Alu-PVC and Alu-Alu scope
The documented platform supports thermoformed Alu-PVC packs and Alu-Alu projects with the required forming system and tooling.
A modular Alu-PVC and Alu-Alu blister packaging platform for tablets, capsules, ampoules, medical items and similar products, with adjustable stroke, inspection and reject capability, no-tool station change and optional servo traction.
The DPP-260 is a medium-speed automatic flat-plate blister machine that forms, feeds, seals, codes and punches packs in one line. Its modular stations, adjustable travel and split-frame construction are designed for pharmaceutical production areas and format-dependent projects.
Use the DPP-260 when you need a wider commercial-production platform than a compact blister machine, but selection must still be based on the actual product, blister drawing, material, feeder and required accepted output—not the model number alone. Review the blister packing machine range and compare compact projects with the DPP-250 platform.
The useful difference is not a marketing maximum. It is how the machine is installed, adjusted, changed over, inspected and recovered during routine production.
The documented platform supports thermoformed Alu-PVC packs and Alu-Alu projects with the required forming system and tooling.
The machine can be separated for elevator access and purification-workshop entry, then located with cylindrical pins and screws.
The 40–120 mm feed-stroke range supports different blister lengths; the proposed drawing determines the final setup.
Forming, sealing, embossing, batch coding and punching modules use guided insertion and handle-lock change methods.
The air-cushion heat-seal design raises the mesh plate when stopped to reduce heat exposure and improve cleaning access.
The documented system includes detection and waste removal for missing-product blister sheets; exact camera scope is contractual.
The process moves the packaging web through forming, filling, sealing, coding, traction and punching. Confirm every station against the nominated product and blister drawing.
The roll holder locates the forming web and motorized unwinding reduces traction resistance; end-of-roll alarm and stop are documented.
For Alu-PVC production, contact heating softens the web before positive-pressure forming creates the blister cavities.
A project-specific feeder places tablets, capsules or other products into formed cavities; contact components use stainless and non-toxic materials.
Aluminum lidding foil is sealed to the formed web using air-cushion flat-plate sealing with selected mesh pattern.
Detection identifies missing-product sheets and directs nonconforming output to the agreed reject path.
The batch-number station can imprint production date, batch number or other agreed characters after sealing.
Mechanical or configured servo traction advances the web through the selected feed stroke with synchronized station timing.
The cutting station punches finished sheets; a suction or conveyor discharge arrangement can be configured for downstream transfer.
Final discharge and synchronization should be defined if the machine feeds a cartoner or other packaging equipment.
Review how a blister packing machine works before writing the URS.
The values below come from the DPP-260/360K technical document. They are reference values; the signed quotation and contract must identify the final configuration.
The technical table states 40 blanking cycles/min for a standard 57 × 80 mm, four-sheet layout.
40 cycles/min × 4 sheets/cycle × 60 min = 9,600 sheets/hour
Actual accepted output changes with blister dimensions, packs per cycle, product feeding, material and the approved operating window.
| Parameter | DPP-260 reference | Quotation check |
|---|---|---|
| Machine type | Flat-plate medium-speed Alu-PVC / Alu blister packing machine | Confirm project material and required station set. |
| Punching-frequency range | 10–60 cycles/min according to stroke and feeding difficulty | State the guaranteed rate for the nominated product and format. |
| Standard reference speed | 40 cycles/min for 57 × 80 mm × 4 layout | Do not compare this figure without packs per cycle. |
| Feed stroke | 40–120 mm | Confirm the finished blister length and registration requirement. |
| Maximum forming area | 245 × 112 mm | Submit the approved blister drawing. |
| Maximum forming depth | 12 mm for Alu-Alu; special machine up to 25 mm | Depth and material must be reviewed together. |
| Forming heating power | 2 kW × 2 | Reference configuration. |
| Heat-seal heating power | 2 kW | Confirm sealing material and process window. |
| Power supply / total power | Three-phase four-wire 380 V 50 Hz, or 220 V 60 Hz; 11 kW | Confirm destination voltage before manufacture. |
| Main motor | 3 kW | Reference configuration. |
| Air volume flow | Approx. 0.25 m³/min | Supplier to confirm pressure and air quality in the utility list. |
| Forming web | PVC/PVDC/PE, nominal 0.25 mm; stated range 0.15–0.5 mm; up to 250 mm wide | Confirm the actual material structure and roll drawing. |
| PTP lidding foil | 0.02 mm × 250 mm reference; document also lists 0.02–0.025 mm | Confirm foil thickness, print side and sealing lacquer. |
| Machine dimensions | 4470 × 1100 × 1740 mm | Review access, maintenance clearance and product flow. |
| Packed dimensions | 5000 × 1170 × 1850 mm | Confirm shipping and site-entry route. |
| Machine weight | Approx. 3000 kg | Use for floor-loading and handling review. |
Material and product capability is tooling- and feeder-dependent. Send representative samples before the supplier commits to output.






Use the blister packaging materials guide and the Alu-Alu blister machine guide to define the barrier and forming route.
The technical document states that its component configuration is for reference and the contract governs. Use the matrix below to prevent assumptions from turning into scope gaps.
| Scope item | Documented basis | What to write in the quotation |
|---|---|---|
| HMI and PLC | Siemens screen and CPU components are listed in the reference configuration. | Exact model numbers, screen size, language and recipe functions. |
| Traction | Mechanical and servo traction arrangements are described. | Selected traction type and included servo hardware. |
| Product feeder | Feeder type depends on product shape, size, flow and filling behavior. | Feeder drawing, sample-test basis and acceptance rate. |
| Camera inspection | HMI/camera system and missing-product rejection are described. | Inspection points, defect classes, reject logic and evidence. |
| Photoelectric registration | Automatic photoelectric plate and travel compensation can be configured. | Printed-web requirement, mark dimensions and registration tolerance. |
| Discharge | A plate-suction device can transfer output to a conveyor. | Standalone collection or synchronized downstream transfer. |
| Tooling | Forming, sealing, coding and punching tools use guided handle-lock change. | Number of formats, spare parts, drawings and change procedure. |
| Documentation | The source document does not define a universal qualification package. | List every required drawing, manual, certificate and protocol explicitly. |
Define discharge, collection and operator handling when blister sheets are packed manually.
Define synchronization, accumulation, leaflet, cartoning, coding, inspection and rejection as one line scope.
Define the URS response, design evidence, test protocols, traceability and open-item closeout before order.
For a downstream line, review the blister cartoning machine and keep the final interface in one URS.
Test the configured machine with representative product and packaging materials. A no-load speed run does not prove accepted blister output.
Do not compare DPP-260 quotations by model name or theoretical speed alone. Ask every supplier to show the blister drawing, packs per cycle, feeder type, forming material and acceptance basis behind the output.
The fastest way to avoid a bad purchase is to agree the FAT product, run duration, reject definition and evidence package before the machine is built.
Use the blister packaging machine speed guide to convert demand into required cycles and accepted packs per minute.
Dimensions, shape, fragility, dust, orientation, representative samples and product-contact requirements.
Finished sheet size, pocket layout, forming depth, pitch, opening requirement and packs per cycle.
Forming-web structure, thickness, roll dimensions, lidding foil, print side and sealing lacquer.
Annual accepted packs, batch size, shifts, planned efficiency, growth allowance and downstream rate.
Coding, camera inspection, reject confirmation, records, access levels and line-interface requirements.
Drawings, manuals, certificates, FAT protocol, qualification support, training, spare parts and site services.
The source document covers drugs such as tablets, capsules and ampoules, together with food, medical equipment and similar products. Final capability depends on the feeder, blister drawing, forming depth, material and product samples.
The technical table gives a standard reference of 40 blanking cycles per minute for a 57 × 80 mm, four-sheet layout. That equals 9,600 gross blister sheets per hour. The document also describes an adjustable 10–60 cycles/min range, but usable output must be confirmed for the actual product, format and feeder.
Yes. The documented DPP-260/360K platform supports Alu-PVC and Alu-Alu packaging. The cold-form project requires the appropriate forming system and tooling, and output must be quoted for the nominated Alu-Alu layout and depth.
The reference maximum forming area is 245 × 112 mm and the selectable feed-stroke range is 40–120 mm. The approved blister drawing must fit both limits after tooling, registration and cutting allowances are considered.
The source table states 12 mm maximum depth for Alu-Alu and notes that a special machine can reach 25 mm. The required depth must be reviewed with material draw behavior, pocket geometry and product dimensions before quotation.
The source document describes detection and waste removal for missing-product blister sheets and lists an HMI/camera system. The final quotation should define camera scope, defect classes, reject logic, reject confirmation and FAT challenge tests.
It can be configured with a plate-suction and conveyor discharge arrangement for downstream transfer. The blister-to-carton interface, synchronization, accumulation, coding, inspection and rejection scope should be specified as one line requirement.
Provide product samples and dimensions, the blister drawing, forming and lidding materials, annual accepted output, batch and shift pattern, feeder requirement, coding and inspection scope, utilities, documentation and the requested FAT evidence.
Send the six inputs below. HIJ can return a project-specific configuration, tooling basis, reference output calculation, utility list and FAT scope instead of a generic model quotation.