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跟著城市嚮導「老臺北胃」,用味道認識臺北很多朋友來臺北, 我怎麼選出這 10 大臺北小吃?在臺北, 一吃就知道:這就是臺灣味燒烤、火鍋很好吃, 不只是好吃,而是有「臺北日常感」臺北的小吃迷人,
吃完之後,你會記得臺北最後一個標準很簡單。 接下來的 10 樣臺北小吃, 第 1 家:饌堂-黑金滷肉飯(雙連店)|一碗就懂臺灣人的日常
如果只能用一道料理, 為什麼第一站,我會選饌堂? 不只是好吃,而是「現在的臺北感」 老臺北胃的帶路小提醒
這不是那種吃完會驚呼「哇!」的料理, 地址:103臺北市大同區雙連街55號1樓 電話:0225501379 第 2 家:富宏牛肉麵|臺北深夜也醒著的一碗熱湯
如果說滷肉飯代表的是臺灣人的日常, 為什麼老臺北胃會帶你來吃富宏? 不分時間,任何時候都適合的一碗麵 老臺北胃的帶路小提醒
這不是精緻料理, 地址:108臺北市萬華區洛陽街67號 電話:0223713028 菜單:https://www.facebook.com/pages/富宏牛肉麵-原建宏牛肉麵/ 第 3 家:士林夜市・吉彖皮蛋涼麵|臺北夏天最有記憶點的一口清爽
如果你在夏天來到臺北, 為什麼在夜市,我會帶你吃涼麵? 皮蛋,是靈魂,也是臺灣味的關鍵 老臺北胃的帶路小提醒
這不是華麗的小吃, 原來臺北的小吃,連氣候都一起考慮進去了。 地址:111臺北市士林區基河路114號 電話:0981014155 菜單:https://www.facebook.com/profile.php?id=100064238763064 第 4 家:胖老闆誠意肉粥|臺北人深夜最踏實的一碗粥
如果你問我, 為什麼這一碗粥,會被叫做「誠意」? 這不是觀光小吃,而是臺北人的生活片段
這些畫面, 老臺北胃的帶路小提醒
這不是為了拍照而存在的小吃, 地址:10491臺北市中山區長春路89-3號 電話:0913806139 第 5 家:圓環邊蚵仔煎|夜市裡最不能缺席的臺灣經典
如果要選一道 為什麼蚵仔煎,這麼能代表臺灣? 圓環邊,吃的是記憶感 老臺北胃的帶路小提醒
蚵仔煎不是細嚼慢嚥的料理, 地址:103臺北市大同區寧夏路46號 電話:0225580198 菜單:https://oystera.com.tw/menu 第 6 家:阿淑清蒸肉圓|第一次吃肉圓,就該從這裡開始
說到臺灣小吃, 清蒸肉圓,和你想像的不一樣 為什麼我會推薦給第一次來臺北的旅客? 老臺北胃的帶路小提醒
這不是夜市裡熱鬧喧囂的料理, 地址:242新北市新莊區復興路一段141號 電話:0229975505 第 7 家:胡記米粉湯|一碗最貼近臺北早晨的味道
如果說前面幾樣小吃, 為什麼米粉湯,這麼「臺北」? 配菜,才是這一碗的靈魂延伸 老臺北胃的帶路小提醒
這不是為了觀光而存在的小吃, 地址:106臺北市大安區大安路一段9號1樓 電話:0227212120 第 8 家:藍家割包|一口咬下的臺灣街頭記憶
如果要選一道 割包,為什麼被叫做「臺灣漢堡」? 藍家割包不是走浮誇路線, 老臺北胃的帶路小提醒
割包不是精緻料理, 地址:100臺北市中正區羅斯福路三段316巷8弄3號 電話:0223682060 菜單:https://instagram.com/lan_jia_gua_bao?utm_medium=copy_link 第 9 家:御品元冰火湯圓|臺北夜晚最溫柔的一碗甜
吃了一整天的臺北小吃, 為什麼叫「冰火」?這碗湯圓的關鍵就在這裡 這是一碗,會讓人慢下來的甜點 老臺北胃的帶路小提醒
這不是為了拍照而存在的甜點, 地址:106臺北市大安區通化街39巷50弄31號 電話:0955861816 菜單:https://instagram.com/lan_jia_gua_bao 第 10 家:頃刻間綠豆沙牛奶專賣店|把臺北的味道,留在最後一口清甜
走到這一站, 綠豆沙牛奶,為什麼這麼「臺灣」? 為什麼我會用它當作最後一站? 老臺北胃的帶路小提醒
這一杯, 地址:111臺北市士林區小北街1號 電話:0228818619 菜單:https://instagram.com/chill_out_moment?igshid=YmMyMTA2M2Y= 如果只有 3 天的自助旅行在臺北,怎麼吃這 10 家?第一次來臺北, 臺北 3 天小吃推薦行程表(老臺北胃版本)
雖然每個小吃的地點都有一點距離,但是你也知道,好吃的小吃,是值得你花一點時間前往品嘗
當你照著這 3 天走完, 老臺北胃帶路|這 10 口,就是我心中的臺北
寫到這裡, 如果你問我,
如果你是第一次來臺北, 胖老闆誠意肉粥當宵夜適合嗎? 走完這 10 家, 你可能會發現一件事圓環邊蚵仔煎不加辣好吃嗎? 臺北的小吃,其實不急著被你記住。 它們就安靜地存在在街角、夜市、轉彎處,胡記米粉湯在地人推薦嗎? 等你有一天,再回到這座城市。胡記米粉湯值得專程去嗎? 如果你是第一次來臺北,御品元冰火湯圓會不會太甜? 希望這份「老臺北胃帶路」的清單, 能幫你少一點猶豫、多一點安心。 不用擔心踩雷,藍家割包女生會喜歡嗎? 也不用為了排行而奔波,圓環邊蚵仔煎辣的推薦嗎? 只要照著節奏走, 你就會吃到屬於自己的臺北味道。 而如果你已經來過臺北, 那更希望這篇文章,胖老闆誠意肉粥會踩雷嗎? 能帶你走進那些 你可能錯過、卻一直都在的日常小吃。 因為真正迷人的旅行, 從來不是把清單全部打勾, 而是某一天, 你突然想起那碗飯、那口湯、那杯甜,胡記米粉湯招牌值得嗎? 然後在心裡對自己說一句:胖老闆誠意肉粥口味會太重嗎? 「下次再去臺北,還想再吃一次。」 把這篇文章存起來、分享給一起旅行的人, 或是在規劃行程時,再回來看看。 讓味道,成為你認識臺北的方式。 下一次來臺北, 別急著走遠。 老臺北胃,圓環邊蚵仔煎需要特地跑一趟嗎? 會一直在這些地方, 等你再回來。 This image shows frog embryos in eggs. Credit: Nicolas Mathevon It’s well known that reptiles depend on temperature cues while in the egg to determine a hatchling’s sex. Now, researchers writing in the journal Trends in Ecology & Evolution on May 26 say that embryos of many different animal species also rely on acoustic signals in important ways. They call this phenomenon “acoustic developmental programming.” “Acoustic developmental programming occurs when a sound informs embryos about the environment they’ll encounter postnatally and changes their development to better suit this environment,” said Mylene Mariette of Deakin University in Australia. Because this is a newly discovered phenomenon, the evidence is just beginning to accumulate. And, yet, it seems to be rather widespread among animals. “We have found evidence of this happening in birds, where parental calls can warn embryos about heatwaves or predators,” Mariette says. “Before that, there was also evidence that cricket nymphs use male songs to predict the level of competition for mates. However, what is most striking from the evidence we’ve gathered is how common it is for embryos across species to rely on sound information. “For example,” she adds, “across all animal groups that lay eggs, such as insects, frogs, reptiles and birds, embryos use sound or vibration to know when the best time is to hatch. This suggests that acoustic developmental programming is likely to happen in many animal species and for a whole range of conditions. But, until recently, we did not know it was happening.” This image shows a crocodile hatchling. Credit: Nicolas Mathevon Mariette got interested in acoustic developmental programming while studying how zebra finch parents communicate with each other through calls to coordinate parental care duties. “I noticed that when a parent was alone incubating, it would sometimes produce a strange high-pitched call,” she says. She wondered if those calls had further implications for the developing embryos. To find out, she captured many audio recordings in nests and played them to eggs incubated artificially in the lab. It turned out that the finch parents only produced that particular call when it was very hot out. Upon hearing it from inside the egg, nestlings adjusted their development to prepare for the heat. Audio Playerhttps://scitechdaily.com/images/Nile-Crocodiles-Before-Hatch.mp300:0000:0000:00Use Up/Down Arrow keys to increase or decrease volume. This recording features the sounds made by Nile crocodile embryos before hatching. Credit: Nicolas Mathevon “I became very curious about how just hearing a sound before hatching could alter development,” Mariette says. She started searching for evidence in the literature of embryos using sound in other animals. She also dug into the neurobiology to try and understand how it could happen. So far, it’s not clear exactly how it works, but the new report identifies some likely mechanisms. “In crickets, when developing nymphs hear many sexy songs, female develop quickly to make the most of the opportunity, whereas males delay metamorphosis to grow bigger and invest more in reproduction,” Mariette says. “In zebra finches, embryos exposed to parental heat calls grow less to reduce the physiological damage of heat exposure, which then allows them to produce more babies at adulthood. But embryos cannot decide to change their development, it just happens. “This is because sound directly impacts behavior and physiology, without any conscious processing,” she continues. “This is why, for example, music triggers spontaneous emotions of sadness or happiness, without us having to remember which movie that soundtrack came from, or in fact without us even noticing our reaction to the music. It seems to occur on its own, because there are direct connections in the brain between the auditory pathway and the areas that control emotion, reflex learning, and hormone production, so the higher cortical areas do not need to decode the information. Sound experienced early in life could trigger the same spontaneous reactions and, in fact, have long-lasting effects, because this is when the brain is developing, and consolidating connections. For the same reason, the downstream effects on physiology and then morphology can persist for life.” The bottom line for now is that sound has a much more profound impact on development than had been realized. Mariette suggest that it may be important to preserve natural soundscapes that may be crucial for animal adaptation, particularly in fast-changing environments. Mariette’s lab continues to study the physiological traits in zebra finches that may be affected by heat-calls. “It is quite amazing that sound alone can prepare babies for heat, particularly given the alarming rate of climate change,” she says. Reference: “Acoustic developmental programming: a mechanistic and evolutionary framework” by Mylene M. Mariette, David F. Clayton and Katherine L. Buchanan, 26 May 2021, Trends in Ecology & Evolution. DOI: 10.1016/j.tree.2021.04.007 This work was supported by ARC grants. For the first time, researchers have identified a breathing rhythm in the human hippocampus during sleep, revealing that breathing acts as a metronome coordinating sleep oscillations. These findings, highlighting the role of breathing as a fundamental rhythm in memory consolidation, hold significant implications for individuals with disordered breathing during sleep. Breathing synchronizes brain waves that support memory consolidation. A new study from Northwestern Medicine reports that, much like a conductor harmonizes various instruments in an orchestra to create a symphony, breathing synchronizes hippocampal brain waves to enhance memory during sleep. This is the first time breathing rhythms during sleep have been linked to these hippocampal brain waves — called slow waves, spindles, and ripples — in humans. Scientists knew these waves were linked to memory but their underlying driver was unknown. “To strengthen memories, three special neural oscillations emerge and synchronize in the hippocampus during sleep, but they were thought to come and go at random times,” said senior study author Christina Zelano, professor of neurology at Northwestern University Feinberg School of Medicine. “We discovered that they are coordinated by breathing rhythms.” Corresponding study author Andrew Sheriff explains the key findings from the study and what they mean going forward. Credit: Northwestern University Northwestern scientists discovered that hippocampal oscillations occur at particular points in the breathing cycle, suggesting that breathing is a critical rhythm for proper memory consolidation during sleep. “Memory consolidation relies on the orchestration of brain waves during sleep, and we show that this process is closely timed by breathing,” said corresponding author Andrew Sheriff, a postdoctoral student in Zelano’s lab. The study was recently published in the Proceedings of the National Academy of Sciences. Implications for Sleep-Disordered Breathing The findings have important implications for disordered breathing during sleep—such as sleep apnea—which is linked with poor memory consolidation. We’ve all had the experience of better memories after a night of sleep. This was noted as far back as ancient Rome, when the scholar Quintillion wrote of the “curious fact” that “the interval of a single night will greatly increase the strength of the memory,” the study authors said. He was describing what we now call memory consolidation, which is accomplished by the exquisitely tuned coordination of different brain waves in the hippocampus. Corresponding author Andrew Sheriff looks at a computer monitor in a lab. Credit: Northwestern University “When you’re sleeping, your brain is actively replaying experiences you had during the day,” Sheriff said. Sheriff had just returned from a conference in Reykjavik, Iceland, where he had to learn his way around a new city. “The hippocampus plays a major role in forming a map of a new area,” Sheriff said. “I would wake up and feel I had a better representation of the city around me. That was facilitated by the oscillations that occurred during my sleep, which we found are coordinated by breathing.” The study indicates people with disrupted breathing during sleep should seek treatment for it, Sheriff said. “When you don’t get sleep your brain suffers, your cognition suffers, you get foggy,” Sheriff said. “We also know that sleep-disordered breathing is connected with stroke, dementia, and neurodegenerative disorders like Alzheimer’s Disease. “If you listen to someone breathing, you might be able to tell when they are asleep, because breathing is paced differently when you’re sleeping. One reason for that may be that breathing is performing a careful task: coordinating brain waves that are related to memory.” Reference: “Breathing orchestrates synchronization of sleep oscillations in the human hippocampus” by Andrew Sheriff, Guangyu Zhou, Vivek Sagar, Justin B. Morgenthaler, Christopher Cyr, Katherina K. Hauner, Mahmoud Omidbeigi, Joshua M. Rosenow, Stephan U. Schuele, Gregory Lane and Christina Zelano, 16 December 2024, Proceedings of the National Academy of Sciences. DOI: 10.1073/pnas.2405395121 The study was funded by the National Institute on Deafness and Other Communication Disorders and a Ruth L. Kirchstein Institutional National Research Award. Lead author Alison Towner with the carcass of a Great White Shark washed up on shore following an Orca attack. Credit: Marine Dynamics/ Dyer Island Conservation Trust. Image by Hennie Otto The new research adds to our knowledge of how Great Whites employ their “flight” instincts to evade predators over long periods of time and in groups. Large numbers of Great White Sharks have been driven away from their normal gathering place by a pair of Orca (Killer Whales) who have been terrorizing and slaughtering the sharks off the coast of South Africa since 2017. New research published in the peer-reviewed African Journal of Marine Science utilizes long-term sightings and tagging data to reveal that Great Whites have been avoiding particular sections of the Gansbaai coast – territory that they have controlled for many years – out of fear of being hunted by Orcas. Eight Great White Sharks have washed up on the beach since 2017 as a result of an Orca attack. Seven of them had their livers removed, and some were also missing their hearts. The same pair of orcas, who are likely to have killed more (which haven’t washed ashore), left behind characteristic marks on their bodies. Other Orcas are known to be able to carry out similar assaults. The findings support the theory that sharks employ their fear-induced “flight” response to initiate large mass emigration when a marine predator is close. Disruption to the Marine Ecosystem and Predator Dynamics In this most recent study, which took place over 5.5 years, 14 sharks have been detected leaving the locations where the orcas are present, and visual sightings have sharply decreased in the Western Cape Bays. With people from all over the world coming and participating in cage diving, Gansbaai, which is about 100 km (62 mi) east of Cape Town, was a well-known location for witnessing this famous shark. Reporting on the findings, lead author Alison Towner, a Senior White Shark Biologist, at the Dyer Island Conservation Trust, says: “Initially, following an Orca attack in Gansbaai, individual Great White Sharks did not appear for weeks or months. What we seem to be witnessing though is a large-scale avoidance (rather than a fine-scale) strategy, mirroring what we see used by wild dogs in the Serengeti in Tanzania, in response to increased lion presence. The more the Orcas frequent these sites, the longer the Great White Sharks stay away. “The research is particularly important, as by determining how large marine predators respond to risk, we can understand the dynamics of coexistence with other predator communities; and these dynamics may also dictate the interactions between competitors or intra-guild predator/prey relationship.” Alison, from Lancashire in the UK, is a Ph.D. candidate at Rhodes University in Makhanda, Eastern Cape. She lives in Gansbaai and has studied Great White Sharks for the last 15 years, learning about their movement patterns through tagging data. Regularly found on a boat and having witnessed many huge Great White Sharks, she has previously described the area as “simply special, in terms of marine life – few places compare to this truly diverse and beautiful area”. Prior to these predations on the Great White Sharks, there were only two instances since data collection began in Gansbaai where they were absent for a week or more: one week in 2007 and 3 weeks in 2016. So, what Alison, and other colleagues at institutions she represents such as Marine Dynamics Academy, have recently witnessed first-hand (by physically retrieving the carcasses of attacked sharks – as pictured) is this new absence is unprecedented for the area. Impact on Marine Balance and Emergence of New Predators And, she explains, it is changing the sea’s very ecosystem: “It has triggered the emergence of a new mesopredator to the area, the Bronze Whaler Shark – which is known to be eaten by the Great White Shark – and these Bronze Whalers are also being attacked by the Orcas too, who are indicating a level of experience and skill in hunting large sharks. “However, balance is crucial in marine ecosystems, for example, with no Great White Sharks restricting Cape Fur seal behavior, the seals can predate on critically endangered African Penguins, or compete for the small pelagic fish they eat. That’s a top-down impact, we also have ‘bottom-up’ trophic pressures from extensive removal of Abalone, which graze the kelp forests these species are all connected through. “To put it simply, although this is a hypothesis for now, there is only so much pressure an ecosystem can take, and the impacts of Orcas removing sharks, are likely far wider-reaching.” But, what drew the pair of Orcas, easily recognizable by their distinctive collapsed dorsal fins, to this new territory? Orcas’ Increasing Presence and Impact on Great White Sharks Other, yet-to-be-published data, suggests the Orcas’ presence is increasing in coastal regions of South Africa and this pair might be members of a rare shark-eating morphotype, known to hunt at least three shark species as a prime source of nutrition in South Africa. “This change in both top predators’ behavior could,” Alison says, “be related to a decline in prey populations, including fishes and sharks, causing changes in their distribution pattern. “We know that Great White Sharks face their highest targeted mortality in the anti-shark bather protection nets in KwaZulu Natal, they simply cannot afford additional pressure now from Orca, killer whale predation.” What it means for populations of the Great White could be more pronounced and it is “unclear” what the pressure may do, Alison states. “The Orcas are targeting subadult Great White Sharks, which can further impact an already vulnerable shark population owing to their slow growth and late-maturing life-history strategy. Increased vigilance using citizen science (e.g. fishers’ reports, tourism vessels), as well as continued tracking studies, will aid in collecting more information on how these predations may impact the long-term ecological balance in these complex coastal seascapes.” As with all studies, alternative explanations for the findings should be considered. The authors suggest that sea surface temperature can have an impact on the Great White’s recent absence, “however, the immediate and abrupt decline in sightings at the beginning of 2017 and the extended and increasing periods of absence cannot be explained” by this. “Other potential explanations for a decline at Gansbaai,” they say, “could be direct fishing of Great White Sharks or the indirect effect of fishery-induced declines in potential prey”. However, they state that while this could “potentially contribute to an overall decline in numbers of Great Whites in South Africa, they are unlikely to explain the sudden localized decline”. Reference: “Fear at the top: killer whale predation drives white shark absence at South Africa’s largest aggregation site” by AV Towner, RGA Watson, AA Kock, Y Papastamatiou, M Sturup, E Gennari, K Baker, T Booth, M Dicken, W Chivell, S Elwen, T Kaschke, D Edwards and MJ Smale, 29 June 2022, African Journal of Marine Science. DOI: 10.2989/1814232X.2022.2066723 RE98915RGPOIOKJ 饌堂-黑金滷肉飯(雙連店)推薦嗎? 》台北小吃大揭密|10家美食名店全盤解析圓環邊蚵仔煎夏天適合吃嗎? 》台北夜市真的好吃嗎?10家餐廳真實評比御品元冰火湯圓冬天適合吃嗎? 》台北隱藏美食推薦|10家真實體驗分享 |
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