mhurhangee/patent-ind-claim-en huggingface dataset:
A process for treating organic waste, the process comprising the step of contacting an organic waste with one or more microorganisms from each of the following microorganism species: (i) Bacillus sp. microorganisms, selected from the group consisting of Bacillus pumilus. Bacillus stearothermophilus, Bacillus brevis, Bacillus cereus. Bacillus subtilis. Bacillus sphearieus. and Bacillus licheniformis; (ii) Pseudomonas sp. Microorganisms, selected from the group consisting of Pseudomonas alcaligenes and Pseudomonas marinoglutinosa; (iii) Bifidobacterium sp. Microorganisms, which is Bifidobacterium thermophilus; and (iv) Lactobacillus sp. microorganisms, selected from the group consisting of Lactobacillus casei Lactobacillus planatarum and Lactobacillus fermentus; said contacting being undertaken under conditions to at least partly convert said organic waste to organic fertilizer, wherein the initial moisture content of said organic waste is 25% (wt) to 70% (wt), and wherein the initial moisture content of said organic waste is maintained for four hours to ten hours, before the moisture content is reduced to 10% (wt) to 22% (wt). (i) Bacillus sp. microorganisms, selected from the group consisting of Bacillus pumilus. Bacillus stearothermophilus, Bacillus brevis, Bacillus cereus. Bacillus subtilis. Bacillus sphearieus. and Bacillus licheniformis; (ii) Pseudomonas sp. Microorganisms, selected from the group consisting of Pseudomonas alcaligenes and Pseudomonas marinoglutinosa; (iii) Bifidobacterium sp. Microorganisms, which is Bifidobacterium thermophilus; and (iv) Lactobacillus sp. microorganisms, selected from the group consisting of Lactobacillus casei Lactobacillus planatarum and Lactobacillus fermentus;
Sewn covering (30, 30.2, 30.5, 30.6) for laminating support parts , - having at least one first and at least one second cover element which are connected to one another by way of a functional seam , - wherein the seam stump which is formed by the functional seam is enclosed by a seam band (12, 12.3, 60), - the seam band (12, 12.3, 60) being fixed by the functional seam , - characterized in that - the seam band (12, 12.3, 60) has a thickness of between 0.2 millimetres and 0.5 millimetres. - having at least one first and at least one second cover element which are connected to one another by way of a functional seam , - wherein the seam stump which is formed by the functional seam is enclosed by a seam band (12, 12.3, 60), - the seam band (12, 12.3, 60) being fixed by the functional seam , - characterized in that - the seam band (12, 12.3, 60) has a thickness of between 0.2 millimetres and 0.5 millimetres.
A controller for an inverter providing voltage to a motor , comprising: a first generation unit configured to generate a voltage command from a command frequency; a first conversion unit configured to convert an output current of an inverter to a torque current on synchronous reference frame; and a second generation unit configured to generate a compensation voltage to compensate the voltage command using the torque current; characterized in that the second generation unit is configured to generate the compensation voltage further using motor information, wherein the compensation voltage is applied to the first generation unit , and the second generation unit includes: a fourth generation unit configured to generate a boost voltage according to the motor information and a predetermined voltage gain; and a first multiplication unit configured to generate the compensation voltage by multiplying a K-factor of the torque current by the boost voltage. a first generation unit configured to generate a voltage command from a command frequency; a first conversion unit configured to convert an output current of an inverter to a torque current on synchronous reference frame; and a second generation unit configured to generate a compensation voltage to compensate the voltage command using the torque current; characterized in that the second generation unit is configured to generate the compensation voltage further using motor information, wherein the compensation voltage is applied to the first generation unit , and the second generation unit includes: a fourth generation unit configured to generate a boost voltage according to the motor information and a predetermined voltage gain; and a first multiplication unit configured to generate the compensation voltage by multiplying a K-factor of the torque current by the boost voltage. a fourth generation unit configured to generate a boost voltage according to the motor information and a predetermined voltage gain; and a first multiplication unit configured to generate the compensation voltage by multiplying a K-factor of the torque current by the boost voltage.
A method for managing household devices using a mobile terminal comprising: locating (S110) by the household devices current position coordinates of the mobile terminal with wireless gateway function; computing (S120) by the household devices their respective distances to the mobile terminal using the current position coordinates of the mobile terminal to acquire a plurality of pieces of distance information, and transmitting the plurality of pieces of distance information to a control center ; selecting (S130) by the control center the smallest distance based on the plurality of pieces of distance information, and transmitting feedback information to the household device at the smallest distance; receiving by the household device at the smallest distance the feedback information; characterized by : setting (S150) a signal strength threshold for an operation to be performed by the household device ; comparing (S160) a signal strength of the feedback information against the signal strength threshold for the operation to be performed; when the signal strength of the feedback information is greater than or equal to the signal strength threshold for the operation to be performed, performing by the house hold device one of the operations of turning on, turning off or regulating. locating (S110) by the household devices current position coordinates of the mobile terminal with wireless gateway function; computing (S120) by the household devices their respective distances to the mobile terminal using the current position coordinates of the mobile terminal to acquire a plurality of pieces of distance information, and transmitting the plurality of pieces of distance information to a control center ; selecting (S130) by the control center the smallest distance based on the plurality of pieces of distance information, and transmitting feedback information to the household device at the smallest distance; receiving by the household device at the smallest distance the feedback information; characterized by : setting (S150) a signal strength threshold for an operation to be performed by the household device ; comparing (S160) a signal strength of the feedback information against the signal strength threshold for the operation to be performed; when the signal strength of the feedback information is greater than or equal to the signal strength threshold for the operation to be performed, performing by the house hold device one of the operations of turning on, turning off or regulating. setting (S150) a signal strength threshold for an operation to be performed by the household device ; comparing (S160) a signal strength of the feedback information against the signal strength threshold for the operation to be performed; when the signal strength of the feedback information is greater than or equal to the signal strength threshold for the operation to be performed, performing by the house hold device one of the operations of turning on, turning off or regulating.
Method for processing information from a plurality of sensors (C1-C5) on board a motor vehicle (V), said sensors (C1-C5) each comprising means for acquiring (M1) data relating to one or several objects (OA, OB, OC) present in the environment of the vehicle (V) and located in a determined reference frame (x-y-z) specific to each sensor (C1-C5) and at different times (t0; t2), means of processing (M2) of said data and means of communication (M3) of the data comprising several buffer memories (BF1-BFn) in which the data are stored before their transmission to a control module (ASU) via a communication network (CAN) of the vehicle (V), said method being characterized in that it consists of using a single common reference frame (X-Y-Z) for the object(s) (OA, OB, OC) located by each sensor (C1, C3 and C5) , the coordinates of the object(s) located in the local reference frames (x-y-z) specific to each sensor (C1, C3 and C5) being converted into the common reference frame (X-Y-Z), and in that the buffer memories (BF1-BFn) of each sensor (C1, C3 and C5) are configured to transmit in an order of priority depending on one or more characteristics or criteria of the object(s) (OA, OB, OC) located by each sensor (C1, C3 and C5) in the common repository (X-Y-Z) of data from each sensor (C1, C3 and C5) on the network (CAN), each sensor applying the same order of priority.
A camera module within an electronic device , the camera module comprising: an imaging sensor configured to output raw image sensor data representative of a scene; and an imaging logic engine configured to process the raw image sensor data into image data in a predetermined image format and carry out a hash function to generate a hash of the image data, characterized in that the imaging logic engine is further configured to add a genesis block of a digital ledger as part of the image data so that the genesis block is part of the image data in an image file output by the camera module, the genesis block comprising the hash; and wherein the camera module is devoid of persistent memory, and connectable to output the image file to a control circuit of the electronic device for storage in a persistent memory of the electronic device or for transmission to a remote electronic device via a communications medium . an imaging sensor configured to output raw image sensor data representative of a scene; and an imaging logic engine configured to process the raw image sensor data into image data in a predetermined image format and carry out a hash function to generate a hash of the image data, characterized in that the imaging logic engine is further configured to add a genesis block of a digital ledger as part of the image data so that the genesis block is part of the image data in an image file output by the camera module, the genesis block comprising the hash; and wherein the camera module is devoid of persistent memory, and connectable to output the image file to a control circuit of the electronic device for storage in a persistent memory of the electronic device or for transmission to a remote electronic device via a communications medium .
An air outlet assembly, comprising: a panel component , a first side plate part and a second side plate part , and the first side plate part and the second side plate part being disposed at two ends of the panel component ; a bottom shell part located at a bottom of the panel component ; characterized in that the air outlet assembly furthermore comprises: an air outlet frame detachably mounted, by means of a sliding fastener mechanism, on the bottom shell part , the first side plate part and the second side plate part , wherein the sliding fastener mechanism comprises a first sliding fastener assembly comprising a first sliding fastener and a first sliding chute , one of the first sliding fastener and the first sliding chute is disposed at a bottom of the bottom shell part , and the other one of the first sliding fastener and the first sliding chute is disposed on a side of the air outlet frame close to the bottom shell part , wherein the first sliding fastener is disposed on the air outlet frame and provided with a latch portion , and an angle between a bottom surface of the air outlet assembly and each one of the first sliding chute and the latch portion is a, and 1°<a<60°. a panel component , a first side plate part and a second side plate part , and the first side plate part and the second side plate part being disposed at two ends of the panel component ; a bottom shell part located at a bottom of the panel component ; characterized in that the air outlet assembly furthermore comprises: an air outlet frame detachably mounted, by means of a sliding fastener mechanism, on the bottom shell part , the first side plate part and the second side plate part , wherein the sliding fastener mechanism comprises a first sliding fastener assembly comprising a first sliding fastener and a first sliding chute , one of the first sliding fastener and the first sliding chute is disposed at a bottom of the bottom shell part , and the other one of the first sliding fastener and the first sliding chute is disposed on a side of the air outlet frame close to the bottom shell part , wherein the first sliding fastener is disposed on the air outlet frame and provided with a latch portion , and an angle between a bottom surface of the air outlet assembly and each one of the first sliding chute and the latch portion is a, and 1°<a<60°.
Method for externally monitoring a converter , wherein the converter is actuated by means of first control electronics and the method is carried out by means of second control electronics , which are independent of the first control electronics , having the steps of: detecting (S1) a current (I) received by the converter and a voltage (U) received by the converter by means of a current/voltage sensor device that is independent of the first control electronics ; ascertaining (S2) an actual output power (P1) provided by the converter , by using the captured variables of the current (I) received by the converter and the voltage (U) received by the converter ; determining (S3) a difference between the ascertained actual output power (P1) and a setpoint output power (P2) of the converter ; and actuating (S4) the converter if an absolute value of a difference between the actual output power (P1) and the setpoint output power (P2) of the converter exceeds a predetermined limit value, characterized in that the current/voltage sensor device is integrated in a traction battery of an electric or hybrid vehicle. detecting (S1) a current (I) received by the converter and a voltage (U) received by the converter by means of a current/voltage sensor device that is independent of the first control electronics ; ascertaining (S2) an actual output power (P1) provided by the converter , by using the captured variables of the current (I) received by the converter and the voltage (U) received by the converter ; determining (S3) a difference between the ascertained actual output power (P1) and a setpoint output power (P2) of the converter ; and actuating (S4) the converter if an absolute value of a difference between the actual output power (P1) and the setpoint output power (P2) of the converter exceeds a predetermined limit value, characterized in that the current/voltage sensor device is integrated in a traction battery of an electric or hybrid vehicle.
A device for preparing a multicomponent mixture, comprising a mixing chamber which is surrounded by a chamber wall and has an outlet for the multicomponent mixture, and a temperature control channel system which is arranged in the chamber wall and is intended for cooling or heating the mixture located in the mixing chamber, at least two component valves and at least one flushing valve opening into the mixing chamber , characterized in that the flushing valve is connected, on the inlet side, to the temperature control channel system arranged in the chamber wall , through which temperature control channel system water can flow in order to simultaneously also allow the flushing water required for flushing/cleaning the mixing chamber to arrive at the flushing valve via the temperature control channel system and, when the flushing valve is actuated, inject said water through said valve into the mixing chamber .
An electrophysiology catheter, comprising: a balloon having a membrane , the balloon having a distal end and a proximal end defining a longitudinal axis; a first substrate disposed on the membrane, the first substrate including a first radiopaque marker of a first form disposed thereon; and a second substrate disposed on the membrane, the second substrate including a second radiopaque marker of a second form disposed thereon, the second form being different from the first form, wherein the first form includes a first polygon and the second form includes a second polygon, wherein the second polygon is asymmetric about a centerline that is parallel to the longitudinal axis of the balloon , wherein the second polygon includes an arrowhead, and wherein the second polygon points toward a third substrate , wherein the third substrate includes a third radiopaque marker of a third form disposed thereon, the third form being different from the first form and the second form, and wherein the third form includes a third polygon, wherein the third polygon is asymmetric about a centerline that is parallel to the longitudinal axis of the balloon , wherein the third polygon includes an arrowhead, and wherein the third polygon points toward an ultimate substrate . a balloon having a membrane , the balloon having a distal end and a proximal end defining a longitudinal axis; a first substrate disposed on the membrane, the first substrate including a first radiopaque marker of a first form disposed thereon; and a second substrate disposed on the membrane, the second substrate including a second radiopaque marker of a second form disposed thereon, the second form being different from the first form, wherein the first form includes a first polygon and the second form includes a second polygon, wherein the second polygon is asymmetric about a centerline that is parallel to the longitudinal axis of the balloon , wherein the second polygon includes an arrowhead, and wherein the second polygon points toward a third substrate , wherein the third substrate includes a third radiopaque marker of a third form disposed thereon, the third form being different from the first form and the second form, and wherein the third form includes a third polygon, wherein the third polygon is asymmetric about a centerline that is parallel to the longitudinal axis of the balloon , wherein the third polygon includes an arrowhead, and wherein the third polygon points toward an ultimate substrate .
A method performed by an access node, comprising: receiving, at the access node, an indication of a remote user equipment having a layer 3 relay selection, wherein the indication comprises information about at least a selected relay node; sending an indication to a network entity regarding the layer 3 relay selection; and configuring the remote user equipment with at least one extended discontinuous reception period in response to the received indication of the remote user equipment having the layer 3 relay selection. receiving, at the access node, an indication of a remote user equipment having a layer 3 relay selection, wherein the indication comprises information about at least a selected relay node; sending an indication to a network entity regarding the layer 3 relay selection; and configuring the remote user equipment with at least one extended discontinuous reception period in response to the received indication of the remote user equipment having the layer 3 relay selection.
An aircraft engine assembly, comprising: a gas turbine engine including a rotor having a rotor shaft wherein the rotor shaft has a longitudinal axis (128, AA'); a nacelle housing the rotor and comprising trapped air creating a temperature gradient (T) perpendicular to the longitudinal axis (128, AA') when the gas turbine engine is cooling down; means for rotating the rotor shaft using pressurized fluid, the rotating reducing or preventing thermal bowing of the rotor shaft in the temperature gradient (T), means adapted to store energy by compressing a fluid into a pressure vessel by using power generated while the engine is running in combustion mode with intake of air, wherein the means for rotating the rotor shaft comprises: the pressure vessel for containing the pressurized fluid; a valve connected to the pressure vessel ; and a stepper motor comprising a combination of a timer and a motor , wherein the stepper motor is rotating the rotor shaft when the pressurized fluid is supplied to the stepper motor from the pressure vessel and the stepper motor is coupled to the rotor shaft . a gas turbine engine including a rotor having a rotor shaft wherein the rotor shaft has a longitudinal axis (128, AA'); a nacelle housing the rotor and comprising trapped air creating a temperature gradient (T) perpendicular to the longitudinal axis (128, AA') when the gas turbine engine is cooling down; means for rotating the rotor shaft using pressurized fluid, the rotating reducing or preventing thermal bowing of the rotor shaft in the temperature gradient (T), means adapted to store energy by compressing a fluid into a pressure vessel by using power generated while the engine is running in combustion mode with intake of air, wherein the means for rotating the rotor shaft comprises: the pressure vessel for containing the pressurized fluid; a valve connected to the pressure vessel ; and a stepper motor comprising a combination of a timer and a motor , wherein the stepper motor is rotating the rotor shaft when the pressurized fluid is supplied to the stepper motor from the pressure vessel and the stepper motor is coupled to the rotor shaft . the pressure vessel for containing the pressurized fluid; a valve connected to the pressure vessel ; and a stepper motor comprising a combination of a timer and a motor , wherein the stepper motor is rotating the rotor shaft when the pressurized fluid is supplied to the stepper motor from the pressure vessel and the stepper motor is coupled to the rotor shaft .
A method of changing a property of an object, and detecting and merging conflicts in an infrastructure modeling software architecture, comprising: changing, by a client executing on a client device, a property of an object of an infrastructure model to create a local version including a change; pulling a remote version of the property from a repository ; detecting a conflict between the remote version and the local version; reconciling the conflict between the local version of the property and the remote version to create an updated local version, the reconciling to either reject the remote version in favor of retaining the local version or accept the remote version over the local version; generating a local changeset for the updated local version; and rebasing the generated local changeset by adjusting a pre-change value in the local changeset to match a post-change value of the remote version or removing the change from the local changeset . changing, by a client executing on a client device, a property of an object of an infrastructure model to create a local version including a change; pulling a remote version of the property from a repository ; detecting a conflict between the remote version and the local version; reconciling the conflict between the local version of the property and the remote version to create an updated local version, the reconciling to either reject the remote version in favor of retaining the local version or accept the remote version over the local version; generating a local changeset for the updated local version; and rebasing the generated local changeset by adjusting a pre-change value in the local changeset to match a post-change value of the remote version or removing the change from the local changeset .