1.Research in measurement of nursing workload in ICU in municipal hospitals by using different
Changju LIAO ; Xiaoping WEN ; Mingquan YANG ; Xuemei ZOU ; Fang WANG ; Huili ZHANG ; Shulan MING
Chinese Journal of Practical Nursing 2012;(34):4-6
Objective To measure the nursing workload in ICU,and provide the basis for the scientific distribution of human resources and reasonable scheduling in ICU.Methods ICU patients of the First and Third People's Hospital of Zigong from July to September,2011 were selected.The TISS-28 and NAS were applied to measure the nursing workload in the ICU.The number of staff nurses on each day and on each shift was recorded.Results The total nursing workload and the per capita nursing workload for each day in a week showed no significant difference,and the per capita nursing workload of different shifts and the needs of nurse-patient ratio of different patients in ICU were significantly different.Conclusions The allocation of nursing staff should be balance for each day in a week and different shifts for each day.The configuration of the nursing human resources should be based on actual nursing workload,no only considering the species of the diseases,the disease condition,self-care ability and cooperation of the patients,but also the proficiency of nurse skills.
2.Study on the serum organochlorine pesticides residues levels in breast cancer patients with different estrogen receptor
Ming LI ; Dongliang SUN ; Ruiwei LI ; Weiguo XU ; Guiru FU ; Shulan LIU
Clinical Medicine of China 2009;25(5):534-537
Objective To evaluate the serum organochlorine pesticides residues levels in breast cancer pa-tients with different estrogen receptor(ER). Methods 93 patients of breast cancer from Fengnan districtand 65 pa-tients from Tanghai county in Tangshan were selected,whose ER were detected by pathology and serum organochlo-fine pesticides (DDTs and HCHs) levels were detected and compared with gas chromatography/electron capture. Results The orders of detection rate of HCH isomer in breast cancer patients in two areas were β-HCH >δ-HCH > α-HCH >γ-HCH. The orders of detection rate of DDT isomer in breast cancer patients in two areas were PP'-DDE > PP'-DDT > OP'-DDT > PP'-DDD. The serum levels of β-HCH, PP'-DDE in breast cancer patients in two are-as were positively correlated with age (r=0.272 ,0.330 , P<0.01) or BMI (r=0.312,0.187, P <0.01, <0.05). There were statistical differences in the serum β-HCH,δ-HCH,PP'-DDE levels between the estrogen receptor posi-tive breast cancer patients and the estrogen receptor negative breast cancer patients in two areas (P<0.05 for each). Conclusion The serum organochlorine pesticides residues levels in breast cancer patients with positive es-trogen receptor are higher than that with negative estrogen receptor, implicating that breast cancer is dependent on es-trogen. The cause of breast cancer is likely due to estrogen-like effect of serum organochlorine pesticides residues.
4. Determination of p-Phenylene diamine in workplace air by elution solution-liquid chromatography
Mengmeng LIU ; Baofeng LIU ; Jian ZHANG ; Jing LIU ; Ming ZHANG ; Shulan ZHAO
Chinese Journal of Industrial Hygiene and Occupational Diseases 2018;36(9):700-703
Objective:
To establish a elution solution-liquid chromatography method for determination of p-Phenylene diamine (PPD) in workplace air.
Methods:
p-Phenylene diamine (PPD) in the air of workplace was collected with glass fiber filters coated with dilute sulfuric acid and extracted with an aqueous EDTA solution. The target toxicant was separated with the C18 column and analyzed with UV detector, identified by retention time, and quantified by peak area.
Results:
The linear range of PPD in the air of workplace was 2.00~10.00 μg/ml, with a correlation coefficient of 0.999 96. The limit of detection was 0.07 μg/ml. The lower limit of quantification was 0.23 μg/ml. The minimum detectable concentration was 0.003 1 mg/m3 under 45.0 L sampling volume and 2.0 ml extraction solution volume. The within-run precision of different PPD concentrations was 0.15%~2.3% and the between-run precisions was 1.4%~2.6%; The extraction efficiencies was 91.4%~95.4%; The average collection efficiencies was 96.6%; The samples could be stored for 7 days isolation of air. The potential coexistence of m-Phenylene diamine and o-Phenylene diamine with p-Phenylene diamine (PPD) in the air did not interfere with the results of determination.
Conclusion
This method has high sensitivity, precision, accuracy and lower limit of detection and it is applicable for determination of p-Phenylene diamine (PPD) in workplace air.
5. Effects of p -Phenylene diamine on liver and kidney functions of occupational exposed workers
Lin FAN ; Ming ZHANG ; Baofeng LIU ; Jing LIU ; Huijing TANG ; Baoli ZHU ; Rongming MIAO ; Meibian ZHANG ; Xinglin FANG ; Jiayang FANG ; Shulan ZHAO ; Qiang ZENG ; Qing GU
Chinese Journal of Industrial Hygiene and Occupational Diseases 2018;36(12):923-926
Objective:
To study the effect of p-phenylenediamine (PPD) on liver and kidney function in occupational exposed workers.
Methods:
Workers in a hair dye production enterprise which used p-phenylenediamine as a raw material for production were selected as the main research population. Then we conducted a questionnaire survey on the basic conditions of workers and conducted occupational health checkups on general health status, liver and kidney function. Occupational health examination assessment results were tested in Taizhou Cancer Hospital. All data was built using EpiData 3.1 software, and statistical analysis was performed using software SPSS 20.0.
Results:
The liver function indicators including direct bilirubin, prealbumin, total protein, and white protein, globulin, aspartate aminotransferase, glutamyl transpeptidase, and total bilirubin in the workers exposed to high concentration of PPD were at high normal values, and these indicators were significantly different from low PPD concentration group (
6.Innovation and Practice of Chinese Medicinal Materials Resource Chemistry Leading the Whole Industry Chain Recycling and Green Development of Chinese Medicinal Materials
Jin'ao DUAN ; Sheng GUO ; Shulan SU ; Lanping GUO ; Ming ZHAO ; Rui LIU ; Hui YAN ; Tuanjie WANG ; Zhenzhong WANG ; Wei XIAO ; Luqi HUANG
Journal of Nanjing University of Traditional Chinese Medicine 2024;40(10):1114-1122
The concept,connotation and extension,goals and tasks of the discipline of Chinese medicinal materials resource chem-istry have been proposed and developed for 20 years.Looking back at the 20-year construction and development process,continuous exploration and innovative practice have been carried out around the scientific production and effective utilization of traditional Chinese medicinal materials.The theoretical connotation has been further enriched,the research mode has been further improved,and the tech-nical system has been further expanded.A series of research results have been formed and promoted for application,serving the high-quality development of the traditional Chinese medicinal materials industry,and contributing to the improvement of quality,efficiency,and green development of the entire industry chain of Chinese medicinal resources.However,with the rapid growth of Chinese medici-nal materials industry and the continuous expansion and extension of the industry chain,the waste and by-products generated in the production process of Chinese medicinal agriculture and industry are increasing day by day,causing resource waste and environmental pollution,which has become a new major problem facing the development of the industry.This article focuses on the establishment and case analysis of a model for the full industry chain recycling and low-carbon green development of Chinese medicinal materials,as well as the creation of an ecological industry demonstration park for the recycling of Chinese medicinal materials.It showcases the phased a-chievements made in recent years,aiming to provide demonstration and reference for the low-carbon and green transformation of the Chinese medicinal materials industry from a linear economy model to a circular economy model.It provides reference for improving the efficiency of Chinese medicinal materials utilization and creating new quality productivity,and helps promote low-carbon and green de-velopment in the field of Chinese medicinal materials industry.