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"Two types of gasoline are blended by passing the streams through a horizontal “wye.” The density of both gasolines are 680 kg/m3. Exit pressure at 3 is 145Kpa Find the reaction forces at the "wye"" We assume steady flow and density constant. I basically understand the solution (i think) However, can we ignore the change in height when applying the Bernolli equation? If so why? Please explain this.

"Two types of gasoline are blended by passing the streams through a horizontal “wye.” The density of both gasolines are 680 kg/m3. Exit pressure at 3 is 145Kpa Find the reaction forces at the "wye"" We assume steady flow and density constant. I basically understand the solution (i think) However, can we ignore the change in height when applying the Bernolli equation? If so why? Please explain this.

Elements Of Electromagnetics
Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
ChapterMA: Math Assessment
Section: Chapter Questions
Problem 1.1MA
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"Two types of gasoline are blended by passing the streams through a horizontal “wye.” The density of both gasolines are 680 kg/m3. Exit pressure at 3 is 145Kpa Find the reaction forces at the "wye"" We assume steady flow and density constant. I basically understand the solution (i think) However, can we ignore the change in height when applying the Bernolli equation? If so why? Please explain this.

**Transcription of Figure 1** This diagram represents a pipeline system with three sections, labeled (1), (2), and (3). Here is a detailed description: 1. **Section 1**: - Positioned at the top left, illustrating a pipe segment. - The flow rate is indicated by an arrow with "30 L/s" pointing into the pipe. - The diameter of the pipe is labeled as "200 mm". - The flow direction is entering at an angle of 30°. 2. **Section 2**: - Positioned at the bottom left, depicting another pipe segment. - The flow rate is shown as "3.4 L/s", with the arrow pointing out of the pipe. - The diameter of this pipe is either the same or is represented by the variable "d". - The flow exits at an angle of 45°. 3. **Section 3**: - Located on the right side, representing the outgoing pipe segment. - The arrow indicates the direction of the flow, with "d" as the pipe diameter. - The diameter here is consistently labeled as "200 mm" as well. **Figure Summary**: This schematic illustrates a branching pipe system where the input and outputs are clearly marked with flow rates and diameters. Section 1 shows an input flow of 30 liters per second entering at a 30° angle, while Section 2 shows an exit flow of 3.4 liters per second at a 45° angle. Section 3 continues in a straight path with a consistent diameter of 200 mm.
Transcribed Image Text:**Transcription of Figure 1** This diagram represents a pipeline system with three sections, labeled (1), (2), and (3). Here is a detailed description: 1. **Section 1**: - Positioned at the top left, illustrating a pipe segment. - The flow rate is indicated by an arrow with "30 L/s" pointing into the pipe. - The diameter of the pipe is labeled as "200 mm". - The flow direction is entering at an angle of 30°. 2. **Section 2**: - Positioned at the bottom left, depicting another pipe segment. - The flow rate is shown as "3.4 L/s", with the arrow pointing out of the pipe. - The diameter of this pipe is either the same or is represented by the variable "d". - The flow exits at an angle of 45°. 3. **Section 3**: - Located on the right side, representing the outgoing pipe segment. - The arrow indicates the direction of the flow, with "d" as the pipe diameter. - The diameter here is consistently labeled as "200 mm" as well. **Figure Summary**: This schematic illustrates a branching pipe system where the input and outputs are clearly marked with flow rates and diameters. Section 1 shows an input flow of 30 liters per second entering at a 30° angle, while Section 2 shows an exit flow of 3.4 liters per second at a 45° angle. Section 3 continues in a straight path with a consistent diameter of 200 mm.
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