mhurhangee/ep-ind-claims huggingface dataset:
A multi-piece hydroponic tower, comprising: a tower body, said tower body comprising a rear cavity wall, and first and second side walls extending from opposing edges of the rear cavity wall, thereby defining a first tower cavity, said first tower cavity configured to provide a passageway for a water/nutrient mix; a first tower face plate, wherein an edge portion of said first tower face plate is hingeably coupled to said first side wall of said tower body, wherein said first tower face plate is configured to be positioned relative to said tower body in at least a first tower cavity closed position and a first tower cavity open position via said hingeably coupled edge portion, said first tower face plate comprising a first plurality of plant container cut-outs, said first plurality of plant container cut-outs configured to accept a first plurality of plant containers; and a first fastener configured to temporarily latch said first tower face plate to said second side wall of said tower body when said first tower face plate is in said first tower cavity closed position. a tower body, said tower body comprising a rear cavity wall, and first and second side walls extending from opposing edges of the rear cavity wall, thereby defining a first tower cavity, said first tower cavity configured to provide a passageway for a water/nutrient mix; a first tower face plate, wherein an edge portion of said first tower face plate is hingeably coupled to said first side wall of said tower body, wherein said first tower face plate is configured to be positioned relative to said tower body in at least a first tower cavity closed position and a first tower cavity open position via said hingeably coupled edge portion, said first tower face plate comprising a first plurality of plant container cut-outs, said first plurality of plant container cut-outs configured to accept a first plurality of plant containers; and a first fastener configured to temporarily latch said first tower face plate to said second side wall of said tower body when said first tower face plate is in said first tower cavity closed position.
Binder particles which have a volume-average particle diameter of 10 nm or more and 50,000 nm or less and which encompass an ion-conductive substance, wherein the ion-conductive substance is selected from an inorganic solid electrolyte, a solid polymer electrolyte, a gel electrolyte and a liquid electrolyte, wherein the inorganic solid electrolyte is selected from a sulfide-based inorganic solid electrolyte and an oxide-based inorganic solid electrolyte, wherein the solid polymer electrolyte is selected from a polyethylene oxide, a polyacrylonitrile and a polycarbonate, and the solid polymer electrolyte contains at least one supporting electrolyte, wherein the gel electrolyte is selected from the electrolytes obtained by swelling polyethylene oxide, polyvinylidene fluoride, polymethyl methacrylate or polyacrylonitrile using a liquid electrolyte, wherein the liquid electrolyte is an aprotic organic solvent having 2 to 10 carbon atoms and having an ether group, a carbonyl group, an ester group or a carbonate group, wherein the ion-conductive substance is coated with a polymer having a mass ratio of 30% or more of the ion-conductive substance, wherein the polymer is selected from a fluorine-containing resin, a hydrocarbon-based thermoplastic resin, an acrylic resin, a vinyl resin, a urethane resin, polyurea, polyamide, polyimide, polyester and polyether, and wherein the volume-average particle diameter is measured in accordance with the method in the description. wherein the inorganic solid electrolyte is selected from a sulfide-based inorganic solid electrolyte and an oxide-based inorganic solid electrolyte, wherein the solid polymer electrolyte is selected from a polyethylene oxide, a polyacrylonitrile and a polycarbonate, and the solid polymer electrolyte contains at least one supporting electrolyte, wherein the gel electrolyte is selected from the electrolytes obtained by swelling polyethylene oxide, polyvinylidene fluoride, polymethyl methacrylate or polyacrylonitrile using a liquid electrolyte, wherein the liquid electrolyte is an aprotic organic solvent having 2 to 10 carbon atoms and having an ether group, a carbonyl group, an ester group or a carbonate group, wherein the ion-conductive substance is coated with a polymer having a mass ratio of 30% or more of the ion-conductive substance, wherein the polymer is selected from a fluorine-containing resin, a hydrocarbon-based thermoplastic resin, an acrylic resin, a vinyl resin, a urethane resin, polyurea, polyamide, polyimide, polyester and polyether, and wherein the volume-average particle diameter is measured in accordance with the method in the description.
A method comprising: measuring, at a user device, a cell specific reference signal for a cell having a plurality of transmission points (20, 21, 22), and initially measuring at least one other reference signal transmitted by at least one of said plurality of transmission points; identifying a change in a measured parameter of the cell specific reference signal; and characterized by: based on the identifying, triggering another measurement of said at least one other reference signal. measuring, at a user device, a cell specific reference signal for a cell having a plurality of transmission points (20, 21, 22), and initially measuring at least one other reference signal transmitted by at least one of said plurality of transmission points; identifying a change in a measured parameter of the cell specific reference signal; and characterized by: based on the identifying, triggering another measurement of said at least one other reference signal. based on the identifying, triggering another measurement of said at least one other reference signal.
Method of preparing a nanomaterial containing 80 to 100 mol% of TiO 2 and 0 to 20 mol% of another metal or semi-metal oxide, chosen particularly from among SiO 2, ZrO 2, WO 3, ZnO, Al 2 O 3 and Fe 2 O 3, with a specific surface area of between 100 and 300 m 2.g -1 and from 1 to 3 hydroxyl groups per nm 2, said method including the following steps: a) Synthesis of a material composed of 80 to 100 mol% of TiO 2 and 0 to 20 mol% of another oxide starting from a titanium oxide precursor or a mixture of a titanium oxide precursor and a precursor of another oxide, the synthesis being made in an aqueous medium at a pH between 0 and 1 and at a temperature from 40 to 95°C, and in the presence of a non-ionic surfactant chosen from among alkenyl ethers of polyoxyethylene glycol and poloxamers; b) Elimination of the surfactant from the material synthesised in the previous step by the following steps: b1) Preparation of a metallised material by washing the material containing the surfactant with an aqueous solution of a bivalent metal salt and an aqueous solution of ammonia, b2) Recovery of the metallised material on the one hand and a washing solution on the other hand, b3) Treatment of the metallised material with a mineral acid to remove the metal from the material, c) Recovery of a nanomaterial with no surfactant on the one hand and a residual solution on the other hand. a) Synthesis of a material composed of 80 to 100 mol% of TiO 2 and 0 to 20 mol% of another oxide starting from a titanium oxide precursor or a mixture of a titanium oxide precursor and a precursor of another oxide, the synthesis being made in an aqueous medium at a pH between 0 and 1 and at a temperature from 40 to 95°C, and in the presence of a non-ionic surfactant chosen from among alkenyl ethers of polyoxyethylene glycol and poloxamers; b) Elimination of the surfactant from the material synthesised in the previous step by the following steps: b1) Preparation of a metallised material by washing the material containing the surfactant with an aqueous solution of a bivalent metal salt and an aqueous solution of ammonia, b2) Recovery of the metallised material on the one hand and a washing solution on the other hand, b3) Treatment of the metallised material with a mineral acid to remove the metal from the material, b1) Preparation of a metallised material by washing the material containing the surfactant with an aqueous solution of a bivalent metal salt and an aqueous solution of ammonia, b2) Recovery of the metallised material on the one hand and a washing solution on the other hand, b3) Treatment of the metallised material with a mineral acid to remove the metal from the material, c) Recovery of a nanomaterial with no surfactant on the one hand and a residual solution on the other hand.
A method for respiration entrainment of a subject, comprising: determining a rate of respiration of the subject; characterised in that the method further comprises the steps of: altering, based on the determined rate of respiration, a spatialization of a virtual sound source to simulate a distance or directionality of the virtual sound source with reference to the subject, wherein the virtual sound source corresponds to a physical location (404, 406) in a real-world environment surrounding the subject which is perceived as a location from which sound radiates, but at which no sound is actually produced by an object, wherein simulating the distance or directionality comprises processing sounds of the virtual sound source to generate a perception of the sounds of the virtual sound source being heard from one or more distances or directions with reference to the subject, wherein the spatialization of the virtual sound source is altered to regulate the rate of respiration of the subject; and outputting the sounds of the altered virtual sound source. determining a rate of respiration of the subject; characterised in that the method further comprises the steps of: altering, based on the determined rate of respiration, a spatialization of a virtual sound source to simulate a distance or directionality of the virtual sound source with reference to the subject, wherein the virtual sound source corresponds to a physical location (404, 406) in a real-world environment surrounding the subject which is perceived as a location from which sound radiates, but at which no sound is actually produced by an object, wherein simulating the distance or directionality comprises processing sounds of the virtual sound source to generate a perception of the sounds of the virtual sound source being heard from one or more distances or directions with reference to the subject, wherein the spatialization of the virtual sound source is altered to regulate the rate of respiration of the subject; and outputting the sounds of the altered virtual sound source. altering, based on the determined rate of respiration, a spatialization of a virtual sound source to simulate a distance or directionality of the virtual sound source with reference to the subject, wherein the virtual sound source corresponds to a physical location (404, 406) in a real-world environment surrounding the subject which is perceived as a location from which sound radiates, but at which no sound is actually produced by an object, wherein simulating the distance or directionality comprises processing sounds of the virtual sound source to generate a perception of the sounds of the virtual sound source being heard from one or more distances or directions with reference to the subject, wherein the spatialization of the virtual sound source is altered to regulate the rate of respiration of the subject; and outputting the sounds of the altered virtual sound source.
A connecting device for connecting a movable furniture part, especially a drawer, comprising a runner rail of a pull-out guide, wherein the connecting device comprises a coupling element which can interact with a corresponding coupling element of the runner rail, and wherein the connecting device comprises adjusting means in order to adjust the coupling element in at least one spatial direction, and comprises locking means to secure an interaction of the two coupling elements (21, 41), and wherein the adjusting means and the locking means each comprise actuating elements, of which at least two have a common rotation or swivel axis, characterized in that the adjusting means are used for lateral displacement of the coupling element and comprise a rotatably mounted actuating knob as an actuating element, which acts by means of an eccentric on the coupling element, and/or the locking means comprises a latch which is mounted in a linearly displaceable manner and a pivotably mounted swivel arm as an actuating element.
A method of producing 5-hydroxymethylfurfural from carbohydrates comprising: carrying out the reaction in liquid phase at 60 °C-300 °C using carbohydrate(s) as feedstock in the presence of tantalum compound(s) as catalyst.
A mining machine comprising: a machine frame movable along a conveyor device; and a drum pair including a first drum and a second drum, each of the first and second drums (19A, 19B) being equipped with extracting tools and rotatable about its drum axis, the drum pair being adjustable in height relative to the machine frame by means of a swivel arm, each of the drum axes of the drums (19A, 19B) being substantially parallel to the direction of travel (F, F') of the mining machine, the alignment of each of the drum axes relative to the direction of travel (F, F') being adjustable about a tilt angle (α), characterised in that the extracting tools are mounted in groups on tool carriers disposed on the circumference of the first and second drums (19A, 19B) so as to be rotatable about rotation axes disposed transversely in relation to the drum axis, and in that the rotation axes of the tool carriers on the first drum are at an angle of 90° - γ in relation to the drum axis and the rotation axes of the tool carriers on the second drum are at an angle of 90° + γ in relation to the drum axis. a machine frame movable along a conveyor device; and a drum pair including a first drum and a second drum, each of the first and second drums (19A, 19B) being equipped with extracting tools and rotatable about its drum axis, the drum pair being adjustable in height relative to the machine frame by means of a swivel arm, each of the drum axes of the drums (19A, 19B) being substantially parallel to the direction of travel (F, F') of the mining machine, the alignment of each of the drum axes relative to the direction of travel (F, F') being adjustable about a tilt angle (α), characterised in that the extracting tools are mounted in groups on tool carriers disposed on the circumference of the first and second drums (19A, 19B) so as to be rotatable about rotation axes disposed transversely in relation to the drum axis, and in that the rotation axes of the tool carriers on the first drum are at an angle of 90° - γ in relation to the drum axis and the rotation axes of the tool carriers on the second drum are at an angle of 90° + γ in relation to the drum axis.
A computing system, comprising: target filtering logic that receives attack data indicative of malicious activity on a monitored computing system and applies a target filter to the attack data to cluster the attack data based on attack targets; wherein the clustered attack data is used for identifying that the malicious activity is a targeted attack; a malicious activity security system that identifies the malicious activity as a targeted attack if the malicious activity preferentially attacks a target cluster, and that obtains attack characteristics indicative of the targeted attack and attacker characteristics indicative of an identity of an attacker corresponding to the targeted attack, wherein the target cluster is a group of users that are targeted or a specific tenant or cluster of tenants on which the malicious activity is concentrated; and control signal generator logic that controls a remedial action system to take a remedial action to inhibit the targeted attack based on the attack characteristics and the attacker characteristics. target filtering logic that receives attack data indicative of malicious activity on a monitored computing system and applies a target filter to the attack data to cluster the attack data based on attack targets; wherein the clustered attack data is used for identifying that the malicious activity is a targeted attack; a malicious activity security system that identifies the malicious activity as a targeted attack if the malicious activity preferentially attacks a target cluster, and that obtains attack characteristics indicative of the targeted attack and attacker characteristics indicative of an identity of an attacker corresponding to the targeted attack, wherein the target cluster is a group of users that are targeted or a specific tenant or cluster of tenants on which the malicious activity is concentrated; and control signal generator logic that controls a remedial action system to take a remedial action to inhibit the targeted attack based on the attack characteristics and the attacker characteristics.
Screw having a bolt, a diaphragm which in the centre is held by the bolt and externally is encompassed by a sleeve, on which membrane a force component to be measured is exertable transversely to the longitudinal direction of the bolt, wherein the sleeve is spaced apart from the bolt in such a manner that the diaphragm is elongated so as to depend on the force component, wherein a sensor system (14 to 16) for measuring elongation is provided on the diaphragm.
A method performed by a serving gateway, SGW, (108, 1308) for handling bearers in a communications system, the method comprising: detecting (1402, 1504 1803) that a procedure for activating or deactivating a bearer has been initiated, which bearer is associated with a Packet Data Network, PDN, connection and a User Equipment, UE,; receiving (1404, 1507, 1806) a first modify bearer or modify access bearers request message from a mobility management entity, MME, (105, 1305) for the same PDN connection and UE as the bearer activation or deactivation procedure is intended for, which message identifies a first set of bearers associated with said same PDN connection and UE; detecting (1405, 1807) at least one bearer mismatch between the first set of bearers and a second set of bearers known by the SGW (108, 1308) and associated with said same PDN connection and UE; accepting (1406, 1808), during a time interval from the procedure has been detected, the received modify bearer or modify access bearers request message even though the bearer mismatch has been detected. detecting (1402, 1504 1803) that a procedure for activating or deactivating a bearer has been initiated, which bearer is associated with a Packet Data Network, PDN, connection and a User Equipment, UE,; receiving (1404, 1507, 1806) a first modify bearer or modify access bearers request message from a mobility management entity, MME, (105, 1305) for the same PDN connection and UE as the bearer activation or deactivation procedure is intended for, which message identifies a first set of bearers associated with said same PDN connection and UE; detecting (1405, 1807) at least one bearer mismatch between the first set of bearers and a second set of bearers known by the SGW (108, 1308) and associated with said same PDN connection and UE; accepting (1406, 1808), during a time interval from the procedure has been detected, the received modify bearer or modify access bearers request message even though the bearer mismatch has been detected.
A method for verifying the authenticity of a digital data set, D, comprising: selecting a plurality, T, of secret values, s i; for selected ones of the secret values, computing a representative value, r, as the output of a randomizing function; computing a public key, K pub, from the representative values; computing a document function value, h doc, of the digital data set; compiling a set of T authentication code values, H, by computing each authentication code value as an at least pseudo-randomizing functional combination of the document function value and a respective one of the secret values; timestamping the set of T authentication code values at a signing time t, said timestamping being synchronized with physical time, and compiling a time vector corresponding to a digital representation of the signing time; grouping binary bits of the time vector into time vector elements; digitally signing the set of authentication code values at the signing time r to yield a first signature, S t; compiling a selected key vector, K, having a plurality of key vector elements; setting each key vector element to either the value of the respective secret value, s i, or to its corresponding representative value, r i, depending on the logical state of a corresponding time vector element; and forming a signature, S, of the digital data set, D, to include the set of authentication code values, the first signature, and the selected key vector. selecting a plurality, T, of secret values, s i; for selected ones of the secret values, computing a representative value, r, as the output of a randomizing function; computing a public key, K pub, from the representative values; computing a document function value, h doc, of the digital data set; compiling a set of T authentication code values, H, by computing each authentication code value as an at least pseudo-randomizing functional combination of the document function value and a respective one of the secret values; timestamping the set of T authentication code values at a signing time t, said timestamping being synchronized with physical time, and compiling a time vector corresponding to a digital representation of the signing time; grouping binary bits of the time vector into time vector elements; digitally signing the set of authentication code values at the signing time r to yield a first signature, S t; compiling a selected key vector, K, having a plurality of key vector elements; setting each key vector element to either the value of the respective secret value, s i, or to its corresponding representative value, r i, depending on the logical state of a corresponding time vector element; and forming a signature, S, of the digital data set, D, to include the set of authentication code values, the first signature, and the selected key vector.
A terminal comprising: a control section configured to control a number of bits for a transmission acknowledgement signal based on a capability that indicates a number of downlink shared channels receivable within one slot and a number of downlink shared channels schedulable within one slot; and a transmitting section configured to transmit the transmission acknowledgement signal with the bits, wherein the control section is configured to control the number of bits to correspond to a lower number between the number of downlink shared channels receivable and the number of downlink shared channels schedulable. a control section configured to control a number of bits for a transmission acknowledgement signal based on a capability that indicates a number of downlink shared channels receivable within one slot and a number of downlink shared channels schedulable within one slot; and a transmitting section configured to transmit the transmission acknowledgement signal with the bits, wherein the control section is configured to control the number of bits to correspond to a lower number between the number of downlink shared channels receivable and the number of downlink shared channels schedulable.
An aluminide coating for a component made of nickel superalloy, the coating including a X-Pt/Pd-Ni phase, wherein the phase comprises X, which is Hf and/or Zr, one or both of Pt/Pd, and Ni, and wherein the X-Pt/Pd-Ni phase is present in a β NiAl phase of the coating, wherein the phase comprises X 2 Pt 3 Ni x where x is 5 or less, or wherein the phase comprises XPdNi x where x is 4 or less, and wherein the X 2 Pt 3 Ni x phase is present in the β (Ni,Pt)Al phase, and wherein the XPdNix phase is present in the β (Ni,Pd)AI phase.