Temperature cycling vapor deposition HgI.sub.2 crystal growth
Patent
·
OSTI ID:862864
- Jerusalem, IL
A method and horizontal furnace for vapor phase growth of HgI.sub.2 crystals which utilizes controlled axial and radial airflow to maintain the desired temperature gradients. The ampoule containing the source material is rotated while axial and radial air tubes are moved in opposite directions during crystal growth to maintain a desired distance and associated temperature gradient with respect to the growing crystal, whereby the crystal interface can advance in all directions, i.e., radial and axial according to the crystallographic structure of the crystal. Crystals grown by this method are particularly applicable for use as room-temperature nuclear radiation detectors.
- Research Organization:
- Hebrew University Of Jerusalem
- DOE Contract Number:
- ;
- Other Award/Contract Number:
- E(29-1)-1183
- Assignee:
- United States of America as represented by United States Energy (Washington, DC)
- Patent Number(s):
- US 4030964
- OSTI ID:
- 862864
- Country of Publication:
- United States
- Language:
- English
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Related Subjects
/117/23/118/
according
advance
air
air tube
air tubes
airflow
ampoule
ampoule containing
applicable
associated
axial
containing
controlled
controlled axial
crystal
crystal growth
crystallographic
crystallographic structure
crystals
crystals grown
cycling
deposition
desired
desired temperature
detectors
directions
distance
furnace
gradient
gradients
graphic structure
growing
growing crystal
grown
growth
hgi
horizontal
horizontal furnace
interface
maintain
material
method
moved
nuclear
nuclear radiation
opposite
opposite direction
opposite directions
particularly
particularly applicable
phase
phase growth
radial
radial air
radial airflow
radiation
radiation detector
radiation detectors
respect
room-temperature
rotated
source
source material
structure
temperature
temperature cycling
temperature gradient
temperature gradients
temperature nuclear
tubes
utilizes
utilizes controlled
vapor
vapor deposition
vapor phase
whereby
according
advance
air
air tube
air tubes
airflow
ampoule
ampoule containing
applicable
associated
axial
containing
controlled
controlled axial
crystal
crystal growth
crystallographic
crystallographic structure
crystals
crystals grown
cycling
deposition
desired
desired temperature
detectors
directions
distance
furnace
gradient
gradients
graphic structure
growing
growing crystal
grown
growth
hgi
horizontal
horizontal furnace
interface
maintain
material
method
moved
nuclear
nuclear radiation
opposite
opposite direction
opposite directions
particularly
particularly applicable
phase
phase growth
radial
radial air
radial airflow
radiation
radiation detector
radiation detectors
respect
room-temperature
rotated
source
source material
structure
temperature
temperature cycling
temperature gradient
temperature gradients
temperature nuclear
tubes
utilizes
utilizes controlled
vapor
vapor deposition
vapor phase
whereby