mhurhangee/ep-ind-claims huggingface dataset:
Plumbing trap device, in particular siphon, having a liquid chamber, wherein liquid located in the liquid chamber, given sufficient liquid level, forms a smell trap between an inlet opening and a drain connection of the plumbing trap device, characterized in that the plumbing trap device has a pressure surge reducing device, which damps a positive-pressure or negative-pressure surge (D1, D2) on the drain connection or on the inlet opening by enlarging or reducing the volume of the liquid chamber, wherein the pressure surge reducing device is formed by a diaphragm or comprises one such which, in the event of a positive-pressure surge, is deformed outwards, increasing the volume of the liquid chamber and, in the event of a negative-pressure surge, is deformed inwards, reducing the volume of the liquid chamber.
A kit comprising a) a reaction product of: i) one or more aromatic Michael addition donor materials comprising two or more active methylene hydrogens and at least two optionally substituted benzoyl-moieties; wherein the Michael addition donor material is dibenzoylmethane, a substituted dibenzoylmethane derivative, or a combination thereof; with ii) one or more Michael addition acceptor materials, wherein the Michael addition acceptor material is selected from the group consisting of mono, di-, tri- or multi-functional (meth)acrylates, polyester (meth)acrylates, and halogenated organic acids or esters; wherein the reaction product is capable of initiating a free radical polymerization reaction when used in combination with a synergist; and b) a synergist selected from the group consisting of amines, thiols, and combinations thereof; wherein the reaction product a) and the synergist b) are incorporated into a single composition; or wherein the reaction product a) and the synergist b) are in separate compositions; wherein each Michael addition donor material-derived moiety present in the reaction product is covalently attached to a single Michael addition acceptor-derived moiety. a) a reaction product of: i) one or more aromatic Michael addition donor materials comprising two or more active methylene hydrogens and at least two optionally substituted benzoyl-moieties; wherein the Michael addition donor material is dibenzoylmethane, a substituted dibenzoylmethane derivative, or a combination thereof; with ii) one or more Michael addition acceptor materials, wherein the Michael addition acceptor material is selected from the group consisting of mono, di-, tri- or multi-functional (meth)acrylates, polyester (meth)acrylates, and halogenated organic acids or esters; wherein the reaction product is capable of initiating a free radical polymerization reaction when used in combination with a synergist; and i) one or more aromatic Michael addition donor materials comprising two or more active methylene hydrogens and at least two optionally substituted benzoyl-moieties; wherein the Michael addition donor material is dibenzoylmethane, a substituted dibenzoylmethane derivative, or a combination thereof; with ii) one or more Michael addition acceptor materials, wherein the Michael addition acceptor material is selected from the group consisting of mono, di-, tri- or multi-functional (meth)acrylates, polyester (meth)acrylates, and halogenated organic acids or esters; wherein the reaction product is capable of initiating a free radical polymerization reaction when used in combination with a synergist; and b) a synergist selected from the group consisting of amines, thiols, and combinations thereof; wherein the reaction product a) and the synergist b) are incorporated into a single composition; or wherein the reaction product a) and the synergist b) are in separate compositions; wherein each Michael addition donor material-derived moiety present in the reaction product is covalently attached to a single Michael addition acceptor-derived moiety.
A method for controlling the temperature of the calibration volume of an apparatus for comparative calibration of temperature sensors to a target temperature, wherein said calibration apparatus comprises heat sources and/or heat sinks, which are in thermal contact with the calibration volume through one or more heat conducting parts wherein, in at least one process step, the true thermal state of the calibrator and its environment is estimated using a Kalman filter, wherein the Kalman filter is supplied with measured values from several of the temperature sensor disposed in said calibration apparatus; and, in at least one further method step, a future thermal state is calculated using a thermal model of dynamics of thermal states, characterized in that based on said estimate of the true thermal state and using a discrete-time model of the dynamics of states for at least two settings of the control and manipulated variables in a future period of time, the mean square deviation of at least one temperature within the calibration volume from the target temperature resulting therefrom in said time period is calculated in at least one process step, wherein the thermal state includes at least a difference between the systematic deviation of the temperature measurement values of a first temperature sensor and the systematic deviation of the temperature measurement values of a second temperature sensor.
A floatable turbine comprising: a rotatable set of turbine blades operable to rotate about a common axis and communicatively coupled to an electrical generation system arranged to generate electricity as the turbine blades rotate; a buoyancy control system arranged to controllably impart positive buoyancy to the floatable turbine; one or more air jets, wherein air released from the one or more air jets will increase or decrease a rate of ascent of the turbine; and a guidance means for guiding the turbine along the common axis as it moves; wherein the floatable turbine is suitable for submersion in water, and the turbine blades being arranged to rotate as the turbine moves through the water. a rotatable set of turbine blades operable to rotate about a common axis and communicatively coupled to an electrical generation system arranged to generate electricity as the turbine blades rotate; a buoyancy control system arranged to controllably impart positive buoyancy to the floatable turbine; one or more air jets, wherein air released from the one or more air jets will increase or decrease a rate of ascent of the turbine; and a guidance means for guiding the turbine along the common axis as it moves; wherein the floatable turbine is suitable for submersion in water, and the turbine blades being arranged to rotate as the turbine moves through the water.
Method for accurately determining the location of geographic measuring points and linking the data of these measuring points with further data and providing this data thus linked in electronic form, characterized by the following method steps: - Designating of the geographic measuring points and determining of the corresponding geographical coordinates of these measuring points using a navigation and/or measuring system, - Storing of the measuring points' address data and the corresponding geographic coordinates in a database, - Storing of further data, such as for example product and/or service information in the database and linkage of this data with the corresponding data of the measuring points and - Making the data thus linked available for use by customers, whereby these communicate with the database using a transmitting and receiving device, characterized in that each measuring point is assigned to a real and a virtual marking, wherein the real marking is made by installing a seal on site and a virtual marking is performed by an electronic data information in the data base. - Designating of the geographic measuring points and determining of the corresponding geographical coordinates of these measuring points using a navigation and/or measuring system, - Storing of the measuring points' address data and the corresponding geographic coordinates in a database, - Storing of further data, such as for example product and/or service information in the database and linkage of this data with the corresponding data of the measuring points and - Making the data thus linked available for use by customers, whereby these communicate with the database using a transmitting and receiving device,
A surgical instrument for perforating a dense tissue of a human or animal body and for next injecting a pharmaceutical product into a zone of the body accessible through the dense tissue, the instrument comprising a handheld part having an elongate body with a housing for housing a cylindrical support freely rotating around a longitudinal axis of the cylindrical support configured to receive, exchangeably and secured in rotation therewith, a container of pharmaceutical product, the body having two opposite ends (12, 14), one of which is provided with an axial passage emerging in the housing and which is suitable for the passage of a perforating needle fastened on one of the two opposite ends of the cylindrical support and intended to be introduced into the container, the other end of the body comprising means for driving the rotation of the container and the needle via the cylindrical support, characterized in that it comprises a member suitable for being able to exert, during the perforation, in a controlled manner, pressure on at least a predetermined quantity of the pharmaceutical product present in the container inserted into the housing, so as to prevent perforation debris from entering the aperture of the needle, and in that the axial passage is provided with a coaxial mechanical rolling bearing making up both a radial support and an axial support serving as bearing for the end of the cylindrical support configured to fasten the perforating injection needle.
A speed reducer with a planetary or epicyclic gear set for a turbomachine, this reducer having an axis X and comprising: - a cage carrier comprising an annular row of axial fingers, each finger comprising a recess for mounting a connecting means, and - a planet carrier cage, this cage containing a central sun gear with an axis X of rotation and an annular row of planet gears arranged around the axis X and meshed with said sun gear as well as with a ring gear of the speed reducer intended to surround the cage, the cage comprising at its periphery axial housings in which are engaged the axial fingers integral with the cage carrier, each housing being traversed by a substantially radial pin which is intended to guide in rotation said connecting means which is carried by one of said fingers and which is traversed by said pin, characterised in that the pins comprise means for spraying lubricating oil into areas in which the planet gears mesh with said ring gear. - a cage carrier comprising an annular row of axial fingers, each finger comprising a recess for mounting a connecting means, and - a planet carrier cage, this cage containing a central sun gear with an axis X of rotation and an annular row of planet gears arranged around the axis X and meshed with said sun gear as well as with a ring gear of the speed reducer intended to surround the cage, the cage comprising at its periphery axial housings in which are engaged the axial fingers integral with the cage carrier, each housing being traversed by a substantially radial pin which is intended to guide in rotation said connecting means which is carried by one of said fingers and which is traversed by said pin, characterised in that the pins comprise means for spraying lubricating oil into areas in which the planet gears mesh with said ring gear.
A printer dryer device (10, 10'), comprising: a first drying unit (12 1, 12 2,...12 k), wherein the first drying unit (12 1, 122,...12 k) comprises a first plurality of energy emitting elements (L nk) to dry a printing substance on a printing medium; wherein the first plurality of energy emitting elements (L nk) are electrically connected in series in the first drying unit (12 1, 12 2,...12 k); and a second drying unit (12' 1, 12' 2,...12' k), wherein the second drying unit (12' 1, 12' 2,...12' k) comprises a second plurality of energy emitting elements (L' nk) to dry the printing substance on the printing medium; wherein the second drying unit (12' 1, 12' 2,...12' k) is arranged downstream from the first drying unit (12' 1, 12' 2,...12' k) in a medium transport direction of the printing medium; wherein the second plurality of energy emitting elements (L' nk) are electrically connected in series in the second drying unit (12' 1, 12' 2,...12' k); and characterized in that the first drying unit (12 1, 12 2,...12 k) and the second drying unit (12' 1, 12' 2,...12' k) are electrically connected in parallel between a common voltage source (V cc) and a driver unit. a first drying unit (12 1, 12 2,...12 k), wherein the first drying unit (12 1, 122,...12 k) comprises a first plurality of energy emitting elements (L nk) to dry a printing substance on a printing medium; wherein the first plurality of energy emitting elements (L nk) are electrically connected in series in the first drying unit (12 1, 12 2,...12 k); and a second drying unit (12' 1, 12' 2,...12' k), wherein the second drying unit (12' 1, 12' 2,...12' k) comprises a second plurality of energy emitting elements (L' nk) to dry the printing substance on the printing medium; wherein the second drying unit (12' 1, 12' 2,...12' k) is arranged downstream from the first drying unit (12' 1, 12' 2,...12' k) in a medium transport direction of the printing medium; wherein the second plurality of energy emitting elements (L' nk) are electrically connected in series in the second drying unit (12' 1, 12' 2,...12' k); and characterized in that the first drying unit (12 1, 12 2,...12 k) and the second drying unit (12' 1, 12' 2,...12' k) are electrically connected in parallel between a common voltage source (V cc) and a driver unit.
Method for establishing a control channel between a control unit for controlling at least one building-internal electrical component connected to a building-internal access portal and the building-internal access portal, wherein the communication between the control unit and the building-internal access portal for the purpose of controlling the at least one building-internal electrical component is effected, on a case-by-case basis, either with the involvement of a building-external network or, to shorten the latency, only via a building-internal network by establishing a local control channel, involving: authenticating the control unit to a building-external authentication server via a building-external communication network; conveying a network address of the building-internal access portal to the control unit by means of the building-external authentication server in the event of successful authentication of the control unit to the building-external authentication server via the building-external communication network; conveying an access authorization to access the building-internal access portal to the control unit by means of the building-external authentication server via the building-external communication network in the event of successful authentication of the control unit to the building-external authentication server via the building external communication network; and establishing a control channel between the control unit and the building-internal access portal in response to reception of the network address of the building-internal access portal and the access authorization. authenticating the control unit to a building-external authentication server via a building-external communication network; conveying a network address of the building-internal access portal to the control unit by means of the building-external authentication server in the event of successful authentication of the control unit to the building-external authentication server via the building-external communication network; conveying an access authorization to access the building-internal access portal to the control unit by means of the building-external authentication server via the building-external communication network in the event of successful authentication of the control unit to the building-external authentication server via the building external communication network; and establishing a control channel between the control unit and the building-internal access portal in response to reception of the network address of the building-internal access portal and the access authorization.
A system, comprising: an engine having an engine coolant inlet and an engine coolant outlet; a first heat exchanger having a first heat exchanger inlet and a first heat exchanger outlet; a second heat exchanger having a second heat exchanger inlet and a second heat exchanger outlet, the second heat exchanger outlet coupled to the engine coolant inlet; a thermoelectric cooling device in thermal communication with the second heat exchanger; and one or more conduits to transport coolant; wherein a first portion of a coolant flow from the first heat exchanger outlet is routed to the second heat exchanger inlet to receive heat output from one or more devices in thermal communication with the thermoelectric cooling device, and wherein a second portion of the coolant flow from the first heat exchanger outlet is routed to the engine coolant inlet to receive heat output by the engine, characterised in that the first portion of the coolant is the same portion of the coolant as the second portion of the coolant. an engine having an engine coolant inlet and an engine coolant outlet; a first heat exchanger having a first heat exchanger inlet and a first heat exchanger outlet; a second heat exchanger having a second heat exchanger inlet and a second heat exchanger outlet, the second heat exchanger outlet coupled to the engine coolant inlet; a thermoelectric cooling device in thermal communication with the second heat exchanger; and one or more conduits to transport coolant; wherein a first portion of a coolant flow from the first heat exchanger outlet is routed to the second heat exchanger inlet to receive heat output from one or more devices in thermal communication with the thermoelectric cooling device, and wherein a second portion of the coolant flow from the first heat exchanger outlet is routed to the engine coolant inlet to receive heat output by the engine, characterised in that the first portion of the coolant is the same portion of the coolant as the second portion of the coolant.
A method of manufacturing a decal used in the production of a matrix array sensor for a touch 2. screen, comprising the steps of: providing a flexible release layer ( 301, 401, 502) having a first surface; printing a conductive ink layer ( 402, 501) on said first surface; and printing an adhesive layer onto said conductive ink layer; wherein said step of printing a conductive ink layer (402, 501) comprises printing conductive ink to form at least one patterned element ( 503, 504, 507, 508, 509), characterised in that: said first surface is a non-uniform surface consisting of indentations, and said conductive ink layer comprises a corresponding non-uniform surface induced by the non-uniform surface of the first surface,. providing a flexible release layer ( 301, 401, 502) having a first surface; printing a conductive ink layer ( 402, 501) on said first surface; and printing an adhesive layer onto said conductive ink layer; wherein said step of printing a conductive ink layer (402, 501) comprises printing conductive ink to form at least one patterned element ( 503, 504, 507, 508, 509), characterised in that: said first surface is a non-uniform surface consisting of indentations, and said conductive ink layer comprises a corresponding non-uniform surface induced by the non-uniform surface of the first surface,.
A data transmission method performed by a first station, wherein a first multi-link device comprises multiple stations among which the first station is one of them, and each station among the multiple stations operates on a different link among multiple links, wherein the method comprises the steps of: • generating a frame, wherein the frame comprises: ∘ either a first field, wherein the first field indicates, for each modulation and coding scheme, MCS, among a plurality of MCSs, a maximum quantity of shared spatial streams whose reception at the first multi-link device is supported by the first multi-link device, and the first field is carried in a Supported EHT MCS and NSS Set field of the frame, or ∘ a second field, wherein the second field indicates, for each MCS among the plurality of MCSs, a maximum quantity of shared spatial streams whose transmission from the multi-link device is supported by the first multi-link device, and the second field is carried in a Supported EHT MCS and NSS Set field of the frame; and • sending (S 301) the frame to a peer device. • generating a frame, wherein the frame comprises: ∘ either a first field, wherein the first field indicates, for each modulation and coding scheme, MCS, among a plurality of MCSs, a maximum quantity of shared spatial streams whose reception at the first multi-link device is supported by the first multi-link device, and the first field is carried in a Supported EHT MCS and NSS Set field of the frame, or ∘ a second field, wherein the second field indicates, for each MCS among the plurality of MCSs, a maximum quantity of shared spatial streams whose transmission from the multi-link device is supported by the first multi-link device, and the second field is carried in a Supported EHT MCS and NSS Set field of the frame; and ∘ either a first field, wherein the first field indicates, for each modulation and coding scheme, MCS, among a plurality of MCSs, a maximum quantity of shared spatial streams whose reception at the first multi-link device is supported by the first multi-link device, and the first field is carried in a Supported EHT MCS and NSS Set field of the frame, or ∘ a second field, wherein the second field indicates, for each MCS among the plurality of MCSs, a maximum quantity of shared spatial streams whose transmission from the multi-link device is supported by the first multi-link device, and the second field is carried in a Supported EHT MCS and NSS Set field of the frame; and • sending (S 301) the frame to a peer device.
Method for the material-removing machining of an in particular planar blank (41, 72, 73, 81, 134, 135, 152) for the production of dental workpieces (1, 130, 131), such as inlays, crowns, bridges, bars, implant superstructures, prostheses, models or the like, which method involves alternately machining a crown inner side of the workpiece (1, 130, 131) in the intrados position (57, 58) of the blank (41, 72, 73, 81, 134, 135, 152) and a crown outer side in the extrados position (60, 61) of the blank (41, 72, 73, 81, 134, 135, 152) using a rotating tool, wherein the rotating tool, in particular a milling tool, drill or grinding tool, is brought into engagement with the workpiece (1, 130, 131) both frontally and also circumferentially, and wherein uniform utilization of the entire cutting surface is sought and, therefore, a circumferential engagement is preferred, characterized in that in the machining, in addition to the infeed and advance of the rotating tool, an alternating upward and downward movement parallel to tool axes or tool circumference surfaces takes place in the form of excursions.