KevinJamesNg

Traveling through time and space & Doing timey wimy stuff.

At 23:19 Beijing time late nearly midnight on October 26th, 2020, CNSA – China National Space Administration …. China- People’s Republic of China successfully used the Long March 2C- Chang Zheng 2C carrier rocket at the Xichang Satellite Launch Center – Sichuan Province to successfully launch Remote Sensing 30 the 07 satellites were sent to the predetermined orbit and the launch was a complete success. The mission also launched the Yaogan constellation 06 satellites. This mission is the 350th flight of the Long March series of carrier rockets…..  Launched under the name Yaogan Weixing-30 Group-7, the three satellites were orbited by a Chang Zheng-2C launch vehicle from the LC-3…

Using  the Long March 2C – Chang Zheng 2C  Carrier Rocket at the Xichang Satellite Launch Center to successfully send the “Remote Sensing 30 Group 07” satellite into the scheduled orbit.  After the rocket lifted off, the Xi’an Satellite Measurement and Control Center Lingshui and Xiamen’s measurement and control stations found and tracked targets in time. As the last station of land-based measurement and control, the Xiamen Measurement and Control Station successfully completed the measurement and control task. ….. The Chuangxin-5 satellites were developed by the Chinese Academy of Sciences Small Satellite Center. All the Yaogan Weixing-30 / Chuangxin-5 missions were launch by Long March-2C rockets from Xichang Satellite Launch Center.

The first three satellites were launch on September 29, 2017, followed by another three satellites on November 24 the same year. This second group was orbited into an orbital plane 119° west of the first three satellites.

Launching into an orbital plane 120° east of the Group-1, the Yaogan Weixing-30 Group-3 was orbited on December 25th, 2017 year, being followed by another trio on January 25, 2018 year. On July 26, 2019, the Yaogan Weixing-30 Group-5 was launched and the Group-6 on the series was launched on March 24, 2020…..The three new satellites will possibly occupy the sixth plane of the system, with the satellites spaced by 120° in their orbits.

Also on this flight was Tianqi-6, a low-orbit communication satellite operated by Guodian Gaoke for IoT communications, which is also carrying a camera for educational purposes.

The satellite is part of the “Apocalypse Constellation” that provides users with much-needed data collection and transmission services for terrestrial network coverage blind areas, which are widely used in marine, environmental protection, meteorological, forestry, geological, emergency, rescue and smart city industries to enhance China’s global data network coverage and application capabilities are of strategic importance. Also providing Remote Sensing of mainly used to carry out electromagnetic environment detection and related technical tests….

Images and visual are from Weibo

 

During this year of the Anniversary of Star Trek online in which celebrating the Legacy  in which is also introducing legendary bundles in Star trek Online Legacy .. in which comes with the standard hulling textures that’s given throughout each series in which various new hulling outfitting’s that’s been displayed throughout each star trek series.. Defiant, Galaxy, Kelvin Timeline constitution, Odyssey, NX, Sovereign, Crossfield, Intrepid, 2256 also 2265 Constitution class hulling’s in which those brand new ships during… in which the tenth anniversary….

 There are two interesting hulling textures the Sovereign also its refit in which that came after post Nemesis  in which  the rehulling texturing  brought towards The Legendary Miracle Worker Assault Cruiser includes a new visual variant: The Sovereign-class refit as envisioned by John Eaves for the final scene of Star Trek: Nemesis. In the film, the U.S.S. Enterprise E survives a devastating battle with the Reman ship Scimitar and is undergoing a refit to repair the damage from the battle. For the sequence showing the Enterprise being repaired, Eaves created a new version of the Enterprise that had some structural and material differences. The updated design sported larger pylons, adjustments to the saucer and engineering hull, and a darker, more metallic material.

 There are two interesting hulling textures the Sovereign also its refit in which that came after post Nemesis  in which  the rehulling texturing  brought towards The Legendary Miracle Worker Assault Cruiser includes a new visual variant: The Sovereign-class refit as envisioned by John Eaves for the final scene of Star Trek: Nemesis. In the film, the U.S.S. Enterprise E survives a devastating battle with the Reman ship Scimitar and is undergoing a refit to repair the damage from the battle. For the sequence showing the Enterprise being repaired, Eaves created a new version of the Enterprise that had some structural and material differences. The updated design sported larger pylons, adjustments to the saucer and engineering hull, and a darker, more metallic material.

The Legendary Miracle Worker Assault Cruiser represents a culmination of decades of technological innovation and engineering expertise. Built using the insight of the U.S.S. Enterprise NCC-1701-E’s Chief Engineer Gerodi La Forge, the Legendary Miracle Worker Assault Cruiser has access to Innovation Mechanics and comes equipped with Metreon Gas Canisters, Incremental Phase Shift and a Metreon Gas Warhead Launcher. These innovations, along with a pilot engineering bridge officer seat, give it power and flexibility needed to keep the peace in an intriguing Post Nemesis galaxy.

Specifications of The Legendary Miracle Worker Assault Cruiser- Sovereign- Sovereign refit via Star trek online …..

Faction: Federation and Federation Aligned

Hull Modifier: 1.5

Shield Modifier: 1.05

Fore Weapons: 4 Aft Weapons: 4

Bridge Officer Stations: Lieutenant Tactical, Lieutenant Commander Tactical,

Lieutenant Engineering/Pilot, Commander Engineering/Miracle Worker, Lieutenant Universal

Consoles: 4 Tactical, 5 Engineering, 2 Science, 1 Universal (scales with level)

Base Turn Rate: 8

Impulse Modifier: .15

Inertia: 40

+15 Weapons Power, +15 Engine Power

Console – Universal – Metron Gas Canisters

Console – Universal – Incremental Phase Shift, Metreon Gas Warhead Launcher

Innovation Mechanics

Cruiser Command Array

Command – Strategic Maneuvering

Command – Shield Frequency Modulation

Command – Weapon System Efficiency

Command – Attract Fire

Starship Mastery Package (Cruiser)

Absorptive Plating (+Physical and Kinetic Damage Res)

Rapid Repairs (+Hull Regeneration)

Enhanced Hull Plating (+Energy Damage Resistance Rating)

Armored Hull (+Max Hull Capacity)

Specialist Knowledge, Vent Metreon Laced Plasma (Starship Traits)

NEW: Transcranial Sensor Link (Account-Unlocked Starship Trait)
Defeated enemies larger than frigates leave behind debris that can be analyzed
by advanced sensors after moving close to them. Each cloud of debris
analyzed adds a stacking bonus to Shield Penetration which lasts until
mapmove. Debris is gradually tractored
toward your ship.

Images GamePhotography are of @KevinJamesNg

 

As of 23rd October 2020, The CNSA –China National Space Administration Belt and Road Initiative Lunar Mission on the One Hundred Kilometer diameter Von Karman Crater    Chang’e 4 lander and the “Yutu 2” lunar rover the Chang’e-4 lander and the “Yutu-2” lunar rover Chang’e 4 lander and “Yutu 2” lunar rover usher in As the celestial bodies move, night falls once again on the back of the moon. The Chang’e 4 lander and the “Yutu 2” lunar rover completed the 23rd day of the month. At 21:40 and 12:00 on October 23, they completed the moon night mode setting according to ground instructions and entered moon night sleep. As of today, the Chang’e-4 lander and the “Yutu-2” lunar rover have successfully worked on the back of the moon for 660 earth days, traveling a total of 565.9 meters.

Recent basalt coverage area (red line area) recent basalt coverage area (red line area)

Based on the data of the panoramic camera stitched images and DOM images on the 22nd day, the “Yutu-2” lunar rover travelled to the basalt distribution area and the impact crater area with higher reflectivity during the 23rd day. Both locations are Located northwest of the lunar rover. In this travel route, the infrared imaging spectrometer performed a spectral detection of a rock block with a diameter of about 30 cm. The scientific research team is conducting in-depth research on the detection data. During the 23-month scientific exploration, the lander’s lunar surface neutron and radiation dose detector carried out the world’s first on-site- on-site particle radiation environment detection on the lunar surface, and obtained precious first-hand scientific data. The research results are in Science Advance Journal published.

The installation position of the moon surface neutron and radiation dose detector on the lander The installation position of the moon surface neutron and radiation dose detector on the lander

The moon surface neutron and radiation dose detector can comprehensively measure the total particle radiation dose, neutral particle radiation dose, particle radiation LET spectrum, neutrons, and charged particles on the moon surface. The actual measurement results show that the particle radiation dose rate near the landing zone is 13.2uGy/h(si), the dose equivalent is twice that of the surface of Mars and the interior of the space station, 5 to 10 times of a flight, and 300 times of the surface of the earth (Beijing).

The measured monthly radiation dose (the horizontal axis is Universal Time, the vertical axis are respectively: a total radiation dose rate in silicon (microGray/hour), b. neutral particle radiation dose rate in silicon (microGray) /Hour), c. The charged particle radiation dose rate in silicon (microGray/hour), d. The cosmic ray penetrating particle flux (pieces/square centimeter·hour·radian) measured monthly surface radiation dose (horizontal The axis is Universal Time, and the vertical axis are: a total radiation dose rate in silicon (microGray/hour), b. neutral particle radiation dose rate in silicon (microGray/hour), c. silicon Charged particle radiation dose rate (microGray/hour), d. Cosmic ray penetrating particle flux (pieces/square centimeter·hour·radian)

These field measurement results provide important radiation environment parameters for the follow-up lunar exploration in my country. The load also distinguishes the radiation dose of charged particles and neutral particles, thereby providing more accurate radiation physical quantities, which can serve the radiation protection of future astronauts.

Today in the history of spaceflight on 24th October :

On October 24, 2007, my country’s first lunar exploration satellite, Chang’e-1, was successfully launched by the Long March 3A carrier rocket at the Xichang Satellite Launch Center, opening the glorious course of my country’s lunar exploration project. On November 12, 2008, the full moon image taken by Chang’e-1 was released. On March 1, 2009, the satellite hit the moon in a controlled manner as scheduled. The successful implementation of this mission marked my country’s entry into the world deep space exploration club and established the third milestone of China’s spaceflight after artificial satellites and manned spaceflight.

On October 24, 2014, my country’s first-month high-speed reentry aircraft was launched from the Long March III C-modified II carrier rocket at the Xichang Satellite Launch Center, and it orbited the moon three days later. On November 1, the returner landed in Siziwang Banner, Ulanqab City, Inner Mongolia, China. As a pilot mission of the third phase of the lunar exploration project, it verified the key technology of lunar sampling and returning, laying a solid foundation for lunar sampling and returning.

Schematic diagram of reentry and return test track Schematic diagram of reentry and return test track…

随着天体的运行,夜幕再次降临在月球背面。嫦娥四号着陆器和“玉兔二号”月球车完成第23月昼工作,分别于10月23日21时40分和12时,按地面指令完成月夜模式设置,进入月夜休眠。截至今天,嫦娥四号着陆器和“玉兔二号”月球车已在月球背面顺利工作660个地球日,累计行驶565.9米。

最近玄武岩覆盖区域(红色线条区域)最近玄武岩覆盖区域(红色线条区域)

基于第22月昼全景相机拼接影像、DOM影像等数据情况,“玉兔二号”月球车在第23月昼期间先后向玄武岩分布区域和反射率较高的撞击坑区域行驶,这两个位置均位于月球车西北方向。在此行进路线中,红外成像光谱仪对一直径约为30cm的岩块进行了光谱探测。科研团队正在对探测数据进行深入研究。在23个月昼的科学探测中,着陆器上月表中子与辐射剂量探测仪开展了国际上首次月表实地粒子辐射环境探测,获取了珍贵的第一手科学数据,研究成果在Science Advance期刊发表。

月表中子与辐射剂量探测仪在着陆器上的安装位置月表中子与辐射剂量探测仪在着陆器上的安装位置

月表中子与辐射剂量探测仪可对月表的粒子辐射总剂量、中性粒子辐射剂量、粒子辐射LET谱、中子、带电粒子进行综合测量。实测结果表明,着陆区附近粒子辐射剂量率为13.2uGy/h(si),剂量当量是火星表面和空间站内部的2倍,一次航班的5到10倍,地球表面(北京)的300倍。

测量到的月表辐射剂量(横轴为世界时,纵轴分别为:a 硅中的总辐射剂量率(微戈瑞/小时),b. 硅中的中性粒子辐射剂量率(微戈瑞/小时), c. 硅中的带电粒子辐射剂量率(微戈瑞/小时),d. 宇宙线穿透粒子通量(个/平方厘米·小时·弧度)测量到的月表辐射剂量(横轴为世界时,纵轴分别为:a 硅中的总辐射剂量率(微戈瑞/小时),b. 硅中的中性粒子辐射剂量率(微戈瑞/小时), c. 硅中的带电粒子辐射剂量率(微戈瑞/小时),d. 宇宙线穿透粒子通量(个/平方厘米·小时·弧度)

这些实地测量结果为我国后续的月球探测提供了重要的辐射环境参数。该载荷还将带电粒子和中性粒子的辐射剂量进行了区分,由此提供了更加精准的辐射物理量,可服务于未来航天员的辐射防护。

航天史上的今天:

2007年10月24日,我国首颗探月卫星嫦娥一号由长征三号甲运载火箭在西昌卫星发射中心发射成功,开启了我国探月工程的辉煌历程。2008年11月12日,嫦娥一号拍摄的全月球影像图发布。2009年3月1日,卫星按预定计划受控撞月。本次任务的成功实施,标志着我国进入世界深空探测俱乐部,树立了中国航天继人造卫星和载人航天之后的第三个里程碑。

2014年10月24日,我国首个月地高速再入返回飞行器在西昌卫星发射中心由长征三号丙改II型运载火箭发射升空,三日后实现绕月。11月1日返回器在中国内蒙古乌兰察布市四子王旗境内着陆。作为探月工程三期先导任务,验证了月球取样返返回关键技术,为月球采样返回奠定了坚实基础。

再入返回试验轨道示意图再入返回试验轨道示意图

Images and visuals are from Weibo.. ​​​​Also from my own lunar photography @KevinJamesNg 

As of 11th October 2020, The CNSA –China National Space Administration Belt and Road Initiative Lunar Mission on the One Hundred Kilometer diameter Von Karman Crater    Chang’e 4 lander and the “Yutu 2” lunar rover the Chang’e-4 lander and the “Yutu-2” lunar rover Chang’e 4 lander and “Yutu 2” lunar rover usher in the 23rd day…… With the sun spreading on the back of the moon again, Chang’e 4 lander and “Yutu 2” lunar rover successfully awakened and ushered in the 23rd day work period (the lander awakened at 11:56 on October 11th and the lunar rover at 18:57 on October 10). Up to now, Chang’e-4 has successfully spent 647 Earth days on the back of the moon.


 Based on the panoramic camera stitched images, DOM images and other data, during the day of this month, the “Yutu-2” lunar rover will drive toward the basalt distribution area or the impact crater area with high reflectivity, both of which are located northwest of the current detection point . In this travel route, there is a rock block with a diameter of about 30cm. The “Yutu-2” lunar rover will use an infrared imaging spectrometer to select an opportunity to perform spectral detection of the rock.
        

In addition, near the noon of the moon, it is planned to carry out the panoramic camera ring shooting, the infrared imaging spectrometer and the neutral atom detector will carry out related scientific detection work, and the lunar radar will carry out synchronous …

With the sun spreading on the back of the moon again, the Chang’e 4 lander and the “Yutu 2” lunar rover successfully awakened independently, ushering in the 23rd day of the day (the lander awakened at 11:56 on October 11, the moon The Lunar Rover  woke up at 18:57 on October 10). Up to now, Chang’e-4 has successfully spent 647 Earth days on the back of the moon.​

The purple circled area is the closest impact crater with brighter reflectivity, the red circle is the location of the rock block, the white line is the planned driving path, the purple circled area is the closest impact crater with brighter reflectivity, and the red circle is the location of the rock block. The white line is the planned driving path

Based on the panoramic camera stitched image, DOM image and other data, during the day of this month, the “Yutu-2” lunar rover will drive toward the basalt distribution area or the impact crater area with high reflectivity, both of which are located northwest of the current detection point . In this travel route, there is a rock block with a diameter of about 30cm. The “Yutu-2” lunar rover will use an infrared imaging spectrometer to select an opportunity to perform spectral detection of the rock.

Position of rock block to be detected

In addition, near the noon of the moon, it is planned to carry out the panoramic camera ring shooting, the infrared imaging spectrometer and the neutral atom detector will carry out relevant scientific detection work, and the lunar radar will carry out synchronous detection during the driving. The latest scientific results will be released in time.

随着太阳光再次铺洒月球背面,嫦娥四号着陆器和“玉兔二号”月球车成功自主唤醒,迎来第23月昼工作期(着陆器于10月11日11时56分唤醒,月球车于10月10日18时57分唤醒)。截至目前,嫦娥四号已在月球背面顺利度过647个地球日。​

紫色圆圈区域为距离最近、反射率较亮的撞击坑,红圈为岩块位置,白线条为计划行驶路径紫色圆圈区域为距离最近、反射率较亮的撞击坑,红圈为岩块位置,白线条为计划行驶路径

基于全景相机拼接影像、DOM影像等数据,在本月昼期间“玉兔二号”月球车将向玄武岩分布区域或反射率较高的撞击坑区域行驶,这两个位置均位于当前探测点西北方向。在此行进路线中,存在一枚直径约为30cm的岩块,“玉兔二号”月球车将利用红外成像光谱仪择机对该石块进行光谱探测。

拟探测岩块位置拟探测岩块位置

此外,在接近月午时,计划开展全景相机环拍,红外成像光谱仪与中性原子探测仪将开展相关科学探测工作,行驶过程中测月雷达开展同步探测。最新科学成果将及时发布。

Images and visuals are from Weibo.. ​​​​

On a very dark Autumn pasting just of midnight with Xichang Satellite launch Center –  Sichuan province local residents crowds staying up celebrating Morning 0057 hour Beijing time on October 12th, 2020, watching a celebrating launch that celebrating China National Day also the Mid-Autumn festival in China – People’s Republic of China.  In which CSNA –China National Space Administration Successfully launched the Gaofen 13 satellite using the advance variant Long March 3B carrier rocket into schedule orbit deploying the Earth Sciences – Remote Sensing Optical Satellite The Gaofen 13 this marks the ., this launch is the 349th launch of the Long March series carrier rocket. (China Aerospace Science and Technology Corporation) the advance variant of the Long March 3B is . For this mission, the Long March IIIB launch vehicle has undergone the most technological changes in recent years-16 first-flight first-use technologies have been updated, mainly involving satellite fairings, on-arrow pressurized transport systems, and three-stage rocket igniters , Laser inertial group data with amongingly with other modified systems..  

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The Gaofen 13 satellite is a high-orbit optical remote sensing satellite, which is mainly used in fields such as land surveys and crop yield estimation. This mission is the 349th flight of the Long March series of carrier rockets…. The Gaofen 13 is an optical remote sensing satellite with a ground pixel resolution of up to sub-meter level. It is mainly used in territorial census, urban planning, land right confirmation, road network design, crop yield estimation, and disaster prevention and mitigation. , Which can provide information guarantee for the construction of the “Belt and Road Initiative.”

The Gaofen13  manufacturer is CAST – China Academy of Space Technology also in collaboration with its associate agency with CHEOS- China High Resolution Earth Observation System in which is design Built on a CAST 2000 Design Heritage Earth Sciences, in which is design for Translating Gaofen is High Resolution, also known as CHEOS- China High Resolution Earth Observation System, in which provisions in the real time observational data analysis of with high resolution multi spectra equipment imaging system in analysis for assessing environmental disaster warning, emergency response also for the protection for ecological, also providing support for infrastructure construction, transportation for various purpose of the Belt And Road initiative  … one of many specifications of the Gaofen 10 Earth Sciences satellite is The high-resolution satellite is a large-scale remote sensing satellite system for the national science and technology major special arrangement of the microwave remote sensing satellite, the ground pixel resolution is up to sub-meter …

Images and visuals are from Weibo….Also from 哈库纳玛塔塔_Si

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