Курсант Лесли Барбара. Брюс Малер (Bruce Mahler), 1948 г.р. «Нарушитель спокойствия» и супруг Вайолет – Дуглас Фэклер, которого сыграл Брюс Малер, – один из самых запоминающихся героев «Полицейской академии». We should be using AI to generate empathic messages for patients and families in healthcare created by Bruce Lambert with earbrojp’s Positive background music such as play and games(1251730).
Легендарный актёр Брюс Кэмпбелл появится в сиквеле «Доктора Стрэнджа»
Брюс Кэмпбелл, известный по роли Эша Уильямса из "Зловещих мертвецов", в очередной раз рассказал о будущем франшизы. Bruce Mahler - Wikipedia. Актриса Деми Мур морально подготовилась к неизбежной в будущем смерти экс-супруга Брюса Уиллиса, который уже не первый год болеет тяжелой формой деменции и практически. Брюс Малер. Фильмография, фото, биография и интересные факты о персоне. Полный список фильмов и сериалов. Смотреть в Okko. News. Weather. Entertainment. Маршалл Брюс Мэтерс (Эминем). Читайте последние новости на тему в ленте новостей на сайте РИА Новости.
Дочь Брюса Уиллиса показала сделанные до болезни актера фото
So in those applications it was a combination of densification, they can make these MEMS microphone boards. To go ahead and terminate, I have too far to go. I have too many of these line. So I have IO of hundreds of traces, maybe a thousand traces, and I do it but guess what? They terminate off that driveline, you improve impedance now, naturally reduce line delay, you also save money because now you literally have hundreds of resistors in a square inch of area or a couple square inches of area, and it saves a lot of cost by not having to assemble and put those discretes on your board now. So cost is a big driver. I just mentioned a couple of them. Densification is as well, but our material also is essentially inductive free.
So you know, it means that you have less inductive reactance with fast rise times. Our materials, also because of that, used in certain applications for absorbers or, R cards where they used us, that resistive film, to suppress some of the EMI coming off for- -interesting -as a shielding agent. Or our product is used in satellites and even in deep space probes. It would work great if the parachute did not land on top of the lander [laughter] and prevent the deployment of the solar array but hey it was a great application for our product. Now we see automotive sensor technology that says: hey, we could use this, not only is it obviously super-high reliability, been out for decades you know, can be done in high volumes, very cost-effective, density impact identification. IoT is a combination of a lot of things. Technologies are getting into it, we see our stuff on flexible materials, and wearables.
Your wearables, yeah that was the other thing I was wondering about. Wearable devices, we can get smaller home devices, home audio devices, and as things get thinner, smaller, everybody wants things densified. So getting rid of the passives especially, really allows you to do that. So memory is another area. So between sensor technologies and automotive, and home devices in things like memory devices, and things like heater microfluidic heater bio biomedical type things you know. We have micro heaters on an embedded board, you can have fluid come in and have basically a breakdown to the protein to do analysis, they use us for things like that. Yeah I can see that.
But we also have designers at our company whose job it is to work with the design community, particularly a PCB designer who could help them optimize their design, who can develop real footprints of resistors. So think of us as an extension of yourself, of your team. If you go to our website ohmega. But more importantly is the communication with our staff, technical people who can really help you. Now talking about in general, the industry, there is an uptick in that. My head just exploded! Importantly enough it had such synergistic effects in terms of improved power, lower RTC characteristics, or change of resistance to function the temperature down to almost nothing, the stability is astounding over a wide temperature range that we applied and we got a jointly held patent for the combined technology which we have in the US, and also all over the world now.
Когда я вошел, они были очень любезны со мной, я понимал, что меня ждет, это было не лучшее время, но я благодарен им всем за этот период. Это то, что есть. Клуб собирается двигаться дальше, и ты ничего не сможешь с этим сделать» Бывший тренер «Челси» Фрэнк Лэмпард рассказал, что он никогда не был в таком положении и не знал, как на все это реагировать.
So can you tell us more about that? Sure many people who are looking at using embedded passives, think of it as a new technology, something just on the market. And I said oh since about 1972, and they said wait a second, 1972? I think that has a lot to do with the functionality of the material, how it could be used in so many different ways. Many of your old listeners on board know Mica used to be a copper clad laminator, supplied epoxy glass laminates and polyamide glass, did a number of other things, and it was conceived in the early 70s as a way of adding functionality to a laminate material. Now with any new product, somebody had to be the first to go ahead and try it you know, who was going to be on the bleeding edge of any new technology, who was going to be the route maker? One of those happened to be Canon electronics in Japan. Canon, making AE-1 SLR cameras at the time, looked at the technology as being a great way of making a step potentiometer who could eliminate the ceramic potentiometers circuits that they were currently using, at the time and it fit very neatly into their camera system. So they were very simple, these were surface resistors, put in FR4, make resistive elements in the potentiometers, and they started using it in their AE-1 camera. Very quickly Nikon and Pentax started doing the same thing.
So the idea of being able to print and etch a resistive element, and embed it within a circuit layer, particularly underneath an IC package, speeded up board area for them, allowed them to terminate. They got some other benefits of better electricals. They started using us and then very quickly thereafter, other divisions of CDC started using us in things like their cyber mainframe computer systems, and it kind of dovetailed into people like Cray Research and their supercomputers, and we went from there to super mini computers , places like Digital Equipment and Prime and Wayne, and Data General and Harris. All the guys in the 80s who had ecologic termination needs. So it was the heyday back in the 80s, and a lot of mainframes, supercomputers, super mini computers, kind of like with those very, very powerful systems that people now carry in their cellular phones- In their pocket right? And so, although two different areas of growth we - in the 70s and 80s - found new applications and digital application, particularly termination, but we also started working very closely with the military aerospace industry where they saw the elimination of solder joints being a very positive thing. So we started working with a lot of them in the military aerospace, space-based applications, radars, antenna power dividers, high-speed digital systems - just a variety of different things. Oh man, you want to go right back to the beginning again. Now we became Ohmega Technologies - a spinoff of Mica - started as a separate independent company in 1983, and we basically took over that whole technology from Mica, and what that technology involves, is taking copper foil as a standard EDE electrodeposited copper foil that the printed circuit industry uses, and we threw in a reel-to-reel deposition process as a plated process. We plate a very thin coating of a nickel phosphorous NiP resistive alloy onto the mat or two side of that copper and by varying the thickness of that resistive coating we can vary the sheet resistivity.
That resistive foil then gets laminated or bonded to a variety of dielectrics. Standard pressing, heat pressure, it bonds to a variety of dielectrics. Now that laminate product - a copper clad laminate with the resistive film between the copper and the substrate - goes to the printed circuit board community, the PCB community, then prints and etch copper circuitry. They normally will do a print develop, extra process to create copper circuits. Now they have copper circuitry. Well you have a spot for tracers. Makes sense. Now the board shops come back and they apply more photoresist over that copper circuitry and they print a second piece of artwork and that artwork protects all the areas that they wish to keep as copper, and exposes for etching the copper that will be the resistive element. Now in almost all cases, the first etch will define the width of that copper that will be the width of that resistive element.
Integral resistors in the form of planar resistor technology in printed wiring boards that have become a tool of the circuit designer for addressing increasingly complex packaging demands February 1, 2000 0 Comments Integral Resistors in High Frequency Printed Wiring Boards Bruce P.
Mahler Ohmega Technologies Inc.
«Я родила девочку!»: дочь Брюса Уиллиса и Деми Мур впервые стала мамой. Первые фото малышки
One application that uses our technology - and this is where it reinvents itself. Now why use us in a MEMS microphone? So in those applications it was a combination of densification, they can make these MEMS microphone boards. To go ahead and terminate, I have too far to go. I have too many of these line.
So I have IO of hundreds of traces, maybe a thousand traces, and I do it but guess what? They terminate off that driveline, you improve impedance now, naturally reduce line delay, you also save money because now you literally have hundreds of resistors in a square inch of area or a couple square inches of area, and it saves a lot of cost by not having to assemble and put those discretes on your board now. So cost is a big driver. I just mentioned a couple of them.
Densification is as well, but our material also is essentially inductive free. So you know, it means that you have less inductive reactance with fast rise times. Our materials, also because of that, used in certain applications for absorbers or, R cards where they used us, that resistive film, to suppress some of the EMI coming off for- -interesting -as a shielding agent. Or our product is used in satellites and even in deep space probes.
It would work great if the parachute did not land on top of the lander [laughter] and prevent the deployment of the solar array but hey it was a great application for our product. Now we see automotive sensor technology that says: hey, we could use this, not only is it obviously super-high reliability, been out for decades you know, can be done in high volumes, very cost-effective, density impact identification. IoT is a combination of a lot of things. Technologies are getting into it, we see our stuff on flexible materials, and wearables.
Your wearables, yeah that was the other thing I was wondering about. Wearable devices, we can get smaller home devices, home audio devices, and as things get thinner, smaller, everybody wants things densified. So getting rid of the passives especially, really allows you to do that. So memory is another area.
So between sensor technologies and automotive, and home devices in things like memory devices, and things like heater microfluidic heater bio biomedical type things you know. We have micro heaters on an embedded board, you can have fluid come in and have basically a breakdown to the protein to do analysis, they use us for things like that. Yeah I can see that. But we also have designers at our company whose job it is to work with the design community, particularly a PCB designer who could help them optimize their design, who can develop real footprints of resistors.
So think of us as an extension of yourself, of your team. If you go to our website ohmega. But more importantly is the communication with our staff, technical people who can really help you. Now talking about in general, the industry, there is an uptick in that.
Кадет Зед Бобкэт Голдтуэйт Где появляется: во 2, 3 и 4 частях. Свитчак Тим Казурински Где появляется: во 2, 3 и 4 частях. Лейтенант Проктор Лэнс Кинси Где появляется: во всех частях, кроме первой и седьмой.
Лесли Барбара Донован Скотт Где появляется: в 1 части. Здесь вы можете посмотреть, как сегодня выглядят актёры, снявшиеся в популярном бразильском сериале «Клон».
Деми, собственно, как и все остальные члены семьи актера, научились относиться к происходящему философски. Актриса рассказала, что смирилась с изменениями, происходящими с Брюсом, и любит его таким, какой он есть. Вдобавок журналисты издания поговорили с ее знакомым, который дал понять: Деми приходится непросто. Она, отметил источник, вспоминает их совместную жизнь и благодарит за все, что они прошли. Кроме того, Деми восхищена тем, какой Брюс борец, и понимает, что рано или поздно случится непоправимое: «Это так горько и одновременно вдохновляюще.
В 1980 году он появился в Friday , скетч-шоу начала 1980-х на ABC, созданном по образцу Saturday Night Live NBC, где большинство выступлений Малера демонстрировали его музыкальный талант и голос в стиле радио-ди-джея. Через два года после того, как пятница была отменена, Малер изобразил сержанта. Дуглас Факлер в фильме 1984 года Полицейская академия. В 1990-х годах появились в телесериалах Знаменитый Тедди Z и неоднократно играл в Сайнфельде.
Малер - Симфония №2 C минор "Воскрешение" Маазель Венский филармонический оркестр
| Violinist plays Mahler and Gershwin to save her music as surgeons remove brain tumour | Reuters | Дата рождения 12 сентября 1950 (73 года | Девы), Место рождения Нью-Йорк, США. Актер в жанрах комедия, ужасы. |
| Что стало с очкариком из «Полицейской академии»: в этом грузном старике его не узнать (фото) | Владелец сайта предпочёл скрыть описание страницы. |
Деми Мур готовится проститься навсегда с Брюсом Уиллисом
Робертсон — Херст Появляется в фильмах: все части, кроме седьмой Джордж Р. Робертсона, сыгравшего в «Полицейской академии» строгого, но справедливого комиссара Херста, нельзя назвать внушительной. Выстрелы в Далласе». В 1978-м по сценарию Робертсона была снята историческая драма «Патруль Доусона», а одним из последних проектов актера стала драма о том, что происходит с человеческим организмом на протяжении всей жизни, — «От колыбели до могилы». В свое время Робертсон был женат на Адели Мари Пробст.
Есть ли у актера семья в данный момент, никто не знает. Кроме «Полицейской академии», где актер сыграл не очень политкорректного сержанта Коуплэнда, в фильмографии Томсона есть и другие культовые картины: молодежная комедия «Быстрые перемены в школе Риджмонт-Хай» здесь его экранными партнерами были Дженнифер Джейсон Ли и Шоном Пенном , фэнтези «Гоблины», романтическая лента «Взрыв из прошлого», фильм-катастрофа «Смерчь». Один из последних проектов актера — фильм «Большой»: спортивная драма об американском футболисте Брэндоне Белсворте. О личной жизни актера ничего не известно.
Мрачноватое и не похожее ни на какое другое семейство впервые на экранах появилось в сериале 1964-1966 годов.
В 1977 году Малер появился в двух эпизодах сериала Фернвуд 2 Ночь. В 1980 году он появился в Friday , скетч-шоу начала 1980-х на ABC, созданном по образцу Saturday Night Live NBC, где большинство выступлений Малера демонстрировали его музыкальный талант и голос в стиле радио-ди-джея. Через два года после того, как пятница была отменена, Малер изобразил сержанта. Дуглас Факлер в фильме 1984 года Полицейская академия.
Our sister publication TV Tech has a writeup about his work. He will be missed by his immediate family and by his CBS Family who had the privilege of working with him for over 60 years. He has interviewed directors of engineering, FCC chairs, Hall of Fame radio personalities and C-suite leaders about digital radio, connected cars, industry standards and other topics.
Сержант Джонс Майкл Уинслоу Где появляется: во всех частях. Кадет Зед Бобкэт Голдтуэйт Где появляется: во 2, 3 и 4 частях. Свитчак Тим Казурински Где появляется: во 2, 3 и 4 частях. Лейтенант Проктор Лэнс Кинси Где появляется: во всех частях, кроме первой и седьмой. Лесли Барбара Донован Скотт Где появляется: в 1 части.
Bruce Lehrmann
Брюс Малер (родился 12 сентября 1950 года в Нью-Йорке) — американский актёр и продюсер, наиболее известный по роли Дугласа Факлера в саге «Полицейская академия» и роли раввина. Брюс Малер. Фильмография, фото, биография и интересные факты о персоне. Полный список фильмов и сериалов. Смотреть в Okko. Попадающий в нелепые ситуации и приносящий неудачу полицейский-интеллигент. Герой Брюса Малера появляется в четырех частях «Полицейской академии». 2023. Прослушать отрывки. Mahler's Breakdown. A patient at a British hospital played Mahler and Gershwin on the violin while a tumour was removed from her brain so that surgeons could preserve her ability to play music and her 40-year passion for. американский актер, продюсер и писатель.
Bruce Mahler Age, Height,Net Worth & Bio
американский актер, продюсер и писатель. Find facts and details about Bruce Mahler on Learn about Bruce Mahler on Apple TV. Browse shows and movies that include Bruce Mahler including Friday the 13th: The Final Chapter, Police Academy a. Bruce Campbell, who most recently appeared in Doctor Strange in the Multiverse of Madness, has responded to a 'petition' calling for him to replace Amber Heard in the upcoming Aquaman sequel. Influential media engineer Hank Mahler has died. Among his contributions to the broadcast industry, he was part of the team at the CBS Technology Center in Connecticut that designed and built the CBS. Browse Getty Images' premium collection of high-quality, authentic Bruce Mahler stock photos, royalty-free images, and pictures.