mhurhangee/ep-ind-claims huggingface dataset:
Composition comprising microstructures dispersed in an aqueous phase A), wherein said microstructures comprise: an internal phase consisting of an oil-in-water microemulsion (o/w) comprising an oily phase B) dispersed in a continuous aqueous phase, said oily phase B) comprising an ozonized oil; a coating of said internal phase comprising a cationic surfactant containing at least one quaternary ammonium group, a polysaccharide and a polysaccharide modified with quaternized ammonium groups. an internal phase consisting of an oil-in-water microemulsion (o/w) comprising an oily phase B) dispersed in a continuous aqueous phase, said oily phase B) comprising an ozonized oil; a coating of said internal phase comprising a cationic surfactant containing at least one quaternary ammonium group, a polysaccharide and a polysaccharide modified with quaternized ammonium groups.
A lighting device (2a, 2b, 2c) comprising: - a light emitter arranged to emit light with a periodic modulation which embeds information into the light; and - a light driver arranged to drive the light emitter by providing an indicator to the light emitter, the indicator relating to the modulation of the light to be emitted by the light emitter and the light emitter being arranged to emit the light modulated according to said indicator; wherein the light driver is arranged to drive the light emitter to emit the light, with said information being embedded, at a plurality of different modulation periods according to said indicator. - a light emitter arranged to emit light with a periodic modulation which embeds information into the light; and - a light driver arranged to drive the light emitter by providing an indicator to the light emitter, the indicator relating to the modulation of the light to be emitted by the light emitter and the light emitter being arranged to emit the light modulated according to said indicator;
Chromatography column comprising: - a distributor cell (11, 11') with a through hole; - a valve block on one side of the distributor cell, with a through hole; - a bed support and/or net (131. 131', 129, 129') on the other side of the distributor cell; - a means (135, 135') for retaining said bed support and/or net; and - a retaining means (159, 159') held in place by the valve block but being free to rotate with respect to said valve block; wherein said means (135, 135') for retaining the bed support and/or net comprises: - a sleeve with an inner end integrally joined to the bed support and/or net; - a tubular portion passing through said through hole in the distributor cell, and - an outer end screwed into said retaining means (159, 159'). - a distributor cell (11, 11') with a through hole; - a valve block on one side of the distributor cell, with a through hole; - a bed support and/or net (131. 131', 129, 129') on the other side of the distributor cell; - a means (135, 135') for retaining said bed support and/or net; and - a retaining means (159, 159') held in place by the valve block but being free to rotate with respect to said valve block; - a sleeve with an inner end integrally joined to the bed support and/or net; - a tubular portion passing through said through hole in the distributor cell, and - an outer end screwed into said retaining means (159, 159').
A method of authenticating a first electronic circuit by a second electronic circuit having an identical topography as the first circuit, wherein: the second circuit sends a request to calculate a signature (R') to the first circuit, this request including the code to be executed for the calculation of the signature (R'); each circuit calculates a signature (R, R') by combining the respective states of any electric nodes distributed in the corresponding circuit, the signature (R, R') being calculated in parallel with the execution of a code influencing the states of all or part of the nodes; the first circuit sends the signature (R') that it has calculated to the second circuit; and the second circuit compare both signatures (R, R'). the second circuit sends a request to calculate a signature (R') to the first circuit, this request including the code to be executed for the calculation of the signature (R'); each circuit calculates a signature (R, R') by combining the respective states of any electric nodes distributed in the corresponding circuit, the signature (R, R') being calculated in parallel with the execution of a code influencing the states of all or part of the nodes; the first circuit sends the signature (R') that it has calculated to the second circuit; and the second circuit compare both signatures (R, R').
A method for removing SOx from a gas by using a modified polyethylene glycol solution to absorb the SOx in the gas, characterized in that the modified polyethylene glycol solution is contacted with the gas containing SOx to absorb the SOx in the gas, wherein x = 2 and/or 3, the modified polyethylene glycol is a product derived from etherifying hydroxyl groups in the molecules of ethylene glycol and/or polyethylene glycol and has a general formula: R1-(O-C2H4)n-O-R2, where n is a positive integer, R1 and R2 are the same or different and are each independently alkyl, alkenyl, alkynyl, acyl or aryl; wherein, the modified polyethylene glycol solution contains a certain amount of additives being sulfones, sodium alkoxides, potassium alkoxides, metal carboxylates, and/or metallorganic compounds; the additives are present in the modified polyethylene glycol solution in a mass percent content of less than 20%.
A cell culture bag comprising: an external film; at least one sensor chip (120, 340) including a layer reacting to an object to be detected, wherein the object to be detected is oxygen, ammonia or carbon dioxide; and a permeable film permeable for the object to be detected; the cell culture bag being characterized in that: the sensor chip (120, 340) is arranged on a culture fluid side of the external film, and the permeable film covers a culture fluid side of the sensor chip (120, 340). an external film; at least one sensor chip (120, 340) including a layer reacting to an object to be detected, wherein the object to be detected is oxygen, ammonia or carbon dioxide; and a permeable film permeable for the object to be detected; the cell culture bag being characterized in that: the sensor chip (120, 340) is arranged on a culture fluid side of the external film, and the permeable film covers a culture fluid side of the sensor chip (120, 340). the sensor chip (120, 340) is arranged on a culture fluid side of the external film, and the permeable film covers a culture fluid side of the sensor chip (120, 340).
A modular floor element comprising a floor block in a clay material, comprising a first box-shaped body (2, 2') in which at least one seat (23, 23', 23", 23''') is defined on at least one side of the box-shaped body; said seat being partially open and adapted to accept a joist and envelope a lower part of said joist; said floor block also comprising a second box-shaped body, said first and second box-shaped bodies comprising a common protruding part at the bottom, wherein said first and second box-shaped bodies and said bottom protruding part define an additional joist seat (23") in an intermediate zone of the floor block; said seats (23, 23,' 23") being configured to accommodate each a respective prefabricated joist (25, 25' 25") and characterized in that the modular floor element further comprises joists inserted in each of said seats.
Tool (1, 15) for machining a sliding sleeve, - having a tool element which can move in a working direction for acting upon an internal toothing system of the sliding sleeve, - having a drive element (19, 19a, 19b), which can be driven transversely to the working direction of the tool element in a drive direction and interacts with the tool element for transmitting force, and - having a transfer element (2, 2a, 2b) for transmitting force between the drive element (19, 19a, 19b) and the tool element positioned between the tool element and the drive element (19, 19a, 19b), wherein - the tool element is in the form of a forming element which moves in the working direction and has a contact surface and a forming relief arranged thereon for forming a surface relief (12, 13, 14) on the provided internal toothing system of the sliding sleeve, and - the forming relief is designed in such a manner that the formed surface relief on the radially oriented surface of a tooth of the internal toothing system -- has a recess forming a latching groove, or -- has a stop tooth having different tooth portions which extend to different extents in the radial direction. - having a tool element which can move in a working direction for acting upon an internal toothing system of the sliding sleeve, - having a drive element (19, 19a, 19b), which can be driven transversely to the working direction of the tool element in a drive direction and interacts with the tool element for transmitting force, and - having a transfer element (2, 2a, 2b) for transmitting force between the drive element (19, 19a, 19b) and the tool element positioned between the tool element and the drive element (19, 19a, 19b), - the tool element is in the form of a forming element which moves in the working direction and has a contact surface and a forming relief arranged thereon for forming a surface relief (12, 13, 14) on the provided internal toothing system of the sliding sleeve, and - the forming relief is designed in such a manner that the formed surface relief on the radially oriented surface of a tooth of the internal toothing system -- has a recess forming a latching groove, or -- has a stop tooth having different tooth portions which extend to different extents in the radial direction. -- has a recess forming a latching groove, or -- has a stop tooth having different tooth portions which extend to different extents in the radial direction.
A process of hydrogenating a nitrile rubber comprising a) contacting a complex catalyst based on ruthenium or osmium and bearing at least one ligand which is bound to ruthenium or osmium in a carbene-like fashion with hydrogen in the absence of a nitrile rubber at a temperature in the range of from 75°C to 200°C to form a catalyst composition and thereafter b) hydrogenating the nitrile rubber in the presence of the catalyst composition formed in step a). a) contacting a complex catalyst based on ruthenium or osmium and bearing at least one ligand which is bound to ruthenium or osmium in a carbene-like fashion with hydrogen in the absence of a nitrile rubber at a temperature in the range of from 75°C to 200°C to form a catalyst composition and thereafter b) hydrogenating the nitrile rubber in the presence of the catalyst composition formed in step a).
A method of making a semiconductor structure, comprising the steps of: providing a silicon carbide wafer; depositing a silicon layer on a surface of said silicon carbide wafer; providing a silicon on insulator structure having a first layer of silicon, an intermediate layer of an oxide of silicon and a third layer of silicon; bonding said third layer of silicon to said deposited layer of silicon which is on said surface of said silicon carbide wafer, the bonding comprising: polishing said third layer of silicon and polishing said deposited layer of silicon which is on said surface of said silicon carbide wafer to a surface roughness of less than around 10 nm; and bringing said polished surfaces together and applying pressure; removing said first layer of silicon, from said silicon on insulator structure; removing said intermediate layer of an oxide of silicon, from said silicon on insulator structure to expose said third layer of silicon; and fabricating at least one semiconductor device (26, 38, 50, 60) on said exposed third layer of silicon. providing a silicon carbide wafer; depositing a silicon layer on a surface of said silicon carbide wafer; providing a silicon on insulator structure having a first layer of silicon, an intermediate layer of an oxide of silicon and a third layer of silicon; bonding said third layer of silicon to said deposited layer of silicon which is on said surface of said silicon carbide wafer, the bonding comprising: polishing said third layer of silicon and polishing said deposited layer of silicon which is on said surface of said silicon carbide wafer to a surface roughness of less than around 10 nm; and bringing said polished surfaces together and applying pressure; removing said first layer of silicon, from said silicon on insulator structure; removing said intermediate layer of an oxide of silicon, from said silicon on insulator structure to expose said third layer of silicon; and fabricating at least one semiconductor device (26, 38, 50, 60) on said exposed third layer of silicon. polishing said third layer of silicon and polishing said deposited layer of silicon which is on said surface of said silicon carbide wafer to a surface roughness of less than around 10 nm; and bringing said polished surfaces together and applying pressure; removing said first layer of silicon, from said silicon on insulator structure; removing said intermediate layer of an oxide of silicon, from said silicon on insulator structure to expose said third layer of silicon; and fabricating at least one semiconductor device (26, 38, 50, 60) on said exposed third layer of silicon.
A method for reading the profile of a key comprising a head and a shank, comprising: - illuminating simultaneously the shank of said key (4, 4') from both sides with diffused light sources comprising two LED bars (6, 6') which retain said shank in the manner of a clamp, - collecting on a sensor an image of the region of a diffused light which defines the dark profile of the key on the bright background provided by said diffused light sources, said image being obtained in this manner in the direction of the longitudinal axis of said shank and at an optical path between said diffused light sources and the sensor that is equal to at least 60 cm and after a series of multiple reflections of said image by a plurality of mirrors (14, 16, 18, 20, 22) interposed between said diffused light sources (6, 6') and the sensor or with a telecentric lens interposed between said diffused light sources (6, 6') and the sensor, in order to prevent parallax errors, - processing via software the image collected on said sensor to extract therefrom only the key profile. - illuminating simultaneously the shank of said key (4, 4') from both sides with diffused light sources comprising two LED bars (6, 6') which retain said shank in the manner of a clamp, - collecting on a sensor an image of the region of a diffused light which defines the dark profile of the key on the bright background provided by said diffused light sources, said image being obtained in this manner in the direction of the longitudinal axis of said shank and at an optical path between said diffused light sources and the sensor that is equal to at least 60 cm and after a series of multiple reflections of said image by a plurality of mirrors (14, 16, 18, 20, 22) interposed between said diffused light sources (6, 6') and the sensor or with a telecentric lens interposed between said diffused light sources (6, 6') and the sensor, in order to prevent parallax errors, - processing via software the image collected on said sensor to extract therefrom only the key profile.
A container system comprising: a container having an interior surface bounding a chamber, the chamber being adapted to hold a fluid; a sparging sheet comprised of a flexible sheet of a gas permeable material secured to the interior surface of the container either directly or through a flexible transition member so that a compartment is formed between the interior surface of the container and the sparging sheet; and means for mixing fluid within the container, characterized in that the means for mixing being separate from the sparging sheet. a container having an interior surface bounding a chamber, the chamber being adapted to hold a fluid; a sparging sheet comprised of a flexible sheet of a gas permeable material secured to the interior surface of the container either directly or through a flexible transition member so that a compartment is formed between the interior surface of the container and the sparging sheet; and means for mixing fluid within the container, characterized in that the means for mixing being separate from the sparging sheet.
Rail vehicle (2, 46) with a vehicle roof, two side walls and a floor which delimit an interior compartment of the rail vehicle (2, 46), a dividing wall being arranged in the interior compartment, the rail vehicle having an interior door which is supported by the dividing wall, characterized in that the dividing wall is fastened at least to a C-rail of one of the side walls and not to the floor of the rail vehicle (2, 46). a dividing wall being arranged in the interior compartment, the rail vehicle having an interior door which is supported by the dividing wall, characterized in that the dividing wall is fastened at least to a C-rail of one of the side walls and not to the floor of the rail vehicle (2, 46).
A method of forming an essentially tubular blowable plastics parison comprising injection moulding an essentially tubular parison around a mould surface, using means for injecting flowable plastics material to said injection mould at an injection station to form a parison around said mould surface, wherein said means comprises a plurality of individual injectors, with at least a secondary injector being capable of injecting a different composition from the remaining primary injectors, wherein the secondary material is capable of forming a porous portion of material.
Scaffold construction having a main scaffold with scaffold frames which are plugged onto one another and have first longitudinal posts and first crossbars to which or on which scaffold floors are connected, in particular suspended, via connections, and having a second scaffold, in particular a scaffold stairway with landings, with scaffold frames which are plugged onto one another and have second longitudinal posts and second crossbars to which or on which scaffold floors or stairway units are connected, in particular suspended, wherein the first and second crossbars (16, 24) of the main scaffold and of the second scaffold are present substantially at the same height level, and - a coupling unit (30, 30.1, 30.2) which releaseably connects a first longitudinal post of the main scaffold and a second longitudinal post of the second scaffold via a first and second connection unit (32, 34), and - the coupling unit (30, 30.1, 30.2) has, in the region between the first and second connection units (32, 34), a bearing unit to which the first and second connection units (32, 34) are connected at the end, characterized in that, in the connected state of the coupling unit (30, 30.1, 30.2), the upper edge of the bearing unit is situated at the same height level as the first crossbar of the main scaffold, and an additional scaffold floor having at least two connections (42, 42.1) at the end is connected, in particular suspended, by one connection to or on the bearing unit and by the other connection on or to the first crossbar of the main scaffold. - a coupling unit (30, 30.1, 30.2) which releaseably connects a first longitudinal post of the main scaffold and a second longitudinal post of the second scaffold via a first and second connection unit (32, 34), and - the coupling unit (30, 30.1, 30.2) has, in the region between the first and second connection units (32, 34), a bearing unit to which the first and second connection units (32, 34) are connected at the end, characterized in that, in the connected state of the coupling unit (30, 30.1, 30.2), the upper edge of the bearing unit is situated at the same height level as the first crossbar of the main scaffold, and an additional scaffold floor having at least two connections (42, 42.1) at the end is connected, in particular suspended, by one connection to or on the bearing unit and by the other connection on or to the first crossbar of the main scaffold.
Converter arrangement (C.5, C.7, C.8, C.9, C.11), comprising a) at least two single LLC converters, b) a pulse generator per single LLC converter, wherein each pulse generator is configured to supply switching pulses to one single LLC converter and c) an output controller configured to use switching frequency control and/or phase-shift control to control the pulse generators, d) a load balancing control (7.5, 7.7, 7.8, 7.9, 7.11) for controlling load balancing of the converter arrangement (C.5, C.7, C.8, C.9, C.11) characterized in that the load balancing control (7.5, 7.7, 7.8, 7.9, 7.11) is configured to balance a loading between the single LLC converters by applying more phase-shift to a single LLC converter that is more loaded than another single LLC converter and/or applying less phase-shift to a single LLC converter that is less loaded than another single LLC converter. a) at least two single LLC converters, b) a pulse generator per single LLC converter, wherein each pulse generator is configured to supply switching pulses to one single LLC converter and c) an output controller configured to use switching frequency control and/or phase-shift control to control the pulse generators, d) a load balancing control (7.5, 7.7, 7.8, 7.9, 7.11) for controlling load balancing of the converter arrangement (C.5, C.7, C.8, C.9, C.11)
Fireproof closure consisting of several layers of elastic fire resistant material, having at least one supporting layer of fire resistant material, to which slats of fire resistant material are attached and each of which is attached one of its longitudinal edges, where least one surface of the slat has a swelling coating of material that becomes thicker after heating, characterized in that it has a supporting layer and a surface layer, while surface layer adjacent to the supporting layer on the slats side, and the swelling coating is placed on the surface of the slat on the side that adheres to the supporting layer, while each slat in the swelling state of swelling coating is deflected from the surface of the supporting layer and abuts its free edge against the surface of the adjacent surface layer
A fibrous composite having a dynamic storage modulus of at least 0.8 GPa (8.0 x 10 9 dyn/cm 2) as measured at 25°C (77°F), said composite comprising a plurality of adjoined fiber layers, each fiber layer comprising fibers having surfaces that are at least partially covered with a polymeric material, wherein said fibers are predominantly free of a fiber surface finish such that said polymeric material is predominantly in direct contact with the fiber surfaces; characterised in that said polymeric material is an aliphatic, polyether-based polyurethane dispersion and said fibers are polyethylene fibers.
A surgical mesh (300, 400, 500, 600, 700, 800) comprising a mesh material and a tissue bonding material associated with the mesh material that comprises a tissue solder and an absorber material, wherein the mesh is configured to bond to patient tissue when exposed to a near-infrared energy source while the surgical mesh is in contact with the tissue, wherein the absorber material comprises nanoparticles and is a near-infrared absorber material.