Latest news with #Telescope
Yahoo
24-04-2025
- Business
- Yahoo
Telescope Innovations Presents Results of Second Fiscal Quarter 2025
Vancouver, British Columbia--(Newsfile Corp. - April 23, 2025) - Telescope Innovations Corp. (CSE: TELI) (OTCQB: TELIF) (FSE: J4U) ("Telescope Innovations", "Telescope", or the "Company") a developer of advanced technologies and services for the global pharmaceutical and chemical industries, reports financial results for the fiscal quarter ended February 28, 2025 (Q2). The Company generated revenues of $1.0 million during this quarterly period, and an adjusted EBITA loss of $0.4 million. Telescope continues to strategically reinvest revenues to drive operational growth, and financial results are consistent with management's budget expectations and FY 2025 targets. FINANCIAL HIGHLIGHTS OF THE FISCAL QUARTER ENDED FEBRUARY 28, 2025 All values are represented in CAD. Revenues of $1,004,121 (versus $686,205 for the comparable period in FY 2024) Expenses of $1,717,470 (versus $1,277,418 for the comparable period in FY 2024) Adjusted EBITA loss of $441,837 (versus loss of $325,488 for the comparable period in FY 2024) OPERATIONAL HIGHLIGHTS FLAGSHIP PRODUCT EXPANSION INTO CHINA, AND FIRST USER FORUM HOSTED BY METTLER TOLEDO. Telescope and their global distribution partner, Mettler Toledo, launched the distribution of Telescope's DirectInject-LC™ product in China. The Company also executed several product demonstrations at large accounts in expanded geographic markets, to cadvance the commercial adoption already established in the US, Europe, and Japan. In addition, Mettler Toledo hosted the first DirectInject-LC™ user forum to capitalize on and expand the product's momentum. This seminar was attended by over 200 prospective and active customers, and featured speakers from AstraZeneca, Genentech, and Takeda. These speakers presented the advantages of deploying DirectInject-LC™ within their R&D pipeline, while Telescope also presented the product's features and best practices to expand customer awareness and skill. PUBLICATION ON ACCESSORY PRODUCT TO DIRECTINJECT-LC. A new White Paper released by Mettler Toledo with Telescope CTO, Jason Hein, as a co-author, highlights the co-development of a sampling filter accessory to DirectInject-LC™ product, named the EasyFrit. This add-on enhances process understanding for crystallization chemistry and other heterogeneous processes, broadening the platform portfolio and application scope of Telescope's instrument, and thereby enhancing the market appeal of DirectInject-LC™. EasyFrit commercialization is also another example of Telescope's technology leadership and ability to develop advanced analytical tools that are readily deployed in the marketplace TEAM GROWTH BY 33% AND PROGRESS ON COLLABORATION WITH PFIZER FOR SELF-DRIVING LAB ("SDL") DEVELOPMENT. The combination of a close collaboration with Pfizer scientists and a strong financial contribution has enabled excellent progress on this project. Telescope's SDL uses artificial intelligence, advanced process analytical technology, and robotic automation to autonomously perform chemistry research. SDLs can optimize material properties and chemical synthesis methods up to 100x faster than traditional research methods, reducing the time and cost of developing new pharmaceuticals. To support the SDL Project, Telescope has expanded its team by 33% over the past six months, strengthening its expertise in chemistry, chemical engineering, robotics, and AI-driven automation. This growth supports the Company's ability to scale SDL platforms and meet the rising demand for automated research solutions in high-value chemical and pharmaceutical industries. SUCCESSFUL OUTCOME OF BRINE-TO-BATTERY PROGRAM FOR PRODUCTION OF >99% PURE BATTERY RAW MATERIALS. Over the past year, Telescope Innovations' proprietary ReCRFT™ recrystallization technology has produced battery-grade (>99% pure) lithium carbonate from a wide variety of North American lithium-containing brines. Direct Lithium Extraction (DLE) eluates were obtained from various producers with lithium brine projects across Canada and the US, including potential suppliers and customers for the eventual commercialization of the ReCRFT™ process. ReCRFT™ collapses the lithium carbonate refining flow sheet, reducing these costs to enable a sustainable, on-shore supply of battery raw materials. CTO HONOURED WITH 2025 R.U LEMIEUX AWARD. Founder and Chief Technology Officer, Professor Jason Hein, has been granted the prestigious 2025 R.U. Lemieux Award by the Chemical Institute of Canada. This award recognizes Professor Hein's contributions to organic chemistry and his pioneering research into reaction mechanisms and process development. His recognition with the R.U. Lemieux Award is a testament to his impact on both academic and industrial chemistry. Dr. Hein continues to lead Telescope's technology development team to enhance advanced analytics, robotics, and artificial intelligence platforms for process chemistry. "This quarter's results reflect disciplined execution of our strategy and the strength of our partnerships," commented Henry Dubina, Telescope CEO. "By advancing our enabling technologies and deepening our industry presence, we're building lasting value in markets where innovation drives demand." Readers are encouraged to review the full financial statements and accompanying management discussion and analysis for the fiscal year ended February 28, 2025, both of which are available under the profile for the Company on SEDAR+ ( About Telescope Telescope is a chemical technology company developing scalable manufacturing processes and tools for the pharmaceutical and chemical industry. The Company builds and deploys new enabling technologies including flexible robotic platforms and artificial intelligence software that improves experimental throughput, efficiency, and data quality. Our aim is to bring modern chemical technology solutions to meet the most serious challenges in health and sustainability. On behalf of the Board, Telescope Innovations Corp. Henry Dubina, Chief Executive OfficerE: hdubina@ The CSE has neither approved nor disapproved the contents of this news release. Neither the CSE nor its Market Regulator (as that term is defined in the policies of the CSE) accepts responsibility for the adequacy or accuracy of this release. To view the source version of this press release, please visit Sign in to access your portfolio
Yahoo
21-04-2025
- Business
- Yahoo
Telescope Innovations to Present at the Planet MicroCap Showcase: VEGAS on April 23, 2025
Showcase is in partnership with MicroCapClub, and 1x1 meetings with Telescope COO are available on April 24, 2025 Vancouver, British Columbia--(Newsfile Corp. - April 14, 2025) - Telescope Innovations Corp. (CSE: TELI) (OTCQB: TELIF) (FSE: J4U) ("Telescope Innovations", "Telescope", or the "Company") is a leading developer of advanced technologies and services for the global pharmaceutical and high-value chemical industries. The Company today announced that it will be presenting at the Planet MicroCap Showcase: VEGAS 2025 in partnership with MicroCapClub on Wednesday, April 23, 2025 at 2:00-2:30 PM (Local Time - PST). Chief Operating Officer, Dr. Jeffrey W. Sherman of Telescope Innovations Corp. will be hosting the presentation and answering questions at the conclusion. To access the live presentation, please use the following information: Planet MicroCap Showcase: VEGAS 2025 in partnership with MicroCapClubDate: Wednesday, April 23, 2025Time: 2:00-2:30 PM (Las Vegas, NV Local Time PST)Webcast: Recent Company Highlights Telescope Innovations Advances Self-Driving Lab Deployment, Strengthening Industry Impact Telescope Innovations and Pfizer Sign Master Collaborative Research Agreement Mettler Toledo and Telescope Innovations Agree to Globally Distribute Telescope's Flagship Product, DirectInject-LC™ Telescope Innovations Commences Trading on the Frankfurt Stock Exchange Telescope Innovations Founder and CTO, Professor Jason Hein, Honoured with 2025 R. U. Lemieux Award - Telescope Innovations Second Nobel Prize Won by Telescope Innovations Advisor - Telescope Innovations If you would like to book 1x1 investor meetings with Telescope Innovations, and to attend the Planet MicroCap Showcase: VEGAS 2025 in partnership with MicroCapClub, please make sure you are registered here: REGISTER 1x1 meetings will be scheduled and conducted in person at the conference venue: Paris Hotel & Casino in Las Vegas, NV. If you can't make the live presentation, all company presentations "webcasts" will be available directly on the conference event platform on this link under the AGENDA tab. About Telescope Innovations Telescope Innovations is a chemical technology company developing scalable manufacturing processes and tools for the pharmaceutical and chemical industry. The Company builds and deploys new enabling technologies including flexible robotic platforms and artificial intelligence software that improves experimental throughput, efficiency, and data quality. Our aim is to bring modern chemical technology solutions to meet the most serious challenges in health and sustainability. About Planet MicroCap Planet MicroCap is a global multimedia financial news, publishing and events company for the MicroCap investing community. We have cultivated an active and engaged audience of folks that are interested in learning about and to stay ahead of the curve in the MicroCap space. If you would like to attend the Planet MicroCap Showcase: VEGAS 2025 in partnership with MicroCapClub, please register here. Contact Name: Jeffrey W. Sherman, +1 443-454-7525Email: jeff@ To view the source version of this press release, please visit
BBC News
28-03-2025
- Politics
- BBC News
BBC Sport Online Voting Terms and Conditions
You can take part by accessing the relevant web page. You will find the question and a list of alternative answers. You can register your vote by electronically selecting the option you wish to vote votes registered outside the announced voting times, which will be listed online and on-air, will not voting may require you to log into the page with your BBC account, which you can do here. If you do not have a BBC account, you can register for one for free here. If you have any trouble registering or signing in, you can visit the help is not a competition and there will be no prize for any option or anyone taking part. Where the vote result has a consequence, the BBC will endeavour to meet it but editorial requirements may lead to a change in schedule or a change in programme content. However, the vote result number of times you can vote may be restricted. The presence of a cap to voting and what that limit is will be made clear for each vote. Some votes may be restricted geographically to within the UK only. If you are not in the right area, you will not see the results may be displayed during the vote window. These should not be taken as an indicator of the final published results, but merely as a snapshot for interest. The BBC will announce the final result on-air and/or online (where applicable) when voting is closed and the actual result is BBC reserves the right to disqualify entries or suspend voting if it has reasonable grounds to suspect that fraudulent voting has occurred or if it considers there has been any attempt to rig the voting. The BBC has the right to substitute an alternative selection method at its absolute discretion. For the purposes of investigating possible voting irregularities when voting on BBC web pages using BBC account the BBC may use cookies, log IP addresses or analyse the information from your BBC account. The BBC will not publish this information or provide it to anyone without permission, except where required for enforcement of these terms. For more information please see: BBC Privacy Policy; how the BBC uses cookies and BBC online Terms of for any reason, the online voting system fails, the vote may be suspended or a contingency plan may be BBC reserves the right to change, cancel or suspend this vote at any time. The BBC, its sub-contractors, subsidiaries and/or agencies cannot accept any responsibility whatsoever for any technical failure or malfunction or any other problem with any system, server, provider or otherwise which may result in any vote not being received by the BBC, not properly registered or note that BBC, BBC Group or Telescope employees or anyone who is directly connected in any way with the associated BBC content or the vote is not eligible to voting accords with the BBC's Code of Conduct for Competitions and votes are subject to the BBC Privacy and Cookies Policy and BBC Terms of Use. More information about BBC Cookies can be found Terms and Conditions are governed by the law of England and Wales.
CNN
13-02-2025
- Science
- CNN
Astronomers spot an unusual, massive jet of material in the distant universe
Astronomers have spied a monster radio jet in the distant universe that's twice the width of the Milky Way galaxy. The ancient object formed when the universe was less than 10% of its current age of 13.8 billion years, according to a new study. 'This is the largest radio jet seen thus far in the early Universe,' said lead author Anniek Gloudemans, a postdoctoral research fellow at the National Science Foundation's NOIRLab, in an email. Until now, these faraway colossal radio jets released not long after the big bang have been elusive, mostly escaping detection, and how they are created remains an enigma, according to Gloudemans. 'Their absence has previously been attributed to the cosmic microwave background (leftover radiation from 13.8 billion years ago), which diminishes the radio light of such distant objects,' she said. Most giant galaxies have a supermassive black hole at their centers. These central engines possess incredibly strong gravitational fields, gobbling up anything that strays too close. Funneling all that material causes some black holes to unleash an extraordinary amount of energy that scientists believe fuel the formation of a quasar — the brightest known objects in the universe. The luminous cores of distant, ancient galaxies, quasars expel jets of energetic matter. With the help of two powerful radio telescopes, astronomers spotted the gigantic two-lobed jet, which spans at least 200,000 light-years. A light-year is the distance light travels in one year, which is 5.88 trillion miles (9.46 trillion kilometers). A study detailing the find was published February 6 in The Astrophysical Journal Letters. By using telescopes to peer into the distant universe and study the phenomena observed there, astronomers can essentially see back in time. The discovery of the huge radio jet is providing a window into the early days of the universe, shedding light on when the first jets formed and how they shaped galaxies over time. Finding an ancient radio jet in the early universe The quasar that produced the two-lobed radio jet formed when the universe was less than 1.2 billion years old, or 9% of its current age, and it has some oddball traits. Astronomically speaking, the quasar, which weighs 450 million times the mass of our sun, is considered to be smaller than typical quasars, which can reach masses that are billions of times heavier than our star. 'This seems to indicate that you don't necessarily need an exceptionally massive black hole … to generate such powerful jets in the early Universe,' Gloudemans said in a statement. The double-sided jet is also asymmetrical in multiple ways, including the distances it spans away from the quasar, as well as its brightness, 'which seems to indicate that an extreme environment is affecting the lobes,' Gloudemans said. An international team of astronomers first identified the radio jet while using the Low Frequency Array, or LOFAR, Telescope, a network of radio telescopes throughout Europe. Then, the researchers carried out follow-up observations in different wavelengths of light, such as near-infrared using the Gemini Near-Infrared Spectrograph instrument on the Gemini North telescope in Hawaii as well as visible light with the Hobby-Eberly Telescope in Texas. Together, the different bands of light helped the team piece together details about the large jet and the quasar, named J1601+3102, that produced it. 'We were searching for quasars with strong radio jets in the early Universe, which helps us understand how and when the first jets are formed and how they impact the evolution of galaxies,' Gloudemans said in a statement. 'It's only because this object is so extreme that we can observe it from Earth, even though it's really far away. This object shows what we can discover by combining the power of multiple telescopes that operate at different wavelengths.' Discovering a large radio jet in the distant universe suggests there are more waiting to be found, Gloudemans said, and the team is planning more observations to better understand the unusual environment around this particular quasar. Some of the biggest remaining questions include what factors lead to the creation of powerful radio jets. 'There are around a thousand quasars known at this epoch and even earlier in the Universe, so even though they are rare, we definitely know quite a few,' Gloudemans said.'The quasars become extremely luminous by friction from gas and dust falling into the supermassive black hole. In the case of this quasar, part of the material has been launched in the form of two jets. We think that these strong radio jets form in roughly 10% of the quasars. Jets have been found even earlier in the Universe, but never of this monster size.' Cosmic radio jets near and far A separate team of astronomers, also using LOFAR, announced last fall the detection of Porphyrion, a gargantuan pair of jets spanning a whopping 23 million light-years — that's 115 times more massive than the newly discovered two-lobed radio jet. But unlike the jet formed by J1601+3102, Porphyrion was found 7.5 billion light-years away from Earth in what's called the 'nearby' universe, rather than the early universe, according to the report published in September. Jets as enormous as Porphyrion would be difficult to detect in the early universe because leftover radiation from the big bang drowns out the radio light released by the jets, Gloudemans said. However, astronomers have long questioned whether long, powerful jets could be spotted in the distant universe because the black holes responsible for them behaved differently in the early universe and were less massive, said Martijn Oei, a postdoctoral scholar in observational astronomy at the California Institute of Technology and the lead author of the September study on Porphyrion. Oei was not involved in the new study. 'What is exciting is that these authors show that quasars at times when they were less massive than they are today could still generate powerful and long jets,' Oei said in an email. 'The Universe was much smaller than it was at Porphyrion's time, so in a relative sense the contrast is less big! This is an impressive find, and shows that black holes affected the Universe with magnetism, heat and cosmic rays beyond the boundaries of their own galaxies already about a billion years after the Big Bang.'
CNN
13-02-2025
- Science
- CNN
Astronomers spot an unusual, massive jet of material in the distant universe
Astronomers have spied a monster radio jet in the distant universe that's twice the width of the Milky Way galaxy. The ancient object formed when the universe was less than 10% of its current age of 13.8 billion years, according to a new study. 'This is the largest radio jet seen thus far in the early Universe,' said lead author Anniek Gloudemans, a postdoctoral research fellow at the National Science Foundation's NOIRLab, in an email. Until now, these faraway colossal radio jets released not long after the big bang have been elusive, mostly escaping detection, and how they are created remains an enigma, according to Gloudemans. 'Their absence has previously been attributed to the cosmic microwave background (leftover radiation from 13.8 billion years ago), which diminishes the radio light of such distant objects,' she said. Most giant galaxies have a supermassive black hole at their centers. These central engines possess incredibly strong gravitational fields, gobbling up anything that strays too close. Funneling all that material causes some black holes to unleash an extraordinary amount of energy that scientists believe fuel the formation of a quasar — the brightest known objects in the universe. The luminous cores of distant, ancient galaxies, quasars expel jets of energetic matter. With the help of two powerful radio telescopes, astronomers spotted the gigantic two-lobed jet, which spans at least 200,000 light-years. A light-year is the distance light travels in one year, which is 5.88 trillion miles (9.46 trillion kilometers). A study detailing the find was published February 6 in The Astrophysical Journal Letters. By using telescopes to peer into the distant universe and study the phenomena observed there, astronomers can essentially see back in time. The discovery of the huge radio jet is providing a window into the early days of the universe, shedding light on when the first jets formed and how they shaped galaxies over time. Finding an ancient radio jet in the early universe The quasar that produced the two-lobed radio jet formed when the universe was less than 1.2 billion years old, or 9% of its current age, and it has some oddball traits. Astronomically speaking, the quasar, which weighs 450 million times the mass of our sun, is considered to be smaller than typical quasars, which can reach masses that are billions of times heavier than our star. 'This seems to indicate that you don't necessarily need an exceptionally massive black hole … to generate such powerful jets in the early Universe,' Gloudemans said in a statement. The double-sided jet is also asymmetrical in multiple ways, including the distances it spans away from the quasar, as well as its brightness, 'which seems to indicate that an extreme environment is affecting the lobes,' Gloudemans said. An international team of astronomers first identified the radio jet while using the Low Frequency Array, or LOFAR, Telescope, a network of radio telescopes throughout Europe. Then, the researchers carried out follow-up observations in different wavelengths of light, such as near-infrared using the Gemini Near-Infrared Spectrograph instrument on the Gemini North telescope in Hawaii as well as visible light with the Hobby-Eberly Telescope in Texas. Together, the different bands of light helped the team piece together details about the large jet and the quasar, named J1601+3102, that produced it. 'We were searching for quasars with strong radio jets in the early Universe, which helps us understand how and when the first jets are formed and how they impact the evolution of galaxies,' Gloudemans said in a statement. 'It's only because this object is so extreme that we can observe it from Earth, even though it's really far away. This object shows what we can discover by combining the power of multiple telescopes that operate at different wavelengths.' Discovering a large radio jet in the distant universe suggests there are more waiting to be found, Gloudemans said, and the team is planning more observations to better understand the unusual environment around this particular quasar. Some of the biggest remaining questions include what factors lead to the creation of powerful radio jets. 'There are around a thousand quasars known at this epoch and even earlier in the Universe, so even though they are rare, we definitely know quite a few,' Gloudemans said.'The quasars become extremely luminous by friction from gas and dust falling into the supermassive black hole. In the case of this quasar, part of the material has been launched in the form of two jets. We think that these strong radio jets form in roughly 10% of the quasars. Jets have been found even earlier in the Universe, but never of this monster size.' Cosmic radio jets near and far A separate team of astronomers, also using LOFAR, announced last fall the detection of Porphyrion, a gargantuan pair of jets spanning a whopping 23 million light-years — that's 115 times more massive than the newly discovered two-lobed radio jet. But unlike the jet formed by J1601+3102, Porphyrion was found 7.5 billion light-years away from Earth in what's called the 'nearby' universe, rather than the early universe, according to the report published in September. Jets as enormous as Porphyrion would be difficult to detect in the early universe because leftover radiation from the big bang drowns out the radio light released by the jets, Gloudemans said. However, astronomers have long questioned whether long, powerful jets could be spotted in the distant universe because the black holes responsible for them behaved differently in the early universe and were less massive, said Martijn Oei, a postdoctoral scholar in observational astronomy at the California Institute of Technology and the lead author of the September study on Porphyrion. Oei was not involved in the new study. 'What is exciting is that these authors show that quasars at times when they were less massive than they are today could still generate powerful and long jets,' Oei said in an email. 'The Universe was much smaller than it was at Porphyrion's time, so in a relative sense the contrast is less big! This is an impressive find, and shows that black holes affected the Universe with magnetism, heat and cosmic rays beyond the boundaries of their own galaxies already about a billion years after the Big Bang.'
