mhurhangee/ep-ind-claims huggingface dataset:
Production method for a plastic pipe consisting of at least two layers wherein: a. the plastic pipe is produced by an extruder, b. at least the innermost layer is cross-linked, c. during said cross-linking step at least one additive is used that produces free radicals when it decomposes by the effect of heat thus forming chemical bonds between the layers, d. the heat treatment needed for the cross-linking is done by infrared radiation obtained by infrared lamps or salt bath or by some other convenient method, e. an ethyl vinyl alcohol layer is installed to the plastic pipe to hinder or prevent the oxygen to go through the wall of the pipe, characterized in that f. all the layers of the plastic pipe are made at the same time in one press head nozzle of the extruder, g. alongside the innermost layer, the ethyl vinyl alcohol layer is formed in said press head nozzle, h. during said heat treatment step,the innermost layer is cross-linked, and the free radicals caused by decomposition of the additives also release atoms from ethyl vinyl alcohol molecules in the layer's surface, such that chemical bonds are formed between the innermost cross-linked layer and the ethyl vinyl alcohol layer that bind the layers to each other without any separate adhesive polymer, i. the complete cross-linking is achieved through one heat treatment step. a. the plastic pipe is produced by an extruder, b. at least the innermost layer is cross-linked, c. during said cross-linking step at least one additive is used that produces free radicals when it decomposes by the effect of heat thus forming chemical bonds between the layers, d. the heat treatment needed for the cross-linking is done by infrared radiation obtained by infrared lamps or salt bath or by some other convenient method, e. an ethyl vinyl alcohol layer is installed to the plastic pipe to hinder or prevent the oxygen to go through the wall of the pipe, characterized in that f. all the layers of the plastic pipe are made at the same time in one press head nozzle of the extruder, g. alongside the innermost layer, the ethyl vinyl alcohol layer is formed in said press head nozzle, h. during said heat treatment step,the innermost layer is cross-linked, and the free radicals caused by decomposition of the additives also release atoms from ethyl vinyl alcohol molecules in the layer's surface, such that chemical bonds are formed between the innermost cross-linked layer and the ethyl vinyl alcohol layer that bind the layers to each other without any separate adhesive polymer, i. the complete cross-linking is achieved through one heat treatment step.
Malodour standard composition, comprising - a protein, comprising an amino acid sequence having a) a sequence identity of at least 93%, preferably at least 95%, more preferably of at least 98%, and/or b) a sequence similarity of at least 97%, preferably at least 98%, more preferably of at least 99%, to an amino acid sequence according to any of SEQ ID NO 1 to 31, wherein sequence identity and sequence similarity are computed according the EMBOSS needle algorithm having a Gap Open penalty of 10.0, a Gap Extend penalty of 0.5 and using the Blosum62 matrix, - together with a substance cleavable by the protein to generate a malodorous product under conditions allowing such cleavage, wherein the cleavable substance is N-alpha-lauroyl-L-glutamine. - a protein, comprising an amino acid sequence having a) a sequence identity of at least 93%, preferably at least 95%, more preferably of at least 98%, and/or b) a sequence similarity of at least 97%, preferably at least 98%, more preferably of at least 99%, a) a sequence identity of at least 93%, preferably at least 95%, more preferably of at least 98%, and/or b) a sequence similarity of at least 97%, preferably at least 98%, more preferably of at least 99%, - together with a substance cleavable by the protein to generate a malodorous product under conditions allowing such cleavage, wherein the cleavable substance is N-alpha-lauroyl-L-glutamine.
A method of detecting a chargeable device, the method comprising: operating a wireless power transmitter in one of at least a first and second power state, the first power state having a lower power than the second power state; and transitioning the transmitter to the first power state prior to detecting a change in at least one parameter of the wireless power transmitter, detecting a change in the at least one parameter of the wireless power transmitter; and determining whether at least one device positioned within a charging region of the wireless power transmitter is capable of receiving wireless charging power, after detecting the change in the at least one parameter. operating a wireless power transmitter in one of at least a first and second power state, the first power state having a lower power than the second power state; and transitioning the transmitter to the first power state prior to detecting a change in at least one parameter of the wireless power transmitter, detecting a change in the at least one parameter of the wireless power transmitter; and determining whether at least one device positioned within a charging region of the wireless power transmitter is capable of receiving wireless charging power, after detecting the change in the at least one parameter.
A system (10; 24) comprising: a bump cap; a welding headgear comprising a plurality of straps which are configured to be disposed over a user's head; a face protection member (16; 6a, 16b); and an attachment member to attach the bump cap to the welding headgear, the bump cap being a semi-rigid cap made of a light-weight material; and the attachment member being attachable to at least one of the straps attaching the bump cap to the welding headgear; characterized in that the face protection member (16; 6a, 16b) is pivotally attachable to a pivot point of the welding headgear. a bump cap; a welding headgear comprising a plurality of straps which are configured to be disposed over a user's head; a face protection member (16; 6a, 16b); and an attachment member to attach the bump cap to the welding headgear, the bump cap being a semi-rigid cap made of a light-weight material; and the attachment member being attachable to at least one of the straps attaching the bump cap to the welding headgear; characterized in that the face protection member (16; 6a, 16b) is pivotally attachable to a pivot point of the welding headgear.
A method for producing a segmented prefabricated bridge from prefabricated segments (3, 4, 5, 50, 51) made of concrete and positionally precisely assembled in the support and/or longitudinal direction by means of profiled contact surfaces (14, 140), the contact surfaces (14, 140) of the segments (3, 4, 5, 50, 51) being at least partially machined, particularly ground, according to the subsequent installation orientation of the segments (3, 4, 5, 50, 51) in the segmented prefabricated bridge, thus forming contact points at which the segments (3, 4, 5, 50, 51) are subsequently positionally precisely assembled in a close-packed manner, characterized in that when assembling adjacent segments (3, 4, 5, 50, 51), the profiles of adjoining contact surfaces (14, 140) of the segments (3, 4, 5, 50, 51) form hollow spaces adjacent to the contact points and the hollow spaces thus formed are filled with grouting material.
A single pole aerial tramway apparatus for carrying cycles on an aerial tramway, the apparatus comprising: a bowed pole being defined by a pole cable end, a pole cycle end, and a medial region, the bowed pole being configured to bow outwardly at the medial region, the pole cycle end being generally perpendicular to the pole cable end; a bracket disposed at the pole cable end; a multi-cycle support assembly joined to the pole cycle end, characterized in that the multi-cycle support assembly comprises: a primary stabilization bar connected perpendicularly to the pole cycle end of the bowed pole; at least one secondary stabilization bar connected perpendicularly to the pole cycle end of the bowed pole, the secondary stabilization bar disposed in a parallel, spaced-apart relationship with the primary stabilization bar; and a plurality of cycle racks (114a-c) comprising an elongated panel defined by a front tire depression and a rear tire brace, the cycle racks (114a-c) being attached perpendicularly to the primary stabilization bar and the secondary stabilization bar, the cycle racks (114a-c) being disposed in a parallel, spaced-apart relationship with each other, whereby the medial region of the bowed pole bends distally from the cycle racks (114a-c). a bowed pole being defined by a pole cable end, a pole cycle end, and a medial region, the bowed pole being configured to bow outwardly at the medial region, the pole cycle end being generally perpendicular to the pole cable end; a bracket disposed at the pole cable end; a multi-cycle support assembly joined to the pole cycle end, characterized in that the multi-cycle support assembly comprises: a primary stabilization bar connected perpendicularly to the pole cycle end of the bowed pole; at least one secondary stabilization bar connected perpendicularly to the pole cycle end of the bowed pole, the secondary stabilization bar disposed in a parallel, spaced-apart relationship with the primary stabilization bar; and a plurality of cycle racks (114a-c) comprising an elongated panel defined by a front tire depression and a rear tire brace, the cycle racks (114a-c) being attached perpendicularly to the primary stabilization bar and the secondary stabilization bar, the cycle racks (114a-c) being disposed in a parallel, spaced-apart relationship with each other, whereby the medial region of the bowed pole bends distally from the cycle racks (114a-c). a primary stabilization bar connected perpendicularly to the pole cycle end of the bowed pole; at least one secondary stabilization bar connected perpendicularly to the pole cycle end of the bowed pole, the secondary stabilization bar disposed in a parallel, spaced-apart relationship with the primary stabilization bar; and a plurality of cycle racks (114a-c) comprising an elongated panel defined by a front tire depression and a rear tire brace, the cycle racks (114a-c) being attached perpendicularly to the primary stabilization bar and the secondary stabilization bar, the cycle racks (114a-c) being disposed in a parallel, spaced-apart relationship with each other, whereby the medial region of the bowed pole bends distally from the cycle racks (114a-c).
A fastener, comprising: a bolt having an elongated shank portion adapted to be positioned within an opening of a work piece, the work piece having a first side and a second side opposite the first side, the elongated shank portion having a first end, a second end opposite the first end, a head formed at the first end, a threaded portion having a plurality of external bolt threads, the threaded portion being adapted to extend past the second side of the work piece, and an annular groove formed proximate to the second end; and a retainer ring, wherein the retainer ring engages and aligns with the annular groove of the bolt in order to captivate the bolt, wherein the retainer ring includes an outer ring having an interior surface and at least one spring beam element extending from the interior surface, wherein when the bolt engages the retainer ring, the at least one spring beam element is displaced and expands radially from a free position to an expanded position in order to enable the bolt to travel through the retainer ring, and wherein when the retainer ring engages and aligns with the annular groove of the bolt, the at least one spring beam element springs back to its free position. a bolt having an elongated shank portion adapted to be positioned within an opening of a work piece, the work piece having a first side and a second side opposite the first side, the elongated shank portion having a first end, a second end opposite the first end, a head formed at the first end, a threaded portion having a plurality of external bolt threads, the threaded portion being adapted to extend past the second side of the work piece, and an annular groove formed proximate to the second end; and a retainer ring, wherein the retainer ring engages and aligns with the annular groove of the bolt in order to captivate the bolt, wherein the retainer ring includes an outer ring having an interior surface and at least one spring beam element extending from the interior surface, wherein when the bolt engages the retainer ring, the at least one spring beam element is displaced and expands radially from a free position to an expanded position in order to enable the bolt to travel through the retainer ring, and wherein when the retainer ring engages and aligns with the annular groove of the bolt, the at least one spring beam element springs back to its free position.
Device for the decompression of digital images coded by means of a base layer (216 22), generated by a method of compression using a base layer quantization stepsize, and by means of an enhancement layer (216 40) formed of bit planes, generated by coding the residual existing between the compressed image and the image coded by the base layer, characterized in that it comprises means (278, 280, 282) for determining a quantization stepsize as a function of a decoded level allocated to each bit plane forming the enhancement layer, where said decoded level has the value corresponding to the level of the lowest decoded bit plane and means for instructing a filtering of the decoded image as a function of said determined quantization stepsize.
A compound comprising a mitochondrial penetrating peptide conjugated to an antimicrobial, wherein the antimicrobial is an antibacterial and has a target in human cells that resides in the cytoplasm, and wherein the peptide localizes to mitochondria to sequester the antimicrobial from its target, wherein the antimicrobial is an antimetabolite, glycolysis inhibitor or azidothymidine; wherein where the antimicrobial is an antimetabolite, it is preferably a pyrimidine analogue, purine analog or antifolate, preferably 5-fluorouracil, gemcitabine, azathioprine, mercaptopurine, methotrexate, raltritrexed or pemetrexed, further preferably methotrexate, further preferably MtxA; wherein where the antimicrobial is a glycolysis inhibitor, it is preferably a hexokinase inhibitor, lactate dehydrogenase inhibitor or glucose-6-phosphate dehydrogenase inhibitor, preferably 2-deoxyglucose, 3-bromopyruvate, oxamate or 6-aminonicotinamide.
A turbine rotor blade comprising: a tip portion having a pressure tip wall and a suction tip wall, a tip leading edge and a tip trailing edge, wherein the pressure tip wall and the suction tip wall define a trailing edge tip thickness; a squealer cavity at least partially defined by the pressure tip wall and the suction tip wall, the squealer cavity including a trench extending fully to the tip trailing edge to form an open flow path out of the tip trailing edge; and a suction side wall and a pressure side wall extending from a root portion of the turbine rotor blade to the tip portion, wherein the suction side wall and the pressure side wall define a trailing edge blade thickness, wherein the suction tip wall or the suction tip wall and the pressure tip wall flare outwardly at the tip trailing edge; and wherein the trailing edge tip thickness is greater than the trailing edge blade thickness; further comprising a plurality of cooling holes extending radially throughout the turbine rotor blade, the plurality of cooling holes having a plurality of corresponding outlet holes, wherein the trench has a floor and wherein some of said plurality of outlet holes are positioned on the floor of the trench. a tip portion having a pressure tip wall and a suction tip wall, a tip leading edge and a tip trailing edge, wherein the pressure tip wall and the suction tip wall define a trailing edge tip thickness; a squealer cavity at least partially defined by the pressure tip wall and the suction tip wall, the squealer cavity including a trench extending fully to the tip trailing edge to form an open flow path out of the tip trailing edge; and a suction side wall and a pressure side wall extending from a root portion of the turbine rotor blade to the tip portion, wherein the suction side wall and the pressure side wall define a trailing edge blade thickness, wherein the suction tip wall or the suction tip wall and the pressure tip wall flare outwardly at the tip trailing edge; and wherein the trailing edge tip thickness is greater than the trailing edge blade thickness; further comprising a plurality of cooling holes extending radially throughout the turbine rotor blade, the plurality of cooling holes having a plurality of corresponding outlet holes, wherein the trench has a floor and wherein some of said plurality of outlet holes are positioned on the floor of the trench.
A rubber composition, comprising, based on 100% by mass of a rubber component, not less than 35% by mass of styrene-butadiene rubber, the rubber composition comprising a conjugated diene polymer, and a silica having a nitrogen adsorption specific surface area of 40 to 400 m 2 /g, the conjugated diene polymer being obtained by polymerizing a monomer component including a conjugated diene compound and a silicon-containing vinyl compound in the presence of a polymerization initiator represented by the following formula: wherein i represents 0 or 1; R 11 represents a C 1-100 hydrocarbylene group; R 12 and R 13 each represent an optionally substituted hydrocarbyl group or a trihydrocarbylsilyl group, or R 12 and R 13 are bonded to each other to form a hydrocarbylene group optionally containing at least one, as a hetero atom, selected from the group consisting of a silicon atom, a nitrogen atom, and an oxygen atom; and M represents an alkali metal atom, to produce a copolymer, and then reacting a compound containing at least one of a nitrogen atom and a silicon atom with an active terminal of the copolymer, wherein an amount of the conjugated diene polymer is 1 to 90% by mass and an amount of a polyisoprene-based rubber is 0 to 40% by mass, each based on 100% by mass of the rubber component, and an amount of the silica is 10 to 150 parts by mass for each 100 parts by mass of the rubber component.
A method of controlling display luminosity according to an operational mode in a navigation system loaded on a moving subject, comprising: determining a current operational mode from a plurality of operational modes of the navigation system; automatically adjusting a display luminosity based on the determined current operational mode; and detecting a traveling speed of the subject; characterized in that if the travelling speed is '0' in a stop state, the display luminosity level is a prescribed luminosity level, if the detected traveling speed is equal to or less than a prescribed speed, the display luminosity level is automatically reduced below said prescribed luminosity level, and if the detected traveling speed exceeds said prescribed speed, a display power is automatically turned off. determining a current operational mode from a plurality of operational modes of the navigation system; automatically adjusting a display luminosity based on the determined current operational mode; and detecting a traveling speed of the subject;
A method for adjusting a timing offset value for a base station (Node-B), the base station being adapted to controlling and receiving uplink radio link transmissions from a plurality of user entities according to predetermined response time requirements, and wherein the communication between the base station (NodeB) and a user entity is based on a common timing scheme between the base station and at least the user entity, the time offset defining in relation to a time reference in the base station when a user entity can transmit on an uplink radio link, the time offset value being defined individually for each user entity; the method comprising the steps of - estimating at least one time budget map (TBM - 116, 116') according to which the available processing time in the base station is given as a function of the possible timing offset value; - determining a given timing offset value (CO - 106) for the uplink radio link of a user entity in accordance with the estimated time budget map, such as to provide an optimized offset value for the base station; - assigning the determined timing offset value to the uplink radio link, and - wherein the assignment of the timing offset value is optimized such that a base station processing time is above a minimum supported base station processing time, and / or wherein the assignment of the timing offset value is optimized such that the timing offset for each new user entity - to be assigned - is arranged such that a substantially even distribution over time having regard to previously assigned user entities in a cell associated with the base station is accomplished. - estimating at least one time budget map (TBM - 116, 116') according to which the available processing time in the base station is given as a function of the possible timing offset value; - determining a given timing offset value (CO - 106) for the uplink radio link of a user entity in accordance with the estimated time budget map, such as to provide an optimized offset value for the base station; - assigning the determined timing offset value to the uplink radio link, and - wherein the assignment of the timing offset value is optimized such that a base station processing time is above a minimum supported base station processing time, and / or wherein the assignment of the timing offset value is optimized such that the timing offset for each new user entity - to be assigned - is arranged such that a substantially even distribution over time having regard to previously assigned user entities in a cell associated with the base station is accomplished.
A liquid formulation comprising: a) a poxvirus, in particular a vaccinia virus, b) a pharmaceutically acceptable buffer, c) a monovalent salt, d) a pharmaceutically acceptable disaccharide or sugar alcohol, and e) a pharmaceutically acceptable chelating agent, wherein the pH of the formulation is comprised between 6.5 and 8.5. a) a poxvirus, in particular a vaccinia virus, b) a pharmaceutically acceptable buffer, c) a monovalent salt, d) a pharmaceutically acceptable disaccharide or sugar alcohol, and e) a pharmaceutically acceptable chelating agent, wherein the pH of the formulation is comprised between 6.5 and 8.5.
A method for controlling an electronic device comprising: storing a file of native code within a source code wrapper- external to said electronic device; downloading the source code wrapper to a host processor in said electronic device; retrieving said native code from the source code wrapper; installing said native code on a target processor in said electronic device; and executing said native code on said target processor. storing a file of native code within a source code wrapper- external to said electronic device; downloading the source code wrapper to a host processor in said electronic device; retrieving said native code from the source code wrapper; installing said native code on a target processor in said electronic device; and executing said native code on said target processor.
A catalyst composition comprising: one or more Ziegler-Natta procatalyst compositions comprising one or more transition metal compounds and an internal electron donor; one or more aluminum containing cocatalysts; and a selectivity control agent comprising a mixture of a carboxylic acid ester and a non-silane composition selected from the group consisting of a diether composition, a succinate composition, and combinations thereof. one or more Ziegler-Natta procatalyst compositions comprising one or more transition metal compounds and an internal electron donor; one or more aluminum containing cocatalysts; and a selectivity control agent comprising a mixture of a carboxylic acid ester and a non-silane composition selected from the group consisting of a diether composition, a succinate composition, and combinations thereof.