Literature DB >> 28535076

Intraarticular Injection of a Cross-Linked Sodium Hyaluronate Combined with Triamcinolone Hexacetonide (Cingal) to Provide Symptomatic Relief of Osteoarthritis of the Knee: A Randomized, Double-Blind, Placebo-Controlled Multicenter Clinical Trial.

Laszlo Hangody1, Robert Szody2, Piotr Lukasik3, Wojciech Zgadzaj4, Endre Lénárt5, Eva Dokoupilova6, Daniela Bichovsk7, Agnes Berta1, Gabor Vasarhelyi1, Andrea Ficzere1, György Hangody1, Gary Stevens8, Miklos Szendroi9.   

Abstract

OBJECTIVE: To evaluate the efficacy and safety of an intraarticular injection of Cingal (Anika Therapeutics, Inc., Bedford, MA) compared with Monovisc (Anika Therapeutics, Inc., Bedford, MA) or saline for the treatment of knee osteoarthritis.
DESIGN: This multicenter, double-blind, saline-controlled clinical trial randomized subjects with knee osteoarthritis (Kellgren-Lawrence grades I-III) to a single injection of Cingal (4 mL, 88 mg hyaluronic acid [HA] plus 18 mg triamcinolone hexacetonide [TH]), Monovisc (4 mL, 88 mg HA), or saline (4 mL, 0.9%). The primary efficacy outcome was change in WOMAC (Western Ontario and McMaster Universities Arthritis Index) Pain Score through 12 weeks with Cingal versus saline. Secondary outcomes included Patient and Evaluator Global Assessments, OMERACT-OARSI Responder index, and WOMAC Total, Stiffness, and Physical Function scores through 26 weeks.
RESULTS: A total of 368 patients were treated (Cingal, n = 149; Monovisc, n = 150; saline, n = 69). Cingal improvement from baseline was significantly greater than saline through 12 weeks ( P = 0.0099) and 26 weeks ( P = 0.0072). WOMAC Pain was reduced by 70% at 12 weeks and by 72% at 26 weeks with Cingal. Significant improvements were found in most secondary endpoints for pain and function at most time points through 26 weeks. At 1 and 3 weeks, Cingal was significantly better than Monovisc for most endpoints; Cingal and Monovisc were similar from 6 weeks through 26 weeks. A low incidence of related adverse events was reported.
CONCLUSIONS: Cingal provides immediate and long-term relief of osteoarthritis-related pain, stiffness, and function, significant through 26 weeks compared to saline. Cingal had similar immediate advantages compared with HA alone, while showing benefit comparable to HA at 6 weeks and beyond.

Entities:  

Keywords:  clinical trial; diagnosis; general; intraarticular delivery; joint involved; knee; osteoarthritis; therapeutic delivery

Mesh:

Substances:

Year:  2017        PMID: 28535076      PMCID: PMC6042027          DOI: 10.1177/1947603517703732

Source DB:  PubMed          Journal:  Cartilage        ISSN: 1947-6035            Impact factor:   4.634


Introduction

Osteoarthritis (OA) is the most common joint disorder globally,[1] affecting over 27 million people in the United States[2] and 40 million people in Europe.[3] It is characterized by a decreased concentration of hyaluronic acid (HA) in synovial fluid[4] and a slow degradation of cartilage,[5] as well as joint pain and significant functional limitations.[6] The economic burden of OA is high, with health care expenditures of over $185 billion annually in the United States due to OA.[2] The incidence of OA is projected to rise; and nearly 1 in 2 people are projected to develop symptomatic knee OA by age 85,[7] leading to over an estimated 3.5 million knee replacement surgeries by 2030.[8] Intraarticular corticosteroid injections to treat knee OA are recommended in clinical practice guidelines of medical associations.[3,9] In addition, a review of 28 trials found statistically significant short-term pain reduction for up to 3 weeks post injection.[10] Intraarticular HA injections are also used to reduce osteoarthritic pain and improve joint function by supplementing the synovial fluid with exogenous HA (“viscosupplementation”) to provide lubrication and mechanical support. A meta-analysis of 54 randomized clinical trials of intraarticular HA versus placebo to treat OA knee pain demonstrated that HA was efficacious between 4 weeks and 6 months.[11] Thus, corticosteroids provide shorter term pain relief compared with HA, which provides longer term pain relief with an onset of pain reduction occurring over several weeks.[11] Adding a corticosteroid to HA could then potentially alleviate OA pain more immediately in those receiving HA prior to the onset of pain relief with HA. Several small randomized trials have shown that the combination of a corticosteroid and HA versus HA alone results in significant short-term pain relief from the corticosteroid with the longer term pain relief from the HA.[12-14] A new product, Cingal (Anika Therapeutics, Inc., Bedford, MA), was developed to deliver the short-term pain relief of an approved corticosteroid, triamcinolone hexacetonide (TH), with the sustained pain relief of a commercial cross-linked HA viscosupplement, Monovisc (Anika Therapeutics, Inc., Bedford, MA). Cingal is a single, 4-mL, intraarticular injection containing 88 mg HA and 18 mg of TH. The objective of this clinical trial was to demonstrate the safety and effectiveness of Cingal for relief of joint pain and symptoms in knee OA patients. It was hypothesized that Cingal’s pain reduction would be superior to saline through 12 and 26 weeks, and also be superior to Monovisc for short-term pain relief.

Methods

Study Design

This was a prospective, multicenter, randomized, double-blind, placebo-controlled, active-comparator clinical trial conducted at 30 sites in Europe and Canada. Eligible subjects with radiologically confirmed knee OA were randomized 2:2:1 to a single injection of Cingal (4 mL, 88 mg HA plus 18 mg TH), Monovisc (4 mL, 88 mg HA), or saline (4 mL, 0.9%). The randomization code for each site was generated by an independent biostatistician using a block size of 5. All study syringes and cartons were identical, and the treating physicians, evaluators, radiologists who reviewed the X-ray images, sponsor, study monitors, and subjects remained blinded throughout the trial, until the database was locked. A physical exam, medical history, blood/urine/pregnancy tests, bilateral knee X-rays, concomitant medications, and the Western Ontario and McMaster Universities Arthritis Index (WOMAC) questionnaire were completed at screening. Subjects were instructed to discontinue all analgesics for the duration of the study, except rescue medication (acetaminophen/paracetamol), which could be used for up to 48 hours prior to visits. At baseline, the treating physician prepped the subject’s index knee, penetrated the joint space using a sterile 18-21 gauge needle and syringe, aspirated to dryness, and retained the aspirate for visual inspection and volume measurement. Study treatment was then injected into the index knee using standard intraarticular injection techniques. Each site received approval from the Ethics Committee and Competent Authority to begin the study and all subjects were consented prior to enrollment. The study was conducted in accordance with Good Clinical Practices as required by the International Conference on Harmonisation and the Declaration of Helsinki, and was registered with ClinicalTrials.gov (NCT01891396).

Study Population

Study participants were 40 to 75 years of age with a body mass index (BMI) ≤ 40 kg/m2, and Kellgren-Lawrence (K-L) OA grade I, II, or III in the index knee as determined by X-ray.[15] At baseline, subjects had to have a WOMAC pain score ≥40 mm and ≤90 mm in the affected knee and ≤30 mm in the contralateral knee on a 100-mm visual analog scale (VAS). Key exclusion criteria that could interfere with the study assessments included certain joint disorders, some medical condition(s), or prior knee treatments (including HA or steroid injections in the index knee in the past 6 months); and taking medications that could interfere with the procedure, healing, and/or assessments. A subject was excluded if the synovial fluid aspirate volume was >20 mL or there was visual evidence of cloudiness, crystals, or blood. Pregnant women were also excluded.

Study Outcomes

At baseline and follow-up visits, a physical exam of both knees including range of motion (ROM), and the following were completed: the WOMAC, including Total, Pain, Stiffness, and Physical Function scores[16]; Evaluator and Patient Global Assessments; the OMERACT-OARSI Responder Index[17]; and the EuroQol.[18] Subject diaries were also reviewed for concomitant medications and adverse events (AEs) at all follow-ups. Subject follow-up occurred at 1, 3, 6, 12, 18, and 26 weeks following the injection. The WOMAC Pain score is composed of 5 questions, 4 of which assess pain after physical activities. The WOMAC Pain, Stiffness, and Physical Function subscales were developed in 1982 and have been fully validated.[16] The Global Assessment is a single question answered on a 100-mm VAS: “Considering all the ways the osteoarthritis in your (study) knee affects you, what is your assessment of how much your knee is bothering you today?” which was answered by the subjects and the evaluators. The EuroQol (EQ-5D) questionnaire assesses overall health on a 100-mm VAS in which 0 = worst health imaginable and 100 = best health imaginable.[18] The primary efficacy endpoint was the change from baseline in WOMAC Pain score through 12 weeks posttreatment comparing the Cingal group with the saline group. Secondary efficacy endpoints comparing Cingal with saline included changes in the OMERACT-OARSI Responder Index through 12 weeks, WOMAC Pain score through 26 weeks, and Evaluator and Patient Global Assessments through 12 and 26 weeks. Other secondary efficacy endpoints compared Cingal with Monovisc for changes at 1 and 3 weeks for the WOMAC Pain score, and Evaluator and Patient Global Assessments. Exploratory efficacy endpoints for Cingal versus saline through 26 weeks included Total WOMAC, and WOMAC Stiffness and Physical Function, OMERACT-OARSI Responders, EuroQol (EQ-5D) VAS Health Scale, rescue medication use, and ROM changes. Safety was measured by the incidence, timing, severity, and relationship to the study medication for all AEs in the safety population (defined as all treated subjects). AEs were coded according to Medical Dictionary for Regulatory Activities (MedDRA).

Statistical Analysis

Sample size was calculated based on a difference in the mean responses between Cingal and saline of 10 mm (100-mm scale) based on previous trials of viscosupplements.[19] Assuming 90% power to detect the difference between Cingal and saline at a 5% significance level and a 15% dropout rate, 147 subjects each should be enrolled in the Cingal and Monovisc groups and 74 in the saline group, for a total of 368 subjects. Summary statistics and statistical analyses were performed using SAS software (version 9.4, Cary, NC). The analyses were based on data pooled across study centers, after poolability testing determined appropriateness. A significance level of 5% was used for all analyses. Data were analyzed using analysis of variance, without covariates or other factors assumed in the model. Discrete variables, such as the OMERACT-OARSI score, were analyzed using a Fisher’s exact test. No adjustments for multiplicity were done. All efficacy endpoints were analyzed using the intent to treat (ITT) population (all randomized subjects who received study treatment) and the multiple imputation methodology, which uses a mixed effects, repeated measures model to predict missing values. Secondary analyses were conducted on the per protocol (PP) population (all subjects who completed the 12-week visit and did not have major protocol violations).

Results

Subject Disposition and Demographics

A total of 368 subjects were enrolled and randomized to Cingal (n = 149), Monovisc (n = 150), or saline (n = 69; ). The safety and ITT populations were identical since all subjects received the study injection in accordance with randomization. Most subjects (n = 356; 96.7%) completed the study; 12 subjects did not complete the study ( ). One subject was lost to follow-up and 11 subjects withdrew consent; no withdrawals were due to an AE ( ). The PP population consisted of 335 (91.0%) subjects (Cingal [n = 137], Monovisc [n = 135], or saline [n = 63]); 33 subjects were excluded from the PP analysis ( ). Most were excluded due to major protocol violation (n = 29) with others due to study withdrawal (n = 5); one subject who withdrew also had a major protocol violation.
Figure 1.

Patient disposition.

Patient disposition. Demographic and baseline characteristics were not statistically significant different among the treatment groups ( ). Subjects had a mean age of 58.3 years and a mean BMI of 28.7 kg/m2, most were Caucasian, and more than half (60%) had a K-L OA grade of II ( ).
Table 1.

Demographic and Baseline Characteristics.

CharacteristicCingal (n = 149)Monovisc (n = 150)Saline (n = 69)Combined (n = 368)P value
Age, years, mean ± SD57.5 ± 8.459.2 ± 8.658.0 ± 9.058.3 ± 8.60.2337
Gender, n (%)
 Male52 (34.9)51 (34.0)18 (26.1)121 (32.9)0.4122
 Female97 (65.1)99 (66.0)51 (73.9)247 (67.1)
Race, n (%)
 Caucasian149 (100)149 (99.3)69 (100)367 (99.7)1.0000
 Other0 (0.0)1 (0.7)0 (0.0)1 (0.3)
BMI, kg/m2, mean ± SD28.9 ± 4.728.4 ± 4.529.1 ± 4.528.7 ± 4.60.5047
K-L OA grade, n (%)
 Grade I36 (24.2)24 (16.0)17 (24.6)77 (20.9)
 Grade II84 (56.4)98 (65.3)38 (55.1)220 (59.8)
 Grade III29 (19.4)27 (18.0)14 (20.3)70 (19.0)
 Grade IV0 (0.0)1 (0.7)0 (0.0)1 (0.3)
Baseline WOMAC Pain (index knee; mm)58.9 ± 12.361.0 ± 11.758.8 ± 10.659.7 ± 11.80.2252
Baseline WOMAC Pain (contralateral knee; mm)11.5 ± 11.511.9 ± 12.710.3 ± 8.311.4 ± 11.50.6365

BMI = body mass index; K-L = Kellgren-Lawrence grade; OA = osteoarthritis; WOMAC = Western Ontario and McMaster Universities Arthritis Index.

Demographic and Baseline Characteristics. BMI = body mass index; K-L = Kellgren-Lawrence grade; OA = osteoarthritis; WOMAC = Western Ontario and McMaster Universities Arthritis Index.

Effects on Study Outcomes

The Cingal group had significantly lower WOMAC Pain scores than the saline group through 12 weeks (primary endpoint) and at each individual time point in the ITT population (except 6 weeks; ; ); similar results were found in the PP population. Changes from baseline to 12 weeks for Cingal versus saline were −40.2 mm versus −31.0 mm (P = 0.0099) in the ITT population and −40.3 mm versus −32.2 mm (P = 0.0029) in the PP population ( ). The Cingal group also had significantly lower WOMAC Pain scores than the saline group through 26 weeks (P = 0.0072) in the ITT population, with a similar result in the PP population. Percent improvements from baseline in WOMAC Pain with Cingal, saline, and Monovisc were 70%, 52%, and 64%, respectively, at 12 weeks, and 72%, 56%, and 65%, respectively, at 26 weeks. The effect sizes of Cingal compared with saline for reduction in WOMAC Pain from baseline (calculated by the standardized mean difference) were 0.45 at 12 weeks and 0.41 at 26 weeks. Similar results were found for the ITT and PP populations.
Table 2.

WOMAC Pain Score: Change in from Baseline Over Time (ITT Population).

Baseline, Mean ± SD (mm)Difference from Baseline (mean ± SD, mm)
Week 1Week 3Week 6Week 12Week 18Week 26
Cingal59.0 ± 12.3−34.6 ± 20.8−40.1 ± 20.1−40.5 ± 20.7−41.1 ± 20.5−40.5 ± 20.4−42.4 ± 18.7
Monovisc61.0 ± 11.7−29.6 ± 21.4−34.9 ± 21.7−39.2 ± 20.1−39.0 ± 21.9−38.5 ± 23.8−39.5 ± 22.8
Saline58.8 ± 10.6−26.6 ± 18.2−31.4 ± 18.8−35.5 ± 20.2−30.8 ± 23.7−31.4 ± 24.2−32.9 ± 23.6
P value Cingal vs. saline-0.00800.00390.09080.00130.00590.0027
P value Cingal vs. Monovisc-0.03670.02890.55720.41030.44520.2525

WOMAC = Western Ontario and McMaster Universities Arthritis Index; ITT = intent to treat.

Figure 2.

Mean changes from baseline for the WOMAC Pain score with Cingal, Monovisc, or saline over time in the ITT population. aP < 0.01 versus placebo; bP < 0.05 versus Monovisc.

Table 3.

Primary Endpoint Analysis: WOMAC Pain Score through 12 Weeks for Cingal versus Saline.

ParameterTreatmentMean Improvement from BL (mm)Mean Difference Cingal vs. Saline (mm)95% Confidence IntervalP Value*
ITT populationCingal−40.2−9.1−15.2, −3.10.0099
Saline−31.0
PP populationCingal−40.3−8.1−13.2, −3.00.0029
Saline-32.2

WOMAC = Western Ontario and McMaster Universities Arthritis Index; ITT = intent to treat; PP = per protocol.

P value for mean difference between Cingal and saline.

WOMAC Pain Score: Change in from Baseline Over Time (ITT Population). WOMAC = Western Ontario and McMaster Universities Arthritis Index; ITT = intent to treat. Mean changes from baseline for the WOMAC Pain score with Cingal, Monovisc, or saline over time in the ITT population. aP < 0.01 versus placebo; bP < 0.05 versus Monovisc. Primary Endpoint Analysis: WOMAC Pain Score through 12 Weeks for Cingal versus Saline. WOMAC = Western Ontario and McMaster Universities Arthritis Index; ITT = intent to treat; PP = per protocol. P value for mean difference between Cingal and saline. Cingal was also superior to Monovisc for pain relief at 1 and 3 weeks. The absolute differences in WOMAC Pain from baseline over time are shown in . Percent improvements from baseline in WOMAC Pain with Cingal, saline, or Monovisc were 59%, 45%, and 49%, respectively, at 1 week, and 68%, 53%, and 57%, respectively, at 3 weeks. Cingal was superior to saline at most time points and to Monovisc at 1 and 3 weeks for changes from baseline for Global Assessments, and WOMAC Stiffness and Physical Function ( ), as well as in the EuroQol. From 6 weeks until the end of the study, outcomes with Cingal and Monovisc were similar. The OMERACT-OARSI Responder Index also showed significantly more responders with Cingal versus saline at 1 week (89% vs. 75%; P = 0.0161), which was maintained until 26 weeks (93% vs. 84%; P = 0.0463), except at 3 weeks. While significantly more responders were observed with Cingal versus Monovisc at 1 week (89% vs. 79%; P = 0.0280) and 3 weeks (92% vs. 83%; P = 0.0340), similar percentages of responders were found starting at 6 weeks up until 26 weeks. In addition, Cingal demonstrated superiority over saline in most other secondary and exploratory endpoints (P < 0.05), and over Monovisc at 1 and 3 weeks for most secondary endpoints (P < 0.05), in the ITT and PP populations.
Figure 3.

Mean changes from baseline for Evaluator (A) and Patient (B) Global Assessments and WOMAC Physical Function (C) and Stiffness (D) with Cingal, Monovisc, or saline over time in the ITT population. aP < 0.05, bP < 0.01, cP < 0.001 versus placebo; dP < 0.05, eP < 0.01 versus Monovisc.

Mean changes from baseline for Evaluator (A) and Patient (B) Global Assessments and WOMAC Physical Function (C) and Stiffness (D) with Cingal, Monovisc, or saline over time in the ITT population. aP < 0.05, bP < 0.01, cP < 0.001 versus placebo; dP < 0.05, eP < 0.01 versus Monovisc.

Safety

Twenty-three percent of subjects overall experienced an AE: 24.2% with Cingal, 24.7% with Monovisc, and 17.4% with saline. There were no statistically significant differences among the groups for type or rate of events. The most common AEs were headache (15.7%), arthralgia (12.9%), spinal pain (8.3%), back pain (6.0%), and nasopharyngitis (5.1%). Over 99% of AEs were considered mild or moderate in severity. Six AEs were related to study medication: arthralgia with Cingal (n = 2) and Monovisc (n = 2), peripheral edema with Cingal (n = 1), and rash with Monovisc (n = 1). All related AEs resolved without sequelae. Five serious AEs were reported in 4 subjects (Cingal [n = 2], saline [n = 2]). None of the serious AEs were considered related to treatment and resolved without sequelae. No deaths occurred during the study.

Discussion

We report on the safety and efficacy of Cingal, a novel treatment for the pain and symptoms of knee OA, which combines cross-linked HA from the commercial viscosupplement, Monovisc, with an established corticosteroid, TH. This combination of HA and TH resulted in both rapid and long-term effects, as shown by significantly better pain reduction and functional improvement compared with saline as early as 1 and 3 weeks after injection, which were maintained until 26 weeks. In addition, the effectiveness of Cingal is apparent in its broad success for improving primary and secondary endpoints, including pain and function, as well as both physician- and patient-assessed outcomes. Results from this study also demonstrate a degree of benefit with Cingal that is greater than that reported in prior viscosupplement studies,[6,19-21] including the 72% improvement in WOMAC Pain at 26 weeks and 92% proportion of OMERACT-OARSI responders through 26 weeks. In addition, the rapid pain relief provided by Cingal, demonstrated by a 58% improvement in WOMAC Pain at 1 week and 67% improvement at 3 weeks, is unmatched compared with prior trials of TH alone (20 mg) in knee OA.[22,23] Cingal also verified its design rationale, demonstrating that the addition of a corticosteroid to HA provided significant early pain relief over the first few weeks relative to Monovisc. This finding is similar to those of other studies in which a corticosteroid was added to an HA product, showing that the corticosteroid provided an advantage of more immediate pain relief while patients waited for the onset of pain relief from the HA.[12-14] A separate meta-analysis examining randomized, clinical trials of intraarticular HA versus placebo found that HA starts to become efficacious over several weeks.[11] The clinical significance of Cingal’s effect on OA knee pain is apparent by its rapid response, its consistency of effect across all outcome measures, and other factors. The earlier onset of pain relief (statistically significant changes of WOMAC pain at 1 and 3 weeks) with the addition of TH to HA in Cingal demonstrates the product’s clinical meaningfulness. The advantage of pain reduction with Cingal over Monovisc was a 17% relative improvement at 1 week and 15% relative improvement at 3 weeks. The significance of the shorter term pain relief with Cingal is also supported by the consistency of significant improvements in WOMAC Pain, Function and Stiffness and Total WOMAC and at 1 and 3 weeks (except stiffness at 1 week), as well as the Evaluator and Patient Global Assessments. In addition, the short-term pain relief gained with TH in Cingal can be considered clinically significant when factors to elucidate clinical significance in pain clinical trials, as recommended by IMMPACT,[24] are taken into account, including statistical significance of the primary efficacy analysis, magnitude of improvement in the primary efficacy outcome, responder analysis results, treatment effect size, rapidity of onset of treatment benefit, results from secondary efficacy endpoint, and convenience. Last, clinical meaningfulness can also be directly shown by the OMERACT-OARSI Responder Index results, which showed a significantly higher number of responders with Cingal versus Monovisc at both 1 and 3 weeks. Safety of Cingal in this study was demonstrated by a low incidence of AEs (n = 6), including those related to treatment, which all resolved without sequelae. In addition, no serious AEs were considered related to Cingal. One of the limitations of our study was that follow-up ended at 26 weeks. Since Cingal achieved its largest improvement in WOMAC Pain at 26 weeks, further investigation is warranted into the benefits over longer timeframes. Another limitation was that saline demonstrated a marked impact, which was consistent with that seen in other published knee OA viscosupplementation studies,[6] possibly due to the effects of joint lavage and cleansing of joint debris.[25] Despite this, however, Cingal demonstrated statistical and clinical superiority over saline in most efficacy measures for both ITT and PP populations, and across measurements of pain and symptoms, including stiffness and physical function. In conclusion, the results of our study confirm the safety and effectiveness of a single intraarticular injection of Cingal for rapid and long-term relief of joint pain and symptoms in patients with OA of the knee.
  25 in total

Review 1.  Outcome variables for osteoarthritis clinical trials: The OMERACT-OARSI set of responder criteria.

Authors:  Thao Pham; Désirée Van Der Heijde; Marissa Lassere; Roy D Altman; Jennifer J Anderson; Nicholas Bellamy; Marc Hochberg; Lee Simon; Vibeke Strand; Thasia Woodworth; Maxime Dougados
Journal:  J Rheumatol       Date:  2003-07       Impact factor: 4.666

2.  Radiological assessment of osteo-arthrosis.

Authors:  J H KELLGREN; J S LAWRENCE
Journal:  Ann Rheum Dis       Date:  1957-12       Impact factor: 19.103

3.  Osteoarthritis research priorities: a report from a EULAR ad hoc expert committee.

Authors:  Philip G Conaghan; Margreet Kloppenburg; Georg Schett; Johannes W J Bijlsma
Journal:  Ann Rheum Dis       Date:  2014-03-13       Impact factor: 19.103

4.  A multicenter, randomized controlled trial comparing a single intra-articular injection of Gel-200, a new cross-linked formulation of hyaluronic acid, to phosphate buffered saline for treatment of osteoarthritis of the knee.

Authors:  V Strand; H S B Baraf; P T Lavin; S Lim; H Hosokawa
Journal:  Osteoarthritis Cartilage       Date:  2012-02-01       Impact factor: 6.576

5.  The safety and efficacy of intraarticular hyaluronan with/without corticosteroid in knee osteoarthritis: 1-year, single-blind, randomized study.

Authors:  Cihat Ozturk; Funda Atamaz; Simin Hepguler; Mehmet Argin; Remide Arkun
Journal:  Rheumatol Int       Date:  2005-02-10       Impact factor: 2.631

6.  Reliability and validity of the EuroQol in patients with osteoarthritis of the knee.

Authors:  M Fransen; J Edmonds
Journal:  Rheumatology (Oxford)       Date:  1999-09       Impact factor: 7.580

7.  OARSI guidelines for the non-surgical management of knee osteoarthritis.

Authors:  T E McAlindon; R R Bannuru; M C Sullivan; N K Arden; F Berenbaum; S M Bierma-Zeinstra; G A Hawker; Y Henrotin; D J Hunter; H Kawaguchi; K Kwoh; S Lohmander; F Rannou; E M Roos; M Underwood
Journal:  Osteoarthritis Cartilage       Date:  2014-01-24       Impact factor: 6.576

8.  Moderate-to-severe pain after knee arthroscopy is relieved by intraarticular saline: a randomized controlled trial.

Authors:  Leiv A Rosseland; Knut G Helgesen; Harald Breivik; Audun Stubhaug
Journal:  Anesth Analg       Date:  2004-06       Impact factor: 5.108

9.  Lifetime risk of symptomatic knee osteoarthritis.

Authors:  Louise Murphy; Todd A Schwartz; Charles G Helmick; Jordan B Renner; Gail Tudor; Gary Koch; Anca Dragomir; William D Kalsbeek; Gheorghe Luta; Joanne M Jordan
Journal:  Arthritis Rheum       Date:  2008-09-15

10.  Intra-articular steroids in knee osteoarthritis: a comparative study of triamcinolone hexacetonide and methylprednisolone acetate.

Authors:  Debasish Pyne; Yiannakis Ioannou; Ramesh Mootoo; Asgar Bhanji
Journal:  Clin Rheumatol       Date:  2004-02-24       Impact factor: 2.980

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  27 in total

1.  Anti-scarring effect of sodium hyaluronate at filtration pathway after filtering surgery in rabbits.

Authors:  Yu-Jue Wang; Le-Meng Feng; Cheng Zhang; Wu-Long Zhang; Wei-Tao Song
Journal:  Int J Ophthalmol       Date:  2022-04-18       Impact factor: 1.779

Review 2.  Role and Effectiveness of Intra-articular Injection of Hyaluronic Acid in the Treatment of Knee Osteoarthritis: A Systematic Review.

Authors:  Sumant Chavda; Syed Arman Rabbani; Tarun Wadhwa
Journal:  Cureus       Date:  2022-04-26

3.  Recent Advances in Clinical Translation of Intra-Articular Osteoarthritis Drug Delivery Systems.

Authors:  Carlisle R DeJulius; Shubham Gulati; Karen A Hasty; Leslie J Crofford; Craig L Duvall
Journal:  Adv Ther (Weinh)       Date:  2020-09-28

4.  Safety of Intra-Articular Hyaluronic Acid for Knee Osteoarthritis: Systematic Review and Meta-Analysis of Randomized Trials Involving More than 8,000 Patients.

Authors:  Larry E Miller; Samir Bhattacharyya; William R Parrish; Michael Fredericson; Brad Bisson; Roy D Altman
Journal:  Cartilage       Date:  2019-11-16       Impact factor: 3.117

5.  The Viability and Anti-Inflammatory Effects of Hyaluronic Acid-Chitlac-Tracimolone Acetonide- β-Cyclodextrin Complex on Human Chondrocytes.

Authors:  Elena Tarricone; Rossella Elia; Elena Mattiuzzo; Alessia Faggian; Assunta Pozzuoli; Pietro Ruggieri; Paola Brun
Journal:  Cartilage       Date:  2020-02-28       Impact factor: 3.117

6.  Comparison of the 3 Different Injection Techniques Used in a Randomized Controlled Study Evaluating a Cross-Linked Sodium Hyaluronate Combined With Triamcinolone Hexacetonide (Cingal) for Osteoarthritis of the Knee: A Subgroup Analysis.

Authors:  Robert McCormack; Martin Lamontagne; Christopher Vannabouathong; Robert T Deakon; Etienne L Belzile
Journal:  Clin Med Insights Arthritis Musculoskelet Disord       Date:  2017-08-14

7.  Cost-Utility of a Single-Injection Combined Corticosteroid-Hyaluronic Acid Formulation vs a 2-Injection Regimen of Sequential Corticosteroid and Hyaluronic Acid Injections.

Authors:  Etienne L Belzile; Robert T Deakon; Christopher Vannabouathong; Mohit Bhandari; Martin Lamontagne; Robert McCormack
Journal:  Clin Med Insights Arthritis Musculoskelet Disord       Date:  2017-06-12

Review 8.  Recent advances in hyaluronic acid based therapy for osteoarthritis.

Authors:  Steven Bowman; Mohamed E Awad; Mark W Hamrick; Monte Hunter; Sadanand Fulzele
Journal:  Clin Transl Med       Date:  2018-02-16

Review 9.  An Effective Translation: The Development of Hyaluronan-Based Medical Products From the Physicochemical, and Preclinical Aspects.

Authors:  Gloria Huerta-Ángeles; Kristina Nešporová; Gabriela Ambrožová; Lukas Kubala; Vladimir Velebný
Journal:  Front Bioeng Biotechnol       Date:  2018-05-17

10.  Mono-injection intra-articulaire d'acide hyaluronique dans la gonarthrose : Étude multicentrique prospective ouverte (ART-ONE 75) avec comparaison post hoc versus placebo.

Authors:  Dominique Baron; Christian Flin; Jérôme Porterie; Jacques Despaux; Patrice Vincent
Journal:  Curr Ther Res Clin Exp       Date:  2018-08-01
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