Bushangqing Liu

Bushangqing Liu

My research focuses on the investigation of the immunity in the hepatic microenvrionment in pancreatic cancer liver metastases. Specifically, how the tumor cell-intrinsic factors crosstalk with the hepatic tumor microenvironment to suppress the anti-tumor immune response in the liver

Bin-Jin Hwang

My PhD research was focused on the association between skin inflammation and melanoma. I am currently focusing on the cancer vaccine/immunotherapy.

Sushrit Pasumarthy

Sushrit Pasumarthy

I am currently evaluating the efficacy of PD-L1 overexpression in genetically engineered breast cancer cells as a strategy to impede T-cell infiltration into immunogenic cancers and directly inhibit T-cell function. This will serve as a model to evaluate the utility of the broader focus of the research project I am a part of, which is to investigate the potential therapeutic role of PD-L1 as an immunosuppressive agent in preventing immune rejection after heart transplantation.

Timothy Trotter

Timothy Trotter

The overarching goal of my research is to characterize fundamental mechanisms of tolerance by which tumor cells evade adaptive immunity during metastasis and the latent phase before recurrence. I am particularly interested in how normal processes wherein immune tolerance is critical, such as wound healing and embryo implantation, are co-opted by tumor cells throughout the metastatic cascade for long-term survival. In addition, I recently identified DKK3 as a dormant tumor-derived factor that promotes regulatory T cells in the microenvironment and I am currently working to define precise pathways that mediate this function.

Anne Sacks

Anne Sacks

I am currently investigating innate immune checkpoints in metastatic Triple Negative Breast Cancer (TNBC). I am interested in how blockade of these innate immune checkpoints in combination with clinical treatments for cancer can decrease the growth of tumors. More broadly, I aim to further existing knowledge in how innate immune checkpoint blockade can enhance adaptive and innate immune responses to cancer.

Xingru Ma

Xingru Ma

I am interested in understanding how innate immune checkpoints regulate immune responses against cancer. I am also investigating the combination of immune checkpoint inhibition with chemotherapy, antibodies and antibody drug conjugates (ADCs) to improve existing cancer treatment.

Jason McBane

Jason McBane

Having just graduated from Duke University with a BS in Biology and a concentration in pharmacology, I am utilizing my time as a technician in the Hartman lab to further my knowledge and experience in biomedical research. In the lab, I specialize in histology techniques such as tissue processing, sectioning, and immunohistochemistry, but I am broadly interested in utilizing the immune system to develop novel therapeutic strategies for cancer treatment. I intend to pursue a PhD in biomedical science.

John Wang

John Wang

I’m interested in developing advanced cancer therapies by targeting immune responses, including exploring antibody mechanisms, bi-specific antibodies, and antibody drug conjugates (ADCs) to improve treatment efficacy. Additionally, I aim to optimize cancer vaccine strategies, incorporating insights from RNA vaccine research and novel vaccine designs to enhance immune system engagement.

Andrea Wilson

Andrea Wilson

I am interested in understanding how Trop2 post-translational modifications lead to oncogenesis, along with how this affects therapeutic targeting in triple negative breast cancer. I am also researching the immunosuppressive role of progesterone receptor (PR) in hormone receptor positive breast cancer and understanding best targeting therapeutic strategies of PR to decrease and eliminate tumor burden.

grunlan-pubs

Silicone-containing thermoresponsive membranes to form an optical glucose biosensor

Dong, P.; Singh, K.A.; Soltes, A.M.; Ko, B.K.; Gahararwar, A.K.; McShane, M.J.; Grunlan, M.A. “Silicone-containing thermoresponsive membranes to form an optical glucose biosensor,” J. Mater. Chem. B, 2022, 10, 6118-6132.

Characterizing the separation behavior of photocurable PDMS on a hydrogel film during VAT photopolymerization: A benchmark study

Yang, F.; Kazi, A.; Marmo, A.C.; Grunlan, M.A.; Tai, B.L. “Characterizing the separation behavior of photocurable PDMS on a hydrogel film during VAT photopolymerization: A benchmark study,” Additive Manuf. 2022, 58, 103070.

Amphiphilic silicones to mitigate lens epithelial cell growth onto intraocular lenses

Marmo, A.C.; Rodriguez Cruz, J.J.; Pickett, J.H.; Lott, L.R.; Theibert, D.S.; Chandler, H.; Grunlan, M.A. “Amphiphilic silicones to mitigate lens epithelial cell growth onto intraocular lenses,” J. Mater. Chem. B, 2022, 10, 3064-3072.

A glucose biosensor based on phosphorescence lifetime sensing and a thermoresponsive membrane

Dong, P.; Ko, B.K.; Lomeli, K.A.; Clark, E.C.; McShane, M.J.; Grunlan, M.A. “A glucose biosensor based on phosphorescence lifetime sensing and a thermoresponsive membrane,” Macromol. Rapid Comm., 2022, 2100902.

Comparative evaluation of mesenchymal stromal cell growth and osteogenic differentiation on a shape memory polymer scaffold

Stukel Shah, J.M.; Lundquist, B.; Macaitis, J.; Pfau-Cloud, M.R.; Beltran, F.O.; Grunlan, M.A.; Lien, W.; Wang, H.-C.; Burdette, A.J. “Comparative evaluation of mesenchymal stromal cell growth and osteogenic differentiation on a shape memory polymer scaffold,” J. Biomed. Maters. Res. Part B, 2022, 110, 2063-2074.

PoreScript: Semi-automated pore size algorithm for scaffold characterization

Jenkins, D.; Salhadar, K.; Ashby, G.; Misha, A.; Cheshire, J.; Beltran, F.; Grunlan, M.A.; Andrieux, S.; Stubenrauch, C.; Cosgriff-Hernandez, E.+ “PoreScript: Semi-automated pore size algorithm for scaffold characterization,” Bioactive Mater., 2022, 13, 1-8.

Suitability of EtO sterilization of polydopamine-coated, self-fitting bone scaffolds

Houk, C.J.; Beltran, F.O.; Grunlan, M.A. “Suitability of EtO sterilization of polydopamine-coated, self-fitting bone scaffolds,” Polym. Degrad. Stability, 2021, 194, 109763.

Suitability of EtO sterilization of polydopamine-coated, self-fitting bone scaffolds

Houk, C.J.; Beltran, F.O.; Grunlan, M.A. “Suitability of EtO sterilization of polydopamine-coated, self-fitting bone scaffolds,” Polym. Degrad. Stability, 2021, 194, 109763.

Methodology for performing biomechanical push-out tests for evaluating the osseointegration of calvarial defect repair in small animal models

Lawson, Z.T.; Han, J.; Saunders, W.B.; Grunlan, M.A.; Moreno, M.R.; Robbins, A.B. “Methodology for performing biomechanical push-out tests for evaluating the osseointegration of calvarial defect repair in small animal models,” MethodsX, 2021, 8, 101541.

Intrinsic osteoinductivity of PCL-DA/PLLA semi-IPN shape memory polymer scaffolds

Arabiyat, A.A.; Pfau, M.R.; Grunlan, M.A.; Hahn, M.S.“Intrinsic osteoinductivity of PCL-DA/PLLA semi-IPN shape memory polymer scaffolds,” J. Biomed. Mater. Res. Part A, 2021, 21, 2334-2345.

Intrinsic osteoinductivity of PCL-DA/PLLA semi-IPN shape memory polymer scaffolds

Arabiyat, A.A.; Pfau, M.R.; Grunlan, M.A.; Hahn, M.S.“Intrinsic osteoinductivity of PCL-DA/PLLA semi-IPN shape memory polymer scaffolds,” J. Biomed. Mater. Res. Part A, 2021, 21, 2334-2345.

A thin whole blood smear prepared via a pumpless microfluidic

Dogbevi, K.S.; Ngo, B.K.D.; Branan, K.L.; Gibbens, A.M.; Grunlan, M.A.; Coté, G.L. “A thin whole blood smear prepared via a pumpless microfluidic,” Microfluid. Nanofluid., 2021, 25, 59.

Smart scaffolds: Shape memory polymers (SMPs) in tissue engineering

Pfau, M.A.; Grunlan, M.A. “Smart scaffolds: Shape memory polymers (SMPs) in tissue engineering,” J. Mater. Chem. B, 2021, 9, 4287-4297.

Brightfield and fluorescence in-channel staining of thin blood smears generated in pumpless microfluidic

Dogbevi, K.S.; Ngo, B.K.D.; Branan, K.L.; Gibbens, A.M.; Grunlan, M.A.; Coté, G.L. “Brightfield and fluorescence in-channel staining of thin blood smears generated in pumpless microfluidic,” Anal. Methods, 2021, 13, 2238-2247.

Shape memory polymer (SMP) bone scaffolds with improved self-fitting properties

Pfau, M.A.; McKinzey, K.G.; Roth, A.A.; Graul, L.M.; Maitland, D.J.; Grunlan, M.A. “Shape memory polymer (SMP) bone scaffolds with improved self-fitting properties,” J. Mater. Chem. B, 2021, 9, 3286-3837.

Amphiphilic, thixotropic additives for extrusion-based 3D printing of silica-reinforced silicone

Suriboot, J.; Marmo, A.C.; Ngo, B.K.D.; Nigam, A.; Ortiz-Acosta, D.; Tai, B.L.; Grunlan, M.A. “Amphiphilic, thixotropic additives for extrusion-based 3D printing of silica-reinforced silicone,” Soft Matter, 2021, 17, 4133-4142.

Bioactive siloxane-containing shape memory polymer (SMP) scaffolds with tunable degradation rates

Beltran, F.O.; Houk, C.X.; Grunlan, M.A. “Bioactive siloxane-containing shape memory polymer (SMP) scaffolds with tunable degradation rates,” ACS Biomater. Sci. Eng. 2021, 7, 1631-1639.

Cartilage-like tribological performance of charged double network hydrogels

Bonyadi, S.; Demott, C.J.; Grunlan, M.A.; Dunn, A.C. “Cartilage-like tribological performance of charged double network hydrogels,” J. Mech. Behav. Biomed. Mater. 2021, 114, 104202.

Amphiphilic silicones to reduce the absorption of small hydrophobic molecules

Quiñones-Pérez, M.; Cieza, R.; Ngo, B.K.D.; Grunlan, M.A.; Domenech, M. “Amphiphilic silicones to reduce the absorption of small hydrophobic molecules,” Acta Biomaterialia, 2021, 121, 339-348.

Enhanced osteogenic potential of phosphonated-siloxane hydrogel scaffolds

Frassica, M.T.; Jones, S.K.; Suriboot, J.; Arabiyat, A.; Ramirez, E.; Hahn, M.S.; Grunlan, M.A. “Enhanced osteogenic potential of phosphonated-siloxane hydrogel scaffolds,” Biomacromolecules, 2020, 21, 5189-5199.

Spatially controlled templated hydrogels for orthopedic interface regeneration

Frassica, M.T.; Demott, C.J.; Ramirez, E.M.; Grunlan, M.A. “Spatially controlled templated hydrogels for orthopedic interface regeneration,” ACS Macro Lett. 2020, 9, 1740-1744.

A comb architecture to control the selective diffusivity of a double network hydrogel

Dong, P.; Schott, B.J.; Means, A.K.; Grunlan, M.A. “A comb architecture to control the selective diffusivity of a double network hydrogel,” ACS Appl. Polym. Mater. 2020, 2, 5269–5277

Thromboresistance of polyurethanes modified with PEO-silane amphiphiles

Ngo, B.K.D.; Lim, K.K.; Johnson, J.C.; Jain, A.; Grunlan, M.A. “Thromboresistance of polyurethanes modified with PEO-silane amphiphiles,” Macromol. Biosci. 2020, 2000193.

Perspectives on synthetic materials to guide tissue regeneration for osteochondral defect repair

Frassica, M.T.; Grunlan, M.A. “Perspectives on synthetic materials to guide tissue regeneration for osteochondral defect repair,” ACS Biomater. Sci. Eng., 2020, 6, 4324-4336.

Mechanical isotropy and post-cure shrinkage of polydimethylsiloxane printed with digital light processing

Kim, D.S.; Suriboot, J.; Grunlan, M.A.; Tai, B.L. “Mechanical isotropy and post-cure shrinkage of polydimethylsiloxane printed with digital light processing,” Rapid Prototyping J. 2020, 26, 1447-1452

PCL-based shape memory polymer (SMP) semi-IPNs: The role of miscibility in tuning degradation rate

Pfau, M.R.; McKinzey, K.G.; Roth, A.A; Grunlan, M.A. “PCL-based shape memory polymer (SMP) semi-IPNs: The role of miscibility in tuning degradation rate,” Biomacromolecules, 2020, 6, 2493-2501.

Pumpless, ‘self-driven’ microfluidic channels with controlled blood flow using an amphiphilic silicon

Dogbevi, K.S.; Ngo, B.K.D.; Blake, C.W.; Grunlan, M.A.; Coté, G.L. “Pumpless, ‘self-driven’ microfluidic channels with controlled blood flow using an amphiphilic silicone,” ACS Appl. Polymer. Mater. 2020, 2, 1731-1738.

Thromboresistance of silicones modified with PEO-silane amphiphiles

Ngo, B.K.D.* Barry, M.E.; Lim, K.K.; Johnson, J.C.; Luna, D.J.; Pandian, N.K.R.; Jain, A.; Grunlan, M.A. “Thromboresistance of silicones modified with PEO-silane amphiphiles,” ACS Biomater. Sci. Eng., 2020, 6, 2029-2037.

Incorporation of a silicon-based polymer to PEG-DA templated hydrogel scaffolds for bioactivity and osteoinductivity

Frassica, M.T.; Jones, S.K.; Diaz-Rodriguez, P.; Hahn, M.S.; Grunlan, M.A. “Incorporation of a silicon-based polymer to PEG-DA templated hydrogel scaffolds for bioactivity and osteoinductivity,” Acta Biomaterialia, 2019, 99, 100-109.

Silicone 3D printing with an optically created dead zone

Kim, D.S.; Suriboot, J.; Grunlan, M.A.; Tai, B.L. “Silicone 3D printing with an optically created dead zone,” Addit. Manuf., 2019, 29, 100793.

A self-cleaning, mechanically robust membrane for minimizing the foreign body reaction: towards extending the lifetime of sub-Q glucose biosensors

Means, A.K.; Dong, P.; Clubb, Jr, F.J.; Friedemann, M.C.; Colvin, L.E.; Shrode, C.A.; Coté, G.L; Grunlan, M.A. “A self-cleaning, mechanically robust membrane for minimizing the foreign body reaction: towards extending the lifetime of sub-Q glucose biosensors,” J. Mater. Sci. Mater. Med. 2019, 30, 79.

Modern strategies to achieve tissue-mimetic, mechanically robust hydrogels

Means, A.K.; Grunlan, M.A. “Modern strategies to achieve tissue-mimetic, mechanically robust hydrogels,” ACS Macro Lett., 2019, 8, 705-713.

Double network hydrogels that mimic the modulus, strength and lubricity of cartilage

Means, A.K.; Shrode, C.A.; Whitney, L.V.; Ehrhardt, D.A.; Grunlan, M.A. “Double network hydrogels that mimic the modulus, strength and lubricity of cartilage,” Biomacromolecules, 2019, 20, 2034-2042.

Investigating the effect of an antifouling surface modification on the environmental impact of pasteurization process: An LCA study

Zouaghi, S.; Frémiot, J.; André, C.; Grunlan, M.A.; Gruescu, C.; Delaplace, G.; Duquesne, S.; Jimenez, M. “Investigating the effect of an antifouling surface modification on the environmental impact of pasteurization process: An LCA study,” ACS Sustainable Chem. Eng., 2019, 7, 9133-9142.

Stability of silicones modified with PEO-silane amphiphiles: Impact of structure and concentration

Ngo, B.K.D.; Lim, K.K.; Stafslien, S.J.; Grunlan, M.A. “Stability of silicones modified with PEO-silane amphiphiles: Impact of structure and concentration,” Polym. Degrad. Stab., 2019, 163, 136-142.

Hydrolytic degradation of PCL-PLLA semi-IPNs exhibiting rapid, tunable degradation

Woodard, L.N.; Grunlan, M.A. “Hydrolytic degradation of PCL-PLLA semi-IPNs exhibiting rapid, tunable degradation,” ACS Biomater. Sci. Eng., 2019, 5, 498-508.

Toward zonally-tailored scaffolds for osteochondral differentiation of synovial mesenchymal stem cells

Diaz-Rodriguez, P.; Erndt-Marino, J.; Munoz-Pinto, D.J.; Samavedi, S.; Beardon, R.; Grunlan, M.A.; Saunders, W.; Hahn, M.S. “Toward zonally-tailored scaffolds for osteochondral differentiation of synovial mesenchymal stem cells,” J. Biomed. Mater. Res. Part B: Appl. Biomat., 2019, 107B, 2019-2029.

A layer-by-layer (LbL) approach to retain an optical glucose sensing assay within the cavity of a hydrogel membrane

Locke, A.K.; Means, A.K.; Dong, P.; Nichols, T.J.; Coté, G.L.; Grunlan, M.A. “A layer-by-layer (LbL) approach to retain an optical glucose sensing assay within the cavity of a hydrogel membrane,” ACS Applied Bio Mater., 2018, 1, 1319-1327.

Foreign body reaction to a subcutaneously implanted self-cleaning, thermoresponsive hydrogel membrane for implanted glucose biosensors

Abraham, A.A.; Means, A.K.; Clubb, Jr, F.J.; Fei, R.; Locke, A.K.; Gacasan, E.G.; Coté, G.L; Grunlan, M.A. “Foreign body reaction to a subcutaneously implanted self-cleaning, thermoresponsive hydrogel membrane for implanted glucose biosensors,” ACS Biomater. Sci. Eng., 2018, 4, 4104-4111.

Antifouling amphiphilic silicone coatings for dairy fouling mitigation on stainless steel

Zouaghi, S.; Barry, M.E.; Bellayer, S.; Lyskawa, J.; André, C.; Delaplace, G.; Grunlan, M.A.; Jimenez, M. “Antifouling amphiphilic silicone coatings for dairy fouling mitigation on stainless steel,” Biofouling, 2018, 34, 769-783.

Hydrolytic degradation and erosion of polyester biomaterials

Woodard, L.N.; Grunlan, M.A.; “Hydrolytic degradation and erosion of polyester biomaterials,” ACS Macro Lett., 2018, 7, 976-982.

A canine in vitro model for evaluation of marrow-derived mesenchymal stromal cell-based bone scaffolds

Gharat, T.P.; Diaz-Rodriguez, P.; Erndt-Marino, J.D.; Jimenez Vergara, A.C.; Munoz Pinto, D.J.; Beardon, R.N.; Huggins, S.S.; Grunlan, M.; Saunders, W.B.; Hahn, M.S. “A canine in vitro model for evaluation of marrow-derived mesenchymal stromal cell-based bone scaffolds,” J. Biomed. Mater. Res. Part A, 2018, 106, 2382-2393.

Porous poly(caprolactone)-poly(L-lactic acid) semi-interpenetrating networks as superior, defect-specific scaffolds with potential for cranial bone defect repair

Woodard, L.N.; Kmetz, K.T.; Roth, A.A.; Page, V.M.; Grunlan, M.A. “Porous poly(-caprolactone)-poly(L-lactic acid) semi-interpenetrating networks as superior, defect-specific scaffolds with potential for cranial bone defect repair,” Biomacromolecules, 2017, 18, 4075-4083.

Thermoresponsive double network hydrogels with exceptional mechanical properties

Means, A.K.; Ehrhardt, D.A.; Whitney, L.V.; Grunlan, M.A. “Thermoresponsive double network hydrogels with exceptional mechanical properties,” Macromol. Rapid Comm., 2017, 38, 1700351-1700357.

Protein resistant polymeric biomaterials

Ngo, B.K.D.; Grunlan, M.A. “Protein resistant polymeric biomaterials,” ACS Macro Lett., 2017, 6, 992-1000.

Anti-protein and anti-bacterial behavior of amphiphilic silicones

Hawkins, M.L.; Schott, S.S.; Grigoryan, B.; Rufin, M.A.; Ngo, B.K.D.; Vanderwal, L.; Stafslien, S.J.; Grunlan, M.A. “Anti-protein and anti-bacterial behavior of amphiphilic silicones,” Polym. Chem., 2017, 8, 5239-5251.

Templated, macroporous PEG-DA hydrogels as tissue engineering scaffolds

Gacasan, E.G; Sehnert, R.M.; Ehrhardt, D.A.; Grunlan, M.A.. “Templated, macroporous PEG-DA hydrogels as tissue engineering scaffolds,” Macromol. Mater. Eng., 2017, 302, 16000512.

Antifouling silicones based on surface-modifying additive amphiphiles

Rufin, M.A.; Ngo, B.K.D.; Barry, M.E.; Page, V.M.; Hawkins, M.L.; Stafslien, S.J.; Grunlan, M.A.. “Anti-fouling silicones based on surface-modifying additive (SMA) amphiphiles,” Green Mater., 2017, 5, 1-10.

PCL-PLLA semi-IPN shape memory polymers (SMPs): Degradation and mechanical properties

Woodard, L.N.; Page, V.M.; Kmetz, K.T.; Grunlan, M.A.. “PCL-PLLA semi-IPN shape memory polymers (SMPs): Degradation and mechanical properties,” Macromol. Rapid Comm., 2016, 37, 1972-1977.

Protein resistance efficacy of PEO-silane amphiphiles: Dependence on PEO-segment length and concentration in silicone

Rufin, M.A.; Barry, M.A.; Adair, P.A.; Hawkins, M.L.; Raymond, J.E.; Grunlan, M.A.. “Protein resistance efficacy of PEO-silane amphiphiles: Dependence on PEO-segment length and concentration in silicone,” Acta Biomaterialia, 2016, 41, 247-252.

Self-cleaning, thermoresponsive P(NIPAAm-co-AMPS) double network membranes for implanted glucose biosensors

Fei, R., Means, A.K., Abraham, A.A.; Locked, A.K.; Coté; G.L.; Grunlan, M.A.. “Self-cleaning, thermoresponsive P(NIPAAm-co-AMPS) double network membranes for implanted glucose biosensors,” Macromol. Mater. Eng., 2016, 301, 935-943.

Non-toxic, anti-fouling silicones with variable PEO-silane amphiphiles content

Faÿ, F.; Hawkins, M.L.; Réhel, K.; Grunlan, M.A.; Linossier, I. “Non-toxic, anti-fouling silicones with variable PEO-silane amphiphiles content,” Green Mater., 2016, 4, 53-62.

Evaluation of the osteoinductive capacity of polydopamine-coated poly(ε-caprolactone) diacrylate shape memory foams

Erndt-Marino, J.D.; Munoz-Pinto, D.J.; Samavedi, S.; Jimenez-Vergara, A.C.; Woodard, L.; Zhang, D.; Grunlan, M.A..; Hahn, M.S. “Evaluation of the osteoinductive capacity of polydopamine-coated poly(ε-caprolactone) diacrylate shape memory foams,” ACS Biomat. Sci. Eng., 2015, 1, 1220-1230.

Fabrication of a bioactive, PCL-based ‘self-fitting’ shape memory polymer scaffold

Nail, L.N.; Zhang, D.; Reinhardt, J.; Grunlan, M.A.. “Fabrication of a bioactive, PCL-based ‘self-fitting’ shape memory polymer scaffold,” J. of Visualized Experiments (JOVE), 2015, 104, e52981.

Enhancing the protein resistance of silicone via surface-restructuring PEO-silane amphiphiles with variable PEO length

Rufin, M.A.; Gruetzner, J.A.; Hurley, M.J.; Hawkins, M.L.; Raymond, E.S.; Raymond, J.E.; Grunlan, M.A. “Enhancing the protein resistance of silicone via surface-restructuring PEO-silane amphiphiles with variable PEO length,” J. Mater. Chem. B. 2015, 3, 2816-2825.

Silicone membranes to inhibit water uptake into thermoset polyurethane shape-memory polymer conductive composites

Yu, Y.-J.; Infanger, S.; Grunlan, M.A.; Maitland, D.J. “Silicone membranes to inhibit water uptake into thermoset polyurethane shape-memory polymer conductive composites,” J. Appl. Polym. Sci. 2015, 132, 41226-41234.

A bioactive “self-fitting” shape memory polymer (SMP) scaffold with potential to treat cranio- maxillofacial (CMF) bone defects

Zhang, D.; George, O.J.; Petersen, K.M.; Jimenez-Vergara, A.C.; Hahn, M.S. Grunlan, M.A. “A bioactive “self-fitting” shape memory polymer (SMP) scaffold with potential to treat cranio- maxillofacial (CMF) bone defects,” Acta Biomaterialia, 2014, 10, 4597-4605.

Thermoresponsive double network micropillared hydrogels for cell release

Fei, R.; Hou, H.; Munoz-Pinto, D.; Han, A.; Hahn, M.S.; Grunlan, M.A. “Thermoresponsive double network micropillared hydrogels for cell release” Macromol. Biosci.; 2014, 14, 1346-1352.

Direct observation of the nanocomplex reorganization of antifouling silicones containing a highly mobile PEO-silane amphiphile

Hawkins, M.L.; Rufin, M.A.; Raymond, J.E.; Grunlan, M.A. “Direct observation of the nanocomplex reorganization of antifouling silicones containing a highly mobile PEO-silane amphiphile,” J. Mater. Chem. Part B, 2014, 2, 5689-5697.

Bacteria and diatom resistance of silicone modified with PEO-silane amphiphiles

Hawkins, M.L.; Fav, F.; E. Cheverau; Linossier, I.; Grunlan, M.A.“Bacteria and diatom resistance of silicone modified with PEO-silane amphiphiles,” Biofouling, 2014, 30, 247-258.

A self-cleaning membrane to extend the lifetime of an implanted glucose biosensor

Abraham, A.A.; Fei, R.; Coté, G.L.; Grunlan, M.A. “A self-cleaning membrane to extend the lifetime of an implanted glucose biosensor,” ACS Appl. Mater. & Interfaces, 2013, 5, 12832-12838.

Continuous gradient scaffolds for rapid screening of cell-material interactions and interfacial tissue engineering

Bailey, B.M.; Nail, L.N.; Grunlan, M.A. “Continuous gradient scaffolds for rapid screening of cell-material interactions and interfacial tissue engineering,” Acta Biomaterialia, 2013, 9, 8254-8261.

Ultra strong thermoresponsive hydrogels

Fei, R.; George, J.T.; Means, A.K.; Grunlan, M.A. “Ultra strong thermoresponsive hydrogels,” Soft Matter. 2013, 9, 2912-2919.

PDMS-PCL shape memory polymer (SMP) foams

Zhang, D.; Petersen, K.M.; Grunlan, M.A. “PDMS-PCL shape memory polymer (SMP) foams,” ACS Appl. Mater. & Interfaces. 2012, 5, 186-191.

PDMSstar-PEG hydrogels prepared via solvent-induced phase separation (SIPS) and their potential utility as tissue engineering scaffolds

Bailey, B.M.; Fei, R.; Munoz-Pinto, D.; Hahn, M.S.; Grunlan, M.A. “PDMSstar-PEG hydrogels prepared via solvent-induced phase separation (SIPS) and their potential utility as tissue engineering scaffolds,” Acta Biomaterialia, 2012, 8, 4324-4333.

An approach for assessing hydrogel hydrophobicity

Munoz-Pinto, D.; Grigoryan, B.; Long, J.; Grunlan, M.A.; Hahn, M.S. “An approach for assessing hydrogel hydrophobicity,” J. Biomed. Mater. Res. Part A, 2012, 100, 2855-2860.

Protein resistance of silicones prepared with a PEO-silane amphiphile

Hawkins, M.L.; Grunlan, M.A. “Protein resistance of silicones prepared with a PEO-silane amphiphile,” J. Mater. Chem. 2012, 22, 19540-19546.

Osteogenic potential of poly(ethylene glycol)-poly(dimethylsiloxane) hybrid hydrogels

Munoz-Pinto, D.; Jimenez-Vergara, A.; Hou, Y.; Hayenga, H.N., Grunlan, M.A.; Hahn, M.S. “Osteogenic potential of poly(ethylene glycol)-poly(dimethylsiloxane) hybrid hydrogels,” Tissue Eng. Part A 2012, 18, 1710-1719.

Porous inorganic-organic shape memory polymers

Zhang, D.; Burkes, W.L.; Schoener, C.A.; Grunlan, M.A. “Porous inorganic-organic shape memory polymers,” Polymer 2012, 53, 2935-2941.

Thermoresponsive nanocomposite double network nanocomposite hydrogels

Fei, R.; George, J.T.; Park, J., Grunlan, M.A. “Thermoresponsive nanocomposite double network nanocomposite hydrogels,” Soft Matter 2012, 8, 481-487.

Tuning PEG-DA hydrogel properties via solvent-induced phase separation (SIPS)

Bailey, B.M.; Hui, V.; Fei, R., Grunlan, M.A. “Tuning PEG-DA hydrogel properties via solvent-induced phase separation (SIPS),” J. Mater. Chem. 2011, 21, 18776-18782.

Thermoresponsive nanocomposite hydrogels with cell-releasing behavior

Hou, Y.; Matthews, A.R.; Smitherman, A.M.; Bulick, A.S.; Hahn, M.S.; Hou, H.; Han, A.; Grunlan, M.A. “Thermoresponsive nanocomposite hydrogels with cell-releasing behavior,” Biomaterials 2008, 29, 3175-3184.

Polycaprolactone-based shape memory polymers with variable polydimethylsiloxane soft segments

Zhang, D.; Giese, M.L.; Prukop, S.L.; Grunlan, M.A. “Polycaprolactone-based shape memory polymers with variable polydimethylsiloxane soft segments,” J. Polym. Sci., Part A: Polym. Chem., 2011, 49, 754-761.

Amphiphilic silicones prepared with branched PEO-silanes with siloxane tethers

Murthy, R.; Bailey, B.M.; Valentin-Rodriguez, C.; Ivanisevic, A.; Grunlan, M.A. “Amphiphilic silicones prepared with branched PEO-silanes with siloxane tethers,” J. Polym. Sci., Part A: Polym. Chem., 2010, 48, 4108-4119.

Micropatterning of poly(N-isopropylacrylamide) PNIPAAm hydrogels: Effects of thermosensitivity and cell release behavior

Hou, H.; Hou, Y.; Grunlan, M.A.; Munoz-Pinto, D.J.; Hahn, M.S.; Han, A. “Micropatterning of poly(N-isopropylacrylamide) PNIPAAm hydrogels: Effects of thermosensitivity and cell release behavior,” Sensors and Material, 2010, 22, 109-120.

Design of a self-cleaning thermoresponsive nanocomposite hydrogel membrane for implantable biosensors

Gant, R.; Abraham, A.; Hou, Y.; Grunlan, M.A.; Coté, G.L. “Design of a self-cleaning thermoresponsive nanocomposite hydrogel membrane for implantable biosensors,” Acta Biomaterialia, 2010, 6, 2903-2910.

Inorganic-organic hybrid scaffolds for osteochondral regeneration

Munoz-Pinto, D.J.; McMahon, R.E.; Kanzelberger, M.A.; Jimenez-Vergara, A.C.; Grunlan, M.A.; Hahn, M.S. “Inorganic-organic hybrid scaffolds for osteochondral regeneration,” J. Biomed. Mater. Res. Part A, 2010, 94, 112-121.

Photo-crosslinked PEO-PDMSstar hydrogels: Synthesis, characterization, and potential application for tissue engineering scaffolds

Hou, Y.; Schoener, C.A.; Regan, K.R.; Munoz-Pinto, D.; Hahn, M.S.; Grunlan, M.A. “Photo-crosslinked PEO-PDMSstar hydrogels: Synthesis, characterization, and potential application for tissue engineering scaffolds,” Biomacromolecules 2010, 11, 648-656.

Shape memory polymers with silicon-containing segments

Schoener, C.A.; Weyand, C.B.; Murthy, R.M.; Grunlan, M.A. “Shape memory polymers with silicon-containing segments,” J. Mater. Chem. 2010, 20, 1787-1793.

A thermoresponsive hydrogel poly(N-isopropylacrylamide) micropatterning method using microfluidics techniques

Hou, H.; Kim, W.; Grunlan, M.; Han, A. “A thermoresponsive hydrogel poly(N-isopropylacrylamide) micropatterning method using microfluidics techniques,” J. Micromech. Microeng. 2009, 19, 127001-127007.

Development of a self-cleaning sensor membrane for implantable biosensors

Gant, R.; Hou, Y.; Grunlan, M.A., Coté, G.L. “Development of a self-cleaning sensor membrane for implantable biosensors,” J. Biomed. Mater. Res. 2009, 90A, 695-701.

Biomechanical properties of synthetic and biologic graft materials following long-term implantation in the rabbit abdomen and vagina

Pierce, L.M.; Grunlan, M.A.; Hou Y.; Baumann, S.S.; Kuehl, T.J.; Muir, T.W. “Biomechanical properties of synthetic and biologic graft materials following long-term implantation in the rabbit abdomen and vagina,” Am. J. Obstet. Gynecol. 2009, 200, 549.e1-e8.

The influence of poly(ethylene oxide) grafting via siloxane tethers on protein adsorption

Murthy, R.; Shell, C.E.; Grunlan, M.A. “The influence of poly(ethylene oxide) grafting via siloxane tethers on protein adsorption” Biomaterials 2009, 30, 2433-2439.

Influence of hydrogel mechanical properties and mesh size on vocal fold fibroblast extracellular matrix production

Hahn, M.S.; Liao, H; Munoz-Pinto, D.; Xin, Q.; Hou, Y.; Grunlan, M.A.; “Influence of hydrogel mechanical properties and mesh size on vocal fold fibroblast extracellular matrix production,” Acta Biomaterialia 2008, 4, 1161-1171.

Thermoresponsive nanocomposite hydrogels with cell-releasing behavior

Hou, Y.; Matthews, A.R.; Smitherman, A.M.; Bulick, A.S.; Hahn, M.S.; Hou, H.; Han, A.; Grunlan, M.A. “Thermoresponsive nanocomposite hydrogels with cell-releasing behavior,” Biomaterials 2008, 29, 3175-3184.

Protein-resistant silicones: Incorporation of poly(ethylene oxide) via siloxane tethers

Murthy, R.; Cox, C.D.; Hahn, M.S.; Grunlan, M.A. “Protein-resistant silicones: Incorporation of poly(ethylene oxide) via siloxane tethers,” Biomacromolecules 2007, 8, 3244-3252.