Nonviral gene transfer of human hepatocyte growth factor improves streptozotocin-induced diabetic neuropathy in rats. 2005

Naoki Kato, and Koichi Nemoto, and Kuniaki Nakanishi, and Ryuichi Morishita, and Yasufumi Kaneda, and Maki Uenoyama, and Tomosumi Ikeda, and Kyosuke Fujikawa
Department of Orthopaedic Surgery, National Defense Medical College, 3-2 Namiki, Tokorozawa, Saitama, Japan 359-8513. grd1505@gr.ndmc.ac.jp

Peripheral neuropathy is common and ultimately accounts for significant morbidity in diabetes. Recently, several neurotrophic factors have been used to prevent progression of diabetic neuropathy. In this study, we gave repeated intramuscular injections of the human hepatocyte growth factor (HGF) gene percutaneously, using liposomes containing the hemagglutinating virus of Japan (HVJ), to examine therapeutic efficacy of nonviral gene transfer of HGF for experimental diabetic sensorimotor neuropathy in rats. Experimental diabetes induced by intraperitoneal injection of streptozotocin resulted in a marked tactile allodynia (but not in a thermal hyperalgesia), in a reduction of both the conduction velocity and the amplitude, and in a decreased laser Doppler flux of the nerve and the muscle at 6 weeks after the induction. All these changes were significantly reversed by repeated gene transfer of HGF. Furthermore, we analyzed the density of endoneurial capillaries and morphometrical changes of the nerve. The density of endoneurial capillaries, disclosing marked reduction in diabetic rats, was also reversed significantly by repeated gene transfer of HGF; however, no considerable differences were observed morphometrically in either myelinated or unmyelinated axons. These results suggest that nonviral HVJ liposome-mediated gene transfer of human HGF has potential for the safe effective treatment of diabetic sensorimotor neuropathy.

UI MeSH Term Description Entries
D008081 Liposomes Artificial, single or multilaminar vesicles (made from lecithins or other lipids) that are used for the delivery of a variety of biological molecules or molecular complexes to cells, for example, drug delivery and gene transfer. They are also used to study membranes and membrane proteins. Niosomes,Transferosomes,Ultradeformable Liposomes,Liposomes, Ultra-deformable,Liposome,Liposome, Ultra-deformable,Liposome, Ultradeformable,Liposomes, Ultra deformable,Liposomes, Ultradeformable,Niosome,Transferosome,Ultra-deformable Liposome,Ultra-deformable Liposomes,Ultradeformable Liposome
D008297 Male Males
D009431 Neural Conduction The propagation of the NERVE IMPULSE along the nerve away from the site of an excitation stimulus. Nerve Conduction,Conduction, Nerve,Conduction, Neural,Conductions, Nerve,Conductions, Neural,Nerve Conductions,Neural Conductions
D003929 Diabetic Neuropathies Peripheral, autonomic, and cranial nerve disorders that are associated with DIABETES MELLITUS. These conditions usually result from diabetic microvascular injury involving small blood vessels that supply nerves (VASA NERVORUM). Relatively common conditions which may be associated with diabetic neuropathy include third nerve palsy (see OCULOMOTOR NERVE DISEASES); MONONEUROPATHY; mononeuropathy multiplex; diabetic amyotrophy; a painful POLYNEUROPATHY; autonomic neuropathy; and thoracoabdominal neuropathy. (From Adams et al., Principles of Neurology, 6th ed, p1325) Diabetic Amyotrophy,Diabetic Autonomic Neuropathy,Diabetic Neuralgia,Diabetic Polyneuropathy,Neuralgia, Diabetic,Asymmetric Diabetic Proximal Motor Neuropathy,Diabetic Asymmetric Polyneuropathy,Diabetic Mononeuropathy,Diabetic Mononeuropathy Simplex,Diabetic Neuropathy, Painful,Mononeuropathy, Diabetic,Symmetric Diabetic Proximal Motor Neuropathy,Amyotrophies, Diabetic,Amyotrophy, Diabetic,Asymmetric Polyneuropathies, Diabetic,Asymmetric Polyneuropathy, Diabetic,Autonomic Neuropathies, Diabetic,Autonomic Neuropathy, Diabetic,Diabetic Amyotrophies,Diabetic Asymmetric Polyneuropathies,Diabetic Autonomic Neuropathies,Diabetic Mononeuropathies,Diabetic Mononeuropathy Simplices,Diabetic Neuralgias,Diabetic Neuropathies, Painful,Diabetic Neuropathy,Diabetic Polyneuropathies,Mononeuropathies, Diabetic,Mononeuropathy Simplex, Diabetic,Mononeuropathy Simplices, Diabetic,Neuralgias, Diabetic,Neuropathies, Diabetic,Neuropathies, Diabetic Autonomic,Neuropathies, Painful Diabetic,Neuropathy, Diabetic,Neuropathy, Diabetic Autonomic,Neuropathy, Painful Diabetic,Painful Diabetic Neuropathies,Painful Diabetic Neuropathy,Polyneuropathies, Diabetic,Polyneuropathies, Diabetic Asymmetric,Polyneuropathy, Diabetic,Polyneuropathy, Diabetic Asymmetric,Simplex, Diabetic Mononeuropathy,Simplices, Diabetic Mononeuropathy
D005822 Genetic Vectors DNA molecules capable of autonomous replication within a host cell and into which other DNA sequences can be inserted and thus amplified. Many are derived from PLASMIDS; BACTERIOPHAGES; or VIRUSES. They are used for transporting foreign genes into recipient cells. Genetic vectors possess a functional replicator site and contain GENETIC MARKERS to facilitate their selective recognition. Cloning Vectors,Shuttle Vectors,Vectors, Genetic,Cloning Vector,Genetic Vector,Shuttle Vector,Vector, Cloning,Vector, Genetic,Vector, Shuttle,Vectors, Cloning,Vectors, Shuttle
D006801 Humans Members of the species Homo sapiens. Homo sapiens,Man (Taxonomy),Human,Man, Modern,Modern Man
D000818 Animals Unicellular or multicellular, heterotrophic organisms, that have sensation and the power of voluntary movement. Under the older five kingdom paradigm, Animalia was one of the kingdoms. Under the modern three domain model, Animalia represents one of the many groups in the domain EUKARYOTA. Animal,Metazoa,Animalia
D012584 Sciatic Nerve A nerve which originates in the lumbar and sacral spinal cord (L4 to S3) and supplies motor and sensory innervation to the lower extremity. The sciatic nerve, which is the main continuation of the sacral plexus, is the largest nerve in the body. It has two major branches, the TIBIAL NERVE and the PERONEAL NERVE. Nerve, Sciatic,Nerves, Sciatic,Sciatic Nerves
D015316 Genetic Therapy Techniques and strategies which include the use of coding sequences and other conventional or radical means to transform or modify cells for the purpose of treating or reversing disease conditions. Gene Therapy,Somatic Gene Therapy,DNA Therapy,Gene Therapy, Somatic,Genetic Therapy, Gametic,Genetic Therapy, Somatic,Therapy, DNA,Therapy, Gene,Therapy, Somatic Gene,Gametic Genetic Therapies,Gametic Genetic Therapy,Genetic Therapies,Genetic Therapies, Gametic,Genetic Therapies, Somatic,Somatic Genetic Therapies,Somatic Genetic Therapy,Therapies, Gametic Genetic,Therapies, Genetic,Therapies, Somatic Genetic,Therapy, Gametic Genetic,Therapy, Genetic,Therapy, Somatic Genetic
D015870 Gene Expression The phenotypic manifestation of a gene or genes by the processes of GENETIC TRANSCRIPTION and GENETIC TRANSLATION. Expression, Gene,Expressions, Gene,Gene Expressions

Related Publications

Naoki Kato, and Koichi Nemoto, and Kuniaki Nakanishi, and Ryuichi Morishita, and Yasufumi Kaneda, and Maki Uenoyama, and Tomosumi Ikeda, and Kyosuke Fujikawa
January 2020, PloS one,
Naoki Kato, and Koichi Nemoto, and Kuniaki Nakanishi, and Ryuichi Morishita, and Yasufumi Kaneda, and Maki Uenoyama, and Tomosumi Ikeda, and Kyosuke Fujikawa
March 2013, Cardiovascular toxicology,
Naoki Kato, and Koichi Nemoto, and Kuniaki Nakanishi, and Ryuichi Morishita, and Yasufumi Kaneda, and Maki Uenoyama, and Tomosumi Ikeda, and Kyosuke Fujikawa
September 2018, Eye (London, England),
Naoki Kato, and Koichi Nemoto, and Kuniaki Nakanishi, and Ryuichi Morishita, and Yasufumi Kaneda, and Maki Uenoyama, and Tomosumi Ikeda, and Kyosuke Fujikawa
January 2015, Growth factors (Chur, Switzerland),
Naoki Kato, and Koichi Nemoto, and Kuniaki Nakanishi, and Ryuichi Morishita, and Yasufumi Kaneda, and Maki Uenoyama, and Tomosumi Ikeda, and Kyosuke Fujikawa
October 2006, The Journal of thoracic and cardiovascular surgery,
Naoki Kato, and Koichi Nemoto, and Kuniaki Nakanishi, and Ryuichi Morishita, and Yasufumi Kaneda, and Maki Uenoyama, and Tomosumi Ikeda, and Kyosuke Fujikawa
December 2018, Biomedicine & pharmacotherapy = Biomedecine & pharmacotherapie,
Naoki Kato, and Koichi Nemoto, and Kuniaki Nakanishi, and Ryuichi Morishita, and Yasufumi Kaneda, and Maki Uenoyama, and Tomosumi Ikeda, and Kyosuke Fujikawa
December 1996, Biochemical and biophysical research communications,
Naoki Kato, and Koichi Nemoto, and Kuniaki Nakanishi, and Ryuichi Morishita, and Yasufumi Kaneda, and Maki Uenoyama, and Tomosumi Ikeda, and Kyosuke Fujikawa
June 2017, Annals of rehabilitation medicine,
Naoki Kato, and Koichi Nemoto, and Kuniaki Nakanishi, and Ryuichi Morishita, and Yasufumi Kaneda, and Maki Uenoyama, and Tomosumi Ikeda, and Kyosuke Fujikawa
April 2001, Methods and findings in experimental and clinical pharmacology,
Naoki Kato, and Koichi Nemoto, and Kuniaki Nakanishi, and Ryuichi Morishita, and Yasufumi Kaneda, and Maki Uenoyama, and Tomosumi Ikeda, and Kyosuke Fujikawa
September 2003, Diabetes,
Copied contents to your clipboard!