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Ms. Izyan Afrina is the managing director of Johor Logistics Sdn Bhd (JLSB), a third-party logistics provider that provides logistics service that includes transportation, warehousing, shipping brokerage, and logistics solution within the southern region of peninsular Malaysia. The company was founded almost 20 years ago by Ms. Izyan's father. Ms.Izya's brother, Mr. Ilman also join her as an HR director to lead the people management & Team culture (PMTC) unit. The huge JLSB warehouse is based at Pasir Gudang still uses a stock management system based largely on manual processes. Component stock levels are managed based on a simple reorder level for each category, monitored by regular inspections in the warehouse. When a stock fall below the reorders level, it will trigger a purchase process. The following actions are then carried out by a JLSB procurement team:

Often this process can take a week or longer if the order is placed with a single supplier. As a result of the long lead times from trigger to delivery, the stock levels have to be correspondingly large to compensate. However, this is not regarded as a significant problem. Components are mainly sourced from a small number of suppliers with which JLSB has been doing business for many years. The usual procurement policy is to buy in bulk to secure maximum discounts, even though some items are only used small quantities. The suppliers prefer to deal with large orders as the transportation methods are simplified and less expensive.

A team of nine procurement staff performs the standard accounting tasks of matching GRNS (Goods Received Notes)with POS (Purchase Orders) and then with supplier invoices. About 80% of their time is spent trying to find out why 20% of the set of three documents do not match. Relations between JLSB and its suppliers were generally cordial,even though invoice payments were often made much later than the commercial terms set out in the contract. As result, many suppliers are not motivated to prioritize the JLSB orders, and deliveries were more often late than on time.Any complaints from JLSB purchasing staff were rebuffed by suppliers accustomed to late payments. a)Based on the case study, determine the roles and responsibilities of the functions involved in the JLSBprocurement process. (b)Discuss TWO (2) implications of role and responsibilities in answer (a) to the procurement function at JLSB.

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Most Viewed Questions Of Thermodynamics

E2A.6(a) A sample of 4.50g of methane occupies 12.7 dm3 at 310 K. (i) Calculate the work done when the gas expands isothermally against a constant external pressure of 200 Torr until its volume has increased by 3.3 dm². (ii) Calculate the work that would be done if the same expansion occurred reversibly. E2A.6(b) A sample of argon of mass 6.56g occupies 18.5 dm3 at 305 K.(i) Calculate the work done when the gas expands isothermally against a constant external pressure of 7.7kPa until its volume has increased by 2.5 dm3.(ii) Calculate the work that would be done if the same expansion occurred reversibly. F=\frac{k T}{2 l} \ln \left(\frac{1+v}{1-v}\right) \quad v=\frac{n}{N} where k is Boltzmann's constant, N is the total number of units, and l= 45 nm for DNA. (a) What is the magnitude of the force that must be applied to extend a DNA molecule with N=200 by 90 nm? (b) Plot the restoring force against v, noting that v can be either positive or negative. How is the variation of the restoring force with end-to-end distance different from that predicted by Hooke's law? (c) Keeping in mind that the difference in end-to-end distance from an equilibrium value is x = nl and, consequently, dx = ldn= Nldv,write an expression for the work of extending a DNA molecule. Hint: You must integrate the expression for w. The task can be accomplished best with mathematical software.


A gas stream containing 3 mol% Ammonia (NH3) in Air is to be passed to a packed absorption columnat a rate of 5 kg s1. The column is to use Water (H20) as the solvent to reduce the ammonia content in the air leaving the column to 0.01 mol%. The gas and water streams can be assumed to be at 25 °C.The column operates at 1 bar pressure. The relationship that describes the equilibrium between Ammonia and Water at these conditions is given by: y = Hx Where the Henry's Law constant, H = 1.3 (mole frac NH3 in gas) (mole frac NH3 in liquid)1 From pilot scale experiments the Overall Mass Transfer Coefficient, KG, has been found to remain constant with a value of 200 × 10--6 kmol m² s-1 Using the protocol outlined on Page 55 of the gas absorption notes, specify an absorption column to achieve the required separation using 1 inch Raschig Rings (See Table 1 in attached data sheets). Your Design Specification must clearly show the following: Any assumptions made must be stated clearly. What the minimum liquid rate for the column is. What the liquid rate of solvent is under normal operating conditions. Based on the assumption of operating at 60% of the flooding gas flow rate, what the diameter of the column should be in meters. Confirmation that the wetting rate of your column falls within the acceptable range. The values of HTU, NTU and thus the total height of packing required in the column.


P2E.1 Calculate the final temperature, the work done, and the change of internal energy when 1.00 mol NH,(g) at 298 K is used in a reversible adiabatic expansion from 0.50 dm³ to 2.00dm².


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When measuring small pressure differences with a manometer, often one arm of is inclined to improve the accuracy of the reading. The air pressure in a circular duct is to be measured using a manometer whose open arm is inclined 32° from the horizontal, as shown in The figure. The density of the liquid in the manometer is 0.86 kg/L, and the vertical distance between the fluid levels in the two arms of the manometer is 12 cm. Determine the gage pressure of air in the duct (in Pa) and the length of the fluid column in the inclined arm above the fluid level in the vertical arm (in cm).


4.36.) A gas mixture of methane and steam at atmospheric pressure and 500°C is fed to a reactor, where the following reactions occur: \mathrm{CH}_{4}+\mathrm{H}_{2} \mathrm{O} \rightarrow \mathrm{CO}+3 \mathrm{H}_{2} \quad \text { and } \quad \mathrm{CO}+\mathrm{H}_{2} \mathrm{O} \rightarrow \mathrm{CO}_{2}+\mathrm{H}_{2} The product stream leaves the reactor at 850°C. Its composition (mole fractions) is: y_{\mathrm{CO}_{2}}=0.0275 \quad y_{\mathrm{CO}}=0.1725 \quad y_{\mathrm{H}_{2} \mathrm{O}}=0.1725 \quad y_{\mathrm{H}_{2}}=0.6275 Determine the quantity of heat added to the reactor per mole of product gas.


Estimate the rate of heat transfer from the compressor. Assume for air that Cp = 7/2 Rand that enthalpy is independent of pressure. 2.27 Fifty (50) kmol per hour of air is compressed from Pt = 1.2 bar to P2 = 6.0 bar in a steady-flow compressor. Delivered mechanical power is 98.8 kW. Temperatures and velocities are: T1 = 300 K T2 = 520 K u1 = 10 m.s^-1 u2 = 3.5 m.s^-1


Consider the reaction of 2-bromo-2-methylpropane with water, to answer the following question(s). (a) Write three-step reaction mechanism. (b) Add curved arrows to indicate electron flow for above reaction mechanism (c) Label the nucleophile, Nu, and the electrophile, E*, in the Step 2 and indicate the overall reactiontype.


P The vapour pressure, p, of nitric acid varies with temperature as follows: Determine (a) the normal boiling point and (b) the enthalpy of vaporization of nitric acid. to be perfect and calculate the partial pressures of the two components. Plot them against their respective mole fractions in the liquid mixture and find the Henry's law constants for the two components.


1- Methane is burned with atmospheric air. The analysis of the products on a dry basis is as follows: CO210.00% CO= 0.53% O2= 2.37% Calculate the equivalence ratio.