mhurhangee/patent-ind-claim-en huggingface dataset:
A cooling apparatus of an internal combustion engine for straddle type vehicle comprising: a crank case of an internal combustion engine disposed below a passenger seat of the straddle type vehicle; a cooling fan provided on an end portion of a crank shaft which is directing the width direction of the vehicle and is rotatably supported on the crank case ; a radiator disposed such that said cooling fan is opposite to a core surface ; a radiator cover covering said radiator from the outside in the width direction of the vehicle, simultaneously on which cooling wind inlet openings introducing the cooling wind from the outside are formed; and sound barriers formed on a part of or all of the upper area than a crank axis (C), out of core surface opposite area (S) of said radiator covers which is opposite to the core surface of said radiator in the side view, wherein said cooling wind inlet openings are formed on the area except said sound barriers in said radiator covers , and wherein the area of said sound barriers is larger than the opening area of said cooling wind inlet openings , at least at the upper area than said crank axis (C) in the core surface opposite area (S), characterized in that at least one sound barrier comprises a first sound barrier configured with the middle side wall of the radiator cover including a frame wall and a plurality of blades inside the core surface opposite area (S), and a second sound barrier formed between the plurality of blades inside the frame wall . a crank case of an internal combustion engine disposed below a passenger seat of the straddle type vehicle; a cooling fan provided on an end portion of a crank shaft which is directing the width direction of the vehicle and is rotatably supported on the crank case ; a radiator disposed such that said cooling fan is opposite to a core surface ; a radiator cover covering said radiator from the outside in the width direction of the vehicle, simultaneously on which cooling wind inlet openings introducing the cooling wind from the outside are formed; and sound barriers formed on a part of or all of the upper area than a crank axis (C), out of core surface opposite area (S) of said radiator covers which is opposite to the core surface of said radiator in the side view, wherein said cooling wind inlet openings are formed on the area except said sound barriers in said radiator covers , and wherein the area of said sound barriers is larger than the opening area of said cooling wind inlet openings , at least at the upper area than said crank axis (C) in the core surface opposite area (S), characterized in that at least one sound barrier comprises a first sound barrier configured with the middle side wall of the radiator cover including a frame wall and a plurality of blades inside the core surface opposite area (S), and a second sound barrier formed between the plurality of blades inside the frame wall .
A method for rendering biological tissue sufficiently optically transparent for three-dimensional light microscopy imaging, the method comprising incubating biological tissue with an optical clearing solution for sufficient time for the optical clearing solution to impregnate the biological tissue and make the biological tissue sufficiently optically transparent for three-dimensional light microscopy imaging, wherein said optical clearing solution comprises (i) formamide in an amount of 20-50 wt%, (ii) glycerol in an amount of 10-90 wt%, and (iii) water as remainder; and optionally wherein the method further comprises performing three-dimensional light microscopy imaging on the biological tissue that has been rendered sufficiently optically transparent by the optical clearing solution; and wherein said biological tissue is impregnated with the optical clearing solution by impregnating the biological solution in successive steps comprising: a first impregnating step employing an optical clearing solution consisting only of 20-50 wt% formamide in water; an intermediate impregnating step employing an optical clearing solution comprising 20-50 wt% formamide, 30-60 wt% glycerol, and water; and a final impregnating step employing an optical clearing solution consisting only of 20-40 wt% formamide and 60-80 wt% glycerol, wherein the glycerol content increases from the intermediate impregnating step to the final impregnating step. wherein said optical clearing solution comprises (i) formamide in an amount of 20-50 wt%, (ii) glycerol in an amount of 10-90 wt%, and (iii) water as remainder; and optionally wherein the method further comprises performing three-dimensional light microscopy imaging on the biological tissue that has been rendered sufficiently optically transparent by the optical clearing solution; and wherein said biological tissue is impregnated with the optical clearing solution by impregnating the biological solution in successive steps comprising: a first impregnating step employing an optical clearing solution consisting only of 20-50 wt% formamide in water; an intermediate impregnating step employing an optical clearing solution comprising 20-50 wt% formamide, 30-60 wt% glycerol, and water; and a final impregnating step employing an optical clearing solution consisting only of 20-40 wt% formamide and 60-80 wt% glycerol, wherein the glycerol content increases from the intermediate impregnating step to the final impregnating step.
An abrasive belt comprising: an endless belt backing ; an abrasive layer disposed on the belt backing , wherein at least a portion of the abrasive layer comprises abrasive elements secured to a major surface of the belt backing by at least one binder material, wherein the abrasive elements are disposed at contiguous intersections of horizontal lines and vertical lines of a rectangular grid pattern , wherein at least 70 percent of the intersections have one of the abrasive elements disposed thereat, wherein each of the abrasive elements has at least two triangular abrasive platelets , wherein each of the triangular abrasive platelets has respective top and bottom surfaces connected to each other, and separated by, three sidewalls, wherein, on a respective basis, one sidewall of at least 90 percent of the triangular abrasive platelets is disposed facing and proximate to the belt backing , wherein a first portion of the abrasive elements is arranged in alternating first rows wherein the triangular abrasive platelets in the first row are disposed lengthwise aligned within 10 degrees of the vertical lines , wherein a second portion of the abrasive elements is arranged in alternating second rows wherein the triangular abrasive platelets in the second row are disposed lengthwise aligned within 10 degrees of the horizontal lines , and wherein the first and second rows repeatedly alternate along the vertical lines , wherein spacing of the vertical lines and spacing of the horizontal lines are the same. an endless belt backing ; an abrasive layer disposed on the belt backing , wherein at least a portion of the abrasive layer comprises abrasive elements secured to a major surface of the belt backing by at least one binder material, wherein the abrasive elements are disposed at contiguous intersections of horizontal lines and vertical lines of a rectangular grid pattern , wherein at least 70 percent of the intersections have one of the abrasive elements disposed thereat, wherein each of the abrasive elements has at least two triangular abrasive platelets , wherein each of the triangular abrasive platelets has respective top and bottom surfaces connected to each other, and separated by, three sidewalls, wherein, on a respective basis, one sidewall of at least 90 percent of the triangular abrasive platelets is disposed facing and proximate to the belt backing , wherein a first portion of the abrasive elements is arranged in alternating first rows wherein the triangular abrasive platelets in the first row are disposed lengthwise aligned within 10 degrees of the vertical lines , wherein a second portion of the abrasive elements is arranged in alternating second rows wherein the triangular abrasive platelets in the second row are disposed lengthwise aligned within 10 degrees of the horizontal lines , and wherein the first and second rows repeatedly alternate along the vertical lines , wherein spacing of the vertical lines and spacing of the horizontal lines are the same.
A cutting device for agricultural machines includes a rotatable shaft with at least two sets of grooves on its outer surface , each of said sets being oriented along the axis of the shaft , while each groove of each set houses the midsection of a cutting wire , characterized in that the outer surface of the shaft over each set of cutting wires and above the grooves is equipped with clamping rods , with the ends of each clamping rod being fixed in slots made at shaft ends, said shaft having a number of clamping elements along its length for pressing the clamping rods against the surface of the shaft for securing the midsection of the cutting wire in the groove of the shaft .
Automated apparatus of laser beam welding comprising a laser head configured to emit a laser beam , the laser head being configured to be moved by a processing and control unit so as to translate over a supporting base (200; 800), having a planar upper surface (210; 818), whereby, when the laser head emits the laser beam , the laser head translates in a welding advance direction , the automated apparatus further comprising a protection shoe , having a planar perforated lower plate , that is coupled to the laser head through mechanical coupling means so that, when the laser head emits the laser beam translating along the welding advance direction, the shoe follows the laser head along the welding advance direction , the shoe being provided with an inner cavity accessible from outside through at least one aperture configured to introduce inert gas and closed at the bottom by the perforated lower plate , the inner cavity housing an inner diffusion assembly, whereby when inert gas is introduced in the inner cavity it spreads under the planar lower plate , characterised in that , when the laser head emits the laser beam , said processing and control unit is configured to place the shoe such that the planar perforated lower plate is parallel to the upper surface (210; 818) of the supporting base (200; 800).
Detection system for an electronic nose capable of detecting and identifying a set E of compounds likely to be present in a gas sample, said detection system comprises a plurality of detection sensors having cross-reactivity to provide signals representing the presence of one or more compounds of set E in the gas sample, each detection sensor comprising a sensitive portion, and is characterized in that it comprises: - at least one reference sensor to provide a signal representing the measurement noise of the detection system, the reference sensor comprising a sensitive portion; - a substrate comprising a surface on which there are arranged the sensitive portions of the detection sensors and the sensitive portion of the reference sensor; and in that the surface of the substrate comprises: * a plurality of sensitive zones, each of these sensitive zones corresponding to the sensitive portion of one of the detection sensors and comprising at least one receptor capable of interacting physicochemically with at least one compound of set E; and * at least one sensitive zone which corresponds to the sensitive portion of the reference sensor and which is functionalised with at least one fluorinated compound selected from among compounds comprising at least one terminal perfluorinated alkyl group and fluorinated polymers. - at least one reference sensor to provide a signal representing the measurement noise of the detection system, the reference sensor comprising a sensitive portion; - a substrate comprising a surface on which there are arranged the sensitive portions of the detection sensors and the sensitive portion of the reference sensor; * a plurality of sensitive zones, each of these sensitive zones corresponding to the sensitive portion of one of the detection sensors and comprising at least one receptor capable of interacting physicochemically with at least one compound of set E; and * at least one sensitive zone which corresponds to the sensitive portion of the reference sensor and which is functionalised with at least one fluorinated compound selected from among compounds comprising at least one terminal perfluorinated alkyl group and fluorinated polymers.
Shelf support device (1, 1', 1", 1′′′), comprising a mounting pin adapted to be inserted in a hole obtained on a support structure and a support body comprising a pair of side walls defining a top support surface for said shelf and a rear wall defining an abutment surface adapted to abut against said support structure, characterized in that said mounting pin and said support body are obtained as single piece from a flat sheet (30, 30', 30", 30′′′), extending along a prevalent extension line (E) and shaped so as to define at least a pair of first portions , a pair of second portions , a pair of third portions and at least a first connecting portion (34, 34', 34"), each continuously connected to the adjacent portions and delimitable with respect to the same through respective delimitation lines , extending transversely with respect to the extension line (E) of said flat sheet (30, 30', 30", 30′′′).
A pulsation damper for a condensate pump comprising: a body having a fluid inlet , a fluid outlet , an inner wall portion and an outer wall portion , wherein the inner and outer wall portions define an inner fluid region and an outer fluid region , wherein the inner fluid region is in fluid communication with the outer fluid region , wherein a fluid flow path is formed from the fluid inlet to the fluid outlet via the inner fluid region , wherein the outer fluid region is in fluid communication with an air inlet and configured to maintain an air pocket, wherein the air pocket is configured to dissipate pulsations within liquid entering the fluid inlet prior to liquid being discharged from the fluid outlet , and characterized in that the outer fluid region is sub-divided into a plurality of outer fluid volumes by a plurality of wall connecting members extending between the inner and outer wall portions. a body having a fluid inlet , a fluid outlet , an inner wall portion and an outer wall portion , wherein the inner and outer wall portions define an inner fluid region and an outer fluid region , wherein the inner fluid region is in fluid communication with the outer fluid region , wherein a fluid flow path is formed from the fluid inlet to the fluid outlet via the inner fluid region , wherein the outer fluid region is in fluid communication with an air inlet and configured to maintain an air pocket, wherein the air pocket is configured to dissipate pulsations within liquid entering the fluid inlet prior to liquid being discharged from the fluid outlet , and characterized in that the outer fluid region is sub-divided into a plurality of outer fluid volumes by a plurality of wall connecting members extending between the inner and outer wall portions.
Gas cooking device, in particular gas cooker, having at least one spindle shaft which is rotatably and/or axially displaceably mounted between at least two end positions, characterised by at least one magnetically actuatable switching element and at least one magnet which is provided for actuating the at least one magnetically actuatable switching element , wherein the at least one magnet is fastened in an assembled state at least in the axial direction of the at least one spindle shaft to the at least one spindle shaft and is provided in at least one of the at least two end positions of the at least one spindle shaft for actuating the at least one switching element , wherein the at least one magnet covers the at least one switching element at least substantially when viewed in a top view.
A capacitance sensing circuit, configured to sense a touch capacitance, the capacitance sensing circuit comprising: an integrating circuit , comprising: an integrating input terminal, coupled to the touch capacitance, wherein the integrating input terminal receives an input voltage; and an integrating output terminal, configured to output an output voltage; a comparator (Comp), comprising: a first input terminal, coupled to the integrating output terminal; and a second input terminal, configured to receive a reference voltage; a positive digital-to-analog (DA) converting unit coupled to the integrating input terminal; a negative DA converting unit , coupled to the integrating input terminal; a control circuit , coupled to a comparing output terminal of the comparator, configured to control the positive DA converting unit and the negative DA converting unit; and a logic circuit , coupled to the comparing output terminal, configured to generate a first code within an integrating interval and generate a second code within a comparing interval, wherein the logic circuit outputs an output code according to the first code and the second code, and the output code is related to a capacitance of the touch capacitance. an integrating circuit , comprising: an integrating input terminal, coupled to the touch capacitance, wherein the integrating input terminal receives an input voltage; and an integrating output terminal, configured to output an output voltage; an integrating input terminal, coupled to the touch capacitance, wherein the integrating input terminal receives an input voltage; and an integrating output terminal, configured to output an output voltage; a comparator (Comp), comprising: a first input terminal, coupled to the integrating output terminal; and a second input terminal, configured to receive a reference voltage; a first input terminal, coupled to the integrating output terminal; and a second input terminal, configured to receive a reference voltage; a positive digital-to-analog (DA) converting unit coupled to the integrating input terminal; a negative DA converting unit , coupled to the integrating input terminal; a control circuit , coupled to a comparing output terminal of the comparator, configured to control the positive DA converting unit and the negative DA converting unit; and a logic circuit , coupled to the comparing output terminal, configured to generate a first code within an integrating interval and generate a second code within a comparing interval, wherein the logic circuit outputs an output code according to the first code and the second code, and the output code is related to a capacitance of the touch capacitance.
A method for dynamic load balancing between nodes in a network centric process control system, the network centric process control system comprising a plurality of nodes , where a node may be a device node, a fieldbus gateway node and/or a controller node, each node comprises control service components each control service component is a separate executable running in a separate operating system process as provided by a real time operating system of each node and the control services represent the principal services in controllers, gateways and devices, such as execution of control logic in a controller, scanning of IO and field devices in a fieldbus gateway or managing the device functionality in a device, the method being performed by a node manager of a node, the method comprising: negotiating (S110) a load balancing master role between the plurality of nodes, wherein the negotiating is based on communication between the nodes and current load; subscribing (S120), by a node manager in the negotiated load balancing master role, to a load balancing information from nodes of the load balancing cluster nodes; and reallocating (S130), by the node manager in the negotiated load balancing master role, one or more control logic tasks from one node to another node of the plurality of nodes based on the subscribed load balancing information for balancing the control logic execution load between controllers in the network centric process control system. negotiating (S110) a load balancing master role between the plurality of nodes, wherein the negotiating is based on communication between the nodes and current load; subscribing (S120), by a node manager in the negotiated load balancing master role, to a load balancing information from nodes of the load balancing cluster nodes; and reallocating (S130), by the node manager in the negotiated load balancing master role, one or more control logic tasks from one node to another node of the plurality of nodes based on the subscribed load balancing information for balancing the control logic execution load between controllers in the network centric process control system.
A method implemented by a user equipment during an idle mode, the method comprising: sending a registration message to a target Access and Mobility Management Function, AMF , in a wireless communication network ; receiving from the target AMF , responsive to the sent registration message, a freshness parameter and a key change indication comprising a key change indicator flag which has a value indicating that a non-access stratum key has been changed by a source AMF; and generating , responsive to the key change indication, a new non-access stratum key using a non-access stratum key and the freshness parameter. sending a registration message to a target Access and Mobility Management Function, AMF , in a wireless communication network ; receiving from the target AMF , responsive to the sent registration message, a freshness parameter and a key change indication comprising a key change indicator flag which has a value indicating that a non-access stratum key has been changed by a source AMF; and generating , responsive to the key change indication, a new non-access stratum key using a non-access stratum key and the freshness parameter.
A method of communicating configuration data of a tire pressure monitoring device configured to be affixed to a wheel in use, the method comprising, at the tire pressure monitoring device : receiving a request to confirm configuration data ; responsive to receipt of the request to confirm configuration data , transmitting a configuration data signal which encodes the configuration data ; wherein the configuration data signal is configured to be received and understood by a human, and the configuration data signal is indicative of any of an aircraft wheel location at which the tire pressure monitoring device is intended to be located, and a security code representative of security parameters of the tire pressure monitoring device , wherein at least one of: the configuration data signal comprises a visual signal, and the visual signal is transmitted using a visual indicator of the tire pressure monitoring device ; and the configuration data signal comprises an audible signal, and the audible signal is transmitted using a transducer of the tire pressure monitoring device . receiving a request to confirm configuration data ; responsive to receipt of the request to confirm configuration data , transmitting a configuration data signal which encodes the configuration data ; wherein the configuration data signal is configured to be received and understood by a human, and the configuration data signal is indicative of any of an aircraft wheel location at which the tire pressure monitoring device is intended to be located, and a security code representative of security parameters of the tire pressure monitoring device , wherein at least one of: the configuration data signal comprises a visual signal, and the visual signal is transmitted using a visual indicator of the tire pressure monitoring device ; and the configuration data signal comprises an audible signal, and the audible signal is transmitted using a transducer of the tire pressure monitoring device . the configuration data signal comprises a visual signal, and the visual signal is transmitted using a visual indicator of the tire pressure monitoring device ; and the configuration data signal comprises an audible signal, and the audible signal is transmitted using a transducer of the tire pressure monitoring device .