mhurhangee/ep-ind-claims huggingface dataset:
An antimicrobial composition comprising: a) a C 2 -C 5 lower alcohol present in an amount of at least 35 wt-%; b) a fatty component containing one or more free hydroxyl groups selected from the group consisting of C 12 -C 18 fatty alcohols, optionally in combination with a fatty component containing one or more free hydroxyl groups selected from the group consisting of C 12 -C 21 fatty ethers, and C 12 -C 21 fatty amides; wherein the fatty component is present in the composition in an amount of at least 2 wt-% based on the total weight of the antimicrobial composition; and c) a cationic antimicrobial agent; wherein the antimicrobial composition is free of surfactants with an HLB greater than 6, wherein a surfactant is an amphiphile other than components a), b), and c); and wherein the antimicrobial composition contains less than 1% by weight of hydrophilic polymers based on the total weight of the composition. a) a C 2 -C 5 lower alcohol present in an amount of at least 35 wt-%; b) a fatty component containing one or more free hydroxyl groups selected from the group consisting of C 12 -C 18 fatty alcohols, optionally in combination with a fatty component containing one or more free hydroxyl groups selected from the group consisting of C 12 -C 21 fatty ethers, and C 12 -C 21 fatty amides; wherein the fatty component is present in the composition in an amount of at least 2 wt-% based on the total weight of the antimicrobial composition; and c) a cationic antimicrobial agent;
A pump system comprising: a fluid housing with an axis, an axial inlet, and a radially outer outlet; a permanent magnet rotor disposed on the axis, within the fluid housing, and having a plurality of perimetrically distributed impeller fins that extend at least partially radially outward; and an electric stator disposed on the axis, within the fluid housing, adjacent the impeller fins of the permanent magnet rotor, and separated from the impeller fins by an axial gap; the pump system being characterised in that each of the impeller fins comprises a permanent magnet, or in that the impeller fins are ferromagnetic pole shoes that directly each abut a single permanent magnet section. a fluid housing with an axis, an axial inlet, and a radially outer outlet; a permanent magnet rotor disposed on the axis, within the fluid housing, and having a plurality of perimetrically distributed impeller fins that extend at least partially radially outward; and an electric stator disposed on the axis, within the fluid housing, adjacent the impeller fins of the permanent magnet rotor, and separated from the impeller fins by an axial gap;
A tape feeder comprising a feeding claw, the tape feeder configured for feeding a taped component, in which multiple electric components are taped to a tape having engagement holes formed at equal pitches, to a supply position by engaging feeding claws with the engagement holes, the tape feeder being characterized by comprising: a feed claw member that is configured to linearly move in a state of being engaged with the engagement hole and to feed the taped component toward the feeding claw.
Pressure medium-controlled countersinking tool having one or more machining blades arranged in a rotatably driven base body which can be actuated in their pivot position by supplying a pressure medium, wherein actuation of the at least one blade takes place via at least one piston-cylinder unit (24, 25) actuated by the pressure medium, wherein the at least one blade is pivotably mounted on a bearing bolt forming a pivot axis and can be pivoted out from a blade window arranged in the blade housing, wherein a centring device (21, 23, 42, 43) is arranged between the blade and the blade window of the blade housing at a radial distance (44, 45, 46) from the pivot axis and in the pivot range of the at least one blade, characterised in that the centring device (21, 23) consists of a centring groove arranged on the base side on the underside of the blade and which is in positive engagement with a housing-side centring bolt in the machining position and in that the centring bolt is profiled to be round and projects with its upper part of its outer circumference from a housing-side receiving bore and forms a complementary centring surface there for engagement in the centring groove.
An applicator system for surgical fasteners comprising: an insertion tool having a shaft with a proximal end, a distal end, and an insertion fork connected to the distal end of said shaft; at least one cartridge containing a plurality of surgical fasteners, wherein said surgical fasteners are removable one at a time from said cartridge by engaging one of said surgical fasteners with said insertion fork and removing said engaged surgical fastener from said cartridge; and a surgical instrument or a handle, wherein said surgical instrument has a longitudinal axis (A 1) and clamping jaws (167, 169) at a distal end thereof, wherein said surgical instrument is adapted to hold said insertion tool between said clamping jaws (167, 169) such that the shaft of the insertion tool extends laterally along a second axis that traverses the longitudinal axis (A 1) of said surgical instrument, wherein said handle has a longitudinal axis (A 1), a proximal end and a distal end, wherein said insertion tool is permanently secured to the distal end of said handle such that the shaft of the insertion tool extends laterally along a second axis that traverses the longitudinal axis (A 1) of said handle. an insertion tool having a shaft with a proximal end, a distal end, and an insertion fork connected to the distal end of said shaft; at least one cartridge containing a plurality of surgical fasteners, wherein said surgical fasteners are removable one at a time from said cartridge by engaging one of said surgical fasteners with said insertion fork and removing said engaged surgical fastener from said cartridge; and a surgical instrument or a handle, wherein said surgical instrument has a longitudinal axis (A 1) and clamping jaws (167, 169) at a distal end thereof, wherein said surgical instrument is adapted to hold said insertion tool between said clamping jaws (167, 169) such that the shaft of the insertion tool extends laterally along a second axis that traverses the longitudinal axis (A 1) of said surgical instrument, wherein said handle has a longitudinal axis (A 1), a proximal end and a distal end, wherein said insertion tool is permanently secured to the distal end of said handle such that the shaft of the insertion tool extends laterally along a second axis that traverses the longitudinal axis (A 1) of said handle.
A system for communication of information, comprising: a medical implant for implantation in a patient's body and connected to or comprising an internal communication unit, the internal communication unit comprising a second capacitor plate; and an external communication unit adapted to be arranged outside the patient's body and to be placed in contact with, or in close vicinity of, the patient's body when in use, the external communication unit comprising a first capacitor plate; wherein the information is communicated between the medical implant, when implanted in the patient's body, and the external communication unit; wherein the external communication unit and the internal communication unit are adapted to communicate with each other using a capacitive coupling between the first capacitor plate and the second capacitor plate, using a part of the patient's body as a communication path; wherein the internal communication unit comprises a communication transceiver comprising the second capacitor plate, and wherein the information is communicated by drawing or injecting an electrical current from or into a capacitor formed by the first and second capacitor plates, and wherein the communicated information is digitally represented as transitions of a signal. a medical implant for implantation in a patient's body and connected to or comprising an internal communication unit, the internal communication unit comprising a second capacitor plate; and an external communication unit adapted to be arranged outside the patient's body and to be placed in contact with, or in close vicinity of, the patient's body when in use, the external communication unit comprising a first capacitor plate; wherein the information is communicated between the medical implant, when implanted in the patient's body, and the external communication unit; wherein the external communication unit and the internal communication unit are adapted to communicate with each other using a capacitive coupling between the first capacitor plate and the second capacitor plate, using a part of the patient's body as a communication path; wherein the internal communication unit comprises a communication transceiver comprising the second capacitor plate, and wherein the information is communicated by drawing or injecting an electrical current from or into a capacitor formed by the first and second capacitor plates, and wherein the communicated information is digitally represented as transitions of a signal.
A Communication Device Network Analyzer, CDNA, system for detecting malicious traffic flows in a network, the CDNA system comprising a computer device including at least one processor in communication with at least one memory area, wherein the at least one processor is programmed to: store a plurality of context information about the network including a plurality of satellites; repeat the following steps for each network configuration based on the times where the network configuration will be active: • determine a network configuration of the network at a specific point in time; • generate one or more security policies for one or more satellites of the plurality of satellites in the network based on the network configuration and the plurality of context information; and • deploy the one or more security policies to the one or more satellites in the network, wherein the one or more satellites are configured to execute an algorithm to monitor communications on the network in view of a corresponding security policy of the one or more security policies. store a plurality of context information about the network including a plurality of satellites; repeat the following steps for each network configuration based on the times where the network configuration will be active: • determine a network configuration of the network at a specific point in time; • generate one or more security policies for one or more satellites of the plurality of satellites in the network based on the network configuration and the plurality of context information; and • deploy the one or more security policies to the one or more satellites in the network, • determine a network configuration of the network at a specific point in time; • generate one or more security policies for one or more satellites of the plurality of satellites in the network based on the network configuration and the plurality of context information; and • deploy the one or more security policies to the one or more satellites in the network, wherein the one or more satellites are configured to execute an algorithm to monitor communications on the network in view of a corresponding security policy of the one or more security policies.
A manufacturing method for a code wheel for a rotary encoder, the code wheel comprising, in a central portion, a hole into which a rotary shaft of a rotary member is fitted and a code portion including a radial code pattern in a circumferential edge portion, the method comprising the steps of: forming the code portion and a reference circle in a plate so that the reference circle has a radius larger than a radius of the hole by a tolerance of deviation between a center position of the code portion and a center position of the hole, and the reference circle has a same center as that of the code portion; and forming the hole in the plate in which the code portion and the reference circle are formed, based on the reference circle. forming the code portion and a reference circle in a plate so that the reference circle has a radius larger than a radius of the hole by a tolerance of deviation between a center position of the code portion and a center position of the hole, and the reference circle has a same center as that of the code portion; and forming the hole in the plate in which the code portion and the reference circle are formed, based on the reference circle.
A method for the denitrification of bypass exhaust gases in a plant for producing cement clinker, wherein - the plant has a rotary kiln for the sintering of raw meal to cement clinker, and has a calciner for the deacidification of the raw meal, downstream of the rotary kiln in the kiln exhaust gas flow direction, - the rotary kiln has a rotary kiln inlet chamber which is connected directly or via a kiln riser duct to the calciner, and - the bypass exhaust gas is drawn off in the region of the rotary kiln inlet chamber, characterized by - passing of the bypass exhaust gas into a first mixing chamber, where - the bypass exhaust gas is cooled in the first mixing chamber to a temperature of between 800°C and 950°C, - passing of the bypass exhaust gas from the first mixing chamber through a reaction section disposed in a conduit, where - the residence time of the bypass exhaust gas in the reaction section is between 0.5 s and 3 s, and where - ammonia, aqueous ammonia solution or ammonia-releasing substances are injected into the reaction section for the denitrification of the bypass exhaust gas by the process of selective non-catalytic reduction (SNCR), - passing of the bypass exhaust gas from the reaction section into a second mixing chamber, where - the bypass exhaust gas is cooled in the second mixing chamber to a temperature of between 150°C and 250°C, and by - passing of the bypass exhaust gas from the second mixing chamber to at least one filter for the dedusting of the bypass exhaust gas. - the plant has a rotary kiln for the sintering of raw meal to cement clinker, and has a calciner for the deacidification of the raw meal, downstream of the rotary kiln in the kiln exhaust gas flow direction, - the rotary kiln has a rotary kiln inlet chamber which is connected directly or via a kiln riser duct to the calciner, and - the bypass exhaust gas is drawn off in the region of the rotary kiln inlet chamber, - passing of the bypass exhaust gas into a first mixing chamber, where - the bypass exhaust gas is cooled in the first mixing chamber to a temperature of between 800°C and 950°C, - the bypass exhaust gas is cooled in the first mixing chamber to a temperature of between 800°C and 950°C, - passing of the bypass exhaust gas from the first mixing chamber through a reaction section disposed in a conduit, where - the residence time of the bypass exhaust gas in the reaction section is between 0.5 s and 3 s, and where - ammonia, aqueous ammonia solution or ammonia-releasing substances are injected into the reaction section for the denitrification of the bypass exhaust gas by the process of selective non-catalytic reduction (SNCR), - passing of the bypass exhaust gas from the reaction section into a second mixing chamber, where - the bypass exhaust gas is cooled in the second mixing chamber to a temperature of between 150°C and 250°C, and by - the bypass exhaust gas is cooled in the second mixing chamber to a temperature of between 150°C and 250°C, and by - passing of the bypass exhaust gas from the second mixing chamber to at least one filter for the dedusting of the bypass exhaust gas.
A system comprising a shear device (40, 140, 200) with at least one inlet and at least one outlet, a substrate source having a substrate pipe with at least one inlet fluidly connected to the substrate source and at least one outlet; an oxidant source having an oxidant pipe with at least one inlet fluidly connected to the oxidant source and at least one outlet; and a steam source having a steam pipe with at least one inlet fluidly connected to the steam source and at least one outlet; wherein the at least one outlet of the substrate pipe, at least one outlet of the oxidant pipe, and at least one outlet of the steam pipe are fluidly connected to the inlet of the shear device (40, 140, 200), characterized in said shear device further comprising three toothed rotor-stator stages (222, 223, 224, 227, 228,229) and being configured to generate a shear rate of greater than 20,000 s -1.
A sensor, comprising: a circuit board comprising an electronic processor; a plurality of radiation sources (14a-b, 16a-f), each source being attached to the circuit board; and a spectral detector attached to the circuit board, the spectral detector being configured to analyze radiation derived from one or more of the plurality of radiation sources (14a-b, 16a-f), the plurality of radiation sources including multiple long-distance sources (16a-f) and one or more short-distance sources (14a-b) relative to the position of the detector; wherein during use the sensor is configured to be worn on a portion of a body of a subject; wherein the electronic processor is configured to (i) identify an expected spectrum of the sample and/or an expected spectral shape of particular features in the spectrum of the sample, (ii) analyze each of the measured absorbance spectra produced by the multiple long distance sources to determine a correspondence between expected and measured spectra, (iii) select that long-distance source as said one of the multiple long distance sources to direct incident radiation to the subject that produces a measured absorbance spectrum or spectral feature shape that corresponds most closely with the expected spectrum or spectral feature shape of the sample, and (iv) cause the one or more short-distance sources (14a-b) and the selected long distance source (16a-f) to direct incident radiation to the subject, to cause the spectral detector to analyze radiation from the subject, and to determine one or more properties of the subject based on the radiation from the subject. a circuit board comprising an electronic processor; a plurality of radiation sources (14a-b, 16a-f), each source being attached to the circuit board; and a spectral detector attached to the circuit board, the spectral detector being configured to analyze radiation derived from one or more of the plurality of radiation sources (14a-b, 16a-f), (i) identify an expected spectrum of the sample and/or an expected spectral shape of particular features in the spectrum of the sample, (ii) analyze each of the measured absorbance spectra produced by the multiple long distance sources to determine a correspondence between expected and measured spectra, (iii) select that long-distance source as said one of the multiple long distance sources to direct incident radiation to the subject that produces a measured absorbance spectrum or spectral feature shape that corresponds most closely with the expected spectrum or spectral feature shape of the sample, and (iv) cause the one or more short-distance sources (14a-b) and the selected long distance source (16a-f) to direct incident radiation to the subject, to cause the spectral detector to analyze radiation from the subject, and to determine one or more properties of the subject based on the radiation from the subject.
Use of a porous carbon network which comprises chemically interconnected carbon-nanofibres, in an anti-static, electrostatic dissipative or conductive layer with a thickness of less than 1000 μm, wherein the carbon network is an intraparticle porous network wherein the carbon nanofibers are interconnected to other carbon nanofibers in the network by chemical bonds via junctions, wherein the pores in the network have an intraparticle pore diameter size of 5-150 nm using Mercury Intrusion Porosimetry according to ASTM D4404-10, wherein at least 20 wt% of the carbon in the carbon networks is in crystalline form, and the carbon nanofibers have an average aspect ratio of fibre length-to-thickness of at least 2.
An input device for an electronic device, comprising: a guide tube extending in a direction; a shaft mounted to be able to linearly move back and forth in the direction inside the guide tube; a first cam member rotatably mounted on the shaft inside the guide tube, being guided by the guide tube to linearly move along with the shaft in a first interval, and configured to rotate or linearly move about the shaft in a first position off the first interval to at least partially reenter into the first interval; a second cam member rotatably mounted on the shaft inside the guide tube, configured to linearly move in each of the first interval and a second interval connecting to the first interval and differing from the first interval, and configured to rotate and move about the shaft in the first position; a third cam member mounted on the shaft while facing the first cam member with the second cam member disposed therebetween inside the guide tube and linearly moving back and forth along with the shaft; and a sensor module, wherein as the third cam member linearly moves back and forth, the first cam member and the second cam member each linearly move, and wherein the sensor module is configured to detect, at least, the first cam member reaching the first position to produce a first input signal. a guide tube extending in a direction; a shaft mounted to be able to linearly move back and forth in the direction inside the guide tube; a first cam member rotatably mounted on the shaft inside the guide tube, being guided by the guide tube to linearly move along with the shaft in a first interval, and configured to rotate or linearly move about the shaft in a first position off the first interval to at least partially reenter into the first interval; a second cam member rotatably mounted on the shaft inside the guide tube, configured to linearly move in each of the first interval and a second interval connecting to the first interval and differing from the first interval, and configured to rotate and move about the shaft in the first position; a third cam member mounted on the shaft while facing the first cam member with the second cam member disposed therebetween inside the guide tube and linearly moving back and forth along with the shaft; and a sensor module, wherein as the third cam member linearly moves back and forth, the first cam member and the second cam member each linearly move, and wherein the sensor module is configured to detect, at least, the first cam member reaching the first position to produce a first input signal.
A battery compartment comprising a battery lock mechanism, the battery lock mechanism comprising at least one locking member rotatably supported on a shaft, the locking member comprising a leading edge portion arranged to enter a recess formed in a battery to lock the battery in position, characterized in that the leading edge portion has an arcuate form with a curvature corresponding to that of a circle segment with radius corresponding to the distance from the leading edge portion to the center of the shaft, and in that the recess formed in the battery comprises a surface arranged to engage the leading edge portion, wherein the surface has an arcuate form to match that of the leading edge portion.
Method of data transmission by an ad-hoc network of mobile communication equipments (16a, 16b, 16c, 16d), from at least one source equipment to at least one collection terminal, by means of mobile relay equipment, in which, for each communication equipment, at least one quality factor (Q0, Q1, Q2, Q3, Q4, Q5) is updated, characterized in that the quality factor of each relay equipment depends on a history of data transmission and that data transmission from mobile equipment to mobile relay equipment is conditional on the quality factor of the relay equipment capable of receiving the data, and wherein the quality factor of each relay equipment is respectively updated during the reception and transmission of data by said relay equipment.