mhurhangee/ep-ind-claims huggingface dataset:
A composition for forming a water repellent film, the composition comprising a compound and a compound, or a partially hydrolyzed co-condensate of: (i) a compound represented by a formula (1 a) and/or a partially hydrolyzed condensate thereof; and (ii) a compound represented by a formula and/or a partially hydrolyzed condensate thereof, wherein the compound is at least one fluorinated organic silicon compound containing no etheric oxygen atom and being selected from the group consisting of a compound represented by the following formula, a partially hydrolyzed condensate thereof, and a compound represented by the following formula, R f1 -Y-Si(R 11) r (X 1) 3-r (where in the formulae and, R f1 is a C 1-7 perfluoroalkyl group having the formula CF 3 (CF 2) l -, wherein I is an integer of from 0 to 6, which contains no etheric oxygen atom between carbon-carbon atoms, Y is a C 1-6 bivalent organic group which contains no fluorine atom, R 11 each independently is a hydrogen atom or a C 1 - 6 hydrocarbon group which contains no fluorine atom, X 1 each independently is a halogen atom, an alkoxy group or an isocyanate group, r is an integer of from 0 to 2, R 1 is a hydrogen atom or a C 1-3 hydrocarbon group which contains no fluorine atom, and b is an integer of from 1 to 100), and wherein the compound is at least one fluorinated organic silicon compound containing an etheric oxygen atom and being selected from the group consisting of a compound represented by the following formula, a partially hydrolyzed condensate thereof, and a compound represented by the following formula, R f2 -W-Z-Si(R 12) p (X 2) 3-p (where in the formulae and, R f2 is a C 1-7 perfluoroalkyl group having the formula CF 3 (CF 2) l -, wherein I is an integer of from 0 to 6, which may have an etheric oxygen atom inserted between carbon-carbon atoms, W is -O-(CF 2 CF 2 O) a -CF 2 -(wherein a is an integer of from 1 to 200), Z is a bivalent organic group selected from -CONHC 3 H 6 - and -CH 2 OCO-NHC 3 H 6 -, R 12 each independently is a hydrogen atom or a C 1-6 hydrocarbon group which contains no fluorine atom, X 2 each independently is a halogen atom, an alkoxy group or an isocyanate group, p is an integer of from 0 to 2, R 2 is a hydrogen atom or a C 1-3 hydrocarbon group which contains no fluorine atom, and c is an integer of from 1 to 100). a compound and a compound, or a partially hydrolyzed co-condensate of: (i) a compound represented by a formula (1 a) and/or a partially hydrolyzed condensate thereof; and (ii) a compound represented by a formula and/or a partially hydrolyzed condensate thereof, wherein (i) a compound represented by a formula (1 a) and/or a partially hydrolyzed condensate thereof; and (ii) a compound represented by a formula and/or a partially hydrolyzed condensate thereof, wherein
A culture apparatus for cultivating cultures such as cells, microbes or the like in a cultivating chamber, comprising a hydrogen peroxide gas generator that is disposed in the cultivating chamber to supply hydrogen peroxide gas into the cultivating chamber, an ultraviolet generator that irradiates gas in the cultivating chamber with an ultraviolet ray and a controller that is adapted to perform a sterilization process for filling the cultivating chamber with the hydrogen peroxide gas for a predetermined period of time and a decomposition process for decomposing the hydrogen peroxide gas to lower its concentration to a level harmless to the human body by irradiating the gas in the cultivating chamber with the ultraviolet ray by means of the ultraviolet generator.
A transitional layer for electronic modules, and the transitional layer comprising: a substrate having multiple containing holes disposed therethrough at spaced intervals; multiple electronic modules respectively mounted to the substrate, each one of the multiple electronic modules located in a respective one of the multiple containing holes and having at least one input element (21, 22, 23); and characterized in that: the transitional layer comprises: two release papers (30, 40) respectively mounted to the substrate and the multiple electronic modules via an adhesive coat (103, 104) on two different sides of the substrate, and at least one of the two release papers having multiple operation holes disposed therethrough and aligned with the input elements (21, 22, 23) of the multiple electronic modules. a substrate having multiple containing holes disposed therethrough at spaced intervals; multiple electronic modules respectively mounted to the substrate, each one of the multiple electronic modules located in a respective one of the multiple containing holes and having at least one input element (21, 22, 23); and characterized in that: the transitional layer comprises: two release papers (30, 40) respectively mounted to the substrate and the multiple electronic modules via an adhesive coat (103, 104) on two different sides of the substrate, and at least one of the two release papers having multiple operation holes disposed therethrough and aligned with the input elements (21, 22, 23) of the multiple electronic modules.
A heat resistant flexible hose comprising: a plurality of heat resistant layers formed of silicone rubber as a main component; a reinforcing layer provided by winding a reinforcing wire (21a, 21b, 22a) between the plurality of heat resistant layers; and a barrier layer which is radially opposed to an inner layer part of the plurality of heat resistant layers made of heat resistant silicone rubber and is provided in contact with a fluid passing through an inner hose, wherein the barrier layer uses a self-adhesive ethylene-tetrafluoroethylene copolymer having a melting point of 240°C or less and imparting an adhesive functional group, and forms a laminate with the inner layer part by extruding molding or coating molding, a first reinforcing layer is in contact with the inner layer part which serves as the reinforcing layer, and is wound by reinforcing thread made of synthetic resin as the reinforcing wire (21a, 21b), and the inner layer part uses a self-adhesive silicone rubber in which an adhesive component is contained in a silicone rubber component and forms a laminate along the opposite surface of the barrier layer by extruding molding or coating molding, and has inner peripheral surface adheres thereto by crosslinking adhesion as the opposite surface of the barrier layer by heating at a temperature higher than the melting point of the self-adhesive ethylene tetrafluoride copolymer. a plurality of heat resistant layers formed of silicone rubber as a main component; a reinforcing layer provided by winding a reinforcing wire (21a, 21b, 22a) between the plurality of heat resistant layers; and a barrier layer which is radially opposed to an inner layer part of the plurality of heat resistant layers made of heat resistant silicone rubber and is provided in contact with a fluid passing through an inner hose, wherein the barrier layer uses a self-adhesive ethylene-tetrafluoroethylene copolymer having a melting point of 240°C or less and imparting an adhesive functional group, and forms a laminate with the inner layer part by extruding molding or coating molding, a first reinforcing layer is in contact with the inner layer part which serves as the reinforcing layer, and is wound by reinforcing thread made of synthetic resin as the reinforcing wire (21a, 21b), and the inner layer part uses a self-adhesive silicone rubber in which an adhesive component is contained in a silicone rubber component and forms a laminate along the opposite surface of the barrier layer by extruding molding or coating molding, and has inner peripheral surface adheres thereto by crosslinking adhesion as the opposite surface of the barrier layer by heating at a temperature higher than the melting point of the self-adhesive ethylene tetrafluoride copolymer.
A door structure for installation in a vehicle, preferably a bus, having at least one door leaf (3.1, 3.2), which can be selectively brought into an open position and a closed position, and a ramp, which can be selectively brought into a functional position and at least one stand-by position, wherein the ramp, in the functional position, serves to make it easier for persons with impaired mobility to board and disembark, wherein the ramp, in the stand-by position, is integrated into the at least one door leaf (3.1, 3.2) and/or the ramp, in the stand-by position, is oriented substantially vertically, wherein the ramp can be moved, together with the at least one door leaf (3.1, 3.2), into the open position and/or the closed position, wherein the ramp has a first partial ramp (4.1) and a second partial ramp (4.2), and preferably the first partial ramp (4.1) and the second partial ramp (4.2) are arranged adjacent to one another in the width direction of the door structure, wherein the door structure comprises two door leaves (3.1, 3.2), and the first partial ramp (4.1) can be moved, together with one door leaf (3.1), into the open position and/or the closed position, and the second partial ramp (4.2) can be moved, together with the other door leaf (3.2), into the open position and/or the closed position, and wherein the door structure comprises a guide device, along which a first sub-portion of the ramp can be pushed on and off, preferably, at least in certain portions, substantially vertically, in order to bring the ramp into the functional position and into the stand-by position comprising the closed position. wherein the door structure comprises two door leaves (3.1, 3.2), and the first partial ramp (4.1) can be moved, together with one door leaf (3.1), into the open position and/or the closed position, and the second partial ramp (4.2) can be moved, together with the other door leaf (3.2), into the open position and/or the closed position, and wherein the door structure comprises a guide device, along which a first sub-portion of the ramp can be pushed on and off, preferably, at least in certain portions, substantially vertically, in order to bring the ramp into the functional position and into the stand-by position comprising the closed position.
A loudspeaker diaphragm for use in producing sound from an electrical signal comprising a shaped metal matrix sheet; wherein the metal matrix sheet comprises ceramic particles distributed in a metal matrix, the ceramic particles having an average particle size from 0.1 micrometers to 20 micrometers; and wherein the metal matrix sheet has a substantially uniform thickness of 4 micrometers to 1,000 micrometers; and wherein the shaped metal matrix sheet has an elastic modulus to weight ratio greater than 35 GPa/g/cc; and wherein the metal matrix is formed from aluminum or an aluminum alloy; and wherein the ceramic particles are selected from the group consisting of silicon carbide, titanium carbide, boron carbide, silicon nitride, titanium nitride, and zirconium oxide; and wherein the metal matrix sheet comprises from about 1 vol% to about 55 vol% of the ceramic particles.
A method for preparing an acrylic acid, the method comprising: supplying a lactic acid aqueous solution to a reactor and performing a dehydration reaction to prepare a reaction product including an acrylic acid; supplying a reactor discharge stream including the reaction product to a first cooling tower and supplying an upper discharge stream from the first cooling tower to a second cooling tower; supplying a first acrylic acid aqueous solution stream discharged from a lower portion of the second cooling tower to an extraction column; supplying an upper discharge stream from the extraction column and a second acrylic acid aqueous solution stream discharged from a lower portion of the first cooling tower to a distillation column; and separating the acrylic acid from a lower discharge stream from the distillation column. supplying a lactic acid aqueous solution to a reactor and performing a dehydration reaction to prepare a reaction product including an acrylic acid; supplying a reactor discharge stream including the reaction product to a first cooling tower and supplying an upper discharge stream from the first cooling tower to a second cooling tower; supplying a first acrylic acid aqueous solution stream discharged from a lower portion of the second cooling tower to an extraction column; supplying an upper discharge stream from the extraction column and a second acrylic acid aqueous solution stream discharged from a lower portion of the first cooling tower to a distillation column; and separating the acrylic acid from a lower discharge stream from the distillation column.
A system comprising: first hardware, the first hardware controlling a fluid delivery pump that controls a flow of fluid outputted from the fluid delivery pump to a recipient; second hardware partitioned from and operating independently of the first hardware, third hardware, the third hardware receiving input indicating control settings in which to control the fluid outputted from the fluid delivery pump to the recipient, the third hardware communicating the control settings to both the first hardware and the second hardware, the first hardware produces first control output to control a state of a respective valve between open and closed positions to control the flow of fluid from the fluid delivery pump to the recipient, wherein the second hardware receives input from the first hardware indicating an estimated volume of the fluid outputted from the fluid delivery pump to the recipient, the second hardware produces second control output to control the respective valve in the fluid delivery pump to prevent further flow of the fluid to the recipient in response to detecting that the estimated volume of the fluid deviates with respect to the control settings as indicated by the third hardware, characterized in that - the second control output overrides control of the valve with respect to first control output. first hardware, the first hardware controlling a fluid delivery pump that controls a flow of fluid outputted from the fluid delivery pump to a recipient; second hardware partitioned from and operating independently of the first hardware, third hardware, the third hardware receiving input indicating control settings in which to control the fluid outputted from the fluid delivery pump to the recipient, the third hardware communicating the control settings to both the first hardware and the second hardware, the first hardware produces first control output to control a state of a respective valve between open and closed positions to control the flow of fluid from the fluid delivery pump to the recipient, wherein the second hardware receives input from the first hardware indicating an estimated volume of the fluid outputted from the fluid delivery pump to the recipient, the second hardware produces second control output to control the respective valve in the fluid delivery pump to prevent further flow of the fluid to the recipient in response to detecting that the estimated volume of the fluid deviates with respect to the control settings as indicated by the third hardware, characterized in that - the second control output overrides control of the valve with respect to first control output. - the second control output overrides control of the valve with respect to first control output.
Feed for animals comprising germinated and dried grains having alpha-amylase activity of at least 60 DU/g d.w., specifically 70 to 200 DU/g d.w., more specifically 80 to 150 DU/g d.w. for use in improving intestinal health of poultry during and/or after Eimeria infection.
An ignitor arrangement for a high-intensity discharge lamp, which ignitor arrangement comprises - a first pair of input terminals (101, 102), consisting of an ignition terminal and a further terminal, for applying an ignition voltage to the ignitor arrangement; - a second pair of input terminals (101, 103), not comprising the ignition terminal, for applying an input drive voltage to the ignitor arrangement; - an output terminal pair for connecting to the high-intensity discharge lamp; - an ignition capacitor; and - a discharge resistor for providing, after ignition of the high-intensity discharge lamp, a discharge path for the ignition capacitor; - the ignition capacitor and the discharge resistor connected parallel to each other across the first input terminal pair (101, 102), - the discharge resistor arranged in the interior of a housing of the ignitor arrangement, characterized in that - the discharge resistor is realised as a temperature-dependent resistor, and in that - a resistance of the temperature-dependent discharge resistor relates to a temperature (T 100) in the interior of the housing of the ignitor arrangement - whereby the ignitor arrangement allows determination of the temperature (T 100) in the interior of the housing of the ignitor arrangement by the resistance of the temperature-dependent discharge resistor being measurable via the first pair of input terminals (101, 102). - a first pair of input terminals (101, 102), consisting of an ignition terminal and a further terminal, for applying an ignition voltage to the ignitor arrangement; - a second pair of input terminals (101, 103), not comprising the ignition terminal, for applying an input drive voltage to the ignitor arrangement; - an output terminal pair for connecting to the high-intensity discharge lamp; - an ignition capacitor; and - a discharge resistor for providing, after ignition of the high-intensity discharge lamp, a discharge path for the ignition capacitor; - the ignition capacitor and the discharge resistor connected parallel to each other across the first input terminal pair (101, 102), - the discharge resistor arranged in the interior of a housing of the ignitor arrangement, - the discharge resistor is realised as a temperature-dependent resistor, and in that - a resistance of the temperature-dependent discharge resistor relates to a temperature (T 100) in the interior of the housing of the ignitor arrangement - whereby the ignitor arrangement allows determination of the temperature (T 100) in the interior of the housing of the ignitor arrangement by the resistance of the temperature-dependent discharge resistor being measurable via the first pair of input terminals (101, 102).
A computer-implemented method for operating a vehicle, wherein - a vehicle transmits vehicle data (54, 55) to an edge data center being connected to a radio access network via a wireless connection (20, 21) being established by a communication unit of the vehicle; - the edge data center updates a digital traffic model of a traffic situation involving the vehicle with the transmitted vehicle data (54, 55), calculates a trajectory (53, 53') of the vehicle based on the updated digital traffic model and transmits trajectory data of the calculated trajectory (53, 53') to the vehicle via the wireless connection (20, 21); and - the vehicle is operated according to the transmitted trajectory data, characterized in that - calculating the trajectory (53, 53') comprises taking into account respective transmission delays of the transmitted vehicle data (54, 55) and the transmitted trajectory data by updating the received vehicle data (54, 55) being outdated due to the transmission delay of the transmitted vehicle data (54, 55) to the actual time and by updating the transmitted trajectory data to the future reception time of the vehicle. - a vehicle transmits vehicle data (54, 55) to an edge data center being connected to a radio access network via a wireless connection (20, 21) being established by a communication unit of the vehicle; - the edge data center updates a digital traffic model of a traffic situation involving the vehicle with the transmitted vehicle data (54, 55), calculates a trajectory (53, 53') of the vehicle based on the updated digital traffic model and transmits trajectory data of the calculated trajectory (53, 53') to the vehicle via the wireless connection (20, 21); and - the vehicle is operated according to the transmitted trajectory data, characterized in that - calculating the trajectory (53, 53') comprises taking into account respective transmission delays of the transmitted vehicle data (54, 55) and the transmitted trajectory data by updating the received vehicle data (54, 55) being outdated due to the transmission delay of the transmitted vehicle data (54, 55) to the actual time and by updating the transmitted trajectory data to the future reception time of the vehicle.
A device for producing a decorative paper, wherein the device comprises at least one digital printing facility for printing a primer, which seals the paper from one side, and at least one printing ink, and an electric control unit, especially an electronic data processing device, wherein the electric control unit is configured to carry out a method featuring the following steps: a. providing at least one base paper, b. printing a primer onto a surface of the base paper so that a printed base paper is obtained, c. printing at least one printing ink onto the surface of the printed base paper by means of the digital printing facility, characterized in that neither the primer nor the printing ink is printed onto the surface of the base paper at at least one point. a. providing at least one base paper, b. printing a primer onto a surface of the base paper so that a printed base paper is obtained, c. printing at least one printing ink onto the surface of the printed base paper by means of the digital printing facility,
Cooking appliance comprising at least one housing means, at least one cooking chamber, and at least one steam generation means that comprises at least one removable container means, the steam generation means being suitable and designed to supply the cooking chamber with steam and the steam generation means comprising at least one removal means and the steam generation means being associated with the at least one removable container means which comprises at least one container portion and at least one holding portion, at least one engagement being formed at least in portions between the container portion and the holding portion and the holding portion comprising at least one handle, the container means comprising a covering means and being insertable into a corresponding receiving means next to the cooking chamber, characterised in that the container portion and the holding portion together have a longitudinal extent which is a multiple of the width of the holding portion and in that at least the holding portion has a height which is a multiple of the width of the handle and in that the width of the handle is between 30 mm and 50 mm and the depth of the handle makes up 60% to 75% of the width of the handle at least in portions, and the removal means comprises at least one pivotable tube means which is immersed at least in portions in the container portion when the container means is inserted into the receiving means, the tube means being associated with at least one spring means by means of which the tube means is automatically pivoted away again when the container means is removed from the receiving means, the tube means being mounted substantially horizontally in the upper region of the receiving means when the container means is removed, the tube means being automatically immersed in the container means and displaced into an approximately vertical position when the container means is inserted into the receiving means, the tube means being guided through the covering means of the container means or through an opening in the covering means of the container means, the opening in the covering means being elongate.