mhurhangee/ep-ind-claims huggingface dataset:
A fuel composition imparting a lubricant property, the fuel composition comprising: fuel having a sulphur concentration less than 50 ppm; and an additive comprising palmitic acid, oleic acid, linoleic acid and linolenic acid, wherein the weight ratio of A:B:C:D in the composition is 8:80:10:2 and wherein the additive is comprised in the fuel composition at a concentration range of 50 to 150 ppm by weight of the fuel. fuel having a sulphur concentration less than 50 ppm; and an additive comprising palmitic acid, oleic acid, linoleic acid and linolenic acid, wherein the weight ratio of A:B:C:D in the composition is 8:80:10:2 and wherein the additive is comprised in the fuel composition at a concentration range of 50 to 150 ppm by weight of the fuel.
A polyurethane-based laminating adhesive composition, in particular for laminating films, containing, based on the total weight of the laminating adhesive composition, 10 to 50 wt.% of at least one solid, particulate filler, characterized in that (a) at least 90% of the filler particles of the at least one filler have a particle size of 4 μm or less; and (b) the at least one filler has a Mohs hardness of 3 or less. (a) at least 90% of the filler particles of the at least one filler have a particle size of 4 μm or less; and (b) the at least one filler has a Mohs hardness of 3 or less.
A deposition process for depositing a silicon-containing film using at least one precursor comprising an alkoxyaminosilane having a general formula: cis -2,6-dimethylpiperidinoSiR 3 OR 4 OR 5 Formula wherein R 3 is selected from hydrogen; a linear or branched C 1 to C 10 alkyl group; a C 3 to C 12 alkenyl group, a C 3 to C 12 alkynyl group, a C 4 to C 10 cyclic alkyl group, and a C 6 to C 10 aryl group; and R 4 and R 5 are each independently selected from a linear or branched C 1 to C 10 alkyl group; a C 2 to C 12 alkenyl group; a C 2 to C 12 alkynyl group; a C 4 to C 10 cyclic alkyl group; and a C 6 to C 10 aryl group, R 4 and R 5 optionally being linked to form a ring.
A method for controlling a magnus rotor arranged on a vessel, comprising: - providing air pressure information related to different areas of a cross section from a first air pressure sensor arranged on a surface of the magnus rotor, and rotating with the magnus rotor, at a first height H1 with respect to a deck of the vessel; - estimating pressure distribution on the surface of the magnus rotor based on the pressure information from the first air pressure sensor; and - using the estimated pressure distribution as a feedback in closed-loop control method to optimise a control parameters of the magnus rotor. - providing air pressure information related to different areas of a cross section from a first air pressure sensor arranged on a surface of the magnus rotor, and rotating with the magnus rotor, at a first height H1 with respect to a deck of the vessel; - estimating pressure distribution on the surface of the magnus rotor based on the pressure information from the first air pressure sensor; and - using the estimated pressure distribution as a feedback in closed-loop control method to optimise a control parameters of the magnus rotor.
A spacecraft (120A-120F) system, comprising: a plurality of spacecraft (120A-120F) in a stack, wherein the stack has a plurality of layers (124A-124C), each layer (124A-124C) includes at least two spacecraft (120A-120F) of the plurality of spacecraft (120A-120F), and each spacecraft (120A-120F) is releasably coupled to two or more adjacent spacecraft (120A-120F) of the plurality of spacecraft (120A-120F) in the stack; a plurality of biasing devices (138A-138I) between adjacent layers (124A-124C) in the stack, wherein the plurality of biasing devices (138A-138I) apply a biasing force between the adjacent layers (124A-124C) to facilitate separating each layer (124A-124C) from the stack after the layer (124A-124C) releases from the stack, wherein, for each layer (124A-124C) of the stack, at least one of the plurality of biasing devices (138A-138I) applies a different biasing force to the layer (124A-124C) than at least another of the plurality of biasing devices (138A-138I) such that the layer (124A-124C) rotates as the layer (124A-124C) separates from the stack; and a controller configured to, for each layer (124A-124C): cause the layer (124A-124C) to release from the stack, and after the layer (124A-124C) releases from the stack, cause the at least two spacecraft (120A-120F) in the layer (124A-124C) to release from each other. a plurality of spacecraft (120A-120F) in a stack, wherein the stack has a plurality of layers (124A-124C), each layer (124A-124C) includes at least two spacecraft (120A-120F) of the plurality of spacecraft (120A-120F), and each spacecraft (120A-120F) is releasably coupled to two or more adjacent spacecraft (120A-120F) of the plurality of spacecraft (120A-120F) in the stack; a plurality of biasing devices (138A-138I) between adjacent layers (124A-124C) in the stack, wherein the plurality of biasing devices (138A-138I) apply a biasing force between the adjacent layers (124A-124C) to facilitate separating each layer (124A-124C) from the stack after the layer (124A-124C) releases from the stack, wherein, for each layer (124A-124C) of the stack, at least one of the plurality of biasing devices (138A-138I) applies a different biasing force to the layer (124A-124C) than at least another of the plurality of biasing devices (138A-138I) such that the layer (124A-124C) rotates as the layer (124A-124C) separates from the stack; and a controller configured to, for each layer (124A-124C): cause the layer (124A-124C) to release from the stack, and after the layer (124A-124C) releases from the stack, cause the at least two spacecraft (120A-120F) in the layer (124A-124C) to release from each other. cause the layer (124A-124C) to release from the stack, and after the layer (124A-124C) releases from the stack, cause the at least two spacecraft (120A-120F) in the layer (124A-124C) to release from each other.
Method for producing a pacifier nipple comprising a sucking portion which forms a cavity and to which a shaft is attached, a sucking portion and a resilient hollow body comprising the shaft being injection moulded or preformed in a dip coating process, the preformed hollow body having an opening, characterised in that a linear element which extends into the cavity formed by the sucking portion is inserted into the preformed hollow body before opposing wall portions of the preformed hollow body are interconnected in the region of the shaft, a connecting material in viscous form being introduced between the opposing wall portions, and the connecting material then being converted into a resilient state under the influence of pressure and/or heat for the purpose of connecting the wall portions, or the preformed hollow body consisting of a rubber material which is not yet completely vulcanised, the wall portions to be connected being brought into contact with one another before the rubber material is completely vulcanised by the addition of heat.
A method of bonding a tempered structural component to a building, including the steps of: (i) receiving a tempered structural component including an attachment zone, wherein the attachment zone has been prepared according to a method including the step of: applying a frit to the attachment zone; (ii) providing a building engagement face at least coextensive with the attachment zone of the structural component; (iii) applying a bonding sealant to a majority of at least one of the attachment zone or the building engagement face; and (iv) engaging the bonding sealant with the other of the attachment zone or the building engagement face the method of preparing the attachment zone includes, after the step of applying the frit, the step of: tempering the structural component so as to bond the frit to the structural component, characterised in that the attachment zone constitutes at least 10% of the total surface area of one side of the structural component; and in that the attachment zone is substantially across one edge of the structural component. including the steps of: (i) receiving a tempered structural component including an attachment zone, wherein the attachment zone has been prepared according to a method including the step of: applying a frit to the attachment zone; (ii) providing a building engagement face at least coextensive with the attachment zone of the structural component; (iii) applying a bonding sealant to a majority of at least one of the attachment zone or the building engagement face; and (iv) engaging the bonding sealant with the other of the attachment zone or the building engagement face (i) receiving a tempered structural component including an attachment zone, wherein the attachment zone has been prepared according to a method including the step of: applying a frit to the attachment zone; (ii) providing a building engagement face at least coextensive with the attachment zone of the structural component; (iii) applying a bonding sealant to a majority of at least one of the attachment zone or the building engagement face; and (iv) engaging the bonding sealant with the other of the attachment zone or the building engagement face the method of preparing the attachment zone includes, after the step of applying the frit, the step of: tempering the structural component so as to bond the frit to the structural component, characterised in that the attachment zone constitutes at least 10% of the total surface area of one side of the structural component; and in that the attachment zone is substantially across one edge of the structural component. tempering the structural component so as to bond the frit to the structural component, characterised in that the attachment zone constitutes at least 10% of the total surface area of one side of the structural component; and in that the attachment zone is substantially across one edge of the structural component.
A bottom hole assembly having an axis of rotation and comprising: a drill bit assembly configured to rotate about a longitudinal axis, a drill collar, a rotary steerable drilling tool operatively connected to the drill bit assembly, comprising: a hinged connection between the drill collar and drill bit assembly, that articulates in a single plane that is fixed relative to a point of reference on the bottom hole assembly, wherein the hinged connection is configured to articulate while the drill bit assembly is rotating about its longitudinal axis. a drill bit assembly configured to rotate about a longitudinal axis, a drill collar, a rotary steerable drilling tool operatively connected to the drill bit assembly, comprising: a hinged connection between the drill collar and drill bit assembly, that articulates in a single plane that is fixed relative to a point of reference on the bottom hole assembly, wherein the hinged connection is configured to articulate while the drill bit assembly is rotating about its longitudinal axis. a hinged connection between the drill collar and drill bit assembly, that articulates in a single plane that is fixed relative to a point of reference on the bottom hole assembly, wherein the hinged connection is configured to articulate while the drill bit assembly is rotating about its longitudinal axis.
Dishwasher having a washing container and apparatuses for washing dishes using washing liquor and having a sorption drying apparatus which is connected in an air-conducting manner to the washing container by means of air circulated in a flow direction (A, B, C) and a heater, a fan and a sorption column with reversibly dehydrateable material, wherein the sorption column is arranged in a housing with an air inlet and an air outlet, wherein the sorption column is used on the one hand to dry the dishes and on the other hand the thermal energy used for the desorption of the sorption column is used at least partially to heat up the washing liquor and/or the dishes disposed in the washing container, wherein the heater is arranged in the flow direction (A, B, C) of the air conducted by means of the fan both for drying purposes and also for heating up through the sorption column from its air inlet to its air outlet upstream of the air inlet of the sorption column, and wherein the heater is arranged in the region of the air inlet of the sorption column.
An in vitro method of determining tuberculosis infection status in an individual comprising: (i) providing a sample comprising T-cells; (ii) exposing the sample of (i) to one or more TB antigens; (iii) identifying T-cells in the sample that are CD4 positive and (a) secrete TNF-α without secreting IFN-γ; or (b) secrete IFN-γ without secreting TNF-α; (iv) identifying those cells of (iii) which are also CCR7 and CD127 negative; and optionally (v) calculating the cells identified in (iv) as a percentage of those identified in (iii); wherein the identification of cells in (iv) and/or the percentage of cells calculated in (v) correlates to TB infection status of the individual, and wherein steps (iii) and (iv) can be carried out either sequentially or simultaneously. (i) providing a sample comprising T-cells; (ii) exposing the sample of (i) to one or more TB antigens; (iii) identifying T-cells in the sample that are CD4 positive and (a) secrete TNF-α without secreting IFN-γ; or (b) secrete IFN-γ without secreting TNF-α; (iv) identifying those cells of (iii) which are also CCR7 and CD127 negative; and optionally (v) calculating the cells identified in (iv) as a percentage of those identified in (iii);
A method for controlling, by a terminal, access right for a resource in a wireless communication system, the method comprising: receiving, from a server, an operation for an operation target, wherein the operation target is a specific object instance or a resource belonging to the specific object instance; the method being characterized in that it further comprises: checking, based on an access right information associated with the operation target, whether performing the operation is granted for the server; and when the terminal determines that the performing the operation is granted for the server, in a case where the operation target is the specific object instance, determining, based on a type of the operation, whether a resource included in the specific object instance supports the operation, and in a case where the operation target is the resource, determining whether the resource supports the operation, wherein the access right information associated with the operation target is specified for the specific object instance when the operation target is the specific object instance, of for an object instance to which the resource belongs when the operation target is the resource. receiving, from a server, an operation for an operation target, wherein the operation target is a specific object instance or a resource belonging to the specific object instance; the method being characterized in that it further comprises: checking, based on an access right information associated with the operation target, whether performing the operation is granted for the server; and when the terminal determines that the performing the operation is granted for the server, in a case where the operation target is the specific object instance, determining, based on a type of the operation, whether a resource included in the specific object instance supports the operation, and in a case where the operation target is the resource, determining whether the resource supports the operation, wherein the access right information associated with the operation target is specified for the specific object instance when the operation target is the specific object instance, of for an object instance to which the resource belongs when the operation target is the resource. checking, based on an access right information associated with the operation target, whether performing the operation is granted for the server; and when the terminal determines that the performing the operation is granted for the server, in a case where the operation target is the specific object instance, determining, based on a type of the operation, whether a resource included in the specific object instance supports the operation, and in a case where the operation target is the resource, determining whether the resource supports the operation, wherein the access right information associated with the operation target is specified for the specific object instance when the operation target is the specific object instance, of for an object instance to which the resource belongs when the operation target is the resource.
Electrical appliance for performing a cutting action on hairs present on an area of skin, comprising: - a functional head having at least one movably arranged internal cutting member for cutting off the hairs, and further having an external cutting member for contacting the area of skin, wherein the external cutting member is arranged in the functional head to cover and contact the internal cutting member, and wherein the external cutting member is provided with hair-entry apertures for allowing the hairs to penetrate the external cutting member and thereby encounter the internal cutting member; and - a motor for driving the internal cutting member of the functional head; characterized in that the cutting members (5, 6) of the functional head are designed such that friction between said cutting members (5, 6) is related to a condition of wear of the cutting members (5, 6) according to a predetermined relation; wherein the appliance is equipped with measuring means for performing a measurement of a parameter related to the friction between the cutting members (5, 6), processing means for processing the measured parameter and thereby determining an actual condition of wear of the cutting members (5, 6) on the basis of the measured parameter, and indicating means for providing a user of the appliance with information relating to the actual condition of wear of the cutting members (5, 6). - a functional head having at least one movably arranged internal cutting member for cutting off the hairs, and further having an external cutting member for contacting the area of skin, wherein the external cutting member is arranged in the functional head to cover and contact the internal cutting member, and wherein the external cutting member is provided with hair-entry apertures for allowing the hairs to penetrate the external cutting member and thereby encounter the internal cutting member; and - a motor for driving the internal cutting member of the functional head; characterized in that the cutting members (5, 6) of the functional head are designed such that friction between said cutting members (5, 6) is related to a condition of wear of the cutting members (5, 6) according to a predetermined relation;
A laser-operated light source, comprising: a chamber for accommodating an ionizable gas and a plasma formed by energizing the ionizable gas; a laser for inputting laser energy into the plasma such that, under the impact of the laser radiation, the plasma emits useful light via an output window, which forms the output signal of the light source; characterized in that the laser-operated light source further comprises means for coupling the useful light into a transferring optical fiber; an optical system arranged between the chamber and the transferring optical fiber, configured to image the plasma onto the end of the optical fiber facing the optical system, wherein the optical system comprises: collimating optics (18, 26) configured to receive and collimate a plasma image from the chamber via the output window; and focusing optics (20, 28) configured to receive and focus a collimated image from the collimating optics onto an input plane of the transferring optical fiber, wherein the collimating optics and focusing optics are configured such that aberration introduced to the useful light is reduced at the input plane of the transferring optical fiber, and the aberration comprises at least one of the group consisting of chromatic aberration, spherical aberration, and comatic aberration. a chamber for accommodating an ionizable gas and a plasma formed by energizing the ionizable gas; a laser for inputting laser energy into the plasma such that, under the impact of the laser radiation, the plasma emits useful light via an output window, which forms the output signal of the light source; characterized in that the laser-operated light source further comprises means for coupling the useful light into a transferring optical fiber; an optical system arranged between the chamber and the transferring optical fiber, configured to image the plasma onto the end of the optical fiber facing the optical system, wherein the optical system comprises: collimating optics (18, 26) configured to receive and collimate a plasma image from the chamber via the output window; and focusing optics (20, 28) configured to receive and focus a collimated image from the collimating optics onto an input plane of the transferring optical fiber, wherein the collimating optics and focusing optics are configured such that aberration introduced to the useful light is reduced at the input plane of the transferring optical fiber, and the aberration comprises at least one of the group consisting of chromatic aberration, spherical aberration, and comatic aberration.
An induction hob comprising a plurality of induction coils (12, 14, 16, 18); drive circuitry (22, 24) for powering the induction coils; a user interface connected with the drive circuitry; and a housing which supports the induction coils, the drive circuitry and the user interface; the housing comprises a bottom part made of molded plastic comprising mounting means for the mounting of the induction coils (14, 16, 18, 20), the drive circuitry (22, 24) and the user interface; wherein the housing further comprises at least one fan (28, 30) for conveying air through the housing; characterized in that the bottom part comprises a plurality of integrally formed air guides for directing air through the housing and dividing the housing into a plurality of separate housing compartments; wherein the air guides comprise wall elements that span the height of the interior of the housing. a plurality of induction coils (12, 14, 16, 18); drive circuitry (22, 24) for powering the induction coils; a user interface connected with the drive circuitry; and a housing which supports the induction coils, the drive circuitry and the user interface; the housing comprises a bottom part made of molded plastic comprising mounting means for the mounting of the induction coils (14, 16, 18, 20), the drive circuitry (22, 24) and the user interface; wherein the housing further comprises at least one fan (28, 30) for conveying air through the housing; characterized in that the bottom part comprises a plurality of integrally formed air guides for directing air through the housing and dividing the housing into a plurality of separate housing compartments; wherein the air guides comprise wall elements that span the height of the interior of the housing.
A polymer light-emitting material for an organic electroluminescent device obtained by subjecting a thermoplastic resin having a weight average molecular weight of 2,000-1,000,000 and containing a reactive functional group in a unit constituting the backbone wherein the thermoplastic resin containing a reactive functional group is obtainable by polymerizing a monomer comprising a haloalkyl-substituted aromatic vinyl compound, and a metal-containing phosphorescent dopant compound containing a reactive group capable of reacting with the said functional group to a polymer reaction so as to link a phosphorescent dopant moiety derived from the metal-containing phosphorescent dopant compound to the unit constituting the backbone of the thermoplastic resin wherein the content of the metal in the said polymer light-emitting material is 0.001-20 wt% wherein the metal-containing phosphorescent dopant compound is an organic metal complex containing at least one metal selected from ruthenium, rhodium, palladium, silver, rhenium, osmium, iridium, platinum, and gold.