Authors: Zuoju Zhang, Yanhong Dong, Yuxin Sun
Categories: 5300, acute cerebral infarction, anxiety, depression, mindfulness-based cognitive therapy, nursing, randomized controlled trial, rumination
Source: Medicine
Authors: Zuoju Zhang, Yanhong Dong, Yuxin Sun
The prevention and management of cerebrovascular diseases, particularly cerebral infarction – the most prevalent type of cerebrovascular disease – pose significant challenges, severely affecting patients’ physical and mental health. Mindfulness-based cognitive therapy (MBCT) has been shown to be effective in treating various mental and chronic conditions. However, there is limited evidence on its effectiveness for treating rumination in patients with acute cerebral infarction (ACI). This study examines the effects of MBCT on rumination, anxiety and depression symptoms, post-traumatic growth, self-care ability, limb motor function, and muscle strength in patients with ACI.
In this randomized, single-blind, parallel, single-center controlled trial, participants were recruited from the Department of Neurology and allocated randomly to either 6 weeks of mindfulness cognitive therapy or standard care. The outcomes were assessed at baseline and post-intervention (6 weeks) using the simplified Chinese event-related rumination inventory, the hospital anxiety and depression scale, the simplified Chinese post-traumatic growth inventory, the modified Barthel index (MBI), Brunnstrom hemiplegic motor function assessment, and the Lovett Muscle strength scale.
Ninety-five subjects were randomly sorted into either the intervention (n = 48) or control group (n = 47). During the study, 5 (5.26%) participants were lost to follow-up, leaving 90 (94.74%) to complete the intervention. Post-intervention, both groups exhibited increased total and purposive rumination scores, with the intervention group scoring higher (P < .05). Intrusive rumination decreased in both groups, with a more significant reduction observed in the intervention group (P < .05). Both groups showed reduced hospital anxiety and depression scores, though the intervention group had lower scores (P < .05). The intervention group also had higher total and subscale scores for post-traumatic growth than the control (P < .05). The MBI scores improved in both groups, with the intervention group showing higher scores (P < .05). However, no significant difference was observed in the improvement of limb motor function or muscle strength between the intervention and conventional care groups (P > .05).
MBCT can improve the purposeful rumination and self-care ability of patients with ACI, alleviate anxiety and depression symptoms, and foster post-traumatic growth. However, it did not significantly improve limb motor function or muscle strength.
Stroke is a major chronic noncommunicable disease that seriously endangers human health. According to stroke data published in The Lancet in 2024, stroke is the third leading cause of death worldwide; in 2021, there were 7.3 million stroke-related deaths, accounting for 10.7% of all deaths that year, as well as 11.9 million new stroke events and 93.8 million stroke survivors. Disability-adjusted life years (DALYs) due to stroke have been reported as 160.5 million, accounting for 5.6% of all DALYs.^[1]^ In China, stroke is the leading cause of death among adults. A 2023 cross-sectional survey published in JAMA Network Open involving 676,394 Chinese adults aged ≥ 40 years reported the existence of a substantial national stroke burden, with approximately 3.4 million (95% CI, 3.3–3.6 million) documented stroke cases and 2.3 million stroke-related deaths annually. Notably, ischemic stroke constituted 86.8% of total cases.^[2]^ Cerebral infarction is the most common cerebrovascular disease, with a high incidence, high disability rate, high recurrence rate, and high fatality rate. Acute cerebral infarction (ACI) not only leads to physical impairments, but it also triggers a series of psychological problems, including anxiety, depression, and fear. During the first year after a stroke, approximately 1 in 3 individual experience depression and anxiety.^[3]^
Patients in a prolonged recovery cycle often repeatedly focus on and reflect on various aspects of their disease, including the disease event itself, its possible causes and consequences, and their emotional state; this cognitive process is known as rumination. Rumination, which can be either intrusive or purposeful, refers to cognitive processing that results in changes in cognition following traumatic events and negative changes. Intrusive rumination denotes maladaptive, repetitive thinking in which individuals passively dwell on the causes, results, and negative emotions associated with distressing events. In contrast, purposeful rumination involves adaptive cognitive processing where individuals actively engage in understanding events, constructing meaning, and solving problems.^[4]^ Rumination, in its different forms, is an important factor affecting the realization of post-traumatic growth or the occurrence of post-traumatic stress disorder.^[5,6]^ It is closely related to the occurrence of mental health conditions such as depression and anxiety, and thus can substantially affect patients’ quality of life and recovery.^[7]^ Therefore, improving the rumination level of patients with ACI is necessary to promote their mental well-being. Studies have shown that mindfulness plays an important role in supporting and regulating both physical and mental health.^[8]^ Mindfulness refers to an internal state of consciousness that is characterized by focused attention on moment-to-moment experience.^[9]^ Through mindfulness training, individuals can improve their mindfulness levels and alleviate negative emotions such as anxiety and depression. The core structure of mindfulness is decentralization, also known as re-perception, which allows individuals to shift their perspective from immersion in subjective experience to objective observation of their internal experience, maintaining psychological distance.^[10,11]^ Mindfulness-based cognitive therapy (MBCT) is a form of psychotherapy that combines cognitive behavioral therapy and mindfulness-based stress reduction, with mindfulness training as its core.^[12]^ MBCT was developed to prevent the risk of relapse in individuals with a history of recurrent depression. It helps individuals identify and detach from rumination by redirecting their attention to bodily sensation. This present-moment sensory awareness is considered incompatible with the contemplative mode that focuses on distressing symptoms and their possible causes and consequences.^[13]^ Moreover, by focusing attention on the body, contemplative thought processes can more easily be recognized as what they are – overly negative predictions based on experience rather than objective reality.^[14]^ Currently, the effectiveness of MBCT has been demonstrated in treating various mental and chronic diseases.^[15–19]^ However, there is limited evidence regarding the effectiveness of MBCT in addressing rumination in patients with ACI.^[20]^ Therefore, this study aimed to determine whether MBCT acted as an effective alternative therapy for the psychological well-being of patients with ACI. The primary outcome measure was the level of rumination in patients with ACI. Secondary outcomes included patients’ anxiety and depression symptoms, as well as the level of post-traumatic growth. Additional outcome indicators of interest were self-care ability in daily life, limb motor function, and muscle strength.
Recruitment was conducted at the Department of Neurology of the Third People’s Hospital of Yunnan Province from April 2024 to October 2024. Prospective subjects were screened by clinical research physicians for on-site interviews with clinical investigators, after which informed consent was obtained. The participants did not receive any financial compensation for the study.
We designed a randomized, single-blind (evaluator-blind), parallel, single-center, concurrent, 2-arm randomized controlled trial (RCT) to determine the efficacy of MBCT. Participants were randomly assigned to the MBCT intervention or control groups in a 1 ratio. The study protocol has been registered in the Chinese Clinical Trials Registry (ChiCTR2400083117), and was approved by the Ethics Committee of the Third People’s Hospital of Yunnan Province (2024KY017).
The inclusion criteria were as imaging changes indicative of cerebral infarction confirmed by head computed tomography (CT) and magnetic resonance imaging, with a diagnosis of ACI; first onset, with onset occurring < 2 weeks; patients aged between 18 and 75 years; basic reading and writing ability, and the ability to use simple smartphones; anxiety or depression score ≥ 8 points on the hospital anxiety and depression scale (HADS)^[21]^; and clear awareness, with a Montreal cognitive assessment scale (MoCA) score ≥ 26 points.^[22]^ The exclusion criteria were as patients with other serious physical conditions, such as epilepsy, myocardial infarction, malignant tumors, or severe infections; patients with an organic mental illness or a history of mental illness; and individuals who received MBCT or other psychological interventions in the past 3 months. The termination/discontinuation criteria were as patients who did not complete the intervention according to the experimental plan and discontinued midway; patients who could not adhere to MBCT training, including those who participated in MBCT training fewer than 4 sessions or failed to complete homework more than twice a week, all of which made it difficult to evaluate the intervention’s effectiveness; and the occurrence of serious complications during the intervention.
In the present study, we aimed to assess the impact of 2 treatments using patient rumination levels as the primary outcome. Prior to the main trial, we conducted an 8-week pilot study with 10 patients with ACI (n = 5 per group), adhering to the inclusion and exclusion criteria. Based on the results of the pilot study, we utilized the PASS software to calculate the required sample size. Employing a 2-sample t-test with a significance level of α = 0.01 and a power of 1 − β = 0.9, we determined that a sample size of 16 participants per group was necessary. Considering a 20% dropout rate, the total sample size was adjusted to a minimum of 40, and the final sample size was 95 subjects (see Table S1, Supplemental Digital Content, https://links.lww.com/MD/P23 for the data and results of the pilot study).
This study utilized simple randomization in its design. An independent statistician generated the allocation sequence using Excel’s RANDBETWEEN function to randomly assign each participant a number of either “1” (control group) or “2” (intervention group). The randomization scheme and corresponding group assignments were recorded on allocation cards, which were sealed in sequentially numbered opaque envelopes (from 1 to 95), which were prepared prior to enrollment. A research assistant blinded to group assignments distributed these envelopes strictly following the chronological order of participant enrollment. The final allocation yielded 48 participants in the intervention group and 47 in the control group. The study flow is presented in Figure 1 (CONSORT diagram). To maintain single-blinding, data collectors were unaware of group assignments, while intervention administrators were necessarily unblinded to ensure adherence to the treatment control.

All participants received standard care, including neuronal nutrition, cerebral blood flow enhancement, blood pressure and glucose management, symptomatic treatment, health education, and general psychological support. The intervention group also underwent MBCT for 6 weeks in combination with standard treatment. Upon study completion, the control group optionally received the same MBCT. Rehabilitation therapists employed 6 questionnaires to assess primary (rumination level) and secondary outcomes (anxiety, depressive symptoms, and post-traumatic growth) at baseline (T0, pre-intervention) and post-intervention (T1, week 6). Additionally, the self-care ability, limb motor function, and muscle strength were evaluated. T0 assessments were conducted face-to-face prior to the first intervention, and the T1 assessment was conducted either face-to-face during the patient’s return visit to the hospital or via telephone follow-up for those who did not return.
The study team consisted of the following 1 attending physician from the Department of Neurology, responsible for daily medical care; 1 head nurse from the Department of Neurology, responsible for organizing and overseeing nursing activities to ensure their smooth operation; 1 rehabilitation therapist, responsible for rehabilitation treatment and questionnaire collection; 2 psychological counselors (national second-level certification holders with MBCT completion certificates and over 3 years of experience in MBCT), responsible for training group members and assisting in the formulation and implementation of intervention programs; 1 nursing assistant, responsible for patient coordination and communication; and 1 master’s-level nursing student (with a background in mindfulness-based stress reduction), responsible for the design, implementation, and data analysis of the program.
The intervention plan implemented in this study was based on The Mindful Way Workbook by Teasdale et al.^[23]^ A preliminary draft of the intervention protocol was developed through a comprehensive review of the national literature, followed by iterative revisions conducted by a multidisciplinary expert panel. The panel comprised 10 5 nursing professionals (including 4 deputy chief nurses – 3 who were master’s candidates and 1 who was an undergraduate – and 1 professor pursuing a doctoral degree) and 5 physicians (1 associate chief physician with an undergraduate degree and 4 chief physicians, 3 of whom were doctoral candidates and 1 who was an undergraduate). Building on this foundation, the team members systematically discussed and refined the draft protocol. Subsequently, 10 ACI patients meeting the inclusion and exclusion criteria were enrolled in an 8-week pilot study. Post-pilot validation and protocol refinement led to 3 key each session’s exercise content was streamlined to a single component to enhance simplicity and accessibility; dynamic mindfulness practices (e.g., mindful stretching, movement, and walking) were prioritized in the initial 3 sessions to align with patients’ physical rehabilitation goals; and informed by empirical evidence from prior studies^[20,24,25]^ and participants’ feedback on their physical/cognitive status, the original 8-week schedule (8 sessions) was restructured into a condensed 6-week format while still retaining the total session count (see Supplementary File S1, Supplemental Digital Content, https://links.lww.com/MD/P23 for the data and results from the expert group discussion and pilot study ). MBCT in this study consisted of 8 modules, with each module addressing a different topic, and the weekly session included 3 a review of the previous session’s practices, theoretical instruction, and mindfulness practice with assigned homework. The detailed intervention program is shown in Table 1.
Before the formal intervention, the researcher conducted assessment interviews with potential participants, with each 1 lasting approximately 30 minutes. The objectives of these interviews were evaluate the patient’s baseline condition, explore the sources of emotional distress, and build rapport and trust; introduce the purpose, significance, and background knowledge of MBCT, and analyze how the therapy might benefit the individual; and emphasize the importance of patient’s active participation, explain the daily time required, and clarify the need for full engagement over the 6-week course.
The MBCT intervention program was implemented with the assistance of the lead investigator (who holds a certificate of completion in MBCT) and 2 national-level counselors (both certified in MBCT with over 3 years of relevant experience). Additionally, a member of the nursing team served as the course assistant, responsible for assisting in the implementation of the sessions and managing any unexpected situations. Due to the length of hospital stays, we used both in-hospital face-to-face sessions and remote communication using Tencent Meeting Software. Users could easily join a meeting by entering the 9-digit meeting ID provided by the host. Upon joining, they could enable their camera and microphone to facilitate communication and interaction. Meetings could be accessed from various devices, such as a desktop, laptop, smartphone, or tablet, provided that the Tencent meeting software was installed. This intervention was conducted in small groups of 3 to 6 patients using a combination of these devices to effective implementation. Starting 48 hours after a patient’s condition stabilized (as indicated by stable hemodynamics and vital signs), the intervention was performed 4 times during hospitalization, twice per week, for 1 to 1.5 hours per session. Sessions were scheduled during 1 of 3 time 30 to 00; 00 to 30; or 30 to 00. Whenever possible, group members were assigned to the same time slot to accommodate mutual availability. After discharge, participants continued the intervention once per week for 4 weeks, with each session lasting 1 to 1.5 hours, via Tencent meeting software. The locations for attending these sessions were chosen by the participants themselves, ensuring that they were quiet and comfortable. Each session included 15 to 30 minutes of knowledge explanation, 20 to 30 minutes of individual mindfulness practice, and 15 to 30 minutes of discussion and sharing. This format was followed across 6 weeks, with homework reinforcing each week’s content. Participants were expected to complete the assigned homework 5 days per week, and the average length of the homework per day was 10 to 20 minutes. During hospitalization, homework was completed under the supervision of a researcher.
The first to fourth interventions were conducted face-to-face in the teaching classroom of the Department of Neurology during the patients’ hospitalization. During the first intervention, the WeChat accounts of patients and their family members were added, and WeChat groups were established. Participants who completed baseline questionnaires before beginning the intervention. The “Mindfulness Cognitive Exercise Guide Manual,” the “Homework Record Sheet,” a calendar of pleasant and unpleasant experiences, and audio recordings of mindfulness exercises were distributed and explained to the participants (see Table S2 and Fig. S2, Supplemental Digital Content, https://links.lww.com/MD/P24 for details on the materials distributed to the research participants). The remaining 4 interventions were carried out through Tencent meeting software. To ensure their adherence, the researcher contacted participants via telephone 1 day before each intervention to remind them of the scheduled intervention. For participants who were unable to attend a scheduled session, the researcher arranged a make-up session within 2 days; those who did not attend the make-up session were considered to have missed 1 class. After each online session, the researchers conducted a brief online survey to assess whether participants faced any difficulties during their practice, which would help them complete the training more effectively. The specific content of the online survey included the following Where did you perform the exercise? Were you accompanied by anyone else during the exercise? What was your experience of this session? Did you encounter any difficulties or problems during the practice?
Routine care for participants was provided by clinical registered nurses in the Department of Neurology and involved the establishing a good nurse-patient relationship upon admission; introducing relevant disease knowledge to patients and sharing success stories of patients with good recovery to increase patients’ understanding of the disease, strengthen their confidence in recovery, and reduce anxiety and depression; establishing a follow-up file before discharge to record detailed information about the patient’s general health and disease-related conditions; registering the patient’s effective contact information and home address; and establishing a WeChat group to regularly inform patients about their diet, exercise, and medication post-stroke to match the frequency and duration of routine care aligns with the MBCT sessions.
The Chinese version of the event-related rumination inventory (C-ERRI) was used to assess the rumination levels in patients with ACI. This scale, compiled by Cann et al,^[26]^ is based on the theory of post-traumatic growth and assesses individuals’ cognitive processing of highly stressful events. The C-ERRI includes 2 intrusive rumination and purposive rumination, each with 10 items, resulting in a total of 20 items. Individuals were rated on a 4-point Likert scale, based on the frequency of rumination over the last 2 weeks, from “never had this thought” to “often had this thought” after a traumatic event (on a scale of 0–3). The total score ranges from 0 to 60, where the higher the score, the higher the level of rumination. The Cronbach α coefficients of the 2 dimensions are 0.94 and 0.88, respectively.
The study design and procedures conformed with the Declaration of Helsinki. The study was approved by the Ethics Review Committee of the Third People’s Hospital of Yunnan Province (2024-KY017). Participation in this study was voluntary, and participants were free to withdraw from the study at any time. All participants provided informed consent before participation. Patients in the control group were offered the MBCT intervention on a voluntary basis at the study’s conclusion.
Statistical analyses were performed using IBM SPSS 26.0 (Chicago) with a significance level of α = 0.05 for 2-tailed tests. A P-value <.05 indicated statistical significance. Baseline demographics, including sex, age, and education were summarized using frequencies and proportions, with group comparisons conducted using the χ^2^ test and Fisher exact test. Data normality was assessed using the Shapiro–Wilk test and Q–Q plots. For normally distributed continuous variables – including total rumination scores, post-traumatic growth total scores, and subscale scores for life appreciation, new possibilities, relationships, self-transformation, anxiety, and depression – data are reported as the mean ± SD and compared using independent-samples t-tests (between groups) and paired-samples t-tests (within groups). Non-normally distributed variables – such as the personal strength dimension of post-traumatic growth, self-care ability scores, Lovett muscle strength classifications, and Brunnstrom Motor Function scores – are reported as the median (M), 25th percentile (P25), and 75th percentile (P75) and analyzed using the Mann–Whitney U test (between groups) and Wilcoxon signed-rank test (within groups).
A total of 95 patients were randomly divided into either the intervention group (n = 48) or the control group (n = 47). During the implementation period, 2 participants in the intervention group chose to withdraw, 1 participant experienced health deterioration, and 2 participants in the control group were unreachable. Ultimately, 90 participants completed the 6-week intervention (intervention group, n = 45; control group, n = 45). No adverse events were reported during the study. There were no statistically significant differences between the 2 groups in terms of baseline characteristics, such as sex, age, household income, and comorbidities (P > .05), as shown in Table 2.
The difference in C-ERRI scores between the 2 groups before the intervention was not statistically significant (P > .05). After 6 weeks of intervention, the total and deliberate rumination scores were significantly higher, and the intrusive rumination score was significantly lower in both groups (P < .05). Compared to the control group, the intervention group had higher total and deliberate rumination scores and lower intrusive rumination scores (P < .05), as shown in Table 3.
There were no statistically significant differences in HADS-A and HADS-D scores between the intervention and control groups before the intervention (P > .05). After 6 weeks of intervention, both groups exhibited significantly reduced HADS-A and HADS-S scores compared to their respective baseline values. Moreover, the intervention group had lower scores than the control group (P < .05) post-intervention, indicating a greater reduction in anxiety and depression symptoms. Detailed results are shown in Table 4.
Before the intervention, there was no statistically significant difference in C-PTGI scores between the 2 groups (P > .05). After 6 weeks of intervention, the total post-traumatic growth score, as well as subdomains of life appreciation, personal strength, new possibilities, relationship with others, and self-transformation scores were significantly higher in both groups (P < .05). Compared to the control group, the intervention group had higher scores in all these domains (P < .05). Detailed results are shown in Table 5.
Before the intervention, the difference in the Barthel Index scores of self-care ability of patients between the 2 groups was not statistically significant (P > .05). After 6 weeks of intervention, the Barthel Index scores of both groups increased significantly, and the scores of the intervention group were higher than those of the control group (P < .05), as shown in Table 6.
Before the intervention, there was no significant difference in limb motor function scores between the 2 groups (P > .05). After 6 weeks of intervention, the limb motor function scores of both groups increased significantly. Although the scores of the intervention group were higher than those of the control group, no statistically significant difference was observed between the 2 groups (P > .05), as shown in Table 7.
Before the intervention, there was no statistically significant difference in muscle strength scores between the 2 groups (P > .05). After 6 weeks of intervention, the muscle strength scores of both groups increased significantly. Although the scores of the intervention group were higher than those of the control group, no statistically significant difference was observed between the 2 groups (P > .05), as shown in Table 8.
In this RCT, we evaluated the efficacy of MBCT in 90 patients with ACI. MBCT, which combines mindfulness-based stress reduction therapy with principles of cognitive behavioral therapy, emphasizes both meditative practices and psychoeducation. This intervention is currently one of the most widely used treatments for reducing rumination in clinical patients.^[30]^ Rumination has characteristics of a “learned behavior,” meaning its frequency, intensity, and nature can be changed through effective interventions. Within its 2-dimensional structure, intrusive rumination presents a maladaptive form of cognitive processing that impedes psychological adjustment, leading individuals to passively focus on the causes, consequences, and emotional distress associated with negative events, thereby contributing to and prolonging symptoms of depression and other psychological conditions. This occurs by reinforcing negative thought patterns, diminishing perceived social support, and impairing problem-solving abilities.^[31]^ In this study, we found that MBCT reduced intrusive rumination levels in patients with ACI, a finding consistent with previous research by Compen et al^[32]^ and Jelle et al.^[33]^ This decrease may be attributed to improved self-awareness in participants following the intervention. Improved self-awareness enables patients to recognize and observe their internal experiences, thereby reducing repetitive negative thinking and aiding in participants developing clearer perceptions of their thoughts and emotions. This shift reduces the interference of negative information and events and facilitates recovery from persistent intrusive rumination.^[34]^ In contrast, purposive rumination is an adaptive cognitive process that promotes psychological adjustment, helping patients to reflect constructively on stressful events, derive meaning from their experiences, and engage in problem-solving, thereby promoting positive behavioral changes and acquiring health-related knowledge.^[4]^ In this study, levels of purposive rumination – and overall rumination – were significantly improved in patients who received MBCT, which may be related to the improvement in patients’ self-awareness and their cultivation of a nonjudgmental attitude. Patients were encouraged to attend to and accept distressing emotions with openness and compassion, which may have resulted in changes in emotion-related neural activity. By supporting adaptive emotional regulation strategies such as acceptance over avoidance, MBCT helped patients shift away from dysfunctional cognitive patterns, ultimately fostering more effective psychological adjustment and adaptive cognitive processing.^[35]^
Our results showed that MBCT alleviated anxiety and depression symptoms in patients with ACI, which aligned with the findings of Mak et al.^[20]^ Anxiety, depression, and other negative emotions are common in patients with ACI. These negative emotions are closely related to sleep disorders, decline in the quality of life, and hindered recovery process.^[36]^ In this study, we found that MBCT reduced anxiety and depression symptoms in patients with ACI, which could be attributed to the fact that MBCT helped patients realize their negative cognition and behavior, reflect on and clarify existing thoughts, and explore cognitive responses that aligned with their inner needs through tolerance and acceptance, ultimately improving their anxiety and depression symptoms.^[15]^
Our results showed that MBCT improved the level of post-traumatic growth in patients, which aligned with the results of a previous study conducted by Stafford et al, showing that MBCT improved post-traumatic growth in women with breast cancer and gynecologic cancer.^[37]^ The purposeful and constructive contemplation of traumatic events is essential for the cognitive processing that underlies post-traumatic growth.^[5]^ Post-traumatic growth is the positive psychological changes experienced by individuals who struggle with traumatic negative life events and situations. In patients with ACI, the stress response triggered by the disease often hinders their ability to accurately recognize and process the traumatic event. In this study, we found that MBCT improved the total post-traumatic growth scores in patients with ACI, including scores across all 5 personal strength, relationship with others, life appreciation, new possibilities, and self-transformation. These improvements may be attributed to the capacity of MBCT to help patients consciously focus on the present moment while simultaneously reducing fixation on past events and future worries, guiding individuals to identify with themselves in a nonjudgmental and objective manner. Such an approach can enhance patients’ ability to manage emotional fluctuations occurring after trauma, strengthen their emotional self-regulation, and create the psychological foundation necessary for positive transformation. This, in turn, can foster psychological and emotional growth in patients with ACI as they process and recover from their traumatic experiences.^[35]^
Our results showed that MBCT improved the self-care ability of patients with ACI in daily life, which aligned with the results of Myers et al’s study on promoting perioperative nurses’ self-care ability by cultivating mindfulness.^[38]^ This may be related to the fact that MBCT alleviates patients’ negative emotions, keeps the body in a relatively stable state, reduces systematic inflammation, and mitigates disease deterioration caused by cascade reactions. Consequently, patients may gain increased confidence in their recovery, demonstrate greater willingness to adhere to treatment plans, and actively engage in communication with medical staff. We posit that mindfulness training may help patients with ACI to develop a clearer understanding of their condition and the associated functional impairments. By encouraging an open and inclusive mind, MBCT may promote better psychological adaption, enhance treatment compliance, and ultimately improve patients’ self-care abilities.^[35]^
Compared to conventional treatment, MBCT did not lead to significant improvements in motor function or muscle strength in patients with ACI. One possible explanation for this is that the physical activity involved in MBCT was not of sufficient intensity to improve limb mobility or muscular strength in this patient population. Additionally, the limited duration of the intervention may have contributed to the lack of significant effects. Traditional MBCT protocols typically involve 2.5 hours of group sessions per week over 8 weeks, supplemented by 45 minutes of individual practice.^[39]^ In this study, although we increased the frequency of interventions during hospitalization (twice per week), the total intervention was condensed into eight 1-to-1.5-h group sessions over 6 consecutive weeks to accommodate the clinical realities of stroke survivors, particularly the average hospital length of stay in our department. A previously published systematic review showed that a modified mindfulness intervention of 6 weeks or longer could yield positive outcomes for stroke survivors, whereas shorter or less intensive interventions tended to be less effective.^[20]^
This study has several potential limitations. First, a notable limitation lies in the use of a combined delivery format involving both offline face-to-face sessions and online components. This approach was adopted to ensure adequate intervention dosage and fidelity due to the constraints of the hospitalization cycle for patients with ACI. Although this mixed approach may have introduced some bias, the increased frequency of offline sessions may have enhanced peer support, and some participants reported that obtaining help was more convenient in the online setting. Nevertheless, while the findings demonstrate the feasibility of an online intervention, further research is needed to determine its effectiveness. Second, all outcome variables were subjectively reported by participants via questionnaires, which could have led to recall bias and limited objectivity. Third, we only conducted follow-up after 6 weeks and no longer, which could limit the interpretation of long-term effects and the overall scope of the results. Fourth, the study excluded stroke patients with cognitive impairment and aphasia because of their limited ability to understand instructions or communicate effectively. Therefore, the findings of this study cannot be generalized to this subset of patients, and future studies should explore adapted interventions to address their specific needs. Fifth, although the sample size (n = 95) was statistically justified, the heterogeneity among ACI patients (including variations in disease severity, individual psychological differences, and recovery stages), could not have been fully represented. Future research should incorporate longitudinal follow-ups at 3- and 6-month intervals to better assess the durability of intervention effects, while also integrating biomarkers and neuroimaging techniques to enable multidimensional efficacy evaluation. Additionally, multicenter studies with expanded sample sizes are required to enhance generalizability and validate these findings across diverse clinical populations.
Our findings demonstrate that MBCT improves the mental health, emotional well-being, and self-care abilities of patients with ACI. MBCT appears to be an effective method of psychological intervention for enhancing patients’ with ACI. However, we did not find significant improvements in limb motor function and muscle strength in patients who underwent MBCT compared to the control group. Given its high completion rate, MBCT-based interventions can be effectively implemented in neurology departments. In addition, patient families and nurses should consider receiving MBCT-related training and incorporating these practices into routine care.
We thank LetPub (www.letpub.com.cn) for its linguistic assistance during the preparation of this manuscript. We extend our heartfelt thanks to Professor Li-Zhu Jiang and Associate Professor Wei-Fen Qiu for their guidance and support in MBCT, and to Dr Qin Liu for providing direction in the statistical analysis. We also acknowledge all the participants for their valuable contributions.
Conceptualization: Zuoju Zhang.
**Data ** Zuoju Zhang.
**Formal ** Zuoju Zhang, Yuxin Sun.
**Funding ** Zuoju Zhang.
Investigation: Yanhong Dong, Yuxin Sun.
Methodology: Zuoju Zhang.
**Project ** Zuoju Zhang, Yanhong Dong.
Resources: Zuoju Zhang, Yanhong Dong, Yuxin Sun.
Software: Zuoju Zhang.
Supervision: Yanhong Dong.
Validation: Zuoju Zhang.
Visualization: Zuoju Zhang, Yuxin Sun.
**Writing – original ** Zuoju Zhang.
**Writing – review & ** Zuoju Zhang, Yanhong Dong.