Literature DB >> 35844437

Analysis of Clinical Effects of Comprehensive Nursing Based on Enhanced Recovery after Surgery in Patients with Embolization for Intracranial Aneurysms.

Jing Liu1, Kunxian Zhang1, Bei Wang2, Qin Hu2, Qing Zhang2, Lei Wan2, Xianpu Wang1, Wenping Xiong2.   

Abstract

Objective: This research sets out to elucidate the clinical effect of comprehensive nursing based on the concept of enhanced recovery after surgery (ERAS) in patients with embolization for intracranial aneurysms (IAs).
Methods: This study enrolled 119 patients with embolization for IAs in the Zhongnan Hospital of Wuhan University from January 2020 to January 2021 and divided them into two groups according to the perioperative care they received: a control group (n = 39) treated with routine perioperative nursing and an observation group (n = 80) treated with ERAS-based comprehensive nursing. Surgical indicators, neurological function (National Institute of Health Stroke Scale (NIHSS) score; Scandinavian Stroke Scale (SSS) score), anxiety and depression (Self-Rating Anxiety Scale (SAS) score; Self-Rating Depression Scale (SDS) score), incidence of adverse events, and patient satisfaction were compared.
Results: The observation group had better surgical indicators and lower scores of NIHSS, SSS, SAS, and SDS than the control group, accompanied by a lower incidence of adverse events and higher patient satisfaction. Conclusions: ERAS-based comprehensive nursing can better promote patients' neurological recovery after embolization for IAs, relieve unhealthy emotions (depression, anxiety, etc.), and reduce the occurrence of adverse reactions, facilitating patient discharge.
Copyright © 2022 Jing Liu et al.

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Mesh:

Year:  2022        PMID: 35844437      PMCID: PMC9286944          DOI: 10.1155/2022/3026680

Source DB:  PubMed          Journal:  Comput Math Methods Med        ISSN: 1748-670X            Impact factor:   2.809


1. Introduction

Intracranial aneurysm (IA) is a common, devastating condition that can lead to death or permanent disability, affecting approximately 2-5% of the general population [1, 2]. Such a tumor is often found by accident during brain examinations and other procedures. If ruptured, it is very easy to cause subarachnoid hemorrhage (SAH), which is the reason for the high morbidity and mortality of IAs [3]. IA-induced SAH not only contributes to a mortality rate as high as 20% but also a high recurrence rate in surviving patients [4]. Age, sex, hypertension, aneurysm size, and smoking have long been identified as risk factors [5]. However, the etiology of SAH, especially the rupture risk of IAs, has not been completely elucidated and needs further research [6]. In recent years, the research on the treatment plan and outcome of SAH caused by IAs has become the main research direction [7, 8]. Exploring effective intervention models for IAs is of great practical significance for further optimizing the management of such patients and improving their prognosis. IAs are routinely treated by endovascular therapy [9, 10], among which the most extensively used is coil embolization (CE), with the common strategies being routine CE, balloon-assisted CE, and stent-assisted CE [11]. Despite its wide application, the use of CE is often associated with a high recurrence rate, especially in the treatment of large and giant IAs [12]. And although stent-assisted CE can help achieve a more lasting curative effect, the postoperative recurrence rate of IAs can be as high as 20-57% in the patients treated [13, 14]. Hence, further and effective postoperative care is required, which can significantly improve the effectiveness of treatment and ensure the safety of patients during treatment [15]. Among them, comprehensive nursing is a brand-new nursing model integrating the advantages of group nursing and primary nursing, which is a perfect combination of nursing concept, nursing plan, and nursing quality evaluation [16]. The purpose of this study is to explore the clinical effect of comprehensive nursing based on the concept of enhanced recovery after surgery (ERAS) on patients with embolization for IAs.

2. Methods

2.1. General Information

This study enrolled 119 cases of IAs undergoing embolization in the Neurosurgery Department of Zhongnan Hospital of Wuhan University from January 2020 to January 2021. All patients were diagnosed as IA by computed tomography angiography (CTA) examination and met the inclusion criteria. All cases underwent CE or stent-assisted CE for IAs. Patients were divided into either the control group (CG; n = 39), which received routine perioperative care after IA embolization, or the observation group (OG; n = 80), which received perioperative comprehensive nursing based on the concept of enhanced recovery after surgery (ERAS). The two cohorts were similar in sex, age, and course of disease, with comparability (P > 0.05). Inclusion criteria are as follows: patients who can accurately express their discomfort and met the indications of interventional embolization with Hunt-Hess grade 0-2 IAs were included [17]. Exclusion criteria are as follows: patients with underlying medical conditions, surgical contraindications, or other types of nervous system diseases (hypertensive cerebral hemorrhage, craniocerebral trauma, etc.) were excluded. The patients' family members agreed to this study and signed the relevant agreement, and this study has obtained ethical approval from the Zhongnan Hospital of Wuhan University.

2.2. Methods

CG received routine nursing, including closely monitoring patients' vital signs after operation, answering questions raised by patients and their families in detail, reminding patients' families of matters needing attention during the implementation of care for patients, maintaining the sanitary environment of the ward, and paying strict attention to disinfection procedures. On the basis of the above measures, OG was given ERAS-based comprehensive rehabilitation nursing. First of all, patients were provided with psychological care. Patients' negative emotions (NEs) were evaluated and divided into three grades: no NE, certain NEs, and severe NEs. For those who had no NEs, their family members were reminded to pay attention to observation; for those with certain NEs, psychological counseling and comfort were given, and methods such as attention diversion, suggestion, and encouragement were combined to help them relieve. For those with severe NEs, individualized counseling was provided, family members were reminded to give emotional support, and professional psychiatric medical staff were invited for intervention. At the same time, rehabilitation health education was carried out for patients. The postoperative situation of each patient was investigated and statistically analyzed to understand his/her needs for rehabilitation-related health education and knowledge points. Besides, family members were given supporting health knowledge guidance, including information about the operation effect, rehabilitation plan at different stages after operation, postoperative dietary and activity precautions, approximate hospitalization time, and precautions after discharge. In case of adverse events (AEs), patients were informed in detail about prevention and control and were instructed to understand the common causes of postoperative AEs and prevention techniques. Patients with transient neurological dysfunction were given slow intravenous injection of nimetone with micropump immediately. Those at high risk of cerebral vasospasm were given oral intervention of nimodipine tablets. In addition, patients were closely observed for neurological symptoms, such as muscle strength decline, dizziness, nausea, and vomiting. And the nursing staff would immediately report to the attending doctor and coordinate the emergency treatment for the patient if the above neurological symptoms occurred. Furthermore, the patient's blood pressure was continuously monitored. For those whose blood pressure increased continuously or suddenly, the risk of rebleeding was assumed to be higher, and immediate antihypertensive measures were taken to maintain the mean arterial pressure of 10 to 11 kPa. Bleeding at the puncture site and subcutaneous hematoma are also major AEs that affect postoperative recovery. In such cases, the puncture site was bandaged after compression with sandbags, and the patient was reminded to lie supine without a pillow.

2.3. Endpoints

2.3.1. Surgical Indicators

The surgical indicators (early ambulation and length of stay (LOS)) of patients were compared.

2.3.2. Neurological Function

Patients' neurological function assessed by the National Institute of Health Stroke Scale (NIHSS; score range: 0-42 points) [18] and Scandinavian Stroke Scale (SSS; score range: 0-58 points) [19] was compared between groups. The better the patient's neurological function, the lower the score.

2.3.3. Mental Health (MH)

Patients' MH before and 1 month after nursing, evaluated using the Self-Rating Anxiety/Depression Scale (SAS/SDS) (20 items, 0-100 points) [20, 21], was also observed and compared. The worse the MH level of patients, the higher the scores.

2.3.4. Incidence of AEs

The two groups were also compared in terms of the incidence of AEs (cerebral vasospasm, rebleeding, headache, vomiting, bleeding at the puncture site, and subcutaneous hematoma).

2.3.5. Patient Satisfaction

The nursing satisfaction, assessed using the self-made nursing satisfaction questionnaire with self-designed contents and evaluation criteria, was compared between groups. The total score is 100 points, of which 100-85 is considered as satisfactory, 60-84 as basically satisfactory, and less than 60 as dissatisfied. Satisfaction = (satisfied + basically satisfied) cases/total cases∗100%.

2.4. Statistical Processing

SPSS22.0 (AsiaAnalytics formerly SPSS China) was employed for comprehensive data analysis and GraphPad Prism 6 (GraphPad Software, San Diego, USA) for graph drawing. The statistical methods for the comparison of measurement data expressed as X ± S were t-test (intergroup) and paired t-test (within-group before and after intervention), while counting data represented by number of cases/percentage (n/%) were analyzed by the χ2. The significance level was assumed at P < 0.05.

3. Results

3.1. General Information

The two cohorts showed no statistical differences in a series of general data like gender, age, and average income (P > 0.05; Table 1).
Table 1

General information of patients in the two groups.

ClassificationObservation group (n = 80)Control group (n = 39) t/χ2 P
Sex0.1500.698
 Male42 (52.50)19 (48.72)
 Female38 (47.50)20 (51.28)
Age (years old)52.88 ± 7.6853.28 ± 7.820.2650.791
BMI (kg/m2)23.17 ± 2.6823.26 ± 2.390.1780.859
Residence0.0530.819
 Urban60 (75.00)30 (76.92)
 Rural20 (25.00)9 (23.08)
Eating habits0.2610.609
 Light23 (28.75)13 (33.33)
 Heavy57 (71.25)26 (66.67)
Smoking1.0060.316
 Yes64 (80.00)28 (71.79)
 No16 (20.00)11 (28.21)
Drinking0.1360.712
 Yes56 (70.00)26 (66.67)
 No24 (30.00)13 (33.33)

3.2. Surgical Indicators

The comparison of the postoperative indicators determined earlier ambulation and shorter LOS in OG versus CG, with statistical significance (P < 0.05; Figure 1).
Figure 1

Surgical indicators. (a) Time for ambulation: the time of ambulation was faster in the observation group than in the control group (P < 0.05). (b) Length of stay: the length of stay was shorter in the observation group compared with the control group (P < 0.05). Note: ∗P < 0.05 vs. control group.

3.3. Neurological Function

The comparison of NIHSS and SSS scores showed that the two scores decreased obviously at 1 month after care, especially in OG (P < 0.05; Figure 2).
Figure 2

Neurological function of patients in the two groups. (a) NIHSS score: after nursing for one month, the NIHSS score was significantly lower in the observation group compared with the control group (P < 0.05). (b) SSS score: after one month of nursing, the SSS score was significantly lower in the observation group than in the control group (P < 0.05). Note: ∗P < 0.05 vs. before nursing; #P < 0.05 vs. control group.

3.4. MH

After comparing SAS and SDS scores, it was found that the two scores dropped statistically after care in both groups and were lower in OG (P < 0.05; Figure 3).
Figure 3

Mental health of patients in two groups. (a) SAS score: the SAS score of the two groups changed significantly after one month of nursing and was lower in the observation group compared with the control group (P < 0.05). (b) SDS score: the SDS score of the two groups changed significantly after one month of nursing and was lower in the observation group compared with the control group (P < 0.05). Note: ∗P < 0.05 vs. before nursing; #P < 0.05 vs. control group.

3.5. Incidence of AEs

After investigating the incidence of AEs in the two groups, it was found that the incidence was significantly lower in OG compared with CG (P < 0.05; Table 2).
Table 2

Incidence of adverse events in the two groups.

ClassificationObservation group (n = 80)Control group (n = 39) χ 2 P
Cerebral vasospasm0 (0.00)2 (5.13)
Rebleeding0 (0.00)1 (2.56)
Headache0 (0.00)0 (0.00)
Vomiting1 (1.25)1 (2.56)
Bleeding at the puncture site0 (0.00)1 (2.56)
Subcutaneous hematoma1 (1.25)1 (2.56)
Incidence of adverse events (%)2 (2.50)6 (15.38)6.9410.008

3.6. Patient Satisfaction

OG was far superior to CG in patient satisfaction, as indicated by the patient satisfaction survey (P < 0.05; Table 3).
Table 3

Satisfaction of two groups of patients.

ClassificationObservation group (n = 80)Control group (n = 39) χ 2 P
Satisfied56 (70.00)19 (48.72)
Basically satisfied20 (25.00)11 (28.21)
Dissatisfied4 (5.00)9 (23.07)
Satisfaction (%)76 (95.00)30 (76.93)8.8040.003

4. Discussion

After surgery for IAs, a few patients may still experience IA recurrence [7]. In addition, aneurysm rupture that is prone to during surgery significantly increases the risk of morbidity and mortality [22]. Therefore, reasonable nursing methods are needed to delay aneurysm rupture and slow down postoperative aneurysm recurrence [23, 24]. In this section, we will combine the research results to discuss the role of ERAS-based comprehensive nursing on patients' postoperative recovery. From the perspective of neurological function, the NIHSS and SSS scores in OG using ERAS-based comprehensive nursing were significantly lower compared with CG, indicating that ERAS-based comprehensive nursing improved the neurological function of patients postoperatively. In addition to high mortality and recurrence rates, ruptured aneurysms and subsequent intracranial hemorrhage leave most survivors with severe neurological deficits [25]. Ruptured aneurysms may cause intracranial artery injury, which will lead to increased oxidative stress and massive inflammatory reactions that will further aggravate the pathological changes of intracranial artery wall, thus affecting the nervous system [26, 27]. Therefore, many clinical studies focus not only on rupture prevention and prophylactic therapy during treatment but also postoperative nursing intervention, which focuses on those aneurysms that are at risk of rupture. However, the current nursing intervention for these aneurysms remains a huge challenge [28]. Among various nursing methods, comprehensive nursing intervention has the advantages of strong pertinence and wide coverage, which contributes to a better nursing intervention effect on patients and a good relationship between patients and medical staff. Besides, it provides better health education, medical care and other interventions that enable patients to actively participate in the treatment, with higher medication compliance and satisfaction, leading to positive treatment outcomes and faster patient recovery [29]. Compared with comprehensive nursing, conventional nursing mode is inferior in medication, health care, and the establishment of doctor-patient relationship, and it is impossible to care for patients in all aspects [30]. Therefore, patients in OG recovered faster in terms of neurological recovery due to better postoperative care and better targeted medication care after surgery. Li et al. [31] also demonstrated beneficial effects of ERAS-based comprehensive nursing on the neurological function of patients with knee osteoarthritis after total knee arthroplasty, which is similar to our study. In addition to impaired limb function of patients at all levels, neurological damage has a great impact on patients' gastrointestinal function, resulting in a great decline in patients' quality of life and difficulty in recovery [32, 33]. Combing the detection results of two surgical indicators in this study, OG using ERAS-based comprehensive nursing not only had earlier ambulation but also faster discharge, with fewer postoperative AEs. Similarly, Lv et al. [34] pointed out in their study that ERAS-based comprehensive nursing not only significantly promoted postoperative rehabilitation of patients with craniocerebral trauma but also reduced the incidence of postoperative complications. This study also found faster and more efficient elimination of psychological anxiety and depression in OG. Xie et al. [35] reported that the NEs of patients with cerebral infarction were significantly alleviated after ERAS combined with continuous nursing, which is consistent with our findings. In the recovery of various diseases, NEs will not only weaken the recovery effect of patients but also aggravate their illness. Among neurological diseases, unhealthy psychological emotions are closely linked to an increased risk. And effective intervention will not only reduce the damaged nervous system function but also mitigate depression, so that they can get out of the vicious circle [36, 37]. On the whole, because of the implementation of more targeted comprehensive nursing for patients in OG based on ERAS, the treatment effect of patients was better, and the nervous system was better recovered, so that patients could ambulate earlier with effective relief of psychological anxiety and depression. This also enables patients to better cooperate with the treatment, with fewer AEs and faster discharge. A similar study found that in perioperative care of patients with IAs, comprehensive nursing can shorten the LOS of patients, reduce complications and infections, and improve patient satisfaction [38], similar to our findings. The novelty of this study is that it confirms the effectiveness, reliability, and safety of ERAS-based comprehensive nursing in the clinical application of IAs in terms of surgical indications, neurological function, MH, incidence of adverse reactions, and patient satisfaction, providing a new option for the management optimization of IA patients. However, some shortcomings of this study need to be addressed. First, some related indicators and inflammatory factors have not been measured. Besides, patient compliance during treatment is also worthy of investigation. In the future research, we will further test related factors while constantly improving the treatment and nursing programs to better benefit patients. To sum up, the application of comprehensive nursing based on ERAS concept can promote the neurological recovery of patients with embolization for IAs; reduce depression, anxiety, and AEs in patients; and enable patients to be discharged faster, which is worth popularizing in clinic.
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