mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a marker , comprising: - storing energy collected by an energy harvesting element of the marker ; - using the stored energy to enable operations of a communications element of the marker ; - receiving, by the communications element of the marker , a marker deactivation signal transmitted from an external device ; and - in response to receiving the marker deactivation signal, supplying power from the energy harvesting element to a deactivation element of the marker ; and - shorting, in response to the power being supplied to the deactivation element , a coil internal to the marker , thereby causing a resonator to be prevented from receiving transmit bursts emitted from an Electronic Article Surveillance, EAS, system . - storing energy collected by an energy harvesting element of the marker ; - using the stored energy to enable operations of a communications element of the marker ; - receiving, by the communications element of the marker , a marker deactivation signal transmitted from an external device ; and - in response to receiving the marker deactivation signal, supplying power from the energy harvesting element to a deactivation element of the marker ; and - shorting, in response to the power being supplied to the deactivation element , a coil internal to the marker , thereby causing a resonator to be prevented from receiving transmit bursts emitted from an Electronic Article Surveillance, EAS, system .
A motor control apparatus comprising multiple phases that calculates duty command values of respective phases for controlling currents of a motor , forms PWM-signals in response to said duty command values, drives said motor by means of an inverter based on said PWM-signals, said motor control apparatus comprising a rotation sensor , which is connected to said motor and detects a motor rotation angle of said motor , wherein a single shunt type current detecting circuit is connected to a power source side or a ground side of said inverter , characterized in that said motor control apparatus further comprises: a comparing section to compare said duty command values and to determine a size relation of said duty command values; a timing control section to sequentially enable rising of said PWM-signals with a predetermined order based on said size relation; and a motor angle output section to change the order of said rising in correspondence to a predetermined algorithm, estimate a motor angle estimation value by means of an approximation_based on past values of said motor rotation angle of said rotation sensor at only a time when said order of said rising is changed, and output said motor angle estimation value as said motor rotation angle. a comparing section to compare said duty command values and to determine a size relation of said duty command values; a timing control section to sequentially enable rising of said PWM-signals with a predetermined order based on said size relation; and a motor angle output section to change the order of said rising in correspondence to a predetermined algorithm, estimate a motor angle estimation value by means of an approximation_based on past values of said motor rotation angle of said rotation sensor at only a time when said order of said rising is changed, and output said motor angle estimation value as said motor rotation angle.
A method of making an encoding pattern on a timepiece setting stem for detecting an axial and/or rotational movement, and/or an axial position of said setting stem , the method comprising: providing the surface of a shaft of said setting stem with a first section (A) having first material properties and with a second section (B) having second material properties to form the encoding pattern , wherein said first and second material properties are at least partially different from each other, wherein the encoding pattern comprises two distinct portions , the first one being meant for axial detection, and the second one for angular detection, the first section (A) comprising an encoded ring extending orthogonally with respect to an axial rotational axis of the shaft and in the first portion , and a strip (S) extending over the surface of said shaft diagonally with respect to the axis of said shaft and in the second portion .
Electric motor assembly comprising two housing parts, wherein the first housing part can be connected to the second housing part , wherein an electric motor is arranged in the first housing part , wherein a rotor shaft of the electric motor has a pinion which meshes with an idler gear so as to form a spur-gear stage, characterized in that a centring device centres the first housing part with respect to the second housing part , wherein the idler gear is mounted rotatably on the centring device , and the centring device is of cylindrical form and forms a longitudinal axis, wherein the longitudinal axis of the centring device is oriented parallel to the rotor shaft , and the centring device axially extends into in each case one cutout of the first and second housing parts, and the rotor shaft is mounted rotatably in the first housing part by means of a first bearing and in the first housing part or in the second housing part by means of a second bearing .
A computing device comprising: a housing comprising an outer surface and an inner surface ; a heat generating component supported by the housing; a phase change device adjacent or physically connected to the heat generating component, the phase change device being elastically compressible and expandable and comprising a first portion and a second portion , the first portion being closer to the heat generating component than the second portion, the second portion being opposite the first portion and adjacent to the inner surface of the housing, wherein the second portion of the phase change device is at a distance from the inner surface of the housing, wherein when a force is applied to a portion of the outer surface of the housing , the inner surface of the housing is configured to flex towards the second portion of the phase change device and move into contact with the phase change device, and the phase change device is compressed, and wherein when a force is applied to the phase change device from within the phase change device, the phase change device is configured to expand and move into physical contact with the inner surface of the housing . a housing comprising an outer surface and an inner surface ; a heat generating component supported by the housing; a phase change device adjacent or physically connected to the heat generating component, the phase change device being elastically compressible and expandable and comprising a first portion and a second portion , the first portion being closer to the heat generating component than the second portion, the second portion being opposite the first portion and adjacent to the inner surface of the housing, wherein the second portion of the phase change device is at a distance from the inner surface of the housing, wherein when a force is applied to a portion of the outer surface of the housing , the inner surface of the housing is configured to flex towards the second portion of the phase change device and move into contact with the phase change device, and the phase change device is compressed, and wherein when a force is applied to the phase change device from within the phase change device, the phase change device is configured to expand and move into physical contact with the inner surface of the housing .
Device designed to be conveyed by a drivable agricultural machine to support the erection and dismantling of fences; wherein the device has a reel around which lengthways material can be wound and unwound, and which can be rotated by a drive motor; wherein a drive train between the drive motor and reel is fitted with a slip clutch , which limits the torque between transferable between the drive motor and reel ; wherein a reel shaft , which is arranged coaxially to the reel and is connected non-rotatably to prevent relative rotation around the entire axle, has a shaft end the front and lateral surface of which are freely accessible; wherein the reel shaft protrudes through a drive housing on which it is pivoted; wherein the slip clutch is located in the drive housing , and the drive housing is arranged between the reel and that shaft end , the front and lateral surface of which are freely accessible.
Spacer ring intended to be positioned between a container , in particular a tube, in particular a flexible tube for a cosmetic product, and a cap of said container , said ring comprising ribs for centring on a neck of said container , characterized in that said ribs are symmetrical with respect to a transverse mid-plane of the ring, said ring exhibiting an internal annular excess thickness .
Use of a carbonate-substituted hydroxyapatite having the following formula: Ca (PO 4 ) (6-y) (CO 3 ) y (OH) 2 wherein y is comprised between 0.002 and 2, in combination with at least one bioactive substance selected from the group consisting of an ion of Mn, Mg, K, Fe and B and/or a plant extract selected from the group consisting of an extract of: lignin, mint, thyme, rosemary, sesame, soya, cloves, garlic, lemon, cinnamon, Abies sibirica, Malpighia glabra, Achillea millefolium, Allium sativum, Medicago sativa, Aloe vera Citrus sinensis, Artemisia annua, Arnica Montana, Ocimum basilicum, Betula pendula, Betula pubescens, Calendula officinalis, Matricaria chamomilla, Chamaemelum nobile, Cinnamomum verum, Centella asiatica, Chelidonium majus, Syzygium aromaticum, Allium cepa, Equisetum arvense, Curcuma longa, Echinacea purpurea, Echinacea angustifolia, Eucalyptus globulus, Hypericum perforatum, Fucus vesiculosus, Gentiana lutea, Lavandula angustifolia, Citrus limon, Melilotus officinalis, Melissa officinalis, Punica granatum, Mentha piperita, Vaccinium myrtillus, Orthosiphon stamineus, Urtica dioica, Olea europeae, Tabebuia impetiginosa, Plantago lanceolata, Hieracium pilosella, Pinus sibirica, Polypodium leucotoms, Citrus paradise, Quassia amara, Rheum Thais, Rosa canina, Rosmarinus officinalis, Ruscus aculeatus, Salix alba, Salvia officinalis, Camelia sinensis, Tilia tomentosa, Thymus vulgaris, Arctostaphylos uva-ursi, Valeriana officinalis, Solidago virgaurea, Loranthus europaeus and Zingiber officinale, wherein the bioactive substance is adsorbed on the substituted hydroxyapatite, for the phytosanitary and / or nutritional treatment of the plants.
A grinder assembly removably connectable to a container of a spice dispenser comprising: an outer housing ; a stationary grinder component ; and a rotatable grinder component associated with said stationary grinder component to define a grinding chamber between a portion of said stationary grinder component and a portion of said rotatable grinder component , wherein said rotatable grinder component is rotatable relative to said stationary grinder component about a grinding axis (X); and a first feature for coupling the grinder assembly to said container ; and a second feature movable to selectively decouple the grinder assembly from the container , said second feature being distinct from said first feature; characterized in that both the first feature and the second feature are arranged at an interior surface of the outer housing . an outer housing ; a stationary grinder component ; and a rotatable grinder component associated with said stationary grinder component to define a grinding chamber between a portion of said stationary grinder component and a portion of said rotatable grinder component , wherein said rotatable grinder component is rotatable relative to said stationary grinder component about a grinding axis (X); and a first feature for coupling the grinder assembly to said container ; and a second feature movable to selectively decouple the grinder assembly from the container , said second feature being distinct from said first feature; characterized in that both the first feature and the second feature are arranged at an interior surface of the outer housing .
A chip for a windshield washer system of a vehicle front or rear window, wherein the chip is injection-molded by an injection molding process, the chip being arranged to be inserted into a chip holder of the windshield washer system, wherein the chip has a structure for generating a spray beam, wherein the structure has at an end face of the chip an outlet opening having an opening edge (11.1, 21.1, 31.1), wherein the outlet opening is configured to allow the spray beam to emerge from the chip during operation of the windshield washer nozzle system onto the vehicle front or rear window, characterized in that the opening is delimited by the opening edge (11.1, 21.1, 31.1) all around the complete opening circumference by the chip , and the outlet opening and the opening edge (11.1, 21.1, 31.1) are formed all around and integrally by means of the injection molding process.
A smoke detector dynamic range adjustment system comprising: a smoke detector comprising inner walls defining an enclosed detection area ; a light emitting element within the inner walls for emitting light at a plurality of light output levels; a light receiving element within the inner walls for receiving light emitted from the light emitting element ; wherein the light output level of the light emitting element is automatically reduced by a controller when a saturation limit of the light receiving element is approached; wherein the plurality of light output levels comprises a first output level and a second output level that is half of the first output level; and wherein a dynamic range of the smoke detector is doubled by adjusting to the second output level relative to operation under only the first output level. a smoke detector comprising inner walls defining an enclosed detection area ; a light emitting element within the inner walls for emitting light at a plurality of light output levels; a light receiving element within the inner walls for receiving light emitted from the light emitting element ; wherein the light output level of the light emitting element is automatically reduced by a controller when a saturation limit of the light receiving element is approached; wherein the plurality of light output levels comprises a first output level and a second output level that is half of the first output level; and wherein a dynamic range of the smoke detector is doubled by adjusting to the second output level relative to operation under only the first output level.
System with at least two DIN rails and a connecting element for connecting at least two DIN rails with at least one bottom wall and two side walls emerging from the bottom wall on opposite sides, wherein the DIN rails are designed to accommodate, in a form-fitting and/or force-fitting manner, at least one light-emitting module in an accommodating area delimited by the bottom wall and the side walls , wherein cable tie cutouts arranged in a regular longitudinal pattern are introduced in at least one of the two side walls , wherein - the connecting element has a bottom wall and two side walls emerging from the bottom wall on opposite sides, - the walls form a profile, - the connecting element is designed for accommodating at least one DIN rail in an accommodating area delimited by the bottom wall and the side walls , and - the connecting element has latching elements arranged in a regular longitudinal pattern on at least one wall for latching with an accommodated DIN rail , characterized in that - the latching elements are in the form of latching projections, which are arranged on the side walls , are directed towards the accommodating area for the DIN rail and are configured and arranged for latching at least one of the cable tie cutouts of the DIN rail . - the connecting element has a bottom wall and two side walls emerging from the bottom wall on opposite sides, - the walls form a profile, - the connecting element is designed for accommodating at least one DIN rail in an accommodating area delimited by the bottom wall and the side walls , and - the connecting element has latching elements arranged in a regular longitudinal pattern on at least one wall for latching with an accommodated DIN rail , - the latching elements are in the form of latching projections, which are arranged on the side walls , are directed towards the accommodating area for the DIN rail and are configured and arranged for latching at least one of the cable tie cutouts of the DIN rail .
Fastening apparatus for arrangement in an inner top region of a vehicle body of a car of a rail vehicle , having at least one fastening module , which is formed of two fastening profiles , which are arranged in parallel and opposite one another, of a respective length and with a plurality of interfaces , characterised in that the fastening profiles define a space for an arrangement of devices , which in particular are used to control and monitor components of the rail vehicle, wherein the fastening profiles , on a side facing the space, each have a plurality of interfaces running in parallel in the longitudinal direction of the fastening module for a spatially flexible fastening of brackets , dividing walls and/or cross-connectors over at least the length of the fastening module , and wherein the brackets are used to fasten the devices , the dividing walls are used for fire protection or electromagnetic shielding, and the cross-connectors are used to mechanically connect the two fastening profiles . the fastening profiles define a space for an arrangement of devices , which in particular are used to control and monitor components of the rail vehicle, wherein the fastening profiles , on a side facing the space, each have a plurality of interfaces running in parallel in the longitudinal direction of the fastening module for a spatially flexible fastening of brackets , dividing walls and/or cross-connectors over at least the length of the fastening module , and wherein the brackets are used to fasten the devices , the dividing walls are used for fire protection or electromagnetic shielding, and the cross-connectors are used to mechanically connect the two fastening profiles .
An analysis method for analyzing a sample (Sa) using capillary electrophoresis by applying a voltage to a sample solution introduced to a micro flow path, performing separation analysis for a component contained in the sample solution, and measuring an optical measurement value at a measurement section of the micro flow path corresponding to an elapsed time after a start of measurement, the analysis method comprising: a waveform forming step (S31) of forming a waveform related to the optical measurement value corresponding to the elapsed time since the start of measurement; an interface detection step (S32) of determining an interface detection time when an interface between the sample solution and a migration liquid (Lm) reaches a predetermined measurement position in the micro flow path, based on the optical measurement value; a waveform peak specification step (S33) of specifying waveform peaks appearing in the waveform and of identifying a maximum waveform peak which is the largest waveform peak out of the waveform peaks; characterized by a component identification step (S34) of identifying a component contained in the sample solution, said component corresponding to the maximum waveform peak, based on a maximum-peak detection time which is the elapsed time corresponding to the maximum waveform peak, as well as on the interface detection time. a waveform forming step (S31) of forming a waveform related to the optical measurement value corresponding to the elapsed time since the start of measurement; an interface detection step (S32) of determining an interface detection time when an interface between the sample solution and a migration liquid (Lm) reaches a predetermined measurement position in the micro flow path, based on the optical measurement value; a waveform peak specification step (S33) of specifying waveform peaks appearing in the waveform and of identifying a maximum waveform peak which is the largest waveform peak out of the waveform peaks; characterized by a component identification step (S34) of identifying a component contained in the sample solution, said component corresponding to the maximum waveform peak, based on a maximum-peak detection time which is the elapsed time corresponding to the maximum waveform peak, as well as on the interface detection time.
An article of footwear , comprising: a sole structure including a midsole component and at least one outer sole member ; the midsole component including a first outer surface with a recessed portion ; the outer sole member having a second outer surface ; wherein the recessed portion is configured to receive the outer sole member ; a region of the sole structure including a first portion in the first outer surface of the midsole component and a second portion in the second outer surface of the outer sole member ; the region including a set of holes arranged in an auxetic configuration, wherein the region is configured to undergo auxetic expansion when a tension is applied across the region in a first direction, wherein the region expands in the first direction and a second direction during auxetic expansion, the second direction being perpendicular to the first direction; wherein the auxetic configuration of the holes does not vary throughout the region ; and wherein the set of holes is arranged such that each hole includes an arm oriented in a direction characterized by a first axis . a sole structure including a midsole component and at least one outer sole member ; the midsole component including a first outer surface with a recessed portion ; the outer sole member having a second outer surface ; wherein the recessed portion is configured to receive the outer sole member ; a region of the sole structure including a first portion in the first outer surface of the midsole component and a second portion in the second outer surface of the outer sole member ; the region including a set of holes arranged in an auxetic configuration, wherein the region is configured to undergo auxetic expansion when a tension is applied across the region in a first direction, wherein the region expands in the first direction and a second direction during auxetic expansion, the second direction being perpendicular to the first direction; wherein the auxetic configuration of the holes does not vary throughout the region ; and wherein the set of holes is arranged such that each hole includes an arm oriented in a direction characterized by a first axis .
A plant for preparing a purified isomeric monomer from a mixture of different isomeric methylene diphenyl diisocyanate monomers, wherein the plant comprises a distillation apparatus , which comprises: a) a distillation column including a structured packing , b) a source for a mixture of different isomeric methylene diphenyl diisocyanate monomers, c) an evaporator , d) an overhead vapor condenser , e) an overhead vacuum system and f) a flow-controlled reflux system , wherein the overhead vapor condenser comprises a shell and tube arrangement and is embodied so as to directly subcool the condensate to less than 47°C, and wherein the flow-controlled reflux system comprises a heater , which is embodied so as to reheat a partial stream of the condensate formed in the overhead vapor condenser up to 190 °C. a) a distillation column including a structured packing , b) a source for a mixture of different isomeric methylene diphenyl diisocyanate monomers, c) an evaporator , d) an overhead vapor condenser , e) an overhead vacuum system and f) a flow-controlled reflux system , wherein the overhead vapor condenser comprises a shell and tube arrangement and is embodied so as to directly subcool the condensate to less than 47°C, and wherein the flow-controlled reflux system comprises a heater , which is embodied so as to reheat a partial stream of the condensate formed in the overhead vapor condenser up to 190 °C.