Neobeam Run (11/21/2014)

Camera construction: Radcam2

Neobeam Run (11/21/2014)

Run crew for the Nov. 21st 2014 Neobeam run. (photo by Bert Hickman)

Neobeam Run (11/21/2014)

Neobeam facility

Neobeam Run (11/21/2014)

Particle accelerator scan horn. Accelerator produces up to a 5MeV, 20mA electron beam which is rapidly swept across the cart perpendicular to the direction of cart travel at 100Hz.

Carts away from the camera in this picture

Neobeam Run (11/21/2014)

Side view of scan horn.

Carts move to the right in this picture

Neobeam Run (11/21/2014)

Camera on irradiation cart.

Neobeam Run (11/21/2014)

Looking directly up into beam

1080p 60fps

2mev 6ma beam, GOPR0052

Radiation shielded GoPro Hero 3+ Silver sent through electron beam irradiator. Looking directly up at irradiation beam off of a 45 degree stainless mirror. GoPro is enclosed in a 1/4" thick lead box with a 0.5" thick, 50% lead glass window. Additionally there is a 1/4" thick lead plate above the camera box to provide shielding from direct irradiation from the beam.

Neobeam Run (11/21/2014)

External 1000rem dosimeter after 1 pass through irradiator

Neobeam Run (11/21/2014)

Looking directly up into beam

1080p 60fps

2mev 6ma beam, GOPR0053

Radiation shielded GoPro Hero 3+ Silver sent through electron beam irradiator. Looking directly up at irradiation beam off of a 45 degree stainless mirror. LED area light bars on to reduce camera AGC sensitivity to hard x-ray bombardment. GoPro is enclosed in a 1/4" thick lead box with a 0.5" thick, 50% lead glass window. Additionally there is a 1/4" thick lead plate above the camera box to provide shielding from direct irradiation from the beam.

Neobeam Run (11/21/2014)

Additional 1/2" of lead glass added to camera

Neobeam Run (11/21/2014)

Additional 1/2" of lead glass added to camera

Neobeam Run (11/21/2014)

Calcite irradiation

1080p 60fps

2,5mev 6ma beam, GOPR0054

Radiation shielded GoPro Hero 3+ Silver sent through electron beam irradiator. Looking at calcite samples as they pass under the beam. GoPro is enclosed in a 1/4" thick lead box with a 1" thick, 50% lead glass window. Additionally there is a 1/4" thick lead plate above the camera box to provide shielding from direct irradiation from the beam.

Neobeam Run (11/21/2014)

Calcite irradiation

1080p 60fps

2,5mev 6ma beam, GOPR0055

Radiation shielded GoPro Hero 3+ Silver sent through electron beam irradiator. Looking at calcite samples as they pass under the beam. GoPro is enclosed in a 1/4" thick lead box with a 1" thick, 50% lead glass window. Additionally there is a 1/4" thick lead plate above the camera box to provide shielding from direct irradiation from the beam.

Neobeam Run (11/21/2014)

Collected beam current (mA)in top lead shield

1080p 60fps

2,5mev 6ma beam, GOPR0056

Radiation shielded GoPro Hero 3+ Silver sent through electron beam irradiator. Looking directly up at calcite samples as they pass under the beam off of a 45 degree stainless mirror. Also looking as a multimeter to measure beam current collected in shield plate (2.43mA max). GoPro is enclosed in a 1/4" thick lead box with a 1" thick, 50% lead glass window. Additionally there is a 1/4" thick lead plate above the camera box to provide shielding from direct irradiation from the beam.

Neobeam Run (11/21/2014)

Internal dosimeter after 5 passes through irradiator. Significant attenuation of x-ray radiation

Neobeam Run (11/21/2014)

New dosimeter placed on bottom of acrylic test plate in view of camera

Neobeam Run (11/21/2014)

New dosimeter placed on bottom of acrylic test plate in view of camera

Neobeam Run (11/21/2014)

New dosimeter placed on bottom of acrylic test plate in view of camera

Neobeam Run (11/21/2014)

1000rem dosimeter and acrylic plate

1080p 60fps

3,6mev 7ma beam, GOPR0057

Radiation shielded GoPro Hero 3+ Silver sent through electron beam irradiator. Looking directly up off of a 45 degree stainless mirror at 3/4" thick acrylic plate and 1000rem (10Sv) dosimeter sticker on bottom of plate as they pass under the irradiation beam. Note how fast the dosimeter turns black as it nears the beam. It is fully black even before it passes under the beam. This is due to electron bremsstrahlung from the electron beam hitting the carts. The acrylic continuously discharges as it passes under the beam due to the rough cut edges. GoPro is enclosed in a 1/4" thick lead box with a 1" thick, 50% lead glass window. Additionally there is a 1/4" thick lead plate above the camera box to provide shielding from direct irradiation from the beam.

Neobeam Run (11/21/2014)

Acrylic plate

1080p 60fps

3,6mev 7ma beam, GOPR0058

Radiation shielded GoPro Hero 3+ Silver sent through electron beam irradiator. Looking directly up off of a 45 degree stainless mirror at 3/4" thick acrylic plate as it passes under the irradiation beam. The acrylic continuously discharges as it passes under the beam due to the rough cut edges. GoPro is enclosed in a 1/4" thick lead box with a 1" thick, 50% lead glass window. Additionally there is a 1/4" thick lead plate above the camera box to provide shielding from direct irradiation from the beam.

Neobeam Run (11/21/2014)

720p 120fps

3,6mev 7ma beam, GOPR0059

Radiation shielded GoPro Hero 3+ Silver sent through electron beam irradiator. Looking directly up off of a 45 degree stainless mirror at 3/4" thick acrylic plate as it passes under the irradiation beam. The acrylic continuously discharges as it passes under the beam due to the rough cut edges. GoPro is enclosed in a 1/4" thick lead box with a 1" thick, 50% lead glass window. Additionally there is a 1/4" thick lead plate above the camera box to provide shielding from direct irradiation from the beam.

Neobeam Run (11/21/2014)

Internal dosimeter after 8 passes through irradiator. Reading over 1000rem. Dosimeter was replaced with a new one after this picture

Neobeam Run (11/21/2014)

Lead masks to prevent beam from hitting edges and triggering a self discharge until the end.

Neobeam Run (11/21/2014)

720p 120fps

3,6mev 5ma beam, GOPR0060

Radiation shielded GoPro Hero 3+ Silver sent through electron beam irradiator. Looking directly up off of a 45 degree stainless mirror at 3/4" thick acrylic plate as it passes under the irradiation beam. The acrylic is masked with lead around the leading edges and sides and in all but one place on the trailing edge so it will only self discharge at the end. GoPro is enclosed in a 1/4" thick lead box with a 1" thick, 50% lead glass window. Additionally there is a 1/4" thick lead plate above the camera box to provide shielding from direct irradiation from the beam.

Neobeam Run (11/21/2014)

Self discharge from one point

Neobeam Run (11/21/2014)

720p 120fps

3,6mev 5ma beam, GOPR0061

Radiation shielded GoPro Hero 3+ Silver sent through electron beam irradiator. Looking directly up off of a 45 degree stainless mirror at 3/4" thick acrylic plate as it passes under the irradiation beam. This time the camera goes through the beam first, then the self discharging acrylic. GoPro is enclosed in a 1/4" thick lead box with a 1" thick, 50% lead glass window. Additionally there is a 1/4" thick lead plate above the camera box to provide shielding from direct irradiation from the beam.

Neobeam Run (11/21/2014)

720p 120fps

3,6mev 5ma beam, GOPR0062.

Radiation shielded GoPro Hero 3+ Silver sent through electron beam irradiator. Looking directly up at irradiation beam off of a 45 degree stainless mirror. GoPro is enclosed in a 1/4" thick lead box with a 1" thick, 50% lead glass window. Additionally there is a 1/4" thick lead plate above the camera box to provide shielding from direct irradiation from the beam.

Neobeam Run (11/21/2014)

720p 120fps

4,2mev 5ma beam,GOPR0063

Radiation shielded GoPro Hero 3+ Silver sent through electron beam irradiator. Looking directly up at 2" lead glass cubes under the irradiation beam off of a 45 degree stainless mirror. GoPro is enclosed in a 1/4" thick lead box with a 1" thick, 50% lead glass window. Additionally there is a 1/4" thick lead plate above the camera box to provide shielding from direct irradiation from the beam.

Neobeam Run (11/21/2014)

720p 120fps

4,2mev 5ma beam, GOPR0064

Radiation shielded GoPro Hero 3+ Silver sent through electron beam irradiator. Looking at calcite and alumina ceramic(pink thing with holes in it) as they pass under the beam. GoPro is enclosed in a 1/4" thick lead box with a 1" thick, 50% lead glass window. Additionally there is a 1/4" thick lead plate above the camera box to provide shielding from direct irradiation from the beam.

Neobeam Run (11/21/2014)

720p 120fps

4,2mev 5ma beam, GOPR0065

Radiation shielded GoPro Hero 3+ Silver sent through electron beam irradiator. Looking at calcite samples as they pass under the beam. GoPro is enclosed in a 1/4" thick lead box with a 1" thick, 50% lead glass window. Additionally there is a 1/4" thick lead plate above the camera box to provide shielding from direct irradiation from the beam.

Neobeam Run (11/21/2014)

720p 120fps

4,2mev 5ma beam, GOPR0066

Radiation shielded GoPro Hero 3+ Silver sent through electron beam irradiator. Looking at a large acrylic slab as it passes under the beam. GoPro is enclosed in a 1/4" thick lead box with a 1" thick, 50% lead glass window. Additionally there is a 1/4" thick lead plate above the camera box to provide shielding from direct irradiation from the beam.

Neobeam Run (11/21/2014)

Internal dosimeter for last 7 passes through irradiator. Reading over 1000rem.

Neobeam Run (11/21/2014)

Camera box after 15 passes through irradiator

Neobeam Run (11/21/2014)

Front lead window showing radiation damage from x-rays (solarization)

Neobeam Run (11/21/2014)

Front lead window showing radiation damage from x-rays (solarization)

Neobeam Run (11/21/2014)

Front lead window showing radiation damage from x-rays (solarization)

Neobeam Run (11/21/2014)

Front lead window showing radiation damage from x-rays (solarization)

Neobeam Run (11/21/2014)

Unshielded LG optimus S places under top lead shield to see if the x-rays will damage the cellphone electronics as a test before sending the seek thermal imager through. Cell phone not damaged.

Neobeam Run (11/21/2014)

You can see the blue glow of the beam ionizing the air in this picture

Neobeam Run (11/21/2014)

Irradiation view with unshielded lg optimus camera

Neobeam Run (11/21/2014)

Irradiation view with shielded GoPro

Neobeam Run (11/21/2014)

4,2mev 5ma beam

Sending through an unshielded LG optimus S cell phone under the 1/4" top lead shield using it to record video. cellphone electronics are unharmed, though x-ray radiation is picked up on the CMOS camera.

Neobeam Run (11/21/2014)

Seek thermal and Motorola Moto G mounted under top lead shield

Neobeam Run (11/21/2014)

Seek thermal and Motorola Moto G mounted under top lead shield

Neobeam Run (11/21/2014)

4,2mev 5ma beam

Seek Thermal imager sent through Neobeam industrial irradiator 4.2Mev 5mA electron beam upward view looking at accelerator scan horn off of 45 degree mirror.
Sending through an unshielded Motorola Moto G cell phone and Seek thermal imager under the 1/4" top lead shield using it to record a thermal video. Cellphone electronics are unharmed, thermal imager is much less sensitive to x-rays then the visible light CMOS camera, though it does get interference when directly under the beam due to very intense x-ray bombardment.

Neobeam Run (11/21/2014)

4,2mev 5ma beam

Seek Thermal imager sent through Neobeam industrial irradiator 4.2Mev 5mA electron beam side view looking at calcite block sample.
Sending through an unshielded Motorola Moto G cell phone and Seek thermal imager under the 1/4" top lead shield using it to record a thermal video. Cellphone electronics are unharmed, thermal imager is much less sensitive to x-rays then the visible light CMOS camera, though it does get interference when directly under the beam due to very intense x-ray bombardment.

Neobeam Run (11/21/2014)

Large lichtenberg figure

Neobeam Run (11/21/2014)

Lichtenberg figure being discharged

Neobeam Run (11/21/2014)

Irradiated calcite block exhibiting thermoluminescence

Neobeam Run (11/21/2014)

Irradiated calcite block exhibiting thermoluminescence

Neobeam Run (11/21/2014)

Irradiated calcite block exhibiting thermoluminescence

Neobeam Run (11/21/2014)

Irradiated calcite block exhibiting thermoluminescence

Neobeam Run (11/21/2014)

Neobeam Run (11/21/2014)