音乐盛宴,赛场绽放风采

今日头条通讯员:展铭浚 (mingjun zhan ) 波士顿报道

波士顿国际音乐大赛(Boston Int’l Music Competition,BIMC)正在招募全球青少年音乐人才参赛。这场盛大的音乐赛事由华悦音乐学院、伯克利音乐学院和新英格兰音乐学院众多教授联合发起,将聚焦音乐人才和艺术交流。本次音乐大赛涵盖声乐、钢琴和其他器乐三个类别,大赛将吸引来自不同国家和地区的参赛者。年龄要求5-25岁,其中19-25岁的成人选手分音乐专业组和非专业组。

大赛评委阵容强大,专业性强。大赛将根据国际通用的评分标准,评选出最具才华和潜力的参赛者。 评委来自中美著名的音乐教授和音乐家,本次大赛评审团主席为伯克利音乐学院教授、伯克利波士顿音乐学院原副院长、大号、上低音号、器乐教育、指挥专家詹姆斯·奥德尔(James O’Dell)。助理主席乌塔.阿坦(Utar Artun)为伯克利音乐学院教授、格莱美奖的投票成员、古典和爵士钢琴家、作曲家、编曲家、打击乐演奏家和指挥。声乐评委、钢琴评委和其他乐器评委以及评委们的个人简介详见官网介绍。

波士顿国际音乐大赛(BIMC)媒体支持力度大,赛事含金量高。BIMC获奖者将有更多的媒体曝光,参加演唱会、大型音乐节的演出机会。这些演出可能在美国、加拿大或中国举行,并可能与人才经纪公司签订合同。参加波士顿国际音乐大赛的青少年将有机会与来自哈佛大学、伯克利、新英格兰、茱莉亚、伊士曼、曼哈顿等顶尖音乐学院的音乐教授、国际著名音乐家们近距离沟通。 比赛选拔出来的获奖选手还有机会与著名音乐家在哈佛大学音乐厅同台的演出机会,或参加每年四次的WeStar华悦四季音乐会,也有机会拿到评委老师或音乐家的推荐信,对申请常春藤大学、音乐学院或职业发展必会有所帮助。

在这个竞争激烈的大赛中,获胜者还将有机会获得丰厚的奖金。今年专业组第一名奖金$1000,大赛奖金总预算可达$20,000。 BIMC国际大赛即日起开始报名,初赛报名视频提交4月30日截止,5月15公布半决赛名单;半决赛视频提交6月4日截止,6月19日公布进入决赛选手名单;7月15日下午在波士顿现场决赛,当天晚上在波士顿举行盛大的颁奖典礼和获奖者音乐会。

BIMC不仅是一场国际音乐大赛,更是为青少年以及青年音乐人提供展示才华的舞台。波士顿国际音乐大赛宗旨在于推动音乐事业的发展,选拔优秀音乐人才,鼓励青少年对音乐的热爱并有益于学业的发展,同时也希望能够促进不同国家和地区的文化交流和理解。 了解更多信息或注册参加比赛,请访问大赛官网:www.BIMC.us

14,754 thoughts on “国际视角(12)《波士顿国际音乐大赛》”
  1. Остеопатическое лечение: принципы, методы и показания
    Остеопатия — это направление медицины, основанное на целостном подходе к организму. Она рассматривает тело как единую систему, где дисфункция одного элемента влияет на другие. Остеопатическое лечение направлено на восстановление баланса, мобилизацию внутренних ресурсов и устранение причин заболеваний, а не только их симптомов.
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    1. Основные принципы остеопатии
    Остеопатия базируется на трех ключевых принципах:
    1. Единство тела – все органы, мышцы, кости и нервы взаимосвязаны.
    2. Структура и функция – нарушение анатомии (смещение, напряжение) ведет к дисфункции органа.
    3. Саморегуляция – организм способен самовосстанавливаться при правильном воздействии.

    2. Методы остеопатического лечения
    Остеопатия включает несколько направлений:
    Структуральная остеопатия
    • Работа с опорно-двигательным аппаратом (суставы, позвоночник, мышцы).
    • Применяется при остеохондрозе, сколиозе, болях в спине, последствиях травм.
    Висцеральная остеопатия
    • Воздействие на внутренние органы (печень, почки, желудок).
    • Помогает при нарушениях пищеварения, спайках, застойных явлениях.
    Краниосакральная терапия
    • Коррекция ритмов черепа и крестца.
    • Используется при мигренях, бессоннице, неврозах, последствиях родовых травм.

    3. Показания к остеопатическому лечению
    • Лечение заболеваний позвоночника (грыжи, протрузии, радикулит).
    • Лечение головных болей и мигрени.
    • Лечение нарушения осанки (сколиоз, кифоз).
    • Лечение болезней суставов (артроз, артрит).
    • Лечение проблем ЖКТ (запоры, дискинезия желчевыводящих путей).
    • Лечение последствий травм (переломы, растяжения, ДТП).
    • Лечение приинекологических нарушениях (болезненные месячные, спайки).
    • Лечение при неврологических расстройствах (бессонница, ВСД). Лечение синдром хронической усталости (выгорание, стрессы).

    4. Как проходит сеанс остеопатии?
    1. Диагностика – врач остеопат руками определяет зоны напряжения и дисфункции.
    2. Коррекция – мягкие мануальные техники (без резких движений!).
    3. Рекомендации – советы по образу жизни, упражнениям.
    Длительность: 40–60 минут.
    Курс: обычно 3–8 сеансов с интервалом в 1–2 недели.

    5. Противопоказания
    ? Острые инфекции (температура, воспаление).
    ? Остеопороз в тяжелой форме.
    ? Опухоли, тромбозы.
    ? Психические расстройства.

    6. Остеопатия для детей
    Особенно эффективна при:
    • Лечение родовых травмах.
    • Кривошее.
    • Лечение гиперактивности (СДВГ).
    • Лечение при задержке развития.

    7. Отличие остеопатии от мануальной терапии
    Критерий Остеопатия Мануальная терапия
    Подход Целостный, мягкий Локальный, жесткий
    Техники Безболезненные Может быть дискомфорт
    Цель Устранение причины Снятие симптомов

    8. Вывод
    Остеопатия – безопасный и эффективный метод лечения, который помогает не только при болях в спине, но и при многих хронических заболеваниях. Главное – выбрать квалифицированного специалиста с медицинским образованием.

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  3. ‘A whole different mindset’
    Accurate clockwork is one matter. But how future astronauts living and working on the lunar surface will experience time is a different question entirely.
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    On Earth, our sense of one day is governed by the fact that the planet completes one rotation every 24 hours, giving most locations a consistent cycle of daylight and darkened nights. On the moon, however, the equator receives roughly 14 days of sunlight followed by 14 days of darkness.

    “It’s just a very, very different concept” on the moon, Betts said. “And (NASA is) talking about landing astronauts in the very interesting south polar region (of the moon), where you have permanently lit and permanently shadowed areas. So, that’s a whole other set of confusion.”
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    “It’ll be challenging” for those astronauts, Betts added. “It’s so different than Earth, and it’s just a whole different mindset.”

    That will be true no matter what time is displayed on the astronauts’ watches.

    Still, precision timekeeping matters — not just for the sake of scientifically understanding the passage of time on the moon but also for setting up all the infrastructure necessary to carry out missions.

    The beauty of creating a time scale from scratch, Gramling said, is that scientists can take everything they have learned about timekeeping on Earth and apply it to a new system on the moon.

    And if scientists can get it right on the moon, she added, they can get it right later down the road if NASA fulfills its goal of sending astronauts deeper into the solar system.

    “We are very much looking at executing this on the moon, learning what we can learn,” Gramling said, “so that we are prepared to do the same thing on Mars or other future bodies.”

  4. Lunar clockwork
    What scientists know for certain is that they need to get precision timekeeping instruments to the moon.
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    Exactly who pays for lunar clocks, which type of clocks will go, and where they’ll be positioned are all questions that remain up in the air, Gramling said.

    “We have to work all of this out,” she said. “I don’t think we know yet. I think it will be an amalgamation of several different things.”
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    Atomic clocks, Gramling noted, are great for long-term stability, and crystal oscillators have an advantage for short-term stability.
    “You never trust one clock,” Gramling added. “And you never trust two clocks.”

    Clocks of various types could be placed inside satellites that orbit the moon or perhaps at the precise locations on the lunar surface that astronauts will one day visit.

    As for price, an atomic clock worthy of space travel could cost around a few million dollars, according Gramling, with crystal oscillators coming in substantially cheaper.

    But, Patla said, you get what you pay for.

    “The very cheap oscillators may be off by milliseconds or even 10s of milliseconds,” he added. “And that is important because for navigation purposes — we need to have the clocks synchronized to 10s of nanoseconds.”

    A network of clocks on the moon could work in concert to inform the new lunar time scale, just as atomic clocks do for UTC on Earth.

    (There will not, Gramling added, be different time zones on the moon. “There have been conversations about creating different zones, with the answer: ‘No,’” she said. “But that could change in the future.”)

  5. Space, time: The continual question
    If time moves differently on the peaks of mountains than the shores of the ocean, you can imagine that things get even more bizarre the farther away from Earth you travel.
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    To add more complication: Time also passes slower the faster a person or spacecraft is moving, according to Einstein’s theory of special relativity.

    Astronauts on the International Space Station, for example, are lucky, said Dr. Bijunath Patla, a theoretical physicist with the US National Institute of Standards and Technology, in a phone interview. Though the space station orbits about 200 miles (322 kilometers) above Earth’s surface, it also travels at high speeds — looping the planet 16 times per day — so the effects of relativity somewhat cancel each other out, Patla said. For that reason, astronauts on the orbiting laboratory can easily use Earth time to stay on schedule.
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    For other missions — it’s not so simple.

    Fortunately, scientists already have decades of experience contending with the complexities.

    Spacecraft, for example, are equipped with their own clocks called oscillators, Gramling said.

    “They maintain their own time,” Gramling said. “And most of our operations for spacecraft — even spacecraft that are all the way out at Pluto, or the Kuiper Belt, like New Horizons — (rely on) ground stations that are back on Earth. So everything they’re doing has to correlate with UTC.”
    But those spacecraft also rely on their own kept time, Gramling said. Vehicles exploring deep into the solar system, for example, have to know — based on their own time scale — when they are approaching a planet in case the spacecraft needs to use that planetary body for navigational purposes, she added.

    For 50 years, scientists have also been able to observe atomic clocks that are tucked aboard GPS satellites, which orbit Earth about 12,550 miles (20,200 kilometers) away — or about one-nineteenth the distance between our planet and the moon.

    Studying those clocks has given scientists a great starting point to begin extrapolating further as they set out to establish a new time scale for the moon, Patla said.

    “We can easily compare (GPS) clocks to clocks on the ground,” Patla said, adding that scientists have found a way to gently slow GPS clocks down, making them tick more in-line with Earth-bound clocks. “Obviously, it’s not as easy as it sounds, but it’s easier than making a mess.”

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  7. Space, time: The continual question
    If time moves differently on the peaks of mountains than the shores of the ocean, you can imagine that things get even more bizarre the farther away from Earth you travel.
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    To add more complication: Time also passes slower the faster a person or spacecraft is moving, according to Einstein’s theory of special relativity.

    Astronauts on the International Space Station, for example, are lucky, said Dr. Bijunath Patla, a theoretical physicist with the US National Institute of Standards and Technology, in a phone interview. Though the space station orbits about 200 miles (322 kilometers) above Earth’s surface, it also travels at high speeds — looping the planet 16 times per day — so the effects of relativity somewhat cancel each other out, Patla said. For that reason, astronauts on the orbiting laboratory can easily use Earth time to stay on schedule.
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    For other missions — it’s not so simple.

    Fortunately, scientists already have decades of experience contending with the complexities.

    Spacecraft, for example, are equipped with their own clocks called oscillators, Gramling said.

    “They maintain their own time,” Gramling said. “And most of our operations for spacecraft — even spacecraft that are all the way out at Pluto, or the Kuiper Belt, like New Horizons — (rely on) ground stations that are back on Earth. So everything they’re doing has to correlate with UTC.”
    But those spacecraft also rely on their own kept time, Gramling said. Vehicles exploring deep into the solar system, for example, have to know — based on their own time scale — when they are approaching a planet in case the spacecraft needs to use that planetary body for navigational purposes, she added.

    For 50 years, scientists have also been able to observe atomic clocks that are tucked aboard GPS satellites, which orbit Earth about 12,550 miles (20,200 kilometers) away — or about one-nineteenth the distance between our planet and the moon.

    Studying those clocks has given scientists a great starting point to begin extrapolating further as they set out to establish a new time scale for the moon, Patla said.

    “We can easily compare (GPS) clocks to clocks on the ground,” Patla said, adding that scientists have found a way to gently slow GPS clocks down, making them tick more in-line with Earth-bound clocks. “Obviously, it’s not as easy as it sounds, but it’s easier than making a mess.”

  8. ‘A whole different mindset’
    Accurate clockwork is one matter. But how future astronauts living and working on the lunar surface will experience time is a different question entirely.
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    On Earth, our sense of one day is governed by the fact that the planet completes one rotation every 24 hours, giving most locations a consistent cycle of daylight and darkened nights. On the moon, however, the equator receives roughly 14 days of sunlight followed by 14 days of darkness.

    “It’s just a very, very different concept” on the moon, Betts said. “And (NASA is) talking about landing astronauts in the very interesting south polar region (of the moon), where you have permanently lit and permanently shadowed areas. So, that’s a whole other set of confusion.”
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    “It’ll be challenging” for those astronauts, Betts added. “It’s so different than Earth, and it’s just a whole different mindset.”

    That will be true no matter what time is displayed on the astronauts’ watches.

    Still, precision timekeeping matters — not just for the sake of scientifically understanding the passage of time on the moon but also for setting up all the infrastructure necessary to carry out missions.

    The beauty of creating a time scale from scratch, Gramling said, is that scientists can take everything they have learned about timekeeping on Earth and apply it to a new system on the moon.

    And if scientists can get it right on the moon, she added, they can get it right later down the road if NASA fulfills its goal of sending astronauts deeper into the solar system.

    “We are very much looking at executing this on the moon, learning what we can learn,” Gramling said, “so that we are prepared to do the same thing on Mars or other future bodies.”

  9. Space, time: The continual question
    If time moves differently on the peaks of mountains than the shores of the ocean, you can imagine that things get even more bizarre the farther away from Earth you travel.
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    To add more complication: Time also passes slower the faster a person or spacecraft is moving, according to Einstein’s theory of special relativity.

    Astronauts on the International Space Station, for example, are lucky, said Dr. Bijunath Patla, a theoretical physicist with the US National Institute of Standards and Technology, in a phone interview. Though the space station orbits about 200 miles (322 kilometers) above Earth’s surface, it also travels at high speeds — looping the planet 16 times per day — so the effects of relativity somewhat cancel each other out, Patla said. For that reason, astronauts on the orbiting laboratory can easily use Earth time to stay on schedule.
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    kra31 cc
    For other missions — it’s not so simple.

    Fortunately, scientists already have decades of experience contending with the complexities.

    Spacecraft, for example, are equipped with their own clocks called oscillators, Gramling said.

    “They maintain their own time,” Gramling said. “And most of our operations for spacecraft — even spacecraft that are all the way out at Pluto, or the Kuiper Belt, like New Horizons — (rely on) ground stations that are back on Earth. So everything they’re doing has to correlate with UTC.”
    But those spacecraft also rely on their own kept time, Gramling said. Vehicles exploring deep into the solar system, for example, have to know — based on their own time scale — when they are approaching a planet in case the spacecraft needs to use that planetary body for navigational purposes, she added.

    For 50 years, scientists have also been able to observe atomic clocks that are tucked aboard GPS satellites, which orbit Earth about 12,550 miles (20,200 kilometers) away — or about one-nineteenth the distance between our planet and the moon.

    Studying those clocks has given scientists a great starting point to begin extrapolating further as they set out to establish a new time scale for the moon, Patla said.

    “We can easily compare (GPS) clocks to clocks on the ground,” Patla said, adding that scientists have found a way to gently slow GPS clocks down, making them tick more in-line with Earth-bound clocks. “Obviously, it’s not as easy as it sounds, but it’s easier than making a mess.”

  10. Lunar clockwork
    What scientists know for certain is that they need to get precision timekeeping instruments to the moon.
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    Exactly who pays for lunar clocks, which type of clocks will go, and where they’ll be positioned are all questions that remain up in the air, Gramling said.

    “We have to work all of this out,” she said. “I don’t think we know yet. I think it will be an amalgamation of several different things.”
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    Atomic clocks, Gramling noted, are great for long-term stability, and crystal oscillators have an advantage for short-term stability.
    “You never trust one clock,” Gramling added. “And you never trust two clocks.”

    Clocks of various types could be placed inside satellites that orbit the moon or perhaps at the precise locations on the lunar surface that astronauts will one day visit.

    As for price, an atomic clock worthy of space travel could cost around a few million dollars, according Gramling, with crystal oscillators coming in substantially cheaper.

    But, Patla said, you get what you pay for.

    “The very cheap oscillators may be off by milliseconds or even 10s of milliseconds,” he added. “And that is important because for navigation purposes — we need to have the clocks synchronized to 10s of nanoseconds.”

    A network of clocks on the moon could work in concert to inform the new lunar time scale, just as atomic clocks do for UTC on Earth.

    (There will not, Gramling added, be different time zones on the moon. “There have been conversations about creating different zones, with the answer: ‘No,’” she said. “But that could change in the future.”)

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