The youth and student programme has run right through the Antalya congress, and cross-language cooperation has appeared in the careers discussions more often than many expected. Every year readers ask whether they can move into space-sector translation. Based on what we see in assigning and reviewing work, the requirements come in six parts. Readers studying, or freshly graduated in, science and engineering have particular reason to read on.
One: start with one engineering field you can read in depth
Space documents are genuinely inaccessible to outsiders, so the point of entry should be small: satellite communications, attitude control, power systems, structures and mechanisms, or ground tracking — choose one. If you can follow an undergraduate textbook and a review paper in the field, and keep its concepts straight, you will not end up with correct sentences and scattered logic. People with an engineering background and strong language skills, rather than generalist linguists, are the scarce resource here.
Two: zero error on numbers, units and standard identifiers
The hardest part of a space text is the information itself. 1,450 metres cannot become “around 1,500”; frequencies, power ratings and tolerances must not shift by a digit; metric and imperial, significant figures, superscripts and subscripts are preserved exactly; standard and document identifiers (ECSS, ISO and ITU series among them) are neither paraphrased nor shortened. When something is uncertain, verify or flag it for client confirmation. That is the sharpest difference between space work and ordinary texts.
Three: learn how technical English is written
Technical English is a register of its own: defining sentences, the precise force of shall and may, when the passive is used, and where conditions and qualifiers sit. Normative requirements take shall, permission takes may, and the two are not interchangeable; the nested qualifiers of a Chinese sentence have to be broken up and reorganised in English. The practical route in is to read closely ten to twenty genuine standards or specifications in your field; it beats vocabulary books by a wide margin.
Four: be comfortable inside standards documents
The space industry is built from standards. Translators learn the architecture of a standard: scope, referenced documents, terms and definitions, requirements and verification, how each is written and how numbering is cited. Where standards cross-reference one another, you follow the identifiers to the source clauses; where a client runs its own standards system, you map the framework before starting work.
Five: fluent use of CAT tools and the MTPE workflow
Space documents are heavily versioned and frequently revised, so tools such as Trados with translation memories are standard practice: when an interface document is revised, only the changes are handled. Large volumes go through MTPE, with a machine draft followed by human revision and finalisation. Tools do not replace specialist judgement, but fluent users produce markedly more per hour — and it is where newcomers most easily pull ahead.
Six: confidentiality and professional boundaries
A great deal of space material is unpublished: development plans, launch schedules and customer information. Confidentiality agreements are taken seriously; files are not forwarded, do not enter public tools, and are cleared as agreed when the project ends. And the role stays clear: you handle language, never altering technical parameters or conclusions on the client’s behalf. Reputation moves quickly in this community; reliability is itself a source of long-term work.
Where to begin? Read open space standards and textbooks, join technical webinars, and start with small pieces in one narrow field until you have a first termbase of your own. For the background and trend, see “IAC 2026 in Antalya: the Quiet Infrastructure of Space Cooperation”, and for how companies put it into practice, see “Satellites Need to Speak the Local Language: the Multilingual Technical Files We Handle”.