about
Nanomechanical in situ monitoring of proteolysis of peptide by Cathepsin BInhibiting stemness and invasive properties of glioblastoma tumorsphere by combined treatment with temozolomide and a newly designed biguanide (HL156A).Delivery of cancer therapeutics using nanotechnologyOne-pot synthesis of magnetic nanoclusters enabling atherosclerosis-targeted magnetic resonance imagingStudy of freshly excised brain tissues using terahertz imaging.Simultaneous acquisition of perfusion and permeability from corrected relaxation rates with dynamic susceptibility contrast dual gradient echo.Surface modulation of magnetic nanocrystals in the development of highly efficient magnetic resonance probes for intracellular labeling.Redoxable heteronanocrystals functioning magnetic relaxation switch for activatable T1 and T2 dual-mode magnetic resonance imaging.Overcoming artifacts from metallic orthopedic implants at high-field-strength MR imaging and multi-detector CT.Enhancement of magnetic resonance contrast effect using ionic magnetic clusters.Preparation of poly epsilon-caprolactone nanoparticles containing magnetite for magnetic drug carrier.Enhancement of cellular binding efficiency and cytotoxicity using polyethylene glycol base triblock copolymeric nanoparticles for targeted drug delivery.Nanoparticle-enabled terahertz imaging for cancer diagnosis.Self-assembled fluorescent magnetic nanoprobes for multimode-biomedical imaging.Sensitive angiogenesis imaging of orthotopic bladder tumors in mice using a selective magnetic resonance imaging contrast agent containing VEGF121/rGel.Single-molecule recognition of biomolecular interaction via Kelvin probe force microscopy.Chitosan-based intelligent theragnosis nanocomposites enable pH-sensitive drug release with MR-guided imaging for cancer therapy.Prognostic value of glioma cancer stem cell isolation in survival of primary glioblastoma patients.Terahertz spectroscopic imaging and properties of gastrointestinal tract in a rat model.Aptamer-modified magnetic nanoprobe for molecular MR imaging of VEGFR2 on angiogenic vasculature.Aptamer-conjugated gold nanorod for photothermal ablation of epidermal growth factor receptor-overexpressed epithelial cancer.Feasibility of terahertz reflectometry for discrimination of human early gastric cancers.Compensatory UTE/T2W Imaging of Inflammatory Vascular Wall in Hyperlipidemic Rabbits.Metabolic stress induces a Wnt-dependent cancer stem cell-like state transition.Role of magnetic resonance imaging in entrapment and compressive neuropathy--what, where, and how to see the peripheral nerves on the musculoskeletal magnetic resonance image: part 2. Upper extremity.Tumor Mesenchymal Stem-Like Cell as a Prognostic Marker in Primary Glioblastoma.Double-ligand modulation for engineering magnetic nanoclusters.Failure of a patient-derived xenograft for brain tumor model prepared by implantation of tissue fragments.Terahertz otoscope and potential for diagnosing otitis media.Morton neuroma: evaluated with ultrasonography and MR imaging.The role of popliteal lymph nodes in differentiating rheumatoid arthritis from osteoarthritis by using CE 3D FSPGR MR imaging: relationship of the inflamed synovial volume.Terahertz reflectometry imaging for low and high grade gliomas.Receptor tyrosine kinase amplified gastric cancer: Clinicopathologic characteristics and proposed screening algorithmStrategies for using nanoprobes to perceive and treat cancer activity: a review.Nanomaterials for theranostics: recent advances and future challenges.Potential use of glioblastoma tumorsphere: clinical credentialing.Success of tumorsphere isolation from WHO grade IV gliomas does not correlate with the weight of fresh tumor specimens: an immunohistochemical characterization of tumorsphere differentiation.Serially Ordered Magnetization of Nanoclusters via Control of Various Transition Metal Dopants for the Multifractionation of Cells in Microfluidic Magnetophoresis Devices.Cross-linked iron oxide nanoparticles for therapeutic engineering and in vivo monitoring of mesenchymal stem cells in cerebral ischemia model.Soft tissue impingement syndrome of the ankle: diagnostic efficacy of MRI and clinical results after arthroscopic treatment.
P50
Q28475765-B7FBCC02-F349-4419-B79F-B5697036FC1BQ30353578-A74184CC-C9A3-4F12-A794-A9FDD7EE2FB9Q30446963-D3ECBE80-541F-4A0F-BE8A-FA8140A0DE36Q30829383-EED62D74-6FC8-49E5-8CA4-C6F5E11E56D6Q30843544-4A9C6FC9-26D9-4716-8D4B-38EC81CCBE0DQ30919271-E6B62E2C-F8B3-4DCD-B5EB-7B9099616354Q30993931-C2E8ADD6-8E0E-4AF7-AA27-1C714775910FQ31106850-50E3935D-D9D9-404C-A7A8-5F41434B61DDQ31112299-E23B06BE-28E8-4629-A8C5-EB162352E57FQ31141350-44617961-0BF6-4E5B-9A23-403F4A835530Q33252054-7D3EE74C-992A-43AD-85EF-D9E00764EA95Q33293707-9B0CCB70-E3ED-474A-B7B1-5D6E3F68C87AQ33414574-4BF51074-093E-490B-B61D-4D4AD902750CQ33695518-C193CC67-7E34-404F-BD50-FD2A41387455Q33879491-7C8C5148-1E2A-4B73-93B0-673DF4F75A33Q33977073-563EBB5C-4F54-4807-95DB-B32722BD84BBQ34481521-373729E5-C467-436D-B937-C5F154153E2CQ34785641-6582FE30-DC21-4484-9EBD-484F2CF0AA16Q34848661-8E86D9A8-8E66-494A-AEAA-AA2462B87394Q34997733-C31E6A5B-7AEE-4AE9-AFD4-C588F9F1FBE2Q35057733-353C350D-4628-491C-BC5F-EA3C8A0C1FD9Q35445694-275AD093-6E3A-433C-854C-7FC7402DF02CQ35611079-62B7B752-EAF7-410F-8210-6D09836DB0D5Q36293834-92D5A561-240B-4642-8E5E-21D56246F44BQ36435269-4157175B-180D-4686-9177-ED585A8055F8Q36615388-F3009D06-0BA5-459E-9C95-E008AD1DC2FBQ36734777-AB781780-B138-4094-B358-ED898E618490Q36991291-D947DC2E-3D14-4A25-9C85-0B09A7F3F36BQ37057587-95C7D356-24B9-4702-BD82-BF051620FECDQ37062198-215CA8F5-405D-4AB7-8C2E-CDB3025BDE1DQ37202383-9483284F-412D-49A9-B464-ACC8ED55C571Q37366809-D1F933D8-D9CB-4C7E-8CC3-BE2BFAC89A62Q37687784-E756267F-7746-4F8F-987D-E08B59D38B88Q37719564-C7FEB82F-54FE-4D3A-AE01-9A2981682292Q38271254-62C207D5-B81C-4B09-BB0A-0D28FA704F2CQ38335033-874B3866-8F74-4AB5-98AE-28E610A14B40Q38410114-BDB6430F-228B-48CD-8DE2-B3E6B217308FQ38418771-7972EAA0-1FCD-42DA-8735-FE0004D5EB9AQ38440410-8E4CFB12-F3CC-4C10-B9AA-E03663F6F567Q38515270-80FE1FE1-2099-4F71-96EF-21AA9A4B85B7
P50
description
onderzoeker
@nl
researcher
@en
հետազոտող
@hy
name
Yong-Min Huh
@ast
Yong-Min Huh
@en
Yong-Min Huh
@es
Yong-Min Huh
@nl
type
label
Yong-Min Huh
@ast
Yong-Min Huh
@en
Yong-Min Huh
@es
Yong-Min Huh
@nl
prefLabel
Yong-Min Huh
@ast
Yong-Min Huh
@en
Yong-Min Huh
@es
Yong-Min Huh
@nl
P106
P31
P496
0000-0002-9831-4475