SALORA 24K80 YEAR 1987.

SALORA 24K80 is 25 Inches Stereo set with Teletext  and SCART Connector.

PLL synthesizer tuning is provided based on ITT chipset. The system employs a frequency synthesizer for tuning the receiver's local oscillator to a selected television channel. For fine tuning, the system employs a fine tuning key which doubles as a channel selection key. Actuation of this key places the system in a fine tuning mode, and a logic circuit responds to actuation of a channel-up or channel-down key for causing the receiver to be fine tuned in the selected direction. In the preferred embodiment, fine tuning and channel selection are controlled by the logic circuit so as to occur during the receiver's vertical interval to eliminate digital switching noise from the receiver's image. Television receivers of the type under consideration frequently include a frequency synthesizer for tuning the receiver's local oscillator to the nominal carrier frequency of a selected television channel. Generally, the frequency synthesizer compares the local oscillator frequency to a reference frequency associated with the selected channel, and then varies the local oscillator frequency until it equals the reference frequency. Presumably, the receiver will now be correctly tuned to the selected channel. A programmable frequency divider counter is connected between the output of a reference oscillator and a phase comparator to which the output of the local oscillator in the tuner also is applied.

It's using the SALORA K Chassis. The Salora K and L chassis employ the Ipsalo-3 power supply/line deflection circuit. Its features include the use of a single chopper transistor and yet another hybrid chopper control chip, this time type SALORA LF0059. The chassis themselves are very different in physical appearance, though the circuits are similar. The K is an upright, hinge -back type that's akin to the H and J chassis. It's used in sets fitted with 20, 21, 22, 24, 26 and 28in. tubes - from the sizes you'll note that some are "traditional" while others are FS tubes. The L is a horizontal, slide - out chassis which, in addition to the larger screen sizes, is also used in 14 and 15in. models. Both chassis are found under other guises, such as Hitachi, Granada, Finlandia and Luxor. Many of them are thus used as rental sets.

It features a Toshiba BlackStripe CRT TUBE.

Manufacturers of cathode ray tubes of the color television picture tube type have recently begun employing aperture masks having slotted apertures instead of the more conventional circular apertures in order to achieve greater electron beam transmission through the mask, since an array of slots in an aperture mask allows the mask geometrically to be fabricated with more total open area than the same size mask containing round or circular apertures. The slotted apertures are typically arranged in vertical columns on the mask, each column being comprised of a plurality of slotted apertures. Since more electrons can impinge on the phosphor regions of the screen in a tube of this type than of the circular aperture, mask type, a brighter picture results. Unlike the circularly-configured phosphor regions on the screen of a tube employing an aperture mask having circular apertures, however, the phosphor regions on the screen of a tube employing an aperture mask having slotted apertures are formed in a pattern of adjacent vertical stripes, typically with each stripe running continuously from the top of the screen to the bottom.

Black matrix tubes have also become widely popular as of late, both in circular aperture mask tubes and slotted aperture mask tubes. As seen from the viewing side of the screen of circular aperture mask tubes, the black matrix material completely surrounds each circular phosphor dot, serving to improve image contrast by absorbing ambient light that might otherwise be reflected by the screen. Also as seen from the viewing side of the screen of slotted aperture mask tubes, each vertical phosphor stripe is separated from the adjacent vertical phosphor stripe by a stripe of black matrix material running from the bottom to the top of the screen.

In fabricating screens for conventional slotted aperture mask tubes of the black matrix type, a photoresist material coated over the inside surface of a tube faceplate is exposed in a so-called lighthouse to actinic radiation in a pattern corresponding to the pattern of matrix openings ultimately to be formed on the screen. This radiation is transmitted through the slotted apertures in the mask before impinging on the photoresist material. The actinic light source used in this fabrication process is linearly-elongated in a direction parallel to the columns of slots in the aperture mask in order to permit the black matrix material to be formed with a pattern of vertically and horizontally-aligned, vertically-oriented slots extending between the top and bottom of the screen. The phosphor stripes are thereafter deposited so that phosphor of a predetermined color emission characteristic, respectively, is deposited on the faceplate through a predetermined slot, respectively. Three different phosphor materials are conventionally deposited in a horizontally-repetitive pattern.

When a screen formed in the aforementioned manner is operated in a color television picture tube, parts of each of the phosphor stripes are not excited by the electron beams, since electrons are blocked by the webs of the mask between vertically-adjacent slots. These parts of the stripes, therefore, are essentially useless in producing images, since they provide no illumination on the face of the tube as a result of direct bombardment by primary electrons. Moreover, the phosphor material in these regions adds to overall reflectivity of the screen and hence has a deleterious effect on image contrast. To overcome this problem, the present invention contemplates substituting black matrix material to be seen from the viewing side of the screen to avoid reflection from the parts of the phosphor stripes not excited by the electron beams. This may be accomplished by using a source of actinic radiation for producing slotted openings in the black matrix material that is of shorter length than the linear source of actinic radiation for producing the phosphor stripes. The resulting increase in area of black matrix material serves to reduce screen reflectivity and enhance contrast of the displayed images. Moreover, by controlling vertical size of the mask webs between vertically-adjacent openings in the black matrix material, either a positive guardband or negative guardband mode of operation in the vertical direction may be achieved.

A SCART Connector (which stands for Syndicat des Constructeurs d'Appareils Radiorécepteurs et Téléviseurs) is a standard for connecting audio-visual equipment together. The official standard for SCART is CENELEC document number EN 50049-1. SCART is also known as Péritel (especially in France) and Euroconnector but the name SCART will be used exclusively herein. The standard defines a 21-pin connector (herein after a SCART connector) for carrying analog television signals. Various pieces of equipment may be connected by cables having a plug fitting the SCART connectors. Television apparatuses commonly include one or more SCART connectors.

Although a SCART connector is bidirectional, the present invention is concerned with the use of a SCART connector as an input connector for receiving signals into a television apparatus. A SCART connector can receive input television signals either in an RGB format in which the red, green and blue signals are received on Pins 15, 11 and 7, respectively, or alternatively in an S-Video format in which the luminance (Y) and chroma (C) signals are received on Pins 20 and 15. As a result of the common usage of Pin 15 in accordance with the SCART standard, a SCART connector cannot receive input television signals in an RGB format and in an S-Video format at the same time.

Consequently many commercially available television apparatuses include a separate SCART connectors each dedicated to receive input television signals in one of an RGB format and an S-Video format. This limits the functionality of the SCART connectors. In practical terms, the number of SCART connectors which can be provided on a television apparatus is limited by cost and space considerations. However, different users wish the input a wide range of different combinations of formats of television signals, depending on the equipment they personally own and use. However, the provision of SCART connectors dedicated to input television signals in one of an RGB format and an S-Video format limits the overall connectivity of the television apparatus. Furthermore, for many users the different RGB format and S-Video format are confusing. Some users may not understand or may mistake the format of a television signal being supplied on a given cable from a given piece of equipment. This can result in the supply of input television signals of an inappropriate format for the SCART connector concerned.

This kind of connector is todays obsoleted !

History of Salora
History starts beginning 1928 in Salo (Finland), where Messrs Nordell and Koskinen built crystal receivers for the new Finish broadcasting station. Rapidly other radios followed, on battery and in 1930 on home electricity. In 1945, after WO II, the company was renamed SALORA oy. This name was a combination of the town SALO and the product RAdio. "Salora" grew and 15,000 radios were produced yearly by 300 people.

In 1957 Salora started the production of black/white TV-sets and in the beginning of the seventies, 2,000 people were employed and they built 1,000 TV-sets per day. At the end of the fifties they started the production of wireless phones for the army and the railways.

In 1966 the export of televisions to Sweden was starting and at the end of the seventies 60% of the production was destined for export. In 1978 a co-operation was founded with NOKIA – under the name MOBIRA – for the production of mobile phones.

In 1981 monitors for IBM were taken into production as well. Thereafter, in 1982, the mobile phone division was sold to NOKIA and in 1984 NOKIA bought the majority of the SALORA shares. In the same year SALORA started to make TV-sets for a famous Japanese brand (HITACHI) for the total European market. In 1992 NOKIA took over SALORA completely.

In February 2006 the brandname SALORA is being secured and from now on Albers Trading B.V. will supply her complete range of products under the name SALORA.FINLUX (WAS) is a brand of consumer electronic related products, ranging from radio receivers to plasma televisions and DVD players; it was also the name of two companies that owned the brand. Over the years, the brand has been owned by several international companies. As of 2009, it is owned by the Turkish electronics manufacturer Vestel. (Back to all  European Nations Wreckers agenda !!!!!)

SALORA History

The name Finlux first appeared in 1964, when Iskumetalli began marketing TV sets with that brand name after being acquired by the Finnish Lohja conglomerate. Iskumetalli was founded in 1949 and had been manufacturing TV sets since 1958. In 1971, it was renamed Finlux; this was the first time that Finlux had been used as a company name.
In 1977, Lohja started manufacturing Electroluminescence (EL) displays after purchasing the development project, headed by Dr. Tuomo Suntola. The EL displays were manufactured using the atomic layer deposition (ALD) process developed in the project, and were marketed using Finlux brand.
In 1979, Lohja acquired another Finnish TV manufacturer, Asa Radio, which had been manufacturing radio receivers since 1927.
In 1991, the EL manufacturing was sold to Planar. A new company, Planar International was formed to continue manufacturing EL displays in Espoo, Finland. Planar later consolidated all of its EL manufacturing in Espoo and closed its Oregon EL facility.
In 1992, Finlux TV manufacturing was sold to Nokia, which already was manufacturing TV sets with brands Salora, Schaub-Lorenz and Oceanic.
In 1996, Nokia sold all its TV factories and brand names to Hong Kong company Semi-Tech, which continued manufacturing TV sets in one factory in Finland until the year 2000, when the Finnish subsidiary of Semi-Tech filed for bankruptcy.
A new company under the old Finlux name, owned by Norwegian company Otrum Electronics, was formed to continue TV manufacturing. However, they had serious troubles with their product line, which was based on CRT TVs. The market had swung to flat panel TVs and Finlux failed to switch in time. With 50 million euros in debt, the company filed for bankruptcy in September 2005.
In 2006, the Turkish electronics company Vestel, owned by the Zorlu Holding corporate group, bought the Finlux brand; it now focuses on flat panel TV sets and other consumer electronic products like DVD players/recorders and DVB sets.

Vestel, is Europe's largest and the world's third (THIRD WORLD) largest television manufacturer with a research and development unit of 500 employees and its plants manufacture 12 million television sets each year.
All production and other related operations in Finland have been discontinued.
As anybody can understand all is gone to be CRAP (Chinese or Turkish Bazar CRAP Fest basically the end of all technology !!!!!!!!!!!!).

R.I.P. FINLAND !