Measuring human in vivo gravitational waves and the origin of an elastic reference memory

AbstractThese data were generated to investigate gravitational binding inversion energy impacts on objects' FHD (falling height difference) at free fall state, ranging from close to rigid body objects, and liquids, to organisms including human beings.Historically, it is believed that the masses of free fall objects are independent of their weight measuring; however, we find such independence will be impacted by the internal motion of falling objects greatly, we then design the FHD indicator with board application and theoretical significance for bio-systems.In the falling height difference measurement, we first compare the FHD of slinky objects with internal motion and those objects without internal motion to find the source of FHD. Then test the FHDs of half bottle of oil and a half bottle of water, use liquid nitrogen treatment as CK to confirm that the FHDs come from internal motion.To test the FHDs of organisms, we compare the dead and alive states of organisms, also use liquid nitrogen treated alive organism to confirm that the FHDs of alive state come from internal motion.Finally, we test the human FHDs from a 10m diving platform, and also test the FHDs of animals before and after sexual behavior; and the FHDs of plant raw seeds and germinated seeds from the same batch.These experiments clearly reveal the origin of elastic reference systems and memory. Free-fall of rigid bodies following the conservation of common energy can issue legendary Galileo results. Free-fall of elastic objects such as half bottle of water begin to show elastic reference characteristics. We can section such free-fall height h into stages as h1 to hk, then for each stage hi inversion energy begins to accumulate in a small amount, common energy conservation is then impacted by the inversion energy E1 to k , thus inducing FHDs between a water bottle/oil bottle pair. To bio-systems, the little fraction of inversion energy E1 to k impacts are enlarged greatly, then all bio-systems follow inversion energy conservation instead of common energy conservation. To conserve inversion energy, bio-systems only take inversion (energy) induced by parameters instead of direct parameter data, not only in free-fall steps but also in all functional stages. It seems bio-systems internal interactions, such as from genomics to proteomics, to cells, tissues, and to organs, etc., or external interactions, such as eating, migrations, diverse activities, etc., are much more diverse and complicated; however, they indeed all belong to elastic reference systems and are as simple as the free-fall of liquid bottles in the experiments, nothing more than each step hi only takes inversion energy E1 to Ek induced by parameters instead of parameters themselves and then equivalents with memorized patterns, albeit the inversion energy of free-fall liquids are much lower than those in alive bio-systems. (It is noted that universal memory is not only present in living systems, but any non-living beings like our free-fall bottle liquids also possess such primitive “memory” albeit the level is quite lower, the resulting FHDs are from such universal “memory”) Our methods reveal the elastic reference memory quite well. Modifications of Newtonian three Laws also come from these designs. Usage NotesThis dataset originates modification of Newtonian Three Laws of Motion for bio-systems, it is recommended to design new equivalent experiments from these modification laws. The samples measured in this paper are only a very small fraction of all species on Earth, there are still a lot of samples waiting to be tested for theoretical studies as well as applications.  Also, the lifetime standard curve will be more significant than a point test; therefore, it is strongly recommended to test the human lifetime FHD standard curve. As suggested in the paper, it could start from around 6 years old till the final 5 years. Such a lifetime FHD standard curve can’t be replaced by any other test. Even for animals and plant samples, the lifetime FHD standard curve is still critical. We can know more about the gravitational quiddity of ourselves and the whole biological kingdom by such kind of lifetime standard curves. (Due to the COVID-19 pandemic and other reasons, this paper still does not get a lifetime FHD standard curve. However, scholars and the global public should try lifetime FHD standard curves or support such study.)Dateset descriptionThis readme file was generated on [2020-06-01] by [Yi Yu Lai]  GENERAL INFORMATIONTitle of Dataset: Measuring human in vivo gravitational waves and the origin of an elastic reference memoryAuthor/Principal Investigator InformationName:          Yi Yu LaiORCID:     0000-0002-0113-8795Institution:  Innoen Gravitational InstituteAddress:      6-61 Ardglen Dr. Brampton, L6W1V1, Ontario, Canada(office)                      The experiments need field tests, various locations on Great Toronto region &                      Guizhou Province in China (Test sites)Email:           [e-mail]  Date of data collection: From 2019-12-23 to 2020-4-25, human diving on 10m platform data were collected on 2020-2-15 in Canada Ontario Etobicoke diving club.Various locations in the Great Toronto area in Canada and Guizhou Province in China for various experiments in the paper (Guizhou locations performed mutation 1.4: two bi-layer metal balls free-fall experiment for 6 repetitions and mutation 1.5 for around 100 tests with different bottle sizes and oil types, location around 26.423532, 106.674131, no liquid nitrogen mutation performed in this location.) The videos in the paper were performed at Mississauga, Canada: 43.62942, -79.66731, including liquid nitrogen mutations, also various other experimental locations in the GTA area and Ontario. The human diving data were collected at Etobicoke Olympium, address: 590 Rathburn Rd, Etobicoke, ON M9C 3T3 , Canada (43.65048, -79.58436)   Information about funding sources that supported the collection of the data: No funding SHARING/ACCESS INFORMATION Licenses/restrictions placed on the data:Performing similar experiments need to comply with relevant ethical requirements, E.g., vertebrate animals need ethical approval, in this paper, human diving is a sportive activity to understand in vivo gravitational waves, only needs licensed diving coaches to assure the diving safety since no somatic body intervention or biological sample was taken out. However, if future designs involve intervention or somatic samples during the diving activities, then need additional clinical trial compliance.    Links to publications that cite or use the data: Lai, Y.Y. Measuring the “Weight” of Human in vivo Bio-Inertia by Legendary Galileo Falling Body Experiments on a Commercial 10m Diving Platform and Gravitationally Inversion of Newton's Three Laws of Motion into the Basic Laws of Evolution. IJSR, 10(9), 1301-1328 (2021).      (http://doi.org/10.21275/SR21829103822) Was data derived from another source?If yes, list source(s): No Recommended citation for this dataset: DOI: 10.57760/sciencedb.02448DATA & FILE OVERVIEWFile List:Tab 3: A half bottle of water VS a half bottle of oil liquid nitrogen mutation free-fall experiments.        Tab 4: Different animals/plant alive samples VS their dead counterparts for free-fall experiments.Tab 5: Raw mung bean seeds and soybean seeds VS germination state for free-fall experiments.Tab 6: liquid nitrogen mutation of Tab 4.Tab 7: Human free-fall from a commercial 10m diving platform against a metal bar experimentsTab 8: Animal before sexual behavior and after sexual behavior free-fall experimentsSupplementary Movie 1. part of the Apollo 15 experiment video on the Moon (1971 by astronaut David Scott)Supplementary Movie 2. the movement of a free suspension slinky after releaseSupplementary Movie 3. the FHD of a metal chain and a same-length slinky from 7.05mSupplementary Movie 4. the FHD of a half-bottle of oil and a half bottle of water from 7.04m_video by a 6-year-old kindergarten girl from Dorset Public School, Brampton, CanadaSupplementary Movie 5. bio quantum path experiment for the definition of bio-inertiaSupplementary Movie 6. the FHD of a dead(cooked) apple and an alive apple from 7.04m_video by a 6-year-old kindergarten girl from Dorset Public SchoolSupplementary Movie 7. the FHD of a rat and a metal weight from 7.04mSupplementary Movie 8.the FDH of soybean seeds after soaking 24H against raw seeds from 7.04mSupplementary Movie 9. accepted diving posture 1Supplementary Movie 10. accepted diving posture 2Supplementary Movie 11. ancient training for increasing the surface tension of spinal vertebrae  METHODOLOGICAL INFORMATIONDescription of methods used for collection/generation of data:From linked paper, refer to the Experimental section: (http://doi.org/10.21275/SR21829103822) Methods for processing the data:      Directly use a video camera to get the FHDs, manually collect as written in the paper. Instrument- or software-specific information needed to interpret the data:      Video camera, rack, metal bar, laser distance meter, ice-cream clips, safety rope, liquid nitrogen jar, and other accessories.   Standards and calibration information, if appropriate:    The laser distance meter follows the manufacturer’s calibration.  Plant samples need to fix on the rack for 5 mins to be stable, also choose windless conditions. For liquid nitrogen overnight mutation, we choose 20 seconds of stabilizing time instead of the normal 5 mins stabilizing time. For animal testing, try to avoid extra body motion in the free-fall, such as tying the wings, etc. Be careful, the impact of sexual behavior on the FHDs can't be neglected, try to avoid such impacts for at least one week.      For humans close to free-fall state from the 10m platform, only two diving styles as in supplementary movie 9 and movie 10 are allowed. However, these two postures are still not the ideal condition, in the paper, we suggested a horizontal bar holding posture for FHD testing, that way can get reliable results. Environmental/experimental conditions:     Avoid the impacts of wind or airflow, give enough stabilizing time and also refer to the above Standards and calibration information. And the experiments in the paper are only preliminary experiments to assure FHDs are 100% present, still have a long way to go to attain the lifetime FHD standard curves that can offer substantial information.  Describe any quality-assurance procedures performed on the data:      For all the experiments, try to repeat experiments on the same day and under the same condition, and also repeat on a different day in the same location. Only enough reproducible results are used. For human diving from the 10m platform, we only get one opportunity to test, therefore, no different day results for comparison. It is still highly recommended the lifetime FHD standard curve for reflecting the bio-inertia.              People involved with sample collection, processing, analysis and/or submission:       Yi Yu Lai, Jingli Xing, Rong Yong Weng, Guangxin Lai.  DATA-SPECIFIC INFORMATION FOR: [Tab. 3]Number of variables: 4 Number of cases/rows: 6 Variable List: <bottle size: 330ml, 500ml; liquid nitrogen: treat overnight, untreated bottle contents: water, commercial plant oil; falling height: 5.28m, 7.04m, 23.56mMissing data codes: <NA>          Specialized formats or other abbreviations used: NATab 3: the unit of FHD in this paper is cm.Pre-experiments that generate the following liquid nitrogen mutation experiments:A half bottle of water and a half bottle of oil visually prepared were composed of a trial pair, released from a height, and a video camera was used to calculate the FHDs (falling height difference). In total 600 pairs (1200 bottles) with different parameters in different countries, all with falling heights larger than 20cm, all resulted in the oil bottles hitting the ground first. Measuring one experimental pair, the oil bottle is 173.274g, and the water bottle measured 184.125g, due to the density difference, all the test pairs should be the oil bottle is lighter than the water bottle, and the lighter bottle hits the ground first. The parameters refer in these 600 tests are: height from 4.82 to 23.65m; bottle size 330ml, 500ml, and 750ml; oil type: canola oil, vegetable oil, sunflower oil, peanut oil, soybean oil, car engine oil. Location: Ontario Canada, Guizhou Province of China.Formal liquid nitrogen mutation experiments:24 commercial drinking water bottles (12 × 330ml, 12× 500ml) compose of 12 experimental pairs (a half bottle of plant oil and a half bottle of water of the same height), 6 pairs treated with liquid nitrogen overnight and six not, released from the heights of 5.28 m, 7.04m, and 23.65m; FHDs present in (Tab.3), the stabilizing time for normal pairs is 5 mins and for liquid nitrogen treated pairs is 20s. For the six experimental pairs without liquid nitrogen treatment present FHDs in the table and the oil bottle hits the ground first; however, for the six experimental pairs after liquid nitrogen overnight, water bottles and oil bottles hit the ground simultaneously. This result demonstrates the internal motion of the bottle liquid contents plays a critical role in FHDs. DATA-SPECIFIC INFORMATION FOR: [Tab. 4]Number of variables: 3 Number of cases/rows: 34 Variable List: < species: 34; living state: dead or alive (sometimes metal bar replace dead samples); repetition: 3 samples each species; falling height: 7.04m Missing data codes: <NA>       Specialized formats or other abbreviations used: spl, means each species take 3 repetitions.       Tab 4: Different alive animals and plant samples VS their dead counterparts or a metal bar to demonstrate significant FHDs between them, three repetitions, validated different gravitational binding between the alive and the dead state of bio-systems (the advantage of this design over mutations of Cavendish experiments is that it can acquire in vivo gravitational waves or bio-inertia. It is this design that generates the method for testing human in vivo gravitational waves or bio-inertia and establishes the theoretical foundation of the paper.) DATA-SPECIFIC INFORMATION FOR: [Tab. 5]Number of variables: 2 Number of cases/rows: 4 Variable List: < seeds: mung beans, soybeans; germination: 24H, 48H> ; falling height: 7.04m Missing data codes: <NA>         Specialized formats or other abbreviations used: spl means each sample takes three repetitions.      Tab 5: Raw mung bean seeds and soybean seeds, soaked in water for 24 hours and 48 hours, put inside centrifuge bottles, and released from a height. The raw seeds hit the ground first, which means the seed's germination process accumulates more gravitational binding than raw seeds and is sensitive to our FHD tests. DATA-SPECIFIC INFORMATION FOR: [Tab. 6]Number of variables: 2 Number of cases/rows: 10Variable List: <falling height: 5.48m, 7.54m; species: apples, pears, tomatoes, lobsters, mice>Missing data codes: <NA>                 Specialized formats or other abbreviations used: < NA>      Tab 6: Tab 4 has demonstrated that FHDs are present between the dead and alive state of a living being. We used some experimental pairs from Tab 4 and fixed them with liquid nitrogen overnight, then the FHDs present in Tab 4 recovered back to 0 again, this confirms for living beings, the FHDs do originate from internal motion. DATA-SPECIFIC INFORMATION FOR: [Tab. 7]Number of variables: 1 Number of cases/rows: 8 Variable List: < falling height: 10m, eight volunteers, only permit two compromised diving styles> Missing data codes: <no missing data, however, the idea diving style should use a horizontal bar rack, we lack it, and have to compromise to two inferior styles>Specialized formats or other abbreviations used: < NA>      Tab 7: Human diving from a commercial 10m diving platform against a metal bar, demonstrating significant FHDs. This experiment combined with previous experiments suggests that FHD testing is a reliable method for testing bio-inertia or integrating health conditions. It is highly recommended to use a lifetime FHD standard curve for health monitor and evaluation. DATA-SPECIFIC INFORMATION FOR: [Tab. 8]Number of variables: 1 Number of cases/rows: 5Variable List: < animals: 3 three one-year roosters and 2 one-year male rabbits. falling height: roosters, 5.28m, rabbits, 5.44m, behavior: before and after sexual behavior >Missing data codes: < NA>       Specialized formats or other abbreviations used: < spl means three repetitions of FHDs before sexual behavior, after sexual behavior, only test one repetition of FHD for calculating loss>      Tab 8: One-year visually healthy male animals were selected and separated from female partners for one month, then free-fall into a trampoline three times to average into FHDs before sex. After sexual behavior then tests the FHDs again to calculate the FHD sexual loss. After sexual behavior all animals show significant FHD, corresponding to the ancient Kungfu experience that sexual behavior will lose significant gravitational binding or bio-inertia for men (following ancient physical training experiences, after sexual behavior, male animals lose gravitational binding substantially and female animals should acquire part of the gravitational binding. In Wudang system, there are strict sexual restrictions for men; however, almost no restrictions for women. Using our FHD test can easily get sexual behavior gravitational binding loss for male animals; however, it is not easy to get the sexual behavior gravitational binding acquirement for female animals. Possibly it still needs some technological improvement for testing the female gravitational binding accumulation conditions). 

### 摘要
本数据集旨在探究引力束缚反演能量对自由落体状态下物体下落高度差（Falling Height Difference, 简称FHD）的影响，实验对象涵盖接近刚体的物体、流体以及包括人类在内的各类生物体。
过往学界普遍认为，自由落体物体的质量与其称重结果无关，但本研究发现该无关性会受落体内部运动的显著影响。据此，我们设计了具有广泛应用价值与理论意义的FHD指标，尤其适用于生物系统。
在下落高度差测量实验中，我们首先对比了带有内部运动的螺旋弹簧类物体与无内部运动物体的FHD，以探究FHD的来源；随后测试了半瓶油与半瓶水的FHD，并以液氮处理作为对照组（CK），验证FHD源于物体内部运动。
针对生物体的FHD测试，我们对比了生物的存活与死亡状态的FHD，并采用液氮处理的存活生物体作为对照，证实存活状态下的FHD源于生物内部运动。
最终，我们开展了10米跳水台的人体FHD测试，同时测试了动物性行为前后的FHD，以及同批次植物原种子与萌发种子的FHD。
本系列实验清晰揭示了弹性参考系统与记忆的起源。遵循常规能量守恒的刚体自由落体可得到经典的伽利略实验结果；而半瓶水这类弹性物体的自由落体则开始表现出弹性参考特性。我们可将自由下落高度h划分为h₁至hₖ多个阶段，每个阶段hᵢ中反演能量会逐步少量积累，常规能量守恒会受该阶段反演能量E₁至Eₖ的影响，进而引发水瓶/油瓶组的FHD。对于生物系统而言，占比极小的反演能量E₁至Eₖ的影响会被大幅放大，因此所有生物系统遵循反演能量守恒而非常规能量守恒。为维持反演能量守恒，生物系统仅会响应由反演能量诱导的参数变化，而非直接采用参数数据，这一规律不仅适用于自由落体阶段，也贯穿所有功能周期。
生物系统的内部交互（如从基因组学到蛋白质组学，再到细胞、组织直至器官等）与外部交互（如进食、迁徙与各类活动等）看似复杂多样，但本质均属于弹性参考系统，其原理与实验中的流体瓶自由落体并无二致：每个阶段hᵢ仅会响应由参数诱导的反演能量E₁至Eₖ，而非直接采用参数本身，进而与记忆模式等效。尽管自由落体流体的反演能量远低于存活生物系统，但二者均具备此类特性。（需说明的是，通用记忆不仅存在于生命体中，任何非生命体如本实验中的落体瓶内流体也具备此类原始“记忆”，尽管其水平极低，由此产生的FHD即源于此类通用“记忆”）。本研究方法很好地揭示了弹性参考记忆的本质。基于本研究设计，我们还提出了牛顿三大定律的修正方案。

### 使用说明
本数据集源于针对生物系统的牛顿三大定律修正研究，建议基于该修正定律设计新型等效实验。本文中测试的样本仅为地球所有物种中的极小一部分，仍有大量样本等待开展理论研究与应用测试。
此外，终生标准曲线较单点测试更具意义，因此强烈建议开展人类终生FHD标准曲线研究，建议测试年龄段从约6岁至最终5年。此类终生FHD标准曲线无法被任何其他测试替代。即使针对动植物样本，终生FHD标准曲线也至关重要。通过此类终生标准曲线，我们可更深入地理解人类自身乃至整个生物界的引力本质。（受新冠疫情及其他因素影响，本研究尚未获得终生FHD标准曲线。但学界与全球公众应尝试开展终生FHD标准曲线研究，或支持此类研究工作）。

### 数据集描述
#### 基本信息
数据集标题：测量人体体内引力波与弹性参考记忆的起源
研究者/项目负责人信息：
姓名：赖毅宇
ORCID：0000-0002-0113-8795
机构：因诺引力研究所
地址：加拿大安大略省宾顿市Ardglen大道6-61号，邮编L6W1V1（办公地址）；实验需开展野外测试，试验场地位于加拿大大多伦多地区及中国贵州省（贵州试验点坐标约26.423532, 106.674131，该地点未开展液氮处理实验）
邮箱：[e-mail]
数据收集时间：2019年12月23日至2020年4月25日；10米跳水台人体测试数据于2020年2月15日在加拿大安大略省Etobicoke跳水俱乐部采集。
加拿大大多伦多地区各地点及中国贵州省用于开展本文中的各类实验：贵州试验点完成了突变实验1.4（双层金属球自由落体实验，重复6次）与突变实验1.5（不同瓶型与油类的约100次测试）。本文相关视频拍摄于加拿大密西沙加（坐标43.62942, -79.66731），涵盖液氮处理实验，同时也在大多伦多地区及安大略省的其他多个地点开展实验。人体跳水数据采集于Etobicoke Olympium，地址：加拿大安大略省Etobicoke市Rathburn路590号，邮编M9C 3T3（坐标43.65048, -79.58436）
资助信息：无资助

#### 共享与获取信息
数据使用许可与限制：开展类似实验需遵守相关伦理要求，例如脊椎动物实验需获得伦理审批。本文中人体跳水为用于理解体内引力波的体育活动，仅需持证跳水教练保障跳水安全，因未进行躯体干预或采集生物样本。但若未来的实验设计涉及跳水过程中的躯体干预或生物样本采集，则需遵守额外的临床试验合规要求。
引用或使用本数据的出版物链接：Lai, Y.Y. Measuring the "Weight" of Human in vivo Bio-Inertia by Legendary Galileo Falling Body Experiments on a Commercial 10m Diving Platform and Gravitationally Inversion of Newton's Three Laws of Motion into the Basic Laws of Evolution. IJSR, 10(9), 1301-1328 (2021). (http://doi.org/10.21275/SR21829103822)
是否源自其他数据源：否
本数据集推荐引用格式：DOI: 10.57760/sciencedb.02448

#### 数据与文件概览
文件列表：
Tab 3：半瓶水与半瓶油液氮处理组自由落体实验
Tab 4：不同动植物存活样本与死亡对应样本的自由落体实验
Tab 5：同批次绿豆与大豆原种子与萌发种子的自由落体实验
Tab 6：Tab 4的液氮处理组实验
Tab 7：商用10米跳水台人体自由落体与金属杆对比实验
Tab 8：动物性行为前后的自由落体实验
补充视频1：阿波罗15号月球自由落体实验视频片段（1971年由宇航员David Scott完成）
补充视频2：释放后自由悬挂螺旋弹簧的运动过程
补充视频3：7.05m高度下金属链与同长度螺旋弹簧的FHD对比
补充视频4：7.04m高度下半瓶油与半瓶水的FHD视频，由加拿大宾顿市Dorset公立学校一名6岁幼儿园女童拍摄
补充视频5：定义生物惯性的生物量子路径实验
补充视频6：7.04m高度下煮熟的苹果（死亡状态）与鲜活苹果的FHD对比视频，由加拿大宾顿市Dorset公立学校一名6岁幼儿园女童拍摄
补充视频7：7.04m高度下大鼠与金属重物的FHD对比
补充视频8：7.04m高度下浸泡24小时后的大豆种子与原种子的FHD对比
补充视频9：标准跳水姿势1
补充视频10：标准跳水姿势2
补充视频11：用于增强脊柱表面张力的古代训练方法

#### 方法学信息
数据收集/生成方法说明：详见关联论文的实验部分：(http://doi.org/10.21275/SR21829103822)
数据处理方法：通过摄像机直接采集FHD数据，按论文所述手动记录。
解读数据所需的仪器或软件信息：摄像机、支架、金属杆、激光测距仪、冰淇淋夹、安全绳、液氮罐及其他配件。
标准与校准信息（如适用）：激光测距仪遵循厂商校准标准。
实验操作规范：植物样本需固定于支架上静置5分钟以稳定状态，且需选择无风条件。对于液氮过夜处理的样本，采用20秒的静置时间替代常规的5分钟。动物实验中，需尽量避免落体过程中的额外躯体运动，例如绑住翅膀等。需注意，性行为对FHD的影响不可忽视，建议至少提前一周避免此类影响。
针对10米跳水台的人体自由落体测试，仅允许采用补充视频9与10中的两种跳水姿势，但这两种姿势并非理想状态。本文建议采用持横杆的姿势进行FHD测试，以获得可靠结果。
环境与实验条件：需避免风或气流的影响，给予足够的静置稳定时间，并遵循上述标准与校准要求。本文中的实验仅为验证FHD存在的初步实验，距离能够提供有效信息的终生FHD标准曲线仍有较大差距。
数据质量保证程序：所有实验尽量在同日同条件下重复，并在不同日期同地点重复，仅采用可重复的实验结果。10米跳水实验仅获得一次测试机会，因此无不同日期的对比结果。仍强烈建议开展终生FHD标准曲线以反映生物惯性。
参与样本收集、处理、分析与提交的人员：赖毅宇、邢景丽、翁荣勇、赖光新

#### [Tab. 3]特定数据信息
变量数量：4
样本数/行数：6
变量列表：<瓶型：330ml、500ml；液氮处理：过夜处理、未处理；瓶内内容物：水、商用植物油；下落高度：5.28m、7.04m、23.56m>
缺失值代码：<NA>
本文中FHD的单位为cm。
预实验：本次液氮处理实验基于此前的预实验开展。将视觉上等量配置的半瓶水与半瓶油作为一组实验对，从高处释放，通过摄像机计算二者的FHD。全球范围内共开展了600组实验对（合计1200个瓶子），所有实验的下落高度均大于20cm，结果均为油瓶先落地。以一组实验对为例，油瓶重量为173.274g，水瓶重量为184.125g，由于密度差异，所有测试组的油瓶均轻于水瓶，且轻的瓶子先落地。本次600组测试的参数包括：下落高度4.82~23.65m；瓶型330ml、500ml、750ml；油类种类：菜籽油、植物油、葵花籽油、花生油、大豆油、汽车机油；测试地点：加拿大安大略省、中国贵州省。
正式液氮处理实验：24个商用饮水瓶（12个330ml、12个500ml）组成12组实验对（每组为同规格的半瓶油与半瓶水），其中6组经液氮过夜处理，6组未处理。从5.28m、7.04m、23.56m三个高度释放，实验结果见Tab 3。正常实验组的静置稳定时间为5分钟，液氮处理组为20秒。未处理的6组实验对均表现出FHD，且油瓶先落地；而经液氮过夜处理的6组实验对中，水瓶与油瓶同时落地。该结果证实了瓶内液体的内部运动对FHD起到关键作用。

#### [Tab. 4]特定数据信息
变量数量：3
样本数/行数：34
变量列表：<物种：34种；存活状态：存活或死亡（部分实验采用金属杆替代死亡样本）；重复次数：每个物种3个样本；下落高度：7.04m>
缺失值代码：<NA>
专用格式或缩写说明：spl表示每个物种进行3次重复实验。
Tab 4：通过对比不同存活动植物样本与死亡样本或金属杆的FHD，证明二者间存在显著差异，验证了生物系统存活与死亡状态间存在不同的引力束缚。本设计相较于卡文迪许实验的优势在于，可直接获取体内引力波或生物惯性（bio-inertia）。正是基于该设计，我们开发了测试人体体内引力波/生物惯性的方法，并奠定了本文的理论基础。

#### [Tab. 5]特定数据信息
变量数量：2
样本数/行数：4
变量列表：<种子种类：绿豆、大豆；萌发状态：浸泡24h、48h；下落高度：7.04m>
缺失值代码：<NA>
专用格式或缩写说明：spl表示每个样本进行3次重复实验。
Tab 5：将原绿豆与大豆种子，经水浸泡24h与48h后置于离心瓶中释放，结果显示原种子先落地。这表明种子萌发过程积累的引力束缚多于原种子，可被FHD测试灵敏检测到。

#### [Tab. 6]特定数据信息
变量数量：2
样本数/行数：10
变量列表：<下落高度：5.48m、7.54m；物种：苹果、梨、番茄、龙虾、小鼠>
缺失值代码：<NA>
专用格式或缩写说明：<NA>
Tab 6：Tab 4已证实生物存活与死亡状态间存在FHD。我们选取Tab 4中的部分实验对，经液氮过夜处理后，Tab 4中观测到的FHD恢复为0，这证实了生物的FHD确实源于内部运动。

#### [Tab. 7]特定数据信息
变量数量：1
样本数/行数：8
变量列表：<下落高度：10m；志愿者人数：8名；允许姿势：仅两种受限跳水姿势>
缺失值说明：无缺失数据，但理想姿势应采用持横杆支架，本研究缺乏该条件，因此采用两种次优姿势。
专用格式或缩写说明：<NA>
Tab 7：开展商用10米跳水台的人体自由落体与金属杆对比实验，结果显示存在显著FHD。该实验结合此前的实验结果表明，FHD测试是一种可靠的生物惯性测试或健康状况整合评估方法，强烈建议采用终生FHD标准曲线进行健康监测与评估。

#### [Tab. 8]特定数据信息
变量数量：1
样本数/行数：5
变量列表：<动物种类：3只1岁公鸡、2只1岁公兔；下落高度：公鸡5.28m，家兔5.44m；行为状态：性行为前、性行为后>
缺失值代码：<NA>
专用格式或缩写说明：spl表示性行为前的FHD进行3次重复取平均，性行为后的FHD仅测试1次以计算损失。
Tab 8：选取视觉健康的1岁雄性动物，与雌性隔离一个月后，自由落体至蹦床3次取平均作为性行为前的FHD。性行为后再次测试FHD以计算性行为导致的FHD损失。结果显示，性行为后所有动物均表现出显著FHD，这与古代武术经验一致：性行为会使雄性动物丧失显著的引力束缚或生物惯性。根据古代武术训练经验，性行为后雄性动物会大幅丧失引力束缚，而雌性动物应获得部分引力束缚。武当派对男性有严格的性禁忌，而对女性几乎无限制。通过本FHD测试可轻松获得雄性动物性行为后的引力束缚损失，但难以检测雌性动物性行为后的引力束缚获得情况，可能仍需技术改进以测试雌性的引力束缚积累状况。