ObjectiveTo compare the clinical efficacy of traditional Chinese medicine （TCM） manipulative reduction combined with small splint fixation versus surgical treatment for type A distal radius fracture （DRF） and to explore the factors influencing the choice of treatment. MethodsA multi-center retrospective study was conducted， collecting data from 1237 type A DRF patients treated in 11 hospitals in Jiangsu province from September， 2023 to April， 2025. Among them， 851 patients in the TCM group received manipulative reduction combined with small splint fixation， and 386 patients in the surgical group underwent open reduction and internal fixation. Visual analog scale （VAS） scores for pain and radiographic indicators including palmar tilt， ulnar deviation， and radial height were compared before treatment， 5-7 days after treatment， and 4-6 weeks after treatment. The wrist joint function scores including Dienst and Gartland-Werley scores at 12 weeks after treatment were recorded. Subgroup analysis was conducted for the excellent rate of Dienst and Gartland-Werley scores， stratified by age （＜50， 50-59， 60-69， ≥70 years old） and AO subtypes （A1， A2， A3）. A multivariate logistic regression model was used to identify independent factors influencing treatment choice. ResultsOn 5-7 days after treatment， the surgical group had lower VAS scores than the TCM group， while 4-6 weeks after treatment， the TCM group showed lower VAS scores than the surgical group （P＜0.01）. In terms of radiographic indicators， except for the palmar tilt before treatment being higher in the surgical group than in the TCM group （P＜0.01）， there were no significant differences in palmar tilt， ulnar deviation， and radial height at other timepoints （P＞0.05）. Twelve weeks after treatment， the surgical group had a higher average Gartland-Werley score and the excellent rate than the TCM group （P＜0.01）. Subgroup analysis showed that in patients with A2 type DRF aged 50-59 and 60-69 years old， the excellent rates of Dienst and Gartland-Werley scores in the TCM group were higher than those in the surgical group （P＜0.05）. Multivariate logistic regression analysis revealed that age， palmar tilt， ulnar deviation， and the degree of swelling on the affected side were independent factors influencing the choice of treatment （P＜0.05）. ConclusionBoth TCM manipulative reduction combined with small splint fixation and surgical treatment for type A DRF can achieve good therapeutic effects. TCM manipulative reduction combined with small splint fixation has certain advantages in medium- and long-term pain relief， especially in elderly patients， where wrist joint function recovery is more stable. Age， palmar tilt， ulnar deviation， and swelling degree are the main factors influencing the treatment choice.

Chronic diabetic wounds, severely complicated by multidrug-resistant (MDR) bacterial infections, represent a profound and escalating global health crisis. The intrinsically hostile microenvironment of diabetic wounds, characterized by localized hypoxia, persistent oxidative stress, and poor vascularization, creates an ideal niche for opportunistic pathogens such as Staphylococcus aureus and Pseudomonas aeruginosa. These bacteria readily construct dense extracellular polymeric substance (EPS) biofilms, which not only physically shield the microbes from host immune responses but also actively trap the wound in a state of chronic, unresolved inflammation. Consequently, conventional systemic and topical antibiotic therapies are becoming increasingly futile, as poor perfusion at the wound site restricts drug bioavailability, while the rapid genetic evolution of bacteria and the impenetrable nature of biofilms lead to catastrophic treatment failures, often culminating in severe tissue necrosis and lower-extremity amputations. To circumvent the limitations of traditional antimicrobials, therapeutic gas delivery has emerged as a highly promising, paradigm-shifting strategy. Gaseous signaling molecules, particularly nitric oxide (NO), carbon monoxide (CO), hydrogen sulfide (H₂S), and hydrogen (H₂), possess unique physicochemical properties that allow them to seamlessly penetrate dense biofilm matrices and cellular membranes. Once inside, these gases operate via multi-targeted mechanisms that are incredibly difficult for bacteria to develop resistance against; for instance, NO induces severe lipid peroxidation and DNA cleavage in bacteria, CO downregulates pro-inflammatory cytokines, H₂S significantly accelerates endothelial cell migration for neovascularization, and H₂ acts as a powerful selective antioxidant to neutralize tissue-damaging reactive oxygen species (ROS). Together, these therapeutic gases not only exert broad-spectrum bactericidal effects but also actively reprogram the wound bed by promoting the critical M1-to-M2 macrophage polarization and stimulating angiogenesis. Despite their immense biological potential, the direct clinical translation of gas therapies is severely hindered by inherent physicochemical drawbacks, including extreme volatility, short physiological half-lives, poor aqueous solubility, and the high risk of off-target systemic toxicity, if applied indiscriminately. To conquer these immense pharmacokinetic barriers, cutting-edge advancements in materials science have driven the development of gas-releasing micro- and nanoplatforms. Utilizing sophisticated carriers such as metal-organic frameworks (MOFs), mesoporous silica, polymeric nanoparticles, liposomes, and injectable hydrogels, researchers can now encapsulate gas-donor molecules to achieve sustained, localized delivery. More importantly, these advanced nanoplatforms are ingeniously engineered to be stimuli-responsive. By exploiting the pathological hallmarks of the diabetic wound environment, such as elevated glucose concentrations, acidic pH, and overexpressed ROS, or by utilizing external triggers like near-infrared (NIR) light irradiation and ultrasound, these intelligent platforms ensure on-demand, precise spatio-temporal gas release. This often allows for powerful synergistic combinations, such as photothermal or photodynamic therapy coupled with gas release, thereby obliterating biofilms while sparing healthy tissue. While the therapeutic outcomes of these smart delivery systems in eradicating MDR infections and accelerating tissue repair are unprecedented, several critical challenges remain before widespread clinical adoption, as long-term biosafety profiles of the carrier nanomaterials, complexities in large-scale good manufacturing practice (GMP) production, and stringent regulatory hurdles must be rigorously addressed. Looking forward, the next frontier lies in the realm of precision medicine and theranostics, where future research must focus on the seamless integration of these gas-releasing platforms with flexible, wearable biosensors capable of continuously monitoring wound biomarkers (e.g., pH, temperature, uric acid) in real-time. Coupled with artificial intelligence algorithms to govern automated, closed-loop adaptive dosing, these next-generation smart dressings hold the ultimate potential to comprehensively transform the clinical management of complex, infected diabetic wounds.

Chronic diabetic wounds, severely complicated by multidrug-resistant (MDR) bacterial infections, represent a profound and escalating global health crisis. The intrinsically hostile microenvironment of diabetic wounds, characterized by localized hypoxia, persistent oxidative stress, and poor vascularization, creates an ideal niche for opportunistic pathogens such as Staphylococcus aureus and Pseudomonas aeruginosa. These bacteria readily construct dense extracellular polymeric substance (EPS) biofilms, which not only physically shield the microbes from host immune responses but also actively trap the wound in a state of chronic, unresolved inflammation. Consequently, conventional systemic and topical antibiotic therapies are becoming increasingly futile, as poor perfusion at the wound site restricts drug bioavailability, while the rapid genetic evolution of bacteria and the impenetrable nature of biofilms lead to catastrophic treatment failures, often culminating in severe tissue necrosis and lower-extremity amputations. To circumvent the limitations of traditional antimicrobials, therapeutic gas delivery has emerged as a highly promising, paradigm-shifting strategy. Gaseous signaling molecules, particularly nitric oxide (NO), carbon monoxide (CO), hydrogen sulfide (H₂S), and hydrogen (H₂), possess unique physicochemical properties that allow them to seamlessly penetrate dense biofilm matrices and cellular membranes. Once inside, these gases operate via multi-targeted mechanisms that are incredibly difficult for bacteria to develop resistance against; for instance, NO induces severe lipid peroxidation and DNA cleavage in bacteria, CO downregulates pro-inflammatory cytokines, H₂S significantly accelerates endothelial cell migration for neovascularization, and H₂ acts as a powerful selective antioxidant to neutralize tissue-damaging reactive oxygen species (ROS). Together, these therapeutic gases not only exert broad-spectrum bactericidal effects but also actively reprogram the wound bed by promoting the critical M1-to-M2 macrophage polarization and stimulating angiogenesis. Despite their immense biological potential, the direct clinical translation of gas therapies is severely hindered by inherent physicochemical drawbacks, including extreme volatility, short physiological half-lives, poor aqueous solubility, and the high risk of off-target systemic toxicity, if applied indiscriminately. To conquer these immense pharmacokinetic barriers, cutting-edge advancements in materials science have driven the development of gas-releasing micro- and nanoplatforms. Utilizing sophisticated carriers such as metal-organic frameworks (MOFs), mesoporous silica, polymeric nanoparticles, liposomes, and injectable hydrogels, researchers can now encapsulate gas-donor molecules to achieve sustained, localized delivery. More importantly, these advanced nanoplatforms are ingeniously engineered to be stimuli-responsive. By exploiting the pathological hallmarks of the diabetic wound environment, such as elevated glucose concentrations, acidic pH, and overexpressed ROS, or by utilizing external triggers like near-infrared (NIR) light irradiation and ultrasound, these intelligent platforms ensure on-demand, precise spatio-temporal gas release. This often allows for powerful synergistic combinations, such as photothermal or photodynamic therapy coupled with gas release, thereby obliterating biofilms while sparing healthy tissue. While the therapeutic outcomes of these smart delivery systems in eradicating MDR infections and accelerating tissue repair are unprecedented, several critical challenges remain before widespread clinical adoption, as long-term biosafety profiles of the carrier nanomaterials, complexities in large-scale good manufacturing practice (GMP) production, and stringent regulatory hurdles must be rigorously addressed. Looking forward, the next frontier lies in the realm of precision medicine and theranostics, where future research must focus on the seamless integration of these gas-releasing platforms with flexible, wearable biosensors capable of continuously monitoring wound biomarkers (e.g., pH, temperature, uric acid) in real-time. Coupled with artificial intelligence algorithms to govern automated, closed-loop adaptive dosing, these next-generation smart dressings hold the ultimate potential to comprehensively transform the clinical management of complex, infected diabetic wounds.

Objective To develop a machine learning model integrating preoperative chest CT radiomic features with clinical data for predicting 5-year postoperative recurrence risk in stage Ⅰ non-small cell lung cancer(NSCLC)patients undergoing surgical resection.Methods A total of 217 patients with pathologically confirmed stage Ⅰ NSCLC(selected from 778 initially screened cases based on our inclusion and exclusion criteria)treated in Army Medical Center of PLA between January 2014 and December 2019 were retrospectively enrolled,including 53 recurrence cases and 164 non-recurrence cases within 5-year follow-up.They were randomly divided into a training set(n=173)and a validation set(n=44)in a ratio of 8:2.Radiomic models were established based on extracted features from tumor-dominant regions of interest(ROI)on CT images,while clinical models were developed using demographic characteristics and preoperative laboratory examinations.A combined model was further constructed by integrating both feature sets,and model performance was compared to identify the optimal predictive model.Results This study screened the features from non-contrast CT images and ultimately selected 7 radiomic features for constructing radiomic model.Among 6 machine learning algorithms,the adaptive boosting(Adaboost)model demonstrated the best overall predictive performance,with an area under the curve(AUC)of 0.866(95%CI:0.808～0.923;accuracy:0.832,specificity:0.884)in the training set and of 0.806(95%CI:0.630～0.983;accuracy:0.795,specificity:0.971)in the validation set.Univariate and multivariate logistic regression analyses identified 4 clinical features for clinical model construction.The clinical model achieved an AUC value of 0.874(95%CI:0.821～0.928;accuracy:0.827,specificity:0.891)in the training set and 0.813(95%CI:0.677～0.948;accuracy:0.636,specificity:0.600)in the validation set.By integrating the 7 radiomic features and 4 clinical features using a feature-level fusion strategy,the combined model exhibited further improved predictive performance,with an AUC value of 0.953(95%CI:0.924～0.983;accuracy:0.884,specificity:0.860)and 0.852(95%CI:0.729～0.976;accuracy:0.682,specificity:0.629),respectively in the training set and the validation set.Conclusion The combined model integrating preoperative CT radiomic features with clinical risk factors may provide an evidence-based framework for evaluating 5-year postoperative recurrence risk in stage Ⅰ NSCLC patients.

Objective:To evaluate the role of exosomes in propofol-induced elimination of cardioprotective effect of remote ischemic preconditioning (RIPC) in rats.Methods:This experiment was performed in 2 parts. In vivo experiment Forty-eight healthy SPF male Sprague-Dawley rats, aged 8-10 weeks, weighing 250-300 g, were divided into 5 groups using the random number table method: sham operation group (Sham group, n=12), ischemia-reperfusion (I/R) group ( n=12), RIPC group ( n=8), RIPC+ propofol group (RIPC+ P group, n=8), and propofol+ I/R group (P+ I/R group, n=8). The model of myocardial I/R injury was developed by ligating the left anterior descending branch of coronary artery for 30 min followed by 120 min reperfusion in anesthetized animals. Four cycles of 5-min ischemia induced by occlusion of the bilateral hind limbs with a tourniquet/5-min reperfusion served as the RIPC stimulus. Propofol was intravenously infused at a rate of 12 mg·kg -1·h -1 in RIPC+ P group (during RIPC) and in P+ I/R group (for 40 min). Exosomes from RIPC-treated and RIPC+ propofol-treated rats were extracted (RIPC-EXO and RIPC+ P-EXO respectively) for determination of the expression of surface markers of exosomes CD9 and HSP70. Another 24 rats were randomly selected, and the aforementioned exosomes were injected at 15 min before myocardial ischemia, resulting in RIPC-EXO+ I/R group ( n=12) and RIPC+ P-EXO+ I/R group ( n=12). At the end of reperfusion, the area of myocardial infarction was determined, the concentration of serum cardiac troponin I (cTnI) was measured by the enzyme-linked immunosorbent assay, and the expression of B-cell lymphoma-2 (Bcl-2) and Bcl-2-associated X protein (Bax) in myocardial tissues was detected by Western blot. Cell experiment H9c2 cells were cultured in vitro and divided into 4 groups ( n=6 each) using a random number table method: control group (C group), hypoxia-reoxygenation group (H/R group), RIPC-EXOc group and RIPC+ P-EXOc group. The cells were exposed to hypoxia for 4 h followed by reoxygenation for 16 h in H/R group. RIPC-EXO and RIPC+ P-EXO were added at a final concentration of 300 μg/ml before hypoxia in RIPC-EXOc group and RIPC+ P-EXOc group, respectively. The cell viability was determined using a cell counting kit-8 assay and the expression of Bax and Bcl-2 expression was detected by Western blot. Results:In vivo experiment Compared with RIPC-EXO group, the expression of CD9 and HSP70 was significantly down-regulated in RIPC+ P-EXO group ( P<0.05). Compared with Sham group, the percentage of the area of myocardial infarction was significantly increased, and the serum cTnI concentration and Bax/Bcl-2 ratio in myocardial tissues were increased in I/R group ( P<0.05). Compared with I/R group, the percentage of the area of myocardial infarction was significantly decreased in RIPC group and RIPC-EXO+ I/R group, the serum cTnI concentration and Bax/Bcl-2 ratio in myocardial tissues were significantly decreased in RIPC-EXO+ I/R group ( P<0.05), and no significant change was found in the percentage of the area of myocardial infarction in RIPC+ P group ( P>0.05). The percentage of the area of myocardial infarction was significantly larger in RIPC+ P group than in RIPC group ( P<0.05). Compared with RIPC-EXO+ I/R group, the percentage of the area of myocardial infarction was significantly increased, and the serum cTnI concentration and Bax/Bcl-2 ratio were increased in RIPC+ P-EXO+ I/R group ( P<0.05). Cell experiment Compared with C group, the cell viability was significantly decreased, and the Bax/Bcl-2 ratio was increased in H/R group ( P<0.05). Compared with H/R group, the cell viability was significantly increased, and the Bax/Bcl-2 ratio was decreased in RIPC-EXOc group ( P<0.05). Compared with RIPC+ EXOc group, the cell viability was significantly decreased, and the Bax/Bcl-2 ratio was increased in RIPC+ P-EXOc group ( P<0.05). Conclusions:Propofol may abolish the myocardial protective effect of RIPC by decreasing the production and release of serum exosomes in rats.

Objective:To evaluate the role of exosomes in reduction of myocardial ischemia-reperfusion (I/R) injury (MIRI) by remote preconditioning of trauma (RPCT) in rats.Methods:This experiment was performed in 2 parts. In vivo experiment Adult male Sprague-Dawley rats, aged 8 weeks, weighing 250-300 g, were used. Six rats were selected and randomly divided into 2 groups ( n=3 each): control group and RPCT group. Rats in control group underwent thoracotomy only, while rats in RPCT group were subjected to an additional 4 cm transverse skin incision along the abdominal midline after thoracotomy. Blood samples were collected, and serum exosomes were isolated from blood samples and labeled as control exosomes and RPCT exosomes. The expression of exosomal surface marker proteins CD9 and heat shock protein 70 (HSP70) was determined by Western blot, and the serum exosome concentration was measured. Another 30 rats were selected and randomly assigned to 5 groups ( n=6 each): sham operation group (Sham group), I/R group, I/R+ RPCT group, I/R+ control exosomes group (I/R+ EXO-CON group), and I/R+ RPCT exosomes group (I/R+ EXO-RPCT group). The MIRI model was established by ligating the left anterior descending coronary artery for 30 min followed by 120 min of reperfusion in anesthetized animals. In I/R+ RPCT group, the MIRI model was prepared at 15 min after the end of RPCT. In I/R+ EXO-CON and I/R+ EXO-RPCT groups, control exosomes and RPCT exosomes 100 μg were administered via the jugular vein at 15 min before ischemia respectively. At the end of reperfusion, the myocardial infarct size was measured, serum concentrations of cardiac troponin T (cTnT) and lactate dehydrogenase (LDH) were determined, and the contents of malondialdehyde (MDA) and superoxide dismutase (SOD) in myocardial tissues were measured. The expression of B-cell lymphoma 2 (Bcl-2), Bcl-2-associated X protein (Bax), caspase-3 and cleaved caspase-3 was detected. In vitro experiment H9c2 cells were cultured in vitro and randomly divided into 4 groups ( n=6 each): control group (Con group), hypoxia/reoxygenation (H/R) group, H/R+ control exosomes group (H/R+ EXO-CON group), and H/R+ RPCT exosomes group (H/R+ EXO-RPCT group). The rats were subjected to 4 h of hypoxia followed by 16 h of reoxygenation to establish the H/R injury model. In H/R+ EXO-CON and H/R+ EXO-RPCT groups, control exosomes and RPCT exosomes 4 μg were added at 15 min before hypoxia respectively. The cell survival rate and concentration of lactate dehydrogenase (LDH) in the supernatant were measured, and the expression of Bax, Bcl-2, cleaved caspase-3 and caspase-3 was detected. Results:In vivo experiment Compared with control group, the expression of serum CD9 and HSP70 was significantly up-regulated, and the exosome concentration was increased in RPCT group ( P<0.05). Compared with Sham group, the serum concentrations of cTnT and LDH, percentage of myocardial infarct size, content of MDA in myocardial tissues, Bax/Bcl-2 ratio, and cleaved caspase-3/caspase-3 ratio were significantly increased, and the activity of SOD was decreased in I/R group ( P<0.05). Compared with I/R group, the serum cTnT and LDH concentrations, percentage of myocardial infarct size, content of MDA in myocardial tissues, Bax/Bcl-2 ratio and cleaved caspase-3/caspase-3 ratio were significantly decreased, and the activity of SOD was increased in I/R+ RPCT group ( P<0.05), and no significant changes were observed in the aforementioned parameters in I/R+ EXO-CON group ( P>0.05). There were no significant differences in the aforementioned parameters between I/R+ RPCT group and I/R+ EXO-RPCT group ( P>0.05). In vitro experiment Compared with Con group, the cell survival rate was significantly decreased, and the LDH concentration in the supernatant and Bax/Bcl-2 and cleaved caspase-3/caspase-3 ratios were increased in H/R group ( P<0.05). Compared with H/R group, the cell survival rate was significantly increased, the LDH concentration in the supernatant, and Bax/Bcl-2 and cleaved caspase-3/caspase-3 ratios were decreased in H/R+ EXO-CON group ( P<0.05), and no significant changes were found in the aforementioned parameters in H/R+ EXO-RPCT group ( P>0.05). Conclusions:The mechanism by which RPCT reduces MIRI may be related to the increased release of serum exosomes in rats.

By analyzing the problems existing in the existing medical service model,this paper explores the core health needs of people in the era of intelligent medical care,and puts forward people-oriented,"4S-PAMA"(Self-Perception,Self-Assessment,Self-Management,Self-Adaption)health service model with individual active health promotion as the core.At the same time to build a multi-level,many modules,interactive health management of traditional Chinese medicine harbor as the breakthrough point,science and technology innovation as the means,through to transform traditional medical center or create new health management,in order to further carry out"perception model of the health management"model applied to provide theoretical basis.

Cuproptosis, a recently identified form of regulated cell death triggered by excess intracellular copper, has emerged as a promising cytotoxic strategy for cancer therapy. However, the therapeutic efficacy of copper ionophores such as elesclomol (ES) is often hindered by cellular copper homeostasis mechanisms that limit copper influx and cuproptosis induction. To address this challenge, we developed a nanoagent utilizing outer membrane vesicle (OMV) derived from Akkermansia muciniphila (Akk) for co-delivery of antioxidant 1 copper chaperone (Atox1)-targeting siRNA and ES (siAtox1/ES@OMV) to tumors. In vitro, we demonstrated that Atox1 knockdown via siRNA significantly disrupted copper export mechanisms, resulting in elevated intracellular copper levels. Simultaneously, ES facilitated efficient copper influx and mitochondrial transport, leading to Fe-S cluster depletion, increased proteotoxic stress, and robust cuproptosis. In vivo, siAtox1/ES@OMV achieved targeted tumor delivery and induced pronounced cuproptosis. Furthermore, leveraging the immunomodulatory properties of OMVs, siAtox1/ES@OMV promoted T-cell infiltration and the activation of tumor-reactive cytotoxic T cells, enhancing tumor immune responses. The combination of siAtox1/ES-induced cuproptosis and immunogenic cell death synergistically suppressed tumor growth in both subcutaneous breast cancer and orthotopic rectal cancer mouse models. This study highlights the potential of integrating copper homeostasis disruption with a copper ionophore using an immunomodulatory OMV-based vector, offering a promising combinatorial strategy for cancer therapy.

Poly(ADP-ribosyl)ation (PARylation) is a specific form of post-translational modification (PTM) predominantly triggered by the activation of poly-ADP-ribose polymerase 1 (PARP1). However, the role and mechanism of PARylation in the advancement of acute kidney injury (AKI) remain undetermined. Here, we demonstrated the significant upregulation of PARP1 and its associated PARylation in murine models of AKI, consistent with renal biopsy findings in patients with AKI. This elevation in PARP1 expression might be attributed to trimethylation of histone H3 lysine 4 (H3K4me3). Furthermore, a reduction in PARylation levels mitigated renal dysfunction in the AKI mouse models. Mechanistically, liquid chromatography-mass spectrometry indicated that PARylation mainly occurred in receptor for activated C kinase 1 (RACK1), thereby facilitating its subsequent phosphorylation. Moreover, the phosphorylation of RACK1 enhanced its dimerization and accelerated the ubiquitination-mediated hypoxia inducible factor-1α (HIF-1α) degradation, thereby exacerbating kidney injury. Additionally, we identified a PARP1 proteolysis-targeting chimera (PROTAC), A19, as a PARP1 degrader that demonstrated superior protective effects against renal injury compared with PJ34, a previously identified PARP1 inhibitor. Collectively, both genetic and drug-based inhibition of PARylation mitigated kidney injury, indicating that the PARylated RACK1/HIF-1α axis could be a promising therapeutic target for AKI treatment.

Objective To investigate the post-intervention experiences in elderly stroke patients who received the group-based acceptance and commitment therapy(ACT)and to provide a reference to improve the group-based ACT intervention strategies for the patients.Methods With the descriptive phenomenological research,the semi-structured in-depth interviews were conducted with 15 elderly stroke patients who had received the group-based ACT intervention for 6 months in a Tier-IIIA hospital in Hunan Province between May and July 2023.The data acquired from the interviews were analysed using the Colaizzi method.Results The experiences in elderly stroke patients with the group-based ACT intervention were categorised into three main themes and ten sub-themes:(1)The impact of intervention on the psychology and spirit(change cognition and accept oneself;enhance awareness and reflect on oneself;clarify values and adapt to oneself;disengage from suffering and achieve dissociation;understand suffering and discover a sense of meaning in life);(2)Behavioural changes brought by the intervention(change approaches to improve health;engage in rehabilitation exercises and build confidence;enhance social interactions and integrate into life);(3)Suggestions for the intervention program(tailor to the physiological characteristics of the elderly;adapt to the psychological characteristics of the elderly).Conclusion The group-based ACT intervention has a beneficial effect on the psychological,spiritual and behavioural changes in the elderly stroke patients.The intervention programs should be improved according to the physical and mental characteristics therefore to improve the mental health of elderly stroke patients.