In response to acceptance standards, clients often ask for prices or deadlines first, but procurement and technical teams should check material reports, sizes, hardness, surfaces and trial modelling indicators first. Only by quantifying these conditions can the standard screws have an interpretable boundary with the choice of a dedicated screw.

The effectiveness of the programme needs to be verified with the same materials, moulds and test methods. In addition to size and material reports, time measurement, buffer position, pressure curve, temperature, product weight, appearance and periodicity should also be recorded, with clear acceptance windows. Data-based delivery reduces disputes and facilitates subsequent replication. Technical communication distinguishes between three types of objectives that must be met, desired improvement and acceptable. It is necessary to meet the hard boundary of the item for the determination of equipment and screws, and it is hoped that the improvement item will be used for the comparison of standards and specialized programmes, while the acceptable item will help to control costs and deadlines. This would avoid stacking all requirements on a screw and would make it easier for clients to understand the real value of each configuration.

It is recommended that customer information be broken down into five groups: products and moulds, raw materials, platforms, process objectives and existing problems. Product end logs of single weight, flowway, number of caves, wall thickness and appearance levels; ratio of feedstock end recorder number, melting finger, filling, flame retardation and retrofitting; terminal logs of tonnage, voltage, screw diameter, maximum travel, injection pressure and plasticization. All data are sourced and are marked, drawn, physical, measured or estimated by clients. The focus of the discussion here is on material reporting, size, hardness, surface and test-model indicators, which must correspond to the client ' s current production conditions and not be limited to the maximum values in machine samples.

In the context of this project, it is proposed to adopt the approach of “establishing two parts of the acceptance and acceptance for manufacture and application”. First, to determine whether the available data support the choice, then to calculate the volume of reductive, pressure and plasticization, and finally to discuss the geometry, front-end components and material handling of the screws. If the standard scheme is able to cover the window, priority should be given to the standard configuration; if only the size test does not ensure that the risk of actual plasticization remains, the dedicated structure is proposed and the increased costs, delivery periods and expected benefits are indicated.

The cost of the misconfiguration is not only the screw itself, but also the cut-off, the waste of raw materials, the testing of molds, the delay in delivery and the credibility of customers. Precautionary measures around size alone that do not guarantee actual plasticization are more economical than re-routing in the event of a problem; the vendor can then move from a mere offerer to a partner capable of technical screening.

The focus of the validation was on size pass rates, test test indicators and dispute rates. The test shall use the actual material and representative moulds of the client, retaining the batch number, dry condition, ambient temperature and sample number. When compared to old schemes, equipment, moulds and major process conditions other than screws should be as consistent as possible. The continuous accumulation of accepted and accepted standard project data allows the plant manufacturer to gradually establish a package, industry charter and air-type menu to allow sales to quickly identify general and special conditions and to submit the truly complex project to the application engineer for evaluation in a timely manner.