Aids to approaching competition

The competitive positions of products and services can be assessed with commercial Data Analysis software like SPSS, SAS and/or completed with the MULTIVAR program developed by ourselves. The analysis will use survey data or panels as well as internal customer databases.
The competitive position of retail outlets needs to be visualised using a Geographic Information System (GIS) like MapInfo.
 

Identifying the nearest competitors

We use a geometric triangulation technique in order to link together those positions in a space (be it perceptual or geographic) that are in direct competition with each other.
This makes it possible:
 - to identify the nearest neighbour (meaning its nearest competitor for each product/service or for each distribution outlet);
 - to compute local competitive intensity indicators as one position's mean distance to all nearest competitors
Fig. 1- Using triangulation in order to identify the nearest neighbour competitor positions

Analysing customers' patronage behaviour and separating hierarchical levels in spatial competition

Using geocoding techniques companies should be able to locate their customers patronage flows using the Geographic Information System (GIS) like MapInfo on a computer and some of our self programmed procedures in MapBasic language.
Fig.2 - Proximity patronage customer flows from census tracts to distribution outlets

The study we have done in the North of France offered an interesting view on travel patterns toward the outlets forming the retail network of a company. From each census tract customers were patronising an average of 7 outlets, the number of outlets patronised from each tract varying from 1 to 39. The 74 outlets situated in this metropolitan area were attracting people from 5600 census tracts. Each outlet had customers originating from 33 to 1640 census tracts, with an average of 468 census tracts per outlet. The number of customers visiting each outlet varied from 41 to 16213, with an average of 3246 customers per outlet.

 Although travelling patterns varied a lot some proximity behaviour could already be observed from initial graphical analysis. Statistical analysis of the distribution of travelled distances gave a better insight to patronage behaviour.

 
Figure 3. - Distances travelled by individuals to outlets (km)

Figure 3 shows that the majority of the travelled distances is concentrating towards the minimum in a range which varied between 0 and 28 kilometres. The average distance travelled by the 254744 customers first analysed was 1,5 km. Nearly three quarters of the customers (70%) travelled less than 2 km and only 10% of the customers travelled more than 4 km.
Performing Cluster Analysis on distribution outlets’ mean patronage distance we distinguished three types of outlets proximity outlets (having the shortest mean patronage distance), central town outlets (with larger attraction fields) and rural agencies (with the longest patronage distance). This classification helps to hierarchically subdivide the competitive space into three levels that can be analysed separately and to which distinct strategic solutions can be applied.

Fig.4 - Using mean customer patronage distance to distinguish proximity and central town agencies from rural outlets

Attractiveness insensitive partitioning of the markets

Partitioning the market area or the perceptual competitive space gives useful insights of a given competitive situation it helps fixing managerial objectives and directing marketing efforts and sales force activities. We suggest two ways of partitioning the market: one that takes only in account the competitive positions and ignores each product or outlet's attractiveness and the second that considers attractiveness too.
Fig. 5 - Attractiveness insensitive partitioning of a market

The attractiveness insensitive market partitioning is extremely useful as a control measure used to evaluate the impact of variable attractiveness on market penetration

Attractiveness sensitive partitioning of the markets

The other way in which we suggest that a positional market can be partitioned is one taking into account the attractiveness of a position compared to other positions. We use an Attraction index based on non positional attributes (like outlet surface, service price, quality etc.).
Fig. 6 - Attractiveness sensitive partitioning of a market
 

Computing market areas

Market partitions normally don't overlap while market areas do. Computing market areas supposes delimiting the area within which demand points have a probability superior to a given limit to be attracted by an outlet or a brand (if the space is the customer's perceptual space).
Fig. 7 - Attractiveness sensitive partitioning of a market
 

Suggesting optimal positioning of new products or retail outlets.

Finding the best location of a new distribution outlet in a distribution network or finding the position a new product or service should attain in the perceptual map of the customers, is essential to marketing strategy. Adapting on recent research (Drezner, 1994) we have operationalised a model that indicates the optimal location of a new offer (be it a product, service or retail outlet) in the competitive space taking into account the firm's and its competitors’ existing offer as well as the density of demand points distribution in the analysed space. Besides the optimal location the model indicates also the market share the new offer will attain.
Fig.8 - Finding the optimal positioning of a new product and estimating its market share
 

Spatially constrained customer segmentation techniques

Companies can use spatial socio-demographic census information that is available up to relatively small geographic areas like the census tracts in order to infer information about their customers starting from not more than a name and an address. They also can infer behavioural data from customer purchase history to the smallest geographic units (census tracts). Using this information they can obtain geographically consistent market segments. These segments need not only to be homogeneous as to their socio-demographic and behavioural characteristics but also as regards their geographic location. Therefore we have developed several methods and algorithms to cluster the smallest geographic areas adding spatial constraints. Geographically consistent market segments obtained by these methods are used to orient the spatial distribution policy of retail companies.
Fig.9 - Spatially constrained versus not constrained geographic market segments

Congruence measurements for market areas

Market areas or market territories computed for the same distribution point or product (in the perceptual space) can differ depending on the method used to compute them or on the time of the year in which they were computed. Differences in market areas for the same offer at different times measure the impact of marketing effort on one competitive position. We suggest several methods to measure the congruence (or on the contrary the difference) between two shapes of a market area and to test the significance of an eventual difference.
Fig.10 - Comparing different shapes of a market area