Kamala Harris and Oprah unite for livestream event in Michigan
- Kamala Harris will join Oprah Winfrey for a livestream event in Michigan on Thursday from 8 to 10 p.m.
- The event will feature 140 grassroots organizations and is part of Harris' ongoing campaign efforts in the state.
- Harris' campaign is significantly outspending Trump's campaign in television advertising, indicating strong support and outreach.
Vice President Kamala Harris is set to participate in a livestream event alongside Oprah Winfrey, scheduled for Thursday from 8 to 10 p.m. in Michigan. This event, titled "Unite for America," will be filmed at an undisclosed location and aims to engage grassroots organizations, with 140 different groups featured during the stream. This marks Harris' third visit to Michigan since she began her presidential campaign, highlighting her commitment to the state and its voters. During her previous visit, Harris focused on labor issues, engaging with union leaders and workers in Detroit, where she emphasized her dedication to putting workers first. Oprah, who has publicly endorsed Harris, previously spoke at the 2024 Democratic National Convention, further solidifying her support for the Vice President. The collaboration between these two influential figures is expected to energize the Democratic base ahead of the upcoming election. In contrast, former President Donald Trump is also making his presence felt in Michigan, with a town hall scheduled in Flint next week, moderated by Arkansas Governor Sarah Huckabee Sanders. This indicates a competitive political landscape in the state, as both parties ramp up their outreach efforts. Harris' campaign is reportedly outpacing Trump's in terms of television advertising, with a significant financial advantage. The campaign has mobilized extensive grassroots efforts, including over 500,000 door knocks in Wisconsin and the recruitment of more than 3,000 new volunteers since a recent debate. This strategic approach aims to solidify support in battleground states as the election approaches.