arXiv:2608.07565 · 2026

What to Edit Next: Visually Aligned Image-Editing Follow-Up Suggestions in Conversational Systems

Zhijing Zhang1,2, Jinpeng Yu1,†, Xin Song1, Bingnan Li1, Chuyue Li1,3, Changhui Du1, Xiaolin Fang2,✉, Jiaming Liu1,✉, Ruihua Huang1

1Qwen Business Unit of Alibaba    2Southeast University    3ShanghaiTech University

Project lead    Co-corresponding authors

A multi-turn Qwen image-editing conversation comparing click-aligned and visually grounded follow-up suggestions.
Click alignment captures user preference; visual grounding keeps the next edit executable on the latest image.
80.1%of follow-up queries are image-dependent
3.7% → 0.9%visual inconsistency after grounding alignment
+32.70%recommendation CTR in a live A/B test
+39.90%average conversation turns per user

Abstract

Conversational assistants increasingly recommend follow-up edits to help users continue a task. Existing systems primarily target text-only interactions, leaving image-creation conversations underexplored. In image-creation tasks, useful follow-up edit suggestions must reflect user preferences, offer diverse directions, and remain executable on the current image.

We collected 100,000 real multi-turn image-creation conversation samples from Qwen App and found that 80.1% are image-dependent, underscoring the need for multimodal recommendation. We address this setting with a three-stage framework. Stage 1 constructs SFT targets from real online data and a human-reviewed table of appropriate follow-up editing intents. Stage 2 uses user click feedback and multi-objective reinforcement learning to align the policy with actual user choices. Stage 3 introduces a visual verifier as additional training supervision to reduce inconsistencies between suggested edits and the current image.

Extensive automatic and human evaluations show that the framework significantly outperforms baselines. In a live user-randomized A/B test with millions of users, the final framework reduces visual inconsistency from 3.7% to 0.9% and improves recommendation CTR by 32.70%, image take-away rate by 16.32%, and average conversation turns per user by 39.90% (all p<0.05).

Motivation

A good suggestion must be desirable and executable

Text-only relevance is not enough after an image has changed. Each recommended edit must be grounded in the latest visual state.

Our method

A three-stage alignment framework

Each stage introduces a new source of supervision and addresses a failure left by the previous stage.

Three-stage training framework with SFT, click-preference reinforcement learning, and visual-consistency alignment.
Framework overview. Stage 1 constructs validated SFT slates from real contexts. Stage 2 trains a click reward model and optimizes five non-grounding rewards with GRPO. Stage 3 adds an image-first grounding reward to a separate GRPO run.
Stage 1
SFT

Supervised fine-tuning

Learn task-appropriate follow-up directions from human-reviewed intents and validated teacher-generated slates.

39.5K training slates
Stage 2

Click-preference RL

Learn actual user preference from click pairs while protecting format, proximity, length, and diversity.

173,071 preference pairs
Stage 3

Visual-consistency alignment

Add image-first source–target verification as a sixth reward and explicitly train away inconsistent edits.

training-time supervision only

Stage 1 · Task supervision

Data pipeline: Constructing follow-up slates from real contexts

Online inputs provide the context, people define appropriate next directions, and a teacher turns those directions into candidate text.

120.0Kraw requests
44.3Kusable contexts
243Kvalidated suggestions
39.5Ktraining slates
SFT data construction from prefiltering and re-hosting through generation, validation, assembly, and the final training split.
The general track filters raw rounds, re-hosts usable images, generates intent-guided candidates, validates each suggestion, and assembles exactly six suggestions into each SFT target.

Stage 2 · Behavioral supervision

Learning user preference from clicks

Click signals reveal which follow-up users want to continue with. We turn this behavioral feedback into pairwise preferences and learn a reward model before policy optimization.

Click preference

Pairwise click preference

For the same recommendation context, a selected follow-up is contrasted with an unselected alternative.

Clicked · y+

Replace the sky with a sunset

preferred over
Unclicked · y

Enhance the jacket texture

Behavior becomes supervision

The reward model learns which suggestion better matches user interest from real recommendation choices.

173,071
preference pairs
8B
vision-language reward model
GRPO optimization

Six complementary rewards

Stage 2 jointly optimizes five non-grounding signals. Stage 3 retains them and adds visual consistency as the sixth reward.

Preferenceuser appeal Output gatevalid slate PPLSFT proximity Lengthdisplay fit Diversitydistinct ideas Visual consistencygrounding · Stage 3
3.0% → 3.7%visual inconsistency

Clicks do not guarantee executability

Stage 2 raises expert-rated quality and online CTR, but click feedback captures what looks appealing—not whether the edit is supported by the current image.

Stage 3 · Visual supervision

Observe first, then verify the edit

The verifier inventories the image before reading any candidate, preventing the instruction itself from creating unsupported visual assumptions.

Source-target reasoning examples for adding a hat, removing an absent hat, and requesting a hat color already visible.
Source–target asymmetry. Content introduced by an edit is a target and need not exist yet. Content removed or modified is a required source and must be visible. A discrete target that is already present makes the edit redundant.
A

Image observation

Record visible people, objects, text, regions, and scene state before candidates are shown.

B

Source–target split

Extract the operation, required sources, and desired target state from each suggestion.

C

Independent checks

Ground every source with visual evidence and compare desired and current target states.

D

Grounding reward

Penalize missing sources and already-satisfied targets during GRPO; serve only the final 8B policy.

\[ \widehat g(Y,I)=1-\frac{1}{N}\sum_{j=1}^{N}\widehat v(y^j,I) \]
Grounding reward
One deterministic verifier call scores all suggestions in a rollout. Higher is better.

End-to-end evaluation

The full framework improves both quality and engagement

Policies are evaluated on the same held-out Qwen App sessions with identical decoding. The online study uses concurrent user-level randomization and equal traffic allocation.

PolicyGSB ↑Visual inconsistency ↓Redundancy ↓
Prompt-engineered policy (PE)+08.6%23.3%
Stage 1 · SFT+3323.0%17.2%
Stage 2 · SFT + click RL+4053.7%11.9%
Stage 3 · Full framework OURS+4460.9%8.8%
−75.7%visual inconsistency vs. Stage 2
−40.0%missing-source errors vs. Stage 2
−84.0%already-satisfied errors vs. Stage 2

GSB is aggregate expert-score gain over PE. Grounding is measured by an external visual audit.

Recommendation CTR+32.70%

More users select a recommended next edit.

Image take-away rate+16.32%

More users keep the resulting edited image.

Turns per user+39.90%

Grounded suggestions sustain longer creative sessions.

14 days · millions of users · 5% traffic per arm · all reported lifts p<0.05

Structure makes verification safe enough for RL

A one-pass VLM confuses sources with targets and rejects valid creative edits. The ordered image-first procedure improves recall while sharply reducing false rejection.

VerifierMissing-source recall ↑Already-satisfied recall ↑Union recall ↑False rejection ↓
Single-pass VLM61.6%43.4%47.5%22.2%
Source–target verifier OURS92.9%74.5%78.7%0.6%

Takeaway

Useful follow-ups require both clicks and pixels

Behavioral feedback teaches the model what users want to choose. Visual supervision teaches it which choices remain meaningful on the current image.

Combining human-reviewed task structure, real click preference, and image-first verification produces follow-up edits that are more attractive, more diverse, and substantially more consistent—improving both the immediate recommendation and the creative conversation that follows.

BibTeX

@article{zhang2026edit,
  title={What to Edit Next: Visually Aligned Image-Editing Follow-Up Suggestions in Conversational Systems},
  author={Zhang, Zhijing and Yu, Jinpeng and Song, Xin and Li, Bingnan and Li, Chuyue and Du, Changhui and Fang, Xiaolin and Liu, Jiaming and Huang, Ruihua},
  journal={arXiv preprint arXiv:2608.07565},
  year={2026}
}