mhurhangee/patent-ind-claim-en huggingface dataset:
A potentiometric electrode for selective analyte detection in a sample comprising: - a sensing body made from polymeric material comprising: - electrically conducting particles, which increase in concentration away from a sample contact surface, - ionophore molecules, which increase in concentration towards the sample contact surface, and - an electrical conductor which passes through a zone of said electrically conducting particles, wherein the ionophore molecules and the electrically conducting particles lack an interface and mix predominantly in a transition region, which depth is between 100 and 200 micrometers, and wherein the nearest boundary of the transition region is located at about 50 to 300 micrometers from the sample contact surface. - a sensing body made from polymeric material comprising: - electrically conducting particles, which increase in concentration away from a sample contact surface, - ionophore molecules, which increase in concentration towards the sample contact surface, and - an electrical conductor which passes through a zone of said electrically conducting particles, wherein the ionophore molecules and the electrically conducting particles lack an interface and mix predominantly in a transition region, which depth is between 100 and 200 micrometers, and wherein the nearest boundary of the transition region is located at about 50 to 300 micrometers from the sample contact surface.
Single-grain sowing machine comprising: A sowing unit having a sowing coulter and a wheel or a support roller , wherein the sowing unit is supported on the ground via the wheel or via the support roller ; and a control unit; wherein a sensor (8; 11) is provided via which a relative movement of the sowing unit or of an element of the sowing unit perpendicular to the ground can be detected by the control unit, characterized in that the sensor is designed as a pressure sensor for detecting the coulter pressure. A sowing unit having a sowing coulter and a wheel or a support roller , wherein the sowing unit is supported on the ground via the wheel or via the support roller ; and a control unit; wherein a sensor (8; 11) is provided via which a relative movement of the sowing unit or of an element of the sowing unit perpendicular to the ground can be detected by the control unit, characterized in that the sensor is designed as a pressure sensor for detecting the coulter pressure.
Mixer-dosing device for mixing and discharging fodder, wherein the mixer-dosing device is adapted to be arranged on or at a mobile vehicle, wherein the mixer-dosing device comprises a container for containing the fodder, wherein the container at least comprises a discharge opening for discharging the fodder from the container, a fodder displacement device placed in the container for mixing the fodder in the container and displacing the fodder to the discharge opening, wherein the discharge opening comprises a movable closing device driven by an actuator for closing off and opening the discharge opening, wherein the mixer-dosing device comprises a weighing device for measuring a weight of at least the container with fodder, and wherein the weighing device is connected to a control device for controlling the actuator on the basis of the weight measured, wherein the mixer-dosing device is adapted for closing off the discharge opening when the measured weight has been reduced by a desired dosed weight, wherein the closing device comprises a closure valve which is movably attached to the container and comprises an actuator which is adapted for moving the closure valve between a closed and an open position, characterized in that the closure valve can also be placed in an intermediate position between the closed and the open position, for partially closing off the discharge opening, wherein the control device is adapted for placing the closure valve in the intermediate position after a pre-set percentage of the desired weight of fodder has been discharged.
Control device with gesture recognition and optionally voice recognition for controlling the interior lighting of a motor vehicle comprising at least two interior lighting modules (M n ), each comprising at least one light source configured to emit at least one light beam in an interior of the vehicle, comprising at least distinct means (3, C n ) for detecting a plurality of commands (S n ) that can be executed by a plurality of occupants, including a driver, in specific zones (Z n ) of the vehicle interior , characterized in that said detection means (3, C n ) are configured to transmit data representative of said commands (S n ) to at least processing and analysis means (4, ECU) configured to merge and prioritize said data and generate, after comparison with reference data, at least one instruction (A n ) to at least one interior lighting module (M n ), and, in the case of contradictory and concomitant commands executed by the plurality of occupants, including the driver, in the specific zones (Zn), a step of prioritization (i) of the merged representative data is executed in order to prioritize, for safety reasons, the command executed in the specific zone (Z 1 ) of the driver, and in that said commands are a plurality of gesture commands, executed by at least one occupant of the vehicle in one of the specific zones (Z n ) of the vehicle interior targeted by said detection means.
A crushing and mixing apparatus, particularly for use in systems for catalytic pressureless oiling of hydrocarbon- containing feedstock, with a crushing and mixing part (P) designed for arrangement in the mixing reactor of the system, a drive device (M) designed for the positioning outside of the mixing reactor, and a drive shaft which connects said drive device to the crushing and mixing part in driving manner, characterized in that the crushing and mixing part (P) is thermally decoupled from the drive device (M) by means of heat barrier consisting of thin-walled stainless steel elements with low coefficient of thermal conductivity.
A grommet , comprising: a body defining a longitudinal axis and having a wall , the wall defining an inner surface ; a collar extending from the body and away from the longitudinal axis; a plurality of arms extending from the body at a flexure joint , each of the plurality of arms including an inner surface that is flush with the inner surface of the wall in a first state, an angled surface , and a first engagement ramp , wherein the arms are movable between the first state and a second state at the flexure joint , wherein the first engagement ramps interrupt the angled surfaces of the arms, and wherein the first engagement ramps are configured to receive second engagement ramps along a grommet removal tool , characterized in that the grommet further comprises a plurality of legs extending from the body and the plurality of legs comprise inwardly canted tips that are angled toward the longitudinal axis. a body defining a longitudinal axis and having a wall , the wall defining an inner surface ; a collar extending from the body and away from the longitudinal axis; a plurality of arms extending from the body at a flexure joint , each of the plurality of arms including an inner surface that is flush with the inner surface of the wall in a first state, an angled surface , and a first engagement ramp , wherein the arms are movable between the first state and a second state at the flexure joint , wherein the first engagement ramps interrupt the angled surfaces of the arms, and wherein the first engagement ramps are configured to receive second engagement ramps along a grommet removal tool , characterized in that the grommet further comprises a plurality of legs extending from the body and the plurality of legs comprise inwardly canted tips that are angled toward the longitudinal axis.
A positive electrode for a lithium secondary battery comprising a positive electrode active material layer including: a first positive electrode active material represented by Formula 1 below and having a crystalline size of 150 nm or more, wherein crystalline size is determined by X-ray diffraction analysis as set out in the description; a conductive agent including single-walled carbon nanotubes; and a binder: [Formula 1] Li x1 [Ni a1 Co b1 M 1 c1 M 2 d1 ]O 2 wherein, in Formula 1 above, M 1 is Mn, Al, or a combination thereof, M 2 is at least one selected from the group consisting of Zr, B, W, Mg, Ce, Hf, Ta, La, Ti, Sr, Ba, F, P, and S, and 0.9≤x1≤1.1, 0.8≤a1<1, 0<b1<0.2, 0<c1<0.2, 0≤d1≤0.1. a first positive electrode active material represented by Formula 1 below and having a crystalline size of 150 nm or more, wherein crystalline size is determined by X-ray diffraction analysis as set out in the description; a conductive agent including single-walled carbon nanotubes; and a binder: [Formula 1] Li x1 [Ni a1 Co b1 M 1 c1 M 2 d1 ]O 2 wherein, in Formula 1 above, M 1 is Mn, Al, or a combination thereof, M 2 is at least one selected from the group consisting of Zr, B, W, Mg, Ce, Hf, Ta, La, Ti, Sr, Ba, F, P, and S, and 0.9≤x1≤1.1, 0.8≤a1<1, 0<b1<0.2, 0<c1<0.2, 0≤d1≤0.1. M 1 is Mn, Al, or a combination thereof, M 2 is at least one selected from the group consisting of Zr, B, W, Mg, Ce, Hf, Ta, La, Ti, Sr, Ba, F, P, and S, and 0.9≤x1≤1.1, 0.8≤a1<1, 0<b1<0.2, 0<c1<0.2, 0≤d1≤0.1.
A coaxial connector comprising: a base surface ; a coaxial structure where a dielectric is between a central conductor and an outer conductor ; and a protrusion protruding from the base surface, wherein the central conductor includes a contact portion protruding from the base surface, the coaxial connector being configured such that in response to a substrate being inserted toward the base surface between the contact portion and the protrusion, the contact portion comes into contact with a conductor pattern formed on a surface of the substrate, and the outer conductor includes a protruding conductor protruding from the base surface and not in contact with the substrate inserted between the contact portion and the protrusion and wherein the dielectric includes a protruding dielectric protruding from the base surface toward between the contact portion and the protruding conductor. a base surface ; a coaxial structure where a dielectric is between a central conductor and an outer conductor ; and a protrusion protruding from the base surface, wherein the central conductor includes a contact portion protruding from the base surface, the coaxial connector being configured such that in response to a substrate being inserted toward the base surface between the contact portion and the protrusion, the contact portion comes into contact with a conductor pattern formed on a surface of the substrate, and the outer conductor includes a protruding conductor protruding from the base surface and not in contact with the substrate inserted between the contact portion and the protrusion and wherein the dielectric includes a protruding dielectric protruding from the base surface toward between the contact portion and the protruding conductor.
Cooling system for a dynamoelectric machine comprising • a cooling jacket for mounting on an outer circumference of a stator of the dynamoelectric machine, • a housing for receiving the stator with the mounted cooling jacket in such a way that a cavity which can be filled with a liquid cooling medium remains between an outer wall of the cooling jacket and an inner wall of the housing , an inlet opening for the inflow of the cooling medium into an inlet region and an outlet opening for the outflow of the cooling medium from an outlet region of the cavity being arranged on the housing , and • a barrier element which is connected to the cooling jacket for the spatial separation of the inlet region from the outlet region , the pressure in the inlet region being greater than the pressure in the outlet region in the case of a forced coolant flow, characterized in that the barrier element is designed in such a way that it presses against the inner wall of the housing in the case of an increasing pressure difference of the cooling medium in the inlet and outlet region , the barrier element bearing tightly at an end which faces the housing against the inner wall of the housing in the direction of the inlet region , and the barrier element having an elastic structure at least in the region of the end which faces the housing , which elastic structure can be pressed onto the inner wall of the housing by way of said pressure difference. • a cooling jacket for mounting on an outer circumference of a stator of the dynamoelectric machine, • a housing for receiving the stator with the mounted cooling jacket in such a way that a cavity which can be filled with a liquid cooling medium remains between an outer wall of the cooling jacket and an inner wall of the housing , an inlet opening for the inflow of the cooling medium into an inlet region and an outlet opening for the outflow of the cooling medium from an outlet region of the cavity being arranged on the housing , and • a barrier element which is connected to the cooling jacket for the spatial separation of the inlet region from the outlet region ,
An apparatus comprising: - a receiver (201a-c) configured to receive a plurality of packets; - a memory configured to store instructions and form a first and second set of virtual queues to store the plurality of packets, wherein the first set of virtual queues has a first set of demand rate values and a first set of supply rate values and the second set of virtual queues has a second set of demand rate values and a second set of supply rate values; - a processor having one or more cores (210-212) with one or more packet classifiers to provide a classification of a packet in the plurality of packets, the processor in communication with the memory executes the instructions to transfer the packet from the receiver to a virtual queue in one of the first and second sets of virtual queues based on the classification and transfers the packet from the virtual queue to a transmitter based on a demand rate value and supply rate value associated with the virtual queue, wherein a first core in the processor includes a first packet classifier to access the first set of virtual queues and a second core in the processor includes a second packet classifier to access the second set of virtual queues; wherein the first packet classifier is configured to output the first packet to a first virtual queue in the first set of virtual queues based on a classification of the first packet, wherein the first core is configured to calculate the first set of demand rate values; and wherein the second packet classifier is configured to output the second packet to a second virtual queue in the second set of virtual queues based on a classification of the second packet, wherein the second core is configured to calculate the second set of demand rate values. - a receiver (201a-c) configured to receive a plurality of packets; - a memory configured to store instructions and form a first and second set of virtual queues to store the plurality of packets, wherein the first set of virtual queues has a first set of demand rate values and a first set of supply rate values and the second set of virtual queues has a second set of demand rate values and a second set of supply rate values; - a processor having one or more cores (210-212) with one or more packet classifiers to provide a classification of a packet in the plurality of packets, the processor in communication with the memory executes the instructions to transfer the packet from the receiver to a virtual queue in one of the first and second sets of virtual queues based on the classification and transfers the packet from the virtual queue to a transmitter based on a demand rate value and supply rate value associated with the virtual queue, wherein a first core in the processor includes a first packet classifier to access the first set of virtual queues and a second core in the processor includes a second packet classifier to access the second set of virtual queues;
Exercising device , comprising: - a first element having a longitudinal center axis ; - a second element having a first end movably connected to the first element via a connection device , and a second, free, end ; - a pre-tensioned force resistance device connected to the first or second elements ; where the exercising device is configured to be in an initial state, in which the second end is provided with a first distance (Di) from the longitudinal center axis ; where the exercising device is configured to be in a compressed state, in which the second end is provided with a second distance (Dc) from the longitudinal center axis (I10), where the second distance (Dc) is shorter than the first distance (Di); where the pre-tensioned force resistance device is configured to force the second end of the second element towards the initial state; - the pre-tensioned force resistance device comprises a force resistance body provided between the first and second elements ; and - the force resistance body is made of a compressible material configured to be gradually more compressed as the first and second elements are pressed towards each other; characterized in that : where the first element comprises a connection interface for connection to a rod (R); - the force resistance body comprises a base and a force resistance element ; - the resistance element is protruding through an opening of the first element ; - the base is configured to be in contact with the rod (R). - a first element having a longitudinal center axis ; - a second element having a first end movably connected to the first element via a connection device , and a second, free, end ; - a pre-tensioned force resistance device connected to the first or second elements ; where the exercising device is configured to be in an initial state, in which the second end is provided with a first distance (Di) from the longitudinal center axis ; where the exercising device is configured to be in a compressed state, in which the second end is provided with a second distance (Dc) from the longitudinal center axis (I10), where the second distance (Dc) is shorter than the first distance (Di); where the pre-tensioned force resistance device is configured to force the second end of the second element towards the initial state; - the pre-tensioned force resistance device comprises a force resistance body provided between the first and second elements ; and - the force resistance body is made of a compressible material configured to be gradually more compressed as the first and second elements are pressed towards each other; characterized in that : where the first element comprises a connection interface for connection to a rod (R); - the force resistance body comprises a base and a force resistance element ; - the resistance element is protruding through an opening of the first element ; - the base is configured to be in contact with the rod (R).
A saddle for vehicles, such as bicycles, motorcycles and the like, comprising a seat component defining a support surface for a user, a fork component , at least one front component for constraining said fork component to said seat component and at least one rear component for constraining said fork component to said seat component , and connection means designed to connect said front constraint component and said rear constraint component to said seat component , said saddle comprising a shell made of rigid material, said shell being co-vulcanized with said seat component , and thus attached thereto, thereby forming a single component therewith by co-vulcanization, wherein said shell extends from the tip to the back of the saddle and has an enlarged rear portion and a tapered tip having a width substantially equal to that of the seat component , wherein the lower, in use, surface of said seat component defines a recessed zone (RZ) for housing said shell , the latter having a configuration which is substantially complementary to said lower surface , characterized in that said shell comprises a rear sunburst-shaped portion, so as to have a plurality of spokes protruding from a respective intermediate or central portion and each having at least two ends , a first end protruding from the central portion and a second end opening into or ending in the back of the shell .
Variable-length protective cover which has at least one fold element having a plurality of folds , wherein the fold element has folds which are designed as intermediate folds at regular spacing intervals and which consist of two fold layers of a fold, lying flat atop each other, having a kink point , and to which lamellar elements are fixed which have L-shaped cross-sections, wherein one limb is fixed to the intermediate fold , while the other limbs telescopically overlap, wherein the lamellar elements are attached in the region of the kink points of the intermediate folds , characterised in that regular folds are formed between the intermediate folds and the intermediate folds have the same edge length as the other regular folds of the fold element .
A method for controlling adhesive application, the method comprising: melting solid or semi-solid adhesive ; pumping, with a pump , the melted adhesive through a manifold, through one or more hoses to a gun , and onto a plurality of substrates ; measuring an amount of adhesive applied to the plurality of substrates by detecting a flow rate of the adhesive with a flow sensor in the manifold and detecting the flow rate through the one or more hoses in communication with the gun with one or more flow sensors fitted with the hoses ; detecting a number of the substrates and an application area of the substrates ; determining an amount of adhesive applied per substrate; comparing the adhesive applied per substrate to a target value; and adjusting a pressure of the pump based on the comparison. melting solid or semi-solid adhesive ; pumping, with a pump , the melted adhesive through a manifold, through one or more hoses to a gun , and onto a plurality of substrates ; measuring an amount of adhesive applied to the plurality of substrates by detecting a flow rate of the adhesive with a flow sensor in the manifold and detecting the flow rate through the one or more hoses in communication with the gun with one or more flow sensors fitted with the hoses ; detecting a number of the substrates and an application area of the substrates ; determining an amount of adhesive applied per substrate; comparing the adhesive applied per substrate to a target value; and adjusting a pressure of the pump based on the comparison.