A Review on Improving PSC Performance through Charge Carrier Management: Where We Stand and What's Next?

Dilshod Nematov

REVIEW 6 major objections 6 minor 228 references

A Review on Improving PSC Performance through Charge Carrier Management: Where We Stand and What's Next?

T0 review · 6 major / 6 minor · reviewed 2026-08-06 · deepseek-v4-flash

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Pith's one-line read This review argues that simultaneous control over carrier lifetime, mobility, trap passivation, and interface engineering—not any single strategy—is what can make perovskite solar cells efficient and stable.

desk verdict A useful but sloppy review; its own summary ranges contradict the paper's headline data. read the letter →

arxiv 2506.21645 v1 pith:32CVBUYK submitted 2025-06-26 cond-mat.mtrl-sci physics.app-ph

Dilshod Nematov This is my paper

classification cond-mat.mtrl-sciphysics.app-ph

keywords perovskitesolarcellschargecarriermanagementlifetimemobilitytrappassivationinterfaceengineeringdevicestabilitylead-freeperovskites

verification ladder T0 review T1 audit T2 compute T3 formal

The pith

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

The reading

This review argues that the remaining barriers to commercial perovskite solar cells are fundamentally charge-carrier problems: carriers must be generated, transported, and extracted before they recombine, and defects and interfaces waste that opportunity. It claims that no single additive, transport layer, or passivation molecule is sufficient; the field's record devices come from combining prolonged carrier lifetimes, higher mobility, trap passivation, and engineered interfaces. By tabulating more than thirty recent studies, the review identifies which strategy combinations produce the largest gains in open-circuit voltage, fill factor, and stability. The reader should care because the paper offers a practical map for where the next efficiency and stability gains are likely to come from.

What carries the argument

The central object is the pair of transport parameters—carrier lifetime ($\tau$) and mobility ($\mu$)—treated together with trap-state passivation and energy-level alignment at the ETL/perovskite and HTL/perovskite interfaces. The review uses these quantities as the axes along which all strategies are categorized and compared, and it argues that only their simultaneous improvement suppresses non-radiative recombination and enables stable high-efficiency devices. Time-resolved diagnostics such as TRPL, transient absorption, THz spectroscopy, and transient photovoltage decay supply the reported values.

What would settle it

Re-measuring the charge-transfer lifetimes in Table 1 for one listed architecture (for example, Spiro-MeOTAD/CH3NH3PbI3) under a single excitation wavelength and fluence would show whether the 0.7 ns to 50 ns spread is genuine material variation or an artifact of differing measurement conditions; if the spread collapses, the comparative rankings lose their force.

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Extended reading notes

Core claim

The review's central claim is that comprehensive control over charge carriers—lengthening carrier lifetimes, increasing mobility, passivating traps, and engineering both the electron- and hole-selective interfaces—plays a central role in overcoming current limitations in perovskite solar cells. It holds that these levers are interdependent: film morphology and grain orientation control recombination, ion migration perturbs transport, and interfacial defects dominate open-circuit voltage losses. The paper therefore concludes that only synergistic combinations of strategies, rather than isolated improvements, can simultaneously raise efficiency and operational stability.

Load-bearing premise

The load-bearing premise is that the experiments aggregated in the tables—which use different device architectures, measurement techniques, excitation fluences, and stability protocols—can be directly compared; if that comparability fails, the synthesized ranges and rankings lose their evidentiary force.

Editorial extensions

If this is right

If the paper is right, future record cells will be built by stacking strategies—for example, high-quality SnO2 ETL plus PEAI passivation plus Br-based morphological control—rather than by pursuing a single champion additive.
Reported carrier lifetimes of roughly 1–3.6 microseconds and mobilities up to about 31 cm2/V·s become target ranges for passivation and transport-layer work.
Interfacial recombination, not bulk recombination, should remain the main focus for raising open-circuit voltage, since the review finds it dominates losses even in high-quality films.
Commercial modules will need strategies that work at scale, such as scalable deposition of defect-free SnO2 and 2D/3D heterostructures, to retain the efficiency gains achieved in small-area devices.

Reading between the lines

Editorial extensions of the paper, not claims the author makes directly.

If the synergy claim is correct, combinatorial experiments that vary a passivator, a transport layer, and a morphology additive in the same device would be a direct test of the roadmap, and single-factor studies should routinely underperform the best combinations.
The review's comparative tables imply that standardizing TRPL excitation conditions and stability protocols across laboratories would sharpen every subsequent meta-analysis; without that standardization, the published ranges will stay noisy.
A natural extension, only implicit in the paper, is to use the tabulated strategy-to-lifetime/mobility/voltage data as a training set for a machine-learning predictor of synergistic passivation stacks.

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Editorial analysis

A structured set of objections, weighed in public.

Desk editor's note, referee report, and a circularity audit.

Desk Editor's Note

read the letter

This is a review with a real internal contradiction at its core. The Section 5 summary tells the reader that achievable carrier lifetimes and mobilities are 0.15–3.3 μs and 0.12–7 cm²/V·s, yet the paper's own Sections 3 and 4 report Yoo et al.'s 3.6 μs and 31.2 cm²/V·s as the flagship results. Those numbers are the cornerstone of the author's argument for improved carrier management. So the 'envelope' in Section 5 is wrong by ~9% in lifetime and a factor of ~4.5 in mobility. That is not a cross-study comparability issue; it is an internal inconsistency in the paper's central quantitative message.

To be fair, the review does something useful: it assembles a broad map of charge-carrier-management strategies – SnO2 CBD, PEAI passivation, 3D/2D heterostructures, SAMs, additive doping – and argues sensibly that no single fix is enough. That qualitative synthesis is consistent with the field's consensus, and the tables (apart from the numeric slip above) give a newcomer a fast entry point.

The soft spots are real but mostly fixable. There are mis-numbered cross-references (e.g., 'as noted earlier in Section 3' appears inside Section 3), Table 1 lists λexc = 40 nm which is clearly a typo for 400 nm, and a handful of references (a DNA-damage paper, an LSI-power paper) have nothing to do with PSC charge management. The self-citations are frequent but not egregious; some are relevant to bandgap tuning, others seem like padding.

Who is this for? An early-career researcher who wants a quick orientation to the strategy landscape. Not for anyone who needs trustworthy quantitative synthesis. I would not cite it in my own work until the numbers are corrected.

Recommendation: send it to peer review – the scope justifies referee time – but it needs major revision before acceptance, mainly to fix the internal consistency of the reported ranges and to clean up the citations and typos.

Referee Report

6 major / 6 minor

Summary. This manuscript is a review of charge carrier management strategies in perovskite solar cells (PSCs), covering carrier generation, transport, recombination, trap passivation, interfacial engineering, and stability, and it closes with a roadmap for further efficiency and stability improvements. The review organizes a large body of experimental literature and presents comparative tables of carrier lifetimes, mobilities, and photovoltaic parameter changes across many device architectures.

Significance. If the synthesis were internally consistent, the review would be a useful entry point for researchers seeking a categorized overview of carrier-management strategies, and its central claim—that combined lifetime, mobility, trap-passivation, and interface optimization is the key to pushing PSC performance—is broadly consistent with the field's consensus. The paper also explicitly connects fundamental carrier dynamics to device-level outcomes, which is a valuable framing. However, the quantitative core is currently undermined by internal numerical contradictions, incomplete tables, and a lack of cross-study comparability control, so the present version cannot serve as a reliable quantitative roadmap.

major comments (6)

[Section 5 (final paragraph)] The closing summary states that optimizing carrier lifetime from 0.15 to 3.3 microseconds and mobility from 0.12 to 7 cm² V⁻¹ s⁻¹ 'has become achievable', but this contradicts the paper's own cornerstone data: Section 3 reports τ = 3.6 μs and μ = 31.2 cm²/V·s for Yoo et al. [94], and Section 4 repeats these values. Within Section 5 itself, the text cites [94, 135] for mobilities exceeding 10 cm² V⁻¹ s⁻¹ and [125–127] for lifetimes of 4–6 μs. The stated ranges therefore exclude the very record values the review itself presents, making the quantitative synthesis self-inconsistent and undermining the roadmap claim.
[Table 1] Several entries in Table 1 list excitation wavelengths of λexc = 40 nm (TiO2/MAPbI3 row, ref 64) and λexc = 60 nm (TiO2 single crystal/MAPbI3 row, ref 65); these wavelengths are below the bandgap and cannot photoexcite the perovskite, and they are almost certainly typos for 400 nm and 600 nm. Because Table 1 is one of the central comparative datasets, such errors—combined with inconsistent rate-constant units (values >10000 appear in a column labeled 10⁷ s⁻¹)—make the table unreliable as a basis for the quantitative comparisons.
[Table 5] Table 5 is incomplete and internally inconsistent: the first two rows contain only photovoltaic parameters, while their equivalent-circuit parameters are missing; the table header contains typographical errors ('Rapld increase', 'Slow desay'); and the units are inconsistent (Ωcm² vs Ω cm², F cm² vs F cm⁻²). As presented, the table cannot support the claim in Section 5 that Rodriguez-Perez et al. [115] demonstrated extended carrier lifetime and stability from the OCVD analysis.
[Section 4, paragraph on Wu et al.] The paragraph discussing Wu et al. [107] is internally confused: the text first says PDMAI₂ was used to reduce trap density, then states that 'the introduction of OAI led to a significant increase in Voc' and attributes the passivation to OA chains and I⁻ vacancies, while the figure caption and surrounding text describe OAI. Reference [107] is titled 'Surface passivation using 2D perovskites', not OAI treatment. This conflation makes it unclear which passivator produced the 25.5% PCE and which specific mechanism is being claimed, and it weakens the reliability of the recombination-suppression narrative.
[Tables 2, 3, and 5 (cross-study comparability)] The review pools quantitative results from different device architectures, measurement techniques (TRPL, TA, THz, SCLC, OCVD), excitation fluences, and stability protocols into single tables without discussing comparability or uncertainty. For example, Table 2 lists ΔVoc, ΔFF, and ΔPCE for a CBD-SnO₂ full cell, a SAM-modified interface, a PEAI buffer layer, and a 3D/2D structure from different laboratories; these values are not normalized to a common baseline or measurement condition. Without an explicit discussion of these limitations, the synthesized ranges and rankings in Tables 1, 2, 3, and 5 lose much of their evidentiary force.
[References (self-citation pattern)] Seven references are the author's own prior works (refs 25, 103, 108, 113, 127, 135, 166), and several are topically disconnected from the claims they support. For instance, ref 108 is a TiO₂ photocatalysis overview but is cited in Section 4 for the Yoo et al. [94] carrier lifetime and mobility data, and refs 113 and 127 are molecular-dynamics and CsSnI₃ studies cited alongside perovskite device results. Replacing these with primary, perovskite-specific sources—or removing them where they do not support the specific statement—is necessary to maintain the evidentiary quality of the review.

minor comments (6)

[Introduction and section numbering] The introduction promises a five-section structure, but the manuscript actually contains seven numbered sections; the section list should be updated to match the body.
[Section 3] The sentence 'As noted earlier in Section 3, Yoo et al. [94] also investigated...' appears inside Section 3 itself; this cross-reference should be corrected or removed.
[Section 4] The text refers to 'Figures 6c and 6d' for TRPL and TPV results, but Figure 6 shows the relevant data in panels (d) and (e); the panel references should be corrected.
[Section 5, equation reference] The phrase 'model fitting using equation (3)' in Section 5 refers to an equation that does not appear in this manuscript; either include the equation or rephrase to refer to the cited source [116].
[Abstract] The abstract says the review synthesizes 'over thirty recent studies', but the reference list contains more than 170 entries; please clarify the intended count or rephrase to 'over thirty strategies' or similar.
[Throughout] Units and symbols are formatted inconsistently (e.g., 'μJcm−2' vs 'μJ cm⁻²' vs 'mW cm⁻²' in Table 1; 'cm2' vs 'cm²' in the text); a careful copyedit of numerical formatting is needed.

Circularity Check

0 steps flagged · score 2.0 of 10

No significant circularity: the review synthesizes external results; self-citations are peripheral and not load-bearing.

full rationale

This manuscript is a narrative review, not a derivation. It does not fit parameters, define a result in terms of another result, or invoke a uniqueness theorem. The central conclusion—that charge carrier lifetime, mobility, trap passivation, and interface engineering jointly determine PSC performance—is synthesized from independent experimental studies (e.g., Yoo et al., Tan et al., Osman et al., Wu et al., Bojtor et al.) and is not constructed from the author's own prior claims. The seven self-citations (refs 25, 103, 108, 113, 127, 135, 166) appear as supporting citations for individual statements, but each statement is either supported by independent literature or is a descriptive report of another group's experiment; none is used as a load-bearing premise to justify the review's categorization or roadmap. The internal inconsistency between the Section 5 range (τ up to 3.3 μs; μ up to 7 cm²/V·s) and the Section 3/4 values from Yoo et al. (τ = 3.6 μs; μ = 31.2 cm²/V·s) is a synthesis or reporting error, not a circular reduction. No equation or construction makes an output equal to an input. Therefore the appropriate finding is no significant circularity, with a low score reflecting only the presence of minor, non-load-bearing self-citations.

Assumptions & free parameters 0 free parameters · 3 assumptions · 0 invented entities

The paper is a review and therefore introduces no free parameters or invented entities. It relies on the correctness of the standard descriptions of perovskite physics and on the reliability and comparability of the cited experimental data. The assumption of representativeness is particularly important because the review does not document its study selection methodology.

assumptions (3)

domain assumption The standard model of charge generation, transport, and recombination (including SRH recombination and ion migration) as applied to lead halide perovskites is correct.
The entire review frames the literature around these mechanisms (Sections 2 and 4).
domain assumption The performance metrics (PCE, Voc, FF, carrier lifetimes) reported in the cited studies are accurate and mutually comparable, despite differences in device area, measurement protocols, and aging conditions.
Tables 1, 2, 3, and 5 aggregate values from different sources to draw comparative conclusions.
ad hoc to paper The selection of studies cited is representative of the field, rather than biased toward favorable results.
The author does not disclose literature search or exclusion criteria, so the representativeness of the 'over thirty recent studies' is assumed.

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Cite this review

Pith. "Pith review of A Review on Improving PSC Performance through Charge Carrier Management: Where We Stand and What's Next?." pith.science (2026). https://pith.science/paper/32CVBUYK

@misc{pith2026250621645,
  author       = {Pith},
  title        = {Pith review of: A Review on Improving PSC Performance through Charge Carrier Management: Where We Stand and What's Next?},
  year         = {2026},
  howpublished = {\url{https://pith.science/paper/32CVBUYK}},
  note         = {Machine review of arXiv:2506.21645}
}

read the original abstract

Perovskite solar cells (PSCs) represent a breakthrough in photovoltaic technology, combining high power conversion efficiencies (PCEs), ease of fabrication, and tunable optoelectronic properties. However, their commercial viability is limited by critical issues such as charge carrier recombination, interfacial defects, instability under environmental stress, and toxicity of lead-based components. This review systematically examines recent advancements in charge carrier management strategies aimed at overcoming these limitations. Initially, fundamental mechanisms governing carrier generation, separation, transport, and recombination are outlined to provide a clear foundation. The study then delves into an in-depth analysis of carrier lifetime and mobility, evaluating recent methodologies for their enhancement through compositional engineering and structural optimization. Subsequently, trap state passivation techniques and interface engineering approaches are reviewed, with a particular focus on their impact on device stability and efficiency. The review also discusses long-term stability strategies and emerging trends in lead-free and scalable PSC technologies. In this work, recent strategies for charge carrier management are systematically categorized, comparative analyses are provided and synergistic solutions with high potential for real-world implementation are highlighted. By synthesizing data and perspectives from over thirty recent studies, this article offers a comprehensive roadmap for researchers seeking to optimize PSC performance and accelerate their transition toward commercial application.

Figures

Figures reproduced from arXiv: 2506.21645 by the authors.

**Figure 1.** Schematic representation of the complex photophysical processes occurring in the charge transport layer/perovskite stack following photoexcitation, along with the characteristic timescales of each process [37]. Metal halide perovskites, except for their two-dimensional forms, exhibit low exciton binding energies in the range of approximately 10 to 50 meV. This property allows them to efficiently dissociate into free… view at source ↗

**Figure 2.** XRD patterns of MAPbI₃ films synthesized using (a) low and (b) high MAI concentrations; SEM images of MAPbI₃ films prepared with (c) low and (d) high-concentration MAI solutions [72]. Photoluminescence (PL) and time-resolved photoluminescence (TRPL) spectroscopy reveal that the denser films prepared with higher MAI concentrations exhibit shorter carrier lifetimes (approximately 14 ns compared to 25 ns in the case of… view at source ↗

**Figure 3.** Photoluminescence characteristics of MAPbI₃ films as a function of MAI concentration: (a) Steady-state photoluminescence (PL) spectra showing emission intensity variations depending on the MAI concentration in the precursor solution. (b) Time-resolved photoluminescence (TRPL) spectra reflecting changes in carrier recombination dynamics for films synthesized with different MAI concentrations [72]. Electrical measurem… view at source ↗

Figures from the paper (7 more)

**Figure 4.** Figure 4: J–V curves of perovskite solar cells fabricated using (a) low and (b) high MAI concentration at various annealing temperatures; (c) histogram of PCE values for 50 PSCs fabricated under optimal processing conditions with high MAI concentration [72]; (d) PCE histogram fo…

**Figure 6.** Figure 6: Synthesis stages and optoelectronic characterization of SnO2 films on FTO substrates. (a, b) High-resolution TEM images of SnO2 films prepared up to stage A-ii; inset in (b) shows FFT pattern indicating crystallographic planes. (c) Schematic of reaction progress showin…

**Figure 8.** Figure 8: Long-term stability of perovskite solar cells (PSCs) fabricated with TiO2 and TiO2-Cl. (a) Shelf-life performance of unencapsulated PSCs based on TiO2 and TiO2-Cl under dark storage. Devices were stored in a dry box (humidity <30%) in the dark and measured periodically…

**Figure 11.** Figure 11: (a) Raw voltage signal in the time domain with binning-averaged values overlaid. (b) Charge carrier recombination dynamics calculated after signal smoothing and numerical differentiation. (c) Recombination dynamics derived from data binned into linearly spaced interva…

**Figure 12.** Figure 12: Photoinduced changes in the refractive index. (a) Normalized change in reflectance (ΔR) and the corresponding calculated change in refractive index (Δn). (b) The dependence of Δn on the excitation density. Experimental data are shown as symbols, while the model approx…

**Figure 13.** Figure 13: The (a) PL and (b) TRPL analyses of perovskite films on TiO2/FTO glass with various optimal conditions (STD, KI (30 mM), and KI (30 mM) + I2 (3 mM)). (c) J–V curves and (d) IPCEs of PSCs with various optimal conditions (pristine, KI (30 mM), and KI (30 mM) + I2 (3 mM)…

**Figure 14.** Figure 14: (a) Transient photoconductivity decay following excitation by a pulsed 2.64 eV (470 nm) laser at a repetition rate of 10 Hz for PEA2PbI4 and FA0.9Cs0.1PbI3 under various excitation fluences (represented by color intensity; 0.08–2.54 μJ cm-2 ). (b) Uncorrected ϕ∑μ and …

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