Jason Russell Bochinski

Moving From Micro‐ to Nanofibers Within Melt Electrospinning

Boland, B., Sheoran, N., Bochinski, J. R., & Clarke, L. I. (2025, June 1). Journal of Applied Polymer Science, Vol. 6.

Enhancing ionic conductivity in polymer melts results in smaller diameter electrospun fibers

Sheoran, N., Boland, B., Thornton, S., Bochinski, J. R., & Clarke, L. I. (2023, August 14). Applied Physics Letters, Vol. 123.

Increasing ionic conductivity within thermoplastics via commercial additives results in a dramatic decrease in fiber diameter from melt electrospinning

Sheoran, N., Boland, B., Thornton, S., Bochinski, J. R., & Clarke, L. I. (2021, January 1). Soft Matter, Vol. 9.

Tracking the complete degradation lifecycle of poly(ethyl cyanoacrylate): From induced photoluminescence to nitrogen-doped nano-graphene precursor residue

Fontecha, D., Mahn, C., Bochinski, J. R., & Clarke, L. I. (2021, November 8). Polymer Degradation and Stability, Vol. 1.

Nanoparticle-based photothermal heating to drive chemical reactions within a solid: using inhomogeneous polymer degradation to manipulate mechanical properties and segregate carbonaceous by-products

Huang, H., Firestone, G., Fontecha, D., Gorga, R. E., Bochinski, J. R., & Clarke, L. I. (2019, December 4). Nanoscale.

Photothermally-driven thermo-oxidative degradation of low density polyethylene: heterogeneous heating plus a complex reaction leads to homogeneous chemistry

Firestone, G., Huang, H., Bochinski, J. R., & Clarke, L. I. (2019, August 15). Nanotechnology, Vol. 30, p. 475706.

In situcuring of liquid epoxy via gold-nanoparticle mediated photothermal heating

Dong, J., Firestone, G. E., Bochinski, J. R., Clarke, L. I., & Gorga, R. E. (2017, January 3). Nanotechnology, Vol. 28, p. 065601.

Facile measurement of surface heat loss from polymer thin films via fluorescence thermometry

Firestone, G., Bochinski, J. R., Meth, J. S., & Clarke, L. I. (2017, December 27). Journal of Polymer Science Part B Polymer Physics, Vol. 56, pp. 643–651.

Nanoscale steady-state temperature gradients within polymer nanocomposites undergoing continuous-wave photothermal heating from gold nanorods

Maity, S., Wu, W.-C., Tracy, J. B., Clarke, L. I., & Bochinski, J. R. (2017, January 1). Nanoscale, Vol. 9, pp. 11605–11618.

Enhanced Crystallinity of Polymer Nanofibers without Loss of Nanofibrous Morphology via Heterogeneous Photothermal Annealing

Viswanath, V., Maity, S., Bochinski, J. R., Clarke, L. I., & Gorga, R. E. (2016, December 13). Macromolecules, Vol. 49, pp. 9484–9492.

Blending with Non‐responsive Polymers to Incorporate Nanoparticles into Shape‐Memory Materials and Enable Photothermal Heating: The Effects of Heterogeneous Temperature Distribution

Abbott, D. B., Maity, S., Burkey, M. T., Gorga, R. E., Bochinski, J. R., & Clarke, L. I. (2014, September 29). Macromolecular Chemistry and Physics, Vol. 215, pp. 2345–2356.

Control of the electric field–polymer solution interaction by utilizing ultra-conductive fluids

Thoppey, N. M., Gorga, R. E., Clarke, L. I., & Bochinski, J. R. (2014, October 12). Polymer, Vol. 55, pp. 6390–6398.

Spatial temperature mapping within polymer nanocomposites undergoing ultrafast photothermal heating via gold nanorods

Maity, S., Wu, W.-C., Xu, C., Tracy, J. B., Gundogdu, K., Bochinski, J. R., & Clarke, L. I. (2014, January 1). Nanoscale, Vol. 6, pp. 15236–15247.

Unconfined, melt edge electrospinning from multiple, spontaneous, self-organized polymer jets

Wang, Q., Curtis, C. K., Thoppey, N. M., Bochinski, J. R., Gorga, R. E., & Clarke, L. I. (2014, November 28). Materials Research Express, Vol. 1, p. 045304.

Anisotropic Thermal Processing of Polymer Nanocomposites via the Photothermal Effect of Gold Nanorods

Maity, S., Kozek, K. A., Wu, W. C., Tracy, J. B., Bochinski, J. R., & Clarke, L. I. (2013, February 1). Particle & Particle Systems Characterization, Vol. 30, pp. 193–202.

Maximizing Spontaneous Jet Density and Nanofiber Quality in Unconfined Electrospinning: The Role of Interjet Interactions

Roman, M. P., Thoppey, N. M., Gorga, R. E., Bochinski, J. R., & Clarke, L. I. (2013, September 13). Macromolecules, Vol. 46, pp. 7352–7362.

Thermal Annealing of Polymer Nanocomposites via Photothermal Heating: Effects on Crystallinity and Spherulite Morphology

Viswanath, V., Maity, S., Bochinski, J. R., Clarke, L. I., & Gorga, R. E. (2013, October 25). Macromolecules, Vol. 46, pp. 8596–8607.

Effect of Solution Parameters on Spontaneous Jet Formation and Throughput in Edge Electrospinning from a Fluid-Filled Bowl

Thoppey, N. M., Gorga, R. E., Bochinski, J. R., & Clarke, L. I. (2012, July 30). Macromolecules, Vol. 45, pp. 6527–6537.

Metal Nanoparticles Acting as Light‐Activated Heating Elements within Composite Materials

Maity, S., Bochinski, J. R., & Clarke, L. I. (2012, August 2). Advanced Functional Materials, Vol. 22, pp. 5259–5270.

Edge electrospinning for high throughput production of quality nanofibers

Thoppey, N. M., Bochinski, J. R., Clarke, L. I., & Gorga, R. E. (2011, July 29). Nanotechnology, Vol. 22.

Embedded metal nanoparticles as localized heat sources: An alternative processing approach for complex polymeric materials

Maity, S., Downen, L. N., Bochinski, J. R., & Clarke, L. I. (2011, February 10). Polymer, Vol. 52, pp. 1674–1685.

Unconfined fluid electrospun into high quality nanofibers from a plate edge

Thoppey, N. M., Bochinski, J. R., Clarke, L. I., & Gorga, R. E. (2010, August 15). Polymer, Vol. 51, pp. 4928–4936.

Dynamics within Alkylsiloxane Self-Assembled Monolayers Studied by Sensitive Dielectric Spectroscopy

Scott, M. C., Stevens, D. R., Bochinski, J. R., & Clarke, L. I. (2008, November 7). ACS Nano, Vol. 2, pp. 2392–2400.

Production of cold formaldehyde molecules for study and control of chemical reaction dynamics with hydroxyl radicals

Hudson, E. R., Ticknor, C., Sawyer, B. C., Taatjes, C. A., Lewandowski, H. J., Bochinski, J. R., … Ye, J. (2006, June 6). Physical Review A, Vol. 73.

A pulsed, low-temperature beam of supersonically cooled free radical OH molecules

Lewandowski, H. J., Hudson, E. R., Bochinski, J. R., & Ye, J. (2004, August 24). Chemical Physics Letters, Vol. 395, pp. 53–57.

Cold free radical molecules in the laboratory frame

Hudson, E., Bochinski, J. R., Lewandowski, H. J., & Ye, J. (2004, January 1). Conference on Lasers and Electro-Optics/International Quantum Electronics Conference and Photonic Applications Systems Technologies.

Cold free-radical molecules in the laboratory frame

Bochinski, J. R., Hudson, E. R., Lewandowski, H. J., & Ye, J. (2004, October 19). Physical Review A, Vol. 70.

Efficient Stark deceleration of cold polar molecules

Hudson, E. R., Bochinski, J. R., Lewandowski, H. J., Sawyer, B. C., & Ye, J. (2004, October 18). The European Physical Journal D, Vol. 31, pp. 351–358.

Method for operating an electrodeless HID lamp and an electrodeless lamp system

https://www.lens.org/007-206-402-533-052

Verfahren zum Betreiben einer elektrodenlosen Hochdruckentladungslampe und ein elektrodenloses Lampensystem

https://www.lens.org/192-317-024-971-329

Phase Space Manipulation of Cold Free Radical OH Molecules

Bochinski, J. R., Hudson, E. R., Lewandowski, H. J., Meijer, G., & Ye, J. (2003, December 10). Physical Review Letters, Vol. 91.

Stark manipulation of the free radical OH

Bochinski, J. R., Hudson, E. R., & Ye, J. (2003, January 1). Postconference Digest Quantum Electronics and Laser Science, 2003. QELS.

Magnetic trapping of ytterbium and the alkaline earths

Loftus, T., Bochinski, J. R., & Mossberg, T. W. (2002, November 13). Technical Digest. Summaries of Papers Presented at the Quantum Electronics and Laser Science Conference. Postconference Technical Digest (IEEE Cat. No.01CH37172).

Magnetic trapping of ytterbium and the alkaline-earth metals

Loftus, T., Bochinski, J. R., & Mossberg, T. W. (2002, July 29). Physical Review A, Vol. 66.

Optical gain and loss spectra of driven degenerate two-level transitions

Loftus, T., Bochinski, J. R., & Mossberg, T. W. (2002, November 13). Technical Digest. Summaries of Papers Presented at the Quantum Electronics and Laser Science Conference. Postconference Technical Digest (IEEE Cat. No.01CH37172).

Electrodeless high intensity discharge lamp energized by a rotating electric field

https://www.lens.org/085-701-045-655-437

Electrodeless high intensity discharge lamp having a boron sulfide fill

https://www.lens.org/172-562-283-458-259

Electrodeless high intensity discharge lamp having a phosphorus fill

https://www.lens.org/194-362-098-982-587

Optical double-resonance cooled-atom spectroscopy

Loftus, T., Bochinski, J. R., & Mossberg, T. W. (2001, January 4). Physical Review A, Vol. 63.

Simultaneous multi-isotope trapping of ytterbium

Loftus, T., Bochinski, J. R., & Mossberg, T. W. (2001, April 10). Physical Review A, Vol. 63.

Vacuum-mediated multiphoton transitions

Bochinski, J. R., Yu, C. C., Loftus, T., & Mossberg, T. W. (2001, April 9). Physical Review A, Vol. 63.

Laser modulation technique for single isotope spectroscopic studies

Bochinski, J. R., Loftus, T., & Mossberg, T. W. (2000, March 17). Physical Review A, Vol. 61.

Power-dependent loss from an ytterbium magneto-optic trap

Loftus, T., Bochinski, J. R., Shivitz, R., & Mossberg, T. W. (2000, April 7). Physical Review A, Vol. 61.

Probing magneto-optic trap dynamics through weak excitation of a coupled narrow-linewidth transition

Loftus, T., Bochinski, J. R., & Mossberg, T. W. (2000, May 2). Physical Review A, Vol. 61.

Experimental study of photon-echo size in optically thick media

Wang, T., Greiner, C., Bochinski, J. R., & Mossberg, T. W. (1999, August 1). Physical Review A, Vol. 60, pp. R757–R760.

Electrodeless high intensity discharge lamp having a phosphorus fill

https://www.lens.org/075-907-934-609-853

Driving the driven atom: Spectral signatures

Yu, C. C., Bochinski, J. R., Kordich, T. M. V., Mossberg, T. W., & Ficek, Z. (1997, December 1). Physical Review A, Vol. 56, pp. R4381–R4384.

Electrodeless high intensity discharge lamp having a boron sulfide fill

https://www.lens.org/137-533-462-093-900

Electrodeless high intensity discharge lamp having a boron sulfide fill

https://www.lens.org/108-721-940-381-795

Electrodeless high intensity discharge lamp having a phosphorus fill

https://www.lens.org/077-398-386-713-165

Electrodeless high intensity discharge lamp having a phosphorus fill

https://www.lens.org/036-076-949-733-073

Intrinsically Irreversible Multiphoton Laser Gain Mechanisms

Sellin, P. B., Yu, C. C., Bochinski, J. R., & Mossberg, T. W. (1997, February 24). Physical Review Letters, Vol. 78, pp. 1432–1435.

Method for deflecting the arc of an electrodeless HID lamp

https://www.lens.org/099-108-197-104-029

Electrodeless high intensity discharge lamp energized by a rotating electric field

https://www.lens.org/002-705-717-176-285

Leistungskompensierte Kopplungsanordnung für elektrodenlose Entladungslampe

https://www.lens.org/028-484-308-795-939

Method for deflecting the arc of an electrodeless hid lamp

https://www.lens.org/184-474-432-156-920

Method for operating an electrodeless HID lamp and an electrodeless lamp system

https://www.lens.org/000-275-939-290-155

Power balanced coupling structure for electrodeless discharge lamp

https://www.lens.org/019-178-207-347-641

Electrodeless high intensity discharge lamp energized by a rotating electric field.

https://www.lens.org/184-429-767-923-690

Integral impedance matching structure for electrodeless discharge lamp

https://www.lens.org/006-565-400-922-538

Power balanced coupling structure for electrodeless discharge lamp

https://www.lens.org/141-419-562-405-583

Power balanced coupling structure for electrodeless discharge lamp.

https://www.lens.org/073-990-151-975-942

END CUP APPLICATORS FOR HIGH FREQUENCY ELECTRODELESS LAMPS

https://www.lens.org/069-995-495-580-977

Loop applicator for high frequency electrodeless lamps

https://www.lens.org/123-011-560-951-466