Patents

  • Functionalized silk-based cell nanoencapsulation strategy for immunomodulation and enhanced stability, USA Patent Application No: IDF000394, Disclosure date/Patent applied on 3rd November 2025
  • 3D Printed Human Skin Constructs, Indian Patent Application No:201641010641, Patent granted on 6th January 2023
  • A 3D Bioprinted scar tissue model, Indian Patent Application No: PCT/IN2018/050804 (applied on 30th November 2018), US Application no: 16/768,819 , EP Application Number: 18882941.0
  • 3D printed constructs for correcting bone defects and stem cell delivery, Indian Patent Application No: PCT/IN2018/050264 , US Patent application no.: 16/608,804, Application No. : 18789790.5
  • Ha-CeO2-Ag composite for bone tissue implant, Indian Patent Application No: 201611038479 (applied on 10th November 2016)

    • Publications

    Peer Reviewed Articles

      2026
    1. Silk Ionomer-based modular nanocoatings for potential Immuno-regenerative cell therapy in Osteoarthritis, N Majumder, P Jain, U Kumarasinghe,... S Ghosh, DL Kaplan, Small (Impact factor: 12.1)
    2. 3D printed Chemically modified silk construct regenerates articular cartilage in full thickness defect in osteoarthritic rat knees, S Iqbal, N Majumder, B Kumar, C Roy, S Thaleshwari, S Ghosh, A Bandhopadyay, Advanced Healthcare Materials (Impact factor: 9.6)
    3. Thermoplastic Molding of Chitosan to form Living Plastic Materials, R Mahle, P Cebe, N Majumder, ... Y Wang, S Ghosh, D Kaplan, Advanced Materials, 2026, 38(7), e11623 (Impact factor: 26.8, citations: 3)
    4. Exploring the Role of Cartilage Hypertrophy in Osteoarthritis Progression: A Structural and Biochemical Analysis of Glycosaminoglycan Loss and ECM Integrity, C Roy, A Sharma, S Siddhant, S Ghosh, Macromolecular Bioscience, 2026, 26(1), e00467 (Impact factor: 4.4)
    5. HRP-Crosslinked Silk-Gelatin Bioinks: Printability Dynamics and Modulation of Stem Cell Lineage Commitment in 3D Bioprinted Constructs, P Banerjee, C Roy, S Ghosh, Journal of Material Chemistry B (Impact factor: 6.1)
    6. 3D Printed Angiogenin-Functionalized Bioresorbable Tubular Grafts for Vascularized Biological Conduits, T Sahoo, S Das, S Sonali, S Mukherjee, N Dogra, C Roy, R Prabhu, S Ghosh, S Dhara, ACS Applied Bio Materials
    7. Interleukin-6 Epigenetically Regulates Ephrin A1 Expression via DNMT3B and Contributes to Disorganized Angiogenesis in Human Breast Tumors
    8. Biomimetic multicellular functional 3D Bioprinted primary liver scaffolds for reliable drug toxicity prediction
    9. Fabrication of complex 3D silk scaffolds with multi-material integration
    10. Glucosamine-Modified Silk and Tyramine-Modified Gelatin Composite Hydrogel Matrix with Antioxidant, Immunomodulatory, and Chondrogenic Cues for Cartilage Regeneration
    11. Incorporation of NH2-MIL-88 (Fe) Metal-Organic framework into Silk Fibroin-Gelatin bioink for 3D Bioprining of cartilage
      12. 2025
    12. 3D Bioprinted in vitro full-thickness skin aging model, J Chakraborty, AC Gupta, S Ghosh, Journal of Material Chemistry B (Impact factor: 5.8, citations: 2)
    13. Developmental biology-based 3D bioprinting: an off-the-shelf strategy to induce tissue regeneration, ACS Biomaterials Science & Engineering, 11, 8, 2025 (Impact factor: 5.5, citations: 2)
    14. Global proteome analysis of a three-dimensional human chondrocyte cell culture system infected with chikungunya virus reveals distinct immune and inflammatory signatures, A Hasan, G Sharma, N Majumder, S Chaudhary, D Mehta, R Vaishya, S Ghosh, S Sunil, ACS Omega, 10(37) 2025 42480-42493 (Impact factor: 4.3)
    15. MRI detection and grading of Knee Osteoarthritis - A pilot study using an AI technique with a novel imaging-based scoring system, C Roy, M Roshan, N Goyal, P Rana, N Ghonge, A Jena, R Vaishya, S Ghosh, Biomaterial Sciences, 13(19) 2025 5475-5494 (Impact factor: 6.6, citations: 5)
    16. Nanomedicines for occular fibrosis, B Mahaling, A Dinabandhu, MR Biswal, S Ghosh, Journal of Drug Delivery Science and Technology, 2025, 112, 107271 (Impact factor: 4.9, citations: 1)
    17. Surface Potential of Graphene-Based Materials Regulated Fibronectin Adsorption and Molecular Interaction, Rohit, R Bharadwaj, C Roy, S Ghosh, S Kumar, Biointerphases, 2025 (Impact factor: 1.9)
      18. 2024
    18. Protocol for developing shape-morphing 4D bioprinted magnetic constructs to promote articular cartilage regeneration using silk fibroin-gelatin bioink, STAR Protocols, 2024, 5(4), 103332 (Impact factor: 6.1, citations: 5)
    19. Immune response profiles induced by silk-based biomaterials: A journey from "immunogenicity" towards "immuno-compatibility", N Majumder, M Bhattacharjee, G Spagnoli, S Ghosh, Journal of Material Chemistry B (Impact factor: 6.1, citations: 16)
    20. Silk-gelatin hybrid hydrogel: a potential carrier for RNA therapeutics, B Mahaling, C Roy, S Ghosh, Journal of Material Chemistry B, 12, 2024, 6203-6220 (Impact factor: 6.1, citations: 7)
    21. Enhancing Wound healing with sprayable hydrogel releasing multi metallic ions: Inspired by the body's endogenous healing mechanism, Advaced Healthcare Materials, 2024, 4, 2402024 (Impact factor: 10, citations: 16)
    22. Assessing rheological properties of oxidized Moringa oleifera gum and carboxymethyl chitosan-based self-healing hydrogel for additive manufacturing applications, Polymer Engineering and Science, 2024, 1-10 (Impact factor: 3.2, citations: 5)
    23. 3D bioprinting of stromal cells-laden artificial cornea based on visible light-crosslinkable bioinks forming multilength networks, GW Lee, A Chandrasekharan, S Roy, B Mahaling, H Lee, KY Seong, S Ghosh, SY Yang, accepted, Biofabrication (Impact factor: 9, citations: 18)
    24. Covalent conjugation of small molecule inhibitors and growth factor to a silk fibroin-derived bioink to develop phenotypically stable 3D bioprinted cartilage, N Majumder, C Roy, L Doenges, I Martin, A Barbero, S Ghosh, ACS Applied Materials & Interfaces, accepted (Impact factor: 9.5, citations: 18)
    25. Deep Learning augmented osteoarthritis grading standardization, L Nagarajan, A Khatri, A Sudan, R Vaishya, S Ghosh, Tissue Engineering Part A, accepted (Impact factor: 6.4, citations: 6)
    26. An advanced bioconjugation strategy for covalent tethering of TGF-ß3 with silk fibroin matrices and its implications in the chondrogenesis profile of human BMSCs and human chondrocytes: A paradigm shift in cartilage tissue engineering, Advanced Healthcare Materials, N Majumder, S Seit, NS Bhabesh, S Ghosh, 2024, 23033513 (Impact factor: 11.09, citations: 17)
    27. Assessing the advantage of 3D Bioprinting and 3D spheroids in deciphering the osteoarthritis healing mechanism using primary chondrocytes and polarized macrophages, N Majumder, S Roy, A Sharma, A Arora, R Vaishya, S Ghosh, Biomedical Materials (Impact factor: 4.13, citations: 8)
    28. Development of 4D bioprinted shape morphing magnetic construct for cartilage regeneration using silk-gelatin bioink, J Chakraborty, J Fernandez-Perez, M Ghahfarokhi, K Kampen, T Brink, J Ramis, ...C Mota, S Ghosh, L Moroni, Cell Reports Physical Science (Impact factor: 7.83, citations: 16)
    29. 3D bioprinting strategies for recapitulation of hepatic structure and function in bioengineered liver: A state-of-the-art review, A Sanyal, S Ghosh, Current Opinion in Biomedical Engineering, 2024, 30, 100526 (Impact factor: 3.9, citations: 10)
    30. In vivo transplantation of Intrahepatic Cholangiocyte Organoids with decellularized liver-derived hydrogel support hepatic cellular proliferation and differentiation in chronic liver injury, Journal of Materials Chemistry B, , 2024, 13(3), pp. 918–928 (Impact factor: 5.8, citations: 5)
    31. Current landscape and opprtunities in development of 3D Bioengineered In-Vitro vascularized Liver Tissue Models, K Kumari, A Sanyal, S Ghosh, P Baligar, Bioprinting, 2024, 41, e00350 (Impact factor: 5.8, citations: 6)
      32. 2023
    32. Development of a biomimetic arch-like 3D Bioprinted construct for cartilage regeneration using Gelatin methacryloyl and Silk fibroin-gelatin bioinks, J Chakraborty, J Fernandez-Perez, K van Kampen, S Roy, T Brink, C Mota, S Ghosh, L Moroni, Biofabrication, 15, 2023, 035009 (Impact factor: 11, citations: 17)
    33. Unfolding the mystery behind the onset of chondrocytes hypertrophy during chondrogenesis: Towards designing advanced permanent cartilage mimetic biomaterials, N Majumder, S Ghosh, Advanced Functional Materials, 33 (35), 2023, 2300651 (Impact factor: 19.92, citations: 7)
    34. 3D biofabrication and space: a 'far-fetched dream' or a 'forthcoming reality'?, N Majumder, S Ghosh, Biotechnology Advances, 69, 2023, 108273 (Impact factor: 16)
    35. Liver extracellular matrix-based nanofibre scaffolds for the culture of primary hepatocytes and drug screening, A Vasudevan, N Majumder, I Sharma,... S Ghosh, D Tripathi, S Kaur, ACS Biomaterials Science and Engineering, accepted (Impact factor: 5.8, citations: 3)
    36. Gelatin scaffold ameliorates the proliferation and differentiation of mouse embryonic stem cells into hepatic-like cells and supports liver regeneration in partial-hepatectomized mice model, K Kumari, S Tandon, S Ghosh, P Baligar, Biomedical Materials, 18, 2023, 065022 (Impact factor: 3.71, citation: 1)
    37. Mechanistic crosstalk of extracellular calcium-mediated regulation of maturation and plasticity in human monocytes, S Roy, A Sharma, S Ghosh, Biochemical and Biophysical Research Communications, 643, 2023, 39-47 (Impact factor: 3.32, citation: 1)
    38. Macrophage plasticity and differentiation on decellularized human cornea, J Chakraborty, S Roy, P Pandey, S Mohanty, R Tandon, S Ghosh, Journal of Materials Research, 38 (20), 2023, 4625-4640 (Impact factor: 2.9)
      39. 2022
    39. Developmental biology-inspired tissue engineering by combining organoids and 3D Bioprinting, J Chakraborty, S Chawla, S Ghosh, Current Opinion in Biotechnology (Impact factor: 10.28, citations: 32)
    40. Effect of varying cell densities on the rheological properties of the bioink, N Majumder, A Mishra, S Ghosh, Bioprinting, 28, 2022, e00241 (Impact factor: 6.4, citations: 15)
    41. Chondrocyte hypertrophy in Osteoarthritis: Mechanistic studies and models for the identification of new therapeutic strategies, S Chawla, A Mainardi, N Majumder, L Donges, B Kumar, P Occhetta, I Martin, C Egloff, S Ghosh, A Bandyopadhyay, A Barbero, Cells, 11 (24), 2022, 4034 (Impact factor: 7.66, citations: 22)
    42. 3D Bioprinted silk-reinforced Alginate-Gellan Gum constructs for cartilage regeneration, J Chakraborty, N Majumder, A Sharma, S Prasad, S Ghosh, Bioprinting, 28, 2022, e00232 (Impact factor: 6.4, citations: 18)
    43. Recent advances in bioprinting using silk-protein based bioinks, J Chakraborty, X Mu, A Pramanick, D Kaplan, S Ghosh, Biomaterials, 287, 2022, 121672 (Impact factor: 15.30, citations: 39)
    44. 3D printed hydroxyapatite promotes congruent bone ingrowth in rat load bearing defects, J Chakraborty, S Roy, S Ghosh, Biomedical Materials, 17(3), 2022, 035008 (Impact factor: 4.10, citations: 7)
    45. Macrophase polarization profiling on native and regenerated silk biomaterials, S Roy, A Sharma, S Ghosh, ACS Biomaterial Science and Engineering, 8(2), 2022, 659-671 (Impact factor: 5.39, citations: 13)
      46. 2021
    46. 3D tumor angiogenesis models: recent advances and challenges, S Bhat, V Badigar, S Vashistha, J Chakraborty, S Prasad, S Ghosh, M Joshi, Journal of Cancer Research and Clinical Oncology, 147(12), 2021, 3477-3494 (Impact factor: 4.55, citations: 37)
    47. The effect of silk-gelatin bioink and TGF-beta3 on mesenchymal stromal cells in 3D bioprinted chondrogenic constructs: a proteomic study, S Chawla, G Desando, E Gabusi, A Sharma, D Trucco, J Chakraborty, C Manferdini, M Petretta, G Lisignoli, S Ghosh, Journal of Materials Research, 36(19), 2021, 4051-4067 (Impact factor: 2.42, citations: 21)
    48. 3D printing of biomedical materials and devices, A Bandhyopadhyay, S Ghosh, AR Boccaccini, S Bose, Journal of Materials Research, 36(19), 2021, 3713-3724 (Impact factor: 2.42, citations: 21)
    49. Rheology and direct-write printing of chitosan-graphene oxide nanocomposite hydrogels for differentiation of neuroblastoma cells, S Marapureddy, P Hivare, A Sharma, S Ghosh, S Gupta, P Thareja, Carbohydrate Polymers, 269, 2021, 118254 (Impact factor: 10.72, citations: 35)
    50. Upgrading hepatic differentiation and functions on 3D printed silk-decellularized liver hybrid scaffolds, A Sharma, P Rawal, DM Tripathi, S Kaur, S Ghosh, ACS Biomaterials Science and Engineering, 7(8), 2021, 3861-3873 (Impact factor: 5.39, citations: 25)
    51. Modeling and fabrication of silk fibroin-gelatin-based constructs using extrusion-based three-dimensional bioprinting, D Trucco, A Sharma, C Manferdini, E Gabusi, M Petretta, G Desando, L Ricotti, J Chakraborty, S Ghosh, G Lisignoli, ACS Biomaterials Science and Engineering, 7(7), 2021, 3306-3320 (Impact factor: 5.39, citations: 43)
    52. Three-dimensional bioprinted hepatorganoids in liver failure, S Kaur, DM Tripathi, S Ghosh, Gut, 70(5), 2021, 998-999 (Impact factor: 23.05, citations: 8)
    53. Hypoxia-inducible miR-196a modulates glioblastoma cell proliferation and migration through complex regulation of NRAS, S Takkar, V Sharma, S Ghosh, A Suri, C Sarkar, R Kulshreshtha, Cellular Oncology, 44, 2021, 433-451 (Impact factor: 6.73, citations: 21)
    54. Silk protein paper with in situ synthesized silver nanoparticles, L Yujia, B Tang, A Sharma, D Perera, N Alllardyce, S Ghosh, H Schniepp, R Rajkhowa, Macromolecular Bioscience, 21(3), 2021, 2000357 (Impact factor: 2.89, citations: 8)
      55. 2020
    55. Cellular proliferation, self-assembly and modulation of signaling pathways in silk fibroin-gelatin based 3D Bioprinted constructs, J Chakraborty, S Ghosh, ACS Applied bio materials, 3(12), 2020, 8309-8320 (Impact factor: 3.95, citations: 36)
    56. Bioengineered in vitro tissue models to study SARS-Cov-2 pathogenesis and therapeutic validation, J Chakraborty, I Banerjee, R Vaishya, S Ghosh, ACS Biomaterials Science and Engineering, 6(12), 2020, 6540-6555 (Impact factor: 5.39, citations: 27)
    57. Blockage of bone morphogenetic protein signaling counteracts hypertrophy in a human osteoarthritic micro-cartilage model, S Chawla, M Berkelaar, B Dasen, C Halleux, S Guth-Gundel, I Kramer, S Ghosh, I Martin, A Barbero, P Occhetta, Journal of Cell Science, 133(23), 2020, jcs249094 (Impact factor: 5.23, citations: 17)
    58. Silk from Indian paper wasp: Structure prediction and secondary conformational analysis, S Chawla, S Seit, S Murab, S Ghosh, Polymer, 208, 2020, 122967 (Impact factor: 4.43, citations: 2)
    59. Effect of macromolecular crowders on the self-assembly process of silk fibroin, P Dubey, S Seit, PK Chowdhury, S Ghosh, Macromolecular Chemistry and Physics, 221 (16), 2020, 2000113 (Impact factor: 2.72, citations: 10)
    60. Regulation of decellularized matrix mediated immune response, J Chakraborty, S Roy, S Ghosh, Biomaterials Science, 8(5), 2020, 1194-1215 (Impact factor: 7.59, citations: 75)
    61. Photocurable silk fibroin-polyvinylpyrrolidone hydrogel, Z Wen, F Jiang, F Wu, S Ghosh, S Lu, Materialia, 9, 2020, 100525 (Impact factor: 3.44, citations: 16)
      62. 2019
    62. Polycomb complex mediated epigenetic reprogramming alter TGF-beta signalling via a novel EZH2/mi-R-490/TGIF2 axis thereby inducing migration and EMT potential in glioblastomas, OS Vinchure, V Sharma, S Tabasum, S Ghosh, R Singh, C Sarkar, R Kulshrestha, International Journal of Cancer, 145(5) 2019, 1254-1269 (Impact factor: 7.39, citations: 36)
    63. Direct 3D bioprinted full-thickness skin constructs recapiitulate regulatory signaling oathways and physiology of human skin, P Admane, AC Gupta, P Jois, S Roy, C Lakshmanan, G Kalsi, B Bandopadhyay, S Ghosh, Bioprinting, 15, 2019, e00051 (Impact factor: 0.926, citations: 93)
    64. Highly elastomeric photocurable silk hydrogels, D Kuang, F Jian, F Wu, K Kaur, S Ghosh, SC Kundu, S Lu, International Journal of Biological Macromolecules, 134, 2019, 838-845 (Impact factor: 8.025, citations: 30)
    65. Modulation of aggregation of silk fibroin by synergistic effect of the complex of curcumin and beta-cyclodexrin, P Dubey, PK Chaowdhury, S Ghosh, Biochimica et Biophysica Acta- Proteins and Proteomics, 1867(4), 2019, 416-425 (Impact factor: 4.125, citations: 13)
    66. Investigating the Role of Sustained Calcium Release in Silk-Gelatin-Based Three-Dimensional Bioprinted Constructs for Enhancing the Osteogenic Differentiation of Human Bone Marrow derived Mesenchymal Stromal Cells, A Sharma, G Desando, M Petretta, S Ghosh, G Lisignoli, ACS Biomaterials Science and Engineering, 5(3), 2019, 1518-1533 (Impact factor: 5.395, citations: 35)
    67. Hydrogel nanotubes with ice helices as exotic nanostructures for diabetic wound healing, A Singh, R Bhattacharya, A Shakeel, S Ghosh, SK Rajput, M Mukherjee, Materials Horizons, 6(2), 2019, 274-284 (Impact factor: 15.717, citations: 23)
      68. 2010
    68. Unveiling the self-assembly behavior of Poly(AAc-co-DMAPMA) in situ to form Smart monolith displaying nanogels-within-macrogel hierarchial morphology, A Das, S Ghosh, Alok R Ray, in communication
    69. Tissue engineering of Annulus Fibrosus: Can silk fibres offer a potential solution? Maumita Bhattacharjee, Sylvie Miot, Giulio Spagnoli, Ivan Martin, Sourabh Ghosh and Alok Ray, in communication
      2009
    70. In vitro model of mesenchymal condensation during chondrogenic development, S Ghosh, M Laha, S Mandal, S Sengupta, DL Kaplan, Biomaterials, 2009, 30, 6530-6540 (Citations: 3)
    71. Comparative Chondrogenesis of Human Cell Sources in 3D Scaffolds , RS Tigli, S Ghosh, MM Laha, NK Shevde, L Daheron, J Gimble, M Gumusderelioglu, DL Kaplan, J Tissue Engineering & Regenerative Medicine, 2009, 3(5), 348-360 (Citations: 10)
      72. 2008
    72. Direct-Write Assembly of Micro-Periodic Silk Fibroin Scaffolds for Tissue Engineering Applications S Ghosh*, ST Parker*, X Wang, DL Kaplan, JA Lewis, Advanced Functional Materials, 2008, 18, 1883-1889 (Citations: 367)
    73. New dimensions in tumor immunology: what does 3D culture reveal? C Feder-Mengus, S Ghosh, A Reschner, I Martin, GC Spagnoli, Trends in Molecular medicine, 2008, 14(8):333-340. (Citations: 9)
      74. 2007
    74. Use of multicellular tumor spheroids to dissect endothelial cell-tumor cell interactions: a role for T-cadherin in tumor angiogenesis. S Ghosh*, M. Joshi*, D. Ivanov, C. Feder-Mengus, G. Spagnoli, I. Martin, P. Erne, T. Resink, FEBS Letters. 2007; 581(23): 4523-28 (Citations: 7)
    75. Multiple mechanisms underlie defective recognition of melanoma cells cultured in three-dimensional architectures by antigen specific cytotoxic T lymphocytes, C Feder*, S Ghosh*, WP Weber, S Wyler, P Zajac, L Terracciano, D Oertli, M Heberer, I Martin, GC Spagnoli, A Reschner, British Journal of Cancer, 2007, 96(7):1072-82 (Citations: 8)
      76. 2006
    76. Three dimensional culture of melanoma cells results in impaired immunorecognition by cytotoxic T lymphocytes specific for tumor-associated antigen, S Ghosh, C Feder-Mengus, P Zajac, G Spagnoli, I Martin, A Reschner, Journal of Immunology, 2006, 176, S273-S273
      77. 2005
    77. Culture of melanoma cells in three-dimensional architectures results in impaired immunorecognition by cytotoxic T lymphocytes specific for Melan-A /MART-1 tumor associated antigen, S Ghosh, R Rosenthal, P Zajac, WP Weber, D Oertli, M Heberer, I Martin, GC Spagnoli, A Reschner, Annals of Surgery, 2005, 242(6):851-858 (Citations: 8)
    78. Three-dimensional culture of melanoma cells profoundly affects gene expression profile: A high density oligonucleotide array study, S Ghosh, GC Spagnoli, I Martin, S Ploegert, P Demougin, M Heberer, A Reschner, Journal of Cellular Physiology, 2005; 204(2): 522-531 (Citations: 425)
    79. Culture of melanoma cells in three-dimensional architectures results in impaired immunorecognition by cytotoxic T lymphocytes specific for Melan-A/MART-1 tumor associated antigen, M Bolli, S Ghosh, GC Spagnoli, I Martin, S Ploegert, P Demougin, M Heberer, A Reschner, Journal of the American College of Surgeons, 2005, 201 (3): S79
      80. 2002
    80. Use of Polysaccharide fibres in wound dressing- S Ghosh, M Jassal, Indian Journal of Fibre & Textile Research , 2002, 27(4), 434-450 (Citations: 6)
    81. Aramid Fibers : an over view- M Jassal, S Ghosh, Indian Journal of Fibre & Textile Research 2002, 27(3), 290-306
      82. 2001
    82. Medical Textiles: S Ghosh, The Indian Textile Journal, 2000, 110(6), 10-14 (Citations: 2)

      83. Book Chapters

      • 3D Human Tissue Models for the study of Osteochondral Diseases : S Ghosh, DL Kaplan, Invited Book Chapter, in Advances in Tissue Engineering, ed. L Polak, Imperial College Press, UK, 2008
      • Sutures: Surgical sewing Thread: RS Rengasamy, S Ghosh, in Technical Yarns ed. R Alagirusamy & A Das, Woodhead Publisher, 2010


    Conference Proceedings & selected other publications

    1. In Vitro Model of Mesenchymal Condensation During Chondrogenic Developmement- Society for Biological Engineering's (AiChE Technological community) 2nd International Conference on Stem Cell Engineering, Hyatt Harborside Hotel, Boston, MA, USA, May 2-5, 2010
    2. Comparative Chondrogenesis of Human Cell Sources in 3D Scaffolds- Society for Biological Engineering's (AiChE Technological community) 2nd International Conference on Stem Cell Engineering, Hyatt Harborside Hotel, Boston, MA, USA, May 2-5, 2010
    3. Bioreactors for Tissue engineering applications- International workshop on Biomaterials for Tissue Engineering & Biotechnological Applications, Nov 22-24, 2008, IIT Kharagpur, India (invited lecture)
    4. Silk-based biomaterials: Fibre of Fitness, Biotech News, 2008, 3(5) Department of Biotechnology, Ministry of Science & Technology, Government of India (invited review)
    5. Nano-fibrous silk fibroin scaffolds for understanding cartilage tissue engineering process, International Workshop- Cell based Tissue Engineering using natural polymers, 28-29th November 2007, GIST, Gwangju, Korea. (invited lecture)
    6. Bioreactors for cartilage Tissue engineering- International workshop of “Articular Joint Biology and Disease”, 17-18th March, 2007 IIT Kanpur, India (invited lecture)
    7. Multiple mechanisms underlie defective recognition of melanoma cells cultured in threedimensional architectures by antigen specific cytotoxic T lymphocytes, USGEB 2007, Basel Computational Biology Conference, Union of Swiss Societies of Experimental Biology, Basel, Switzerland, 13-14th March, 2007
    8. Multiple mechanisms underlie defective recognition of melanoma cells cultured in threedimensional architectures by antigen specific cytotoxic T lymphocytes, Annual congress of Swiss Society of Allergology and Immunology & spring meeting of the Swiss Society of Dermatology and Venerology, Basel, Switzerland, 19-20th April, 2007
    9. Culture of melanoma cells in three dimensional architectures results in impaired immunorecognition by antigen specific cytotoxic T lymphocytes, Biovalley Life Sciences Week 2006, Basel, Switzerland, 17th Oct, 2006
    10. Culture of melanoma cells in three dimensional architectures results in impaired immunorecognition by antigen specific cytotoxic T lymphocytes Conference of American Association of Immunologists, Boston, USA, 12-16th May, 2006
    11. Culture of melanoma cells in three dimensional architectures results in impaired immunorecognition by cytotoxic T lymphocytes specific for Melan-A/MART-1 tumor associated antigen Conf of European Surgical Association, Stockholm, Sweden, 7-8th April, 2005
    12. Novel polymeric scaffolds for Bone and Cartilage Tissue Engineering- International Conference on emerging trends in Polymers & Textiles, IIT Delhi, New Delhi, India, 7-8th January, 2005
    13. Development of Alginate based wound dressing material, International Conference on emerging trends in Polymers, 7-8th January, 2005, Dept of Textile Technology, IIT Delhi
    14. Three-dimensional culture of melanoma cells profoundly affects gene expression profile 3rd International conference on Tumor microenvironment: Progression, Therapy and Prevention, Prague, Czech Republic, 10-16th October, 2004
    15. A novel Alginate-based hydrogel as post-surgical adhesion preventive material Conference of Swiss Society of Biomedical Engineering, ETH Zurich, Switzerland, 2nd -3rd September, 2004
    16. Multicellular spheroid culture system represents a better model than monolayer culture for studying melanoma development in vitro. Conference of Swiss Society of Biomedical Engineering, ETH Zurich, Switzerland, 2nd -3rd September, 2004

    Patents

    • M Jassal, AR Ray, S Ghosh, Preparation of a new Alginate-based wound dressing material: Patent Number 2002DE00736 CAN 146:408479 AN 2007:299984