Emergency Services Officer (ESO) at Executive Risk Solutions
Location:
Western Australia, Australia
Industry:
Mining & Metals
Work:
Executive Risk Solutions - Roy Hill since Oct 2012
Emergency Services Officer (ESO)
Australian Embassy Baghdad Iraq Aug 2010 - Sep 2012
Diplomatic PSD Team Team Leader
Unity Resources Group Jan 2004 - Sep 2012
PSD Team Leader
British Army 1986 - 1994
British Army
Education:
University of St. Andrews 2008 - 2009
Certifcate, Terrorism Studies
Inspire Education (Distance Learning) 2011
Cert IV, OH&S
Skills:
Close Protection Emergency Services Officer Fire and Rescue Fire Fighter Emergency Services Rescue Security PSD Personal Security Security Training Executive Protection Security Operations Personal Protection Corporate Security Security Management Physical Security Fire Management Defensive Driving Counterterrorism CQB Firearms Military Risk Assessment Contingency Planning Enforcement First Aid Maritime Security Reconnaissance Emergency Management Operational Planning Surveillance Tactics Weapons Army Military Operations Force Protection Afghanistan Security Audits Protection Asset Protection Crisis Management Private Investigations Investigation Intelligence Analysis
Bruce B. Gamble - Wellesley MA, US Gregory L. Snitchler - Shrewsbury MA, US Darrell Morrison - Blaine MN, US
Assignee:
American Superconductor Corporation - Devens MA
International Classification:
H02K 1/12
US Classification:
310216005, 310214, 310215
Abstract:
A stator for an electrical machine includes a back iron including a substantially cylindrical annular structure having an inner surface and an axis. A plurality of supports are fabricated of non-magnetic material, each support extending parallel to the axis of the annular structure along the inner surface of the annular structure, each support including a primary base and at least two primary support members. The primary bases substantially conform to the inner surface of the back iron with the primary support members extending radially inward from the primary base towards the axis of the annular structure. A stator winding is positioned between the at least two primary support members and between the primary base of the support and the axis of the annular structure.
Amortisseur Winding Arrangement, In A Rotor For Electrical, Rotating Equipment
Darrell R. Morrison - Blaine MN James L. Nessa - St. Paul MN James J. McClurg - Vadnais Heights MN
Assignee:
Dresser-Rand Company - Corning NY
International Classification:
H02K 100
US Classification:
310182
Abstract:
Slot wedges, electrically-conductive, used in rotor slots, between rotor teeth, and overlying the rotor coils, are serially arranged in the slots and have arcuate grooves in opposite ends thereof. Inserts, also electrically-conductive, are spring-loaded in the grooves to effect electrical continuity fully therealong, lengthwise of the rotor, from wedge to wedge.
A V-block assembly for an electrical machine having a rotor with a spider and poles disposed in a circular array around the spider and conductive windings encircling the poles comprising a dovetail groove in the spider between adjacent poles and a plurality of V-blocks each comprising a pair of flat bars having one end abutting, the abutting end being formed to fit the dovetail, the flat bars being bent outwardly to form a V and a jack screw fastened between the flat bars adjacent the open end to press the bars against the windings of adjacent poles to prevent the windings from moving laterally and radially outward as the rotor rotates.
John T. Fowler - Mankato MN Darrell R. Morrison - Mankato MN
International Classification:
H02K 1100
US Classification:
310 68R
Abstract:
An integral heat sink and fan rectifier assembly comprises a disk fastened to a rotor of a synchronous motor or generator, the disk having a central bore, a plurality of fan blades disposed on the outer periphery and a circular array of recesses that receive insulation encapsulated rectifier units that are fastened to the disk and a have a heat transfer plates that engage the bottom of the recesses to transfer heat to the disk which conducts the transferred heat to the fan blades, which transfer the heat to the cooling air as rotor rotates and blows cooling air through a portion of the motor or generator.
Amortisseur Winding Arrangement, In A Rotor For Electrical, Rotating Equipment
Darrell R. Morrison - Blaine MN James L. Nessa - St. Paul MN James J. McClurg - Vadnais Heights MN
Assignee:
Dresser-Rand Company - Corning NY
International Classification:
H02K 316 H02K 3487
US Classification:
310183
Abstract:
Electrically-conductive, segmental, slot wedges, with electrically-conductive inserts therebetween, and electrically-conductive interconnects, between end ones of the wedges and the annular, end retaining ring, of a rotor, define an amortisseur winding for the rotor. The inserts are spring-loaded in end slots formed in the wedges, and in an embodiment of the invention, are formed of beryllium copper and are silver-plated. As is typical of rotors in electrical, rotating equipment, the slot wedges are formed of aluminum.
Pete Kjeer - Mankato MN Darrell R. Morrison - Mankato MN
Assignee:
Emerson Electric Co. - St. Louis MO
International Classification:
H02K 348
US Classification:
310214
Abstract:
A V-block with a preselected shape defining a preselected included angle between a pair of V-block side portions is connected to a laminated spider of a rotor at preselected location between spaced apart adjacent poles of the rotor by disposing an elongated connecting piece in a slot longitudinally disposed in the spider and connecting the elongated connecting piece to the V-block by a fastener. Applying a preselected torque to the fastener establishes a predetermined force between the V-block and the conductive windings disposed about adjacent poles. The V-block arrangement is particularly suited for use in a dynamo-electric machine.
Superconducting Electrical Machine With Two Part Rotor With Center Shaft Capable Of Handling Bending Loads
A superconducting electrical machine includes a rotor and a stator. The stator defines a cavity. The rotor is configured to rotate about a longitudinal axis. The rotor is disposed at least partially within the cavity. The rotor includes a shaft configured to rotate with the rotor, a rotor active section including at least a rotor torque tube and a superconductor, and a first re-entrant end attaching the shaft to the rotor active section. At most a threshold fraction of a bending force applied to the shaft is communicated to the rotor active section.
Superconducting Electrical Machine With Rotor And Stator Having Separate Cryostats
Darrell Morrison - Eagle Lake MN, US Ted Daly - Eagle Lake MN, US
International Classification:
H02K 9/20
Abstract:
A superconducting electrical machine includes a rotor and a stator. The rotor includes rotor windings configured to superconduct when cooled in a rotor cryostat to a temperature no greater than a rotor superconducting temperature. The stator includes a stator windings configured to superconduct when cooled in a stator cryostat to a temperature no greater than a stator superconducting temperature. The rotor cryostat surrounds the rotor and is configured to allow transport of a first coolant through a plurality of conduits adjacent to the rotor windings in order to draw heat from the rotor windings and reduce the temperature of the rotor windings to a temperature no greater than the rotor superconducting temperature. The stator cryostat surrounds the stator and is configured to allow transport of a second coolant through a plurality of conduits adjacent to the stator windings in order to draw heat from the stator windings and reduce the temperature of the stator windings to a temperature no greater than the stator superconducting temperature.