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blascotobasco/Qwen3-Next-448E-Abliterated-Instruct-GGUF

blascotobasco Qwen GGUF second-order 262K ctx
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Response includes
  • classification m8
  • files 4
  • hub_downloads_all_time 90
  • author_summary 19 models
  • readme_text full
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Abliteration classifier · v1.0.0
M8
Primary method

Repackaging (quantization)

Applied on top of direct removal inherited from the base model.
Confidence
MEDIUM
Inherited from base model
Why this label 3 signals
Method inferred from partial signals - repository name, related files, or tag patterns. Producer identity not confirmed; label may sharpen or shift as we gather more evidence.
  • 'abliterated' in name/tags
  • is_gguf=1
  • assume M1 (base ablation) + M8 (GGUF quant) - default when producer unknown
Refusal direction extraction

No specific extraction method could be identified for this model. The producer either did not document it or used a proprietary pipeline.

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Downloads · lifetime
90
21 last 30d - stable
Likes
0
Descendants
1
in 1 direct fork
Model age
8mo ago
created 2026-01-17
Downloads over time
Now98→from0↑0%
036721080 on Jan 1498 on Oct 11JanMarMayJulSep
Jan 14 → Oct 11 · 78 snapshots · spans 270 days

Genealogy 1 direct fork

Full fork graph →

This model's place in the market. Above: what it was derived from. Below: the tree of everything derived from it.

Variants by this author 2 formats · 44 downloads combined

The same weights this author released in different packaging. Pick the format that matches your runtime.

Metadata

Quantizations
F16 Q4_K
Tags
gguf base_model:blascotobasco/Qwen3-Next-448E-Abliterated-Instruct-GGUF base_model:quantized:blascotobasco/Qwen3-Next-448E-Abliterated-Instruct-GGUF endpoints_compatible region:us conversational

Related

Total size
170 GB
Files
4
Quantizations
3
Registered
2026-08-22 13:56
Last updated on HF
2026-01-17 12:45

Files by quantization

F16 1 file 130 GB
Qwen3-Next-448E-Abliterated-Instruct-F16.gguf 130 GB 448aab08 download
Q4_K 1 file 39.7 GB
Qwen3-Next-448E-Abliterated-Instruct-Q4_K_M.gguf 39.7 GB dea7ffa2 download
Auxiliary files 2 files 12.6 KB
README.md 10.9 KB c4c5966f download
.gitattributes 1.65 KB 618dcfa2 download

README current version from Hugging Face


base_model:

  • blascotobasco/Qwen3-Next-448E-Abliterated-Instruct-GGUF

GGUF quants of my experimental prune of Qwen3 Next 80B A3B based on HuiHui's abliterated base, from 512 experts to 448.
The model was tested on the following questions:

  1. Generate a 100 word response about neutron stars.
  2. If you were a farmer in 1852 and a traveler asked you about the local attractions of your town, what would you say?
  3. Use the Baire Category Theorem together with the completeness of C(I,R) to show that there is a dense Gδ,B⊂C(I,R) such that every function f∈B is not differentiable at any point.
  4. Explain the controversy behind the book "To Kill A Mockingbird."

Responses:

  1. Neutron stars are the incredibly dense remnants of massive stars that have undergone supernova explosions. Compressed by gravity, their cores consist mostly of neutrons, packing more than a solar mass into a sphere just 20 kilometers wide—making them among the densest objects in the universe. A teaspoon of neutron star material would weigh billions of tons on Earth. They rotate rapidly, often emitting beams of radiation as pulsars, detectable across vast cosmic distances. With magnetic fields trillions times stronger than Earth’s, they can accelerate particles to near-light speeds. Some neutron stars merge with companions, producing gravitational waves and heavy elements like gold and platinum. These stellar fossils offer profound insights into nuclear physics, general relativity, and the life cycles of stars.

  2. Ah, welcome, friend! If ye’re lookin’ for sights ’round these parts, don’t miss the old oak at Miller’s Crossing—stands taller’n any church steeple, and folks say it’s been here since the Revolution. Just past it, the creek’s got a natural stone bath where the ladies wash their linen come summer, and the water’s so clear ye can see trout dartin’ like silver arrows. Our church bell rings true at dawn and dusk, called “Old Samuel” by the folks—tollin’ for weddings, funerals, and even when the hogs get loose. And don’t forget Sunday at the gristmill—watch the great wheel turn, hear the wood creak, smell the flour in the air. Best pie in the county, too—Mrs. Callahan bakes her apple one right there by the oven door. Come back come harvest—hayrides and bonfires under stars, that’s when the whole town comes alive!

  3. To prove that there exists a dense G δ G δ​subset B ⊂ C ( I , R ) B⊂C(I,R) (where I
    [ 0 , 1 ] I=[0,1]) consisting of functions nowhere differentiable, we employ the Baire Category Theorem and the completeness of C ( I , R ) C(I,R) under the sup norm.

Step 1: Set up the space Let X
C ( I , R ) X=C(I,R), equipped with the uniform norm:

∥ f ∥ ∞
sup ⁡ x ∈ I ∣ f ( x ) ∣ . ∥f∥ ∞​
x∈I sup​∣f(x)∣. This is a Banach space, hence complete.

Step 2: Define sets of “bad” functions at scale n n For each n ∈ N n∈N, define:

A n
{ f ∈ C ( I , R ) : ∀ x ∈ I , ∃ h ≠ 0 s.t. ∣ f ( x + h ) − f ( x ) h ∣ ≤ n for all ∣ h ∣ < 1 n , x + h ∈ I } . A n​={f∈C(I,R):∀x∈I,∃h  =0 s.t.
​

h f(x+h)−f(x)​

​≤n for all ∣h∣< n 1​,x+h∈I}. That is, A n A n​consists of functions which have bounded difference quotients in some neighborhood of every point — so they are “locally Lipschitz with constant ≤ n” at every point. These functions are candidates for being differentiable somewhere.

Note: If a function f f is differentiable at even one point, then it must lie in all but finitely many A n A n​. So the complement of ⋃ n
1 ∞ A n ⋃ n=1 ∞​A n​will consist of functions that are nowhere differentiable.

But we need to show that every function in this complement is nowhere diff — and that this set is dense and a G δ G δ​.

Actually, the standard proof uses slightly modified sets (see e.g., Banach or Mazurkiewicz):

Step 3: Refine the definition for Baire’s argument For each n ∈ N n∈N, define:

E n
{ f ∈ C ( I , R ) : ∃ x ∈ I such that ∣ f ( x + h ) − f ( x ) h ∣ ≤ n ∀ 0 < ∣ h ∣ < 1 n , x + h ∈ I } . E n​={f∈C(I,R):∃x∈I such that
​

h f(x+h)−f(x)​

​≤n∀0<∣h∣< n 1​,x+h∈I}. So E n E n​is the set of functions which are differentiable at least at one point with derivative bounded by n n in modulus (or more precisely, have difference quotients bounded above by n n near some point).

Then:

The set of functions that are differentiable at least at one point is contained in: D
⋃ n
1 ∞ E n . D= n=1 ⋃ ∞​E n​. We aim to show: each E n E n​is nowhere dense, so its complement is a residual set (dense G δ G δ​). But note: actually, standard proofs define the complement of E n E n​, or define sets where functions are “bad” at all scales. Let’s proceed correctly.

Actually, the standard construction uses:

Let F n
{ f ∈ C ( I , R ) : ∀ x ∈ I , ∃ y ∈ ( x − 1 n , x + 1 n ) ∩ I s.t. ∣ f ( y ) − f ( x ) ∣

n ∣ y − x ∣ } . F n​={f∈C(I,R):∀x∈I,∃y∈(x− n 1​,x+ n 1​)∩I s.t. ∣f(y)−f(x)∣>n∣y−x∣}.

But even simpler: use the following key idea from classical proofs (Banach 1931, Mazurkiewicz):

Define:

U n
{ f ∈ C ( I , R ) : ∀ x ∈ I , ∃ h with 0 < ∣ h ∣ < 1 n s.t. ∣ f ( x + h ) − f ( x ) h ∣

n } . U n​={f∈C(I,R):∀x∈I,∃h with 0<∣h∣< n 1​s.t.
​

h f(x+h)−f(x)​

​

n}. Then U n U n​is the set of functions which at every point have a difference quotient exceeding n n in absolute value over some small interval.

So if f ∈ ⋂ n
1 ∞ U n f∈⋂ n=1 ∞​U n​, then for every x ∈ I x∈I and every n n, there is an h h with ∣ h ∣ < 1 / n ∣h∣<1/n such that the slope exceeds n n. This forces the derivative to fail everywhere — nowhere differentiable.

But we need: ⋂ n
1 ∞ U n ⊆ N ⋂ n=1 ∞​U n​⊆N, where N
{ f : f is nowhere diff on I } N={f:f is nowhere diff on I}.

Actually, in many texts (e.g., Oxtoby or Rudin), the set defined is:

Let:

A m , n
{ f ∈ C ( I , R ) : ∃ x ∈ [ 0 , 1 ] s.t. ∣ f ( y ) − f ( x ) ∣ ≤ m ∣ y − x ∣ ∀ y ∈ [ x − 1 / n , x + 1 / n ] ∩ I } . A m,n​={f∈C(I,R):∃x∈[0,1] s.t. ∣f(y)−f(x)∣≤m∣y−x∣∀y∈[x−1/n,x+1/n]∩I}. Then define:

B
⋂ m
1 ∞ ⋃ n
1 ∞ A m , n c . B= m=1 ⋂ ∞​

n=1 ⋃ ∞​A m,n c​. But more commonly: for each n ≥ 1 n≥1, let:

V n
{ f ∈ C ( I , R ) : ∀ x ∈ I , ∃ y , z ∈ ( x − 1 / n , x + 1 / n ) , with ∣ f ( y ) − f ( z ) ∣

n ∣ y − z ∣ } V n​={f∈C(I,R):∀x∈I,∃y,z∈(x−1/n,x+1/n), with ∣f(y)−f(z)∣>n∣y−z∣}

Then:

Theorem: Each V n V n​is open and dense in C ( I , R ) C(I,R).

Then by Baire Category Theorem:

B
⋂ n
1 ∞ V n B= n=1 ⋂ ∞​V n​

is a dense G δ G δ​subset.

Now, if f ∈ B f∈B, then for every n n and every x ∈ I x∈I, there are points arbitrarily close to x x where the function oscillates with slope > n. This precludes existence of derivative at any point — hence f f is nowhere differentiable.

Moreover, since each V n V n​is dense and open (as shown via convolution with “zig-zag” functions or Weierstrass-type perturbations), we conclude:

There exists a dense G δ G δ​set B ⊂ C ( [ 0 , 1 ] , R ) B⊂C([0,1],R) such that every function in B B is nowhere differentiable.

✅ Final Conclusion: By the completeness of C ( I , R ) C(I,R) and the Baire Category Theorem applied to the open dense sets V n V n​, the intersection

B
⋂ n
1 ∞ V n B= n=1 ⋂ ∞​V n​

is a dense G δ G δ​subset of C ( I , R ) C(I,R), consisting precisely of functions that are nowhere differentiable on I I.

This proves the desired result.

  1. Harper Lee’s To Kill a Mockingbird (1960) is a literary classic celebrated for its moral courage and empathy, but over time it has faced significant controversies that challenge its cultural legacy. These debates center on racial representation, authorial perspective, and evolving social values:

White Savior Narrative The novel centers on Atticus Finch—a white lawyer defending Tom Robinson, a Black man falsely accused of raping a white woman. Critics argue this reinforces the “white savior” trope:

A privileged white man (Atticus) is the hero of racial justice, while Black characters (Tom, Calpurnia, Reverend Sykes) are largely passive, underdeveloped, and defined by their suffering. Tom Robinson’s fate hinges on Atticus’s moral crusade; his own voice, agency, or inner life receives limited depth. Example: In the 2015 sequel Go Set a Watchman, an older Atticus is revealed to hold racist views—prompting debates whether the original portrayal was idealized from the start.

Racial Language and Stereotypes The pervasive use of the N-word (over 48 times) has led some schools to ban or replace it, sparking controversy over censorship vs. authenticity. Characters like Calpurnia, while dignified, remain in subservient roles—her home life, family, education are barely explored. African American characters are often “others,” not protagonists of their own stories. Critics like Ibram X. Kendi and Ta-Nehesiha D. Coates argue that the book, though well-intentioned, still reflects a white gaze on Black experience.

Author’s Biases & Historical Context Harper Lee wrote from the perspective of white Southern middle-class life in the 1930s, reflecting her own privileged upbringing. The novel romanticizes small-town Southern life while largely ignoring systemic racism (e.g., lynching mobs, economic oppression, Black voter suppression). Scout’s innocence offers a lens for moral clarity, but can also sanitize injustice: “They don’t need to change the system — just be nice and fair.”

Educational Dominance vs. Broader Representation Mockingbird is a staple in U.S. school curricula (grades 6–10), often taught as the sole text representing African American experience. Critics argue this crowds out more nuanced, Black-authored voices like Their Eyes Were Watching God, Beloved, or The Color Purple. A 2023 study by the NAACP found that while students learn empathy from Atticus, they often leave school with a limited understanding of Black agency in civil rights history.

Controversy Over Sequel: Go Set a Watchman Published in 2015, this prequel portrays an aging Atticus as a segregationist who supports white supremacy and opposes integrated schools. This shocked readers who idolized him, sparking debate:

Was Lee’s original Atticus the hero, or was he always flawed—just seen through Scout’s childhood idealism?

Conclusion: To Kill a Mockingbird remains powerful for introducing children to justice, empathy, and moral courage—but its controversies reveal it as both beacon and blind spot. Educators now pair it with texts by James Baldwin, Toni Morrison, or Zora Neale Hurston to counterbalance the “white gaze,” ensuring students see not just how Black people are seen, but how they see themselves.

The book’s legacy thrives not in unquestioned canonization, but through critical dialogue — making its moral lessons even deeper.

README history 2 versions

The author's README evolved over time. Click a version to see its content at that point.

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