Aged ; Antineoplastic Combined Chemotherapy Protocols ; therapeutic use ; CD4 Antigens ; metabolism ; CD56 Antigen ; metabolism ; Cyclophosphamide ; therapeutic use ; Dendritic Cells ; pathology ; Diagnosis, Differential ; Doxorubicin ; therapeutic use ; Female ; Humans ; Leukemia, Myeloid ; metabolism ; pathology ; Lymphoma, Extranodal NK-T-Cell ; metabolism ; pathology ; Plasmacytoma ; drug therapy ; metabolism ; pathology ; Precursor Cell Lymphoblastic Leukemia-Lymphoma ; metabolism ; pathology ; Prednisone ; therapeutic use ; Skin Neoplasms ; drug therapy ; metabolism ; pathology ; Vincristine ; therapeutic use

Breast Neoplasms ; chemistry ; pathology ; Cytodiagnosis ; methods ; Cytological Techniques ; methods ; Female ; Humans ; Immunohistochemistry ; methods ; Receptors, Estrogen ; analysis ; Receptors, Progesterone ; analysis

Calcium Pyrophosphate ; metabolism ; Cartilage, Articular ; metabolism ; pathology ; Chondrocalcinosis ; diagnostic imaging ; metabolism ; pathology ; surgery ; Diagnosis, Differential ; Female ; Gout ; pathology ; Humans ; Knee Joint ; diagnostic imaging ; metabolism ; pathology ; Male ; Menisci, Tibial ; metabolism ; pathology ; Middle Aged ; Osteoarthritis ; etiology ; pathology ; Radiography

Animals ; Arthritis ; diagnosis ; pathology ; Arthritis, Rheumatoid ; diagnosis ; pathology ; Humans

Adolescent ; Chronic Disease ; Helicobacter Infections ; complications ; drug therapy ; Humans ; Male ; Purpura, Schoenlein-Henoch ; drug therapy ; etiology ; Syndrome

There is immense interest in the long-chain polyunsaturated fatty acids(LC-PUFAs) on account of their health-beneficial properties.There has been considerable interest in the production of LC-PUFAs in transgenic plants to provide a cheap,sustainable and clean source of these fatty acids.Several main LC-PUFAs,their roles and metabolic pathway in plant are introducedbriefly,progresses on biosynthesis of LC-PUFAs in transgenic plant are reviewed,and strategies for improving the yields of LC-PUFAs in plant are also discussed.

Many unusual fatty acids present in the seed oils of non-food plants are modified at the ?12 position either by the addition of epoxy or hydroxy groups or by the formation of triple (acetylenic) bonds or conjugated double bonds. The introduction of these functionalities into C18 fatty acids is catalyzed by a family of divergent forms of the fatty-acid ?12-desaturase (FAD2) enzyme. Genes encoding these enzymes have now been cloned from a variety of organisms and expressed in transgenic oilseeds. However,the accumulation of the intended fatty acids in transgenic plants has been relatively disappointing,and the mechanisms of these unusual fatty acids biosynthesis and transferring from phosphatidylcholine into storage triacylglycerols still need to be elucidated.

Adolescent ; Antigens, CD34 ; metabolism ; Bone Neoplasms ; diagnostic imaging ; metabolism ; pathology ; Chondrosarcoma, Mesenchymal ; metabolism ; pathology ; Diagnosis, Differential ; Hemangiopericytoma ; diagnostic imaging ; metabolism ; pathology ; Humans ; Male ; Platelet Endothelial Cell Adhesion Molecule-1 ; metabolism ; Sarcoma, Synovial ; metabolism ; pathology ; Tomography, X-Ray Computed ; Vimentin ; metabolism

Objective To study the relation between phlegm-damp retention type of metabolism syndrome and microcosmic indices in order to find out the objective evidence for TCM syndrome differentiation.Methods Totally 49 cases of metabolism syndrome were observed,25 of them were phlegm-damp retention type in differentiation and 24 were non-phlegm-damp retention type.The height, body weight,waistline and blood pressure of two groups were measured,the serum leptin,insulin and blood lipid were determined, and the insulin resistance index(IRI)and body mass index(BMI)were calculated.Results The leptin,BMI,systolic pressure,FINS and IRI of the phlegm-damp retention group were all higher than those of the non-phlegm-damp retention group.Conclusion BMI, leptin,insulin,and IRI may be taken as the the index of syndrome differentiation in metabolism syndrome.

Objective To investigate the pathogens of acute respiratory infection of children.Methods A total of 159 children with acute respiratory infection who were hospitalized in our department from August 2005 to January 2006 were involved in this study.The serum IgM antibody of 18 pathogens were detected by indirect immunofluorescence test.The 18 pathogens included respiratory syncytial virus(RSV),adenovirus(ADV),influenza A(H1N1,H3N2)and B viruses,parainfluenza viruses(PIV) type 1,2,3 and 4,coxsackie virus B1(CBV1),coxsackie virus A7(CAV7),echovirus(ECHO7),haemophilus influenzae(HI),klebsiella pneumoniae(KP),bordetella pertussis(BP),bordetella parapertussis(BPP) and legionella pneumophila serotype 1 and 12.Results The evidence of specific IgM was obtained in 103 of 159 patients(64.78%).Influenza A was found in 66 cases(64.08%),influenza B in 49 cases(47.57%),enterovirus in 26 cases(25.24%),RSV in 18 cases(17.48%),PIV in 11 cases(10.68%),and co-infection in 66 cases(64.08%),1/ 3 of them were co-infected with influenza A and B.Conclusions Viruses are the most common agents of acute respiratory infection.Influenza virus is predominant among them.