Переводчик Юрина Вероника Викторовна

Листогибочный гидравлический пресс - И1424 01

И1424 01 – уникальный агрегат, позволяющий получать широчайший спектр изгибаемых деталей, что достигается за счёт применения в оборудовании таких деталей как трехручьевая матрица и наборный пуансон. Простота обслуживания и эксплуатации, невысокая стоимость, малые габариты – способствуют тому, что данной оборудование стало незаменимым во многих отраслях сельского хозяйства. Листогиб И1424 01 позволяет получать заданные детали как в небольших кооперативах и мастерских, занимающихся изготовлением малогабаритных металлических изделий, так и на крупных предприятиях с внушительным ежедневным оборотом.

Стандартная комплектация листогибочного гидравлического пресса - и1424.01

Оснащение прибора, в базовой комплектации, включает в себя:
• специальные механические упоры внутри гидроцилиндров;
• современную и интуитивно понятную панель управления;
• систему бесступенчатой регулировки глубины хода/отхода ползуна;
• цифровую идентификацию;
• возможность регулировки рабочего давления;
• переключатель режимов одиночного хода, наладки;
• держатели для крепления дополнительных инструментов;
• централизованную систему смазки;
• возможность настройки заднего упора с рабочего стола;
• счётчик отработанных часов;
• счётчик ходов;
• инструменты для обслуживания.


Дополнительная комплектация

При необходимости и1424 01 может быть оснащён:
• передним/задним упором с приводом;
• задним упором с УЧПУ;
• задним упором на базе ПЛК;
• прибор контроля пути;
• системами крепления верхнего инструмента;
• устройством защиты рук оператора;
• программным обеспечением для работы с элементами различной сложности;
• инструментами различной конфигурации.

CNC CONTROL AND ELECTRIC CIRCUITRY (some features described may be relevant to multi-radius machines only)


At the heart of the new generation all electric Pedrazzoli tube benders is the FANUC electric system which includes the CNC, motors, servoamplifiers and connection cables.
Fanuc is the world leader in NC and robots with a monthly production of 16.000,00 NCs, 80.000 servomotors (2008 production motors) and
2500 robots. RELIABILITY, the company’s priority and the certified data on reliability parameters testify the exceptional results reached: the il MTBF ( Medium Time Between Failure) is 1 476 000 hours for the servomotors and 465 000 hours for the axes drives ! The 31 series CNC presents a failure/month /apparatus ratio inferior to 0,01, which translates into a stop for failure every 10 years!!




Together with this now legendary reliability Fanuc also gives a total 24 month warranty with guaranteed intervention times of
24/48h , carried out direclty by Fanuc Service centres worldwide.

The availability of spares is guaranteed for 25 years even after components go out of production. The FANUC NC is model 31 iA , servoamplifiers and motors are series αi -HV, interfaced with FSSB ( Fanuc Serial Servo Bus ) on fibre optic cable which ensures:
➢ Very high speed
➢ A single optic cable required for all drives
➢ Total reduction of connections with consequent increase of reliability .
➢ The CNC Mod 31 iA is the latest generation of NC which can manage up to 20 axes on independent channels , featuring the Dual
Check Control safety system.

As our devices get ever smaller, so do the materials we use to make them. And that means you have to get really close to see them. Really close. A new electron microscope unveiled at the UK’s national SuperST​EM facility images objects at an unprecedented resolution, right down to the individual atoms.

SuperSTEM is funded by the Engineering and Physical Sciences Research Council (EPSRC) and has three electron microscopes that UK scientists can use. The newest was unveiled last m​onth: a £3.7 million ($5.5 million) Nion Hermes Scanning Transmission Electron Microscope that EPSRC says is one of only three in the world. It can image objects a million times smaller than a human hair.
“Essentially we’re able to look down at materials or most things that we put in the microscope all the way down to the atomic scale,” said Quentin Ramasse, scientific director of the SuperSTEM lab. “So we can regularly see single atoms and atomic columns.”

That’s because electron microscopes use a beam of electrons rather than photons, as you’d find in a regular light microscope. As electrons have a much shorter wavelength than photons, you can get much greater magnification and better resolution.
Why would you even want to see something in that much detail? The most obvious, Ramasse said, is because we’re always trying to miniaturize devices, which means we need to miniaturize parts like transistors and semiconductors—“and that means you need to design materials or materials’ components that are really smaller.”

It gets to a point where modifying a material even by an atom or two could change its properties. Think about wonder material graph​ene, for instance: a 2D sheet of carbon atoms. Add another atom here or there and you’ve changed the material and potentially modified what it can do. Keeping an eye on the exact structure is therefore important.
One project SuperSTEM has been involved with centres on another 2D material, molybdenum disulphide. This can be used as an industrial catalyst, for example to remove sulphur from fossil fuels. Danish chemical company Haldor Topsoe used​ the electron microscopes to explore how rearranging its atoms could affect its catalysis properties.
Other applications could include nanomedicine—Ramasse gave the example of needing to check that a drug molecule is sufficiently attached to a nanoparticle acting as a drug delivery vehicle, as “you want to make sure the link is solid so it doesn’t disappear in the body.”