achieving high brightness of si led via a field effect approach，appl. phys. lett. 104, 061105(2014)
surface plasmons on ag clusters induced via ultrasonic and thermal treatments and their enhancement of si light emission，physica e 64, 63-67(2014)
mass production of si quantum dots for c-si solar cell efficiency improvement，mater. lett. 133, 80-82(2014)
enhancing the brightness of si nanocrystal light emitting device with electro-excited surface plasmons，nanotechnology 25, 355203(2014)
enhancing optical gains in si nanocrystals with hydrogenation and cerium doping，j. appl. phys. 116, 043512(2014)
effects of crystallographic surface and co-sputtered atom on the growth of ion-sputter induced si nanocone arrays，appl. phys. a 119, 1033-1038(2015)
a synergetic effect of surface texture and field passivations on improving si solar cell performance，physica e 71, 96-100(2015)
enhancing photocatalysis in srtio3 by using ag nanoparticles: a two-step excitation model for surface plasmon-enhanced photocatalysis，j. chem. phys. 143, 084706(2015)
white light emissions and optical gains from a si nanocrystal thin film，nanotechnology 26, 475203(2015)
a synergetic application of surface plasmon and field effect to improve si solar cell performance，nanotechnology 27, 145203(2016)
a porous si emitter crystalline-si solar cell with 18.97% efficiency s，nanotechnology 27, 425207(2016)
high fill factors of si solar cells achieved by using an inverse connection between mos and pn junctions，nanoscale res. lett. 11, 453(2016)
a synergetic effect of surface plasmon and ammoniation on the enhanced photocatalytic activity of zno nanorods，rsc advances 6, 97808-97817(2016)
light emissions from a si crystalline thin film prepared by hsq，physica e 89, 57-60(2017)
enhancing the ultraviolet-visible-near infrared photovoltaic responses of crystalline-silicon solar cell by using aluminum nanoparticles，physica e 94, 174-177(2017)
an investigation on a crystalline-silicon solar cell with black silicon layer at the rear，nanoscale research letters, 12, 623(2017)
an all-silicon laser based on silicon nanocrystals with high optical gains，science bulletin 63(2)75-77 (2018)
a synergetic effect of ytterbium-doping and ammoniation on enhancing uv and visible photocatalytic activities of tio2，chemical physics letters, 2018, 64c: 53-59.
black silicon schottky photodetector in sub-bandgap near-infrared regime，optics express 27(3), 3161-3168(2019)
emission characteristics and wavelength tunability of all-silicon distributed feedback lasers，ieee jstqe 26(2), 1500107(1-7)(2020)
all-inorganic silicon white light-emitting device with an external quantum efficiency of 1.0%，opt. express 28, 194(2020). （该工作被laser focus world作专题报导，j. wallace, laser focus world 56, 31(2020)）
high-pressure hydrogenation induced light emission enhancement of si nanocrystals，opt. express 28， 23320-23328（2020）
improving the performance of crystalline si solar cell by high-pressure hydrogenation，chinese phys. b vol. 29, no. 11 (2020) 118801
high-pressure ar passivation to enhance the photoluminescence of si nanocrystals, physics e 131, 114680(2021).
high brightness silicon nanocrystal white light-emitting diode with luminance of 2060 cd/m2, optics express 29, 34126-34134(2021). （该工作被semiconductor today作专题报导, m. cooke, semiconductor today, october (2021)。它是当时最高亮度的硅led——此结论见：l. pavesi, “thirty years in silicon photonics: a personal view”, frontiers in physics 9, 786028 (december 2021)）
achieving high-responsivity near-infrared detection at room temperature by nano-schottky junction arrays via a black silicon/platinum contact approach, photonics research 9, 1324-1329(2021).
dispersed freestanding silicon nanocrystals for si white light-emitting diode, chemical physics letters 785, 139155(2021).
a synergistic approach of interface engineering to improve the performance of silicon nanocrystal light-emitting diode, vacuum 197, 110822(2022).
observation of waveguide fabry-perot lasing in highly efficient si nanocrystals, results in physics 34, 105336 (2022).
sub-bandgap near-infrared photovoltaic response in au/al2o3/n-si metal–insulator–semiconductor structure by plasmon-enhanced internal photoemission, discover nano, 18(2023): 33.
a silicon sub-bandgap near-infrared photodetector with high detectivity based on textured si/au nanoparticle schottky junctions covered with graphene film, sensors, 23(2023): 6184.
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