about
Simultaneous micromanipulation in multiple planes using a self-reconstructing light beamForty Years of Optical ManipulationIntroduction: Optical trapping and applications feature issue.Optical tweezers: 20 years on.Transfer of orbital angular momentum from a stressed fiber-optic waveguide to a light beam.Optical trapping and spectral analysis of aerosols with a supercontiuum laser source.Spectroscopic characterisation and manipulation of arrays of sub-picolitre aerosol droplets.Quantitative force mapping of an optical vortex trapDirect detection of optical phase conjugation in a colloidal medium.The influence of resonant absorption and heating on the equilibrium size of aqueous-solute aerosol droplets.Laser-nucleated acoustic cavitation in focused ultrasound.Combining rails and anchors with laser forcing for selective manipulation within 2D droplet arrays.Observation of the binary coalescence and equilibration of micrometer-sized droplets of aqueous aerosol in a single-beam gradient-force optical trap.Dye lasing in optically manipulated liquid aerosols.In vitro and in vivo biolasing of fluorescent proteins suspended in liquid microdroplet cavities.Characterizing conical refraction optical tweezers.Bubble wrap for optical trapping and cell culturing.Optical redox ratio and endogenous porphyrins in the detection of urinary bladder cancer: A patient biopsy analysis.Droplet lasers: a review of current progress.Changes in autofluorescence based organoid model of muscle invasive urinary bladder cancer.Intermediate phases during solid to liquid transitions in long-chain n-alkanes.On the accuracy of framing-rate measurements in ultra-high speed rotating mirror cameras.The spontaneously adhesive leukocyte function-associated antigen-1 (LFA-1) integrin in effector T cells mediates rapid actin- and calmodulin-dependent adhesion strengthening to ligand under shear flow.Vortex-trap-induced fusion of femtoliter-volume aqueous droplets.Resolving stable axial trapping points of nanowires in an optical tweezers using photoluminescence mapping.Trapping solid aerosols with optical tweezers: a comparison between gas and liquid phase optical traps.Probing the Evaporation Dynamics of Ethanol/Gasoline Biofuel Blends Using Single Droplet Manipulation Techniques.Microscale characterization of prostate biopsies tissues using optical coherence elastography and second harmonic generation imaging.Raman spectroscopy for accurately characterizing biomolecular changes in androgen-independent prostate cancer cells.Spin-to-orbital angular momentum conversion in a strongly focused optical beam.Second harmonic generation (SHG) imaging of cancer heterogeneity in ultrasound guided biopsies of prostate in men suspected with prostate cancer.Phase dynamics of continuous topological upconversion in vortex beams.Parametric resonance of optically trapped aerosols.Single aerosol trapping with an annular beam: improved particle localisation.Holographic optical trapping of aerosol droplets.Aerosol droplet optical trap loading using surface acoustic wave nebulization.Manipulation and characterisation of accumulation and coarse mode aerosol particles using a Bessel beam trapDirect observation of the transfer of orbital angular momentum to metal particles from a focused circularly polarized Gaussian beamControlling and characterizing the coagulation of liquid aerosol dropletsUnderdamped modes in a hydrodynamically coupled microparticle system
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Q28201519-28DC8176-DF69-4BD1-9295-F07E71783ACDQ29542624-649EE7F3-FC2E-4C8E-BD70-C6AE5AC2AF36Q30446409-FC427D56-7AD6-474C-B8A3-11C41F1F575FQ33262952-29A020A8-D811-4F7D-AC5C-327312DD2811Q33319389-71EFD833-5E37-4C4D-B79E-26156AF437D0Q33342603-275FEE4D-6FF8-4784-8344-78E9B047DF76Q33405259-27D214FB-A208-4769-89FA-C08F2CE5CF04Q33455713-D3EEE7AC-205D-424E-9570-32355E1F0CE5Q33472088-9BBF1B99-9323-4E11-A0D0-4E0C17F9F7D0Q33492795-3153D3E7-BBB3-4CFA-868A-CC5396EA1ECCQ33884672-D3060363-5CC3-4E5C-8C7A-E24F8F1D8BE6Q34063922-AE8B32DF-8825-4E8F-B6B2-86898FE7B7A4Q34367661-DD4263BF-2214-451E-BBD4-149344F14FD7Q34932555-7FC7208D-AD04-4F27-A420-3EABD69AF5ACQ35195846-38E1C4B8-2270-4116-A102-7515B9671EF6Q35504536-05DE740B-722B-442C-9791-A2082613C73EQ35822432-E3EBBAB1-CEA6-4CDD-BED6-112CF09C9945Q36156227-4FE12B6F-772D-4B1D-9FA9-1A8DABCFC771Q36285355-1253C8C6-1A10-4345-B120-6AA4A835E89EQ37057584-D3FBCA04-9642-44BD-82FA-E218881A1870Q38780942-A1B440FF-CD39-45D9-9F08-E51F6BBA1B5DQ39705643-3053F7E4-E5BC-4BF3-BE09-952A6935DD61Q41016914-D7D6A0C2-8DDC-4FCB-9D5E-219A9D22620CQ42201562-77631B1F-4F2F-4300-BD87-FED043A3AE3AQ45897074-82973B26-8EEF-4FAC-BEA6-76118FACB838Q46546827-62B93B5C-6D61-4ADD-8A0D-5F0797A2AB35Q46628651-9670FAE3-B140-4330-AF98-EDAE4AF8C94AQ47239964-AE34EF10-0601-40E7-B71A-1894CBD9BB18Q47660615-8926BD70-0E0F-44AE-9151-58AB64D7DA10Q50891469-3F668D70-F8B8-431D-914F-3956D73A5232Q51190788-14018362-D3B4-46D4-96A7-0092BE7BCB6BQ51872398-A05C6C75-C9AB-4CE0-9619-BD2EF0BB278FQ51908658-92D3D215-DE8A-4916-91F3-32D44E776428Q53356366-CFB8DF85-A19B-43EC-9536-E5FE2F294272Q54121716-D68F1540-06B7-4064-9CF2-3F1ED8666897Q54307752-ADB3AD25-E555-4A0D-B78E-C8E928E95404Q56892789-6665FE3B-99BF-4AF7-9BAF-51D13E57621EQ56892810-C49042AC-4177-48EE-A7E1-501B6752819BQ56893946-73164AC7-848D-42DC-8B57-86293326A848Q57892037-B61B1C26-C8D9-40B2-AE18-033CF25D061D
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description
hulumtues
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researcher
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ricercatore
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wetenschapper
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հետազոտող
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name
David McGloin
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David McGloin
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David McGloin
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David McGloin
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David McGloin
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type
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David McGloin
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David McGloin
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David McGloin
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David McGloin
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David McGloin
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David McGloin
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David McGloin
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David McGloin
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David McGloin
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David McGloin
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