| Nielsen, G.H., Sachs, J.N., and Hackel, B.J., “Engineering affibody binders to death receptor 5 and tumor necrosis factor receptor 1 with improved stability” Biotech. Bioengr. accepted. |
| https://pubs.acs.org/doi/10.1021/acs.molpharmaceut.4c01177 |
| Collins, J.R., McConnell, A., Schmitz, Z., and Hackel, B.J., “Sequence-function mapping of proline-rich antimicrobial peptides” bioRxiv 2024. |
| Huang, M., Rueda-Garcia, M., Harthorn, A., Hackel, B.J., and Van Deventer, J., “Systematic evaluation of protein-small molecule hybrids on the yeast surface” ACS Syn. Bio. 2024 accepted. |
| Blanchard, P.L., Knick, B., Whelan, S., and Hackel, B.J., “Hyperstable synthetic mini-proteins as effective ligand scaffolds” ACS Syn. Bio. 2023 doi: 10.1021/acssynbio.3c00409. |
| McConnell, A., Hackel, B.J., "Protein engineering via sequence-performance mapping" Cell Systems 2023. |
| Huang, M., Rueda-Garcia, M., Harthorn, A., Hackel, B.J., Van Deventer, J., "Systematic evaluation of protein-small molecule hybrids on the yeast surface" bioRxiv 2023. |
| Crabtree, A., Boehnke, N., Bates, F., Hackel, B.J., "Consequences of poly(ethylene oxide) and poloxamer P188 on transcription in healthy and stressed myoblasts" PNAS 2023. |
![]() | DeJong, M., Ritter, S., Fransen, K., Tresnak, D., Golinski, A., Hackel, B.J. "A Platform for Deep Sequence-Activity Mapping and Engineering Antimicrobial Peptides" ACS Synthetic Biology 2021. |
![]() | Lewis, A., Harthorn, A., Johnson, S., Lobb, R., Hackel, B.J. "Engineered protein-small molecule conjugates empower selective enzyme inhibition" Cell Chemical Biology 2021. |
![]() | Vunnam, N., Szymonski, S., Hirsova, P., Gores, G.J., Sachs, J.N., Hackel, B.J. "Noncompetitive Allosteric Antagonism of Death Receptor 5 by a Synthetic Affibody Ligand" ACS Biochemistry 2020. |
![]() | Tresnak, D.T., Hackel, B.J. "Mining and statistical modeling of natural and variant class IIa bacteriocins elucidates activity and selectivity profiles across species" Appl. Environ. Microbiol. 2020. |
![]() | Lown, P.S., Hackel, B.J. "Magnetic Bead-Immobilized Mammalian Cells Are Effective Targets to Enrich Ligand-Displaying Yeast" ACS Combinatorial Science 2020. |





























































