mhurhangee/ep-ind-claims huggingface dataset:
A compound of Formula I wherein Q is O, NH, N C, or C N; R 1 is C 1-5 alkylS 2 CH 3, or C 1-6 alkyl wherein said alkyl can comprise straight-chain portions, branched chain portions, cycloalkyl portions, and wherein said C 1-6 alkyl is optionally substituted by one OH or OCH 3 and wherein said C 1-6 alkyl is optionally further substituted by 1 to 3 Fluorine atoms; and R 2 is H, C 1-3 alkyl, or halogen. wherein Q is O, NH, N C, or C N; R 1 is C 1-5 alkylS 2 CH 3, or C 1-6 alkyl wherein said alkyl can comprise straight-chain portions, branched chain portions, cycloalkyl portions, and wherein said C 1-6 alkyl is optionally substituted by one OH or OCH 3 and wherein said C 1-6 alkyl is optionally further substituted by 1 to 3 Fluorine atoms; and R 2 is H, C 1-3 alkyl, or halogen.
A single-ski assembly for a snowmobile comprising a steering assembly and attaching means generally adapted to receive two skis, characterized in that the single-ski assembly comprises: a first pair of connecting members (112, 162) attachable to a front left end of the snowmobile; a second pair of connecting members (112', 162') attachable to a front right end of the snowmobile; and a steering member connectable to the steering assembly and attachable to a ski, the angle between a steering axis of the steering member and an axis substantially perpendicular to a travelling surface being between 0 degree and 60 degrees. a first pair of connecting members (112, 162) attachable to a front left end of the snowmobile; a second pair of connecting members (112', 162') attachable to a front right end of the snowmobile; and a steering member connectable to the steering assembly and attachable to a ski, the angle between a steering axis of the steering member and an axis substantially perpendicular to a travelling surface being between 0 degree and 60 degrees.
A patient interface comprising a coupling element 1 for a strap, which coupling element is designed as an integral part of a forehead support of the patient interface, the coupling element 1 comprising at least one plane of symmetry S and at least four receiving means 5, 6 for a strap end 4 of a strap 3, the receiving means 5, 6 being arranged in pairs on both sides of the plane of symmetry S and it being possible to fasten a strap end 4 on one side of the coupling element either to the receiving means 5 or to the receiving means 6 and the receiving means 5 being arranged spatially adjacent to the receiving means 6 and closer to the plane of symmetry S than the receiving means 6, the coupling element 1 comprising at least one plane that extends in parallel with the contact surface, namely the forehead of a user, the coupling element 1 extending at least in portions at an angle from the plane with a rounded contour and defining a recess and the receiving means 5, 6 being arranged at different distances from the forehead of a user, the receiving means 5, 6 being designed as a closed or slotted rib, and the closed ribs 5 being arranged further in', relative to the slotted ribs 6 on the outside, closer to the plane of symmetry s, characterized in that the slotted ribs 6 and/or the closed ribs 5 extend askew relative to one another and/or to the axis of symmetry S.
An insulated structure for a household appliance, the insulated structure comprising: a metallic liner; an outer metallic wrapper; an insulating cavity defined between the metallic liner and outer metallic wrapper; and a pressure sensing device disposed within the insulating cavity, wherein the pressure sensing device is located to detect a pressure status and transmit the pressure status through at least one of the metallic liner and the outer metallic wrapper, wherein at least one of the metallic liner and the metallic outer wrapper includes a window configured to allow a wireless signal to pass therethrough, the window being sealedly coupled to an opening defined by one of the metallic liner and the outer metallic wrapper, characterised in that the pressure sensing device is a strain gauge. a metallic liner; an outer metallic wrapper; an insulating cavity defined between the metallic liner and outer metallic wrapper; and a pressure sensing device disposed within the insulating cavity, wherein the pressure sensing device is located to detect a pressure status and transmit the pressure status through at least one of the metallic liner and the outer metallic wrapper, wherein at least one of the metallic liner and the metallic outer wrapper includes a window configured to allow a wireless signal to pass therethrough, the window being sealedly coupled to an opening defined by one of the metallic liner and the outer metallic wrapper, characterised in that the pressure sensing device is a strain gauge.
An adaptive arc fault detection device comprising: a memory (112, 130) configured to store data of one or more types of arc fault tripping events previously detected on a circuit over a period of time, each previously detected type of arc fault tripping event having resulted in the interruption of the circuit at least one time upon detection thereof; and a processor, in communication with the memory (112, 130), the processor configured to: determine whether a newly detected arc fault tripping event is an unwanted tripping event based on a number of times a same type of arc fault tripping event, as the newly detected arc fault tripping event, has previously occurred, and inhibit interruption of the circuit if the newly detected arc fault tripping event is determined to be an unwanted tripping event. a memory (112, 130) configured to store data of one or more types of arc fault tripping events previously detected on a circuit over a period of time, each previously detected type of arc fault tripping event having resulted in the interruption of the circuit at least one time upon detection thereof; and a processor, in communication with the memory (112, 130), the processor configured to: determine whether a newly detected arc fault tripping event is an unwanted tripping event based on a number of times a same type of arc fault tripping event, as the newly detected arc fault tripping event, has previously occurred, and inhibit interruption of the circuit if the newly detected arc fault tripping event is determined to be an unwanted tripping event. determine whether a newly detected arc fault tripping event is an unwanted tripping event based on a number of times a same type of arc fault tripping event, as the newly detected arc fault tripping event, has previously occurred, and inhibit interruption of the circuit if the newly detected arc fault tripping event is determined to be an unwanted tripping event.
A method for determining sensitivity of a subject to an anti-cancer agent, comprising measuring the level of a protein selected from the group consisting of a protein or a fragment thereof which is detected as a peak at m/z of 5,300 to 5,400, a protein or a fragment thereof which is detected as a peak at m/z of 6,130 to 6,230, a protein or a fragment thereof which is detected as a peak at m/z of 7,000 to 7,080, a protein or a fragment thereof which is detected as a peak at m/z of 7,840 to 7,920, a protein or a fragment thereof which is detected as a peak at m/z of 8,920 to 9,000, a protein or a fragment thereof which is detected as a peak at m/z of 12,440 to 12,560, a protein or a fragment thereof which is detected as a peak at m/z of 17,100 to 17,270, a protein or a fragment thereof which is detected as a peak at m/z of 18,290 to 18,470, a protein or a fragment thereof which is detected as a peak at m/z of 24,660 to 24,750, a protein or a fragment thereof which is detected as a peak at m/z of 35,980 to 36,290, a protein or a fragment thereof which is detected as a peak at m/z of 8,650 to 8,750, a protein or a fragment thereof which is detected as a peak at m/z of 9,100 to 9,200, and a protein or a fragment thereof which is detected as a peak at m/z of 11,760 to 11,890, in a specimen derived from the subject, the peaks being determined by means of a mass spectrometer, wherein the anti-cancer agent is a combination of fluorouracil or a salt thereof and oxaliplatin or a salt thereof.
Apparatus for producing a packaging material product from a fiber starting material, such as a single-ply or multi-ply paper web or a corrugated board web, in particular of recycled paper, comprising: a separating device for separating the packaging material product from a packaging material strand, such as a corrugated board web or a three-dimensional paper cushioning strand formed from the fiber starting material in the apparatus; a pair of feed wheels arranged in the conveying direction upstream of the separating device for conveying the packaging material strand; and a pair of discharge wheels arranged in the conveying direction downstream of the separating device for discharging the packaging material strand; a conveyor channel extending at least at the conveying direction level of the separating device in the conveying direction, which channel is bordered by a boundary wall; and a slit formed in the boundary wall, which slit is designed in such a way that a blade of the separating device can move in and out of the slit without contact, characterized in that the slit is formed into the boundary wall in such a way that the blade comes into cutting engagement with the packaging material strand before entering the slit. a separating device for separating the packaging material product from a packaging material strand, such as a corrugated board web or a three-dimensional paper cushioning strand formed from the fiber starting material in the apparatus; a pair of feed wheels arranged in the conveying direction upstream of the separating device for conveying the packaging material strand; and a pair of discharge wheels arranged in the conveying direction downstream of the separating device for discharging the packaging material strand; a conveyor channel extending at least at the conveying direction level of the separating device in the conveying direction, which channel is bordered by a boundary wall; and a slit formed in the boundary wall, which slit is designed in such a way that a blade of the separating device can move in and out of the slit without contact, characterized in that the slit is formed into the boundary wall in such a way that the blade comes into cutting engagement with the packaging material strand before entering the slit.
Method for producing at least one solid layer in accordance with predefined geometry data stored in a memory, wherein at least one emitter arrangement (11, 11A, 11B, 11C, 11D) having multiple spaced-apart emitters in the form of material dispensing nozzles is provided to dispense portions of a material, that can be passed through nozzles, onto a substrate and/or a solidified material layer located on it, wherein the emitter arrangement (11, 11A, 11B, 11C, 11D) has multiple emitter columns (13A, 13B, 13C), in which the centre points of the emitters are each offset in relation to one another in a straight line, wherein the substrate is rotationally positioned about an axis of rotation relative to the emitter arrangement (11, 11A, 11B, 11C, 11D) and, by means of the emitters, the material portions are applied to the substrate and/or the solidified material layer located on it and then solidified, wherein the centre point of that emitter of the emitter arrangement (11, 11A, 11B, 11C, 11D) that is furthest away from the axis of rotation is at a first radial distance from the axis of rotation and the centre point of the emitter arranged closest to the axis of rotation is at a second radial distance from the axis of rotation, wherein a trigger signal defining trigger points (20, 21, 22) for the rotational position of the emitter arrangement (11, 11A, 11B, 11C, 11D) relative to the substrate is generated, wherein, for the individual emitters and on the basis of the geometry data stored in the memory and/or on the basis of the position at which the relevant emitter is arranged relative to the substrate when said relevant emitter is positioned at the respective trigger point (20, 21, 22) relative to the emitter arrangement (11, 11A, 11B, 11C, 11D), a respective activation signal is generated and temporarily stored, wherein the emitters are each actuated at the trigger points (20, 21, 22) in such a way that only those emitters at which the activation signal temporarily stored beforehand is provided dispense material, wherein the angle between mutually adjacent trigger points (20, 21, 22) is selected such that it corresponds to the angle (α) formed between a first radial line and a second radial line, wherein the first radial line runs from the axis of rotation to the point of intersection of a first emitter column and a circular reference line (25, 25A, 25B, 25C, 25D) that is concentric with the axis of rotation, and the second radial line runs from the axis of rotation to the point of intersection of a second emitter column, which is adjacent to the first emitter column in the circumferential direction of the axis of rotation, and the circular reference line (25, 25A, 25B, 25C, 25D), wherein the radius of the circular reference line (25, 25A, 25B, 25C, 25D) is less than the sum of 90% of the first radial distance and 10% of the second radial distance, and wherein the radius of the circular reference line (25, 25A, 25B, 25C, 25D) is greater than the sum of 10% of the first radial distance and 90% of the second radial distance.
An optical probe for a gas turbine engine comprising: a housing; a plurality of optical fibers, a portion of each of the optical fibers secured to fiber holders; an optical head disposed within the housing and having channels extending in a longitudinal direction of the optical head, the fiber holders disposed within the channels; a cap disposed within the housing and operatively coupled to the optical head, the plurality of optical fibers extending through the cap; and an inner tube operatively coupled to the cap, the plurality of fibers extending through the inner tube; and an outer tube surrounding a portion of the inner tube, the inner tube and the outer tube being radially spaced from each other to define an annulus therebetween arranged to allow cooling air to be routed therethrough or to purge the interior of the housing, the outer tube being operatively coupled to the housing. a housing; a plurality of optical fibers, a portion of each of the optical fibers secured to fiber holders; an optical head disposed within the housing and having channels extending in a longitudinal direction of the optical head, the fiber holders disposed within the channels; a cap disposed within the housing and operatively coupled to the optical head, the plurality of optical fibers extending through the cap; and an inner tube operatively coupled to the cap, the plurality of fibers extending through the inner tube; and an outer tube surrounding a portion of the inner tube, the inner tube and the outer tube being radially spaced from each other to define an annulus therebetween arranged to allow cooling air to be routed therethrough or to purge the interior of the housing, the outer tube being operatively coupled to the housing.
A method of producing a slaughter-free fibrous protein product, the method comprising the steps of: (a) providing a wet textured product material, wherein the wet textured product material comprises - at least 10wt% of proteins possessing a fibrous structure - at least 35wt% water; and (b) elastic-plastically deforming the wet textured product material by rolling at least once, thereby changing the fibrous structure, to obtain a slaughter-free fibrous protein product, wherein the slaughter-free fibrous protein product, is a deformed product. (a) providing a wet textured product material, wherein the wet textured product material comprises - at least 10wt% of proteins possessing a fibrous structure - at least 35wt% water; and - at least 10wt% of proteins possessing a fibrous structure - at least 35wt% water; and (b) elastic-plastically deforming the wet textured product material by rolling at least once, thereby changing the fibrous structure, to obtain a slaughter-free fibrous protein product, wherein the slaughter-free fibrous protein product, is a deformed product.
A method for using a power saving signaling pattern, comprising: determining, by a terminal, a Discontinuous Reception, DRX, timer in an operating state, the DRX timer being one of: an on duration timer with a long DRX cycle and an on duration timer with a short DRX cycle; determining to use a first pattern for monitoring the power saving signaling in response to the DRX timer being the on duration timer with the long DRX cycle; determining to use a second pattern for monitoring the power saving signaling in response to the DRX timer being the on duration timer with the short DRX cycle; and monitoring, by the terminal, the power saving signaling based on the determined pattern for monitoring the power saving signaling; wherein the first pattern for monitoring the power saving signaling is different from the second pattern for monitoring the power saving signaling; wherein, the pattern for monitoring the power saving signaling comprises a cycle of the power saving signaling; the cycle of the power saving signaling is one of 1/N times and N times of a DRX cycle; the DRX cycle is one of the long DRX cycle and the short DRX cycle; wherein, N is an integer greater than or equal to 1. determining, by a terminal, a Discontinuous Reception, DRX, timer in an operating state, the DRX timer being one of: an on duration timer with a long DRX cycle and an on duration timer with a short DRX cycle; determining to use a first pattern for monitoring the power saving signaling in response to the DRX timer being the on duration timer with the long DRX cycle; determining to use a second pattern for monitoring the power saving signaling in response to the DRX timer being the on duration timer with the short DRX cycle; and monitoring, by the terminal, the power saving signaling based on the determined pattern for monitoring the power saving signaling; wherein the first pattern for monitoring the power saving signaling is different from the second pattern for monitoring the power saving signaling; wherein, the pattern for monitoring the power saving signaling comprises a cycle of the power saving signaling; the cycle of the power saving signaling is one of 1/N times and N times of a DRX cycle; the DRX cycle is one of the long DRX cycle and the short DRX cycle; wherein, N is an integer greater than or equal to 1.
Method for storing and outputting energy, wherein electrical energy is reversibly stored in a storage system, wherein a first portion of the electrical energy is stored as potential energy and a second portion is stored chemically in a chemical storage of the storage system, characterized in that the storing and outputting of potential energy is performed at least temporarily by changing a position of the chemical storage relative to a gravitational field, wherein the chemical storage is raised relative to the gravitational field in order to store energy and is lowered relative to the gravitational field in order to output energy.
Gypsum-cement dry mixture comprising - a binding medium containing calcium sulfate hemihydrate or a mixture of at least 50% thereof by weight and a hydraulic cement in a weight ratio of 5:1 to 3:1 - an aggregate selected from comminuted wood, plastic, expanded clay, perlite, or a foam, or a mixture thereof - additives, containing - at least one plasticizer - at least one air-entraining agent - at least one stabilizer - at least one retarder/accelerator; i.e., an additive that acts both as a retarder and an accelerator characterized by the fact that the additives are present in dry form and the mass portion of the sum of all additives in the dry mixture amounts to < 1%, the stabilizer is selected from fluorophosphates or condensed phosphates, the retarder/accelerator is a water-soluble anionic polymer, and the mass ratio of stabilizer to retarder/accelerator amounts to 3:1 to 1:3. - a binding medium containing calcium sulfate hemihydrate or a mixture of at least 50% thereof by weight and a hydraulic cement in a weight ratio of 5:1 to 3:1 - an aggregate selected from comminuted wood, plastic, expanded clay, perlite, or a foam, or a mixture thereof - additives, containing - at least one plasticizer - at least one air-entraining agent - at least one stabilizer - at least one retarder/accelerator; i.e., an additive that acts both as a retarder and an accelerator - at least one plasticizer - at least one air-entraining agent - at least one stabilizer - at least one retarder/accelerator; i.e., an additive that acts both as a retarder and an accelerator
Getter device containing non-evaporable getter alloy powders having high gas sorption efficiency, particularly for hydrogen and carbon monoxide, characterized in that said alloy powders comprise as compositional elements zirconium, vanadium, titanium and aluminum and have an atomic percentage composition of said elements which can vary within the following ranges: a. zirconium from 38 to 44,8% b. vanadium from 14 to 29% c. titanium from 13 to 15% d. aluminum from 11,5 to 35% said atomic percentage ranges being considered with respect to the sum of zirconium, vanadium, titanium and aluminum in the non-evaporable getter, said non-evaporable getter alloy optionally comprising one or more additional elements in an atomic percentage composition lower than 8% with respect to the total of the alloy composition, said one or more additional elements being selected from the group consisting of iron, chromium, manganese, cobalt or nickel in an atomic percentage composition comprised between 0,1 and 7% with respect to the total of the alloy composition while minor amounts of other chemical elements may be present in the alloy composition in a percentage lower than 1% with respect to the total of the alloy composition, being the sum of zirconium, vanadium, titanium, aluminum and said optionally present additional elements balanced to 100% atomic percentage composition. a. zirconium from 38 to 44,8% b. vanadium from 14 to 29% c. titanium from 13 to 15% d. aluminum from 11,5 to 35%