||WO||WO/2014/062074 - INFLATABLE JUMPING PIT||24.04.2014||
||PCT/PL2012/000106||AIR JUMP SYSTEM SP. Z O.O.||GREGORSKA Edyta|
The present invention relates to an inflatable jumping pit (1) comprising at least one inflatable structure (2) having a set of substantially vertical poles (22) substantially parallel to each other. According to the present invention the inflatable structure (2) further comprises a set of substantially horizontal pipes (21), wherein at least two adjacent pipes (21) are separated by and connected to at least one pole (22), and at least one element of the inflatable structure (2) is provided with at least one valve (23, 25) for inflating and/or deflating the structure (2). The jumping pit (1) according to the present invention is modular, features a simple and economical construction, is easy to fold for storage and transport occupying as less space as possible yet at the same time easy to unfold and provides high efficiency in absorbing energy of an object falling from heights. Preferably diameter (d) of the pipes (21) is smaller than the heights (H) of the poles (22). Preferably the bottom surfaces of the pipes (21) and the poles (22) are coplanar and the inflatable structure (2) is covered with a shield (3) at the top. Alternatively the top surfaces of the pipes (21) and the poles (22) are coplanar, so that a shield may not be necessary.
||WO||WO/2014/058329 - COMPOSITIONS BASED ON HYPOPHYSEAL HORMONES FOR ADDING TO INFUSION FLUIDS||17.04.2014||
||PCT/PL2013/000118||RYSZKA, Florian||RYSZKA, Florian|
The invention relates to a composition added to infusion fluids, in particular transplantation fluids, blood plasma, the fluids used in infusions or dialysis of the kidneys used for transplantation, blood and blood-based preparations, and fluids used in peritoneal dialysis. The composition contains the following hormones: prolactin in a quantity of 1.0 ng/1 ÷ 10.0 μg/l or somatotropin in a quantity of 10.0 ng/1 ÷ 10.0 μg/l or chorionic gonadotropin in a quantity of 1.0 ng/1 ÷ 1.0 μg/i or lutropin in a quantity of 10.0 ng/1 - 100.0 μg/l or foliculotropin in a quantity of 0.01 ng/1 ÷ 1.0 μg/l or buserelin in a quantity of 0.001 μg/l ÷ 1.0 μg/l. A variant is the composition which, according to the invention, contains metal compounds such as selenium, manganese, or zinc in a quantity of 0.01 μg/l ÷ 10.0 μg/l. The hormone and the metal compounds such as selenium, manganese, or zinc are dissolved in a quantity of a 1÷5% solution of ascorbic acid under sterile conditions with a maximum pH value of 3.5 or in a quantity of a 1÷5% solution of L-cysteine under sterile conditions with a maximum pH value of 3.5. The hormone, which is dissolved in the ascorbic acid or the cysteine solution, and the metal compounds, which are prepared in vials under sterile conditions, are added to the known fluids prior to the use of said fluids.
||WO||WO/2014/058330 - PROCESS FOR PREPARATION OF MK-7 TYPE OF VITAMIN K2||17.04.2014||
||PCT/PL2013/000132||INSTYTUT FARMACEUTYCZNY||KRAJEWSKI, Krzysztof|
Process for preparation of MK-7 type of vitamin K2 is characterized by attaching hexaprenyl chain of „all-trans" configuration to monoprenyl derivative of menadiol following „1 + 6" synthetic strategy. According to the invention, a-sulfonyl carbanion generated in situ from the protected monoprenyl menadiol of the formula (II), wherein R1 represents C1-3-alkyl group, is reacted with hexaprenyl halide of the formula (VII), wherein X represents halogen atom, preferably bromine, both Z' and Z' represent H or one of Z' and Z" represents H and the other represents phenylsulfonyl group -SO2Ph in the alkylation reaction. The hexaprenyl halide of formula (VII) is obtained by coupling two triprenyl units in alkylation reaction, with or without separation of the intermediates.
||WO||WO/2014/054955 - A METHOD FOR PREPARING MICROPOROUS MOF MATERIALS||10.04.2014||
||PCT/PL2013/000129||POLITECHNIKA WARSZAWSKA||LEWIŃSKI, Janusz, Zbigniew|
This invention relates to a method for the preparation of microporous MOF materials based on [Zn40]6+ is characterized in that in the presence of an organic linker or the mixture of various linkers a mechanic force is applied to molecular oxozinc precursors of the formula L6Zn4O, where ligand L stands for monoanion derived from carboxylic acid, primary or secondary amide of a carboxylic acid, imide, carbamate, diester of phosphoric acid (V), and as organic linker is used an organic ligand containing two or three carboxylic groups and possibly substituted with a functional group from the list: -F, -C1, -Br, -I, -OH, -CN, -N02, -NH2, -SH, -CF3, ether group, linear or branched alkyl C1-C10 group.
||WO||WO/2014/054956 - NEW PROBES FOR THE DETECTION OF ACINETOBACTER BAUMANNII, OLIGONUCLEOTIDE PRIMERS, AND THE METHOD AND KIT FOR THE ANALYSIS OF MEDICAL AND ENVIRONMENTAL SAMPLES||10.04.2014||
||PCT/PL2013/000130||GDAŃSKI UNIWERSYTET MEDYCZNY||OBUCHOWSKI Michał|
New probes for the detection of Acinetobacter baumannii whose sequences are depicted in Figs. 1 and 2. Oligonucleotide primers whose sequences are depicted in Figs. 3 and 4. Method for the analysis of the genetic material contained in the samples, whereby a DNA fragment is amplified in a real-time PCR reaction using primers, wherein the real-time PCR reaction amplifies conserved sequences of the bacterial chromosome using primers whose sequences are depicted in Figs. 3 and 4, whereafter the product is detected using probes whose sequences are depicted in Figs. 1 and 2. Kit for the analysis of genetic material contained in samples, said kit containing the primers whose sequences are depicted in Figs. 3 and 4 and the labelled probes whose sequences are depicted in Figs. 1 and 2, and a molecular pattern consisting in chromosomal DNA of the ATCC 17978 strain of Acinetobacter baumannii.
||WO||WO/2014/054957 - SYSTEM OF MULTILAYERED THERMALLY-INSULATING GLAZING UNITS||10.04.2014||
||PCT/PL2013/050006||VIS INVENTIS SPOLKA Z O. O.||KOSTKA, Antoni|
System of multilayered thermally-insulating glazing units in the form of a multiple glass unit, consisting of two external transparent glass panes and a gas medium that is transparent in visible light between the panes, while transparent internal partitions are placed in the internal space between the above- mentioned panes characterised in that the partitions (3) take the form of a film made of inorganic glass, the film is less than 400 μm thick and it is characterised by a deflection radius that is smaller than 40 cm, while its optical properties are characterised by a total reflectivity coefficient of both partition (3) surfaces that is lower than 7 percent, the visible light absorption below 7 percent and the transmittance haze coefficient below 1.5 percent. The partitions (3) are made of an ultrathin film, with its thickness within the range from 20 to 300 μm, made of silica glass or boron-lithium glass.
||WO||WO/2014/051445 - PYRROLE-3,4-DICARBOXAMIDES||03.04.2014||
||PCT/PL2013/000119||UNIWERSYTET JAGIELLOŃSKI||PACIOREK, Patrycja|
The invention relates to the pyrrole derivatives with the general formula in which R1 is alkyl group C1 - C10, straight or branched, R2 is -H, -C1, -OH, -NH2 or -OCH3. The invention includes also the method of the synthesis of pyrrole derivatives in the reaction of ketoanilide with hydrazide, with the use of vanadium compound as a reaction promoter.
||WO||WO/2014/051444 - METHOD OF MEASUREMENT OF AROMATIC VARNISH APPLICATION||03.04.2014||
||PCT/PL2013/000117||RR DONNELLEY EUROPE - Sp. z o.o.||SAJDAK, Marek|
The present invention refers to a method of measurement of application of aromatic varnish, in particular clear varnishes used for offset and rotogravure printing. The method consists in adding to the aromatic varnish as a marker, organic and/or non-organic pigments that can be seen in visible or UV light in the amount ranging from 40,000 to 500,000 per 1 rom3. The size of grains of added pigments ranges from 0.1 μm to 50 pm. The mixture of the aromatic varnish and the marker undergoes dispergation, and then from the obtained varnish with the marker distributed evenly in the entire volume of the varnish, clean proofs are made where the aromatic varnish coat corresponds to the coat assumed in the printing process. Using a microscope with the magnification ranging from l00x to 500x, with an installed counter of marker grains visible in the reflected or UV light, the number of pigment grains is measured in the clean proofs and then the proper printing process takes place, during which samples printed with the varnish during the said process are collected and observed under a microscope in the reflected light, with magnification ranging from approx. l00x to 500x, and then the number of visible pigment particles in the collected sample is compared with the number of visible pigments in the clean proof.
||WO||WO/2014/051446 - BUILDING COMPONENT||03.04.2014||
||PCT/PL2013/000121||FURMANEK, Marek||FURMANEK, Marek|
The presented invention facilitates creation of floors and other utilitarian spaces incorporating supplementary, illuminated decorations. It may be utilized in house and public facilities building-oriented branches of construction industry, and in the furniture joinery industry. It can also be incorporated into already finished spaces. The building component is characteristic due to the fact that it is based on utilization of the bottom layer (7), the satisfactory thickness of which shall oscillate around 2÷18 mm, intermediate light forwarding layer (3), the thickness of which shall range from 3 to 18 mm (the additional elements of the design, such as indents, and/or engraves, and/or channels, in which light elements (4) are situated, and/or light mat (8), and top layer (1), the thickness of which shall oscillate around 1÷18 mm, and in which the elements of the design, such as decorative indents, shall be also incorporated (2). The aforementioned elements shall be filled with a special material, such as resin, and/or glass, and/or adhesive substances, and/or transparent substances. The utilized light sources (4) are LED diodes and/or LED diode sets, and/or optical fibers, and/or halogen lamps, and/or cold cathodes, and/or light mat. The aforementioned light sources (4) are located in a circular manner, and/or separate fashion, and/or between the bottom layer (7) and the top layer (1). The building component may incorporate a heating mat (6) situated below the light mat, as well as an additional layer (9), preferably of the thickness of 1÷12 mm and supplementary elements of the design (10), preferably of the thickness of 1÷12 mm.
||WO||WO/2014/051447 - METHOD FOR MANUFACTURING BIODEGRADABLE MOULDINGS IN PARTICULAR TABLEWARE AND PACKAGES||03.04.2014||
||PCT/PL2013/000123||ASTON INVESTMENT SPÓŁKA Z OGRANICZONĄ ODPOWIEDZIALNOŚCIĄ||WYSOCKI, Jerzy|
Method for manufacturing biodegradable mouldings in particular tableware and packages with application of the method of evoking the water vapour pressure inside the form involves that loose bran, in particular the wheat one of granulation from 0.01 up to 2.80 mm in the amount of 95-100% of weight containing 14% of water structurally bound in the form of moisture, if the need be, is mixed in the dry form with additional substances in the volume of up to 5% of weight in total and the measured amount of dry material obtained in that way is placed in one of the parts of multipart form then the form is closed and the mixture is subject to the simultaneous operation of temperature and pressure of the scope 1-10 MPa. The form is heated up to temperature above 120°C then the form is closed and then depressurised forming the crack between the edges of the form not wider than 0.5 mm and then the form if the need be is closed again and the depressurisation cycles are repeated. After the last cycle the form is opened and the number of depressurisations is minimum 1 and the entire process of depressurization and closing the form takes few seconds and is completed according to the programme of the machinery digitally controlling the form movement depending on the expected parameters of the final product.