Physical Description. The Seal Oil System consists of a seal oil unit, associated piping to and from the generator, and the hydrogen (H2)seals located at each end of the generator. The seal oil unit has a steel base with four reinforced posts near the center. The components are mounted on the base and posts for ease of access and maintenance. Major components installed in the unit can be removed as necessary for maintenance or replacement. Minor components, such as general valving, are welded in the piping of the unit and can be repaired in place if necessary. Many monitoring and control devices such as gauges and pressure switches are also mounted on the seal oil unit. The seal oil piping is installed between the seal oil unit and the generator during erection. Oil piping also exists between the unit and the lubrication oil reservoir, a source of backup oil for the Seal Oil System. The loop seal tank serves as the interface point between the seal oil system and the lubrication Oil System. Plant closed loop cooling water piping also connects to the seal oil unit to provide a source of station cooling water for the seal oil coolers.
Physical Description. The Line consists of the State-owned portion of the Mountain Xxxxxxx railroad line and/or Conway Branch railroad line as specifically described as follows: MORE DETAILED DESCRIPTION BASED ON SECTIONS OF THE LINE(S) THAT ARE PROPOSED TO BE USED INCLUDING DEED INFORMATION, VALUATION STATIONS, MILE POSTS, AND TOWNS AND COUNTIES INCLUDED IN SERVICE AREA
Physical Description. [BRIEFLY DESCRIBE PROPERTY, PROPERTY SIZE, AND THE GENERAL AREA, NOTING ANY DISTINGUISHING PHYSICAL FEATURES, SUCH AS SURFACE WATER BODIES, BUILDINGS, VACANT LOT, ETC.]
Physical Description. The following pictures highlight the main components of the P-APM and its internal accommodation. Figure 6-1: Primary APM components Figure 6-2: Primary APM accommodation There are two physical configurations of the P-APM: Stowed – Configuration for transport by the rover or standby. In this configuration P- APM takes least volume, and is most resistant to the environment. However, it cannot perform all functions, and it is envisaged that in this configuration it should be either in off, or standby mode. Deployed – Operational configuration. In this configuration P-APM sits safely on flat and horizontal surface, with deployed solar panel and rotating mast, pointing the panels to the sun. Figure 6-3: Primary APM in deployed and stowed configurations Functional Description The P-APM provides three principal functionalities: Power management for the producing, storage, transfer and dissipation of energy. It can be configured in different modes of operation: o Idle o Powering (to SIROM I/F power bus) o Charging (from solar panel, SIROM I/F or external interface) o Dissipating (in internal load) Visualization of the surroundings of the P-APM location by video acquisition from an optical sensor. The images can be either been access by direct streaming or recorded in the P-APM memory for further access. Passive cooling to dissipate its own heat but also the one coming from connected SIROM I/F (e.g. auxiliary APM). The payload is equipped with several battery protections that can be monitored. The P-APM provides three data communications channels, with specific purpose for each: The CAN interface is used for control and monitoring purpose. It is interfaced with the active SIROMs controllers, other APMs controllers and EGSE if connected. The Space Wire interface is used for data transfer, which is here the video stream recorded by the optical system. The Wi-Fi interface, for debugging purpose, to perform the same operations than the CAN interface when the APM is not connected by the SIROM interface. The P-APM offers a mechanical interface to be connected on the bottom of the Sherpa rover in the stowed configuration, for transportation purpose. Finally, the P-APM is equipped with visual aids to support the approach of the robotic manipulator and the A-APM during the planetary demonstration scenario. Figure 6-4: Primary APM Architecture Operations
Physical Description. Figure -5 shows a 3D view of ETX-220A, with the Ethernet ports on the front panel, as well as the dual power supply. Refer to Chapter 2 for a more detailed description of the ETX-220A interface connections. Figure -5. 3D View of tfTX-220A
Physical Description. Give a brief description of the Applicant(s) racial and cultural heritage, age, height, hair and eye colour.
Physical Description. A test monitor will give the candidate verbal instructions to pursue a fleeing felony suspect (fictitious) by providing a description of what the suspect is wearing (for example, a straw hat and yellow T-shirt). The test monitor will provide two pieces of descriptive information. The applicant must then complete the following physical tasks:
Physical Description. Municipal documents relating to the District’s physical description attached as: City of Portland property map showing the District relative to City boundaries. Exhibit A
Physical Description. The property is approximately 8 acres and has been used as a school since 1923 when the original schoolhouse was constructed. Most recently, the property was used for the Salvador Elementary school. Some of the existing structures are being renovated and others are being demolished and rebuilt for use as the River Charter Middle School.
Physical Description. Mt. Shasta is a massive compound strato volcano composed of four overlapping cones; geologists es- timate its age to be 350,000 years old. Mt. Shasta is the largest volcano in the Cascade Range, with a total volume of 80 cubic miles. It also has one of the greatest base to summit rises of any mountain in the lower 48 states. Due to its great size, Mt. Shasta intensifies existing weather conditions and major storms can occur at any time of the year. Even on clear days, 60 plus mile per hour winds are not uncommon during summer months, with greater wind speeds occurring in winter. Temperatures can be extreme, with high day-to-night fluctuations. Mt. Shasta rises to a height of 14,179 feet from a base of approximately 3500 feet. Most hikers, skiers and climbers begin their ascent from trailheads at approximately 7,000 feet. Since most visitors live at or near sea level elevations, Acute Mountain Sickness (AMS) is common at mid-elevations (9- 10,000 feet). High Altitude Cerebral Edema (HACE) and High Altitude Pulmonary Edema (HAPE) have required medical evacuations or been a factor in fatal accidents. There are eight named glaciers on Mt. Shasta, containing numerous crevasses, ice falls, seracs, bergschrunds and other obstacles. In addition to glaciers, there are steep snow and ice fields offering challenging climbing. These hazards demand technical climbing skills and experience, especially of rescuers. Snow avalanches occur frequently on Mt. Shasta, with small sluffs to huge destructive slides during the fall, winter and spring. In summer, snow avalanches are less common, but rock fall becomes a major hazard, continuing into autumn.
