mhurhangee/patent-ind-claim-en huggingface dataset:
Bag closure for a bag that can be closed with one hand, consisting of at least three ears on the rim of the bag to be closed, whereby the bag on one side is provided with at least one covered adhesive strip and on the opposite side the bag is provided with an ear in the middle of this opposite side which when folded over reaches to beyond an adhesive strip on the side provided with at least one covered adhesive strip and that the at least two other ears are long enough to reach, after folding over, up to or beyond at least one adhesive strip on the side that is provided with at least one covered adhesive strip , characterised in that the ear in the middle of the opposite side of the adhesive strip is provided with a reinforced notch which can be used as a handle to carry the closed bag .
A stackable satellite system comprising: at least two stackable satellites , wherein each stackable satellite comprises: a frame for supporting a plurality of satellite components , and at least one vertical pillar attached to the frame and having an upper end with a recess shaped thereon and a lower end with a protruding portion, wherein the recess of the upper end is adapted to receive and support a protruding portion of a lower end of a respective vertical pillar of an upper stackable satellite and the protruding portion of the lower end is adapted to mate with a recess shaped on an upper end of a respective vertical pillar of a lower stackable satellite, wherein the only points of contact between vertically adjacent satellites are via the mated lower and upper ends of the at least one vertical pillar , and wherein the at least one vertical pillar receives substantially all of a vertical load of the stackable satellite and the upper stackable satellite via the mated lower and upper ends of the vertical pillars; and a satellite fastener adapted to fasten the at least two stackable satellites to a launch vehicle. at least two stackable satellites , wherein each stackable satellite comprises: a frame for supporting a plurality of satellite components , and at least one vertical pillar attached to the frame and having an upper end with a recess shaped thereon and a lower end with a protruding portion, wherein the recess of the upper end is adapted to receive and support a protruding portion of a lower end of a respective vertical pillar of an upper stackable satellite and the protruding portion of the lower end is adapted to mate with a recess shaped on an upper end of a respective vertical pillar of a lower stackable satellite, wherein the only points of contact between vertically adjacent satellites are via the mated lower and upper ends of the at least one vertical pillar , and wherein the at least one vertical pillar receives substantially all of a vertical load of the stackable satellite and the upper stackable satellite via the mated lower and upper ends of the vertical pillars; and a frame for supporting a plurality of satellite components , and at least one vertical pillar attached to the frame and having an upper end with a recess shaped thereon and a lower end with a protruding portion, wherein the recess of the upper end is adapted to receive and support a protruding portion of a lower end of a respective vertical pillar of an upper stackable satellite and the protruding portion of the lower end is adapted to mate with a recess shaped on an upper end of a respective vertical pillar of a lower stackable satellite, wherein the only points of contact between vertically adjacent satellites are via the mated lower and upper ends of the at least one vertical pillar , and wherein the at least one vertical pillar receives substantially all of a vertical load of the stackable satellite and the upper stackable satellite via the mated lower and upper ends of the vertical pillars; and a satellite fastener adapted to fasten the at least two stackable satellites to a launch vehicle.
A power system of a hybrid electric vehicle, comprising: an engine , wherein the engine outputs power to a wheel of the hybrid electric vehicle through a clutch ; a power motor , wherein the power motor is configured to output a driving force to the wheel of the hybrid electric vehicle, the power motor comprises a power motor controller , and the power motor controller comprises a first regulator ; a power battery , wherein the power battery is configured to supply power to the power motor ; a DC-DC converter ; and an auxiliary motor , connected to the engine , wherein the auxiliary motor is connected to the power motor , the DC-DC converter , and the power battery respectively, the auxiliary motor comprises an auxiliary motor controller , and the auxiliary motor controller comprises an inverter and a second regulator ; characterized by further comprising a voltage stabilizing circuit , wherein the voltage stabilizing circuit is connected between the auxiliary motor and the DC-DC converter , and the voltage stabilizing circuit performs voltage stabilizing on a direct current output by the auxiliary motor to the DC-DC converter during power generation, wherein the second regulator is configured to control the voltage stabilizing circuit to perform voltage stabilizing when the power battery is disconnected from the DC-DC converter , and the auxiliary motor controller is valid, and the first regulator is configured to control the voltage stabilizing circuit to perform voltage stabilizing when the power battery is disconnected from the DC-DC converter , and the auxiliary motor controller fails. an engine , wherein the engine outputs power to a wheel of the hybrid electric vehicle through a clutch ; a power motor , wherein the power motor is configured to output a driving force to the wheel of the hybrid electric vehicle, the power motor comprises a power motor controller , and the power motor controller comprises a first regulator ; a power battery , wherein the power battery is configured to supply power to the power motor ; a DC-DC converter ; and an auxiliary motor , connected to the engine , wherein the auxiliary motor is connected to the power motor , the DC-DC converter , and the power battery respectively, the auxiliary motor comprises an auxiliary motor controller , and the auxiliary motor controller comprises an inverter and a second regulator ; characterized by further comprising a voltage stabilizing circuit , wherein the voltage stabilizing circuit is connected between the auxiliary motor and the DC-DC converter , and the voltage stabilizing circuit performs voltage stabilizing on a direct current output by the auxiliary motor to the DC-DC converter during power generation, wherein the second regulator is configured to control the voltage stabilizing circuit to perform voltage stabilizing when the power battery is disconnected from the DC-DC converter , and the auxiliary motor controller is valid, and the first regulator is configured to control the voltage stabilizing circuit to perform voltage stabilizing when the power battery is disconnected from the DC-DC converter , and the auxiliary motor controller fails.
A radiation detector , comprising: a radiation absorption layer configured to absorb radiation; a plurality of counters each associated with a bin and configured to register a number of particles of the radiation absorbed by the radiation absorption layer, wherein energy of the particles falls in the bin; a memory ; and a controller ; wherein the controller is configured to determine whether an energy of a particle of the radiation falls into the bin; wherein the controller is configured to cause the number registered by the counter said radiation detector being characterized in that associated with the bin to increase by one; said memory comprises a plurality of bits; and in that it further comprises a processor configured to allocate the bits to the counters; wherein the processor is configured to allocate the bits to the counters based on at least one number of particles registered in the counters or based on a rate of change of at least one number of particles registered in the counters. a radiation absorption layer configured to absorb radiation; a plurality of counters each associated with a bin and configured to register a number of particles of the radiation absorbed by the radiation absorption layer, wherein energy of the particles falls in the bin; a memory ; and a controller ; wherein the controller is configured to determine whether an energy of a particle of the radiation falls into the bin; wherein the controller is configured to cause the number registered by the counter said radiation detector being characterized in that associated with the bin to increase by one; said memory comprises a plurality of bits; and in that it further comprises a processor configured to allocate the bits to the counters; wherein the processor is configured to allocate the bits to the counters based on at least one number of particles registered in the counters or based on a rate of change of at least one number of particles registered in the counters.
A disposable wearable absorbent article comprising: a chassis extending in a longitudinal direction and having a front region , a rear region and a central region disposed in the longitudinal direction between the front region and the rear region , the central region comprising an absorbent core; a first side panel connected to the chassis and extending transversally outwards in a first lateral direction towards a first outer edge ; a second side panel connected to the chassis and extending transversally outwards in a second lateral direction towards a second outer edge ; wherein each of the first and second side panels comprises a mechanical fastening material affixed to a free end portion adjacent the outer edge of the panel, whereby, in use, the first and second side panels can extend around a user's waist to couple the first and second side panels to the front region of the chassis, and wherein each of the first and second panels is gathered in a longitudinal direction to form at least one pleat extending in a transverse direction, and wherein each of the first and second panels comprises a binding material affixed to the panel , the binding material being configured to maintain each of the first and second side panels in a gathered configuration. a chassis extending in a longitudinal direction and having a front region , a rear region and a central region disposed in the longitudinal direction between the front region and the rear region , the central region comprising an absorbent core; a first side panel connected to the chassis and extending transversally outwards in a first lateral direction towards a first outer edge ; a second side panel connected to the chassis and extending transversally outwards in a second lateral direction towards a second outer edge ; wherein each of the first and second side panels comprises a mechanical fastening material affixed to a free end portion adjacent the outer edge of the panel, whereby, in use, the first and second side panels can extend around a user's waist to couple the first and second side panels to the front region of the chassis, and wherein each of the first and second panels is gathered in a longitudinal direction to form at least one pleat extending in a transverse direction, and wherein each of the first and second panels comprises a binding material affixed to the panel , the binding material being configured to maintain each of the first and second side panels in a gathered configuration.
A polyisocyanate component, comprising a preformed mixture including (a) an aromatic oxazolidone compound that is the reaction product of (i) at least one epoxide compound having at least one aromatic group and (ii) at least one first polyisocyanate compound having an average isocyanate functionality of no more than 2.7 and greater than 1.8, in the presence of (iii) at least one catalyst, wherein the aromatic oxazolidone compound includes at least one free isocyanate group and at least one aromatic oxazolidone group, and wherein the aromatic oxazolidone group includes an aromatic group and an oxazolidone group; and (b) at least one second polyisocyanate compound having an average isocyanate functionality equal to or greater than 2.7 and less than 6.0, the second polyisocyanate compound being added to the preformed mixture to form the polyisocyanate component; wherein the polyisocyanate component has a viscosity of no more than 4.0 Pa-s at 25 °C, wherein the content of the aromatic oxazolidone group in the polyisocyanate component is from 2 weight percent to 10 weight percent based on a total weight of the polyisocyanate component, and wherein the polyisocyanate component has an average isocyanate functionality of from 1.8 to 6.0. (a) an aromatic oxazolidone compound that is the reaction product of (i) at least one epoxide compound having at least one aromatic group and (ii) at least one first polyisocyanate compound having an average isocyanate functionality of no more than 2.7 and greater than 1.8, in the presence of (iii) at least one catalyst, wherein the aromatic oxazolidone compound includes at least one free isocyanate group and at least one aromatic oxazolidone group, and wherein the aromatic oxazolidone group includes an aromatic group and an oxazolidone group; and (i) at least one epoxide compound having at least one aromatic group and (ii) at least one first polyisocyanate compound having an average isocyanate functionality of no more than 2.7 and greater than 1.8, in the presence of (iii) at least one catalyst, wherein the aromatic oxazolidone compound includes at least one free isocyanate group and at least one aromatic oxazolidone group, and wherein the aromatic oxazolidone group includes an aromatic group and an oxazolidone group; and (b) at least one second polyisocyanate compound having an average isocyanate functionality equal to or greater than 2.7 and less than 6.0, the second polyisocyanate compound being added to the preformed mixture to form the polyisocyanate component;
Film composite for packaging of products, the film composite having a layer construction of at least two layers, characterized in that the film composite has one above another at least - a first layer of a compostable thermoplastic polyester film in a thickness of 10 μm to 70 μm and - at least a second layer of a compostable cellulose film in a thickness of 19 μm to 45 μm, the layers of the film composite being joined to one another by a compostable adhesive, in that a layer of the compostable adhesive has a thickness of 1 μm to 4 μm and in that the thermoplastic polyester film is configured as a starch blend film which comprises aliphatic and aromatic polyesters (copolyesters) and a fraction of 35-55 mol% (based on the acid fraction) of terephthalic acid, or in that the thermoplastic polyester film is configured as a PLA blend film which comprises polylactides of lactic acids and lactides and a fraction of 35-55 mol% (based on the acid fraction) of terephthalic acid, the materials of the film composite having certified compostability according to EN 13432 and/or AS 5810 and/or NF T51-800:2015. - a first layer of a compostable thermoplastic polyester film in a thickness of 10 μm to 70 μm and - at least a second layer of a compostable cellulose film in a thickness of 19 μm to 45 μm,
One or more non-transitory computer readable media storing instructions which, when executed by one or more hardware processors , cause the one or more hardware processors to perform the following operations : performing, by a garbage collection thread (506a-b), a traversal of a plurality of frames on a call stack associated with an application thread (508a-b) such that a respective frame state of each of the plurality of frames becomes a current mark state; wherein assumable values for the respective frame state comprises the current mark state, a remap state, and an old mark state; wherein the traversal of the plurality of frames comprises: identifying, by the garbage collection thread, a first frame state of a first frame on the call stack; responsive to determining that the first frame state is the remap state: performing a first set of operations to bring the first frame state from the remap state to the current mark state; identifying, by the garbage collection thread, a second frame state of a second frame on the call stack; responsive to determining that the second frame state is the old mark state: performing a second set of operations to bring the second frame state from the old mark state to the current mark state, wherein the first set of operations and the second set of operations are different. performing, by a garbage collection thread (506a-b), a traversal of a plurality of frames on a call stack associated with an application thread (508a-b) such that a respective frame state of each of the plurality of frames becomes a current mark state; wherein assumable values for the respective frame state comprises the current mark state, a remap state, and an old mark state; wherein the traversal of the plurality of frames comprises: identifying, by the garbage collection thread, a first frame state of a first frame on the call stack; responsive to determining that the first frame state is the remap state: performing a first set of operations to bring the first frame state from the remap state to the current mark state; identifying, by the garbage collection thread, a second frame state of a second frame on the call stack; responsive to determining that the second frame state is the old mark state: performing a second set of operations to bring the second frame state from the old mark state to the current mark state, wherein the first set of operations and the second set of operations are different. identifying, by the garbage collection thread, a first frame state of a first frame on the call stack; responsive to determining that the first frame state is the remap state: performing a first set of operations to bring the first frame state from the remap state to the current mark state; identifying, by the garbage collection thread, a second frame state of a second frame on the call stack; responsive to determining that the second frame state is the old mark state: performing a second set of operations to bring the second frame state from the old mark state to the current mark state, wherein the first set of operations and the second set of operations are different.
A node for use in a wireless communications system said node comprising a receive antenna side having at least one receive antenna for receiving a signal through a wireless connection, an amplifier for amplifying the received signal, and a transmit antenna side having at least one transmit antenna for forwarding the amplified signal, said node further comprising a mode switching unit for switching mode of operation between at least a first and a second mode of operation of utilizing resources for receiving and transmitting in the wireless communications system of the node in dependence of an amplification gain requirement, wherein in the first mode of operation, the at least one transmit antenna utilizes a same resource as utilized by the at least one receive antenna , wherein in the second mode of operation, the at least one transmit antenna utilizes a different resource from one utilized by the at least one receive antenna , and wherein the resources are at least one of time intervals, frequency domains, and orthogonal spreading codes.
A method of implementing a secure digital wallet processing system, the method comprising: receiving, by a computer system, a distributed ledger transaction request with an authentication token and a customer identifier in the form of a public address; validating the customer using an authenticator which accesses a customer identifier public address database prior to retrieving a private key from a key management system ; retrieving, from the key management system , a private key corresponding to the public address, wherein the key management system comprises a hardware security module that generated the public address from the private key and encrypted the private key and the public address prior to storing the public address with the private key in a key management system database ; signing the distributed ledger transaction by the private key; and providing the signed distributed ledger transaction to a distributed ledger. receiving, by a computer system, a distributed ledger transaction request with an authentication token and a customer identifier in the form of a public address; validating the customer using an authenticator which accesses a customer identifier public address database prior to retrieving a private key from a key management system ; retrieving, from the key management system , a private key corresponding to the public address, wherein the key management system comprises a hardware security module that generated the public address from the private key and encrypted the private key and the public address prior to storing the public address with the private key in a key management system database ; signing the distributed ledger transaction by the private key; and providing the signed distributed ledger transaction to a distributed ledger.
A quality control or calibrator device comprising a quality control moiety with an attached fluorochrome wherein the quality control moiety is reactive in an assay performed on a microscope slide and capable of causing a positive test result and the concentration of the quality control moiety is determined by measuring the concentration of the fluorochrome; wherein the quality control moiety is attached to particulate matter and the particulate matter is adhered to the microscope slide.
A method for installing a sensor onto an inner surface (T SI ) of a tire (T), comprising: robotically deglazing at least a portion of the inner surface (T SI ) of the tire (T), defining a preconditioned surface ; robotically selecting the sensor ; cleaning a target surface of the sensor ; robotically applying an adhesive to at least a portion of the preconditioned surface or the target surface of the sensor ; robotically positioning the sensor , wherein the target surface of the sensor abuts the preconditioned surface ; and robotically performing a wet-out operation, characterized in that , while the sensor abuts the preconditioned surface , the sensor is manipulated by moving the sensor in (i) a rocking motion and (ii) a rotating motion, and wherein a predetermined pressure is applied to the sensor for a predetermined period of time to affix the sensor to the preconditioned surface . robotically deglazing at least a portion of the inner surface (T SI ) of the tire (T), defining a preconditioned surface ; robotically selecting the sensor ; cleaning a target surface of the sensor ; robotically applying an adhesive to at least a portion of the preconditioned surface or the target surface of the sensor ; robotically positioning the sensor , wherein the target surface of the sensor abuts the preconditioned surface ; and robotically performing a wet-out operation, characterized in that , while the sensor abuts the preconditioned surface , the sensor is manipulated by moving the sensor in (i) a rocking motion and (ii) a rotating motion, and wherein a predetermined pressure is applied to the sensor for a predetermined period of time to affix the sensor to the preconditioned surface .