mhurhangee/ep-ind-claims huggingface dataset:
A sheet, preferably for use in the building sector and particularly for sealing of the shell of a building, with a planar sheet body, wherein the sheet body as a multilayer composite has in addition to a sealing layer at least one membrane layer and at least one additional layer (9, 11) as a protective layer, characterized in that the sheet body has at least one elastic layer as the sealing layer of a closed-cell or open cell elastic foam having an elasticity and restoring force such that when the sealing layer is penetrated by a fastener the material of the sealing layer surrounding the fastener encompasses the fastener and seals in the region of the fastener in such a way that after penetration by the fastener the sheet has a watertightness for a static water column greater than 200 mm, wherein the layer thickness of the sealing layer is between 30 μm and 5.000 μm and the modulus of elasticity of the material of the sealing layer is between 0,01 and 20 kN/mm 2, wherein the sealing layer is a polymer foam layer consisting of a water vapor-permeable TPE-U or TPE-E that is foamable by chemical or physical propellants.
A misting attachment system for use in a material deposition process comprising: a misting attachment (104, 202, 300, 700) comprising: a receiver (204, 302) for receiving a deposition head for a 3D printing process having an exit nozzle through which a material can be deposited; a mist delivery channel (118, 208, 310, 706) in proximity to the exit nozzle of the deposition head when present, the mist delivery channel arranged to supply a flow of a cross-linker or suspension of particles around the material being deposited through the deposition head; and a mist extraction channel (130, 214, 316, 710) in proximity to the exit nozzle of the deposition head when present, the mist extraction channel arranged to extract a flow of excess cross-linker or suspension of particles from around the material being deposited; an ultrasonic atomizer within a misting chamber connected to the mist delivery channel for providing the atomized cross-linker or suspension of particles; an air pump connected to the misting chamber to supply the flow of atomized cross-linker or suspension of particles; and a vacuum pump connected to the mist extraction channel to provide suction for extracting excess cross-linker or suspension of particles. a misting attachment (104, 202, 300, 700) comprising: a receiver (204, 302) for receiving a deposition head for a 3D printing process having an exit nozzle through which a material can be deposited; a mist delivery channel (118, 208, 310, 706) in proximity to the exit nozzle of the deposition head when present, the mist delivery channel arranged to supply a flow of a cross-linker or suspension of particles around the material being deposited through the deposition head; and a mist extraction channel (130, 214, 316, 710) in proximity to the exit nozzle of the deposition head when present, the mist extraction channel arranged to extract a flow of excess cross-linker or suspension of particles from around the material being deposited; a receiver (204, 302) for receiving a deposition head for a 3D printing process having an exit nozzle through which a material can be deposited; a mist delivery channel (118, 208, 310, 706) in proximity to the exit nozzle of the deposition head when present, the mist delivery channel arranged to supply a flow of a cross-linker or suspension of particles around the material being deposited through the deposition head; and a mist extraction channel (130, 214, 316, 710) in proximity to the exit nozzle of the deposition head when present, the mist extraction channel arranged to extract a flow of excess cross-linker or suspension of particles from around the material being deposited; an ultrasonic atomizer within a misting chamber connected to the mist delivery channel for providing the atomized cross-linker or suspension of particles; an air pump connected to the misting chamber to supply the flow of atomized cross-linker or suspension of particles; and a vacuum pump connected to the mist extraction channel to provide suction for extracting excess cross-linker or suspension of particles.
Device having a voice user interface and possibly a manual user interface, for accessing its functions, said functions being accessible through a hierarchy of menus in which the branches can be short-circuited by certain voice instructions referred to as voice short-cuts, characterized in that it has: - means for storing a sequence of interactions by the user; - means (24, VFT) for detecting the existence of a voice short-cut corresponding to the stored sequence of interactions; and - means for delivering, in the event that the existence of a voice short-cut is detected, a message to the user in order to inform him or her of the existence of said voice short-cut. - means for storing a sequence of interactions by the user; - means (24, VFT) for detecting the existence of a voice short-cut corresponding to the stored sequence of interactions; and - means for delivering, in the event that the existence of a voice short-cut is detected, a message to the user in order to inform him or her of the existence of said voice short-cut.
A neutrode of a plasma gun comprising: a disk-shaped body having an outer peripheral surface and an inner bore; and a plurality of axially oriented cooling channels formed at least one of in or on the outer peripheral surface, wherein the cooling channels are defined by a depth dimension below the outer peripheral surface and a base dimension normal to the depth dimension, wherein a ratio of base to depth for the cooling channels is 2: 1 or higher a disk-shaped body having an outer peripheral surface and an inner bore; and a plurality of axially oriented cooling channels formed at least one of in or on the outer peripheral surface, wherein the cooling channels are defined by a depth dimension below the outer peripheral surface and a base dimension normal to the depth dimension, wherein a ratio of base to depth for the cooling channels is 2: 1 or higher
Method for receiving a signal corresponding to a multicarrier signal sent by a sender via at least one transmission channel, said receiving method comprising a step for estimating said at least one channel, delivering a piece of overall information on said at least one channel in the frequency domain, termed frequency response, comprising frequency samples, characterized in that it also comprises, for said at least one channel: - a step for cutting the frequency response of said channel into blocks, delivering at least two frequency sample vectors, a frequency sample being able to belong to multiple frequency sample vectors; - a step for transforming said frequency sample vectors from the frequency domain to a transformed domain, delivering, for at least one frequency sample vector, a partial response from said channel in said transformed domain; - a step for transmitting, to said sender, a return signal carrying at least samples representative of said channel in said transformed domain that are extracted from said partial responses. - a step for cutting the frequency response of said channel into blocks, delivering at least two frequency sample vectors, a frequency sample being able to belong to multiple frequency sample vectors; - a step for transforming said frequency sample vectors from the frequency domain to a transformed domain, delivering, for at least one frequency sample vector, a partial response from said channel in said transformed domain; - a step for transmitting, to said sender, a return signal carrying at least samples representative of said channel in said transformed domain that are extracted from said partial responses.
A glass forming alloy comprising: 43.0 atomic percent to 68.0 atomic percent iron; 10.0 atomic percent to 19.0 atomic percent boron; 13.0 atomic percent to 17.0 atomic percent nickel; 2.5 atomic percent to 21.0 atomic percent cobalt; optionally 0.1 atomic percent to 6.0 atomic percent carbon; optionally 0.3 atomic percent to 3.5 atomic percent silicon; and one or more of the following: 1 atomic percent to 8 atomic percent titanium, 1 atomic percent to 8 atomic percent molybdenum, 1 atomic percent to 8 atomic percent copper, 1 atomic percent to 8 atomic percent cerium, and 2 atomic percent to 16 atomic percent aluminum, wherein said alloy constituents are present at a total of 100. at % with impurities present at up to 5. at % and the glass forming alloy includes between 5 % to 95 % by volume one or more spinodal glass matrix microconstituents. 43.0 atomic percent to 68.0 atomic percent iron; 10.0 atomic percent to 19.0 atomic percent boron; 13.0 atomic percent to 17.0 atomic percent nickel; 2.5 atomic percent to 21.0 atomic percent cobalt; optionally 0.1 atomic percent to 6.0 atomic percent carbon; optionally 0.3 atomic percent to 3.5 atomic percent silicon; and one or more of the following: 1 atomic percent to 8 atomic percent titanium, 1 atomic percent to 8 atomic percent molybdenum, 1 atomic percent to 8 atomic percent copper, 1 atomic percent to 8 atomic percent cerium, and 2 atomic percent to 16 atomic percent aluminum, wherein said alloy constituents are present at a total of 100. at % with impurities present at up to 5. at % and the glass forming alloy includes between 5 % to 95 % by volume one or more spinodal glass matrix microconstituents.
Device for the surface treatment of a substrate, having: - a processing head, which is mounted rotatably about an axis of rotation and comprises multiple gas outlets, which are formed at least partially on a radially outer edge of the processing head, - two or more spacers for providing a spacing between the substrate and the processing head, wherein the spacers comprise at least two webs (102, 104), characterized in that the webs (102, 104) are arranged adjacent to the axially outer ends of the axially outer edges of the processing head and are mounted rotatably relative to the processing head. - a processing head, which is mounted rotatably about an axis of rotation and comprises multiple gas outlets, which are formed at least partially on a radially outer edge of the processing head, - two or more spacers for providing a spacing between the substrate and the processing head, wherein the spacers comprise at least two webs (102, 104), characterized in that the webs (102, 104) are arranged adjacent to the axially outer ends of the axially outer edges of the processing head and are mounted rotatably relative to the processing head.
A curing instrument for curing a target, the target including a restorative light-curable material that is curable in response to application of light energy, the curing instrument comprising: a light source capable of outputting the light energy to cure the restorative light-curable material, the light source being controllable to vary the light energy being output; a light sensor for sensing a light energy characteristic; an optical feedback path (62, 64) operably coupled to the light sensor, the optical feedback path (62, 64) being disposed to channel light reflected back from the target to the light sensor, wherein the light sensor is configured to sense the light energy characteristic with respect to the light reflected back from the target; a controller operably coupled to the light sensor and the light source, the controller configured to vary, based on the light energy characteristic sensed by the light sensor, an operating characteristic of the light source to affect the light energy being output from the light source; and wherein the curing instrument includes a light application member from which the light energy is emitted, and wherein the controller is configured to determine, based on the optical sensor feedback signal, whether the restorative light-curable material is present in proximity to the light application member, and wherein the controller is configured to iteratively calculate a total amount of energy delivered to the target based on the optical sensor feedback signal; and determine whether the calculated amount of light energy is equal to or exceeds a prescribed amount of light energy for the restorative light curable material. a light source capable of outputting the light energy to cure the restorative light-curable material, the light source being controllable to vary the light energy being output; a light sensor for sensing a light energy characteristic; an optical feedback path (62, 64) operably coupled to the light sensor, the optical feedback path (62, 64) being disposed to channel light reflected back from the target to the light sensor, wherein the light sensor is configured to sense the light energy characteristic with respect to the light reflected back from the target; a controller operably coupled to the light sensor and the light source, the controller configured to vary, based on the light energy characteristic sensed by the light sensor, an operating characteristic of the light source to affect the light energy being output from the light source; and wherein the curing instrument includes a light application member from which the light energy is emitted, and wherein the controller is configured to determine, based on the optical sensor feedback signal, whether the restorative light-curable material is present in proximity to the light application member, and wherein the controller is configured to iteratively calculate a total amount of energy delivered to the target based on the optical sensor feedback signal; and determine whether the calculated amount of light energy is equal to or exceeds a prescribed amount of light energy for the restorative light curable material.
An input device including an operation member having an operation surface formed of an insulating material, a capacitance sensor provided in the operation surface, wherein a conductor portion is provided to surround at least a portion of the capacitance sensor, characterized in that a detection electrode, and a driving electrode arranged on one side and a reverse phase driving electrode arranged on the other side with the detection electrode interposed therebetween are provided in the capacitance sensor, and the input device being configured to apply driving voltages of opposite phases to the driving electrode and the reverse phase driving electrode, the driving electrode facing the conductor portion in the entire length of the driving electrode, another driving electrode being provided in the capacitive sensor, wherein the detection electrode, the driving electrode, the reverse phase driving electrode and the other driving electrode extend in the same direction, and are arranged in an order of the driving electrode, the detection electrode, the reverse phase driving electrode, and the other driving electrode toward a direction away from a position close to the conductor portion in an arrangement direction perpendicular to the direction in which the respective electrodes extend, and driving voltages of the same phase are applied to the other driving electrode and the driving electrode, the conductor portion is provided such that it surrounds at least a portion of the capacitance sensor and the input device is configured to determine that a hand approaches or touches the conductor portion according to an output change of the detection electrode. wherein a conductor portion is provided to surround at least a portion of the capacitance sensor, characterized in that a detection electrode, and a driving electrode arranged on one side and a reverse phase driving electrode arranged on the other side with the detection electrode interposed therebetween are provided in the capacitance sensor, and the input device being configured to apply driving voltages of opposite phases to the driving electrode and the reverse phase driving electrode, the driving electrode facing the conductor portion in the entire length of the driving electrode, another driving electrode being provided in the capacitive sensor, wherein the detection electrode, the driving electrode, the reverse phase driving electrode and the other driving electrode extend in the same direction, and are arranged in an order of the driving electrode, the detection electrode, the reverse phase driving electrode, and the other driving electrode toward a direction away from a position close to the conductor portion in an arrangement direction perpendicular to the direction in which the respective electrodes extend, and driving voltages of the same phase are applied to the other driving electrode and the driving electrode, the conductor portion is provided such that it surrounds at least a portion of the capacitance sensor and the input device is configured to determine that a hand approaches or touches the conductor portion according to an output change of the detection electrode.
A launch vehicle adapted for high velocity delivery of a payload, the launch vehicle comprising: a payload container; a propellant tank containing a propellant; an electrical heater being in fluid connection with the propellant tank and being adapted for electrical heating of the propellant received from the propellant tank to form an exiting exhaust; one or more electrical conductors in the form of sliding electrical contacts (115, 135) configured to direct flow of electrical current from an external source to the electrical heater; and optionally an expansion nozzle in fluid communication with the exiting exhaust from the electrical heater. a payload container; a propellant tank containing a propellant; an electrical heater being in fluid connection with the propellant tank and being adapted for electrical heating of the propellant received from the propellant tank to form an exiting exhaust; one or more electrical conductors in the form of sliding electrical contacts (115, 135) configured to direct flow of electrical current from an external source to the electrical heater; and optionally an expansion nozzle in fluid communication with the exiting exhaust from the electrical heater.
An edible concentrate comprising, by weight of the concentrate: • 5-99 wt.% of oil; • 0-10 wt.% of water; and • 1-95 wt.% of texturizing particles; wherein said texturizing particles have a particle size in the range of 0.5-5,000 micrometre and comprise: - at least 3 wt.% microfibrillated cellulose; - at least 20 wt.% water-soluble filler; and - less than 10 wt.% water. • 5-99 wt.% of oil; • 0-10 wt.% of water; and • 1-95 wt.% of texturizing particles; - at least 3 wt.% microfibrillated cellulose; - at least 20 wt.% water-soluble filler; and - less than 10 wt.% water.
A device for operating LEDs, comprising: - a driver module, and, - a LED module controlled by the driver module with at least one LED, - wherein the driver module has a first connection, which is designed to feed the LED module with a current, and has a second connection as a ground connection, - wherein the LED module has a first connection, which is designed to be fed by the driver module with a current, and has a second connection as a ground connection, - wherein the first or second connection (1, 2) of the LED module is connected with the first or second connection (1, 2) of the driver module, characterized in - that the driver module is designed to temporarily lower the voltage at its first connection and to monitor the voltage at its first connection, and to evaluate a change of the voltage at its first connection as a transfer of information from the LED module, wherein the LED module is designed to transfer address information as information, - that the driver module is designed, to receive both analogue information, as well as digital information from the LED module. - a driver module, and, - a LED module controlled by the driver module with at least one LED, - wherein the driver module has a first connection, which is designed to feed the LED module with a current, and has a second connection as a ground connection, - wherein the LED module has a first connection, which is designed to be fed by the driver module with a current, and has a second connection as a ground connection, - wherein the first or second connection (1, 2) of the LED module is connected with the first or second connection (1, 2) of the driver module, - that the driver module is designed to temporarily lower the voltage at its first connection and to monitor the voltage at its first connection, and to evaluate a change of the voltage at its first connection as a transfer of information from the LED module, wherein the LED module is designed to transfer address information as information, - that the driver module is designed, to receive both analogue information, as well as digital information from the LED module.
A liquid cartridge (30, 230) comprising: a casing (31, 32, 35) including a liquid chamber (36, 236) capable of storing liquid therein, the liquid chamber being configured such that an internal pressure of the liquid chamber is reduced in accordance with outflow of liquid from the liquid chamber, the casing including an upper surface defined based on an attached posture of the liquid cartridge; a liquid supply portion (34, 234) configured to allow liquid stored in the liquid chamber to flow out of the liquid chamber, the liquid supply portion (34, 234) protruding in a forward direction; a deformable member protruding in the upward direction further upward relative to the upper surface of the casing, the deformable member having an internal space in communication with the liquid chamber, the deformable member being elastically deformable such that a volume of the internal space is reduced in accordance with the reduction in the internal pressure of the liquid chamber; a movable member including a detection portion, the detection portion being movable in an upward direction and a downward direction in accordance with the elastic deformation of the deformable member; and a support member movably supporting the movable member. a casing (31, 32, 35) including a liquid chamber (36, 236) capable of storing liquid therein, the liquid chamber being configured such that an internal pressure of the liquid chamber is reduced in accordance with outflow of liquid from the liquid chamber, the casing including an upper surface defined based on an attached posture of the liquid cartridge; a liquid supply portion (34, 234) configured to allow liquid stored in the liquid chamber to flow out of the liquid chamber, the liquid supply portion (34, 234) protruding in a forward direction; a deformable member protruding in the upward direction further upward relative to the upper surface of the casing, the deformable member having an internal space in communication with the liquid chamber, the deformable member being elastically deformable such that a volume of the internal space is reduced in accordance with the reduction in the internal pressure of the liquid chamber; a movable member including a detection portion, the detection portion being movable in an upward direction and a downward direction in accordance with the elastic deformation of the deformable member; and a support member movably supporting the movable member.