantar fasciitis. In the control group, FFI Pain scores decreased quickly and then remained stable during follow-up. FFI Pain reduction was more modest in the PRP group, but reached a lower point after 12 months than in the control group. After adjusting for baseline differences, the PRP group showed significantly lower pain scores at the 1-year follow-up than the control group (mean difference, 14.4; 95% CI, 3.2-25.6). The number of patients with at least 25% improvement (FFI Pain score) between baseline and 12-month follow-up differed significantly between the groups. Of the 46 patients in the PRP group, 39 (84.4%) improved at least 25%, while only 20 (55.6%) of the 36 in the control group showed such an improvement (P = 0.003). The PRP group showed significantly lower FFI Disability scores than the control group (mean difference, 12.0; 95% CI, 2.3-21.6).

A 2014 study with fifty patients compared PRP to corticosteroids and reported statistically significantly higher visual analog scores in the PRP group at six weeks and six months (p<0.001).42 This study's limitations include that it was not randomized, and there were no placebo group results, no radiological or biological results, a small sample size, and a short follow up period.

A 2015 meta-analysis comparing PRP, shockwave therapy, and corticosteroids for plantar fasciitis treatment showed a trend favoring PRP over corticosteroids at three months but slightly inferior at six months. Shockwave therapy had the highest likelihood of treatment success, but less remarkable for pain reduction at three and six months.43 This data was limited by substantial heterogeneity in therapeutic protocols, definitions, and measurement of outcome variables among the included studies, a small number of trials, the inclusion of non-randomized trials, lack of comparison to the placebo group making the conclusions suggestive of a trend but without sufficient data to drawn reliable conclusions.

A 2017 randomized controlled trial (RCT) comparing twenty-eight patients receiving PRP to corticosteroid injections for plantar fasciitis who did not respond to conservative treatment concluded both treatments were equally effective. The authors report the cost and time for preparation of the PRP were disadvantages of the PRP treatment.44 Another small single-blinded RCT (n= 32) reported similar results and lacked adequate sample size, blinding, and follow-up duration.45

A 2019 prospective, randomized double-blinded control trial compared PRP to corticosteroid injections in sixty patients with chronic plantar fasciitis. Statistically significant improvements were reported in the visual analog score (VAS), and American Orthopedic Foot and Ankle Society (AOFAS) score in both groups. Plantar fascia thickness was reduced in both groups.46 Limitations of the study include small sample size and variability of platelet concentration among different patients. While the authors conclude that PRP is an effective treatment for chronic plantar fasciitis when compared to steroids, the authors acknowledge that lack of standardized preparation, the concentration of platelets, and dosage were barriers to a critical evaluation, and further research is necessary to understand the action of PRP.

Two 2020 systematic reviews draw different conclusions. Hurley et al.47 reviewed nine RCTs (n=239) and reported statistically significant differences in VAS scores in favor of PRP at one through 12 months. They report at one and three months no difference in AOFAS scores, but favorable towards PRP at 6 and 12 months. The authors conclude evidence to suggest PRP may lead to greater improvement in pain and function for chronic plantar fasciitis and conclude there is level 1 evidence to support its use. However, the authors acknowledge significant heterogeneity, limiting the results of a meta-analysis and high risk of bias among the majority of included studies. Another 2020 systematic review included thirteen randomized controlled trials reported significant superiority of PRP in outcome scores when compared to corticosteroids (VAS:MD= -0.85, p=<0.0001, I2= 85%; AOFAS: MD= 10.05, p=<0.0001, I2= 85%) whereas there is no statistical difference in well-designed double-blinded trials (VAS:MD=0.15, p=0.72, I2= 1%; AOFAS: MD=2.71, p=0.17, I2= 0%). In comparison of PRP to placebo, the pooled mean difference was -3.75 (p=<0.0001, 95% CI= -4.34 to -3.18). In conclusion, the authors state there is no superiority of PRP compared to corticosteroids in well-designed double-blind studies. The advantage of PRP seen in some literature may be due to the lack of blinding in these studies. The report is a trend to the improvement of PRP compared to placebo.48 The heterogeneity was also significantly reduced in the double-blinded randomized control trials allowing more meaningful conclusions.

Achilles Tendinopathy

RCTs of 24 patients with an injection of PRP vs. saline into Achilles Tendinopathy (AT) demonstrated no significant difference at three months in the Victorian Institute of Sports Assessment-Achilles (VISA-A) score.49 A 1-year follow-up of 54 patients in a similar trial also found no improvement.50


Patellar Tendinopathy

Patellar tendinopathy is a condition characterized by anterior knee activity related pain, most commonly found in athletes who engage in jumping sports. A well-designed multisite single-blind study randomized 57 athletes with patellar tendinopathy to LR-PRP, LP-PRP, and saline ultrasound guided injections. All participants received one injection followed by six weeks of supervised rehabilitation training three times per week. Study retention was 93% at 12 weeks and 79% after one year. Using the outcome measure, Victorian Institute of Sport Assessment-patellar (VISA-P), there was no significant difference in mean change in VISA-P score, pain, or global rating of change among the three treatment groups at 12 weeks or any other time point.51 A SR/MA addressed 70 studies of patellar tendinopathy treatment involving 2530 patients, reported in 22 studies on eccentric exercise, extracorporeal shockwave therapy (ESWT), and PRP. Eccentric exercise therapies obtained the best results (P < 0.05) at short-term (< 6 months, mean 2.7 +/- 0.7 months). However, multiple injections of PRP obtained the best results (P < 0.05), followed by ESWT and eccentric exercise, at long-term follow-up (>/=6 months, mean 15.1 +/- 11.3 months).52

A different SR looked at 15 studies comparing eccentric training, PRP, CS, and ESWT. With or without core stabilization or stretching, eccentric training improved symptoms by 61% in the VISA-P score with a 95% confidence interval. Results from ESWT demonstrated 54% improvement, and PRP studies 55% improvement with similar confidence intervals. Finally, CS injection provided no benefit.53

In summary, RCTs and SR/MA findings have been mixed and have generally found that PRP did not have a statistically and/or clinically significant impact on pain or functional outcomes. In RCTs that have found significantly improved pain outcomes for PRP injections, critical relevancy gaps and study conduct limitations preclude reaching strong conclusions based on their findings. The evidence is insufficient to determine the benefit of PRP on health outcomes for patellar tendinopathy.

Surgical Augmentation of Repairs

Most RCTs with surgical repair of rotator cuff or Achilles tendon have not demonstrated any clinically significant benefit.54-57 A MA of 8 Level I or Level II studies of rotator cuff surgery comparing preoperative and postoperative risk for retears and gain in functional outcome showed no statistically significant differences between those treated with PRP and those without such an intervention.58 An additional MA of Level II and Level III studies by Saltzman et al.59 came to similar conclusions. A Cochrane review by Moraes et al.60 on platelet-rich therapies for musculoskeletal soft tissue injuries identified 2 RCTs and two quasi-randomized studies (total n = 203 patients) specifically on PRP used in conjunction with anterior cruciate ligament (ACL) reconstruction. Pooled data found no significant difference in International Knee Documentation Committee (IKDC) scores between the PRP and control groups. The evidence is insufficient to determine the benefit of PRP on health outcomes for surgical augmentation of repairs.

Primary Treatment for Osteoarthritis

Osteoarthritis (OA) is a common disease involving joint damage, inadequate healing response, and progressive deterioration of the joint architecture. Presently, intra-articular injections of CS or viscosupplementation with HA remain the mainstay of conservative treatment. The evidence for using PRP for this condition includes multiple RCTs and systematic reviews. Most trials have compared PRP with HA for knee osteoarthritis, though HA as a comparator is questionable because the evidence demonstrating the benefit of HA for osteoarthritis is not robust.

Systematic reviews have generally found that PRP was more effective than placebo or HA in reducing pain and improving function. However, systematic review authors have noted that their findings should be interpreted with caution due to important limitations, including significant statistical heterogeneity, questionable clinical significance, and a high risk of bias in study conduct.61 One retrospective study compared PRP to HA in 190 patients between January 2014 and October 2017. Western Ontario and McMaster Universities Osteoarthritis Index (WOMAC), VAS, and ROM were measured before injection, at 15 days, six months, 12 months, and at last follow-up. HA treated patients experienced a higher arthroplasty rate (36.0% vs. 5.3%, p < 0.001), lower ROM, worse VAS and WOMAC score, and increased risk of any arthroplasty occurrence (log-rank < 0.001) than PRP patients.61

A 2014 systematic review of 10 randomized and non-randomized trials of PRP for OA of the knee found intra-articular PRP injections were more effective for pain reduction (mean difference (MD) -2.45; 95% CI -2.92 to -1.98; p-value < 0.00001 and MD -2.07; 95% CI -2.59 to -1.55; p-value < 0.00001, single and double PRP injections, respectively) compared with placebo at 6 months post injection. Intra-articular PRP injections were compared with hyaluronic acid and showed a statistically significant difference in favor of PRP on pain reduction based on the VAS and numeric rating scale (standardized mean difference -0.92; 95% CI -1.20 to -0.63; p-value <0.00001) at six months post injection. Almost all trials revealed a high risk of bias.62

A similar SR/MA in 2020 of 18 studies (all level 1) met inclusion criteria, including 811 patients undergoing intra-articular injection with PRP (mean age, 57.6 years) and 797 patients with HA (mean age, 59.3 years). The mean follow-up was 11.1 months for both groups. Mean improvement was significantly higher in the PRP group (44.7%) than the HA group (12.6%) for WOMAC total scores (P < 0.01). Of 11 studies based on the VAS, six reported PRP patients to have significantly less pain at the latest follow-up when compared with HA patients (P < 0.05). Of 6 studies based on the Subjective IKDC outcome score, three reported PRP patients to have significantly better scores at the latest follow-up when compared with HA patients (P < 0.05). Finally, LP-PRP was associated with significantly better Subjective IKDC scores vs. LP-PRP (P < 0.05).63

Park and colleges64 conducted an RCT to evaluate the efficacy of inter-articular PRP injections in knee osteoarthritis as compared with hyaluronic acid (HA) injection and to determine if clinical efficacy is associated with its biological characteristics. This RCT enrolled 110 symptomatic knee osteoarthritis patients who received a single injection of leukocyte-rich PRP or HA. Outcomes were assessed at baseline, six weeks, three and six months after injection. Authors reported PRP showed significant improvement in IKDC subjective scores at six months vs. HA. No significant differences were observed between the clinical outcomes in other groups. The proportion of individuals who scored above the minimal clinically important difference (MCID) for VAS at six months was significantly greater in the PRP group (P=0.044). Adverse events did not differ between the groups. Strengths of this study include RCT design, clearly defined protocol for and PRP preparation and administration, and standardized tools for pain assessment. Limitations include lack of placebo group and lack of radiological imaging. While it makes valuable contribution comparison to other studies with confounders such as leucocyte rich vs. poor, number of injections, type of preparation kit, underlying medical conditions, adjunctive therapies were not addressed.

To address these differences several authors have attempted to use systematic review/meta-analysis approach to pool data. Three meta-analysis comparing the literature on the effectiveness and safety of PRP and HA in patients with adult knee osteoarthritis were reviewed. Tan et al reviewed twenty-six RCTs with 2430 individuals and reported PRP significantly reduced patient pain and improved function as comparted to HA.65 Chen et al.66 reviewed 14 RTCs comprised of 1350 patients, and Han et al.67 report on fifteen RCTs comprised of 1314 individuals both reporting PRP injections reduced pain more effectively than HA injections. All three trials reported no significant difference in adverse events between the two groups. However, meta-analysis cannot adequately address these factors as they have not been adequately investigated in the trials included in the analysis. The fundamental issues as multiple confounders such as the source of stem cells, most effective delivery method, role of surgery and type and amount of PRP used are not addressed in high-quality studies.68 This significant heterogeneity subsequently affects the reliability of conclusions. Additionally, despite the seemingly large body of evidence, it is important to note that some RCTs were included in multiple SR/MAs.

A recent prospective study compared the efficacy of intra-articular injections of PRP and HA with a control group of NS solution for knee OA. This was a randomized, dose-controlled, placebo-controlled, double-blind, triple-parallel clinical trial. A total of 87 osteoarthritic knees (53 patients) were randomly assigned to 1 of 3 groups receiving three weekly injections of either LP-PRP (31 knees), HA (29 knees), or NS (27 knees). WOMAC score and IKDC subjective score were collected at baseline and at 1, 2, 6, and 12 months after treatment. All three groups showed statistically significant improvements in both outcome measures at one month; however, only the PRP group sustained the significant improvement in both the WOMAC score (63.71 ± 20.67, increased by 21%) and IKDC score (49.93 ± 17.74, increased by 40%) at 12 months. The conclusion was that intra-articular injections of LP-PRP could provide clinically significant functional improvement for at least one year in patients with mild to moderate OA of the knee.69

Osteoarthritis of the hip can also be a source of chronic pain. A 2021 double-blind, randomized pilot study of leukocyte-poor PRP compared to low-molecular weight hyaluronic acid for symptomatic osteoarthritis of the hip was reported on thirty-four patients with hip OA. The patients were randomized to three weekly PRP injections or hyaluronic acid, and conversion to total hip arthroplasty or hip resurfacing procedure was the primary outcome with pain scores as the secondary outcome. They reported fewer patients converted to surgical management and lower pain score in the PRP group (n=19) within six months; however, an additional 15.8% of the PRP patients with improvements went on the surgical management within the first year.70 Limitations include a sample size too small for statically significant findings, lack of placebo group, short-term follow-up, and risk of bias. A 2021 systematic review using GRADE methodology evaluated the effectiveness of PRP in the management of hip OA. Four trials (334 participants, 340 hips) were included, and all were marked as “moderate risk of bias”. PRP's superiority against comparative treatments was reported in one study, longer-term evaluations from four to twelve months showed diverse results, and only one study reported significantly better results for PRP. The authors recognize considerable heterogenicity and small sample sizes among the studies, which were considered moderate to low quality. They conclude while PRP may be beneficial and safe for hip OA at mid-term follow-up, further research with high-quality designs, larger sample sizes, and comparison to standard treatments are imperative.71

However, evidence is still limited due to the overall high risk of bias in previous trials and great variability between studies regarding the number of injections (generally 1 to 4), the interval between injections, preparation of the PRP, and volume injected. Furthermore, the typical length of follow up was only one year or less. There is also uncertainty regarding whether individuals with less severe OA may benefit more from this intervention compared with individuals with more advanced structural damage. Additionally, it is unclear whether LR-PRP or LP-PRP should be utilized, though the latter appears to have an advantage. Larger controlled studies comparing PRP with placebo and alternatives other than HA are needed to determine the efficacy of PRP for knee OA. Further studies are also needed to determine the optimal protocol for delivering PRP. At present, the evidence is insufficient to determine the effects of PRP on health outcomes for OA.


Primary Treatment for Chronic Low Back Pain

Low back pain (LBP) is now regarded as the first cause of disability worldwide, causing morbidity and socioeconomic loss.72 Conventional treatments include physical therapy, CS injection, medial bundle branch block (MBBB), and surgery. Intervertebral disc (IVD) degeneration is an important pathogenesis of LBP. Several animal studies have shown that the injection of PRP into degenerated IVDs effectively restores structural changes (IVD height) and improves the matrix integrity of degenerated IVDs as evaluated by MRI and histology.73 Recently, a small number of studies have promoted PRP injection as a relatively safe means of treating patients with degenerative disc disease who have failed other means of managing their LBP. A small number of prospective trials have suggested there may be some benefit to using PRP injection in the treatment of pain or functional decline caused by facet joint arthropathy.74

A 2016 double-blinded, randomized controlled trial compared PRP (n=29) to control (contrast agent) (n=18) for moderate to severe lumbar discogenic pain unresponsive to conservative treatment. While data were collected for one-year patients randomized to the control group, 15/18 crossed over to PRP at eight weeks. They concluded superiority of PRP to the control group. Limitations included the comparative analysis was modified, limited follow-up for the control group, underpowered to detect the demonstrated difference in functional rating index score at eight weeks between the study groups, no data collection on cell counts or biochemical analysis of the PRP, and there was no routine radiologic follow-up to see if morphologic disk changes occurred with clinical improvement.75

A 2016 study of forty patients with chronic low back pain of sacroiliac joint origin was randomized to corticosteroids with lidocaine or leukocyte-free PRP injections and evaluated at two, four, and six weeks and three months. They reported lower pain scores at both six weeks and three months in the PRP group, concluding PRP is an effective treatment.76 Limitations of this study include short follow-up time, disease scoring not performed, risk of bias, and small sample size. This study was included as the only RCT in a 2020 systematic review, along with two case series, using GRADE to evaluate evidence and concluded very low-quality evidence. The authors include inconsistent reporting of demographics, patient diagnosis and selection, PRP preparation, storage and administration, and co-interventions as limitations in the literature.77

A 2020 study of 50 patients with low back pain secondary to sacroiliac joint (SIJ) were injected with platelet-rich plasma into the sacroiliac joint under ultra-sound guidance. Oswestry Disability Index (ODI) and Numeric Rating Scale (NRS) were measured at baseline, two weeks, four weeks, three months, and six months after injection. Authors concluded ultrasound-guided PRP injections into the SIJ were a safe and effective for reducing functional disability and decreasing low back pain. They report most effects are seen at two to four weeks, with sustained functional improvement and pain relief at six months. The authors reported missed follow-up visits, selection of participants were recruited from a single site, and the need for longer follow-up as study limitations.78

A non-randomized comparator study by Bise et al.79 looked at the efficacy of interlaminar computed tomography (CT) guided epidural PRP and CS injections in 60 patients. Utilizing the NRS and function with the Oswestry Disability Index (ODI) before and six weeks after treatment. At six weeks, there was found to be no statistical difference between the two groups.

The American Society of Interventional Pain Physicians reviewed the evidence for PRP usage in LBP. They found Level III evidence for intradiscal injections of PRP. In contrast, the evidence is considered Level IV for lumbar facet joint, lumbar epidural, and sacroiliac joint injections of PRP (on a scale of Level I through V) using a qualitative modified approach to the grading of evidence based on best evidence synthesis.72 The evidence is insufficient to determine the benefit of PRP on health outcomes for chronic LBP.

Contractor Advisory Committee (CAC) Evidentiary Meeting 3/10/2021

CGS Administrators hosted and Noridian Healthcare Solutions participated in a CAC meeting to review the evidence on platelet-rich plasma for non-wound indications on 3/10/2021. Audio, transcript and voting results are available at: Subject matter experts (SMEs) from podiatry, orthopedic, physical medicine, rehabilitation, anesthesiology, and rheumatology were represented. All literature submitted by the SMEs to supplement the reference list was reviewed. Case reports or series and studies with less than twenty-five patients were reviewed but not included in the evidence review due to being very low-quality evidence. The SMEs agreed there is sufficient evidence that the use of PRP injections into joints/tissue for non-wound conditions is safe, voting 4.75/5 (range 3-5) for safety and 5/5 that it is as safe as the current standard of care treatments. They were slightly less confident for repeat injections voting 3.75/5 (range 3-5) for safety.

The effectiveness of PRP was more controversial. The panel was overall favorable, voting 3.5/5 (range 2-5). There is evidence to support PRP's efficacy. The discussion often focused on anecdotal experience rather than an assessment of the literature. In the evaluation of the evidence, the panel voted 2.7/5 (range 1-3) that there is evidence for standardized protocols. The SMEs submitted no societal guidance or evidence-based protocols. The voting on disease-specific etiologies was incomplete as several SMEs did not vote on the disease processes outside of their clinical expertise. Overall, the SMEs felt that PRP was safe and effective or potentially effective but acknowledged the limitations in the evidence. The lack of standardized protocols was the most significant point. The concentration of leukocytes (rich or poor) was of particular concern as effectiveness may vary depending on the concentration of leukocytes used, which is not reconciled in the literature. Additional points of concerns included variations in injection technique, type or lack of imaging, frequency and number of injections, different instruments to distill the product, different activating agents, preparations and additives, injection into variable locations including different potential responses depending on tissues type such as joints, tendons or muscle, and the degree of arthritis and underlying comorbidities that can impact response. In terms of the literature, the panel members acknowledge that assessing the variability of different protocols, various locations of injections, lack of long-term safety or effectivity data, heterogenicity in existing studies, and lack of controls or variable controls creates barriers to the assimilation and interpretation of the existing evidence. While the panel was enthusiastic for PRP as a potential treatment option, even the anecdotal experiences shared to demonstrate the variability in practices and lack of evidence-based guidance for use at this time.

Analysis of Evidence (Rationale for Determination)

The use of autologous biologics to replace or restore damaged tissue is a relatively new area of medicine that has yet to substantiate its outcomes.72 The American Academy of Orthopedic Surgeons (AAOS) announced at its November 2019 meeting that over the next five years, it would prioritize research and development for biologics to create evidence-based position statements. Their goals are to establish registries for postmarket monitoring, standardize reporting requirements and clarify by disease state a consensus approach for biological markers and clinical trial design.80

PRP is a general term describing a therapy with no gold standard of preparation or administration technique. This heterogeneity and the small number of controlled trials make it difficult to assess the efficacy of PRP for any disorder. There is a lack of standardization of the preparations of PRP amongst the trials, with varying concentrations of platelet, frozen vs. fresh preparations, and the filtration of white cells. While the body of evidence of utility for PRP is large, the overall quality of evidence is low. The studies are relatively small, observational studies, often confounded by lack of treatment control, precluding cause-and-effect conclusions. RCTs that compare outcomes in patients whose treatment is standardized are needed to determine definitive patient selection criteria and clinical utility. The paucity of high quality studies, no clinical practice guideline endorsement, and no commercial coverage argue strongly against current PRP coverage as reasonable and necessary for treating Medicare patients.

For a treatment to be considered medically reasonable and necessary per 1862(a)(1)(A) of The Act the treatment must be appropriate, including duration and frequency furnished in accordance with accepted standards of medical practice for the condition.81 Noridian Healthcare Solutions (NHS) determines that the existing evidence and lack of accepted standards of medical practice for PRP injections do not meet the requirement of medically reasonable and necessary. Thus, NHS considers PRP injection and PRP combined with stem cells for musculoskeletal injuries and/or joint conditions, whether primary or adjunctive use, not medically reasonable and necessary. Once PRP preparations are standardized, trials can more precisely highlight which factors are associated with better outcomes, yielding more effective PRP preparations and patient selection criteria. Noridian Healthcare Solutions will continue to monitor scientific developments and may adjust this coverage policy in accordance.

Proposed Process Information

Synopsis of Changes
Changes Fields Changed
Associated Information
Sources of Information
Open Meetings
Meeting Date Meeting States Meeting Information
Contractor Advisory Committee (CAC) Meetings
Meeting Date Meeting States Meeting Information
MAC Meeting Information URLs
Proposed LCD Posting Date
Comment Period Start Date
Comment Period End Date
Reason for Proposed LCD
Requestor Information
This request was MAC initiated.
Requestor Name Requestor Letter
View Letter
Contact for Comments on Proposed LCD

Coding Information

Bill Type Codes

Code Description

Revenue Codes

Code Description


Group 1

Group 1 Paragraph


Group 1 Codes



ICD-10-CM Codes that Support Medical Necessity

Group 1

Group 1 Paragraph:


Group 1 Codes:



ICD-10-CM Codes that DO NOT Support Medical Necessity

Group 1

Group 1 Paragraph:


Group 1 Codes:



Additional ICD-10 Information

General Information

Associated Information


Sources of Information

Aetna: Aetna considers PRP injections experimental and investigational for all indications, including LE and elbow tendinopathy, because their effectiveness has not been established.

Blue Cross Blue Shield of South Carolina: The evidence is insufficient to determine the effects of the technology on health outcomes.

Cigna: Cigna considers the use of autologous platelet-derived growth factors for any condition or indication, including epicondylitis, experimental, investigational, or unproven.

National Institute for Health and Care Excellence (NICE) 2019: Current evidence on PRP injections for knee OA raises no major safety concerns. However, the evidence on efficacy is limited in quality. Therefore, this procedure should only be used with special arrangements for clinical governance, consent, and audit or research.

UnitedHealthcare (UHC): UHC considers PRP (e.g., autologous platelet-derived growth factor) unproven and not medically necessary when used to enhance bone or soft tissue healing.


1. The Centers for Medicare & Medicaid Services (CMS). Decision Memo for Autologous Blood-Derived Products for Chronic Non-Healing Wounds (CAG-00190R4). 2021; Accessed 08-30, 2021.
2. Eppley BL, Woodell JE, Higgins J. Platelet quantification and growth factor analysis from platelet-rich plasma: implications for wound healing. Plast Reconstr Surg. 2004;114(6):1502-1508.
3. Andia I, Maffulli N. Muscle and tendon injuries: the role of biological interventions to promote and assist healing and recovery. Arthroscopy. 2015;31(5):999-1015.
4. Fitzpatrick J, Bulsara MK, McCrory PR, Richardson MD, Zheng MH. Analysis of Platelet-Rich Plasma Extraction: Variations in Platelet and Blood Components Between 4 Common Commercial Kits. Orthop J Sports Med. 2017;5(1):2325967116675272.
5. Mishra A, Harmon K, Woodall J, Vieira A. Sports medicine applications of platelet rich plasma. Curr Pharm Biotechnol. 2012;13(7):1185-1195.
6. Dhurat R, Sukesh M. Principles and Methods of Preparation of Platelet-Rich Plasma: A Review and Author's Perspective. J Cutan Aesthet Surg. 2014;7(4):189-197.
7. Kevy SV, Jacobson MS. Comparison of methods for point of care preparation of autologous platelet gel. Orthop. J. Sports Med. 2004;36(1):28-35.
8. Castillo TN, Pouliot MA, Kim HJ, Dragoo JL. Comparison of growth factor and platelet concentration from commercial platelet-rich plasma separation systems. Am J Sports Med. 2011;39(2):266-271.
9. Taniguchi Y, Yoshioka T, Sugaya H, et al. Growth factor levels in leukocyte-poor platelet-rich plasma and correlations with donor age, gender, and platelets in the Japanese population. J. Exp. Orthop. 2019;6(1):4-4.
10. Mishra AK, Skrepnik NV, Edwards SG, et al. Efficacy of platelet-rich plasma for chronic tennis elbow: a double-blind, prospective, multicenter, randomized controlled trial of 230 patients. Am J Sports Med. 2014;42(2):463¬471.
11. Campbell KA, Saltzman BM, Mascarenhas R, et al. Does Intra-articular Platelet-Rich Plasma Injection Provide Clinically Superior Outcomes Compared With Other Therapies in the Treatment of Knee Osteoarthritis? A Systematic Review of Overlapping Meta-analyses. Arthroscopy. 2015;31(11):2213-2221.
12. Bausset O, Magalon J, Giraudo L, et al. Impact of local anaesthetics and needle calibres used for painless PRP injections on platelet functionality. Muscles Ligaments Tendons J. 2014;4(1):18-23.
13. Schippinger G, Prüller F, Divjak M, et al. Autologous Platelet-Rich Plasma Preparations: Influence of Nonsteroidal Anti-inflammatory Drugs on Platelet Function. Orthop J Sports Med. 2015;3(6):2325967115588896.
14. Moraes VY, Lenza M, Tamaoki MJ, Faloppa F, Belloti JC. Platelet-rich therapies for musculoskeletal soft tissue injuries. Cochrane Database Syst Rev. 2014(4):CD010071.
15. Fitzpatrick J, Bulsara M, Zheng MH. The Effectiveness of Platelet-Rich Plasma in the Treatment of
Tendinopathy: A Meta-analysis of Randomized Controlled Clinical Trials. Am J Sports Med. 2017;45(1):226¬233.
16. Nirschl RP, Pettrone FA. Tennis elbow. The surgical treatment of lateral epicondylitis. J Bone Joint Surg Am. 1979;61(6a):832-839.
17. Bisset L, Beller E, Jull G, Brooks P, Darnell R, Vicenzino B. Mobilisation with movement and exercise, corticosteroid injection, or wait and see for tennis elbow: randomised trial. Bmj. 2006;333(7575):939.
18. Hashimoto R, Skelly A, Brodt E, et al. Autologous Blood or Platelet-Rich Plasma Injections: Final Evidence Report. Washington State Health Care Authority Health Technology Assessment 2016; Accessed August 31, 2021.
19. Peerbooms JC, Sluimer J, Bruijn DJ, Gosens T. Positive effect of an autologous platelet concentrate in lateral epicondylitis in a double-blind randomized controlled trial: platelet-rich plasma versus corticosteroid injection with a 1-year follow-up. Am J Sports Med. 2010;38(2):255-262.
20. Gosens T, Peerbooms JC, van Laar W, den Oudsten BL. Ongoing positive effect of platelet-rich plasma versus corticosteroid injection in lateral epicondylitis: a double-blind randomized controlled trial with 2-year follow-up. Am J Sports Med. 2011;39(6):1200-1208.
21. Krogh TP, Fredberg U, Stengaard-Pedersen K, Christensen R, Jensen P, Ellingsen T. Treatment of lateral epicondylitis with platelet-rich plasma, glucocorticoid, or saline: a randomized, double-blind, placebo-controlled trial. Am J Sports Med. 2013;41(3):625-635.
22. Gautam VK, Verma S, Batra S, Bhatnagar N, Arora S. Platelet-rich plasma versus corticosteroid injection for recalcitrant lateral epicondylitis: clinical and ultrasonographic evaluation. J Orthop Surg. 2015;23(1):1-5.
23. Lebiedzinski R, Synder M, Buchcic P, Polguj M, Grzegorzewski A, Sibinski M. A randomized study of autologous conditioned plasma and steroid injections in the treatment of lateral epicondylitis. Int Orthop. 2015;39(11):2199-2203.
24. Hastie G, Soufi M, Wilson J, Roy B. Platelet rich plasma injections for lateral epicondylitis of the elbow reduce the need for surgical intervention. J Orthop. 2018;15(1):239-241.
25. Mi B, Liu G, Zhou W, et al. Platelet rich plasma versus steroid on lateral epicondylitis: meta-analysis of randomized clinical trials. Phys Sportsmed. 2017;45(2):97-104.
26. Montalvan B, Le Goux P, Klouche S, Borgel D, Hardy P, Breban M. Inefficacy of ultrasound-guided local injections of autologous conditioned plasma for recent epicondylitis: results of a double-blind placebo-controlled randomized clinical trial with one-year follow-up. Rheumatology. 2016;55(2):279-285.
27. Schöffl V, Willauschus W, Sauer F, et al. Autologous Conditioned Plasma Versus Placebo Injection Therapy in Lateral Epicondylitis of the Elbow: A Double Blind, Randomized Study. Sportverletz Sportschaden. 2017;31(1):31-36.
28. Li A, Wang H, Yu Z, et al. Platelet-rich plasma vs corticosteroids for elbow epicondylitis: a systematic review and meta-analysis. J Medicine. 2019;98(51).
29. Simental-Mendia M, Vilchez-Cavazos F, Alvarez-Villalobos N, et al. Clinical efficacy of platelet-rich plasma in the treatment of lateral epicondylitis: a systematic review and meta-analysis of randomized placebo-controlled clinical trials. J Clinical rheumatology. 2020;39(8):2255-2265.
30. Tang S, Wang X, Wu P, et al. Platelet-rich plasma vs autologous blood vs corticosteroid injections in the treatment of lateral epicondylitis: A systematic review, pairwise and network meta-analysis of randomized controlled trials. J Pm. 2020;12(4):397-409.
31. Linnanmaki L, Kanto K, Karjalainen T, Leppanen OV, Lehtinen J. Platelet-rich Plasma or Autologous Blood Do Not Reduce Pain or Improve Function in Patients with Lateral Epicondylitis: A Randomized Controlled Trial. Clin Orthop Relat Res. 2020;478(8):1892-1900.
32. Bohlen HL, Schwartz ZE, Wu VJ, et al. Platelet-Rich Plasma Is an Equal Alternative to Surgery in the Treatment of Type 1 Medial Epicondylitis. Orthop J Sports Med. 2020;8(3):2325967120908952.
33. Lin CP, Chang KV, Huang YK, Wu WT, Ozcakar L. Regenerative Injections Including 5% Dextrose and Platelet-Rich Plasma for the Treatment of Carpal Tunnel Syndrome: A Systematic Review and Network Meta-Analysis. Pharmaceuticals. 2020;13(3).
34. Autologous blood injection for tendinopathy. Interventional procedures guidance [IPG438] 2013; Accessed 08-31, 2021.
35. Kampa RJ, Connell DA. Treatment of tendinopathy: is there a role for autologous whole blood and platelet rich plasma injection? Int J Clin Pract. 2010;64(13):1813-1823.
36. Chen X, Jones IA, Togashi R, Park C, Vangsness CT. Use of Platelet-Rich Plasma for the Improvement of Pain and Function in Rotator Cuff Tears: A Systematic Review and Meta-analysis With Bias Assessment. Am J Sports Med. 2020;48(8):2028-2041.
37. Kesikburun S, Tan AK, Yilmaz B, Yasar E, Yazicioglu K. Platelet-rich plasma injections in the treatment of chronic rotator cuff tendinopathy: a randomized controlled trial with 1-year follow-up. Am J Sports Med. 2013;41(11):2609¬2616.
38. Rha DW, Park GY, Kim YK, Kim MT, Lee SC. Comparison of the therapeutic effects of ultrasound-guided platelet-rich plasma injection and dry needling in rotator cuff disease: a randomized controlled trial. Clin Rehabil. 2013;27(2):113-122.
39. Singh P, Madanipour S, Bhamra JS, Gill I. A systematic review and meta-analysis of platelet-rich plasma versus corticosteroid injections for plantar fasciopathy. Int Orthop. 2017;41(6):1169-1181.
40. Johnson-Lynn S, Cooney A, Ferguson D, et al. A Feasibility Study Comparing Platelet-Rich Plasma Injection With Saline for the Treatment of Plantar Fasciitis Using a Prospective, Randomized Trial Design. Foot Ankle Spec. 2019;12(2):153-158.
41. Peerbooms JC, Lodder P, den Oudsten BL, Doorgeest K, Schuller HM, Gosens T. Positive Effect of Platelet-Rich Plasma on Pain in Plantar Fasciitis: A Double-Blind Multicenter Randomized Controlled Trial. Am J Sports Med. 2019;47(13):3238-3246.
42. Say F, Gurler D, Inkaya E, Bulbul M. Comparison of platelet-rich plasma and steroid injection in the treatment of plantar fasciitis. Acta Orthop Traumatol Turc. 2014;48(6):667-672.
43. Hsiao MY, Hung CY, Chang KV, Chien KL, Tu YK, Wang TG. Comparative effectiveness of autologous blood-derived products, shock-wave therapy and corticosteroids for treatment of plantar fasciitis: a network meta-analysis. Rheumatology. 2015;54(9):1735-1743.
44. Acosta-Olivo C, Elizondo-Rodriguez J, Lopez-Cavazos R, Vilchez-Cavazos F, Simental-Mendia M, Mendoza-Lemus O. Plantar Fasciitis-A Comparison of Treatment with Intralesional Steroids versus Platelet-Rich Plasma A Randomized, Blinded Study. J Am Podiatr Med Assoc. 2017;107(6):490-496.
45. Vahdatpour B, Kianimehr L, Moradi A, Haghighat S. Beneficial effects of platelet-rich plasma on improvement of pain severity and physical disability in patients with plantar fasciitis: A randomized trial. Adv Biomed Res. 2016;5:179.
46. Soraganvi P, Nagakiran KV, Raghavendra-Raju RP, et al. Is Platelet-rich Plasma Injection more Effective than Steroid Injection in the Treatment of Chronic Plantar Fasciitis in Achieving Long-term Relief? Malays Orthop J. 2019;13(3):8-14.
47. Hurley ET, Shimozono Y, Hannon CP, Smyth NA, Murawski CD, Kennedy JG. Platelet-Rich Plasma Versus Corticosteroids for Plantar Fasciitis: A Systematic Review of Randomized Controlled Trials. Orthop J Sports Med. 2020;8(4):2325967120915704.
48. Yu T, Xia J, Li B, Zhou H, Yang Y, Yu G. Outcomes of platelet-rich plasma for plantar fasciopathy: a best-evidence synthesis. J Orthop Surg Res. 2020;15(1):432.
49. Krogh TP, Ellingsen T, Christensen R, Jensen P, Fredberg U. Ultrasound-Guided Injection Therapy of Achilles Tendinopathy With Platelet-Rich Plasma or Saline: A Randomized, Blinded, Placebo-Controlled Trial. Am J Sports Med. 2016;44(8):1990-1997.
50. de Jonge S, de Vos RJ, Weir A, et al. One-year follow-up of platelet-rich plasma treatment in chronic Achilles tendinopathy: a double-blind randomized placebo-controlled trial. Am J Sports Med. 2011;39(8):1623-1629.
51. Scott A, LaPrade RF, Harmon KG, et al. Platelet-Rich Plasma for Patellar Tendinopathy: A Randomized Controlled Trial of Leukocyte-Rich PRP or Leukocyte-Poor PRP Versus Saline. Am J Sports Med. 2019;47(7):1654-1661.
52. Andriolo L, Altamura SA, Reale D, Candrian C, Zaffagnini S, Filardo G. Nonsurgical Treatments of Patellar Tendinopathy: Multiple Injections of Platelet-Rich Plasma Are a Suitable Option: A Systematic Review and Meta-analysis. Am J Sports Med. 2019;47(4):1001-1018.
53. Everhart JS, Cole D, Sojka JH, et al. Treatment Options for Patellar Tendinopathy: A Systematic Review. Arthroscopy. 2017;33(4):861-872.
54. Rodeo SA, Delos D, Williams RJ, Adler RS, Pearle A, Warren RF. The effect of platelet-rich fibrin matrix on rotator cuff tendon healing: a prospective, randomized clinical study. Am J Sports Med. 2012;40(6):1234¬1241.
55. Wang A, McCann P, Colliver J, et al. Do postoperative platelet-rich plasma injections accelerate early tendon healing and functional recovery after arthroscopic supraspinatus repair? A randomized controlled trial. Am J Sports Med. 2015;43(6):1430-1437.
56. Flury M, Rickenbacher D, Schwyzer HK, et al. Does Pure Platelet-Rich Plasma Affect Postoperative Clinical Outcomes After Arthroscopic Rotator Cuff Repair? A Randomized Controlled Trial. Am J Sports Med. 2016;44(8):2136-2146.
57. De Carli A, Lanzetti RM, Ciompi A, et al. Can platelet-rich plasma have a role in Achilles tendon surgical repair? Knee Surg Sports Traumatol Arthrosc. 2016;24(7):2231-2237.
58. Warth RJ, Dornan GJ, James EW, Horan MP, Millett PJ. Clinical and structural outcomes after arthroscopic repair of full-thickness rotator cuff tears with and without platelet-rich product supplementation: a meta-analysis and meta-regression. Arthroscopy. 2015;31(2):306-320.
59. Saltzman BM, Jain A, Campbell KA, et al. Does the Use of Platelet-Rich Plasma at the Time of Surgery Improve Clinical Outcomes in Arthroscopic Rotator Cuff Repair When Compared With Control Cohorts? A Systematic Review of Meta-analyses. Arthroscopy. 2016;32(5):906-918.
60. Moraes VY, Lenza M, Tamaoki MJ, Faloppa F, Belloti JC. Platelet-rich therapies for musculoskeletal soft tissue injuries. Cochrane Database Syst Rev. 2013(12):CD010071.
61. Annaniemi JA, Pere J, Giordano S. Platelet-rich plasma versus hyaluronic acid injections for knee osteoarthritis: a propensity-score analysis. Scand J Surg. 2019;108(4):329-337.
62. Laudy AB, Bakker EW, Rekers M, Moen MH. Efficacy of platelet-rich plasma injections in osteoarthritis of the knee: a systematic review and meta-analysis. Br J Sports Med. 2014;49(10):657-672.
63. Belk JW, Kraeutler MJ, Houck DA, Goodrich JA, Dragoo JL, McCarty EC. Platelet-Rich Plasma Versus Hyaluronic Acid for Knee Osteoarthritis: A Systematic Review and Meta-analysis of Randomized Controlled Trials. Am J Sports. 2020:363546520909397.
64. Park YB, Kim JH, Ha CW, Lee DH. Clinical Efficacy of Platelet-Rich Plasma Injection and Its Association With Growth Factors in the Treatment of Mild to Moderate Knee Osteoarthritis: A Randomized Double-Blind Controlled Clinical Trial As Compared With Hyaluronic Acid. Am J Sports Med. 2021;49(2):487-496.
65. Tan J, Chen H, Zhao L, Huang W. Platelet-Rich Plasma Versus Hyaluronic Acid in the Treatment of Knee Osteoarthritis: A Meta-analysis of 26 Randomized Controlled Trials. Arthroscopy. 2021;37(1):309-325.
66. Chen Z, Wang C, You D, Zhao S, Zhu Z, Xu M. Platelet-rich plasma versus hyaluronic acid in the treatment of knee osteoarthritis: A meta-analysis. Medicine. 2020;99(11):e19388.
67. Han Y, Huang H, Pan J, et al. Meta-analysis comparing platelet-rich plasma vs hyaluronic acid injection in patients with knee osteoarthritis. J Pain Medicine. 2019;20(7):1418-1429.
68. Park YB. Editorial Commentary: Stem Cell Therapy for the Knee: Heterogeneity in Cell Sources, Delivery Methods, and Concomitant Surgery Needs to Be Considered. Arthroscopy. 2021;37(1):379-380.
69. Lin K-Y, Yang C-C, Hsu C-J, Yeh M-L, Renn J-H. Intra-articular Injection of Platelet-Rich Plasma Is Superior to Hyaluronic Acid or Saline Solution in the Treatment of Mild to Moderate Knee Osteoarthritis: Randomized, Double-Blind, Triple-Parallel, Placebo-Controlled Clinical Trial. Arthroscopy. 2019;35(1):106-117.
70. Kraeutler MJ, Houck DA, Garabekyan T, Miller SL, Dragoo JL, Mei-Dan O. Comparing Intra-articular Injections of Leukocyte-Poor Platelet-Rich Plasma Versus Low–Molecular Weight Hyaluronic Acid for the Treatment of Symptomatic Osteoarthritis of the Hip: A Double-Blind, Randomized Pilot Study. Orthop. J. Sports Med. 2021;9(1):2325967120969210.
71. Medina-Porqueres I, Ortega-Castillo M, Muriel-Garcia A. Effectiveness of platelet-rich plasma in the management of hip osteoarthritis: a systematic review and meta-analysis. Clin Rheumatol. 2021;40(1):53-64.
72. Navani A, Manchikanti L, Albers SL, et al. Responsible, Safe, and Effective Use of Biologics in the Management of Low Back Pain: American Society of Interventional Pain Physicians (ASIPP) Guidelines. Pain Physician. 2019;22(1s):S1-s74.
73. Akeda K, Yamada J, Linn ET, Sudo A, Masuda K. Platelet-rich plasma in the management of chronic low back pain: a critical review. J Pain Res. 2019;12:753-767.
74. Urits I, Viswanath O, Galasso AC, et al. Platelet-Rich Plasma for the Treatment of Low Back Pain: a Comprehensive Review. Curr Pain Headache Rep. 2019;23(7):52.
75. Tuakli-Wosornu YA, Terry A, Boachie-Adjei K, Harrison. Lumbar Intradiskal Platelet-Rich Plasma (PRP) Injections: A Prospective, Double-Blind, Randomized Controlled Study. Pm R. 2016;8(1):1-10; quiz 10.
76. Singla V, Batra YK, Bharti N, Goni VG, Marwaha N. Steroid vs. Platelet-Rich Plasma in Ultrasound-Guided Sacroiliac Joint Injection for Chronic Low Back Pain. Pain Pract. 2017;17(6):782-791.
77. Burnham T, Sampson J, Speckman RA, Conger A, Cushman DM, McCormick ZL. The Effectiveness of Platelet-Rich Plasma Injection for the Treatment of Suspected Sacroiliac Joint Complex Pain; a Systematic Review. Pain Med. 2020;21(10):2518-2528.
78. Wallace P, Wallace LB, Tamura S, Prochnio K, Morgan K, Hemler D. Effectiveness of ultrasound-guided platelet-rich plasma injections in relieving sacroiliac joint dysfunction. Am J Phys Med Rehabil. 2020;99(8):689-693.
79. Bise S, Dallaudiere B, Pesquer L, et al. Comparison of interlaminar CT-guided epidural platelet-rich plasma versus steroid injection in patients with lumbar radicular pain. Eur Radiol. 2020;30(6):3152-3160.
80. Chu CR, Rodeo S, Bhutani N, et al. Optimizing Clinical Use of Biologics in Orthopaedic Surgery: Consensus Recommendations From the 2018 AAOS/NIH U-13 Conference. J Am Acad Orthop Surg. 2019;27(2):e50-e63.
81. Social Security Administration. Social Security Act §1862. Exclusions From Coverage and Medicare as Secondary Payer. Compilation Of The Social Security Laws 2021; Accessed April 16, 2021.

Revision History Information

Revision History Date Revision History Number Revision History Explanation Reasons for Change
01/23/2022 R1

Under sources of information, removed hyperlink to CINGA's website as it was invalid

  • Typographical Error

Associated Documents

Related National Coverage Documents
Public Versions
Updated On Effective Dates Status
02/15/2023 01/23/2022 - N/A Currently in Effect View
06/08/2022 01/23/2022 - N/A Superseded View
04/29/2022 01/23/2022 - N/A Superseded You are here
12/04/2021 01/23/2022 - N/A Superseded View



Read the LCD Disclaimer