BS Summary: This article contains 21 faulty reasoning types, including Appeal to Authority, Ambiguity (Equivocation), and Negativity Bias, with Post Hoc (False Cause) as the most egregious example at 24.1% saturation with 253 hits. Analysis detected 1,941 faulty-reasoning hits from 1,048 analyzed words, generating a BS Score of 37.4% and a BS Rank of 25% (16,454 of 21,887 articles). This article is better (less manipulative) than 75.20% of the article peer group.

The “techlash” against artificial intelligence is spreading, driven by workers’ fears of the technology’s potential to disrupt their jobs and upend their livelihoods. 
While such fears appear to be widespread, a closer understanding of where AI-exposed workers are concentrated and what political party they align with can be illuminating, as AI policy is poised to play an important role in this November’s elections. 
Yet research on AI’s “political geography” is narrow. 
Broad surveys suggest mixed or unclear disparities in U.S. voters’ views about the technology. 
Just a few weeks ago, a survey from the University of Pennsylvania’s Annenberg Public Policy Center flagged new pessimism about AI, a bipartisan demand for regulation, and a stronger tilt among Democrats toward intervention. 
In February, Data for Progress found opinions closely divided, with 48% of likely voters viewing AI favorably and 46% viewing it unfavorably. 
Around the same time, academic researchers Nicholas Bloom and Christos Makridis found that Democrats are more likely to use AI and to be employed in jobs with higher AI exposure. 
And last year, scholars Alexis Antoniades, Carlos Felipe Balcazar, Emmanouil Chatzikonstantinou, and Andreas Kern showed that counties with more job postings containing AI-related skills tend to have a higher Democratic vote share. 
This report adds to this limited understanding by analyzing the political behavior of voters in the locations where jobs are becoming involved with AI, as indicated by data from Anthropic. 
Such a look at how local jobs’ AI exposure lines up with local voting patterns in the last presidential election may offer signals about where and for whom AI could become an especially hot political issue. 
So, what does the AI political map look like, with its implications for sentiments toward AI and subsequent voting behavior? 
To explore the possible interplay of AI diffusion and political partisanship, we build here on Brookings’ earlier research to leverage AI “exposure” estimates for occupations as a way to map patterns of local AI impact against county election outcomes in the 2024 presidential election. 
In the earlier report, we used data from OpenAI to show that AI excels at supporting or executing activities such as conducting research, writing code, preparing analyses, creating marketing content, and drafting presentations—the types of highly cognitive, nonroutine tasks that better-educated, better-paid office workers carry out. 
Given that, the report found that the more involved workers are in high-level office or information-based work, the more involved they will be with AI. 
All of this has implications for the geography of AI engagement, with big city areas containing many of the white collar office workers being most affected. 
In this analysis, we draw on similar AI exposure estimates from Anthropic based on actual usage of their Claude model, which weighs automative uses (in which the model completes the task with little user input) twice as heavily as augmentative uses (in which humans collaborate with AI through learning, iterating, and validating to understand and get tasks done). 
We then construct a county-level exposure measure by weighting these occupation-level estimates by local employment numbers, so that each county’s exposure estimate reflects how its particular mix of occupations is involved with AI. 
Along these lines, we again find that the more involved workers are in office or information-based work, such as computer programming and marketing, the more involved they will be with AI. 
This again reinforces the urban focus of AI activity, which in turn gives hints toward the political nature of the places most exposed to AI. 
So, what do we find about the political geography of AI? 
First, we would caution that the politics suggested in our analysis remain an implied byproduct of “where people work and what skills they hold,” as Bloom and Makridis write, rather than a specific fact of actual ideological perspectives. 
With that said, our analysis reveals a strong relationship between AI involvement and local political partisanship. 
Specifically, our analysis reveals a strong correlation—albeit one without causality—between a county’s AI automation exposure score and its Democratic vote in the 2024 election. 
Figure 1 shows that 62 of the 100 most AI-exposed counties in the nation went “blue” in the 2024 presidential election. 
These counties make up 75% of the population of those 100 most AI-exposed counties, and between 14% and 19% of workers there are in occupations where AI is both theoretically capable of handling tasks and already being used to automate work more than augment it. 
Given those patterns (and acknowledging the lack of directly measured partisanship), highly exposed blue counties such as New York County; Broomfield County in the Denver area; San Francisco County; Boulder County, Colo.; Santa Clara County, Calif.; Hennepin County in the Minneapolis area; and King County in the Seattle area—and places like them—could be locations where AI turns out to be an object of special anxiety. 
The last presidential election’s swing states provide an interesting perspective as well. 
Most notably, Arizona and Georgia display very high AI exposure levels (and are among the 15 states most exposed to AI). 
For their part, Michigan, North Carolina, Pennsylvania, and Wisconsin exhibit moderate AI involvement. 
Nevada, in contrast, displays very low AI exposure, ranking last among states. 
As to what all of this means, it’s important to note that this analysis does not imply that blue counties and states are facing immediate job dislocation from AI automation, or that anxiety about AI automation in these places is by itself beginning to make more people vote Democratic. 
(Indeed, Antoniades, Balcazar, Chatzikonstantinou, and Kern present evidence that AI adoption generates jobs, attracts educated workers, and actually benefits Democrats.) 
What’s more, many longer-standing factors such as education levels in these places clearly prompt Democratic voting. 
Yet with that said, the simple correlation of AI automation and Democratic voting does suggest—as the economist Jed Kolko observed about industrial automation a decade ago—that AI exposure may turn out to be a source of economic and social concern especially in blue counties and states going forward. 
Simply put, on average, blue places concentrate workers in numerous occupations in which workers are right to feel more anxiety about AI-driven job dislocation than workers in red places. 
Therefore, going forward into this November’s midterm elections and beyond, America’s bluest counties may become hotbeds of some of the AI era’s most agitated voters. 
Article reasoning-pattern comparisonThis article: 8.0%Mark Muro: 2.8%Brookings: 4.3%Confirmation Bias8.0%This article: 4.2%Mark Muro: 1.0%Brookings: 0.7%Anchoring Bias4.2%This article: 3.5%Mark Muro: 0.3%Brookings: 2.5%Availability Heuristic3.5%This article: 10.2%Mark Muro: 0.9%Brookings: 0.8%Representativeness Heuristic10.2%This article: 0.0%Mark Muro: 0.3%Brookings: 0.7%Hindsight Bias0.0%This article: 14.1%Mark Muro: 2.6%Brookings: 2.6%Overconfidence Bias14.1%This article: 5.7%Mark Muro: 3.4%Brookings: 4.9%Framing Effect5.7%This article: 0.0%Mark Muro: 0.6%Brookings: 0.4%Loss Aversion0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.6%Status Quo Bias0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.1%Sunk Cost Effect0.0%This article: 1.9%Mark Muro: 0.2%Brookings: 3.0%Optimism Bias1.9%This article: 7.0%Mark Muro: 2.6%Brookings: 1.8%Pessimism Bias7.0%This article: 15.6%Mark Muro: 5.3%Brookings: 5.2%Negativity Bias15.6%This article: 0.0%Mark Muro: 0.0%Brookings: 0.6%Self-Serving Bias0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.7%Fundamental Attribution Error0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.1%Actor-Observer Bias0.0%This article: 0.0%Mark Muro: 0.8%Brookings: 0.6%In-Group Bias0.0%This article: 0.0%Mark Muro: 0.2%Brookings: 0.4%Out-Group Homogeneity Bias0.0%This article: 4.4%Mark Muro: 0.4%Brookings: 1.2%Halo Effect4.4%This article: 0.0%Mark Muro: 0.0%Brookings: 0.0%Horn Effect0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.0%Dunning-Kruger Effect0.0%This article: 9.0%Mark Muro: 1.0%Brookings: 1.1%Recency Bias9.0%This article: 7.8%Mark Muro: 0.7%Brookings: 0.2%Primacy Effect7.8%This article: 3.6%Mark Muro: 0.3%Brookings: 0.1%Blind-Spot Bias3.6%This article: 0.0%Mark Muro: 0.0%Brookings: 0.2%Ad Hominem0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.2%Straw Man0.0%This article: 20.8%Mark Muro: 3.5%Brookings: 3.6%Appeal to Authority20.8%This article: 0.0%Mark Muro: 0.0%Brookings: 1.8%False Dilemma0.0%This article: 8.6%Mark Muro: 0.9%Brookings: 1.3%Slippery Slope8.6%This article: 0.0%Mark Muro: 0.0%Brookings: 0.2%Circular Reasoning0.0%This article: 7.8%Mark Muro: 2.7%Brookings: 5.4%Hasty Generalization7.8%This article: 4.0%Mark Muro: 0.3%Brookings: 0.1%Red Herring4.0%This article: 0.0%Mark Muro: 0.2%Brookings: 0.2%Bandwagon0.0%This article: 5.0%Mark Muro: 1.2%Brookings: 2.0%Appeal to Emotion5.0%This article: 3.6%Mark Muro: 0.3%Brookings: 0.7%Begging the Question3.6%This article: 24.1%Mark Muro: 2.8%Brookings: 3.6%Post Hoc (False Cause)24.1%This article: 0.0%Mark Muro: 0.0%Brookings: 0.0%Tu Quoque0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.2%Burden of Proof0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.1%Appeal to Nature0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.3%Composition/Division0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 1.4%Anecdotal0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.1%No True Scotsman0.0%This article: 16.2%Mark Muro: 1.4%Brookings: 1.6%Ambiguity (Equivocation)16.2%This article: 0.0%Mark Muro: 0.0%Brookings: 0.0%Gambler’s Fallacy0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.1%Middle Ground0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.0%Personal Incredulity0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.1%Special Pleading0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.0%Genetic Fallacy0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 1.0%Unattributed Quote0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.3%Quote-first Misdirection0.0%This article: 0.0%Mark Muro: 0.2%Brookings: 2.3%Biased Writer Voice0.0%This article: 0.0%Mark Muro: 2.1%Brookings: 2.3%Indoctrination0.0%This article: 0.0%Mark Muro: 1.4%Brookings: 1.1%Politically Left Leaning Bias0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.2%Politically Right Leaning Bias0.0%This article: 0.0%Mark Muro: 0.0%Brookings: 0.8%Attempt to Sell a Product or S…0.0%

1048 words analyzed.

Speakers

5speakers21%attributed speech824writer words
Voice mapSelect a segment to jump to its words
Writer's voice • 6 words • 0.0% coverageWriter's voice • 23 words • 0.0% coverageWriter's voice • 40 words • 0.0% coverageWriter's voice • 8 words • 0.0% coverageWriter's voice • 14 words • 0.0% coverageUniversity of Pennsylvania’s Annenberg Public Policy Center • 34 words • 0.0% coverageData for Progress • 22 words • 0.0% coverageNicholas Bloom • 30 words • 0.0% coverageAlexis Antoniades • 32 words • 0.0% coverageWriter's voice • 30 words • 0.0% coverageWriter's voice • 36 words • 0.0% coverageWriter's voice • 20 words • 0.0% coverageWriter's voice • 44 words • 0.0% coverageWriter's voice • 46 words • 0.0% coverageWriter's voice • 25 words • 0.0% coverageWriter's voice • 26 words • 0.0% coverageWriter's voice • 58 words • 0.0% coverageWriter's voice • 33 words • 0.0% coverageWriter's voice • 31 words • 0.0% coverageWriter's voice • 25 words • 0.0% coverageWriter's voice • 11 words • 0.0% coverageNicholas Bloom • 38 words • 0.0% coverageWriter's voice • 16 words • 0.0% coverageWriter's voice • 24 words • 0.0% coverageWriter's voice • 21 words • 0.0% coverageWriter's voice • 45 words • 0.0% coverageWriter's voice • 65 words • 0.0% coverageWriter's voice • 12 words • 0.0% coverageWriter's voice • 21 words • 0.0% coverageWriter's voice • 13 words • 0.0% coverageWriter's voice • 12 words • 0.0% coverageWriter's voice • 49 words • 0.0% coverageAlexis Antoniades • 20 words • 0.0% coverageWriter's voice • 16 words • 0.0% coverageJed Kolko • 48 words • 0.0% coverageWriter's voice • 29 words • 0.0% coverageWriter's voice • 25 words • 0.0% coverage
Selected voice

Jed Kolko

100%flagged-word coverage
48 attributed words21% of attributed speech70% writer coverage

No manipulation-pattern hits were found in this speaker's attributed words or the writer's voice.

Attribution is sentence-level. Pattern percentages are calculated only from words assigned to that voice.

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Analysis

Hover over highlighted words in the article to view the associated bias or fallacy analysis.