Press Release

Adjunct Professor of English Carlie Hoffman, MFA, Wins National Jewish Book Award

By
Amanda Delfino
Posted
April 11, 2024
Image
Pace University's Adjunct Professor of English Carlie Hoffman, MFA

Adjunct Professor of English Carlie Hoffman, MFA, received a 2024 National Jewish Book Award for her poetry collection entitled When There Was Light.

Hoffman was awarded the Berru Award in Poetry in Memory of Ruth and Bernie Weinflash. Now in its 73rd year, the National Jewish Book Awards is a prestigious and long-running program of the National Jewish Council. This year, more than 100 judges reviewed over 650 submissions.

When There Was Light is Hoffman’s second published poetry collection, following her debut This Alaska, and explores themes of identity, heritage, family, and loss.

Image
Pace University's Adjunct Professor of English Carlie Hoffman's book of poems called "When There Was Light"

“Carlie Hoffman’s When There Was Light shows a mastery of thinking through language,” said Sean Singer, National Jewish Book Award judge. “When There Was Light adds to Jewish poetics not only in its subjects, but in its system of thought: an area of doubts, wishes, and possibilities.”

Hoffman won a Northern California Publishers and Authors Gold Award in Poetry for This Alaska and was a finalist for the Foreword INDIES Book of the Year Award. She’s also received a 92Y/Discovery Prize and an Amy Award from Poets & Writers.

More from Pace

In the Media

Dyson Professor Seong Jae Min writes an op-ed in The Korea Times reflecting on the growing pressure people feel to keep pace with rapid advances in artificial intelligence. Professor Min explores how the race to master new AI tools can fuel anxiety and burnout even as the technology boosts productivity, highlighting the continued importance of critical thinking, creativity, and ethical judgment in an AI-driven world.

In the Media

Dyson Professor Matthew Aiello-Lammens speaks with News12 following a retaining wall collapse in Yonkers, explaining how saturated soil and hydrostatic pressure—combined with freeze-thaw cycles—can place significant stress on retaining structures.