AIM: To analyze the factors affecting non-contact intraocular pressure(IOPNCT)measurements after femtosecond laser-assisted small incision lenticule extraction(SMILE), explore the correlation of IOPNCT with central corneal thickness(CCT)and corneal curvature after SMILE, and construct the corresponding regression model which will provide scientific basis for clinical evaluation of the true IOP of patients after SMILE.METHODS: Data from a retrospective analysis of 107 myopic patients(206 eyes)who underwent SMILE and 107 myopic patients(201 eyes)received femtosecond laser-assisted in situ keratomileusis(FS-LASIK)surgery from June 2023 to May 2024 were examined. IOPNCT, CCT, and corneal curvature before surgery and at 1 and 3 mo were collected. The preoperative and postoperative IOPNCT, CCT and corneal curvature were analyzed by ANOVA and Pearson correlation analysis, and multiple linear regression models were constructed to evaluate the association of postoperative changes of IOPNCT, CCT and corneal curvature.RESULTS: There were significant differences in IOPNCT, CCT, and corneal curvature of both SMILE and FS-LASIK patients(all P<0.001), there was no significant difference between two groups and interaction effects(all P>0.05), and the IOPNCT, CCT and corneal curvature at 1 and 3 mo post-surgery were significantly lower than preoperative(all P<0.05). Pearson correlation analysis showed a positive correlation between IOPNCT and CCT at 1 and 3 mo after SMILE(r=0.261, 0.267, all P<0.001), but no significant correlation with corneal curvature(all P>0.05). Multiple linear regression analysis of IOPNCT with CCT and corneal curvature at 1 mo after SMILE indicated that the regression equation was: Y=3.426+0.019X1-0.058X2(Y represents IOPNCT, X1 represents the CCT, and X2 represents the corneal curvature), with statistical significant difference in the equation(F=7.654, P=0.001); the regression equation for 3 mo after surgery was: Y=2.056+0.020X1-0.038 X2(Y represents IOPNCT, X1 represents the CCT, and X2 represents the corneal curvature), with statistically significance in the equation(F=7.903, P<0.001). The regression equation of postoperative IOPNCT change(△IOPNCT)and intraoperative cutting corneal thickness(△CCT)and corneal curvature at 1 mo was Y=-2.252+0.008X1+0.587X2(Y represents △IOPNCT, X1 stands for the △CCT, X2 represents the corneal curvature change value), with statistical significant difference in the equation(F=17.550, P<0.001); the regression equation for 3 mo after surgery was: Y=-2.168+0.024X1+0.281X2(Y represents △IOPNCT, X1 represents △CCT, X2 indicates the corneal curvature change values), with statistical significant difference in the equation(F=16.030, P<0.001).CONCLUSION: After SMILE and FS-LASIK surgery, the IOPNCT value of patients was mainly affected by CCT compared with preoperative surgery, and the short-term use of hormone eye drops, fluorometholone, did not cause a significant increase in IOP; both the IOP correction formula at 1 and 3 mo postoperatively can be used clinically to evaluate and correct actual IOP in patients after SMILE.

AIM: To analyze the factors affecting non-contact intraocular pressure(IOPNCT)measurements after femtosecond laser-assisted small incision lenticule extraction(SMILE), explore the correlation of IOPNCT with central corneal thickness(CCT)and corneal curvature after SMILE, and construct the corresponding regression model which will provide scientific basis for clinical evaluation of the true IOP of patients after SMILE.METHODS: Data from a retrospective analysis of 107 myopic patients(206 eyes)who underwent SMILE and 107 myopic patients(201 eyes)received femtosecond laser-assisted in situ keratomileusis(FS-LASIK)surgery from June 2023 to May 2024 were examined. IOPNCT, CCT, and corneal curvature before surgery and at 1 and 3 mo were collected. The preoperative and postoperative IOPNCT, CCT and corneal curvature were analyzed by ANOVA and Pearson correlation analysis, and multiple linear regression models were constructed to evaluate the association of postoperative changes of IOPNCT, CCT and corneal curvature.RESULTS: There were significant differences in IOPNCT, CCT, and corneal curvature of both SMILE and FS-LASIK patients(all P<0.001), there was no significant difference between two groups and interaction effects(all P>0.05), and the IOPNCT, CCT and corneal curvature at 1 and 3 mo post-surgery were significantly lower than preoperative(all P<0.05). Pearson correlation analysis showed a positive correlation between IOPNCT and CCT at 1 and 3 mo after SMILE(r=0.261, 0.267, all P<0.001), but no significant correlation with corneal curvature(all P>0.05). Multiple linear regression analysis of IOPNCT with CCT and corneal curvature at 1 mo after SMILE indicated that the regression equation was: Y=3.426+0.019X1-0.058X2(Y represents IOPNCT, X1 represents the CCT, and X2 represents the corneal curvature), with statistical significant difference in the equation(F=7.654, P=0.001); the regression equation for 3 mo after surgery was: Y=2.056+0.020X1-0.038 X2(Y represents IOPNCT, X1 represents the CCT, and X2 represents the corneal curvature), with statistically significance in the equation(F=7.903, P<0.001). The regression equation of postoperative IOPNCT change(△IOPNCT)and intraoperative cutting corneal thickness(△CCT)and corneal curvature at 1 mo was Y=-2.252+0.008X1+0.587X2(Y represents △IOPNCT, X1 stands for the △CCT, X2 represents the corneal curvature change value), with statistical significant difference in the equation(F=17.550, P<0.001); the regression equation for 3 mo after surgery was: Y=-2.168+0.024X1+0.281X2(Y represents △IOPNCT, X1 represents △CCT, X2 indicates the corneal curvature change values), with statistical significant difference in the equation(F=16.030, P<0.001).CONCLUSION: After SMILE and FS-LASIK surgery, the IOPNCT value of patients was mainly affected by CCT compared with preoperative surgery, and the short-term use of hormone eye drops, fluorometholone, did not cause a significant increase in IOP; both the IOP correction formula at 1 and 3 mo postoperatively can be used clinically to evaluate and correct actual IOP in patients after SMILE.

Objective:Distribution and antibiotic resistance of pathogen isolated from children with intra-abdominal infection (IAI) associated sepsis in the intensive care unit (ICU) were analyzed to provide a reference for the empirical anti-infective treatment of IAI in children.Methods:We retrospectively analyzed the data of 116 children with culture-positive IAI-associated sepsis admitted to Children's Hospital of Zhejiang University School of Medicine from January 2019 to December 2021. Clinical isolation and drug resistance analysis were conducted based on different years of onset, locations of onset, and primary diseases.Results:A total of 186 strains of pathogens causing children with IAI-associated sepsis in ICU were collected. The distribution and antibiotic resistance of pathogen were as follows: the percentages of gram-positive bacteria, gram-negative bacteria, and fungi were 53.2%, 40.9%, and 5.9%, respectively; the top four strains were Enterococcus faecium, Escherichia coli, Klebsiella pneumoniae, and Enterococcus faecalis, accounting for 57.0% of all isolates; Enterococcus faecium(19.9%) and Enterococcus faecalis (10.2%) were the dominating gram-positive bacteria; Escherichia coli (13.4%) and Klebsiella pneumoniae (13.4%) were more common gram-negative bacteria; Fungi were dominated by Candida albicans (3.8%).Fifty-seven strains of gram-positive bacteria were detected in 61 children with infectious diseases, mainly Enterococcus faecium (28 strains). There were 53 gram-negative strains, mainly Klebsiella pneumoniae (21 strains). Thirty-two strains of gram-positive bacteria were detected in 40 children with digestive tract malformation, and Enterococcus faecalis (six strains) were the most common. There were 14 gram-negative strains, mainly Escherichia coli (six strains). In 13 children with malignant tumors of digestive system, nine strains of gram-positive bacteria were cultured, and Enterococcus faecium (four strains) was the most common. There were eight gram-negative strains, mainly Escherichia coli (four strains).In the 46 community-acquired IAI patients,30 gram-positive isolates were cultured,mainly including Enterococcus faecium (12 strains), Staphylococcus epidermidis (seven strains), and Viridans streptococci (six strains); Forty gram-negative isolates mainly contained Escherichia coli (16 strains), Klebsiella pneumoniae (14 strains), and Enterobacter cloacae (five strains). In the 70 hospital-associated IAI patients, 69 gram-positive isolates such as Enterococcus faecium (25 strains), Enterococcus faecalis (17 strains), Enterococcus gallinarum (eight strains), and Staphylococcus aureus (seven strains) were cultured;Tirty-six gram-negative isolates were dominated by Klebsiella pneumoniae (11 strains), Escherichia coli (nine strains), Pseudomonas aeruginosa (four strains), and Acinetobacter baumannii (four strains). The mixed infection rate of clinical pathogens was up to 46.6%, and the overall resistance rate was 43.4%, in which gram-negative bacteria had high sensitivity to piperacillin/tazobactam, cefoperazone/sulbactam, imipenem, and tigecycline.The detection rates of Klebsiella pneumoniae and Escherichia coli producing extended-spectrum β-lactamases were 36.0% and 24.6%, respectively, with 100% sensitivity to tigecycline. Gram-positive bacteria showed 100% sensitivity to vancomycin, linezolid, and tigecycline. Conclusion:Pathogen isolated from children with IAI-associated sepsis in ICU were dominated by Enterococcus faecium, Escherichia coli, Klebsiella pneumoniae, and Enterococcus faecalis,respectively. Before confirmation of pathogenic bacteria, antibacterial agents can be selected according to the infection type. It is important to note that a single broad-spectrum antibacterial agent or combination medication can be considered the initial empirical choice due to the large variety of pathogens, high rates of mixed infections, and high overall resistance.

Ankylosing spondylitis (AS) combined with lower cervical fracture is often categorized into unstable fracture, with a high incidence of neurological injury and a high rate of disability and morbidity. As factors such as shoulder occlusion may affect the accuracy of X-ray imaging diagnosis, it is often easily misdiagnosed at the primary diagnosis. Non-operative treatment has complications such as bone nonunion and the possibility of secondary neurological damage, while the timing, access and choice of surgical treatment are still controversial. Currently, there are no clinical practice guidelines for the treatment of AS combined with lower cervical fracture with or without dislocation. To this end, the Spinal Trauma Group of Orthopedics Branch of Chinese Medical Doctor Association organized experts to formulate Clinical guidelines for the treatment of ankylosing spondylitis combined with lower cervical fracture in adults ( version 2024) in accordance with the principles of evidence-based medicine, scientificity and practicality, in which 11 recommendations were put forward in terms of the diagnosis, imaging evaluation, typing and treatment, etc, to provide guidance for the diagnosis and treatment of AS combined with lower cervical fracture.

Craniocerebral injury with seawater immersion is a special kind of compound injury, with low temperature, high permeability, high alkali, high salt content, and bacterial infection being the main causes. The injury is also characterized with complex damage mechanisms, difficulty to treat, and poor prognosis. At present, the damage mechanisms of craniocerebral injury with seawater immersion are mainly studied by establishing the experimental animal models at the levels of tissue, cell, organelle, molecule, etc. However, the craniocerebral injury with seawater immersion is more complex than the simple onshore craniocerebral injury, therefore, a stable disease model is not easy to construct. Most researches on the specific injury mechanisms are relatively single and one-sided, with many different views in existence, and the damage mechanisms of craniocerebral injury with seawater immersion have hitherto not been clear. The authors reviewed the research progress in the damage mechanisms of craniocerebral injury with seawater immersion, in order to promote the in-depth study of the mechanism of craniocerebral injury with seawater immersion and provide reference for its clinical treatment.

BACKGROUND:Establishing an objective and standard animal model of bone nonunion is essential for experimental studies and treatment of nonunion. OBJECTIVE:To establish an objective animal model for experimental studies of nonunion. METHODS:Specific pathogen-free male Wistar rats were selected and prepared by cutting off a 5 mm bone defect in the middle femur,peeling off a large periosteum and removing bone marrow.Animal models were fixed with a 1.2 mm Kirschner wire.At 1,4 and 8 weeks,bone nonunion was observed by gross specimen observation,X-ray examination and histopathological examination. RESULTS AND CONCLUSION:The gross specimen,X-ray film and histopathological examination showed that there was no callus formation in the bone defect area,the broken end was filled with fiber tissue,and the bone callus was rare or even invisible.To conclude,the rat model of nonunion can be successfully established by osteotomy of the middle femur,large periosteum peeling and bone marrow removal.This modeling method is simple,reliable and effective.

Objective To invesigate the feasibility of low radiation dose and low contrast dosage in triple-rule-out computed tomo-graphy angiography(TRO-CTA)on the 320-row detector CT.Methods A total of 120 patients who underwent CTA were prospec-tively selected.All patients were divided into control group(n=90)and experimental group(n=30).The control group employed standard-doses protocol of pulmonary CTA(120 kV tube voltage,45 mL contrast dosage),coronary CTA(120 kV,50-60 mL),and aortic CTA(120 kV,75 mL),while the experimental group received TRO-CTA with 100 kV and 70-80 mL.The peak time of contrast dosage at the pulmonary artery and aorta was measured by low-dose detection method in the experimental group,and the contrast examination was performed sequentially in the control group.Subjective scores and objective image quality of the pulmonary artery,coronary artery,and aorta in the experimental group and the control group were measured and compared,respectively.The effective dose(ED)between the two groups were recorded and compared.Independent samples t-test and Fisher exact probability were used to analyze the statistical differences between the above measures.Results There were no significant differences in CT values,con-trast-to-noise ratio(CNR),signal-to-noise ratio(SNR)of pulmonary artery,coronary artery and aorta between the two groups(P＞0.05).The mean subjective scores of pulmonary artery,coronary artery and aorta segments in the two groups were not less than 3 points,meeting the requirement of clinical diagnosis.There was no statistical difference in subjective scores between the two groups(P＞0.05).There was statistically significant difference in ED between the two groups(P＜0.05).The ED of pulmonary artery,coronary artery,and aorta in the experimental group were 11.49％,13.33％,and 11.46％significantly lower than those in the control group,respec-tively.Conclusion It is feasible to obtain TRO-CTA images used by the low radiation dose and low contrast dosage on the 320-row detector CT,and radiation dose and contrast dosage can be reduced reasonably without alterations of TRO-CTA images quality in clinical practice.

Approximately 8%to 15%of patients with metastatic colorectal cancer(mCRC)harbor BRAF mutation,and the V600E mutation is the most common form of BRAF mutation.The prognosis of patients with metastatic colorectal cancer harboring BRAF V600E mutation is poor.Initial standard chemotherapy is often ineffective,necessitating an intensive follow-up treatment,which usually provides limited effic-acy.Consequently,the disease becomes notably difficult to treat and progresses rapidly,resulting in a decreased overall patient survival rate.This review details the research advancements in treatment of BRAF V600E-mutant metastatic colorectal cancer.

Traumatic supraorbital fissure syndrome (TSOFS) is a symptom complex caused by nerve entrapment in the supraorbital fissure after skull base trauma. If the compressed cranial nerve in the supraorbital fissure is not decompressed surgically, ptosis, diplopia and eye movement disorder may exist for a long time and seriously affect the patients′ quality of life. Since its overall incidence is not high, it is not familiarized with the majority of neurosurgeons and some TSOFS may be complicated with skull base vascular injury. If the supraorbital fissure surgery is performed without treatment of vascular injury, it may cause massive hemorrhage, and disability and even life-threatening in severe cases. At present, there is no consensus or guideline on the diagnosis and treatment of TSOFS that can be referred to both domestically and internationally. To improve the understanding of TSOFS among clinical physicians and establish standardized diagnosis and treatment plans, the Skull Base Trauma Group of the Neurorepair Professional Committee of the Chinese Medical Doctor Association, Neurotrauma Group of the Neurosurgery Branch of the Chinese Medical Association, Neurotrauma Group of the Traumatology Branch of the Chinese Medical Association, and Editorial Committee of Chinese Journal of Trauma organized relevant experts to formulate Chinese expert consensus on the diagnosis and treatment of traumatic supraorbital fissure syndrome ( version 2024) based on evidence of evidence-based medicine and clinical experience of diagnosis and treatment. This consensus puts forward 12 recommendations on the diagnosis, classification, treatment, efficacy evaluation and follow-up of TSOFS, aiming to provide references for neurosurgeons from hospitals of all levels to standardize the diagnosis and treatment of TSOFS.

Objective:To investigate the effects of astragaloside IV (AS-IV) on acute myocardial injury in rats with high-level spinal cord injury (SCI).Methods:Twenty-four healthy male SD rats, aged 8-10 weeks with a body weight of 250-300 g, were randomly divided into 4 groups using a random number table method: sham operation group, high-level SCI group (SCI group), high-level SCI+AS-IV group (SCI+AS-IV group) and high-level SCI+AS-IV+silent information regulator 1 (SIRT1) inhibitor EX527 group (SCI+AS-IV+EX527 group), with 6 rats in each group. The SCI model was established using the modified Allen method and the sham operation group underwent the spinal cord exposure only. In the SCI+AS-IV group, 40 mg/kg of AS-IV was injected intraperitoneally immediately after injury. SCI+AS-IV+EX527 group received an intraperitoneal injection of 5 mg/kg EX527 at one hour before injury and another injection of 40 mg/kg AS-IV in the same way immediately after injury. The sham operation group and the SCI group received an equal volume of saline via intraperitoneal injection. Immediately after awakening from injury, the hind limb motor function of the rats in each group was observed, recorded and then evaluated using the BBB method. At 24 hours after injury, the ultrastructure of the cardiomyocytes was examined under a transmission electron microscope; the levels of serum cardiac troponin I (cTnI), myocardial tissue inflammatory factors interleukin (IL)-18 and IL-1β were quantified by the ELISA method; the level of reactive oxygen species (ROS) of the myocardial tissue was assessed utilizing the dihydroethidium (DHE) assay; biochemical analyses were employed to determine the superoxide dismutase (SOD) activity and malondialdehyde (MDA) concentrations; mRNA and protein expression levels of nucleotide-binding oligomerization domain-like receptor protein 3 (NLRP3), cysteinyl aspartate specific proteinase-1 (caspase-1), gasdermin D (GSDMD), SIRT1 and peroxisome proliferator-activated receptor γ coactivator-1α (PGC-1α) were examined using RT-PCR and Western blot; cardiomyocyte pyroptosis rate was evaluated by caspase-1 and TUNEL double-labeled fluorescence staining.Results:Immediately after awakening from injury, the sham operation group exhibited normal hind limb activity, with BBB scores of 21(21, 21)points, while the remaining groups displayed flaccid paralysis in both hind limbs, accompanied by the cessation of spontaneous excretion, with BBB scores of 0(0, 0)points. At 24 hours after injury, transmission electron microscopy did not reveal any significant abnormalities in the ultrastructure of the myocardiomyocytes in the sham operation group, while changes of varying degrees were observed in the SCI group. The ELISA results indicated that at 24 hours after injury, the serum cTnI level in the SCI group was (1 435.3±148.1)pg/ml, higher than (619.6±95.4)pg/ml in the sham operation group ( P<0.01); the cTnI level was (1 154.0±80.0)pg/ml in the SCI+AS-IV group, lower than that in the SCI group ( P<0.01); the cTnI level was (1 321.8±50.2)pg/ml in the SCI+AS-IV+EX527 group, higher than that in the SCI+AS-IV group ( P<0.05). The levels of IL-18 and IL-1β in the myocardial tissue in the SCI group were (493.0±145.0)pg/ml and (936.7±93.2)pg/ml, higher than (131.1±62.5)pg/ml and (281.7±83.6)pg/ml in the sham operation group ( P<0.01); the levels of IL-18 and IL-1β in the SCI+AS-IV group were (182.4±45.6)pg/ml and (573.4±99.5)pg/ml, lower than those in the SCI group ( P<0.01); the levels of IL-18 and IL-1β in the SCI+AS-IV+EX527 group were (337.4±72.0)pg/ml and (742.6±82.7)pg/ml, higher than those in the SCI+AS-IV group ( P<0.05), yet lower than those in the SCI group ( P<0.01). At 24 hours after injury, DHE and biochemical assays showed that the levels of ROS and MDA in the myocardial tissue in the SCI group were (65±6)% and (1.97±0.27)nmol/mg, higher than (19±10)% and (1.03±0.16)nmol/mg in the sham operation group ( P<0.01); the ROS and MDA levels in the SCI+AS-IV group were (37±10)% and (1.39±0.11)nmol/mg, lower than those in the SCI group ( P<0.01); the ROS and MDA levels in the SCI+AS-IV+EX527 group were (52±7)% and (1.70±0.14)nmol/mg, higher than those in the SCI+AS-IV group ( P<0.05). The SOD level in the myocardial tissue of the SCI group was (658.48±77.56)U/mg, lower than (1 059.55±71.91)U/mg in the sham operation group ( P<0.01); the SOD level in the SCI+AS-IV group was (901.74±32.30)U/mg, higher than that in the SCI group ( P<0.01); the SOD level in the myocardial tissue in the SCI+AS-IV+EX527 group was (799.86±26.70)U/mg, lower than that in the SCI+AS-IV group ( P<0.05). At 24 hours after injury, RT-PCR showed that the mRNA expression levels of NLRP3, caspase-1 and GSDMD in the myocardial tissue of the SCI group were 2.07±0.25, 2.46±0.28 and 1.82±0.12 respectively, which were higher than 1.10±0.13, 0.95±0.17 and 1.03±0.08 in the sham operation group ( P<0.01); the mRNA expression levels of NLRP3, caspase-1 and GSDMD in the SCI+AS-IV group were 1.47±0.24, 1.51±0.16 and 1.42±0.13 respectively, which were lower than those in the SCI group ( P<0.01); the mRNA expression levels of NLRP3, caspase-1 and GSDMD in the SCI+AS-IV+EX527 group were 1.93±0.28, 1.97±0.31 and 1.65±0.16 respectively, which were higher than those in the SCI+AS-IV group, yet lower than those in the SCI group ( P<0.05). The mRNA expression levels of SIRT1 and PGC-1α in the myocardial tissue in the SCI group were 0.41±0.09 and 0.56±0.07, lower than 1.20±0.14 and 1.29±0.20 in the sham operation group ( P<0.01); the mRNA expression levels of SIRT1 and PGC-1α in the myocardial tissue in the SCI+AS-IV group were 0.78±0.08 and 1.01±0.19, higher than those of the SCI group ( P<0.01); the mRNA expression levels of SIRT1 and PGC-1α in the myocardial tissue of the SCI+AS-IV+EX527 group were 0.53±0.12 and 0.72±0.22, lower than those of the SCI+AS-IV group ( P<0.05). At 24 hours after injury, the western blot analysis showed that the protein expression levels of NLRP3, caspase-1 and GSDMD in the myocardial tissue in the SCI group were 1.00±0.20, 0.60±0.19 and 0.77±0.15 respectively, which were higher than 0.27±0.09, 0.18±0.10 and 0.28±0.08 in the sham operation group ( P<0.01); the protein expression levels of NLRP3, caspase-1 and GSDMD in the SCI+AS-IV group were 0.59±0.10, 0.25±0.11 and 0.33±0.11 respectively, lower than those in the SCI group ( P<0.01); the protein expression levels of NLRP3, caspase-1 and GSDMD in the myocardial tissue in the SCI+AS-IV+EX527 group were 0.85±0.15, 0.54±0.12 and 0.55±0.13 respectively, higher than those in the SCI+AS-IV group ( P<0.05). The protein expression levels of SIRT1 and PGC-1α in the myocardial tissue in the SCI group were 0.44±0.16 and 0.28±0.10, lower than 0.93±0.22 and 0.75±0.16 in the sham operation group ( P<0.01); the protein expression levels of SIRT1 and PGC-1α in the myocardial tissue in the SCI+AS-IV group were 0.78±0.19 and 0.55±0.12, higher than those in the SCI group ( P<0.01); the protein expression levels of SIRT1 and PGC-1α in the myocardial tissue in the SCI+AS-IV+EX527 group were 0.46±0.16 and 0.35±0.07, lower than those in the SCI+AS-IV group ( P<0.05). At 24 hours after injury, caspase-1 and TUNEL double-labeled fluorescence staining showed that the cardiomyocyte pyroptosis rate in the SCI group was (34.5±6.7)%, higher than (5.3±2.9)% in the sham operation group ( P<0.01); the cardiomyocyte pyroptosis rate in the SCI+AS-IV group was (13.4±3.0)%, lower than that in the SCI group ( P<0.01); the cardiomyocyte pyroptosis rate in the SCI+AS-IV+EX527 group was (22.5±5.9)%, higher than that in the SCI+AS-IV group ( P<0.01), yet lower than that in the SCI group ( P<0.01). Conclusions:AS-IV can significantly reduce acute myocardial injury in rats with high-level SCI. Its mechanism may involve activating the myocardial SIRT1/PGC-1α signaling pathway, protecting the mitochondria, enhancing the ability to resist oxidative stress, and effectively inhibiting the NLRP3 inflammasome-mediated pyroptosis pathway.