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Revista da Escola de Enfermagem da USP logoLink to Revista da Escola de Enfermagem da USP
. 2022 Jun 10;56:e20210398. doi: 10.1590/1980-220X-REEUSP-2021-0398en

Risk factors for peripheral intravenous catheter-related phlebitis in adult patients *

Factores de riesgo de flebitis relacionada al uso de catéteres intravenosos periféricos en pacientes adultos

Fatores de risco para flebite relacionada ao uso de cateteres intravenosos periféricos em pacientes adultos

Adriana Moreira Noronha Simões 1, Patrícia Vendramim 2, Mavilde Luz Gonçalves Pedreira 2
PMCID: PMC10111391  PMID: 35724261

ABSTRACT

Objective:

To identify risk factors for peripheral intravenous catheter-related phlebitis in adult patients.

Method:

This is a post hoc analysis of a randomized clinical trial, totaling 1,319 patients. Demographic and clinical variables related to therapy and phlebitis were investigated. For data analysis, frequencies, measures of central tendency and dispersion were calculated, and Pearson’s chi-square test and Fisher’s exact test were used, with logistic regression, ROC curve, and Odds Ratio calculation (95% confidence interval; 5% significance level) being implemented.

Results:

Of the 1,319 participants, 80 (6.1%) developed phlebitis. The following were associated with the occurrence of phlebitis: reduced mobility (p = 0.015), family history of deep vein thrombosis (p = 0.05), catheterization of veins on the back of the hand (p = 0.012), pain (p < 0.01), Amoxicillin-Potassium Clavulanate (p = 0.015), and Omeprazole Sodium (p = 0.029).

Conclusion:

Risk factors for phlebitis involved intrinsic and extrinsic factors to the patient, indicating preventive nursing interventions such as promoting patient mobility, not catheterizing veins in the dorsal arch of the hand, cautious infusion of risk drugs, and valuing pain complaints.

DESCRIPTORS: Phlebitis, Peripheral Catheterization, Adult, Nursing

INTRODUCTION

It is estimated that more than 80% of hospitalized patients require intravenous therapy (IVT)(1), implemented mainly with the use of peripheral intravenous catheters (PIC), since they provide quick access to the vascular system, being the most performed invasive intervention in the health area, and less invasive and more cost-effective than other types of intravenous catheters(24). Thus, due to the diagnostic and therapeutic scope of IVT, the insertion of PIC is one of the most frequent interventions in clinical nursing practice(1,5,6).

Phlebitis is one of the PIC-related complications in adults, causing discomfort to the patient, interruption of therapy, higher care costs, being able to result in negative patient’s experience with the nursing practice(7,8). It is an inflammatory process of the vein intimal layer, of varying severity, classified in mechanical phlebitis when it results, especially, from the trauma to the vessel wall caused by PIC; in chemical phlebitis, when resulting from the infusion of fluids or solutions with extremes of pH and osmolarity, irritating to vascular tissue or not adequately solubilized; and in infectious phlebitis when related to breach of aseptic technique during PIC insertion or maintenance from handling dressings, devices, and solutions(9). It should also be noted that there is the possibility of identifying post-infusion phlebitis, when the complication is identified up to 48 hours after the removal of PIC(10).

Clinical manifestations include edema, hyperemia, pain, local heat, fibrous cord along the vessel path and, in cases of infection, drainage of purulent exudate may occur at the PIC insertion site(11). It can also be categorized according to severity, with the use of scales being suggested. The Infusion Nursing Society (INS) Phlebitis Scale is the most commonly applied in Brazil, ranging from 0 to 4, with zero being the absence of complications, progressing according to the symptoms and signs of inflammation, pointing to greater severity of phlebitis, up to grade 4 which covers indicators of the presence of infection(1).

The results of studies(8,1214) investigating risk factors related to the occurrence of this complication are diverse and divergent, pointing to multifactorial demographic, clinical, and IVT-related causes. In this study, we sought to investigate the occurrence of PIC-related phlebitis, to expand knowledge about the occurrence of this complication and to create subsidies capable of promoting decision-making and nursing interventions favoring its prevention, supporting care practice, and aiming to reduce IVT-related damage, since the identification of risk factors can help in the development of protocols and the institution of care directed to the patient’s individuality, to prevent the occurrence of the phlebitis complication. Thus, this study aimed to assess risk factors for the development of PIC-related phlebitis in adult patients.

METHOD

Design of Study

This is a study characterized as post hoc analysis of a randomized, controlled, non-inferiority clinical trial (RCT) on the influence of the PIC withdrawal method on the occurrence of phlebitis, called “Removal of peripheral intravenous catheters according to clinical signs of every 96 hours: a randomized, controlled, and non-inferiority study” and represented by the acronym ResPeCt, based on its title(15).

The ResPeCt Study, a randomized, controlled, non- inferiority clinical study, aimed to check if PIC removal on clinical indication was not inferior to scheduled removal every 96 hours regarding the occurrence of phlebitis and to compare the severity of phlebitis, PIC length of stay, and other complications of intravenous therapy among study groups. In the primary study, the dependent variable for the sample calculation was phlebitis, its prevalence being stipulated at 5%, in line with the recommendation of the INS (Infusion Nurses Society) and with a non-inferiority margin of 3%. A significance level of 5% and test power of 80% were also adopted. A sample of 1,305 patients was estimated. The final study sample consisted of 1,319 patients, with 672 (50.9%) patients with PIC removal due to clinical indication and 647 (49.1%) with PIC removed every 96 hours. The incidence rate of phlebitis/1000 PIC-day was 14.9 in the clinical indication group and 23.8 in the 96-hour removal group (p = 0.006). The study showed that withdrawal according to clinical indication was not inferior to withdrawal every 96 hours regarding the occurrence of phlebitis(15). The primary study was included in a Cochrane systematic review on the occurrence of phlebitis associated with peripheral intravenous catheters, being considered robust to support such a review(14).

Sample

For the present investigation, the ResPeCt study participants who developed phlebitis were compared to those who did not, aiming at investigating the existence of a causal association with exposure to risk factors for the occurrence of this PIC-related complication.

The selected inclusion criteria were: age 18 years or older; patients with PIC in place in clinical, surgical, intensive care units, or operating room; estimated treatment plan of IVT performed by PIC for at least 96 hours, as well as acceptance of the proposals expressed in the Free Informed Consent Form by the patient or guardian. As exclusion criteria, the following were listed: medical diagnosis of Catheter-related Blood Stream Infection and/or sepsis; neutrophil count of less than or equal to 1000/mm3 and simultaneous use of more than one PIC.

The sample of the present investigation consisted of 1,319 patients. The cases were represented by 80 participants who developed phlebitis and the controls were the 1,239 patients with PIC who did not present the complication. The present investigation was carried out from March 2019 to October 2020.

Study Variables

The dependent variable, the occurrence of PIC-related phlebitis, was measured by the categories, yes and no, as well as its severity classification, through the application of the Phlebitis Scale recommended by the INS in 2011 and the translation into Portuguese validated in 2016(1,16). This Phlebitis scale is graded from zero to four, with each level corresponding to the signs and/or symptoms of phlebitis. Grade 0 means absence of phlebitis. Grade 1 considers the presence of erythema with or without local pain. Grade 2 defines the presence of erythema, with or without pain or swelling, with induration. Grade 3 means the presence of erythema, with or without pain or swelling with induration and a palpable fibrous cord. Grade 4 is scored when there is pain, with erythema and/or edema, with induration and a palpable venous cord greater than 2.5 cm in length, and purulent drainage(1.16).

Demographic and clinical variables were also studied to categorize the participants, as well as identify their possible relationship with the occurrence of the dependent variable, namely: age, sex, skin color, body mass index (BMI), place of hospitalization (H1 and H2), type of admission, chronic diseases, risk for venous thromboembolism, family history of venous thromboembolism, presence of venous thromboembolism, use of oral antiplatelet agents, use of oral anticoagulants, use of subcutaneous (SC) anticoagulants, and reduced mobility.

PIC- and therapy-related variables were also studied for possible characterization as a risk factor for phlebitis, including PIC type and caliber, laterality of the punctured limb, insertion site, PIC method of use, administration of antibiotics (ATB) and other drugs. Such variables were studied as they were aspects of sample description and of possible clinical and therapeutic relationship to phlebitis(12,13).

Data Collection

This study began on March 2019, through a literature review on the factors associated with the occurrence of PIC-related phlebitis. Subsequently, the primary study database was examined and the variables of interest were selected, their data compiled into a Microsoft Excel® spreadsheet, initiating the secondary analysis. It should be noted that the researchers also participated in the primary study and thus had access to data.

Data Analysis and Treatment

For statistical analysis, the software R3.1.6 – 2009–2019 (RStudio, Inc.©) was used. Categorical variables were presented according to absolute and relative frequency; numerical variables according to mean, median, and measures of dispersion. For correlation analysis of categorical variables, Pearson’s Chi-Square and Fischer’s Exact tests were used.

For univariate and multivariable logistic regression analysis, the Chi-square Association Test was applied with the variables that fitted the model with p < 0.10 ep < 0.20, respectively.

The variables measure of effect was the Odds Ratio (OR) with a confidence interval (CI) of 95% and a significance level of 5%. The analysis of the PIC-related phlebitis occurrence model in the study sample was implemented through the Receiver Operating Characteristic Curve (ROC).

Ethical Aspects

The RCT was registered on the platform Clinical Trials with the ID number NCT02568670, submitted to the Research Ethics Committee, and was approved. It also underwent a secondary analysis, which followed the standards of ethics in research involving human beings, according to Resolution No. 466/2012 of the National Health Council, and was approved by the Research Ethics Committee of the Universidade Federal de São Paulo, in 2020, with opinion number 4.161.802.

According to the inclusion criteria, and after clarification about the study, the RCT participants consented to participate in the research, formalizing the acceptance by signing the Free and Informed Consent Form.

RESULTS

Of the 1,319 participants, 80 (6.1%) developed phlebitis and 1,239 (93.9%) did not present the complication. The most observed phlebitis grade was Grade II (48.7%), followed by grade I (40.0%), and grade III (11.3%). No cases of grade IV phlebitis nor catheter-related blood stream infection were identified.

As shown in Table 1, among the sample demographic and clinical characteristics, a difference was identified between the groups regarding the variables: place of hospitalization (p = 0.019), chronic diseases (p = 0.018), and reduced mobility (p = 0.011). A large part of the study sample was obtained from the elderly, white, overweight or obese people, with chronic diseases, at risk of VTE, reduced mobility, and admitted for surgical indication at the H1 health institution.

Table 1. Demographic and clinical characteristics of patients who did or did not develop peripheral intravenous catheter-related phlebitis – São Paulo, Brazil, 2020.

Demographic and Clinical Characteristics Phlebitis Total p
Yes No
N % N % N %
Age (years)
Mean (±standard deviation) 59.79 (±20.48)
Age range 0.919a
<30 years 6 7.5 109 8.7 115 8.7
≥30 years to <60 years 30 37.5 489 39.5 519 39.3
≥60 years to <80 years 28 35.0 391 31.6 419 31.8
≥80 years 16 20.0 250 20.2 266 20.2
Sex 0.338a
Female 36 45.0 626 50.5 662 50.2
Male 44 55.0 613 49.5 657 49.8
Skin color (n = 1,312) 0.705b
White 78 97.5 1,151 93.4 1229 93.7
Brown 1 1.25 32 2.6 33 2.5
Black 0 0.0 26 2.1 26 2.0
Yellow 1 1.25 23 1.9 24 1.8
BMI 1 (n = 1,295) 0.995a
Mean (±standard deviation) 26.48 (±5.43)
Under weight 4 5.0 57 4.7 61 4.7
Eutrophy 30 37.5 469 38.6 499 38.5
Overweight 26 32.5 398 32.7 424 32.7
Obesity 20 25.0 291 24.0 311 24.1
Place of hospitalization 0.019b
H1 77 96.2 1,089 87.9 1166 88.4
H2 3 3.8 150 12.1 153 11.6
Admission type (n = 1,316) 0.710a
Clinical 11 13.7 189 15.3 200 15.2
Surgical 69 86.3 1,047 84.7 1116 84.8
Chronic diseases 0.018a
No 37 46.3 413 33.3 450 34.1
Yes 43 53.7 826 66.7 869 65.9
VTE risk 2 0.071a
No 14 17.5 330 26.6 344 26.1
Yes 66 82.5 909 73.4 975 73.9
Family history of VTE 2 0.171b
No 79 98.7 1,237 99.8 1316 99.8
Yes 1 1.3 2 0.2 3 0.2
VTE 2 1.000b
No 75 93.8 1,162 93.8 1237 93.8
Yes 5 6.2 77 6.2 82 6.2
Use of oral antiaggregant 0.559a
No 69 86.3 1,038 83.8 1107 83.9
Yes 11 13.8 201 16.2 212 16.1
Use of oral anticoagulants 0.814b
No 76 95.0 1.158 93.5 1234 93.6
Yes 4 5.0 81 6.5 85 6.4
Use of SC anticoagulant 3 0.292b
No 49 61.3 684 55.2 733 55.6
Yes 31 38.8 555 44.8 586 44.4
Reduced mobility 0.011a
No 48 60.0 906 73.1 954 72.3
Yes 32 40.0 333 26.9 365 27.7

a Chi-square independence test, bFisher’s exact test, 1Body mass index, 2Venous thromboembolism, 3Subcutaneous.

Regarding the variables related to PIC and IVT (Table 2) there was a difference between the groups regarding pain complaints in patients who developed phlebitis. The predominant use of the 22 Gauge Nexiva® catheter was identified, installed in the right forearm for intermittent infusion of antibiotics. Due to the primary study design, there was a similar proportion of PIC removed every 96 hours or as clinically indicated.

Table 2. Characteristics of peripheral intravenous catheter (PIC) and intravenous therapy (IVT) of patients who developed or did not develop peripheral intravenous catheters-related phlebitis – São Paulo, Brazil, 2020.

PIC and IVT Characteristics Phlebitis Total p
Yes No
N % N % N %
Catheter type (n = 1,228) 0.201a
Nexiva® 53 73.6 722 62.5 775 58.8
Insyte® 16 22.2 359 31.0 375 28.4
Intima® 3 4.2 75 6.5 78 5.9
Catheter gauge (n = 1,263) 0.805b
16 gauge 0 0.0 1 0.1 1 0.1
18 gauge 0 0.0 5 0.4 5 0.4
20 gauge 4 5.1 91 7.7 95 7.5
22 gauge 63 79.7 889 75.0 952 75.4
24 gauge 12 15.2 198 16.7 210 16.6
Laterality of the insertion site (n = 1,318) 0.365a
Right 42 52.5 7144 57.7 756 57.3
Left 38 47.5 524 42.3 562 42.6
Insertion site (n = 1,316) 0,054a
Forearm 40 50.0 633 51.2 673 51.1
Back of hand 13 16.3 95 7.7 108 8.2
Antecubital fossa 7 8.8 122 9.9 129 9.8
Wrist 10 12.5 135 10.9 145 11.1
Arm 10 12.5 251 20.3 261 19.8
PIC method of use (n = 1,304) 0.065a
Intermittent 68 85.0 930 76.0 998 76.5
Continuous 12 15.0 294 24.0 306 23.5
PIC method of removal 0.184a
96H 45 56.2 602 48.6 647 49.1
Clinical indication 35 43.8 637 51.4 672 50.9
Pain complaint <0.001a
No 26 32.5 984 79.4 1.010 76.6
Yes 54 67.5 255 20.6 309 23.4
Use of antibiotic therapy 0.102a
No 22 27.5 453 36.6 475 36.0
Yes 58 72.5 786 63.4 844 64.0

a Chi-square independence test, bFisher’s exact test.

Despite the small number in some analyses, it was identified that the use of some drugs was significantly associated with the development of phlebitis, such as Bromopride (p = 0.012), Ketoprofen (p = 0.012), <0.001), Enoxaparin (p < 0.001), Furosemide (p < 0.001), Sodium Heparin (p < 0.001), Hydrocortisone Sodium Succinate (p = 0.012), Metronidazole (p < 0.001), Omeprazole Sodium (p = 0.013), Ondansetron Hydrochloride (p = 0.001), Tramadol Hydrochloride (p = 0.002).

The diagnostic curve of the classification model used was the ROC curve, and the area under the curve was 84.0%, the model’s success rate was 94.0%, the specificity was 99.7%, and the sensitivity 6.25%, with 94.0% of the variables well classified, with their study being used in the analyses detailed below.

According to Table 3, when modeling logistic regression of univariate analysis considering only the variables with p-value <0.20 in the chi-square test of Tables 1 and 2, the significance of reduced mobility, insertion of PIC in veins in the hand region, and pain complaints are highlighted as risk indicators for the occurrence of phlebitis. Moreover, regarding drugs, Amoxicillin-Potassium Clavulanate (p = 0.002) and Omeprazole Sodium (p = 0.002) stood out in the analysis model.

Table 3. Univariate analysis using the logistic regression model of patients with or without peripheral intravenous catheters-related phlebitis, according to the variables of interest selected in the association test. São Paulo, Brazil, 2020.

Variable Estimate Error p OR CI 95% OR
PIC method of removal –0.31 0.23 0.185 0.74 (0.47; 1.16)
Reduced mobility 0.6 0.2 0.012 1.8 (1.14; 2.89)
VTE risk1 0.5 0.3 0.074 1.7 (0.95; 3.09)
Family history of VTE1 2.1 1.2 0.094 7.8 (0.7; 87.27)
Insertion site – Back of the hand 0.8 0.3 0.022 2.2 (1.12; 4.2)
Pain 2.1 0.2 <0.001 8.0 (4.92; 13.05)
Use of ATB2 0.4 0.3 0.104 1.5 (0.92; 2.52)
Amoxicillin-Potassium Clavulanate 1.9 0.6 0.002 6.5 (1.98; 21.1)
Omeprazole Sodium 0.7 0.2 0.002 2.0 (1.28; 3.2)

1 Venous thromboembolism, 2Antibiotic.

Based on the multivariate analysis final model (Table 4), the selected variables were those presenting p < 0.20 in the univariate regression analysis in Table 3; the interpretation of the coefficients of the final model by the OR, in relation to patients who had reduced mobility, showed that the chance of having phlebitis was 1.8. Those with family history of VTE had 22.7. Furthermore, patients who had their PIC inserted in the back of the hand had a 2.8 times greater risk of developing phlebitis when compared to other insertion sites, and those who reported pain at PIC insertion had 8.3 times greater chance of developing phlebitis.

Table 4. Multivariate analysis – final model of factors associated with the occurrence of peripheral intravenous catheter-related phlebitis – São Paulo, Brazil, 2020.

Variable Estimate Error p OR CI 95% OR
PIC method of removal –0.31 0.23 0.185 0.74 (0.47; 1.16)
Reduced mobility 0.59 0.26 0.015 1.8 (1.08; 3.00)
Family history of VTE1 3.12 1.28 0.05 22.7 (1.84; 280.56)
Insertion site – Back of the hand 1.05 0.37 0.012 2.8 (1.39; 5.83)
Pain 2.12 0.26 <0.01 8.3 (4.98; 13.93)
Amoxicillin-Potassium Clavulanate 2.01 0.73 0.015 7.4 (1.8; 30.78)
Omeprazole Sodium 0.54 0.25 0.029 1.7 (1.05; 2.81)

1 Venous thromboembolism.

Among the drugs used by the patients studied, statistical significance was identified for the occurrence of phlebitis in those who used Amoxicillin-Potassium Clavulanate (5%; p = 0.015; OR 7.4) and Omeprazole Sodium (53.3%; p = 0.029; OR 1.7).

DISCUSSION

The results identified showed that the proportion of patients who had phlebitis was 6.1%, among the 1,319 patients studied, exceeding the INS recommendation of a proportion of 5%(1).

The literature on the subject indicates quite different frequencies of PIC-related phlebitis, ranging from 1.7% to 70%. This discrepancy arises, among others, as a result of the lack of standardization in the diagnosis, the monitoring, and the behavior, as well as of divergences in the condition classifications by professionals(8,13). The present study, although having values slightly above the recommended, is inferior if compared to other national studies, which report incidences from 7.5%(17) to 31.1%(8).

Regarding the length of PIC permanence and the occurrence of phlebitis, in the primary study(15) a significant difference was identified in the time from 24 to 48 hours, with the highest complication rate (7.3%), if compared to the other times evaluated. This finding is also evidenced in another study(17) and relates the phlebitis event to a time of up to 48 hours due to the probable biological inflammatory response for patients prone to this complication.

Aiming at the pathophysiology (Virchow’s triad) related to VTE, the relationship between its risk factors and the development of phlebitis was investigated. It was identified that family history of VTE was a risk factor for phlebitis, as well as being an indicator for other clinical complications. These findings corroborate the study(18), in which the specific biological susceptibility to develop phlebitis was correlated with the risk of VTE. Furthermore, among the risk factors for VTE, reduced mobility was also shown to have a significant correlation, either temporary or permanent mobility reduction, with the probability of developing phlebitis, as well as other complications(19). Based on the study of the Maddox scale, used to identify and classify phlebitis severity, reduced mobility was one of the main nursing diagnoses (72.2%) identified(18).

Regarding PIC insertion site, the back of the hand was the one with the highest risk for the development of phlebitis, in the univariate and multivariable analyses. Despite the frequent use of veins in this region for PIC insertion in clinical practice in Brazil, studies conducted in other countries and showing a high proportion of phlebitis when using PIC in this region, 23.8%(8) and 36.5%(20), culminated in changes in good practice guidelines, contraindicating PIC insertion in adults in veins of the back of the hand(21). Regarding the catheter gauge, no effect was identified in relation to the occurrence of phlebitis, a finding that was also present in former studies.

It is noteworthy, therefore, that the latest scientific evidence supports a change in the classic nursing behavior in initiating peripheral venipuncture for PIC insertion, from the most distal to the proximal vessels, including in this proposal the veins of the dorsal arch of the hands. Thus, the inclusion of prioritization of the most distal vessels of the forearm for vascular access in nursing care protocols is supported, aiming to control the risk of development of PIC-related phlebitis in veins in the arch of the back of hand(20).

It was observed that 67.5% of the patients complained of pain at the PIC insertion site, with no association with signs of inflammation. What is observed in care practice is that, in most cases, this complaint is not valued as an indication for PIC withdrawal, if not associated with other clinical indicators. It should be noted that our result showed that patients who reported pain on PIC insertion site were 8.3 times more likely to develop phlebitis. It is worth highlighting that, even in the INS Phlebitis Scale(1,16), pain is not an absolute factor for the diagnosis of milder phlebitis, Grade I. Erythema is the one to determine the beginning of phlebitis on this scale, and the pain may or may not be present. Thus, the need to value pain as an early indication of the possibility of development of phlebitis, even without the presence of erythema, is highlighted, especially for nursing teams that use the INS Phlebitis Scale(1,16) in clinical practice.

It is known that chemical phlebitis can be directly related to the administration of drugs with extremes of pH, osmolarity, and/or with substances that irritate the vessels. The administration of drugs with extreme pH is related to the occurrence of phlebitis, because the more acidic or basic the drug, the greater the risk of chemical phlebitis(8,17). Moreover, some drugs used during IVT in some institutions are not recommended for administration through PIC in others, with the need to conduct in-depth studies for the prevention of chemical phlebitis(15,22).

The analyses carried out showed that the occurrence of phlebitis was associated with the use of some drugs. To minimize this occurrence, specific care is needed in the preparation and, in particular, in increasing drug dilution and infusion time, as well as in the continuous evaluation of PIC insertion site during its infusion(3,9,23). National studies found significant associations(3,17), corroborating this finding, revealing that the increased risk of chemical phlebitis is associated with the administration of antimicrobial drugs, in view of the specific pharmaceutical properties and possible technical failures in their preparation and administration(3,9,24).

In this setting, the need for nurses to approach clinical pharmacists, as well as the pharmaceutical industry, so that drug and parenteral solutions manufacturing technologies can be more synergistic with the needs of vascular health preservation, as well as with directing preventive measures for chemical phlebitis.

As for the analysis of the variable use of antibiotics, in the present study, there was a significant association of the occurrence of phlebitis with the use of Amoxicillin-Potassium Clavulanate. An association was observed with the study(9) that demonstrated that the administration of Amoxicillin-Potassium Clavulanate resulted in greater potential for the development of phlebitis. It should be noted that the fact that Amoxicillin-Potassium Clavulanate presented a pH between 8.0 and 10 may have increased the risk for the occurrence of chemical phlebitis(22,25). Other authors state that antibiotics with similar characteristics were considered a risk factor for the development of this event(3,9,12,25).

Omeprazole Sodium has a pH between 8.8 and 9.2 and demonstrated that its use corroborated 1.7 times greater chance of phlebitis. The analysis of the extremely basic hydrogen potential profile of this drug can support the finding. Furthermore, it is also consistent with the findings of the study(26) on incidence and associated factors, which found association with drugs of similar characteristics.

Additionally, it is noteworthy that no significant correlation was found between phlebitis and age and female sex. The results related to sex and age are similar to a more recent one(9) that also did not obtain associations with phlebitis.

At the end of this study, we can emphasize that phlebitis is a multifactorial event and different strategies are required for its identification and prevention, from choosing the best device and gauge suitable for the patient and therapy prescribed, insertion site, as well as the early detection of phlebitis, possible through systematic clinical assessment and audit of compliance monitoring, as well as the use of technologies, such as ultrasound, and the dilution and administration of evidence-based drugs, with the objective of reducing the occurrence of this complication.

Additionally, it is noted that there are opportunities for improvement in the attention of the pharmaceutical industry in what regards the formulation and physicochemical behavior of drugs that are more synergistic with biological needs to maintain vascular health.

One of the limitations of this study is the performance of secondary analysis research, subject to the influences of selection biases and inclusion of the sample according to the objectives of the main study. However, it should be highlighted that the robust sample of this investigation supports the institution of measures to prevent PIC-related phlebitis in terms of promoting patient mobility, non-insertion of PIC in veins of the back of the hand, cautious infusion of drugs, and valuing the isolated complaint of PIC-related pain as an indication of phlebitis.

CONCLUSION

The risk factors in the multivariable analysis of risk assessment for the occurrence of phlebitis found in the present study were the presence of reduced mobility, family history of VTE, insertion of PIC in veins of the back of the hand, complaint of pain on PIC insertion, as well as the use of the drugs Amoxicillin-Potassium Clavulanate and Omeprazole Sodium.

ASSOCIATE EDITOR

Thelma Leite de Araújo

Footnotes

Financial support Conselho Nacional de Desenvolvimento Científico e Tecnológico – CNPq projeto n 308281/2015-2.

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