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    • Myung‐jin Moon
    • Myung‐Jin Moon

      Myung‐Jin Moon

      Department of Biological Sciences, Dankook University, 31116 Cheonan, Korea | Department of Biological Sciences, Dankook University, Cheonan, Korea | Department of Biological ...

       

       

      KOL Resume for Myung‐Jin Moon

      Year
      2021

      Department of Biological Sciences, Dankook University, 31116 Cheonan, Korea

      2020

      Department of Biological Sciences, Dankook University, Cheonan, Korea

      2018

      Department of Biological Sciences, Dankook University, Cheonan, Chungbuk, South Korea

      2016

      Department of Biological Sciences, Dankook University, Cheonan, South

      2015

      Dankook University Department of Biological Sciences Cheonan Korea

      2014

      Department of Biological Sciences, Dankook University, Cheonan 330-714, Republic of Korea

      2012

      Department of Biological Sciences & institute of Basic Sciences, Dankook University, Cheonan 330-714, Republic of Korea

      2011

      Department of Biological Sciences, Dankook University, Cheonan 330-714, Korea

      2008

      Department of Biological Sciences and Institute of Basic Sciences, Dankook University, Cheonan, Korea

      2007

      Department of Biological Sciences and Institute of Basic Science, Dankook University, Cheonan, Korea

      2006

      Department of Biological Science, College of Advanced Sciences , Dankook University , Cheonan, 330–714,

      2005

      Department of Biological Sciences, Dankook University, Cheonan 330‐714, Korea

      2004

      Department of Biological Sciences, Dankook University, Cheonan 330‐714 Korea

      2002

      Department of Biological Sciences, College of Natural Sciences , Dankook University , Cheonan, 330–714,

      2001

      Department of Biological Sciences, College of Natural Science, Dankook University, Cheonan, 330-714, Korea

      2000

      Department of Biology, Dankook University, Cheonan 330–714, Korea

      1998

      Department of Biological Science, College of Natural Sciences , Dankook University , Cheonan, 330–714,

       

       

      Myung‐Jin Moon: Influence Statistics

      Sample of concepts for which Myung‐Jin Moon is among the top experts in the world.
      Concept World rank
      bs3 depressive region #1
      female millipede #1
      paradoxomatidae observed #1
      polydesmida paradoxomatidae gracilis #1
      article bs2 #1
      paradoxomatidae #1
      article gracilis #1
      bs3 bs1 #1
      bs2 5th #1
      gracilis polydesmida #1
      terminal 8th article #1
      depressive region #1
      cuticular depressed regions #1
      chaetiform sensilla #1
      microstructure antennal #1
      small bs2 #1
      polydesmida paradoxomatidae #1
      7th article #1
      5th 6th articles #1
      articles 5th #1
      large bs1 #1
      subtypes large bs1 #1
      articles bs3 #1
      bs1 5th #1
      cribella rows #2
      110 114 male #2
      pair mandibles #2
      silk nodules #2
      aggregate nodule functions #2
      70–80 pairs #2
      fact crab spiders #2
      27 32 pairs #2
      70–80 female #2
      storage ampulla #2
      cyst 2d #2
      spinneret microstructure #2
      secretory ductules #2
      nozzles spider #2
      mothparts #2
      tubuliform spigots #2
      spinnerets pairs #2
      silk scaffold production #2
      bodies subesophageal #2
      calamistral #2
      kinds cuticular protuberances #2
      aggregate aciniform #2
      aciniforms spinnerets #2
      microstructure silk spigots #2
      m‐lines #2
      multiple cuticular slits #2

       

      Prominent publications by Myung‐Jin Moon

      KOL-Index: 9000

      Biomedical applications of magnetic nanoparticles (MNP), including superparamagnetic nanoparticles, have expanded dramatically in recent years. Systematic and standardized cytotoxicity assessment to ensure the biosafety and biocompatibility of those applications is compulsory. We investigated whether exposure to static magnetic field (SMF) from e.g. magnetic resonance imaging (MRI) could affect the cytotoxicity of superparamagnetic iron oxide (SPIO) nanoparticles using mouse hepatocytes ...

      Known for Magnetic Nanoparticles | Biomedical Applications | Resonance Imaging | Oxygen Species | Cell Viability
      KOL-Index: 6990

      ABSTRACT Silk apparatus of the funnel-web spider, Agelena limbata was located at the ventral end of the abdominal part, and was composed of internal silk glands and external spinnerets. Among the three pairs of spinnerets, the posterior pairs were highly elongated along the body axis. By the light and electron microscopic inspections, it was found that four types of silk glands were connected through the typical spinning tubes of each spinneret. Anterior spinnerets comprise 2 pairs of ...

      Known for Silk Apparatus | Funnel‐web Spider | Agelena Limbata | Aciniform Glands | 2 Pairs
      KOL-Index: 6500

      The silk spinning apparatus in the crab spider, Misumenops tricuspidatus was studied with the field emission scanning electron microscope (FESEM) and the main microstructural characteristics of the silk glands are presented. In spite of the fact that the crab spiders do not spin webs to trap a prey, they also have silk apparatus even though the functions are not fully defined. The crab spider, Misumenops tricuspidatus possesses only three types of silk glands which connected through the ...

      Known for Spinning Apparatus | Crab Spider | Silk Glands | Anterior Spinnerets | Field Emission
      KOL-Index: 6433

      The spinning apparatus and production of secretory silk from silk gland of the black widow spider, Latrodectus mactans were studied with scanning and transmission electron microscopes. The silk glands were located in seven groups on the spinnerets including each pair of major and minor ampullate, 3 pairs of tubuliform, 1 pair of flagelliform, 2 pairs of aggregate, about 50 pairs of pyriform and over 250 pairs of aciniform glands, respectively. Each group of silk gland feeds silk into one ...

      Known for Secretory Silk | Latrodectus Mactans | Black Widow | Spinning Apparatus | Aciniform Glands
      KOL-Index: 6404

      The microstructural organization of the silk-spinning apparatus of the comb-footed spider, Achaearanea tepidariorum, was observed by using a field emission scanning electron microscope. The silk glands of the spider were classified into six groups: ampullate, tubuliform, flagelliform, aggregate, aciniform and pyriform glands. Among these, three types of silk glands, the ampullate, pyriform and aciniform glands, occur only in female spiders. One (adult) or two (subadult) pairs of major ...

      Known for Silk Glands | Anterior Spinnerets | Secretory Ductules | Female Spiders | Achaearanea Tepidariorum
      KOL-Index: 5031

      The genus Oxytate L. Koch, 1878 comprises a homogeneous group of nocturnal crab spiders that have silk apparatuses even though they do not spin webs to trap prey. We examined the microstructure of the silk spinning apparatus of the green crab spider Oxytate striatipes, using field emission scanning electron microscopy. The silk glands of the spider were classified into three types: ampullate, pyriform and aciniform. The spigots of these three types of silk gland occur in both sexes. Two ...

      Known for Silk Spigots | Anterior Spinnerets | Pyriform Glands | Field Emission | Secretory Ductules
      KOL-Index: 5011

      To emerge from the egg case, Argiope aurantia spiderlings must penetrate a tightly woven outer cover composed primarily of large-diameter cylindrical gland fibers and small-diameter fibers, likely of aciniform gland origin. They accomplish this using enzymatic digestion and mastication to form a communal hole in the outer cover. The involvement of proteolytic enzymes in this process was demonstrated by zymography of spiderling homogenates and washes made from the edges of holes. The ...

      Known for Egg Case | Argiope Aurantia | Outer Cover | Venom Glands | Silk Spiders
      KOL-Index: 4846

      Platypus koryoensis is a minute ambrosia beetle found in forests. It can cause significant economic damage to oak trees. Recently in Korea, it has been reported as a major pest of oak trees, because it causes sooty mold of oak by introducing the pathogenic fungus Raffaelea sp. In this paper, we demonstrate the fine structural aspects of the external body of the ambrosia beetle using field emission scanning electron microscopy, as a part of basic research into this pest so that strategies ...

      Known for Platypus Koryoensis | Ambrosia Beetle | Oak Trees | Field Emission | Mandibles Pair
      KOL-Index: 4569

      The fine structural characteristics of various sensory receptors on the antenna of a millipede, Orthomorphella pekuensis, were observed with field emission scanning electron microscopy. The antenna of this millipede has eight segments, called articles. On the surface of the antenna, there are a variety of sensory receptors, including olfactory and mechanical receptors. According to their morphological and fine structural characteristics, we could identify four basic types of antennal ...

      Known for Antennal Sensilla | Millipede Orthomorphella | 5th Article | Mechanical Reception | Field Emission
      KOL-Index: 4505

      Among the silk glands in the black widow spider Latrodectus mactans, the ampullate one is the most predominant gland in both sexes, and is composed of three functional parts ‐ excretory duct, storage ampulla and convoluted tail regions. This experiment was performed using mechanical pulling stimulation with electric motor equipment to reveal a correlation between silk usage and silk producing system in this poisonous spider. The mature secretory products in glandular epithelium are ...

      Known for Glandular Epithelium | Black Widow | Secretory Silk | Storage Ampulla | Thinner Layer
      KOL-Index: 4418

      The lynx spiders are free wandering spiders with long spines on their legs. They do not build web, but hunt small insects on plants. In spite of the facts that the wandering spiders do not produce webs for prey‐catching, they also have silk apparatuses even though the functions are not fully defined. This paper describes the microstructural organization of the silk‐spinning nozzles and its silk glands of the lynx spider, Oxyopes licenti, revealed by the field emission scanning electron ...

      Known for Anterior Spinnerets | Silk Glands | Field Emission | Ampullate Pyriform | Secretory Ductules
      KOL-Index: 4141

      Spermatogenesis has long been a major research area in understanding the development of living organisms. In vertebrates, sperm is produced along the wall of the seminiferous tubules, leaving spermatogonia in the outermost layer, which undergo cell division and differentiation. However, sperm in many invertebrates is developed in a testicular cyst, which contains germ cells at the same developmental stages. On the contrary, in spiders, it is very difficult to count the exact number of ...

      Known for Testicular Cyst | Germ Cells | Image Processing | Volume Rendering | Flagellar Coiling Process
      KOL-Index: 4055

      The fine structural characteristics of the antennal sensory organs of a female millipede, Orthomorphella pekuensis, were observed with field emission scanning electron microscopy. On the surface of the antenna, four basic types of sensory receptor with the function of either mechanical or olfactory reception are identified in this female millipede. Of these, chaetiform sensilla (CS) and trichoid sensilla (TS) are related to mechanical reception, and four large apical cone sensilla (AS) ...

      Known for Antennal Sensory Organs | Female Millipede | Orthomorphella Pekuensis | Mechanical Reception | Field Emission
      KOL-Index: 4032

      ABSTRACT Central nervous system (CNS) of arachnids is still mysterious and has a rich unexplored field compare to what is known in insects or crustaceans. The CNS of the spider, Achaearanea tepidariorum, consists of a dorsal brain or supraesophageal ganglion and circumesophageal connectives joining it to the subesophageal mass. As the segmentation of the arachnid brain is still under discussion, we classify the brain as a protocerebral and tritocerebral ganglion depending on the ...

      Known for Central Nervous | Nerve Cells | Subesophageal Mass | Fine Structural | Supraesophageal Ganglion

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      Myung‐Jin Moon:Expert Impact

      Concepts for whichMyung‐Jin Moonhas direct influence:Fine structure,  Silk glands,  Bark beetle,  Nephila clavata,  Testicular cyst,  Barn spider,  Silk apparatus,  Secretory silk.

      Myung‐Jin Moon:KOL impact

      Concepts related to the work of other authors for whichfor which Myung‐Jin Moon has influence:Spider silk,  Egg case,  Magnetic nanoparticles,  Latrodectus hesperus,  Attachment discs,  Venom glands,  Protein corona.


       

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      Department of Biological Sciences, Dankook University, 31116 Cheonan, Korea | Department of Biological Sciences, Dankook University, Cheonan, Korea | Department of Biological Sciences, Dankook University ‐ Cheonan Campus, Cheonan, Chungnam, South Kor

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