mhurhangee/patent-ind-claim-en huggingface dataset:
Portable laboratory scale milling assembly for a ball mill with a housing for refining and separating a substrate and with a collection vessel for retaining the refined substrate, wherein the housing comprises, in vertical order a lid , at least one milling vessel for receiving milling balls and a screen with a refining section and with apertures , and wherein the collection vessel is releasably mounted to a bottom end of the housing , and wherein in the housing an orifice is arranged, wherein in the orifice a valve is arranged for selectively allowing gas to pass between an outside and an inside of the housing in an open position of the valve and to seal the housing against the outside in a closed position of the valve , characterized in that the milling vessel comprises a taper for receiving a sealing screw .
A peptide comprising an epidermal growth factor-like (EGF-like) domain, wherein the peptide is neuregulin, for use in reducing side effects due to supraphysiological levels of the peptide upon administration while treating or preventing heart failure in a mammal over a prolonged time; wherein a therapeutically effective amount of said peptide is administered to a mammal at an interval of at least 96 hours, wherein said therapeutically effective amount is effective to treat or prevent heart failure in said mammal.
A syndet bar composition comprising: sulfonated methyl ester of a fatty acid having a chain length of 16 to 18 carbon atoms (C16-C18), wherein the sulfonated methyl ester is present in an amount of 5% to 30% by weight of the composition, wherein the sulfonated methyl ester is a compound containing 60% to 90% of C16 sulfonated methyl ester and 10% to 40% of C18 sulfonated methyl ester by weight of the compound; a co-surfactant selected from the group consisting of alkyl sulfosuccinate, alkyl sulfate, alkyl ether sulfate or the combination thereof; a fatty alcohol, in an amount of 5% to 20% by weight of the composition, selected from the group consisting of cetyl alcohol, stearyl alcohol or cetostearyl alcohol; a saturated fatty acid; a filler; and a humectant/moisturiser. sulfonated methyl ester of a fatty acid having a chain length of 16 to 18 carbon atoms (C16-C18), wherein the sulfonated methyl ester is present in an amount of 5% to 30% by weight of the composition, wherein the sulfonated methyl ester is a compound containing 60% to 90% of C16 sulfonated methyl ester and 10% to 40% of C18 sulfonated methyl ester by weight of the compound; a co-surfactant selected from the group consisting of alkyl sulfosuccinate, alkyl sulfate, alkyl ether sulfate or the combination thereof; a fatty alcohol, in an amount of 5% to 20% by weight of the composition, selected from the group consisting of cetyl alcohol, stearyl alcohol or cetostearyl alcohol; a saturated fatty acid; a filler; and a humectant/moisturiser.
A nucleic acid molecule encoding a specific binding molecule capable of binding an hTERT peptide comprising the amino acid sequence set forth in SEQ ID NO: 1 when the peptide is presented by an HLA-DP4 Class II Major Histocompatibility Complex (MHC), wherein the specific binding molecule comprises a first polypeptide comprising a variable region of an α-chain and a second polypeptide comprising a variable region of a β-chain of a T-cell receptor (TCR), and wherein: (a) the variable region of an α-chain comprises CDR sequences CDR1, CDR2 and CDR3 which respectively comprise the amino acid sequences set forth in SEQ ID NOs: 2, 3 and 4; and (b) the variable region of a β-chain comprises CDR sequences CDR1, CDR2 and CDR3 which respectively comprise the sequences set forth in SEQ ID NOs: 5, 6 and 7. (a) the variable region of an α-chain comprises CDR sequences CDR1, CDR2 and CDR3 which respectively comprise the amino acid sequences set forth in SEQ ID NOs: 2, 3 and 4; and (b) the variable region of a β-chain comprises CDR sequences CDR1, CDR2 and CDR3 which respectively comprise the sequences set forth in SEQ ID NOs: 5, 6 and 7.
A safe conduit device comprising: a banknote validator docking station configured to be located on a safe and to removably receive and lockably engage with a banknote validator ; and a banknote transport module ; characterised by : a banknote cashbox docking station spatially separated from said banknote validator docking station and configured to removably receive and lockably engage with a banknote cashbox located within the safe, said banknote cashbox including a stacker mechanism ; and by the banknote transport module configured to span the spatial separation between said banknote validator docking station and said banknote cashbox docking station , wherein the banknote transport module includes a banknote transport path configured to enable the conveyance of a banknote between said banknote validator and the stacker mechanism of said banknote cashbox , and wherein said banknote transport module is removable from the safe conduit device when the banknote validator has been unlocked and released from engagement with the banknote validator docking station . a banknote validator docking station configured to be located on a safe and to removably receive and lockably engage with a banknote validator ; and a banknote transport module ; characterised by : a banknote cashbox docking station spatially separated from said banknote validator docking station and configured to removably receive and lockably engage with a banknote cashbox located within the safe, said banknote cashbox including a stacker mechanism ; and by the banknote transport module configured to span the spatial separation between said banknote validator docking station and said banknote cashbox docking station , wherein the banknote transport module includes a banknote transport path configured to enable the conveyance of a banknote between said banknote validator and the stacker mechanism of said banknote cashbox , and wherein said banknote transport module is removable from the safe conduit device when the banknote validator has been unlocked and released from engagement with the banknote validator docking station . a banknote cashbox docking station spatially separated from said banknote validator docking station and configured to removably receive and lockably engage with a banknote cashbox located within the safe, said banknote cashbox including a stacker mechanism ; and by the banknote transport module configured to span the spatial separation between said banknote validator docking station and said banknote cashbox docking station , wherein the banknote transport module includes a banknote transport path configured to enable the conveyance of a banknote between said banknote validator and the stacker mechanism of said banknote cashbox , and wherein said banknote transport module is removable from the safe conduit device when the banknote validator has been unlocked and released from engagement with the banknote validator docking station .
A valve component , comprising: a non-expandable, non-collapsible prosthetic valve having an inflow end and an outflow end, and an expandable coupling stent extending from the inflow end of the prosthetic valve , the coupling stent having a contracted state for delivery to an implant position and an expanded state configured for outward connection to a base stent anchored against a heart valve annulus (AA) and defining an orifice therein or for outward connection directly against the heart valve annulus (AA), wherein the valve component is pre-assembled before delivery to the implant position, characterized in that the coupling stent extends from the inflow end of the prosthetic valve in the distal direction away from the outflow end of the prosthetic valve . a non-expandable, non-collapsible prosthetic valve having an inflow end and an outflow end, and an expandable coupling stent extending from the inflow end of the prosthetic valve , the coupling stent having a contracted state for delivery to an implant position and an expanded state configured for outward connection to a base stent anchored against a heart valve annulus (AA) and defining an orifice therein or for outward connection directly against the heart valve annulus (AA), wherein the valve component is pre-assembled before delivery to the implant position, characterized in that the coupling stent extends from the inflow end of the prosthetic valve in the distal direction away from the outflow end of the prosthetic valve .
Method for producing microcapsules comprising a core material and a shell comprising the following steps, a) adding at least one crosslinking agent to a composition comprising at least one first solubilised polyelectrolyte (polyelectrolyte A), b) then adding the core material, c) optionally adding further polyelectrolyte A, optionally solubilised, d) then optionally cooling the composition before, e) adding at least one second solubilised polyelectrolyte (polyelectrolyte B) in a next step, f) then fostering a coacervation of the polyelectrolytes, wherein polyelectrolyte A is anionic and polyelectrolyte B is cationic or amphoteric. a) adding at least one crosslinking agent to a composition comprising at least one first solubilised polyelectrolyte (polyelectrolyte A), b) then adding the core material, c) optionally adding further polyelectrolyte A, optionally solubilised, d) then optionally cooling the composition before, e) adding at least one second solubilised polyelectrolyte (polyelectrolyte B) in a next step, f) then fostering a coacervation of the polyelectrolytes,
Connecting rod for an internal combustion engine with variable compression, having an eccentric adjustment device for adjusting an effective connecting-rod length, comprising a hydraulic module with a switchover valve for controlling a hydraulic fluid flow of the connecting rod , wherein the eccentric adjusting device has at least one first cylinder and one second cylinder as hydraulic chambers, and wherein in each case one line opens, as a common feed line and discharge line , into the cylinder , wherein the feed line is provided for the feed of hydraulic fluid into the cylinder and the discharge line is provided for the discharge of hydraulic fluid from the cylinders , wherein the cylinders are assigned in each case one check valve which is arranged in the feed line and permits a feed of hydraulic fluid into the cylinders and prevents a discharge of hydraulic fluid from the cylinders , wherein the switchover valve has a movable piston which can be displaced alternatively into a first switching position (S1) or a second switching position (S2), wherein a chamber volume of the second cylinder is smaller than a chamber volume of the first cylinder , and the cylinders are connected such that, in the first switching position (S1), hydraulic fluid can be conducted from the first cylinder into the second cylinder , wherein, in the second switching position (S2), hydraulic fluid can be conducted from the second cylinder into the first cylinder , characterized in that a supply line of the switchover valve has an orifice as throttle, via which, in the first switching position (S1), a differential volume of the cylinders can flow out in throttled fashion and, in the second switching position (S2), a differential volume of the cylinders can be drawn in in throttled fashion, wherein the discharge line of the second cylinder has at least one orifice as throttle.
A flat tube for a heat exchanger for a flow of a fluid therein, the tube being formed by bending a sheet metal strip along its length, the metal strip comprising longitudinal edges , the flat tube further comprising: a first wall , a second wall parallel to the first wall , said walls being substantially flat, two complementary side wall portions joining said first and second walls together, wherein the first wall comprises a seam extending along the longitudinal axis of the flat tube so that juxtaposed longitudinal edges of the metal strip join together in parallel manner towards the second wall to form a closed profile of the tube , the seam comprises a first section and a second section arranged in series with respect to the first portion of the seam , the sections being spaced apart from the second wall and extending along the seam along the longitudinal axis of the flat tube , characterized in that the second wall comprises at least one deflection protruding towards the seam , so that the first section is in contact with the second wall whereas the second section remains spaced apart from the second wall .
A method of configuring a communication terminal (T1) for controlling a central control unit (U1) or a home automation device (D) belonging to a home automation installation (Su), the method being implemented by the communication terminal (T1), an initial configuration of the communication terminal (T1) comprising at least one container application (APPC), the method , implemented by the communication terminal (T1), comprising the following steps: - reception (E204) of an interface application (IHM) and/or parameterization data from said interface application, downloaded from the central control unit (U1) or from an external storage unit (ST); - adaptation (E205) of the configuration of the communication terminal (T1), the adaptation step (E205) comprising an installation of the interface application (IHM) downloaded onto the communication terminal (T1) and/or a parameterization of an interface application (IHM), present on the communication terminal (T1) before the reception step (E204), in order to make the interface application (IHM) compatible with a predetermined version (Vx) of a functional software of the central control unit (U1). - reception (E204) of an interface application (IHM) and/or parameterization data from said interface application, downloaded from the central control unit (U1) or from an external storage unit (ST); - adaptation (E205) of the configuration of the communication terminal (T1), the adaptation step (E205) comprising an installation of the interface application (IHM) downloaded onto the communication terminal (T1) and/or a parameterization of an interface application (IHM), present on the communication terminal (T1) before the reception step (E204), in order to make the interface application (IHM) compatible with a predetermined version (Vx) of a functional software of the central control unit (U1).
A composition, which comprises a) At least one NOR-HALS compound of the formula Wherein R 1 and R 2 represent n-undecyl; b) At least one flame retardant compound selected from the group consisting of tris(tribromoneopentyl)phosphate, resorcinol-bis-diphenylphosphate, pentaerythritol-di-methyl phosphonate, guanidine phenylphosphonate and melamine phenylphosphonate; and c) A polymer substrate. a) At least one NOR-HALS compound of the formula Wherein R 1 and R 2 represent n-undecyl; b) At least one flame retardant compound selected from the group consisting of tris(tribromoneopentyl)phosphate, resorcinol-bis-diphenylphosphate, pentaerythritol-di-methyl phosphonate, guanidine phenylphosphonate and melamine phenylphosphonate; and c) A polymer substrate.
A control device to be applied to an internal combustion engine including a fuel reformation cylinder capable of serving as a fuel reformation device and an output cylinder to which reformed fuel generated in the fuel reforming cylinder is supplied, the output cylinder configured to yield an engine power by combusting the reformed fuel, the control device comprising: a gas temperature adjustment unit configured to adjust a gas temperature in the fuel reformation cylinder at a time of fuel reformation according to an equivalence ratio in the fuel reformation cylinder so that a concentration of a specific gas component in the reformed fuel generated in the fuel reformation cylinder is a target concentration defined according to a required engine power.
A filter cartridge configured to be removably positionable within an inner opening of a housing , wherein the filter cartridge comprises: a media pack comprising an inlet end , an outlet end , and an outer surface having an outer peripheral shape; a frame member at least partially surrounding the media pack , the frame member comprising a frame wall having a shape that is different from the outer perimeter shape of the media pack ; a shell at least partially surrounding the media pack , the shell comprising a shell wall having a shape that is different from the outer perimeter shape of the media pack ; and a sealing member extending at least partially around the inlet end of the media pack , wherein the sealing member comprises a pinch seal portion that is spaced from the outer surface of the media pack . a media pack comprising an inlet end , an outlet end , and an outer surface having an outer peripheral shape; a frame member at least partially surrounding the media pack , the frame member comprising a frame wall having a shape that is different from the outer perimeter shape of the media pack ; a shell at least partially surrounding the media pack , the shell comprising a shell wall having a shape that is different from the outer perimeter shape of the media pack ; and a sealing member extending at least partially around the inlet end of the media pack , wherein the sealing member comprises a pinch seal portion that is spaced from the outer surface of the media pack .
A composition comprising: at least one compound chosen from compound of formula (I), compound of formula (II), compound of formula (III) and compound of formula (IV): ; cannabidiol (CBD) in a concentration about 0.1% to about 75% by weight, based on the total weight of the composition; tetrahydrocannabinol (THC) in a concentration less than 0.3% by weight, based on the total weight of the composition; and at least one lipid. at least one compound chosen from compound of formula (I), compound of formula (II), compound of formula (III) and compound of formula (IV): ; cannabidiol (CBD) in a concentration about 0.1% to about 75% by weight, based on the total weight of the composition; tetrahydrocannabinol (THC) in a concentration less than 0.3% by weight, based on the total weight of the composition; and at least one lipid.
A method to amplify sheared DNA with an average length of less than 200 nucleotides comprising the following steps: a. obtaining a biological sample comprising sheared DNA, b. dephosphorylating the sheared DNA in the sample, and c. digesting the resulting DNA using a methylation insensitive restriction enzyme, and d. ligating the digested nucleotide sequences to hairpin looped adapters, and e. removing incompletely ligated products, f. carrying out a bisulphite treatment g. amplifying the resulting nucleotide sequences using primers hybridizing to the adapters. a. obtaining a biological sample comprising sheared DNA, b. dephosphorylating the sheared DNA in the sample, and c. digesting the resulting DNA using a methylation insensitive restriction enzyme, and d. ligating the digested nucleotide sequences to hairpin looped adapters, and e. removing incompletely ligated products, f. carrying out a bisulphite treatment g. amplifying the resulting nucleotide sequences using primers hybridizing to the adapters.
A device for simulating the operation of at least one input unit and/or at least one output unit in a building, comprising - a planning unit arranged to store model information comprising a virtual representation of the building, input-specification information concerning at least one input unit, output-specification information concerning at least one output unit, wherein the respective specification information comprises location information for the at least one input unit and the at least one output unit; - one or more storage units arranged to store action information about at least one action to be executed by the at least one output unit, wherein this action is based on at least one of an input of the at least one input unit and associated predetermined conditions; - an imaging unit arranged to display a graphical representation of the building, based on the model information, as well as of the at least one set of associated input and output units, based on the input- and output-specification information, wherein the device further comprises input means provided for a user to specify at least one action to be simulated, and comprises a simulation unit arranged to simulate the execution of at least one action before the actual installation of said at least one unit is done; and the imaging unit is arranged to graphically display the results of this simulation, such that a user is allowed to try out various options, simulate and visualize for an end user, before the actual installation is done. - a planning unit arranged to store model information comprising a virtual representation of the building, input-specification information concerning at least one input unit, output-specification information concerning at least one output unit, wherein the respective specification information comprises location information for the at least one input unit and the at least one output unit; - one or more storage units arranged to store action information about at least one action to be executed by the at least one output unit, wherein this action is based on at least one of an input of the at least one input unit and associated predetermined conditions; - an imaging unit arranged to display a graphical representation of the building, based on the model information, as well as of the at least one set of associated input and output units, based on the input- and output-specification information,
A servo-rotating all-function tool module, which is adapted to be mounted to a spring forming machine to serve as an all-direction forming tool of the spring forming machine, wherein the spring forming machine comprises a front wall board , the tool module comprising a rotatable retention seat adapted to be rotatably mounted to the front wall board , characterised in that the tool module further comprises: an axle mounted to the rotatable retention seat ; an axle rotating tool module, which is mounted to the axle and comprises an axle slide base and a tool , such that the axle slide base is operable to slide along the axle upon receiving a driving force acting thereon so as to cause the tool to undergo a downward pressing or upward returning operation; and a servo transmission module assembly , which is mounted to the spring forming machine to provide the driving force for driving the axle slide base to slide along the axle . an axle mounted to the rotatable retention seat ; an axle rotating tool module, which is mounted to the axle and comprises an axle slide base and a tool , such that the axle slide base is operable to slide along the axle upon receiving a driving force acting thereon so as to cause the tool to undergo a downward pressing or upward returning operation; and a servo transmission module assembly , which is mounted to the spring forming machine to provide the driving force for driving the axle slide base to slide along the axle .