Robotic Pack Out

A pharmaceutical company approached MJ Engineering asking for help automating their pack out process. This company had vials randomly stored in totes that needed to be packed into trays. The trays would then be put into boxes and shipped out. The entire process was done by 1 operator who had to organize the vials into trays. 

MJ proposed a Fanuc SR-6iA robot to perform a high-speed robotic pack out. The robot featured a gripper end of arm tool to pick up the vials 4 at a time. The vials come to the robot from a bowl feeder which feeds them down a track system that allows the vials to be picked up from the same spot each time. The robot then runs the parts through a machined comb and that straightens the vials up so they could be put in the tray. A conveyor brings the tray around to the operator for packing and shipping. 

The robot is able to move an estimated 45,000 vials on a 6.5-hour-long shift. The operator loads the bowl feeder with vials and places empty trays on the conveyor. The high-speed robotic pack out cell comes with a Cognex In-Sight 2000 Vision System to make sure the labels on the vials are placed correctly. The vision system uses a colored ring light to locate the label and verify the orientation. 


The cell operates so efficiently that with current production rates the customer only needs to run the cell 3-4 hours a day rather than 3-4 operators 5 days a week.

 

To see how we can help automate any of your processes give us a call at (614) 891-6111 ext. 110 or email me at jwand@mjengineering.com. We can help with assembly, pack out, depal, and much more in the pharma and medical industries. 

Collaborative Robot FAQs

Your new collaborative robot has just been dropped off at your facility, what do you need to do next to get it up and running? The common misconception is that the collaborative robot is a plug-and-play robot. The fact of the matter is that is only half true. Yes, the robot has additional safety features when compared to industrial robots; however, that doesn’t make the system plug and play. There are many factors that need to be considered before the collaborative robot can be installed and run as part of your normal operation.

Here are some True/False statements to test your knowledge of Collaborative robots:

*Click to reveal answer

 

FALSE

While the robot is equipped with sensors, that doesn’t mean collisions can’t occur. Collaborative robots are designed to limit the amount of force that can be exerted on an object during a collision. When that force limit is exceeded the robot will stop virtually instantly. This action will preserve the robot, end of arm tool, and the operator from being damaged or hurt.

FALSE

The collaborative nature of the entire application must be considered in its entirety. For example, if the collaborative robot is utilizing a knife this may well be a non-collaborative application using a collaborative robot that will require full guarding. A safety audit in accordance with RIA standards should be completed on any robotic deployment.

 

FALSE

According to RIA standards and/or robot manufacturers’ requirements, it is typically completely unacceptable to impact an operator in the head or neck area at any speed at all. Based on this care must be taken to understand what can happen and all possible impacts should be considered in a risk assessment.

FALSE

 Through the use of various safety systems such as guarding, sensors, safety scanners, and light curtains, we can reduce your risks to a tolerable level on any robotic cell, collaborative or industrial.

 

If you have the need or want to automate any part of your process but don’t know where to begin, call MJ Engineering at (614) 891-6111 ext. 110. We can help whether you have the robot already or don’t even know where to begin.

The possibilities never end!

 

Your new collaborative robot has just been dropped off at your facility, what do you need to do next to get it up and running? The common misconception is that the collaborative robot is a plug-and-play robot. The fact of the matter is that is only half true. Yes, the robot has additional safety features when compared to industrial robots; however, that doesn’t make the system plug and play. There are many factors that need to be considered before the collaborative robot can be installed and run as part of your normal operation.

Here are some True/False statements to test your knowledge of Collaborative robots:

 

A Collaborative robot won’t hit people……………FALSE

 

While the robot is equipped with sensors, that doesn’t mean collisions can’t occur. Collaborative robots are designed to limit the amount of force that can be exerted on an object during a collision. When that force limit is exceeded the robot will stop virtually instantly. This action will preserve the robot, end of arm tool, and the operator from being damaged or hurt.

 

A Collaborative robot can be used to perform any function in my facility without guarding or safety needing to be considered………FALSE

The collaborative nature of the entire application must be considered in its entirety. For example, if the collaborative robot is utilizing a knife this may well be a non-collaborative application using a collaborative robot that will require full guarding. A safety audit in accordance with RIA standards should be completed on any robotic deployment.

A Collaborative robot straight out of the box is safe to use around people………FALSE

According to RIA standards and/or robot manufacturers’ requirements, it is typically completely unacceptable to impact an operator in the head or neck area at any speed at all. Based on this care must be taken to understand what can happen and all possible impacts should be considered in a risk assessment.

I’m stuck with a collaborative cell that doesn’t meet my safety teams requirements and can’t be used in production……….FALSE

Through the use of various safety systems such as guarding, sensors, safety scanners, and light curtains, we can reduce your risks to a tolerable level on any robotic cell, collaborative or industrial.

If you have the need or want to automate any part of your process but don’t know where to begin, call MJ Engineering at (614) 891-6111 ext. 110. We can help whether you have the robot already or don’t even know where to begin. The possibilities never end!

Quarterly Newsletter 2021: Q2

RICHARD’ S
ROUNDTABLE

I don’t know about you, but I could not be happier to see 2020 in the rear-view mirror. It has been a long and tiring year, but we made it to the other side and can start to see the light at the end of the tunnel. We are cautiously optimistic that 2021 will be a better year. So, as you think about the effect that COVID has had on your business and your projects, give us a call if you need outside resources or robotic automation of tasks within your facility.

SPIKE EASE

MJ Engineering has collaborated with Focused Technology Solutions to create the SpikeEase. This product has been widely rated as one of the best spike pullers on the market.

MJ now has a MarkForged Metal X 3D Printer

This product will help make the projects faster and cheaper for the customer. Instead of having small parts machined we can cut the cost and get the exact same part in just 3 days by printing, washing, and sintering the piece. See the press release titled Metal X for more information or call us.

NEW HIRES

Jeanne is Controls Engineer and began work in May 2020. She graduated from Ohio Northern University (go Klondike!) with her Bachelor of Science degree in Mechanical Engineering in 2018. Over the past few years as a Controls Engineer, She has learned a great deal about electrical designs and the surrounding field.

Justin is an Internal Sales Representative in charge of selling spare parts and custom 3D printed parts. He was born in Virginia but raised in Ohio. He graduated from Ohio University in Athens in 2020. He is a die-hard Hockey fan (go CBJ) but really loves all types of sports.

Lucas Fournier (or Luke) is the new automation/wiring technician at MJ Engineering. He will be assisting with the construction/assembly of machines, guarding, panels, and other tasks for projects. He and his wife Abby moved to Columbus about 3 years ago after he graduated from the University of Toledo. He is a big hockey fan and follows the Detroit Red Wings very closely and also follows the Blue Jackets occasionally. He also loves movies and would like to one day build his own little home theater.

MISSION
STATEMENT:

To Provide The
Expertise people
Depend on to
Solve Complex
Engineering or
Machine Design
Problems.

 

Solving Your
Unique Problems
With Our Unique
Solutions

Drill Ease

Overview

MJ Engineering continues to collaborate with Focused Technology Solutions to develop groundbreaking products. This time the product is the Drill Ease. This is the world’s most advanced battery operated tie drill. This product is an investment in safety and productivity that pays for itself in faster, safer tie drilling with less labor and no need for hydraulic fluid, hoses, and generators.

The tool was designed to be lighter, stronger, and more ergonomic than previous tools.

 

Benefits
  • 3-5 seconds per hole in wooden ties
  • Only 30 pounds
  • No hydraulics, hoses, or fluids
  • No gas-powered generators
  • No setup time
  • One worker to operate
Goals
  • Design a battery-powered tie drill
  • Minimize drill time
  • Minimize the cost of and weight of the drill
  • Maximize the strength and useful life of the drill
  • Maximize the ergonomics of the dill
  • Implement safety features to cover the drill bit
  • Provide an aligning feature to align the tool with the tie plate
  • Develop a depth stop and spring assisted tool removal
Specifications
  • About 30 pounds
  • 3-5 seconds per hole
  • A rechargeable battery pack and a commercially available drill
  • Easy to transport anywhere the rail takes you
  • No hydraulic system to risk leaks or environmental hazards

Youth Camp Hoist

MJ Engineering is part of a team with Hubbard Merrell Engineering and Vertical Solutions working together to improve a swing ride that operates at various youth camps across the country. The attraction lifts up to 3 passengers to the release point and holds them until they actuate the mechanical release themselves. Once released, the riders swing down through the station and up the other side; continuing the back and forth swinging motion until coming to rest at the load/unload station. The biggest problem the camps are having is that the current electric winches are failing prematurely. The current winches are no longer available and the replacement unit is significantly slower than the original system, reducing patron throughput. Additionally, the camp wanted to improve the safety of the overall system while implementing the new hoist system.   

 

Goals
  1. The camp wanted to maintain or improve throughput (i.e. rides per day).
  2. They wanted to find a hoist mechanism that was readily available and could be easily maintained. 
  3. They wanted the upgraded design of the ride to comply with ASTM amusement standards as much as possible.
What did we do?
  1. MJ designed, fabricated & installed a new hoist system to raise the riders to the drop location.  We used a hydraulic power pack to drive a hydraulic hoist that has the speed of the original system with easy to maintain characteristics desired by the camp.
  2. One of our partners designed an update to the rollaway platform, which brings the railing system of the platform into compliance with ASTM ride standards.  Our control system includes a sensor that detects when the platform is stowed out of the swing path.  This fail-safe system would only allow the hoist (and therefore the ride) to operate if the platform was stowed properly.
  3. To prevent the hoist from being raised too far, the MJ control system includes a sensor that detects when the hoist has reached a pre-set maximum lift point.  The hoist is not permitted to raise further when this sensor is activated.