5152: Connie, Parts 12



  1. 5152: Connie Parts 12 Gauge
  2. 5152: Connie Parts 12 Volt
  3. 5152: Connie Parts 12 Days Of
  4. 5152: Connie Parts 12 Inch

Product: SS-5152: Price: $39.95 (1967-86) Steering Rag Joint Coupler Repair Kit: Product: SS-5154. Chevy Truck Parts Chevrolet Truck Parts. Item 1 Coleman, 2 Mantle Propane Lantern, 5152 12 90, Green Stand, Carry Case, Nice 1 - Coleman, 2 Mantle Propane Lantern, 5152 12 90, Green Stand, Carry Case, Nice $30.00 +$14.00 shipping.

Army Gung-Ho on 3D Printing Spare Parts

iStock illustration

  1. The Advance Auto Parts core charge presented to you online today with your item is representative of the most common core charge. If you have any questions, please call 1-877-ADVANCE (238-2623) or visit any Advance Auto Parts store. All products sold on AdvanceAutoParts.com are covered by warranty. Terms and length vary by product.
  2. ATI Outdoors FNH P-12 12 Gauge Slings, Shell Holders Carriers, Accessories, & Parts.
  3. Repair Parts Home Power Tool Parts Ingersoll Rand Parts Ingersoll Rand Air Wrench Parts Ingersoll Rand W5152-K12 1/2' 20V Cordless Impact Wrench Parts. We Sell Only Genuine Ingersoll Rand ® Parts. Ingersoll Rand W5152-K12 1/2' 20V Cordless Impact Wrench Parts: Socket Retainer Kit Note: Includes: O-Ring and Socket Retainer.

Additive manufacturing has come to the forefront of the Army’s attention as the service looks for ways to quickly reproduce parts without needing to continuously rely on industry.

In 2019, the service released a new policy directive that outlined its goals to expand its 3D printing processes and established an additive manufacturing center of excellence at Rock Island Arsenal, Illinois.

Maj. Gen. K. Todd Royar, commanding general of Army Aviation and Missile Command, said on the aviation side, he has been using the directive as a baseline for the command’s 3D printing efforts and then incorporating additional standards to ensure that it can meet Federal Aviation Administration regulations as well.

“It really helped us by having that [directive] because it gave us the groundwork and framework that we are now nested under,” he said during a media call with reporters in October during the Association of the United States Army’s annual meeting, which was held virtually this year due to the COVID-19 pandemic. “We continue to develop that policy and we’ll continue to do that in conjunction with our industry partners.”

Maj. Gen. Mitchell Kilgo, commanding general of Army Communications-Electronics Command, said CECOM has taken the directive into account by attempting to obtain technical data packages for its equipment earlier in the acquisition process so it can be prepared to 3D-print parts if called upon to do so.

Being able to do that upfront for command, control, computers, communications, cyber, intelligence, surveillance and reconnaissance, or C5ISR, equipment would “help us to be able to run faster with the evaluation to actually get to the point where we can provision parts,” he noted.

5152: Connie Parts 12 Gauge

Brig. Gen. Darren Werner, commanding general of Army Tank-automotive and Armaments Command, said the new additive manufacturing center of excellence at Rock Island now has 21 3D printers that are able to develop products made out of titanium, steel and aluminum.

“Our team here at TACOM — which provides oversight to the center of excellence — is partnered closely with the Army Futures Command … to rapidly integrate the capabilities that they’re looking for into our sustainment enterprise,” he said.

Army Futures Command, based in Austin, Texas, is spearheading the service’s top modernization priorities.

One of the Army’s largest additive manufacturing efforts includes reviewing weapons systems parts to see which ones could be recreated with 3D printing. For example, Aviation and Missile Command is working with Wichita State University and contractor Sikorsky on completely taking apart an entire UH-60 Black Hawk helicopter to examine its individual parts.

“We are currently disassembling it at Wichita State University,” Royar said. “They are scanning it, they’re making a 3D model of it from a [computer-aided design] file and putting it in a format that we can use.”

5152: connie parts 12 inch

The aircraft is expected to break down into about 20,000 parts, he noted. The service expects to receive the CAD files from the university in coming months so it can begin its evaluation.

Every part “is not necessarily optimized for advanced or additive manufacturing. ... But there’s a process that we’ll go through” to examine that, he said. “Our intent is to literally go through all of our parts.”

Other Defense Department organizations are doing similar work with their technologies. Kilgo noted that Communications-Electronics Command and the Defense Logistics Agency are working their way through evaluating about 98,000 parts for various systems.

“The organizations have evaluated about 31 percent of those and identified 237 CECOM and 15 DLA parts that could be potential candidates for additive manufacturing,” he said.

Werner noted that Tank-automotive and Armaments Command has 48,000 items lined up for review. Outside of that, the command is looking at how to potentially use 3D printing for components that may no longer be in production, he noted. TACOM is assigning stock numbers to each item so a soldier can easily order that specific part and have it 3D printed.

5152: Connie, Parts 12

“Then just like the other commands, we will have some that actually will make it all the way through the process, [while] others will not be viable candidates,” he said.

TACOM has already leveraged the Army’s additive manufacturing capabilities to make equipment to support U.S. government efforts to address the COVID-19 crisis, Werner noted.

“We’ve been able to produce a significant amount of COVID test swabs and other material that we’ve provided back into our supply chains to support COVID response,” he said.

Col. Gavin Gardner, commander of Joint Munitions Command, said his group has already determined that it has 77 parts that are good candidates for 3D printing.

However, the service must take steps to ensure that parts made through additive manufacturing are reliable and safe.

Royar said that besides comparing the part with its original drawings, manufacturers must also take into account issues such as whether or not the metal has a coating and the type of alloy used. Additionally, products may not always print out uniformly when employing additive manufacturing on a large scale, he noted.

“It’s relatively easy once you have a 3D model to print something,” Royar said. “But to ensure that it meets the standards — the qualification standards — that’s hard.”

5152: Connie Parts 12 Volt

Printing parts at a larger scale will require more data protection as well, Kilgo noted. The service may have to take steps such as storing more critical data offline and establishing layered cyber defenses, he said. Each company that produces parts will need to make sure that the data rights are protected.

“It’s critical that we treat this data maybe more uniquely than some typical data,” he said. “Where I get concerned is where we have not prime, but second-, third-party tier vendors … producing parts, and that data [is] not necessarily being protected.”

One benefit of additive manufacturing is that it is expected to lower the price of producing more costly weapons parts, Werner said. More expensive products are expected to be prioritized so the service no longer needs to keep asking the original equipment manufacturers to develop them for the Army.

“We look at parts that are unnecessarily expensive because of competition,” he said. In some cases, the prices go up because they are in low demand, he noted.

Royar said 3D printing may have positive training implications as well. For example, a soldier could practice taking apart a 3D model of a weapon system prior to using the actual weapon system.

5152: Connie, Parts 12

5152: Connie Parts 12 Days Of

“They can review the procedure, make sure they have everything to do it [and] they get to practice it before they actually put hands on” it, he said.

3D printing is also expected to help the service receive repair parts faster than waiting for replacements to arrive from the manufacturer.

5152: Connie, Parts 12

“We look at parts that potentially could be ... remanufactured or improved or repaired forward using our … mobile welding and shop set that has a five-axle cutter as well as a polymer printer inside the container that can be forward deployed,” Werner said. “We’re looking at methods … [where] we can integrate the repair of parts as well.”

Royar said the Army’s aviation community faces the problem of finding bidders for certain parts that do not have to be produced on a large scale because such efforts are not as profitable. After finding a company willing to make the product, it can be time consuming to go through the manufacturing process, he noted. 3D printing can be used to bypass that process for situations in which the Army may only need to manufacture a small number of parts.

“This is where I think additive and mass manufacturing are going to come into play,” he said. “If I have that 3D model, I already own the data rights. I have the means to qualify it. Then we can go get that whether it’s through the Army or we do it through commercial industry.”

One challenge the Army faces when implementing additive manufacturing processes is ensuring that there is some kind of common data standard for its files. By establishing a common standard, different commands within the service would be able to access each other’s information when needed, Royar said.

For aviation, officials are keeping track of which file formats are preferred in industry to try to ensure that all of their data is as common as possible. In some cases, the information in programs can be converted so that they are all in the same format, Royar noted.

For example, for the Army’s Future Vertical Lift modernization priority, the service reached out to industry to see which file format was preferred.

“They told us, ‘Yep,’ they’re gonna plan to use this type of file,” Royar said. “Then we went back and we’re working through the UH-60L [and] they said, ‘Hey, what type of file do you want?’ I want the same type of file. I want the same file format.’”

Topics:Army News

Related Articles

VIEW ALL ARTICLES

FSC 6250 Ballasts, Lampholders, and Starters

MFG SKUNSNItem NameDetailsCAGE CodeRFQ
2000410476250-01-343-1394LampholderMounting Feature Type: Surface
End Item Identification: Aircraft, stratolifter C-135
0VDA9
5152-6-28B
5152628B
6250-01-425-6333Lampholder AssemblyEnd Item Identification: Preprovisioning support navicp is poe
0VDA9
930-700-12
93070012
6250-01-235-5783Panel Light InfrareEnd Item Identification: 4320-01-215-7671
0VDA9

FSC 6695 Combination and Miscellaneous Instruments

MFG SKUNSNItem NameDetailsCAGE CodeRFQ
929-280-00-6
929280006
6695-01-425-6338Bezel, Instrument MountingEnd Item Identification: Preprovisioning support navicp is poe
0VDA9
930-650-00-6
930650006
6695-01-425-6342Bezel, Instrument MountingEnd Item Identification: Preprovisioning support navicp is poe
0VDA9
930-970-00-6C
930970006C
6695-01-349-6644Bezel, Instrument MountingMaterial: Plastic, polycarbonate resin and aluminum
Mounting Method: HOLE
Dial Aperture Shape: Round
0VDA9
935-080-00-6
935080006
6695-01-425-6345Bezel, Instrument MountingEnd Item Identification: Preprovisioning support navicp is poe
0VDA9
934-480-00-6
934480006
6695-01-425-6343Bezel, Window MountingEnd Item Identification: Preprovisioning support navicp is poe
0VDA9
5622-6-28
5622628
6695-01-464-1160Light, InstrumentEnd Item Identification: Helicopter, electron, fscm 78286, 1520010820686
0VDA9
5952-3LH-A6-28
59523LHA628
6695-01-356-6773Light, InstrumentSpecial Features: Without wire; lighting shall be in accordance with MIL-L-85762
Overall Length: 0.760 inches nominal
Overall Width: 0.480 inches nominal
0VDA9
805R286695-00-183-0296Light, InstrumentMounting Method: Threaded hub
Material: Copper alloy body
Voltage Rating in Volts: 28.0 ac nominal or 28.0 dc nominal
0VDA9

FSC 6930 Operation Training Devices

MFG SKUNSNItem NameDetailsCAGE CodeRFQ
822-0777-001
8220777001
6930-01-417-2680Interface Control Assembly, SimulEnd Item Identification: Support of preprovisioning items which aso acts as point of entry
0VDA9
622M-6-170
622M6170
6930-01-124-4743Trackball, Pulse OutputGeneral Characteristics Item Description: Finish black, non-gloss;weight 1.100 lbs. approx;not short circuit protected
End Item Identification: B52 weapons system trainer
0VDA9

FSC 9905 Signs, Advertising Displays, and Identification Plates

5152: Connie Parts 12 Inch

MFG SKUNSNItem NameDetailsCAGE CodeRFQ
2008200019905-01-406-2644SIGN0VDA9
1055840019905-01-281-6323Sign box, Interior Illuminated, ElEnd Item Identification: C135 acft
General Characteristics Item Description: Housing, 0.040 aluminum, conversion coated per ENG.STD.184 process NO.1; interior painted high reflective white per ENG.STD.183; exterior housing & cover white color NO.17886; cover ispolycarbonate; sign panel, polycarbonate; sign panels, dead front all whitelighted, then letters only are lighted; 'no smoking', 'fasten seat belts', 'use oxygen'; 5.0 by 8.78 inches
0VDA9
0203477-003
0203477003
9905-01-532-7537Sign, Interior Illuminated, ElectrEnd Item Identification: Astor airborne radar
Part Name Assigned BY Controlling Agency: Emergency exit indentifier
0VDA9
0203477-006
0203477006
9905-01-532-7538Sign, Interior Illuminated, ElectrEnd Item Identification: Astor airborne radar
Part Name Assigned BY Controlling Agency: Emergency exit identifier
0VDA9
0203477-007
0203477007
9905-01-532-7535Sign, Interior Illuminated, ElectrEnd Item Identification: Astor radar airborne
Part Name Assigned BY Controlling Agency: Emergency exit identifier
0VDA9