The Mensural Numeral Classifier Based on the Local Wisdom of Minangkabau Community at Tanah Datar Regency

2017 ◽  
Vol 9 (5) ◽  
pp. 261
Author(s):  
Sri Wahyuni ◽  
Nadra Nadra ◽  
Ria Febrina

This paper discusses the mensural numeral classifier used by the Minangkabau community in Tanah Datar regency. The mensural numeral classifier discussed here is the numeral classifier based on the local wisdom of the community, includes the numeral classifier with unrecognizable as the smallest unit but used as the measurement unit based on the shape or nature of the object which is its measure. Data collected by meeting the informants directly on the location. The data preparation conducted by hearing and interviewing. It carried data analysis through grouping the obtained data into the mensural type, such as the length, weight, size, and volume. Based on data analysis, in Minangkabau language at Tanah Datar regency, it found numeral classifier based on the local wisdom of community which uses as the measurement unit of length, weight, size, and volume. In this language, the standard for the measurement unit is the length of the human body, especially the hands and feet. The mensural numeral classifiers base on the human hand length includes rueh jari, jari, jangka, eto, and dapo. Whereas, the numeral classifier base on the foot length is tapak and langka. Meanwhile, for measurement units of weight, the standard is the objects which can be taken by the adult human, whether lifting by hands or bearing on the back. The mensural numeral classifier of weight includes tayia, kati, and pikua. The units of size also base on parts of the human body but which manage for the measurement unit only for the size which can form with using a finger. The mensural numeral classifier for the size means cakak. For measurement units of volume, there is the standard which based on parts of the human body, such as the hands, and another standard which comes from the things made from bamboo and cane work. The mensural numeral classifiers of weight that bases on the hand size are binjek, gonggam, and kawik. Meanwhile, the mensural numeral classifiers of volume which bases on objects made of bamboo or cane work include cupak, gantang, katidiang, and sumpik.

2015 ◽  
Vol 7 (6) ◽  
pp. 19
Author(s):  
Nadra Nadra ◽  
Sri Wahyuni

<p>This article is aimed at describing numeral classifier used in the cookbooks. The data were collected through the observation, which is observation of the cookbooks. Through the observation, the data related to numeral classifier are tapped. Besides, noting technique is also used. The analysis of data is done by using “<em>intralingual</em> <em>identity method”</em>. Furthermore, “<em>referential identity method” </em>is also used. The study is done by looking at the reference of numeral classifier.  Based on the data analysis, there are three types of numeral classifier used in the cookbooks, namely numeral classifier for individual objects, collective numeral classifier, and numeral classifier for size. Of the three numeral classifiers, numeral classifier for size (mensural classifier) is widely used. This is caused by the fact that in cooking, size is very important in order the food taste delicious. Numeral classifier for size can be divided into three types, namely, numeral classifier for weight measure, numeral classifier for length size or footage, and numeral classifier for volume size. The most widely used is numeral classifier for volume size, namely eleven forms. However, in terms of occurrence, numeral classifier for weight size is dominantly used.</p>


2021 ◽  
Vol 10 (9) ◽  
pp. 1804
Author(s):  
Jorge Posada-Ordax ◽  
Julia Cosin-Matamoros ◽  
Marta Elena Losa-Iglesias ◽  
Ricardo Becerro-de-Bengoa-Vallejo ◽  
Laura Esteban-Gonzalo ◽  
...  

In recent years, interest in finding alternatives for the evaluation of mobility has increased. Inertial measurement units (IMUs) stand out for their portability, size, and low price. The objective of this study was to examine the accuracy and repeatability of a commercially available IMU under controlled conditions in healthy subjects. A total of 36 subjects, including 17 males and 19 females were analyzed with a Wiva Science IMU in a corridor test while walking for 10 m and in a threadmill at 1.6 km/h, 2.4 km/h, 3.2 km/h, 4 km/h, and 4.8 km/h for one minute. We found no difference when we compared the variables at 4 km/h and 4.8 km/h. However, we found greater differences and errors at 1.6 km/h, 2.4 km/h and 3.2 km/h, and the latter one (1.6 km/h) generated more error. The main conclusion is that the Wiva Science IMU is reliable at high speeds but loses reliability at low speeds.


2013 ◽  
Vol 662 ◽  
pp. 717-720 ◽  
Author(s):  
Zhen Yu Zheng ◽  
Yan Bin Gao ◽  
Kun Peng He

As an inertial sensors assembly, the FOG inertial measurement unit (FIMU) must be calibrated before being used. The paper presents a one-time systematic IMU calibration method only using two-axis low precision turntable. First, the detail error model of inertial sensors using defined body frame is established. Then, only velocity taken as observation, system 33 state equation is established including the lever arm effects and nonlinear terms of scale factor error. The turntable experiments verify that the method can identify all the error coefficients of FIMU on low-precision two-axis turntable, after calibration the accuracy of navigation is improved.


2020 ◽  
Vol 14 ◽  
pp. 16-21 ◽  
Author(s):  
Jae Keun Lee ◽  
Kangil Kim ◽  
Sangmin Lee

Wearable devices which measure and transfer signals from the human body can provide useful biometric data for various biomedical applications. In this paper, we present an implementation of the advanced Inertial Measurement Unit (IMU) with wireless communication technology for mobile health monitoring. The device consists of rigid silicon-based components on a flexible/stretchable substrate for applications in epidermal electronic devices to collect precise data from the human body. Using the Bluetooth Low Energy (BLE) System-on-a-chip (SoC), the device can be miniaturized and portable, and the collected data can be processed with low power consumption. The dimensions of the implemented system are approximately 40 mm × 40 mm × 100 mm. Also, the device can be attached closely to human skin, which results in minimized signal distortion due to body movements or skin deformations. In order to achieve device flexibility and stretch ability, the interconnection wires are designed as serpentine-shaped structures on a stretchable substrate. The previously reported “cut-and-paste” method is utilized to fabricate the device that produces complex, twisty interconnections with thin metal sheets. The implemented patch-type, wireless, 6-axis IMU is expected to have potential in various applications, such as health monitoring, dependency care, and daily lifelogging.


2018 ◽  
Vol 9 (1) ◽  
pp. 24-34
Author(s):  
Sandey Tantra Paramitha

The development of early childhood physical health largely determined by levels of phosphorus contained in the body, due to be the second largest item after the calcium in the human body,  problems become obstacles in developing family knowledge about the importance of the content of phosphorus in the development of early childhood body i.e. environmental conditions is lacking support and there is no massive support from the Ministry of Health important about phosphorus for the growth of early childhood. This research uses descriptive method which aims to describe, illustrate and analyze events in field data collection techniques, using interviews, observation and documentation, as well as using the techniques of data analysis the presentation of data, data reduction and withdrawal of the conclusion. The results obtained show that the society have less knowledge about the importance of phosphorus for early childhood growth, hence the need for the development of the knowledge society on the importance of phosphorous for growth in early childhood, it due to the excess or deficiency of phosphorus will not impact the tub for the body.


2018 ◽  
Vol 7 (2.8) ◽  
pp. 335
Author(s):  
Venkata Snehith.H ◽  
Likita Ratna D ◽  
Syed Shameem

Our work aims at the design of wearable electronic modules that can be assembled as systems for sensing, processing, transmitting, actuating and mimicking human hand gestures and movements, to be used in various robotic, educational, military, medical, industrial, general and hobby applications, the secondary focus of our work is reducing the cost, complexity and assembly of such systems, which are already being used by research centers, laboratories and high-class industries all over the world while the primary objective is to bring these systems down to customizable modular components which could be assembled and combined the way the user wishes to and needs them to be, thereby bringing these concepts closer to a wider range of students, enthusiasts and hobbyists making it easy for them to understand and comprehend these concepts even at the beginner level. In our project, we used commonly available piezo-resistive materials and other household items to make force, pressure, stress, strain and bend sensors and appended them to an Inertial measurement unit, a microcontroller and a wireless transceiver all embedded onto a single chip, to create a simple sensing mechanism that could be worn on a human hand to sense, process and transmit the gestures for actuating and mimicking applications.


2015 ◽  
Vol 63 (1) ◽  
pp. 217-219
Author(s):  
C. Zych ◽  
A. Wrońska-Zych ◽  
J. Dudczyk ◽  
A. Kawalec

Abstract A two-axis gimbal system can be used for stabilizing platform equipped with observation system like cameras or different measurement units. The most important advantageous of using a gimbal stabilization is a possibility to provide not disturbed information or data from a measurement unit. This disturbance can proceed from external working conditions. The described stabilization algorithm of a gimbal system bases on a regulator with a feedback loop. Steering parameters are calculated from quaternion transformation angular velocities received from gyroscopes. This data are fed into the input of Proportional Integral Derivative (PID) controller. Their input signal is compared with earned value in the feedback loop. The paper presents the way of increasing the position’s accuracy by getting it in the feedback loop. The data fusion from a positioning sensor and a gyroscope results in much better accuracy of stabilization.


Author(s):  
Kara S. Evans ◽  
Elizabeth Baoying Wang

Healthcare providers treat a plethora of conditions associated with the human body for a patient to achieve optimal healthiness. However, aspects of a patients' entire wellbeing can often be overlooked, which leads to issues such as drug interactions, missed diagnoses, and other gaps in care. Healthcare can benefit from implementing better data management and integration to improve data analysis, which could bridge gaps in care. This chapter will explain data analysis and data integration, why they are pertinent in the healthcare system, and their associated rewards and challenges. After analyzing these healthcare facets, this chapter will conclude with a proposal for healthcare providers to leverage technology for patients' general wellbeing and a healthier population.


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