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Humanoid Robots Serve Customers at a Restaurant in India

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In the past, people would often rely on simple machines and tools to help them do their job. Tasks such as fixing the roof, chopping up vegetables, sweeping the floor, cutting firewood, etc. all had people use simple machines to do the job fast and efficiently.

Today, people still use machines to perform their tasks. However, the difference is that these machines aren’t just simply known as simple and compound” machines. These machines are highly advanced and often have human features with them. Yes, these machines are what you and I would call Robots.

Typically, robots don’t have any resemblance to a human being. Commonly used robots are mostly small automated vehicles that can perform specialized tasks. Humanoid-type Robots are the stuff of many Hollywood films. Metropolitan, Star Wars, The Iron Giant, RoboCop, etc. are just some of the movies that feature these humanoid type robots.

It was long thought that robots such as those in the movies mentioned above were fantasy and would never see the light of existence. However, fast forward to our current times, and you’ll see that robots are more ever-evolving and beginning to resemble us closely.

As mentioned earlier, machines are often used to perform simple tasks. Since robots are complicated machines, they’re more than just for show. Some do actual work that benefits a lot of people. Enter the Indian State of Odisha. Where the first restaurant to use two human-like robots to serve humans exist.

History

The Robo Chef restaurant in Chandrasekharpur area of Bhubaneswar, Odisha, opened its doors to customers on October 16, 2019. As the name of the restaurant suggests, customers were delighted to see two fully functional robots that would serve and greet them.

The owner of the restaurant is Jeet Basa, a civil engineer by trade. When asked what drove him to use robots as servants for his restaurant, he simply said that his visit to the United States let him see the marvel of robotic servers.

The Robots

Jeet Basa named his two robots ‘Champa’ and ‘Chameli.’ Champa and Chamelli are shaped like a cone with its base having wheels that support fluid movement. At the top of the cone is a cylindrical shaped box that serves as the body or the “chest” of the robots. Both Champa and Chamelli have arms that can safely support orders of up to 20kg.

The chests of the robots have a special screen where you can see the menu. Both robots have heads that are shaped like small upside-down triangles. They also have 2, blue-lit eyes that which may house the sensors that the robots use to navigate.

SLAM

Today, standard robots often use predetermined routes to travel to and fro. Sometimes, robots even need some sort of assistance, especially if traversing through challenging terrain.

Predator drones are examples of these machines that are used by the U.S. government. Although these drones can stay in the air unmanned, they often need a pilot that’s stationed thousands of miles away. Predator drones are mostly used for surveillance and covert operations by the U.S. army.

Champa and Chameli, however, use a more suited program for navigating in small spaces. Enter the SLAM system. Sites like robots.net also cover this important system for most robotic applications. Although no specifications have been made, it’s speculated that the sensors these robots use to navigate are located in their eyes. Again, the similarity to human beings is becoming more common with robots nowadays.

The system that Jeet Basa uses in his robots is the SLAM technology. SLAM stands for Simultaneous Localization and Mapping. SLAM will always use some kind of targeting system to identify any objects and tell the robot where it’s going.

SLAM also uses optical sensors such as 3D High Definition LiDAR(Light Detection and Ranging), 3D sonar sensors, and a laser rangefinder. Some robots also use 2D cameras as additional support systems for their sensors.

SLAM was the result of the hard work done by R.C. Smith and P. Cheeseman in 1986. Several applications of SLAM were recognized, most notably by DARPA or Defense Advanced Research Projects Agency. The Stanley and Junior cars by Sebastian Thrun included SLAM in their systems. These cars were self-driving and had no problem winning second in DARPA’s 2000 urban challenge.

Robot Vacuum Cleaners or Roombas are the mass-market applications of the SLAM system. As you can see, Roombas are highly sensitive to their environment and rarely get damage from moving around the house.

A Booming Trend in India

Although Jeet Basa knows that many restaurants in India are using robots to serve food and take orders, Champa and Chamelli are special. Jeet Basa proudly claims that his robots are the first non-line followers in India. These two robots are freely moving, without the aid of any lines. Robo Chef is the first robot restaurant in Eastern India and the first in India to use free-roaming robots in service.

“They are both made in India”

Aside from being the first in India to use SLAM system robots, Jeet Basa is exceptionally proud that both Champa and Chamelli were made in India. Most robot servers in Indian restaurants around the country, often use imported parts that come from outside countries such as China, the United Kingdom, Japan, Australia, and the United States.

Features

As mentioned earlier, Champa and Chamelli use the SLAM system for navigation. The robots also have other features that cater to a busy environment. Besides both arms of the robots, you can see speakers that act as the mouthpiece of the robots. They are programmed to speak Odia language and can communicate with customers with ease.

In fact, the two robots often approach patrons after being served and greet them with “Apana mane khushi to” which means “Are you happy?” The phrase was popularized during the 2019 election campaign of Chief Minister Naveen Patnaik.

Although the robots are sensitive to their surroundings, they can also sense changes in the environment, such as an increase or decrease in temperature. Champa and Chamelli can also detect smoke and identify people. As diners make their way to their tables, the robots can greet them.

Orders are made through a tab which is connected to the robots’ and restaurant’s system. Serving a lot of people won’t be a problem as these robots can hold a lot of dishes. The robots run entirely on batteries and often require 30 minutes to charge and work for 8 hours straight.

Other Restaurants

Robot Restaurant is another diner that uses robots to serve customers. The restaurant uses five robots who all have their unique names. Arya, Sansa, Alice, Ramya, and Zoey are the robots that will help serve customers with Indo-Asian cuisines. A sixth robot named, the Queen Robot will operate soon and function as the receptionist.

In Assam, the Uruka restaurant also uses a robot as a waiter. Aptly named Palki, the robot comes in traditional Assamese Sattriya attire and is helping the restaurant serve a welcoming drink, appetizers, and traditional Assamese dishes.

Takeaway

Technology is significantly making advances in everything we do. From using simple tools such as wedges and levers to operating and supervising fully autonomous robots, humankind has come a long way of making life more comfortable.

Champa, Chamelli, Zoey, Arya, Sansa, Alice, Ramya, and Palki are just the precursors of things to come. Soon, we’ll have human-like robots performing almost every task imaginable.

Michelle has been a part of the journey ever since Bigtime Daily started. As a strong learner and passionate writer, she contributes her editing skills for the news agency. She also jots down intellectual pieces from categories such as science and health.

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Applications of Automation in Research and Clinical Diagnostics

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Precision counts in the fields of science and medicine. This is particularly true for the basic task of counting and analyzing cells, which is used in both clinical and research settings. The introduction of automatic cell counters, which provide efficiency and accuracy that manual approaches cannot match, has resulted in a notable advancement in this field.

What is Automated Cell Counting?

Automated cell counters are advanced instruments that are made to precisely and swiftly count and examine cells. In contrast to manual counting methods that rely on human vision and a microscope, automated counters use software algorithms and image technology to count and analyze cells. This ensures more accurate findings by expediting the procedure and lowering the possibility of human error.

Type of Automated Cell Counters

There are several types of automated cell counters used in research and clinical diagnostics, each employing different technologies and methods for cell counting. The main types of automated cell counters include:

Image Cytometers: These devices use optical microscopy to statically image cells, which are frequently labeled to detect certain molecules or provide contrast. Cell counting is aided by the automation of image cytometers made possible by digital cameras.
Flow Cytometers: Use a regulated flow of suspended cells to align individual cells for analysis. Staining cells with fluorochromes enables visual characterization of the cells and facilitates high-throughput analysis.
Cell Sorters: Arrange cells according to their electrical properties. Sorting is accomplished by dividing the fluid stream containing the cells into droplets whose electrical charge varies according to the kind of cell and guiding them into various containers.
Time-Lapse Cytometers: Allow for continuous monitoring of cells in an incubator by employing non-heat-generating light sources, such as LEDs, in conjunction with image cytometry to investigate cellular dynamics without causing damage to living cells.
Hemocytometers: A qualified technician, an optical microscope, and a gridded slide with known volume wells are used in this manual cell counting approach. Up until the 1950s, hemocytometers were the norm for counting cells.

These various types of automated cell counters provide effective and precise methods for cell counting and analysis, each with unique benefits and uses in clinical and research environments.

Research

Automated cell counters have become indispensable tools in understanding cell behavior. They are used in various research fields, including cancer research, drug discovery, and stem cell therapy.

One of the key benefits in research is the ability to handle large volumes of data. For instance, in drug discovery, automated counters can quickly analyze the effects of thousands of compounds on cell growth and death. This high-throughput capability accelerates the pace of research, allowing scientists to screen potential drugs more efficiently than ever before.

Moreover, automated cell counters offer the precision required to detect subtle changes in cell populations. This is crucial in fields like cancer research, where understanding the behavior of cancer cells can lead to the development of more effective treatments.

Clinical Diagnostics

The impact of automated cell counters extends beyond the research laboratory and into clinical diagnostics. In medical laboratories, these devices play a critical role in routine blood tests, infectious disease diagnostics, and monitoring patient health during treatment.

For example, in a routine complete blood count (CBC), automated cell counters can quickly provide a detailed analysis of different blood cell types. This information is vital for diagnosing conditions such as anemia, infections, and blood cancers. The speed and accuracy of automated counters mean that patients can receive diagnoses and begin treatment more swiftly.

In the context of infectious diseases, automated counters can detect and quantify specific pathogens or immune cells, helping to diagnose infections quickly and accurately. During the COVID-19 pandemic, automated cell counting technologies were instrumental in monitoring virus spread and patients’ immune responses, showcasing their value in crisis situations.

Challenges and Future Directions

The initial cost of these devices can be high, and their operation requires specific technical expertise. Additionally, different types of cells and conditions may require customized counting protocols, necessitating ongoing adjustments and updates to software algorithms.

 

Looking ahead, ongoing advancements in technology promise to further enhance the capabilities of automated cell counters. The global cell counting market growth is anticipated at a CAGR of 7.5% by 2032. Innovations in imaging technology, artificial intelligence, and machine learning are expected to improve accuracy, speed, and the ability to analyze more complex cell characteristics. As these technologies evolve, automated cell counters will become even more integral to research and diagnostics, opening new avenues for scientific discovery and patient care.

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