PK-yrityksen omistajanvaihdos tietojohtamisen näkökulmasta – tiedon jakaminen ja absorptiivinen kapasiteetti

PK-yritysten omistajanvaihdokset koskettavat vuoteen 2020 mennessä Suomessa noin 250000 ihmistä. Yhteiskunnan kannalta on tärkeää, että vaihdokset onnistuvat ja yritykset säilyttävät kilpailukykynsä, pystyvät kehittymään, kasvamaan kannattavasti ja työllistämään lisää henkilökuntaa. Työn tavoitteena on ymmärtää ja selittää PK-yrityksen omistajanvaihdosta tietojohtamisen näkökulmasta. Tutkimus toteutettiin vertailevana tapaustutkimuksena. Aineisto kerättiin puolistrukturoiduilla teemahaastatteluilla. Luopujan hiljaisen tiedon ja jatkajan yritykseen tuoman uuden tiedon onnistunut hyödyntäminen on oleellista PK-yritysten omistajanvaihdosten onnistumisessa. Luopujan hiljaisen tiedon siirtäminen jatkajalle ylläpitää yrityksen kilpailukykyä. Jatkajan yritykseen tuoma uusi tieto puolestaan voi laukaista tiedon hankinnan, sulattamisen, muokkaamisen ja hyödyntämisen prosessin, jonka kautta yrityksen kilpailukykyä voidaan parantaa tehostamalla prosesseja tai parantamalla tuotteita ja palveluita. Yksilöiden välinen tiedon jakaminen, siirtäminen ja rakentaminen ovat prosesseja, jotka kasvattavat yrityksen absorptiivistä kapasiteettiä tehostamalla tiedon sulattamista ja muuntamista. Tätä kautta voidaan osaltaan selittää omistajanvaihdokseen liittyviä riskejä ja mahdollisuuksia.

Trust Embedded Open Innovation: Human-Centricity in the Financial

Globalization and interconnectedness in the worldwide sphere have changed the existing and prevailing modus operandi of organizations around the globe and have challenged existing practices along with the business as usual mindset. There are no rules in terms of creating a competitive advantage and positioning within an unstable, constantly changing and volatile globalized business environment. The financial industry, the locomotive or the flagship industry of global economy, especially, within the aftermath of the financial crisis, has reached a certain point trying to recover and redefine its strategic orientation and positioning within the global business arena. Innovation has always been a trend and a buzzword and by many has been considered as the ultimate answer to any kind of problem. The mantra Innovate or Die has been prevailing in any organizational entity in a, sometimes, ruthless endeavour to develop cutting-edge products and services and capture a landmark position in the market. The emerging shift from a closed to an open innovation paradigm has been considered as new operational mechanism within the management and leadership of the company of the future. To that respect, open innovation has been experiencing a tremendous growth research trajectory by putting forward a new way of exchanging and using surplus knowledge in order to sustain innovation within organizations and in the level of industry. In the abovementioned reality, there seems to be something missing: the human element. This research, by going beyond the traditional narratives for open innovation, aims at making an innovative theoretical and managerial contribution developed and grounded on the on-going discussion regarding the individual and organizational barriers to open innovation within the financial industry. By functioning across disciplines and researching out to primary data, it debunks the myth that open innovation is solely a knowledge inflow and outflow mechanism and sheds light to the understanding on the why and the how organizational open innovation works by enlightening the broader dynamics and underlying principles of this fascinating paradigm. Little attention has been given to the role of the human element, the foundational pre-requisite of trust encapsulated within the precise and fundamental nature of organizing for open innovation, the organizational capabilities, the individual profiles of open innovation leaders, the definition of open innovation in the realms of the financial industry, the strategic intent of the financial industry and the need for nurturing a societal impact for human development. To that respect, this research introduces the trust-embedded approach to open innovation as a new insightful way of organizing for open innovation. It unveils the peculiarities of the corporate and individual spheres that act as a catalyst towards the creation of productive open innovation activities. The incentive of this research captures the fundamental question revolving around the need for financial institutions to recognise the importance for organizing for open innovation. The overarching question is why and how to create a corporate culture of openness in the financial industry, an organizational environment that can help open innovation excel. This research shares novel and cutting edge outcomes and propositions both under the prism of theory and practice. The trust-embedded open innovation paradigm captures the norms and narratives around the way of leading open innovation within the 21st century by cultivating a human-centricity mindset that leads to the creation of human organizations, leaving behind the dehumanization mindset currently prevailing within the financial industry.

Modulaarinen arkkitehtuuri tuoteperheen kehittämisessä

Modulaarisen tuotteen kehittäminen tehostaa yrityksen kilpailukykyä ja helpottaa asiakkaiden tarpeiden tyydyttämistä. Tuoteperheen edut verrattaessa massatuotantoon ovat laajempi tuotevalikoima sekä parempi tuotettavuus massaräätälöintiin verrattuna. Eri tuotevaihtoehtoja ja moduuleja on mahdollista kehittää rinnakkain. Moduloitava tuoteperhe helpottaa yrityksen eri vaiheita aina tuotteen suunnittelusta huoltotoimenpiteisiin ja lopulta tuotteen purkamiseen. Asiakkaille tärkeitä hyötyjä moduloinnin osalta ovat tuotteiden parempi laatu ja huollettavuus. Täysin uuden modulaarisen tuoteperheen kehittäminen vaatii runsaasti resursseja suunnitteluosastolla. Modulaarisessa tuotteessa suunnittelutyö voidaan kohdistaa vain tietyn moduulin kohdalle ja suunnitteluaikoja saadaan täten lyhennettyä. Tässä kandidaatintyössä tutkittiin, miten hitsausautomaatiosovelluksissa modulaarisuus on toteutettu sekä pohditaan kehityskohteita, koska hitsausautomaatiosovelluksia tuotetaan runsaasti asiakasräätälöintinä. Tarkasteltavana tuoteperheenä oli robottihitsausportaalit ja hitsaustornit.

Modelling of faults in low-voltage cables

Power line modelling has become an interesting research area in recent years as a result of advances in the power line distribution network system. Extensive knowledge about the power line cable characteristics can be implemented in a software algorithm in a modern broadband power-line communication modem. In this study, a novel approach for modelling power line cables (AMCMK) based on the broadband impedance spectroscopy (BIS) and transmission line matrix (TLM) techniques is recommended in characterizing a healthy cable and the various faults associated with low-voltage cables for both open and short circuit situation. Models for different cable conditions are developed and tuned, which include six models for both healthy and faulty cables situations. The models are on the basis of impedance response analysis of the cable. The resulting spectra from the simulations are also cross-correlated to determine the degree of similarities between the healthy cable spectra and their respective faulty spectra.

Information for visitors /

Caption title.

Niagara in London : a brief study from many standpoints /

Issued with the Business Men's Association, Niagara Falls, N. Y. The water-power of the Falls of Niagara applied to manufacturing purposes. Buffalo, 1890.

Office of the City Clerk, St. Catharines Records, 1928-1974, n.d.

The site of present-day St. Catharines was settled by 3000 United Empire Loyalists at the end of the 18th century. From 1790, the settlement (then known as "The Twelve") grew as an agricultural community. St. Catharines was once referred to Shipman's Corners after Paul Shipman, owner of a tavern that was an important stagecoach transfer point. In 1815, leading businessman William Hamilton Merritt abandoned his wharf at Queenston and set up another at Shipman's Corners. He became involved in the construction and operation of several lumber and gristmills along Twelve Mile Creek. Shipman's Corners soon became the principal milling site of the eastern Niagara Peninsula. At about the same time, Merritt began to develop the salt springs that were discovered along the river which subsequently gave the village a reputation as a health resort. By this time St. Catharines was the official name of the village; the origin of the name remains obscure, but is thought to be named after Catharine Askin Robertson Hamilton, wife of the Hon. Robert Hamilton, a prominent businessman. Merritt devised a canal scheme from Lake Erie to Lake Ontario that would provide a more reliable water supply for the mills while at the same time function as a canal. He formed the Welland Canal Company, and construction took place from 1824 to 1829. The canal and the mills made St. Catharines the most important industrial centre in Niagara. By 1845, St. Catharines was incorporated as a town, with the town limits extending in 1854. Administrative and political functions were added to St. Catharines in 1862 when it became the county seat of Lincoln. In 1871, construction began on the third Welland Canal, which attracted additional population to the town. As a consequence of continual growth, the town limits were again extended. St. Catharines attained city status in 1876 with its larger population and area. Manufacturing became increasingly important in St. Catharines in the early 1900s with the abundance of hydro-electric power, and its location on important land and water routes. The large increase in population after the 1900s was mainly due to the continued industrialization and urbanization of the northern part of the city and the related expansion of business activity. The fourth Welland Canal was opened in 1932 as the third canal could no longer accommodate the larger ships. The post war years and the automobile brought great change to the urban form of St. Catharines. St. Catharines began to spread its boundaries in all directions with land being added five times during the 1950s. The Town of Merritton, Village of Port Dalhousie and Grantham Township were all incorporated as part of St. Catharines in 1961. In 1970 the Province of Ontario implemented a regional approach to deal with such issues as planning, pollution, transportation and services. As a result, Louth Township on the west side of the city was amalgamated, extending the city's boundary to Fifteen Mile Creek. With its current population of 131,989, St. Catharines has become the dominant centre of the Niagara region. Source: City of St. Catharines website http://www.stcatharines.ca/en/governin/HistoryOfTheCity.asp (January 27, 2011)

Lighting recommendations for the Ryan Electric Scintillator and Fireworks Program for the official dedication Niagara Falls illumination, 1925

Walter D’Arcy Ryan was born in 1870 in Kentville, Nova Scotia. He became the chief of the department of illumination at the General Electric Company of Schenectady, New York. He was a founder in the field of electrical illumination. He built the electric steam scintillator which had numerous nozzles and valves. The operator would release steam through the valves. The nozzles all had names which included: Niagara, fan, snake, plume, column, pinwheel and sunburst. The steam scintillator was combined with projectors, prismatic reflectors, flashers and filters to produce the desired effects. In 1920 a group of businessmen from Niagara Falls, New York formed a group who called themselves the “generators’. They lobbied the American and Canadian governments to improve the illumination of the Falls. They were able to raise $58, 000 for the purchase and installation of 24 arc lights to illuminate the Falls. On February 24th, 1925 the Niagara Falls Illumination Board was formed. Initially, the board had a budget of $28,000 for management, operation and maintenance of the lights. The power was supplied free by the Ontario Power Company. They had 24 lights installed in a row on the Ontario Power Company surge tank which was next to the Refectory in Victoria Park on the Canadian side. The official opening ceremony took place on June 8th, 1925 and included a light parade in Niagara Falls, New York and an international ceremony held in the middle of the Upper Steel Arch Bridge. Walter D’Arcy Ryan was the illuminating engineer and A.D. Dickerson who was his New York field assistant directed the scintillator. with information from American Technological Sublime by David E. Nye and the Niagara Falls info website Location: Brock University Archives Source Information: Subject Headings: Added Entries: 100 Ryan, W. D’A. |q (Walter D’Arcy), |d 1870-1934 610 General Electric Company 650 Lighting, Architectural and decorative 650 Lighting |z New York (State) |z Niagara Falls 700 Dickerson, A.F. 700 Schaffer, J.W. Related material held at other repositories: The Niagara Falls Museum in Niagara Falls, Ontario has a program (pamphlet) dedicating new lighting in 1958 and it has postcards depicting the illumination of the Falls. Some of Ryan’s accomplishments can be seen at The Virtual Museum of the City of San Francisco. Described by: Anne Adams Date: Sept 26,Upper Steel Arch Bridge. Walter D’Arcy Ryan was the illuminating engineer and A.D. Dickerson who was his New York field assistant directed the scintillator. with information from American Technological Sublime by David E. Nye and the Niagara Falls info website

Turbines Plans - General Arrangement of Shaft & Cross Section of Turbine, 1903

Two photographs of turbine drawings from the year 1903. The first drawing is titled "10000HP Turbines. Canadian Niagara Power Company. General Arrangement of Shaft." It was last revised 18 May, 1903. The second drawing is titled "10000HP Turbines Canadian Niagara Power Company. Cross Section of Turbine" This drawing revised 6 May, 1903 and 26 June, 1903.

Letter - Colonel Albert D. Shaw to Francis Lynde Stetson, 31 March 1892

A letter from Colonel Albert D. Shaw to Francis Lynde Stetson dated March 31, 1892. The letter is in regards to correspondence with the Attorney General in efforts to expedite the passing of an Act through Ontario Parliament. The act was introduced a week later (April 6, 1892) confirming the agreement between the Queen Vctoria Niagara Falls Park and the Canadian Niagara Power Company.

Letter - Robert L. Borden to A.M. Grier, 27 January 1915

A letter from the office of Prime Minister Robert L. Borden to A. Monro Grier (Corporate Secretary) in regards to a pass. The pass, sent to Borden in 1915, would give him access to the Power House at the Canadian Niagara Power Company.

Letter - Frederic Nicholls (Canadian General Electric) to W.B. Rankine, 17 December 1897

A letter from 2nd Vice President and General Manager of Canadian General Electric Company, Frederic Nicholls to W. B. Rankine regarding a bid for contract. The letter mentions that the bid for two alternating generators for the Canadian side of Niagara Falls was won by Westinghouse Eletric and Manufacturing Co. Nicholls also mentions that there will be other opportunites to win contracts as more machines are required. Nicholls also implies that Westinghouse may have bid under cost in an effort to secure the first of many contracts with the Canadian Niagara Power Company.

Letter - F. Nicholls to W.B. Rankine, 17 January 1902

A letter from Second V.P. Frederic Nicholls of Canadian General Electric Co. to W.B. Rankine in regards to transformers. The Canadian Niagara Power Co. has agreed to an order of nine transformers (1250 Killowatt) to be installed in the Power House at Niagara Falls. The transformers will cost the Canadian Niagara Power Company forty three thousand two hundred dollars.

Bill - No. 177 1892

The Act confirming agreement between the Canadian Niagara Power Company and the Queen Victoria Niagara Falls Park Commission. 2nd Session, 7th Legislature, 55 Vict., 1892.

Report of Loss in Capacity Due to Ice at Rankine Station - April 1934 through April 1937

A report compiled by Canadian Niagara Power Company describes the loss in capacity due to ice. The chart reveals the kilowatts lost and the duration of the outage and the "min. forebay elevation during ice loss period".