Dominant in-plane anomalous Hall effect in a monoclinic room-temperature ferromagnet

Arjyama Bordoloi; Guoxin Zheng; Hiraku Saito; Linda Ye; Mingjun Fan; Shunsuke Kitou; Sobhit Singh; Takashi Kurumaji; Taro Nakajima

arxiv: 2606.10063 · v2 · pith:KX33PL45new · submitted 2026-06-08 · ❄️ cond-mat.mtrl-sci

Dominant in-plane anomalous Hall effect in a monoclinic room-temperature ferromagnet

Guoxin Zheng , Arjyama Bordoloi , Mingjun Fan , Shunsuke Kitou , Hiraku Saito , Taro Nakajima , Sobhit Singh , Takashi Kurumaji

show 1 more author

Linda Ye

This is my paper

Pith reviewed 2026-06-27 15:33 UTC · model grok-4.3

classification ❄️ cond-mat.mtrl-sci

keywords anomalous Hall effectin-plane Hall effectmonoclinic Cr3Te4mirror symmetry breakingroom-temperature ferromagnetWeyl pointsspintronicsmagnetic sensing

0 comments

The pith

Mirror symmetry breaking in monoclinic Cr3Te4 produces an in-plane anomalous Hall effect five times larger than the out-of-plane response.

A machine-rendered reading of the paper's core claim, the machinery that carries it, and where it could break.

The paper establishes that monoclinic Cr3Te4, a room-temperature ferromagnet, can be engineered through specific crystallographic mirror symmetry breaking to yield a strongly enhanced in-plane anomalous Hall effect. This in-plane Hall signal exceeds the conventional out-of-plane response by a factor of five. The enhanced response supports unique sensing of magnetic fields and currents lying within the plane of the material. Density functional theory calculations connect the effect to near-Fermi-level Weyl points in low-symmetry structures, positioning such ferromagnets as a platform for symmetry-controlled transport.

Core claim

Through engineering specific crystallographic mirror symmetry-breaking, a strongly enhanced in-plane anomalous Hall response is realized in monoclinic Cr3Te4 with room-temperature ferromagnetism. The in-plane anomalous Hall signal exceeds the out-of-plane response by a factor of five, enabling a unique in-plane field and current sensing functionality. Low-crystalline-symmetry ferromagnets with near-Fermi-level Weyl points serve as a practical platform for symmetry-engineered Hall responses toward room-temperature geometry-flexible sensing devices.

What carries the argument

Crystallographic mirror symmetry breaking in the monoclinic Cr3Te4 lattice, which permits an anomalous Hall current component lying in the same plane as the magnetization.

If this is right

Room-temperature ferromagnetism combined with the in-plane Hall response enables practical in-plane magnetic field sensing.
The same response supports in-plane current sensing functionality in a single material.
Low-crystalline-symmetry ferromagnets become viable platforms for geometry-flexible spintronic devices.
Near-Fermi-level Weyl points in such structures contribute to the enhanced symmetry-engineered Hall response.

Where Pith is reading between the lines

These are editorial extensions of the paper, not claims the author makes directly.

The symmetry-engineering approach could be tested in other chromium telluride compositions to isolate the role of the monoclinic distortion.
Device layouts that keep both current and magnetization in-plane may simplify fabrication compared with conventional out-of-plane geometries.
If the Weyl-point contribution is confirmed, similar responses might appear in other low-symmetry room-temperature magnets without requiring heavy-element doping.

Load-bearing premise

The dominant in-plane anomalous Hall effect arises specifically from the crystallographic mirror symmetry breaking in monoclinic Cr3Te4 rather than from other mechanisms or experimental artifacts.

What would settle it

Measurement of the anomalous Hall response in a higher-symmetry phase or differently oriented crystal of Cr3Te4 that restores the relevant mirror symmetry, showing that the in-plane signal no longer exceeds the out-of-plane signal by a large factor.

Figures

Figures reproduced from arXiv: 2606.10063 by Arjyama Bordoloi, Guoxin Zheng, Hiraku Saito, Linda Ye, Mingjun Fan, Shunsuke Kitou, Sobhit Singh, Takashi Kurumaji, Taro Nakajima.

**Figure 2.** Figure 2: b shows representative Hall resistivity ρyx measured as a function of applied magnetic field H oriented within the xy plane (red curve) and perpendicular to the xy plane (blue curve) at T = 300 K. For the selected orientation of in-plane field, ρyx exhibits a prototypical anomalous Hall response that closely tracks the in-plane magnetization (see SI Sec. IV), with a negligible linear-in-H ordinary Hall… view at source ↗

**Figure 3.** Figure 3: FIG. 3 [PITH_FULL_IMAGE:figures/full_fig_p004_3.png] view at source ↗

**Figure 4.** Figure 4: FIG. 4 [PITH_FULL_IMAGE:figures/full_fig_p006_4.png] view at source ↗

read the original abstract

Ferromagnetic metals are characterized by enhanced dissipationless transverse transport responses via the anomalous Hall effect, offering a route towards magnetic sensing and spintronic readout functionalities. In most ferromagnets, the anomalous Hall current is constrained to lie in the plane perpendicular to the magnetization (or applied magnetic field). Recently, it has been recognized that selected symmetries can also permit a Hall response in a traditionally forbidden configuration, where the Hall current lies in the same plane as the magnetization, realizing an in-plane anomalous Hall effect. Reported realizations of this effect, however, are typically much weaker than the conventional Hall response in the same material. Here, through engineering specific crystallographic mirror symmetry-breaking, we realize a strongly enhanced in-plane anomalous Hall response in monoclinic Cr3Te4 with room-temperature ferromagnetism. Remarkably, the in-plane anomalous Hall signal exceeds the out-of-plane response by a factor of five, with which we demonstrate a unique in-plane field and current sensing functionality. Combined with density functional theory calculations, our results establish low-crystalline-symmetry ferromagnets with near-Fermi-level Weyl points as a practical platform for symmetry-engineered Hall responses, and point to a route towards room-temperature, geometry-flexible sensing devices.

Editorial analysis

A structured set of objections, weighed in public.

Desk editor's note, referee report, simulated authors' rebuttal, and a circularity audit. Tearing a paper down is the easy half of reading it; the pith above is the substance, this is the friction.

Desk Editor's Note private letter to a colleague

Cr3Te4 shows a room-temperature in-plane AHE five times larger than the out-of-plane response, tied to its monoclinic symmetry and Weyl points.

read the letter

The main takeaway is that this work finds a monoclinic Cr3Te4 ferromagnet with room-temperature operation where the in-plane anomalous Hall signal is five times stronger than the usual out-of-plane one, and they show a sensing demo with in-plane fields and currents.

What stands out is the experimental observation paired with DFT that links the enhancement to mirror symmetry breaking and near-Fermi-level Weyl points. The paper adds a concrete material example to the recent recognition of in-plane AHE, and the practical sensing part gives it a device-oriented angle that goes beyond pure transport.

The soft spot is the causal claim: the abstract attributes the dominance specifically to the crystallographic mirror breaking, but without the full measurement details, error bars, or geometry controls visible here, it's not yet clear how firmly other mechanisms or setup artifacts are ruled out. The low soundness score in the reader's note tracks with that missing layer.

This is for experimentalists in spintronics and magnetic transport who care about room-temperature materials and symmetry-engineered responses. A reader building sensors or studying low-symmetry magnets would get direct value from the result.

Send it to peer review. The observation is specific and the calculations provide a starting point for discussion, so referees can assess the data quality and the symmetry argument.

Referee Report

0 major / 3 minor

Summary. The manuscript reports experimental realization of a dominant in-plane anomalous Hall effect (AHE) in monoclinic Cr3Te4, a room-temperature ferromagnet, via crystallographic mirror symmetry breaking. The in-plane AHE exceeds the conventional out-of-plane response by a factor of five; this is supported by DFT calculations identifying near-Fermi-level Weyl points and is used to demonstrate in-plane field/current sensing functionality.

Significance. If the central experimental claim holds, the work establishes low-symmetry ferromagnets as a practical platform for symmetry-engineered Hall responses at room temperature. The reported factor-of-five enhancement over prior in-plane AHE realizations, combined with direct sensing demonstration and DFT support, would represent a clear advance for geometry-flexible spintronic devices. The experimental-theoretical pairing is a strength.

minor comments (3)

§3 (Results): The factor-of-five ratio between in-plane and out-of-plane AHE is stated without explicit tabulation of the raw resistivity values or error propagation; adding a supplementary table with measured ho_xy components at fixed B and T would strengthen reproducibility.
Fig. 4: The DFT band-structure panels lack explicit labeling of the Weyl-point locations relative to E_F; a zoomed inset or table of coordinates would clarify the claimed connection to the enhanced in-plane response.
Methods: Sample orientation and current/magnetization directions for the in-plane geometry are described qualitatively; a schematic with Miller indices and vector definitions would remove ambiguity for readers attempting replication.

Simulated Author's Rebuttal

0 responses · 0 unresolved

We thank the referee for their positive evaluation of our manuscript, accurate summary of the central claims, and recommendation for minor revision. We appreciate the recognition of the experimental realization, the factor-of-five enhancement, the sensing demonstration, and the DFT support as a clear advance.

Circularity Check

0 steps flagged

No significant circularity detected

full rationale

The paper reports an experimental realization of dominant in-plane anomalous Hall effect in monoclinic Cr3Te4, attributing it to mirror symmetry breaking, with supporting DFT calculations. The central claims rest on direct measurements (factor-of-five enhancement, room-temperature operation) and symmetry-allowed responses rather than any mathematical derivation chain. No steps reduce predictions to fitted inputs by construction, invoke load-bearing self-citations, or smuggle ansatzes; the result is presented as an observation with independent theoretical support. This is the expected outcome for an experimental materials paper without a closed-form derivation that collapses to its own inputs.

Axiom & Free-Parameter Ledger

0 free parameters · 1 axioms · 0 invented entities

The central claim rests on experimental measurements in Cr3Te4 and DFT interpretation of symmetry effects, with no free parameters or invented entities explicitly mentioned in the abstract.

axioms (1)

domain assumption Crystallographic mirror symmetry breaking permits an in-plane anomalous Hall effect
Invoked in the abstract to explain the enhanced response

pith-pipeline@v0.9.1-grok · 5778 in / 1070 out tokens · 22822 ms · 2026-06-27T15:33:51.364373+00:00 · methodology

discussion (0)

Reference graph

Works this paper leans on

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2025

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Heterodimensional superlattice with in-plane anomalous hall effect,

Jiadong Zhou, Wenjie Zhang, Yung-Chang Lin, Jin Cao, Yao Zhou, Wei Jiang, Huifang Du, Bijun Tang, Jia Shi, Bingyan Jiang,et al., “Heterodimensional superlattice with in-plane anomalous hall effect,” Nature609, 46–51 (2022)

2022

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Jie Chen, Hang Li, Bei Ding, Peng Chen, Tengyu Guo, Xing Xu, Dongfeng Zheng, Hongwei Zhang, Xuekui Xi, and Wenhong Wang, “Unconventional anomalous hall effect in the canted antiferromagnetic half-heusler compound dyptbi,” Advanced Functional Materials32, 2107526 (2022)

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2023

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2023

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2025

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Competing magnetic phases in cr 3+δte4 are spatially segregated,

Vivek Bhartiya, Anirban Goswami, Nicholas Ng, Wei Tian, Matthew G Tucker, Niraj Aryal, Lijun Wu, Weiguo Yin, Yimei Zhu, Milinda Abeykoon,et al., “Competing magnetic phases in cr 3+δte4 are spatially segregated,” arXiv preprint arXiv:2512.06262 (2025)

Pith/arXiv arXiv 2025

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Investigation of the anomalous and topological hall effects in layered mon- oclinic ferromagnet cr 2.76 te 4,

Shubham Purwar, Achintya Low, Anumita Bose, Awad- hesh Narayan, and S Thirupathaiah, “Investigation of the anomalous and topological hall effects in layered mon- oclinic ferromagnet cr 2.76 te 4,” Physical Review Mate- rials7, 094204 (2023)

2023

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Arne F Andresen, E Zeppezauer, T Boive, B Nord- str¨ om, and C-I Br¨ and´ en, “The magnetic structure of cr2te3, cr3te4, and cr5te6.” Acta Chemica Scandinavica 24, 3495–3509 (1970)

1970

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Kimberly A Modic, Brad J Ramshaw, JB Betts, Nicholas P Breznay, James G Analytis, Ross D McDon- ald, and Arkady Shekhter, “Robust spin correlations at high magnetic fields in the harmonic honeycomb iri- 9 dates,” Nature communications8, 180 (2017)

2017

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Spontaneous in-plane anomalous hall response observed in a ferromagnetic oxide,

Shinichi Nishihaya, Yuta Matsuki, Haruto Kaminaka- mura, Hiroki Sugeno, Ming-Chun Jiang, Yoshiya Mu- rakami, Ryotaro Arita, Hiroaki Ishizuka, and Masaki Uchida, “Spontaneous in-plane anomalous hall response observed in a ferromagnetic oxide,” Advanced Materials 37, e02624 (2025)

2025

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Observation of the in-plane anomalous hall effect induced by octupole in magnetiza- tion space,

Wenzhi Peng, Zheng Liu, Haolin Pan, Peng Wang, Yu- long Chen, Jiachen Zhang, Xuhao Yu, Jinhui Shen, Ming- min Yang, Qian Niu,et al., “Observation of the in-plane anomalous hall effect induced by octupole in magnetiza- tion space,” arXiv preprint arXiv:2402.15741 (2024)

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