This case addresses resistance drift from resin deterioration and filler aggregation using controlled processing and a defined path index.
This case separates coupling and detection-side drive transmission to reduce cartridge size without losing new-product detection.
A detection unit triggers toner agitation as the container shutter moves, supporting consistent supply with less manual intervention.
A PTFE-thickened perfluoropolyether grease balances oil retention and sliding durability in heat-fixing devices.
This case uses a recessed casing grip and wall-connecting boss to support larger toner capacity, handling, and deformation resistance.
A removable bottom cover guides circuit board replacement while limiting dust ingress and supporting stable electrical connections.
Preheat the pressing member only below a temperature threshold to secure large-booklet bonding without repeated-heating deformation.
Mode-based fixing heat prevents toner peeling at borderless image edges.
A shared pivot-axis layout lets the inner door close with the outer door open while preserving compact device size.
Temporal bias switching isolates charging-current detection from transfer discharge interference.
A separation assembly removes adhering moisture from crimping teeth, preserving liquid-assisted binding strength while limiting rust.
A rear-positioned blower uses ducted airflow and sheet detection to cool output sheets, reduce toner binding, and limit noise.
Multiple pressing members balance developing-roller force while integrated terminals maintain stable cartridge memory communication.
A resin-layer developer carrying member and controlled blade voltage stabilize charging for high-speed printing in changing humidity.
A coated cleaning blade uses a 4.0–10.0 μm penetration-depth range to balance torque reduction, wear, and cleaning reliability.
This fixing-device case uses a heat equalizer and narrowed void to improve belt temperature uniformity and toner fixing consistency.
A combination table adjusts incompatible sheet types before printing and alerts users to protect fixing performance and print quality.
Detect sheet surface properties and match sheet conveyance with punch rotation to improve hole alignment and protect the punch unit.
A removable sheet-shaped member creates a pre-storage portion between rollers, containing developer during transport and installation.
Cumulative print rate changes image adjustment timing, enabling toner-end detection without a dedicated density sensor.
A faster downstream roller stabilizes the transfer belt and limits waving.
The case uses reference-based image adjustment and sheet sensing to correct imaging misalignment and reduce ink waste.
An insulated detector monitors fixing-belt grounding and conditions heater operation to prevent electrostatic offset and image degradation.
A coated elastic cleaning blade uses controlled hardness to limit torque increase, curling, and toner escape during high-density printing.
A sheet remover uses holding plates and a winding portion to extract jammed sheets in confined image-forming apparatus spaces.
A projection-and-hole holder positions the toner sensor in the developing case, improving toner concentration detection and supply control.
A conveyed sensing sheet and adjusted image data measure imaging misalignment, improving centering and reducing edge waste.
A main roller and asymmetrically spaced sub-rollers distribute wrinkles and help prevent creases in low-rigidity media.
A controlled-hardness coating reduces friction and curling while preserving blade-edge pressure for consistent transfer-belt cleaning.
A rotating toner container follows the cover, preventing interference during replacement while reducing opening space.
A symmetric curved path maintains media contact and speed, improving image reading accuracy despite warpage and waviness.
Spring-driven shutter contact keeps the toner port closed during cartridge discharge, limiting leakage while simplifying replacement.
A controller raises fixing temperature during borderless printing so edge toner adheres reliably without added cleaning hardware.
A single-layer photoreceptor uses tuned resin elasticity to limit corrosion-induced color spots while improving wear resistance.
A mobile terminal securely transfers apparatus-specific key data to set print speed without network communication.
A controlled-collapse coating exposes the blade edge, preserving toner cleaning while limiting friction and torque during printing.
Electrically separated circumferential segments focus induction heating centrally, reducing non-sheet passing heat and improving durability.
A coordinated side cover moves one conveyance roller to expose the downstream passage, simplifying duplex sheet-jam removal.
The case shifts and rotates the binding unit so large sheets avoid backside contact during oblique corner binding.
A multi-station image former layers toners in sequence to create images hidden in visible light and revealed under ultraviolet light.
A pivoting conductive member grounds the fixing belt, stabilizing the transfer electric field and reducing banding and electrostatic offset.
A roller-guided inclination moves process unit contacts to an avoidance position, enabling smooth removal without collision stress.
Two detection units monitor the photoreceptor at separate positions, using timed cross-validation to reduce noise-driven false positives.
A restrictor sets lateral position while an adjuster aligns conveyance direction for dependable enclosing and sealing.
Bonded contact members stabilize photoconductor-to-roller clearance for consistent toner transfer.
A guided discharge structure gradually aligns the toner outlet and receiving port to limit friction, vibration, and toner scattering.
A bearing-guided separation mechanism holds the transfer roller away from the photosensitive drum, limiting deformation and contamination.
A separated cooling tube and developing roller protect image quality and hardware during developing-device removal.
A staged fuser shutter link separates from the cartridge early, reducing travel while completing nip exposure reliably.
Unequal shaft exposure and frame opening areas balance fixing-unit temperature without added heaters or cooling fans.