mhurhangee/ep-ind-claims huggingface dataset:
A microfluidic pump comprising: a cartridge including a substrate having opposing external surfaces and an actuable film layer disposed on one of the external surfaces of the substrate; and a manifold comprising: at least three separate, actuable cavities forming at least in part, a top surface of the manifold, wherein each actuable cavity includes an actuation mechanism, further wherein in operation, the pump is characterized by having an unactuated state wherein the actuable film layer is disposed immediately adjacent the one external surface of the substrate and an actuated state wherein at least a portion of the actuable film layer is deflected away from a portion of the one external surface of the substrate and into a corresponding actuable cavity thus forming a fluidic volume between the deflected portion of the actuable film layer and the one external surface of the substrate, further wherein, in the actuated state, the pump is further characterized by a fluidic gap between immediately adjacent fluidic volumes, and further wherein the pump contains no dedicated fluidic microchannels disposed between the substrate and the actuable film layer. a cartridge including a substrate having opposing external surfaces and an actuable film layer disposed on one of the external surfaces of the substrate; and a manifold comprising: at least three separate, actuable cavities forming at least in part, a top surface of the manifold,
A vehicle cowl portion structure comprising: a cowl top panel that extends in a vehicle width direction along a lower end portion of a windshield; a cowl inner panel that extends in the vehicle width direction on a vehicle lower side of the cowl top panel, that includes an inner panel-side joint portion that is joined to the cowl top panel and an extension wall that extends from the inner panel-side joint portion toward the vehicle lower side and has a bent portion, and that is capable of bending at the bent portion when a predetermined impact load toward the vehicle lower side is input to the windshield; and a reinforcement that extends in the vehicle width direction, includes an upper end portion that is joined to the cowl inner panel or the cowl top panel at a position that is positioned on a vehicle upper side of the bent portion, includes a lower end portion that is joined to the cowl inner panel at a position that is positioned on a vehicle lower side of the bent portion, and includes a vertical wall that extends in a vehicle up and down direction as seen in a side sectional view and has a hole portion for shock absorption, characterized in that the reinforcement is placed at a vehicle rear side of the extension wall. a cowl top panel that extends in a vehicle width direction along a lower end portion of a windshield; a cowl inner panel that extends in the vehicle width direction on a vehicle lower side of the cowl top panel, that includes an inner panel-side joint portion that is joined to the cowl top panel and an extension wall that extends from the inner panel-side joint portion toward the vehicle lower side and has a bent portion, and that is capable of bending at the bent portion when a predetermined impact load toward the vehicle lower side is input to the windshield; and a reinforcement that extends in the vehicle width direction, includes an upper end portion that is joined to the cowl inner panel or the cowl top panel at a position that is positioned on a vehicle upper side of the bent portion, includes a lower end portion that is joined to the cowl inner panel at a position that is positioned on a vehicle lower side of the bent portion, and includes a vertical wall that extends in a vehicle up and down direction as seen in a side sectional view and has a hole portion for shock absorption, characterized in that the reinforcement is placed at a vehicle rear side of the extension wall.
A polypeptide comprising a human antibody Fc variant of the human IgG1 or IgG4 comprising the amino acid substitutions M428L and L309G, the numbering according to the Kabat EU numbering system, wherein the human antibody Fc variant binds to the human neonatal Fc receptor (FcRn) with a higher affinity at pH of 5.6 to 6.4 and has an increased half-life compared to the non-substituted wild type Fc variant.
A method of wireless communication performed by a user equipment, UE, comprising: receiving, from a base station, BS, information identifying a quantity of demodulation reference signal, DMRS, sequences supported per antenna panel of the BS; transmitting a DMRS communication, with one or more DMRS sequences configured based at least in part on the quantity of DMRS sequences supported per antenna panel and scrambled using an extended DMRS scrambling identifier that is based at least in part on a physical random access channel preamble, and the method further comprising: mapping the physical random access channel preamble to a physical uplink shared channel, PUSCH, resource unit including the one or more DMRS sequences in connection with a mapping ratio within a mapping period between preamble and PUSCH resource unit, wherein the mapping ratio is defined for a PUSCH configuration, such that each PUSCH configuration, of a plurality of PUSCH configurations, in an initial or active bandwidth part is associated with a single mapping ratio. receiving, from a base station, BS, information identifying a quantity of demodulation reference signal, DMRS, sequences supported per antenna panel of the BS; transmitting a DMRS communication, with one or more DMRS sequences configured based at least in part on the quantity of DMRS sequences supported per antenna panel and scrambled using an extended DMRS scrambling identifier that is based at least in part on a physical random access channel preamble, and the method further comprising: mapping the physical random access channel preamble to a physical uplink shared channel, PUSCH, resource unit including the one or more DMRS sequences in connection with a mapping ratio within a mapping period between preamble and PUSCH resource unit, wherein the mapping ratio is defined for a PUSCH configuration, such that each PUSCH configuration, of a plurality of PUSCH configurations, in an initial or active bandwidth part is associated with a single mapping ratio.
Method of operating an electric heating system of a kitchen machine, wherein the electrical resistance of a heating element of the heating system is determined to determine a heating temperature of the heating element, characterized, in that, in addition, a measurement temperature of the heating system is determined by means of a temperature element in order to carry out a calibration of the heating system and/or in order to compare the measurement temperature with the heating temperature for identifying a critical heating state of the heating system.
An electronic device, comprising: a housing having conductive structures that form an antenna ground for an antenna (40U, 40L)and having a peripheral conductive member that runs around at least some edges of the housing and forms at least part of an antenna resonating element for the antenna (40U, 40L), wherein the antenna ground and the peripheral conductive member are separated by a gap, wherein first and second openings (30'', 30"') are formed in the peripheral conductive member and define a segment of the peripheral conductive member that forms the resonating element; the conductive structures have protruding engagement features; and the electronic device includes a plastic structure in the gap that is molded over the protruding engagement features and that the plastic structure extends from the antenna ground to the peripheral conductive member across the gap wherein the peripheral conductive member has one or more recessed portions that receive mating edge portions of the plastic structure for helping to secure the plastic structure and therefore ground plane within housing 11. a housing having conductive structures that form an antenna ground for an antenna (40U, 40L)and having a peripheral conductive member that runs around at least some edges of the housing and forms at least part of an antenna resonating element for the antenna (40U, 40L), wherein the antenna ground and the peripheral conductive member are separated by a gap, wherein first and second openings (30'', 30"') are formed in the peripheral conductive member and define a segment of the peripheral conductive member that forms the resonating element; the conductive structures have protruding engagement features; and the electronic device includes a plastic structure in the gap that is molded over the protruding engagement features and that the plastic structure extends from the antenna ground to the peripheral conductive member across the gap wherein the peripheral conductive member has one or more recessed portions that receive mating edge portions of the plastic structure for helping to secure the plastic structure and therefore ground plane within housing 11.
A liquid insecticide composition containing a neonicotinoid-based compound, a silicone-based surfactant, and a water-soluble organic solvent containing γ-butyrolactone wherein the silicone-based surfactant is polyoxyethylene-modified heptamethyltrisiloxane
A method to form a tunneling barrier layer, comprising: by means of D.C. sputtering, depositing a first magnesium layer to a first thickness; and being characterized by fully oxidizing said first magnesium layer by means of a first radical oxidation wherein oxygen is excited by using an upper electrode, that flows over it at between 0.3 and 0.5 SLM, at a power level of between 400 and 600 watts and then passed over said first magnesium layer for between 80 and 150 seconds, thereby forming a first layer of magnesium oxide; depositing a second magnesium layer to a second thickness on said first magnesium oxide layer, wherein the second thickness is smaller than the first thickness; fully oxidizing said second magnesium layer by means of a second radical oxidation wherein oxygen is excited by using an upper electrode, that flows over it at between 0.2 and 0.3 SLM, at a power level of between 200 and 300 watts and then passed over said first magnesium layer for between 80 and 150 seconds,, thereby forming a second layer of magnesium oxide; depositing a third magnesium layer to a third thickness on said second magnesium oxide layer thereby completing formation of said tunneling barrier layer. by means of D.C. sputtering, depositing a first magnesium layer to a first thickness; and being characterized by fully oxidizing said first magnesium layer by means of a first radical oxidation wherein oxygen is excited by using an upper electrode, that flows over it at between 0.3 and 0.5 SLM, at a power level of between 400 and 600 watts and then passed over said first magnesium layer for between 80 and 150 seconds, thereby forming a first layer of magnesium oxide; depositing a second magnesium layer to a second thickness on said first magnesium oxide layer, wherein the second thickness is smaller than the first thickness; fully oxidizing said second magnesium layer by means of a second radical oxidation wherein oxygen is excited by using an upper electrode, that flows over it at between 0.2 and 0.3 SLM, at a power level of between 200 and 300 watts and then passed over said first magnesium layer for between 80 and 150 seconds,, thereby forming a second layer of magnesium oxide; depositing a third magnesium layer to a third thickness on said second magnesium oxide layer thereby completing formation of said tunneling barrier layer.
A positive active material including a compound expressed by a general formula Li m Co x M' y M" z O 2 (here, M' designates at least one kind of element selected from Al, Cr, V, Mn and Fe, M" designates at least one kind of element selected from Mg and Ca, wherein x is designated by an expression of 0.9 ≤ x < 1, y is indicated by an expression of 0.001 ≤ y ≤ 0.05, z is indicated by an expression of 0.001 ≤ z ≤ 0.05, and m is indicated by an expression of 0.5 ≤ m ≤ 1), wherein the positive active material further includes lithium manganese oxide expressed by a general formula Li s Mn 2-t Ma t O 4 (here, the value of s is designated by an expression of 0.9 ≤ s, the value of t is located within a range expressed by 0.01 ≤ t ≤ 0.5 and Ma includes one or a plurality of elements between Fe, Co, Ni, Cu, Zn, Al, Sn, Cr, V, Ti, Mg, Ca, Sr, B, Ga, In, Si and Ge).
A method of forming a radius filler, the method comprising: folding a composite ply having fibers; and applying a force to the composite ply after folding to form a desired shape for the radius filler; characterised in that the fibers have an orientation at an angle relative to a central axis of the composite ply such that the radius filler has a varying cross-sectional orientation of the fibers. folding a composite ply having fibers; and applying a force to the composite ply after folding to form a desired shape for the radius filler; characterised in that the fibers have an orientation at an angle relative to a central axis of the composite ply such that the radius filler has a varying cross-sectional orientation of the fibers.
Medical, in particular dental treatment instrument, which is configured to output an abrasive flow medium, having - a handpiece, - a storage container, arranged on the handpiece, for an abrasive treatment medium, - a feed line for compressed air, which leads into the storage container, and - a discharge line extending from the storage container to an outlet opening for the abrasive flow medium, wherein air deflection means are arranged in the end region of the feed line, said air deflection means being configured to output the compressed air into the storage container in a bottom region of the latter substantially independently of the orientation of the handpiece, characterized in that the air deflection means have a movably mounted air output element, which is coupled to the feed line. - a handpiece, - a storage container, arranged on the handpiece, for an abrasive treatment medium, - a feed line for compressed air, which leads into the storage container, and - a discharge line extending from the storage container to an outlet opening for the abrasive flow medium,
Printing module for printing on a carrier body, in particular a carrier body of a valuable document and/or security document, wherein the printing module comprises at least one printing head and at least one first container, wherein the at least one printing head has a printing head inlet and at least one nozzle, wherein the printing head has a printing head outlet and is connected to the first container by means of the printing head outlet, wherein at least a part of the first container is arranged in a nozzle outlet direction (z) in front of the at least one printing head outlet, wherein the printing module comprises at least one first pressure generation device, and wherein, by means of the first pressure generation device a pressure in the first container can be adjusted, characterised in that by means of the first pressure generation device, a pressure in a further container can additionally be adjusted and/or that the print module comprises a further pressure generation device, wherein, by means of the further pressure generation device, a pressure in a further container can be adjusted, wherein the print module comprises at least one inlet device for the introduction of additional printing fluid, wherein the inlet device can be connected to an inlet of the first container.
A process for preparing a biocomposite material comprising a bioadditive from cereal husks and/or brans, said process comprising the steps: (a) mixing the husk or bran with an aqueous alkaline solution (with a pH of at least 7), and stirring and/or homogenizing with a rpm of 30000 or less, preferably 5000 to 30000 rpm, in order to provide a bioadditive; (b) admixing the bioadditive with a dispersion of cellulose pulp, wherein the bioadditive is 75% (wt) or less, preferably 5 to 50% (wt) of the mixture of bioadditive and cellulose pulp,to provide a biocomposite; and (c) thermoforming the biocomposite material, with a moulded pulp process comprising compressing the biocomposite material in a mould at elevated temperature and an elevated pressure, thereby curing said biocomposite material. (a) mixing the husk or bran with an aqueous alkaline solution (with a pH of at least 7), and stirring and/or homogenizing with a rpm of 30000 or less, preferably 5000 to 30000 rpm, in order to provide a bioadditive; (b) admixing the bioadditive with a dispersion of cellulose pulp, wherein the bioadditive is 75% (wt) or less, preferably 5 to 50% (wt) of the mixture of bioadditive and cellulose pulp,to provide a biocomposite; and (c) thermoforming the biocomposite material, with a moulded pulp process comprising compressing the biocomposite material in a mould at elevated temperature and an elevated pressure, thereby curing said biocomposite material.
A warming drawer having a housing in which a drawer which has a heatable plate is displaceably guided, characterised by an electronic system for regulating the temperature by a regulation of the resistance of the heatable plate such that the electrical resistance of the heating rises as the temperature of the plate increases; and an additional heating having a fan and a heating coil.
A bearing assembly configured to be mounted to a shaft with a rotation axis, wherein the bearing assembly comprises: - an outer ring; - an inner ring comprising - a portion located axially outside of the outer ring; and - ball slots passing radially through said portion; - a retaining ring placed on said portion, wherein the retaining ring comprises a conical inner surface which conical inner surface faces the ball slots; - disc springs placed on said portion, the disc springs abutting the retaining ring; and - retaining balls which are placed in the ball slots configured to exert radial force on the shaft in order to fix the bearing to the shaft, the radial force resulting from the disc springs pushing the retaining ring such that the conical surface of the retaining ring exerts radial force on the retaining balls. - an outer ring; - an inner ring comprising - a portion located axially outside of the outer ring; and - ball slots passing radially through said portion; - a portion located axially outside of the outer ring; and - ball slots passing radially through said portion; - a retaining ring placed on said portion, wherein the retaining ring comprises a conical inner surface which conical inner surface faces the ball slots; - disc springs placed on said portion, the disc springs abutting the retaining ring; and - retaining balls which are placed in the ball slots configured to exert radial force on the shaft in order to fix the bearing to the shaft, the radial force resulting from the disc springs pushing the retaining ring such that the conical surface of the retaining ring exerts radial force on the retaining balls.
Device to feed a fluid to a household appliance, comprising: a main body provided with at least one inlet pipe for the fluid and at least one outlet pipe for the fluid; at least one electro valve to adjust the flow rate of fluid exiting from said outlet pipe; at least one flow meter provided with a turbine containing one or more magnetic elements and positioned in said inlet pipe; and at least one electronic circuit provided with at least one magnetic sensor positioned in proximity to said flow meter and able to detect the passage of said one or more magnetic elements when the turbine is made to rotate by the passage of the fluid in said inlet pipe, said feed device being characterized in that magnetic shielding elements (31, 40), made of metal material or suchlike, are positioned between said electro valve and said electronic circuit provided with the magnetic sensor cooperating with said one or more magnetic elements of the flow meter. a main body provided with at least one inlet pipe for the fluid and at least one outlet pipe for the fluid; at least one electro valve to adjust the flow rate of fluid exiting from said outlet pipe; at least one flow meter provided with a turbine containing one or more magnetic elements and positioned in said inlet pipe; and at least one electronic circuit provided with at least one magnetic sensor positioned in proximity to said flow meter and able to detect the passage of said one or more magnetic elements when the turbine is made to rotate by the passage of the fluid in said inlet pipe, said feed device being characterized in that magnetic shielding elements (31, 40), made of metal material or suchlike, are positioned between said electro valve and said electronic circuit provided with the magnetic sensor cooperating with said one or more magnetic elements of the flow meter.
Caramel- and chocolate-containing caramel precursors having an amount of β-lactoglobulin of at least 1.500 mg/L, obtainable by i) preparing a mixture of a milk product and optionally cocoa product (component a) and sugar (component b), ii) subjecting the product obtained in step i) to a temperature treatment at which caramelization occurs, wherein the temperature of the caramelization is in the range from 100 to 115 °C, iii) subjecting the caramelized product obtained in step ii) to a concentration step under a temperature gradient from 100 to 50 °C, iv) subjecting the concentrate obtained in step iii) to a first cooling, v) seeding the product obtained in step iv) with carbohydrate crystals, vi) subjecting the seeded product obtained in step v) to a second cooling, and finally vii) dispensing the product obtained in step vi). i) preparing a mixture of a milk product and optionally cocoa product (component a) and sugar (component b), ii) subjecting the product obtained in step i) to a temperature treatment at which caramelization occurs, wherein the temperature of the caramelization is in the range from 100 to 115 °C, iii) subjecting the caramelized product obtained in step ii) to a concentration step under a temperature gradient from 100 to 50 °C, iv) subjecting the concentrate obtained in step iii) to a first cooling, v) seeding the product obtained in step iv) with carbohydrate crystals, vi) subjecting the seeded product obtained in step v) to a second cooling, and finally vii) dispensing the product obtained in step vi).
An air dryer device for an air treatment device for a vehicle, especially utility vehicle, with at least one housing forming at least one accommodation chamber for accommodating at least one desiccant container; wherein the housing comprises at least one housing socket being arranged, in a mounted state, at a bottom region of the housing, and wherein the housing comprises at least one first connection device and at least one second connection device, wherein the first and second connection device, via the desiccant container, are connectable during at least one load phase and/or during at least one regeneration phase of the air dryer device; wherein the housing comprises at least one regeneration conduit device for connecting the first connection device with the second connection device during the regeneration phase; and wherein the housing comprises at least one first control valve being arranged and configured for opening or closing the regeneration conduit device, especially wherein the first control valve is arranged at the housing socket, wherein the first control valve is formed by at least one first check valve, wherein the first check valve is formed by at least one valve housing portion of the housing and by at least one valve body of the first check valve, wherein the valve body is formed as an integral elastic valve body.