§3 xArm 850

Major Components

The parts of the system, what each one does, and how they connect.

Start Here

This section names the parts of the system, says what each one does, and shows how they connect. Every tier below starts from the same three facts.

  • 12

    pins on the tool connector1

  • 48 V

    power the control box sends to the arm2

  • AC or DC

    control box: mains, or 48–72 V DC for mobile platforms3

  • The system is more than the arm: an arm, a control box, cables, and a tool on the end that does the work45.
  • The control box houses the arm's control system6.
  • The emergency stop button is on the control box, not on the arm7.

S2 in one line: S2 is the xArm 850 arm that picks up incoming material and moves it between receiving, staging and production89.

Look Back

A question from earlier on, to keep it fresh. Skip it if you like; nothing depends on it.

q-s02-b-02 What is S2's job?
  1. Check option (a)

    Correct. Yes. S2 picks and transfers incoming material between receiving, staging and production.9

  2. Check option (b)

    Not this one. That is S6, the downstream arm.8687

  3. Check option (c)

    Not this one. S5 engraves. S2 only handles the material.889

  4. Check option (d)

    Not this one. Camera C1 does that: it watches incoming material and receiving.89

q-s02-b-04Safety S11 IntelliAware "monitors safety". Will it stop S2 before the arm hits you?
  1. Check option (a)

    Not this one. S11 provides monitoring, and watching a hazard is not the same as stopping it. This project's advice is not to treat S11 or the cameras as a safeguard.9091

  2. Check option (b)

    Correct. Right. Do not treat S11 or the cameras as a safeguard. UFACTORY says nobody should be in the working area while the arm operates.9192

Choose your depth

Four depths, one page. Switch at any time: every tier stays open to everyone. What the four tiers mean

1Beginner

The Parts You Can See

For: Anyone with no robotics background: a visitor, a new operator, a manager
Kind of task: Recognize and recall, with plain-language explanations and pictures

In this part you open the box, name each part, and find the one button everyone near the arm must be able to reach. No robotics background is needed.

What Comes in the Box

  • The package holds the arm, a control box, a power and signal cable that joins the arm to the box, a power cable for the box, an adapter cable for the tool, and Ethernet cables4.
  • A control box is included by default: the arm is always sold as part of a system10.

The Arm

  • The arm has a base and six rotary joints, numbered Joint 1 at the base to Joint 6. Joint 6 is the tool end, where tools attach11.
  • It is built from carbon fiber and aluminum, which UFACTORY says halves the weight of the system12.

The Control Box

The control box is the core of the system: it houses the arm's control system6.

Line drawings of the 850 control box with its front and back panels labeled: emergency stop, robot power, state, power switch, AC port, network port, LAN, robot 48V, enabling switch and IO.
The control box houses the arm's control system; its front panel carries the status lights and the emergency stop67. Image: UFACTORY
  • Its front panel has three lights. ROBOT PWR shows the arm has power, STATE shows the controller has power, and LAN shows communication7.
  • The same panel carries the EMERGENCY STOP button7.
  • That is why UFACTORY says the control box must sit outside the arm's working range, where the button can be reached in an emergency13.

The Tool on the End

  • The end effector is the tool on the front of the wrist, such as a gripper or a vacuum gripper. It is the part that touches the workpiece and does the work5.
  • UFACTORY's own options for the 850 are a Gripper, a Vacuum Gripper, the BIO Gripper G2 and a force-torque sensor14.
  • At S2, the arm's attachment is a single suction aperture15.

Brakes in the Joints

The joints contain brakes. If the power is lost, they hold the arm where it is instead of letting it fall16.

The Software

  • UFACTORY Studio is the program people use to control and program the arm. UFACTORY describes it as running inside the control box17. The lab uses the Studio desktop app, downloaded from UFACTORY and installed on the computer1819.
  • People can also program the arm in code, with Python, C++ or ROS20.

Check Yourself

Answer, then check. Each option has its own feedback, and nothing is scored.

q-s03-b-01Safety Where is the 850's emergency stop button?
  1. Check option (a)

    Correct. Right. That is why the control box must sit where you can reach it, outside the arm's working range.713

  2. Check option (b)

    Not this one. The wrist has a user button with a blue LED, and its function is left for the user to define. It is not an emergency stop. The e-stop is on the control box.217

  3. Check option (c)

    Not this one. Studio has a STOP button, but it is a software stop that leaves the arm's power on. The emergency stop is the button on the control box.22237

q-s03-b-02 Which part actually touches and holds the workpiece?
  1. Check option (a)

    Correct. Yes. It mounts on the wrist and does the work.5

  2. Check option (b)

    Not this one. The control box houses the control system. It sits away from the arm and never touches the part.6

  3. Check option (c)

    Not this one. Joint 1 is at the base. The tool attaches at the other end, at Joint 6.11

q-s03-b-03Safety The power goes off while the arm is holding a part. What happens?
  1. Check option (a)

    Correct. Right. The brakes hold the arm's pose in a power outage, and items can still drop from the arm if power is lost or the grip is unstable.1624

  2. Check option (b)

    Not this one. The joints contain brakes that hold the arm's pose during a power outage.16

  3. Check option (c)

    Not this one. UFACTORY warns that items can drop from the arm if power is lost, or if the gripper holds them unstably.24

2Novice

How the Parts Work Together

For: Someone who will work near or with the cell: operator, trainee technician
Kind of task: Explain and sequence: put steps in order, match parts to their functions

In this part you follow a command from a computer all the way to the gripper, and learn the handful of rules that protect the arm and the people beside it. It is for someone who will work near or with the cell.

From a Click to a Moving Gripper

This platform pieces together the path a command takes from UFACTORY's separate descriptions of each part. The UFACTORY sources do not describe the whole path in one place, so the path is Inferred, and its reasoning is printed with the record25.

  1. A computer sends the command over Ethernet to the control box25.
  2. The control box runs UFACTORY Studio and the controller, which work out what the arm must do25.
  3. Through the power and signal cable, the box powers the arm at 48 V DC and talks to the joints over an RS-485 line252.
  4. A second RS-485 line in the same cable carries the tool's traffic252.
  5. The gripper at the flange gets 24 V power and its control signals through the 12-pin tool connector251.

Two Kinds of Control Box

UFACTORY offers two boxes. The AC box has a built-in AC-DC adapter, for mains power. The DC box takes 48–72 V DC, for battery-powered mobile platforms3.

UFACTORY's AC control box, marked 100 to 240 V AC, beside the DC control box, marked 48 to 72 V DC.
Two control boxes: AC for mains power, DC for battery-powered mobile platforms3. Image: UFACTORY

What Studio Holds, and What Is Missing

  • Studio includes Live Control, Blockly graphical programming, a Python IDE and GCode26.
  • No dedicated teach pendant is documented for the 850. People teach it in UFACTORY Studio, or by guiding it by hand27.
  • In manual mode, gravity compensation lets you guide the arm by hand. How easily it gives is set by a teach sensitivity from level 1 to 528.
  • Collision sensitivity is set from 0, which turns collision detection off, up to 529.

Fitting a Tool

  • A UFACTORY Gripper or Vacuum Gripper is fixed to the end of the arm with 2 M6 bolts and connected with its connection cable with the arm powered off, the e-stop pressed and the arm's power light off. UFACTORY says this avoids arm failure caused by hot-plugging30.
  • The Vacuum Gripper handles smooth, flat objects up to 5 kg. It has 5 suction cups. It is switched on and off by digital I/O31.
  • In Studio's End Effector setting you choose the 850 Gripper, Vacuum Gripper or BIO Gripper, or a Robotiq 2F-85 or 2F-140. Any other tool is set as "other"32.

The Tool at S2

  • S2 uses a single suction aperture as its attachment15.
  • S2's and S6's suction tools are basically the same attachment: a rounded mount with the cups attached as one unit. S6's tool uses all five ports on the mount; S2's uses just one33.

When the Sources Disagree About the Gripper

  • The online manual's Gripper G2 has a clamping force of 10–50 N, weighs 800 g and talks Modbus RTU. The older User Manual's "850 Gripper" has at most 30 N, weighs 802 g and talks Modbus TCP34.
  • They may be two generations of gripper; the sources do not say34.

Check Yourself

Answer, then check. Each option has its own feedback, and nothing is scored.

q-s03-n-01 You click a button in Studio to close the gripper. Which path does that command take?

About:25

  1. Check option (a)

    Correct. Right. That is this platform's inferred picture, pieced together from UFACTORY's descriptions of each part.252

  2. Check option (b)

    Not this one. Commands go over Ethernet to the control box, which runs the controller. The gripper is reached through the arm cable and the tool connector.25

  3. Check option (c)

    Not this one. No teach pendant is documented for the 850. UFACTORY describes Studio as running inside the control box.2717

q-s03-n-02 Why is a gripper fitted with the arm powered off and the e-stop pressed?
  1. Check option (a)

    Correct. Right. UFACTORY's fitting steps say to wire the tool's cable with the arm powered off, to avoid arm failure caused by hot-plugging.30

  2. Check option (b)

    Not this one. Studio does not detect it: you choose the tool yourself in the End Effector setting. The reason for powering off is to avoid arm failure caused by hot-plugging.3230

  3. Check option (c)

    Not this one. Tools at the flange get 24 V through the tool connector, not mains. Power is off to avoid arm failure caused by hot-plugging.2530

q-s03-n-03Safety The power fails while the arm is holding a pose. What keeps the arm itself from dropping?
  1. Check option (a)

    Correct. Right. The joint modules contain brakes that hold the pose when power is lost. A part the gripper holds can still drop.351624

  2. Check option (b)

    Not this one. Gravity compensation is what lets you guide the arm by hand in manual mode. In a power cut, it is the joint brakes that hold the pose.2816

  3. Check option (c)

    Not this one. The built-in battery UFACTORY mentions is in the arm, and its advice about it concerns charging during long storage. The joint brakes hold the pose.3635

3Intermediate

Installing and Connecting the Parts

For: Someone who will set up, program or maintain the arm: technician, student engineer
Kind of task: Apply: work through written scenarios that need a decision (which mode, which setting, what to do about this error), with feedback on each choice

In this part you work through what installing the system involves: power, cables, the tool flange, the network line inside the arm, and the rules for storage and the brakes. It is for someone who will set up, program or maintain the arm.

Power into the Control Box

  • The AC control box takes mains power through a standard IEC C20 inlet, with an IEC C19 cable37.
  • Inside, a switching power supply turns 100–240 V AC into 12 V and 48 V DC, which power the box itself and the arm38.
  • UFACTORY says to place the control box between 0.6 m and 1.5 m above the floor39.

Cables

  • The cable from the arm to the control box has an 8-pin industrial connector. It carries 48 V and ground, plus two RS-485 buses: one for the arm and one for the tool2.
  • Use only the original arm cable, and do not use the arm where that cable has to bend. Longer or flexible cables are available through the supplier40.
  • I/O cables from the control box to other equipment must not be longer than 30 m, unless testing shows a longer run works41.
  • With the DC control box, the arm connects through a supplied Robot Pwr & Communication Adapter Cable42.

The Tool Flange and Connector

  • The tool flange follows the standard ISO 9409-1-50-4-M643.
  • It has six M6 threaded holes and one Ø6 positioning hole, and takes end effectors of two different sizes44.
  • Power and control signals reach grippers and sensors through a 12-pin female aviation-style socket at the tool side1.

A Network Line Inside the Arm

  • An Ethernet cable runs inside the arm, from a user RJ45 port on the base to an M8 4-pole connector at the end flange. A camera or other device at the tool can reach the network through it45.
  • Its speed is disputed. The product page and online manual say gigabit, 1000M CAT5E; the older User Manual says 100M, standard CAT546.
  • This project's advice: until someone checks the arm at S2, size any device at the tool, such as a camera, for 100M, the lower figure47.

The Battery, and the Brakes

  • The arm has a built-in battery. If it is stored unused for 3 months or more, UFACTORY says to power it on for 6 hours every 3 months to charge it36.
  • Studio can release the joint brakes ("unlock joint"). When it does, someone must hold the arm up, or it will fall48.

What the Emergency Stop Does

A line drawing of the 850 control box from the front, with the red emergency stop button on top and the network port, LAN, robot 48V, enabling switch, state and robot power labeled.
The emergency stop button sits on the control box7. Image: UFACTORY
  • The e-stop button on the control box performs a Stop Category 149.
  • When it is pressed, the arm brakes slightly and falls. UFACTORY says the e-stop should not be used as a risk-reduction measure50.
  • The manual's own e-stop descriptions do not fit together: one part says arm power is removed quickly, while another calls the stop Category 1, which decelerates with drive power on. The contradiction card sets out both sides51.

Gripper Figures You Will Be Asked For

  • The online manual rates the Gripper G2 (AG1200) for a 5 kg payload52. It weighs 800 g53.
  • Its clamping force is 10–50 N54, its stroke 84 ± 1 mm55, and its speed 15–225 mm/s56.
  • It talks RS-485 with Modbus RTU, runs on 24 V DC, has replaceable fingers and is rated IP4057. Its cycle life is more than 2,000,000 cycles58.
  • The Vacuum Gripper (AS1200) weighs 610 g and measures 122.5 × 91.6 × 75 mm59.
  • The product page and the 850 manuals give no specification for the BIO Gripper G2 or the force-torque sensor: only their names are listed60.
  • This project's advice: the gripper figures disagree between manuals, so where a UFACTORY gripper is fitted, check which one before you use any of them34.
  • S2's own attachment is a suction tool rather than the Gripper G2: a single suction aperture15.

Check Yourself

Answer, then check. Each option has its own feedback, and nothing is scored.

q-s03-i-01 A camera on the tool needs a network connection. What do you use, and what speed can you count on?
  1. Check option (a)

    Correct. Right. The line runs inside the arm to an M8 connector at the flange. Its speed is disputed, so plan for the lower figure until it is confirmed.4546

  2. Check option (b)

    Not this one. The line is right, but gigabit is only one side of a disagreement: the older User Manual says 100M. Plan for the lower figure.46

  3. Check option (c)

    Not this one. The tool connector supplies power and control signals for grippers and sensors. The internal Ethernet line is the one that lets cameras at the tool reach the network.16145

q-s03-i-02 The arm will sit unused for four months. What does UFACTORY require?
  1. Check option (a)

    Correct. Right. The arm has a built-in battery, and an arm stored unused for 3 months or more needs this charge.36

  2. Check option (b)

    Not this one. The arm has a built-in battery. Stored for 3 months or more, it should be powered on for 6 hours every 3 months.36

  3. Check option (c)

    Not this one. Releasing the brakes makes the arm fall unless someone supports it. The storage rule is about the battery: power on for 6 hours every 3 months.4836

q-s03-i-03Safety You use Studio's "unlock joint" to release the brakes. What must happen first?
  1. Check option (a)

    Correct. Right. With the brakes released, nothing holds the arm up unless someone supports it.4862

  2. Check option (b)

    Not this one. UFACTORY says someone must support the arm when the brakes are released, to stop it falling. Do not count on anything else holding it.4862

  3. Check option (c)

    Not this one. The e-stop does not hold the arm still: it brakes slightly and falls. Unlocking a joint releases the brakes, so someone must support the arm.5048

4Expert

Electrical and Kinematic Detail

For: Someone who designs, integrates or changes the cell: integrator, engineer, agent developer
Kind of task: Analyze and decide: weigh trade-offs, resolve contradictions, critique a configuration

In this part you read the arm's geometry, its model numbers and the electrical detail of its inputs, outputs and tool pins, and learn where the detail in the UFACTORY sources runs out. It is for someone who designs, integrates or changes the cell.

The Arm's Geometry

In UFACTORY's modified D-H parameters, five link lengths describe the arm, and the uf850 kinematics file agrees with each one6364656667.

  • d1, from the base up to the Joint 2 axis: 364 mm63.
  • a2, the upper arm from Joint 2 to Joint 3: 390 mm64.
  • a3, the offset from Joint 3 to the forearm: 150 mm65.
  • d4, the forearm along Joint 4: 426 mm66.
  • d6, from the Joint 5 axis to the tool flange: 90 mm67.

Model Numbers

  • UFACTORY's manual gives the arm the model number XF8500 and the AC control box AC15. The online manual calls the DC controller DC850068.
  • The SGS safety verification linked from the 850 manual uses other model numbers: it covers "UFACTORY Robotic Arm", XI13 and XI1569.

Inside a Joint

The joints use harmonic drives, also called strain-wave reducers, and servomotors with 17-bit encoders70.

A cut-away render of a UFACTORY joint module showing a carbon fiber tube and a harmonic drive, with the words carbon fiber and harmonic.
UFACTORY's own render of a joint: carbon fiber and a harmonic drive7012. Image: UFACTORY

Motor model and rating, gear ratio, encoder type and joint-module sizes for each joint are not in the manuals or the URDF71.

The Controller's Inputs and Outputs

  • The control box has dedicated safety inputs: an emergency stop input and a protective stop input, each wired as a pair in two separate branches72.
  • The configurable inputs CI0–CI7 can be set for Stop Moving, Safeguard Reset and Reduced Mode. The general inputs DI0–DI7 cannot73.
  • The digital outputs are NPN open-collector or open-drain74.
  • The internal 24 V I/O supply delivers up to 1.8 A. An external 24 V supply of up to 3 A can be connected instead75.
  • Analog inputs and outputs work at 0–10 V with 12-bit resolution76.

The Tool Connector, Pin by Pin

  • Pins 1–2 carry +24 V, pins 3–4 are 0 V, pins 5–6 are RS-485 A and B, pins 7–8 are tool outputs TO0 and TO1, pins 9–10 are tool inputs TI0 and TI1, and pins 11–12 are analog inputs AI0 and AI161.
  • The supply is 24 V (20–30 V) at up to 1800 mA77.
  • Tool outputs are NPN open-collector, sinking up to 100 mA, with no current protection78.
  • Tool inputs have pull-down resistors, so an input left floating reads low. They accept up to 30 V and read high above 1.6 V79.
  • Tool analog inputs are not differential, accept -0.5 to 3.3 V in voltage mode, and have 12-bit resolution80.
  • Third-party RS-485 devices can be driven through the tool port. UFACTORY's own tool uses ID 9; standard Modbus RTU devices are set up under the Studio page that the 850 manual calls Settings-Externals-Modbus RTU, a section the Studio manual, as read on 2026-10-13, heads RS-485; other devices use transparent transmission8182.
  • A pogo-pin connector at the tool end has the same electrical specifications as the tool I/O83.

Where the Vacuum Gripper Figures Split

The online manual's Vacuum Gripper (AS1200) gives -55 kPa, more than 4 L/min, 20 mA quiescent and 500 mA peak. The older User Manual gives 78% vacuum, more than 5.6 L/min, 30 mA quiescent and 400 mA peak. They may be different revisions; the sources do not say84.

Check Yourself

Answer, then check. Each option has its own feedback, and nothing is scored.

q-s03-e-01 A sensor on tool input TI0 reads low with its cable unplugged. Fault or normal?
  1. Check option (a)

    Correct. Right.79

  2. Check option (b)

    Not this one. The tool inputs have pull-down resistors, so a floating input reads low, not high.79

  3. Check option (c)

    Not this one. The supply on pins 1 and 2 is separate from the inputs. A floating input reads low because of its pull-down resistor.6179

q-s03-e-02 Which gripper clamping-force figure goes into a grasp calculation for S2?
  1. Check option (a)

    Correct. Right. The clamping-force figures are for UFACTORY's Gripper, and the two manuals disagree on them, possibly for different generations. S2's attachment is a single suction aperture.1534

  2. Check option (b)

    Not this one. That is the online manual's figure for its Gripper G2, and the older User Manual gives at most 30 N. S2's attachment is a single suction aperture, not that gripper.3415

  3. Check option (c)

    Not this one. That is the older User Manual's figure, and the online manual gives 10–50 N for its Gripper G2. S2's attachment is a single suction aperture, not that gripper.3415

q-s03-e-03Safety A light curtain must stop the arm when someone enters the cell. Where does it belong?
  1. Check option (a)

    Correct. Right. The control box has dedicated safety inputs wired in two branches, and this project's advice is that risk-assessed protective devices go there.7285

  2. Check option (b)

    Not this one. The general inputs DI0–DI7 cannot even take the Stop Moving function. Use the dedicated, redundant protective stop input.7372

  3. Check option (c)

    Not this one. Collision detection is a controller function, not a validated safeguard, and it must not replace protective devices on the safety inputs.8529

Not settled

Open Questions · 10

What the sources do not settle for this section. Nothing here is papered over with a plausible number.

  • Kind: Gap

    No dedicated teach pendant for the 850 is documented in the sources fetched: teaching is by browser (UFACTORY Studio) and by hand guiding. User Manual V2.3.0 lists stop categories for a 'Three-Position Enabling Device', but no source fetched names the product or says whether it is offered for the 850.

    See reference 27
  • Kind: Contradiction

    Gripper specifications differ between sources: the online hardware manual's 'Gripper G2(AG1200)' has 10–50 N clamping force, 800 g weight and Modbus RTU, while User Manual V2.3.0's '850 Gripper' has 30 N maximum clamping force, 802 g weight and Modbus TCP. They may describe different gripper generations; the sources do not say.

    See reference 34
  • Kind: Contradiction

    Sources disagree on the speed of the 850's internal base-to-flange Ethernet cable: gigabit or 1000M CAT5E on the product page and in the online hardware manual, but 100M and 'Standard CAT5' in User Manual V2.3.0.

    See reference 46
  • Kind: Contradiction

    The 850 manual's e-stop figures appear inconsistent. Section 2.1.2 says arm power is removed within 300 ms of pressing the e-stop. Section 7.8 says the e-stop is Stop Category 1, which decelerates 'with drive power on'. Section 7.9 gives Stop Category 1 stopping times of 521 to 885 ms. The UFACTORY sources do not explain how power removal within 300 ms fits a powered deceleration lasting up to 885 ms (the brakes may do the rest of the stopping, but no source says so).

    See reference 51
  • Kind: Gap

    No specification for the 850's BIO Gripper G2 or 6-axis force/torque sensor (payload, force range, resolution) was found in the product page or the 850 manuals fetched; only their names are listed.

    See reference 60
  • Kind: Gap

    Per-joint component data for the 850 (motor model and rating, harmonic-drive ratio, encoder type and whether it is single- or multi-turn absolute, and joint-module sizes for J1–J6) is not published in the product page, the manuals or the URDF fetched.

    See reference 71
  • Kind: Contradiction

    UFACTORY's documents give one page of UFACTORY Studio two names. The 850 hardware manual says a standard Modbus RTU end effector is debugged under 'Settings-Externals-Modbus RTU'. The Studio manual's Settings chapter, as read on 2026-10-13, heads its section 7.2.5, under 7.2 Externals, 'RS-485'; until that date the section was headed 'Modbus RTU'. UFACTORY's release note for Studio V2.8.2 names the page 'Settings - Externals - RS-485'; no fetched source says from which Studio version the page carries that name.

    See reference 82
  • Kind: Contradiction

    Vacuum gripper specifications differ between sources: the online hardware manual (AS1200) gives -55 kPa, more than 4 L/min, 20 mA quiescent and 500 mA peak current, while User Manual V2.3.0 gives 78% vacuum, more than 5.6 L/min, 30 mA quiescent and 400 mA peak. They may be different product revisions; the sources do not say.

    See reference 84
  • Kind: Gap

    The make, model and weight of S2's suction tool are not documented. It is a rounded mount with five ports, of which it uses one, basically the same attachment as S6's (int-069); that it is UFACTORY's Vacuum Gripper (AS1200), which also has five suction cups (comp-069), is not confirmed. Nor is it known whether the four unused ports are sealed.

    See reference 93
  • Kind: Gap

    What the xArm 850's payload setting of 0.61 kg (int-552) stands for is not stated. The figure equals the weight UFACTORY lists for its Vacuum Gripper (AS1200), 610 g (comp-070), and the payload of UFACTORY Studio's preset named 'Vacuum Gripper', 0.61 kg (ops-092). The figures match; the match does not show which tool the arm carries (int-034).

    See reference 94
Provenance

References · 94

Each number in the text points here. Every entry states its confidence class in words and keeps its evidence one click away. How to read the labels.

Key to the badges
Confidence: Verified
A manufacturer or IntelliMake document says so, the project owner stated it as the design, or it was observed directly. It does not mean anyone measured it at S2.
Confidence: Inferred
Reasoned from Verified facts. The reasoning is printed with the record.
Confidence: Assumed
Plausible but untested. The record says how it would be checked.
Kind: Gap
Not known. No figure or answer is given in its place.
Kind: Contradiction
Sources disagree. Both sides are shown, and the site does not pick one silently.
Kind: Recommendation
Project advice drawn from the records it cites. Not a fact about the machine and not a confidence class, so the filter never hides it.
Awaiting cell access
Awaiting cell access: could be confirmed or corrected once the physical S2 cell can be observed.
This project's simulation and agent design, not the physical cell
This project's simulation and agent design, not the physical cell.

Image Credits

  • Line drawings of the 850 control box with its front and back panels labeled: emergency stop, robot power, state, power switch, AC port, network port, LAN, robot 48V, enabling switch and IO. © UFACTORY (Shenzhen UFACTORY Co., Ltd.). Source. Used with UFACTORY's written permission (2026-09-23), on the condition that each image links back to its source page.
  • UFACTORY's AC control box, marked 100 to 240 V AC, beside the DC control box, marked 48 to 72 V DC. © UFACTORY (Shenzhen UFACTORY Co., Ltd.). Source. Used with UFACTORY's written permission (2026-09-23), on the condition that each image links back to its source page.
  • A line drawing of the 850 control box from the front, with the red emergency stop button on top and the network port, LAN, robot 48V, enabling switch, state and robot power labeled. © UFACTORY (Shenzhen UFACTORY Co., Ltd.). Source. Used with UFACTORY's written permission (2026-09-23), on the condition that each image links back to its source page.
  • A cut-away render of a UFACTORY joint module showing a carbon fiber tube and a harmonic drive, with the words carbon fiber and harmonic. © UFACTORY (Shenzhen UFACTORY Co., Ltd.). Source. Used with UFACTORY's written permission (2026-09-23), on the condition that each image links back to its source page.
  • 3D model: © 2018 UFACTORY Inc., BSD-3-Clause, from UFACTORY Inc. (xArm-Developer/xarm_ros2). License text · Source

Sources for This Section

  • CODE_SESSION 01 — xArm 850 Interactive Learning Platform (project specification) · Derek Stringfellow (project owner)
    Derek Stringfellow, project record · Project-internal record · retrieved 2026-09-21 · cited by 1 record here · Project copy; not published on this site.
  • IntelliMake Phase 1 Factory: Autonomous Production Demonstrator (infographic) · IntelliMake.org (IntelliMake)
    © IntelliMake.org. Used with permission; redrawn for this platform. · Cleared for use by its owner · retrieved 2026-09-21 · cited by 6 records here · Project copy; not published on this site.
  • Owner statements from 2026-09-24 onward (verbatim; S40 and later) · Derek Stringfellow (project owner)
    Derek Stringfellow, project record · Project-internal record · retrieved 2026-10-04 · cited by 4 records here · Project copy; not published on this site.
  • SGS Verification of MD Compliance No. MD GZES2403005468MD (UFACTORY Robotic Arm, Model No. XI13, XI15) · SGS-CSTC Standards Technical Services Co., Ltd. (published by UFACTORY) (manufacturer)
    SGS verification document, published by UFACTORY · All rights reserved; quoted briefly as evidence · retrieved 2026-09-21 · cited by 1 record here · Open the source
  • UFACTORY 850 Hardware Manual (online), 1. Safety · UFACTORY (manufacturer)
    © UFACTORY · All rights reserved; quoted briefly as evidence · retrieved 2026-09-21 · cited by 4 records here · Open the source
  • UFACTORY 850 Hardware Manual (online), 2. Hardware Installation · UFACTORY (manufacturer)
    © UFACTORY · All rights reserved; quoted briefly as evidence · retrieved 2026-09-21 · cited by 3 records here · Open the source
  • UFACTORY 850 Hardware Manual (online), 3. Controller Electrical Interface · UFACTORY (manufacturer)
    © UFACTORY · All rights reserved; quoted briefly as evidence · retrieved 2026-09-21 · cited by 11 records here · Open the source
  • UFACTORY 850 Hardware Manual (online), 4. Robotic Electrical Interface · UFACTORY (manufacturer)
    © UFACTORY · All rights reserved; quoted briefly as evidence · retrieved 2026-09-21 · cited by 15 records here · Open the source
  • UFACTORY 850 Hardware Manual (online), 7. Production Information · UFACTORY (manufacturer)
    © UFACTORY · All rights reserved; quoted briefly as evidence · retrieved 2026-09-21 · cited by 3 records here · Open the source
  • UFACTORY 850 Hardware Manual (online), 8. Technical Specifications · UFACTORY (manufacturer)
    © UFACTORY · All rights reserved; quoted briefly as evidence · retrieved 2026-09-21 · cited by 15 records here · Open the source
  • UFACTORY 850 product page · UFACTORY (manufacturer)
    © UFACTORY · All rights reserved; quoted briefly as evidence · retrieved 2026-09-21 · cited by 10 records here · Open the source
  • UFACTORY 850 User Manual V2.3.0 (PDF, older edition) · UFACTORY (manufacturer)
    © UFACTORY · All rights reserved; quoted briefly as evidence · retrieved 2026-09-21 · cited by 28 records here · Open the source
  • UFACTORY Release Note v2.8.2 · UFACTORY (manufacturer)
    © UFACTORY · All rights reserved; quoted briefly as evidence · retrieved 2026-10-13 · cited by 1 record here · Open the source
  • UFACTORY Studio product and download page · UFACTORY (manufacturer)
    © UFACTORY · All rights reserved; quoted briefly as evidence · retrieved 2026-09-21 · cited by 1 record here · Open the source
  • UFACTORY Studio User Manual (online), 2. Glossary · UFACTORY (manufacturer)
    © UFACTORY · All rights reserved; quoted briefly as evidence · retrieved 2026-09-21 · cited by 1 record here · Open the source
  • UFACTORY Studio User Manual (online), 4. Live Control · UFACTORY (manufacturer)
    © UFACTORY · All rights reserved; quoted briefly as evidence · retrieved 2026-10-13 · cited by 2 records here · Open the source
  • UFACTORY Studio User Manual (online), 7. Settings · UFACTORY (manufacturer)
    © UFACTORY · All rights reserved; quoted briefly as evidence · retrieved 2026-10-13 · cited by 3 records here · Open the source
  • UFACTORY Studio User Manual, 7. Settings, as it read until 2026-10-13 (publisher's repository, commit 533b75d) · UFACTORY (manufacturer)
    © UFACTORY · All rights reserved; quoted briefly as evidence · retrieved 2026-10-13 · cited by 1 record here · Open the source
  • UFACTORY Studio's Device Info page for the xArm 850, screenshot (2026-10-16) · Derek Stringfellow (project owner)
    Derek Stringfellow, project record · Project-internal record · retrieved 2026-10-16 · cited by 1 record here · Project copy; not published on this site.
  • UFACTORY USA 850 product page · UFACTORY USA (manufacturer)
    © UFACTORY USA · All rights reserved; quoted briefly as evidence · retrieved 2026-09-21 · cited by 1 record here · Open the source
  • xarm_ros2 (branch humble), xarm_description/config/kinematics/default/uf850_default_kinematics.yaml · UFACTORY (manufacturer)
    © UFACTORY Inc., xArm-Developer/xarm_ros2, BSD 3-Clause License · BSD-3-Clause · retrieved 2026-09-21 · cited by 5 records here · Open the source

IntelliMake diagrams are redrawn as native figures, © IntelliMake.org. UFACTORY does not endorse this platform.

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