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If used, credit must be given to the United Soybean Board or the Soybean Checkoff.

MATSUSHIMA, Japan – Japanese children explore the newly constructed field shower units here March 26. Service members with Joint Forces Land Component Command and Japan Ground Self Defense Force delivered and constructed the showers for internally displaced personnel at the Ooshima Community Center. (U.S. Marine Corps Photo by Gunnery Sgt. Leo A. Salinas/Released)

World of Color is a nighttime show at Disney California Adventure, part of the Disneyland Resort in Anaheim, California. The entire show cost $75 million to design, manufacture and build. The process of assembling, installing, and testing the show's numerous components and equipment in Paradise Bay spanned a period of approximately 15 months. The original version of World of Color premiered on June 11, 2010 as part of the "Summer Nightastic!" promotional campaign.

Conceived by Vice President of Parades and Spectaculars, Steve Davison, and designed by Walt Disney Creative Entertainment, the show has nearly 1,200 fountains and includes lights, water, fire, fog, and lasers, with high-definition projections on mist screens. The show is inspired by Walt Disney's Wonderful World of Color anthology television series, as evidenced by the use of its eponymous theme song written by the Sherman Brothers.

The show transpires at the lagoon of Paradise Bay at Paradise Pier, while the audience watches the performance at the Paradise Park viewing area in front of The Little Mermaid: Ariel's Undersea Adventure attraction. Other nearby attractions such Mickey's Fun Wheel and California Screamin' become part of the performance as they undergo various forms of lighting and projections throughout the show. The effects utilized in World of Color (water fountains, mist screens, fire, lasers, lighting, and fog) are choreographed to work in synchronicity with the featured music and image projections.

 

The show uses nearly 1,200 fountains that can shoot water up to 200 ft (61 m) in the air. Each fountain is equipped with an LED light ring. Other water features include a 380-foot (120 m)-long mist screen on which images are projected (similar but smaller screens are used in Fantasmic! at Disneyland and Disney's Hollywood Studios at Walt Disney World in Lake Buena Vista, Florida). Isopar instruments are capable of shooting flames up to 50 ft (15 m) in the air. Fog and lasers are used. Projection domes emerge from the water atop telescopic masts and feature lighting effects and video projected onto the inside surface of the domes, and laser and video projections are made onto the sun icon behind California Screamin's vertical loop. A 65' tall telescopic mast was installed in the lagoon to create Chernabog of Fantasia, but the tower has not been used in the show. The LED lights on Mickey's Fun Wheel, as well as LED lights installed on California Screamin', are synchronized to the show.

Light trees rise from boxes bordering Paradise Bay. The light trees bordering the viewing area and the bay include speakers, bubble machines, infrared transmitters and a handful of VariLite lighting fixtures. On either side of the bay, there is an additional light tree with five Syncrolite fixtures. The viewing area, known as Paradise Park, is situated along the northern shore of Paradise Bay, and can hold up to 4,000 spectators at full capacity. It is multi-tiered, similar to the viewing area for Fantasmic at Disneyland in Anaheim, California. It features trellises, flowers, and an interactive play fountain during the day. Hidden fountains located in the flower beds in the viewing area are incorporated into show.

 

en.wikipedia.org/wiki/World_of_Color

 

en.wikipedia.org/wiki/Wikipedia:Text_of_Creative_Commons_...

Lieutenant General Halbauer hosted several high positioned guests at Rena, Norway, Sept. 22, 2014. Among the very international invitees: ambassadors, generals, local mayors, and the Norwegian Secretary of State of the Department of Defense, mr BØ.

 

The distinguished visitors were informed about Exercise Noble Justification, the certification of HQ 1 GE/NL corps as Land Component Command NRF 2015, and about the multinational Immediate Response Forces brigade that is still in the field.

The guests were even able to take a look at an actual operation that was executed. At Rena Airfield a Tactical Air Landing Operation was visible: a C130 Hercules rapidly picked up infantry of the NLD 11th Brigade.

  

una vista general del racó, amb tot el que hi tinc

 

llegeix el post a: serkeros.wordpress.com/2011/11/06/el-talleret/

Staple Remover Design

 

A standard staple remover is constructed of just five distinct components: • two plastic grips • torsion spring • two sets of metal swinging wedges (a.k.a the blades) • metal pin axle • two smaller pins

 

The design is focused on functionality and robustness with no unnecessary decoration (unless one includes the ergonomics of the handle) and minimised number of parts to lower costs and production time. The device works with a pincer action to unfold and pull out a staple in one motion.

 

[edit] Staple Remover Components

 

[edit] Blades

 

The two pivoting blades interlock each other. They are made of Chrome Plated Steel, which is harder than the thin ductile wire of the staple and strong enough to withstand the force required to remove it. The Chrome plating provides not just a chic finish but also a mild rust-resistance suitable for use in an office environment away from any liquids let alone corrosive ones. Though the blade is made from what was originally sheet metal; the right angles and clean edges mean that a punch and die method of production would not be suitable. Therefore the piece of sheet metal is cut using the process of blanking in a mechanical press then bent in a press brake. This is a highly automated method which allows for a production rate of up to 1500 units per minute.

 

[edit] Torsion Springs

 

The torsion spring in this staple remover is a standardised component that appears in many other products such as clothes pegs. It has two loops and is made of Chrome-plated Steel. They are mass produced by a spring winding machine which cold winds wire around an arbour before heat treating to make it harder. The spring is then chrome plated. The machinery to do this is large, expensive, but has a high production rate. That is why the springs are usually bought off-the-shelf from a tier 1 supplier rather than produced in house. The material, steel is an excellent choice for this use, as there is a point of minimum stress where continued use (opening and closing the staple remover) will not cause failure through fatigue.

 

[edit] Plastic Grips

 

The plastic grips are in fact unnecessary and the device could still be operated without them. They provide enhanced ergonomics so the user does not have to press their fingers against sheet metal. Injection moulding of thermoplastics are normally used through the use of an automated injection moulding machine, which shoots liquid plastic into a mould where it is left to set. Such processing is commonplace, not very labour intensive, cheap and capable of producing high quantities. Plastic is used as it is the easiest, but also the cheapest and most readily available material that can be formed into such fluid shapes.

 

[edit] Pin Axle

 

The pin axle provides a cylindrical bar from which the blades can rotate. It is made of Stainless Steel, which will not rust in areas that have been worn by contact with other metals. The process to create such a pin axle is quite intensive and hence it is bought off-the-shelf from a supplier. They are made by a specialised machine which cuts thick wire into a suitable length and then die punches the head of the pin, the supplier normally runs specialised machinery that is capable of producing large amounts of products at a high rate for a low cost.

For those of you who are interested in the 'bits', here are a selection of the key parts.

 

Not a complete rundown by covers the main mechanicals and load-bearing structures.

 

Car is 'drivable' with rear engine/transaxle, front tub and front drive assembly module.

 

Engine is an eight cylinder in 'W' format. That is two Vee-fours with their crankshafts gearedto a cenntral drive shaft.

 

Front and rear suspension are both by swing axles and sprung by torsion bars. The front suspension module plus straing into the front of the stressed tub and is completely self contained for load paths. The rear suspension feefs the loadparths into the engine assembly.

 

Not on the engine module the heat exchangers mounted in front of the rear wheels as well as behing the rear suspension module. The real Veyron has 13 heat exchangers in all. The detailing on the top of the engine asembly replicates the intake system and air-air intercoolers for the charge air.

 

One of the included images has the entire vehicle assembly arrayed.

 

Please feel free to ask any questions or request further techincal information regarding the model.

Infographics of the Security Components from the 2017-2018 Information Digest, NUREG 1350, Volume 29.

Published in August 2017.

 

For more information go to: www.nrc.gov/reading-rm/doc-collections/nuregs/staff/sr1350/

 

Visit the Nuclear Regulatory Commission's website at www.nrc.gov/.

 

To comment on this photo go to public-blog.nrc-gateway.gov/2012/04/01/nrc-moves-its-publ....

 

Photo Usage Guidelines: www.flickr.com/people/nrcgov/

 

Privacy Policy: www.nrc.gov/site-help/privacy.html.

 

For additional information contact OPA Resource.

Old school singlespeeder with beltdrive and classic Paul components

For those of you who are interested in the 'bits', here are a selection of the key parts.

 

Not a complete rundown by covers the main mechanicals and load-bearing structures.

 

Car is 'drivable' with rear engine/transaxle, front tub and front drive assembly module.

 

Engine is an eight cylinder in 'W' format. That is two Vee-fours with their crankshafts gearedto a cenntral drive shaft.

 

Front and rear suspension are both by swing axles and sprung by torsion bars. The front suspension module plus straing into the front of the stressed tub and is completely self contained for load paths. The rear suspension feefs the loadparths into the engine assembly.

 

Not on the engine module the heat exchangers mounted in front of the rear wheels as well as behing the rear suspension module. The real Veyron has 13 heat exchangers in all. The detailing on the top of the engine asembly replicates the intake system and air-air intercoolers for the charge air.

 

One of the included images has the entire vehicle assembly arrayed.

 

Please feel free to ask any questions or request further techincal information regarding the model.

A part of machinery that I recently photographed.

If used, credit must be given to the United Soybean Board or the Soybean Checkoff.

System Designation: SERAH

Acronym: System for Emergency Response & Autonomous Healing

Unit Type: Mobile Field Medical Pod

Version: 2.6.7 (Coldspire-Modified)

  

CORE FUNCTION

The SERAH-Class Trauma Module is a modular medical unit designed for autonomous triage, trauma response, and surgical intervention in high-risk or remote environments. It serves as the secondary core of the SERAH AI system, sharing consciousness and data streams with the humanoid primary unit for full operational integration.

  

DIMENSIONS & POWER

 

Footprint: 6 x 9 grid units (Coldspire standard)

Power Requirements: 1.4 kW (independent fuel cell OR external umbilical)

Recharge Interface: Integrated port at humanoid dock (magnetic lock, hardwire uplink)

Battery Duration: 22 hours autonomous runtime; 12 hours full trauma capacity

  

STANDARD MODULE COMPONENTS

 

Humanoid Dock Interface – For SERAH’s humanoid component to recharge, uplink, or coordinate complex procedures.

Enclosed Medpod (Canopy-Sealed) – Auto-sealing with cryofoam insulation.

Articulated Surgical Armatures – High-precision, cold-sterile manipulators with six interchangeable tool heads.

Vitals Display Console – Real-time feedback (BP, O2, neurostim, cardiac rhythm, GRPS readouts).

O2 Delivery Array – Oxygen concentrate and pulse-feed systems.

Transfusion & MedPak System – Contains two 500mL field-replaceable blood units and six med-pouch slots (stims, antitoxins, coagulants).

Stasis Functionality – Optional short-term hypometabolic suspension (max 30 min).

  

FIELD OPERABILITY

 

Mount Points: Coldspire Standard Dock Rail (compatible with hospital module, Drift Rig frames, Fire Auk airframe).

Deployment Time: < 90 seconds full activation

Voice Commands: Accepts Coldspire dialect directives or manual override

EM Hardened: Rated for moderate interference from Shattersea pulses and rogue Protocol zones

Self-Cleaning Cycle: Initiated after each procedure; 8 min cooldown

  

KNOWN ISSUES / WARNINGS

 

Extended use without AI sync may reduce decision latency

DO NOT attempt transport with canopy unsecured

Keep stasis functionality under manual supervision if humanoid component is offline

Not rated for high-explosive zones or full-body prosthesis implantation (refer to Tier 3 surgical centres)

 

A component of the spiny forest along Madagascar's seasonally dry southwestern coast. It has a fastigiate habit - it grows as a bunch of profusely thorny, near-vertical stems, sparsely branched.

Composants électroniques (focus stacking).

 

Image composée de 22 photos prises avec la bonnette Raynox DCR-250 et assemblées avec Zerene Stacker.

I love, love these crystal components. They make the greatest necklaces! Here is a "diamond" necklace for those rich ladies...

 

Listing:

www.etsy.com/listing/236278984/diamond-necklace-for-sd-bj...

 

Modeled by Olivia, my Elfdoll Hazy

 

Also, I've been eating up these tutorials for Adobe Lightroom: www.wildlife-photography-tips.com/adobe-lightroom-tutoria...

 

I learned how to save presets, which basically means I edited all of these photos simultaneously. Magic.

 

The tagging system is blowing me away. It will take me a while to set it up, but here I go!

Continuing on the "what if" process. Working with a few new products.

  

Ingredient for a simple target board: Perfboard, socket, 6-pin DIP header, optional battery box.

 

Photo taken to accompany short article on working with AVR microcontrollers, and making minimalist target boards for programming them.

If used, credit must be given to the United Soybean Board or the Soybean Checkoff.

això és el que veig abans d'assentar-me

 

llegeix el post a: serkeros.wordpress.com/2011/11/06/el-talleret/

Belgian Land Component - Iveco M250 - Medium Heavy Truck

Small box for PCB (Printed Circuit Board) with electronic components, very high water protection degree, without epoxy resin.

No tooling costs, with reduced labour cost and without potting resins.

This box is a simple and inexpensive solution to coat small electronic circuits with high quality materials (polyurethane).

Cables or connectors can be according to customer's design; metallic sheaths or special cables are available, the item can also be supplied fitted with connectors according to customer's request: such as Tyco, FCI, Deutsch, Molex, Amphenol, etc.

Advantages:

- Overmoulded with PUR (polyurethane)

- Protection degree: IP67

- Simple and low-cost

- Small dimensions

- Very light weight

- Electrical cable exit: single or multiple.

- Cable type according to customer’s needs.

- Possibility to have protection conduit of galvanized steel or stainless steel, for applications where the most reliability and mechanical strength are requested

 

A C-130 lands in Rena, Norway during Exercise Noble Justification Sept. 22, 2014. Exercise Noble Justification is the certification of HQ 1 GE/NL corps as Land Component Command NRF 2015, and about the multinational Immediate Response Forces brigade that is still in the field.

 

For those of you who are interested in the 'bits', here are a selection of the key parts.

 

Not a complete rundown by covers the main mechanicals and load-bearing structures.

 

Car is 'drivable' with rear engine/transaxle, front tub and front drive assembly module.

 

Engine is an eight cylinder in 'W' format. That is two Vee-fours with their crankshafts gearedto a cenntral drive shaft.

 

Front and rear suspension are both by swing axles and sprung by torsion bars. The front suspension module plus straing into the front of the stressed tub and is completely self contained for load paths. The rear suspension feefs the loadparths into the engine assembly.

 

Not on the engine module the heat exchangers mounted in front of the rear wheels as well as behing the rear suspension module. The real Veyron has 13 heat exchangers in all. The detailing on the top of the engine asembly replicates the intake system and air-air intercoolers for the charge air.

 

One of the included images has the entire vehicle assembly arrayed.

 

Please feel free to ask any questions or request further techincal information regarding the model.

For those of you who are interested in the 'bits', here are a selection of the key parts.

 

Not a complete rundown by covers the main mechanicals and load-bearing structures.

 

Car is 'drivable' with rear engine/transaxle, front tub and front drive assembly module.

 

Engine is an eight cylinder in 'W' format. That is two Vee-fours with their crankshafts gearedto a cenntral drive shaft.

 

Front and rear suspension are both by swing axles and sprung by torsion bars. The front suspension module plus straing into the front of the stressed tub and is completely self contained for load paths. The rear suspension feefs the loadparths into the engine assembly.

 

Not on the engine module the heat exchangers mounted in front of the rear wheels as well as behing the rear suspension module. The real Veyron has 13 heat exchangers in all. The detailing on the top of the engine asembly replicates the intake system and air-air intercoolers for the charge air.

 

One of the included images has the entire vehicle assembly arrayed.

 

Please feel free to ask any questions or request further techincal information regarding the model.

BA 133 Nancy: F16 turcs M2000N, armé d'une bombe guidée laser. (Photo courtesy of L'armee de l'air)

Standard, cylinder, cylinder head, crosshead, cylinder base and piston

Scan of the component side of the DSi main board.

The CIS Battalion provides reliable Communication Information System-services to several units of Headquarters 1 (GE/NL) Corps during Exercise Noble Justification. A Rapid CIS Element (RACE) is assigned to the Immediate Response Force Brigade in Evermoen, Norway. A second RACE supports the Exercise Command in Wildflecken and a third RACE provides controlled internet for several units at Wildflecken training area. When 2 CIS coy is not deployed for an exercise, it is located in Garderen, the Netherlands. 1 (GE/NL) Corps’ CIS Battalion is deployed with 8 RACE’s and 410 soldiers to Wildfecken and Norway for Noble Justification. Picture with courtesy of CISBn

If used, credit must be given to the United Soybean Board or the Soybean Checkoff.

Components prior to Assembly with Loctite

Pro-Railing is a range of handrailing components designed with simplicity of use in mind. This handrail and stainless steel balustrade system consists of over 1000 components, allowing for the quick installation of complex and attractive stainless steel railings and balustrade systems; simply cut then glue or screw to create a clean and contemporary look, giving you professional results every time. It is available in stainless 304 for internal installations and stainless 316 for exterior handrails or balustrades, and comes either in a brushed steel or mirror polished finish.

 

To view Pro-Railing products please visit:

 

www.fhbrundle.co.uk/groups/25PR__Pro_Railing

Vintage electronics components as tree ornaments. Read more about this project here.

GV II* Western complex of integrated multi-component wool textile factory, now partially in use as small industrial estate, with the remaining component structures empty at the time of inspection (August 2000). Late C18, continuously enlarged and re-modelled between c.1800 and c.1920, with late C20 alterations and changes of use to individual components. Coursed rubble sandstone, with ashlar and red brick dressings, and red brick, with slate and C20 sheet roof coverings.

 

PLAN: the complex forms the western half of the extensive wool textile manufacturing site at Tonedale Mills, which is divided into two parts by a water course, the Back Stream. The site housed wool and yarn preparation processes in a complex of functionally-related buildings, identified as mills 2, 3, 4, 5 and 6, and combing shed sited in rectangular configurations to the north and west of the site, with a multi function range, housing boiler repair, power generation, wool mixing and cleaning and tin smithing facilities to the east side.

 

Mills 2 and 3 represent the phased development between 1861 and 1871 of a twenty-one bay steam-powered, and subsequently electrically-powered worsted spinning mill. Early phase to east, eleven bays of four storeys and attics, of rubble sandstone, with keyed semi-circular arch-headed windows up to second floor level, and similar window openings to attic floor. Fourth floor with flat-headed openings. Entrance to mill within fire-proof stair tower at east end, within six-bay return elevation. Doorway with plank double doors with adjacent shaft box for entry of horizontal shaft associated with vertical drive shaft, now removed, within stair well. Later 17 bay phase of c.1871 to the west, constructed to a slightly wider plan, but of matching materials and detailing externally, with a fire-proof stair and water tower and a large engine house at the junction of the two phases. INTERIOR: both phases are of non-fire proof construction, with timber floors supported on substantial cross beams. Cast-iron columns with compression plates and bolting faces on north side for line shaft cradles. M-profile collared roof with principals carried on cast-iron brackets bolted to floor beams. Collars set within cast-iron shoes support short king posts. Roof valley column supports with rectangular eyed heads. Later phase shares constructional characteristics, but with heavier columns with four-way bolting faces, and the upper floors retain evidence of multiple line shafts. Both phases retain internal metal fire doors. Stair tower with brick jack arch fire-proofing. Adjacent engine house, with brick vaulted ceiling at third floor level retaining lifting rings. The engine house, thought to have housed a double beam engine designed to power both sides of the mill, retains the engine entablature support stonework in the internal cross walls, and cast-iron shaft boxes for the vertical power shaft, now removed. To the north of mills 2 and 3, single storeyed combing shed for sorting and combing worsted fibre prior to spinning. Narrow rectangular brick building with projecting bays to the south frontage facing the spinning mill formerly housing combing machinery. To the south of the spinning mill, mills no.4 and 6. Mill no.4 of red brick with a slated roof, two storeys, fourteen bays, aligned east-west, with a narrow five-bay storeyed crosswing at the east end. Main range with stacked basket arch-headed windows to each bay, with double doors to both floors at the east end. Hipped west end to roof, which has a deep eaves supported on paired brackets. Narrow gabled crosswing, the gable detailed as an open pediment, with ground floor doorway beneath multi-pane overlight. East side wall with stacked windows and single doorway to bay two. The mill was used for blending coloured wool fibres, with carding machines on the first floor. The narrow end bay was a storeyed motor room, used to power the upper floor machinery. To the east, no.6 mill, of rubble stone with red brick dressings. Ten bays, three storeys, with four bay returns, and a narrow two bay upper floor with horizontally-boarded cheeks above short roof slopes to outer bays. The west gable has windows arranged vertically 4:4:2, the east gable has an infilled double doorway to the centre, four first floor openings and two upper floor openings, one a window, one with boarded shutter. The boarded flanks, originally louvred, now house casement frames. The building was originally multi-functional, with baskets, used for wool transportation on site, made on the upper two floors, and machines for puttee (military leggings) knitting on the ground floor. This building appears to have been powered by a horizontal shaft from the spinning mill to the north. To the south of no.4 mill, no.5 mill. Massive, rectangular building of fourteen bays, with a narrow storeyed frontage, aligned north-south and a north-light shed extending westwards to the site boundary. Late C19, of smooth red brick rising from a deep plinth, with narrow storeyed range forming east front, with hipped slated roof and semi-circular arch-headed window and door openings. Single storeyed half-hip roofed porches to bays one and two, and bays eleven and twelve, each with three blind semi-circular arched openings and a wide doorway. Closely-spaced tall window openings to ground floor and a smaller number of first floor openings, some detailed as taking-in doors. A single pivoting wall crane survives towards the centre of the range. Three bay returns to each end, with single storey shed side walls extending to the west.

 

INTERIOR: floored frontage range with chute openings in ceiling for carded wool processed at first floor level. Arcaded shed interior with cast-iron columns supporting transverse arcade plates, with straight timber braces mounted in sockets in the columns, which are widely spaced, each bay accommodating two sections of half-glazed north light roof. The shed was used for manual wool sorting after washing and carding processes had taken place.

 

West of no.5 mill, multi-function range, with twin gabled, red brick boiler repair house to the north with wide semi-circular arched openings to centre of ground floors, and twin upper floor openings. Northern part with interior lifting gear, southern part adapted for storage. Further south, low, single storeyed rubble stone L-shaped cross range, formerly power house to provide alternating and direct current electricity from diesel generators. Further south, on west side, hipped roof red brick range with long and short wings extending eastwards, which accommodated a tin smithing shop, associated with the other metal-working shops on site, and wool mixing and cleaning processes required prior to carding and sorting in the shed opposite.

 

A multi phase and multi-function C19 wool textile mill site, forming the western part of the Tonedale Mills complex. The site retains a full complement of buildings which housed the wool preparation and yarn spinning processes required in the manufacture of woollen and worsted cloths, together with power generation and ancillary processes such as basket making and metal working needed in a complex, geographically-dispersed manufacturing complex. Tonedale Mills is thought to be the largest and most comprehensively -representative textile manufacturing site in the south-west, with a range of surviving structures unparalleled in England.

 

Listing NGR: ST1275521349

Electronics Hobby

 

Building a new components-cabinet.

 

Hacker (hobbyist)

 

In home computing, a hacker is someone who modifies software or hardware of their own private computer system. It includes building, rebuilding, modifying, and creating software (software cracking, demoscene), electronic hardware (hardware hacking, overclocking, modding), either to make it better, faster, to give it added features or to make it do something it was not originally intended to do. Hacking in this sense originated around hobbyist circles discussing the MITS Altair at the homebrew computer club.

  

Hacker artists[edit]

 

See also: Fractal art, algorithmic art and interactive art

 

Hacker artists create art by hacking on technology as an artistic medium. This has extended the definition of the term and what it means to be a hacker. Such artists may work with graphics, computer hardware, sculpture, music and other audio, animation, video, software, simulations, mathematics, reactive sensory systems, text, poetry, literature, or any combination thereof.

 

Dartmouth College musician Larry Polansky states: "Technology and art are inextricably related. Many musicians, video artists, graphic artists, and even poets who work with technology—whether designing it or using it—consider themselves to be part of the 'hacker community.' Computer artists, like non-art hackers, often find themselves on society’s fringes, developing strange, innovative uses of existing technology. There is an empathetic relationship between those, for example, who design experimental music software and hackers who write communications freeware." [3]

 

Another description is offered by Jenny Marketou: "Hacker artists operate as culture hackers who manipulate existing techno-semiotic structures towards a different end, to get inside cultural systems on the net and make them do things they were never intended to do." [4]

 

A successful software and hardware hacker artist is Mark Lottor (mkl), who has created the 3-D light art projects entitled the Cubatron, and the Big Round Cubatron. This art is made using custom computer technology, with specially designed circuit boards and programming for microprocessor chips to manipulate the LED lights.

 

Don Hopkins is a software hacker artist well known for his artistic cellular automata. This art, created by a cellular automata computer program, generates objects which randomly bump into each other and in turn create more objects and designs, similar to a lava lamp, except that the parts change color and form through interaction. Says Hopkins, "Cellular automata are simple rules that are applied to a grid of cells, or the pixel values of an image. The same rule is applied to every cell, to determine its next state, based on the previous state of that cell and its neighboring cells. There are many interesting cellular automata rules, and they all look very different, with amazing animated dynamic effects. 'Life' is a widely known cellular automata rule, but many other lesser known rules are much more interesting."

 

Some hacker artists create art by writing computer code, and others, by developing hardware. Some create with existing software tools such as Adobe Photoshop or GIMP.

 

The creative process of hacker artists can be more abstract than artists using non-technological media. For example, mathematicians have produced visually stunning graphic presentations of fractals, which hackers have further enhanced, often producing detailed and intricate graphics and animations from simple mathematical formulas.

  

en.wikipedia.org/wiki/Hacker_(hobbyist)

Vintage electronics components as tree ornaments. Read more about this project here.

CBP components, Office of Field Operations, Office of Border Patrol and Office of Air and Marine compete in an Honor Guard Competition during the annual commemoration of Police Week in Washington D.C. Photos by James Tourtellotte.

Finished soldering the component side of bushing's new twlfpga board to a mostly-virgin DSi. I'm trying a new "hot glue reflow" technique for making the wiring job sturdy yet serviceable :)

Continuing on the "what if" process. Working with a few new products.

  

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