mhurhangee/patent-ind-claim-en huggingface dataset:
Mobile comminuting system having a meterable feeding unit for material (M) to be comminuted, a reversible impact comminuter, connected downstream, as a comminuter , and having a screen unit connected downstream from the comminuter in production direction for separating valuable grain (W) from oversize grain (U), as well as a controller controlling the production, wherein a first quantity measuring unit for the material (M) to be comminuted and to be screened is arranged prior to the screen unit and a second quantity measuring unit for measuring the quantity of the produced valuable grain (W) is arranged after the screen unit , wherein the controller is configured to determine a proportion of valuable grain and deviations from a target proportion of valuable grain and/or a proportion of oversize grain and deviations from a target proportion of oversize grain, wherein the proportion of valuable grain is defined as the ratio of the quantity of the valuable grain (W) to the quantity of the material (M) to be screened, and wherein a proportion of oversize grain is the ratio of the difference of the quantities of material (M) to be screened and valuable grain (W) to the quantity of the material (M) to be screened.
A method for forming a polyolefin material; said method comprising: (i) preparing a polyolefin resin composition comprising polyolefin resin, one or more optical brighteners and bis-3,4-dimethylbenzylidene sorbitol and bis-p-ethylbenzylidene sorbitol, wherein the weight ratio of bis-3,4-dimethylbenzylidene sorbitol to bis-p-ethylbenzylidene sorbitol in the polyolefin resin composition is 45:55 to 25:75; (ii) processing said polyolefin resin composition to form said polyolefin material. (i) preparing a polyolefin resin composition comprising polyolefin resin, one or more optical brighteners and bis-3,4-dimethylbenzylidene sorbitol and bis-p-ethylbenzylidene sorbitol, wherein the weight ratio of bis-3,4-dimethylbenzylidene sorbitol to bis-p-ethylbenzylidene sorbitol in the polyolefin resin composition is 45:55 to 25:75; (ii) processing said polyolefin resin composition to form said polyolefin material.
A power tool comprising: a housing arranged to be coupled with a battery ; and a battery cover arranged to cover at least a portion of the battery when the battery is coupled to the housing, characterized in that the battery cover includes an expandable portion moveable from a collapsed position to an expanded position; wherein, when the expandable portion is in the collapsed position, the battery cover has a first internal area , and when the expandable portion is in the expanded position, the battery cover has a second internal area ; and wherein the first internal area is less than the second internal area. a housing arranged to be coupled with a battery ; and a battery cover arranged to cover at least a portion of the battery when the battery is coupled to the housing, characterized in that the battery cover includes an expandable portion moveable from a collapsed position to an expanded position; wherein, when the expandable portion is in the collapsed position, the battery cover has a first internal area , and when the expandable portion is in the expanded position, the battery cover has a second internal area ; and wherein the first internal area is less than the second internal area.
A method for Dynamic Network Steering in a mobile network, the mobile network comprising a User Equipment, UE, a Mobile Network Scoring System, MNSS, an entitlement server, and an Over The Air, OTA, server, wherein the UE comprises an application module, the method comprising the steps of: a) forwarding, from the UE to the application module, a UE location update via an Operating System Application Programming Interface, OS API, and waking up the application module; b) initiating, by the application module, an entitlement request towards the entitlement server to identify a customer with a customer ID; c) forwarding , by the entitlement server, the customer ID to the MNSS; d) requesting , from the application module to the UE, for the Mobile Country Code - Mobile Network Code, MCC-MNC, and a current Geo Position via OS API and forwarding this information to the MNSS; e) checking , at the MNSS, by looking into a topology map and comparing Key Performance Indicators, KPI's, if at the current Geo Position there is available a better network, based on the compared KPI's, than the network being currently used, wherein if no better network is available, no action is needed, wherein if a better network is available: f) sending , by the MNSS, a request for Steering of Roaming Refresh, SoRR, to the OTA server and sending , by the MNSS, information about a provider, of the founded better network available, to the application module; g) generating, at the OTA server, a SoRR message and sending it to the UE, to change to the better network identified. a) forwarding, from the UE to the application module, a UE location update via an Operating System Application Programming Interface, OS API, and waking up the application module; b) initiating, by the application module, an entitlement request towards the entitlement server to identify a customer with a customer ID; c) forwarding , by the entitlement server, the customer ID to the MNSS; d) requesting , from the application module to the UE, for the Mobile Country Code - Mobile Network Code, MCC-MNC, and a current Geo Position via OS API and forwarding this information to the MNSS; e) checking , at the MNSS, by looking into a topology map and comparing Key Performance Indicators, KPI's, if at the current Geo Position there is available a better network, based on the compared KPI's, than the network being currently used, wherein if no better network is available, no action is needed, wherein if a better network is available: f) sending , by the MNSS, a request for Steering of Roaming Refresh, SoRR, to the OTA server and sending , by the MNSS, information about a provider, of the founded better network available, to the application module; g) generating, at the OTA server, a SoRR message and sending it to the UE, to change to the better network identified.
A handheld device for a bone implant fixation procedure, the device comprising: a handle ; an awl-tap member releasably coupled to the handle and rotatably coupled to the handle via a ratchet assembly , the awl-tap member comprising an electrically conductive body including a distal tip at a distal end thereof for penetrating bone, and an externally threaded tapping portion adjacent to the distal tip configured to cut a thread on the inside surface of a hole created by the distal tip upon rotation of the awl-tap member, wherein the awl-tap member is configured to deliver electrical current to the bone for neuromonitoring and neurostimulation; a depth sleeve member operably associated with the handle and configured to move relative thereto, the depth sleeve member comprising an elongate body including a lumen extending therethrough, wherein at least a portion of the awl-tap member is received within the lumen when the awl-tap member is coupled to the handle and wherein the depth sleeve member and awl-tap member are configured to move independent of one another; and a sensor operably associated with the depth sleeve member and configured to detect movement of the depth sleeve member relative to the awl-tap member and to generate an electronic signal indicative of a depth of a hole created by the awl-tap member based on the detected movement. a handle ; an awl-tap member releasably coupled to the handle and rotatably coupled to the handle via a ratchet assembly , the awl-tap member comprising an electrically conductive body including a distal tip at a distal end thereof for penetrating bone, and an externally threaded tapping portion adjacent to the distal tip configured to cut a thread on the inside surface of a hole created by the distal tip upon rotation of the awl-tap member, wherein the awl-tap member is configured to deliver electrical current to the bone for neuromonitoring and neurostimulation; a depth sleeve member operably associated with the handle and configured to move relative thereto, the depth sleeve member comprising an elongate body including a lumen extending therethrough, wherein at least a portion of the awl-tap member is received within the lumen when the awl-tap member is coupled to the handle and wherein the depth sleeve member and awl-tap member are configured to move independent of one another; and a sensor operably associated with the depth sleeve member and configured to detect movement of the depth sleeve member relative to the awl-tap member and to generate an electronic signal indicative of a depth of a hole created by the awl-tap member based on the detected movement.
A drone-type lifesaving equipment dropping device comprising: an unmanned aerial vehicle having a propeller and a rotor configured to rotate the propeller; a holding member which is installed to the unmanned aerial vehicle and configured to be operated by wireless control; and a lifesaving equipment which is detachably engaged to the holding member and is dropped from the holding member after the lifesaving equipment is disengaged from the holding member, wherein the lifesaving equipment is a lifebuoy , characterized in that the holding member includes at least one horizontal frame , a plurality of support arms arranged on the horizontal frame so that the support arms are expanded or retracted in a diametric direction, a motor disposed at a center of the horizontal frame , and a link member configured to connect the motor and each proximal end of the support arms and transfer rotating movement of the motor to expanding or retracting movement of the support arms , and the holding member supports the lifebuoy by expanding the support arms so that the support arms are inserted into slots formed on an inner peripheral surface of the lifebuoy , are brought into close contact with the inner peripheral surface of the lifebuoy , or expand to a bottom of the lifebuoy , while the support arms are retracted in a second state, so that the lifebuoy is separated from the holding member , and the lifebuoys are stacked in a vertical direction, wherein the number of lifebuoys is appropriately selected in view of the performance of the unmanned aerial vehicle or the conditions of the distress accident. an unmanned aerial vehicle having a propeller and a rotor configured to rotate the propeller; a holding member which is installed to the unmanned aerial vehicle and configured to be operated by wireless control; and a lifesaving equipment which is detachably engaged to the holding member and is dropped from the holding member after the lifesaving equipment is disengaged from the holding member, wherein the lifesaving equipment is a lifebuoy , characterized in that the holding member includes at least one horizontal frame , a plurality of support arms arranged on the horizontal frame so that the support arms are expanded or retracted in a diametric direction, a motor disposed at a center of the horizontal frame , and a link member configured to connect the motor and each proximal end of the support arms and transfer rotating movement of the motor to expanding or retracting movement of the support arms , and the holding member supports the lifebuoy by expanding the support arms so that the support arms are inserted into slots formed on an inner peripheral surface of the lifebuoy , are brought into close contact with the inner peripheral surface of the lifebuoy , or expand to a bottom of the lifebuoy , while the support arms are retracted in a second state, so that the lifebuoy is separated from the holding member , and the lifebuoys are stacked in a vertical direction, wherein the number of lifebuoys is appropriately selected in view of the performance of the unmanned aerial vehicle or the conditions of the distress accident.
A method for creating a unique ECU-signature for an Electronic Control Unit, ECU , the ECU being integrally operating within a computerized sub-system of a vehicle network comprising a CAN-bus having at least two ECUs, the method comprising the steps of: a) reading and storing into a memory storage a plurality of CAN-bus messages , wherein each of said CAN-bus messages is generated by an ECU of said at least two ECUs; b) based on a non-linearity of the CAN-bus sub-system , determining from at least one pulse of each of said read messages a training-signature, wherein each of said training-signatures comprises a pair of sub-signatures: i) a rising-sub-signature, being an impulse response of a rising section of said at least one pulse of the CAN-bus sub-system, as viewed by said message generating ECU; and ii) a falling-sub-signature, being an impulse response of a falling section of said at least one pulse of the CAN bus sub-system, as viewed by said message generating ECU; and c) for each of said message generating ECUs, determine a unique ECU-signature from said respective training-signatures. a) reading and storing into a memory storage a plurality of CAN-bus messages , wherein each of said CAN-bus messages is generated by an ECU of said at least two ECUs; b) based on a non-linearity of the CAN-bus sub-system , determining from at least one pulse of each of said read messages a training-signature, wherein each of said training-signatures comprises a pair of sub-signatures: i) a rising-sub-signature, being an impulse response of a rising section of said at least one pulse of the CAN-bus sub-system, as viewed by said message generating ECU; and ii) a falling-sub-signature, being an impulse response of a falling section of said at least one pulse of the CAN bus sub-system, as viewed by said message generating ECU; and i) a rising-sub-signature, being an impulse response of a rising section of said at least one pulse of the CAN-bus sub-system, as viewed by said message generating ECU; and ii) a falling-sub-signature, being an impulse response of a falling section of said at least one pulse of the CAN bus sub-system, as viewed by said message generating ECU; and c) for each of said message generating ECUs, determine a unique ECU-signature from said respective training-signatures.
A magnetic sensor device , comprising: a first magnetic sensor comprising a modulated anisotropic magnetic resistance sensor configured to generate a magnetic field which is time-varying with a frequency f mod ; a second magnetic sensor comprising an unmodulated magnetic sensor; and an offset compensation circuit configured to: determine a zero-crossing of a sensing field from an output of the first magnetic sensor; sample an offset value of the second magnetic sensor at the zero-crossing; and subtract the offset value from an output of the second magnetic sensor. determine a zero-crossing of a sensing field from an output of the first magnetic sensor; sample an offset value of the second magnetic sensor at the zero-crossing; and subtract the offset value from an output of the second magnetic sensor.
A vehicle for transporting goods comprising a chassis with at least one load deck and one longitudinal axis , a plurality of steered bogies arranged underneath said load deck and an attachment and support assembly for attaching and supporting the load to be transported , supported by said chassis ; the attachment and support assembly comprising a head to support the load to be transported , means of coupling said support head to said chassis and means of actuation to move the support head with respect to the chassis ; said means of coupling comprising a first hinge having a first hinge axis horizontal and transverse to said longitudinal axis , said first hinge and said first hinge axis being movable with respect to said chassis , said first hinge axis being movable along a first circular path, said means of coupling also comprising a second movable hinge having a second movable hinge axis parallel to said first movable hinge axis , spaced apart transversally from said first movable hinge axis and movable together with said first movable hinge axis , said means of actuation further comprising an actuator having a rod , wherein the second movable hinge axis is movable along a second circular path having a radius other than the radius of said first circular path, characterised in that said rod acts on said support head and the actuator is configured to exert a tensile force on said support head towards said chassis at least during the operations of moving said support head to and from its reclining load-bearing position in a substantially horizontal position.
A camera-based sensor device for use in a controllable lighting system, the camera-based sensor comprising: a communications interface ; a camera for capturing images of a scene, each image comprising an array of pixels; and a processor configured to determine a plurality of users in the scene from an image captured by the camera using image processing techniques and determine a location of each of the plurality of users in the scene, characterized in that the processor is configured to: determine at least one light performance indicator, LPI, from the image captured by the camera , the LPI being a combined lighting metric derived from a plurality of pixels of the array of pixels in the image; and transmit, via the communications interface , the determined at least one LPI to the controllable lighting system for use by the controllable lighting system to make a control decision based on the LPI, wherein the processor does not transmit any of the image of the scene; wherein the processor is configured to determine the at least one LPI for each of the plurality of users present in the scene. a communications interface ; a camera for capturing images of a scene, each image comprising an array of pixels; and a processor configured to determine a plurality of users in the scene from an image captured by the camera using image processing techniques and determine a location of each of the plurality of users in the scene, determine at least one light performance indicator, LPI, from the image captured by the camera , the LPI being a combined lighting metric derived from a plurality of pixels of the array of pixels in the image; and transmit, via the communications interface , the determined at least one LPI to the controllable lighting system for use by the controllable lighting system to make a control decision based on the LPI, wherein the processor does not transmit any of the image of the scene; wherein the processor is configured to determine the at least one LPI for each of the plurality of users present in the scene.
Use of a composition comprising a non-toxic polyanionic material or a salt thereof to dissociate a polymeric membrane, wherein: the polymeric membrane comprises sodium cellulose sulfate and polydiallyldimethylammonium chloride (pDADMAC); and the non-toxic polyanionic material is a polysaccharide sulfate or a salt thereof, provided that the polysaccharide sulfate is not a glycosoaminoglycan. the polymeric membrane comprises sodium cellulose sulfate and polydiallyldimethylammonium chloride (pDADMAC); and the non-toxic polyanionic material is a polysaccharide sulfate or a salt thereof, provided that the polysaccharide sulfate is not a glycosoaminoglycan.
A method for interacting with a notification displayed on a display , comprising: displaying a notification on the display , the notification initially being in an initial notification state; detecting user input and determining if the user input is being made in a direction towards the notification; and if the user input is being made in a direction towards the notification, placing the notification into a subsequent notification state, the subsequent notification state being a state in which the size of the notification is expanded as the user input is made in the direction towards the notification, characterised in that an amount of expansion of the notification from the initial notification state to the subsequent notification state corresponds to a magnitude of user input which is in the direction towards the notification. displaying a notification on the display , the notification initially being in an initial notification state; detecting user input and determining if the user input is being made in a direction towards the notification; and if the user input is being made in a direction towards the notification, placing the notification into a subsequent notification state, the subsequent notification state being a state in which the size of the notification is expanded as the user input is made in the direction towards the notification, characterised in that an amount of expansion of the notification from the initial notification state to the subsequent notification state corresponds to a magnitude of user input which is in the direction towards the notification.
A tissue retractor comprising: a longitudinal axis defining an instrument access pathway extending from a proximal end to a distal end ; an outer ring ; an inner ring having a diameter that is adjustable, a flexible sheath extending between the outer ring and the inner ring , wherein the instrument access pathway extends through the outer ring , the inner ring , and the sheath , characterized in that : the inner ring comprises an elongate tubular body which is C-shaped in cross-section to define a channel , wherein the elongate tubular body comprises an opening into the channel at a first end of the C-shaped elongate tubular body ; and the inner ring further comprises an elongate shaft that extends from a second end of the C-shaped elongate tubular body , the elongate shaft adapted to be received through the opening at the first end into the channel to thereby define the inner ring . a longitudinal axis defining an instrument access pathway extending from a proximal end to a distal end ; an outer ring ; an inner ring having a diameter that is adjustable, a flexible sheath extending between the outer ring and the inner ring , wherein the instrument access pathway extends through the outer ring , the inner ring , and the sheath , characterized in that : the inner ring comprises an elongate tubular body which is C-shaped in cross-section to define a channel , wherein the elongate tubular body comprises an opening into the channel at a first end of the C-shaped elongate tubular body ; and the inner ring further comprises an elongate shaft that extends from a second end of the C-shaped elongate tubular body , the elongate shaft adapted to be received through the opening at the first end into the channel to thereby define the inner ring . the inner ring comprises an elongate tubular body which is C-shaped in cross-section to define a channel , wherein the elongate tubular body comprises an opening into the channel at a first end of the C-shaped elongate tubular body ; and the inner ring further comprises an elongate shaft that extends from a second end of the C-shaped elongate tubular body , the elongate shaft adapted to be received through the opening at the first end into the channel to thereby define the inner ring .