mhurhangee/patent-ind-claim-en huggingface dataset:
Trap that is suitable for use in a water discharge tank , whereby the trap is intended to be installed in the tank and connected to an opening in a wall of the tank whereby the trap , moreover, is at least provided with the following elements: - an internal part with a bottom and an upstanding, internal wall , whereby the internal part opposite the bottom is provided with an opening for the supply of discharge water or discharge fluid; - an external part in the form of a hood that serves as conductive element for the supply of discharge water or discharge fluid to the opening on the internal part ; - a covering part of the external part intended to extend over the internal part after assembly and over the opening on the internal part and this at a certain distance (D) thereof; - an external wall of the external part which extends from the covering part to an edge and whereby this external wall after assembly surrounds a part of the internal wall ; - a grille intended to be mounted in the opening on the internal part in order to prevent oversized elements in the discharge water or discharge fluid from flowing through to the internal part ; characterized in that the covering part of the external part is executed as a separate lid that can be affixed in a removable way on the external wall of the external part , and in that said lid is provided with retaining means with which the grille can be held in place in a detachable way, whereby by affixing the lid on the external wall the grille is fittingly affixed in the opening of the internal part . - an internal part with a bottom and an upstanding, internal wall , whereby the internal part opposite the bottom is provided with an opening for the supply of discharge water or discharge fluid; - an external part in the form of a hood that serves as conductive element for the supply of discharge water or discharge fluid to the opening on the internal part ; - a covering part of the external part intended to extend over the internal part after assembly and over the opening on the internal part and this at a certain distance (D) thereof; - an external wall of the external part which extends from the covering part to an edge and whereby this external wall after assembly surrounds a part of the internal wall ; - a grille intended to be mounted in the opening on the internal part in order to prevent oversized elements in the discharge water or discharge fluid from flowing through to the internal part ; characterized in that the covering part of the external part is executed as a separate lid that can be affixed in a removable way on the external wall of the external part , and in that said lid is provided with retaining means with which the grille can be held in place in a detachable way, whereby by affixing the lid on the external wall the grille is fittingly affixed in the opening of the internal part .
A data transmission method, wherein the method comprises: receiving , by a switch, data flows, wherein the switch is a switch in the OpenFlow protocol; classifying , by the switch, the received data flows into two classes of data flows according to data features of the received data flows by using a decision tree model established using a flow table pipeline of the switch, wherein the decision tree model is obtained by training a data feature of a historical data flow and label information of the historical data flow, the label information indicates a class of a data flow, the decision tree model comprises at least one decision node, and each decision node comprises one flow table of the flow table pipeline and performs matching on one data feature of the received data flows, to decide a splitting direction to a next node to distinguish between the two classes of data flows; reporting a first-class data flow of the two classes of data flows to a controller, so that the controller computes a transmission path of the first-class data flow; and determining a transmission path of a second-class data flow of the two classes of data flows according to local flow table information of the switch, and directly transmitting the second-class data flow according to the transmission path. receiving , by a switch, data flows, wherein the switch is a switch in the OpenFlow protocol; classifying , by the switch, the received data flows into two classes of data flows according to data features of the received data flows by using a decision tree model established using a flow table pipeline of the switch, wherein the decision tree model is obtained by training a data feature of a historical data flow and label information of the historical data flow, the label information indicates a class of a data flow, the decision tree model comprises at least one decision node, and each decision node comprises one flow table of the flow table pipeline and performs matching on one data feature of the received data flows, to decide a splitting direction to a next node to distinguish between the two classes of data flows; reporting a first-class data flow of the two classes of data flows to a controller, so that the controller computes a transmission path of the first-class data flow; and determining a transmission path of a second-class data flow of the two classes of data flows according to local flow table information of the switch, and directly transmitting the second-class data flow according to the transmission path.
A radiant gas heater including: one or more gas inlets , for receiving gas from a gas supply; one or more air inlets ; one or more gas burners (120A-120E), in which gas from the one or more gas inlets is burned using oxygen admitted through the one or more air inlets ; two or more heat emitting elements (125A-125E), each of which sits in front of the one or more gas burners (120A-120E) and is configured to emit infrared radiation using energy generated by the one or more gas burners (120A-120E); two or more ionization probes configured to detect the presence or absence of a flame, wherein the two or more ionization probes extend across the length of two or more of the heat emitting elements; a housing , which accommodates the one or more gas burners (120A-120E), the two or more heat emitting elements (125A-125E) and the two or more ionization probes ; one or more control units in electrical communication with the ionization probes and the one or more gas inlets , the one or more control units being configured to shut off the gas supply if the two or more ionization probes detect the absence of a flame, characterized in that the one or more control units are configured to maintain the gas supply if the two or more ionization probes detect the presence of a flame on at least one of the heat emitting elements (125A-125E). one or more gas inlets , for receiving gas from a gas supply; one or more air inlets ; one or more gas burners (120A-120E), in which gas from the one or more gas inlets is burned using oxygen admitted through the one or more air inlets ; two or more heat emitting elements (125A-125E), each of which sits in front of the one or more gas burners (120A-120E) and is configured to emit infrared radiation using energy generated by the one or more gas burners (120A-120E); two or more ionization probes configured to detect the presence or absence of a flame, wherein the two or more ionization probes extend across the length of two or more of the heat emitting elements; a housing , which accommodates the one or more gas burners (120A-120E), the two or more heat emitting elements (125A-125E) and the two or more ionization probes ; one or more control units in electrical communication with the ionization probes and the one or more gas inlets , the one or more control units being configured to shut off the gas supply if the two or more ionization probes detect the absence of a flame, characterized in that the one or more control units are configured to maintain the gas supply if the two or more ionization probes detect the presence of a flame on at least one of the heat emitting elements (125A-125E).
A method comprising: authenticating a user to a processor-based host , via a third credential, to determine a user authentication status; authenticating the user to a processor-based first service provider via (a)(i) the user authentication status, (a)(ii) a first credential that is unequal to the third credential, and (a)(iii) a first out-of-band, OOB, communication ; authenticating the user to a processor-based second service provider via (b)(i) the user authentication status, (b)(ii) a second credential that is unequal to either of the first and third credentials, and (b)(iii) a second OOB communication ; in response to a timed-out session with the first service provider or the second service provider , authenticating the user to the first service provider or the second service provider , respectively; without re-authenticating the user to the host . authenticating a user to a processor-based host , via a third credential, to determine a user authentication status; authenticating the user to a processor-based first service provider via (a)(i) the user authentication status, (a)(ii) a first credential that is unequal to the third credential, and (a)(iii) a first out-of-band, OOB, communication ; authenticating the user to a processor-based second service provider via (b)(i) the user authentication status, (b)(ii) a second credential that is unequal to either of the first and third credentials, and (b)(iii) a second OOB communication ; in response to a timed-out session with the first service provider or the second service provider , authenticating the user to the first service provider or the second service provider , respectively; without re-authenticating the user to the host .
A pouch type secondary battery , comprising an electrode assembly received in a pouch case sealed to form a sealing part, and electrode leads being each welded to a positive electrode tab and a negative electrode tab of the electrode assembly, the electrode leads being exposed through the pouch case , the electrode lead of the pouch type secondary battery being configured to be welded with an electrode lead of an adjacent different pouch type secondary battery, wherein the electrode lead includes a length extended part so that the electrode lead of remaining length after cutting (C) a welded part (A) of the electrode lead is configured to be welded again with the electrode lead remaining length after cutting the welded part of the adjacent different pouch type secondary battery, and wherein a size (d) of the length extended part is determined taking into account a length that is discarded when cutting the welded part (A) and processing allowance required when newly welding, characterized in that the pouch type secondary battery has a lead film ensuring insulation between a pouch case and the electrode lead , and the lead film includes a surplus part so that the lead film is formed to the length extended part , and wherein the lead film includes a notch (N) on two sides of a part sticking out of the pouch case to remove the surplus part . wherein the electrode lead includes a length extended part so that the electrode lead of remaining length after cutting (C) a welded part (A) of the electrode lead is configured to be welded again with the electrode lead remaining length after cutting the welded part of the adjacent different pouch type secondary battery, and wherein a size (d) of the length extended part is determined taking into account a length that is discarded when cutting the welded part (A) and processing allowance required when newly welding, characterized in that the pouch type secondary battery has a lead film ensuring insulation between a pouch case and the electrode lead , and the lead film includes a surplus part so that the lead film is formed to the length extended part , and wherein the lead film includes a notch (N) on two sides of a part sticking out of the pouch case to remove the surplus part .
A flexible abrasive member , comprising a substrate , which carries a plurality of deposits with embedded abrasive particles , wherein each deposit has an elongated continuous structure that extends along a center trajectory (Ax) predominantly in a longitudinal direction (X) across the substrate; wherein said structure comprises inset portions and recessed portions , which protrude in opposite transverse directions (±Y) from the center trajectory; wherein a respective inset portion comprises a first pair of transverse segments that extend mutually parallel and along the transverse directions (±Y) to protrude from one side of the center trajectory (Ax), the first pair of transverse segments jointly defining an external dimension (ΔX1) along the longitudinal direction (X), and wherein a respective recessed portion comprises a second pair of transverse segments that extend mutually parallel and along the transverse directions (±Y) to protrude from an opposite side of the center trajectory (Ax), the second pair of transverse segments being mutually spaced along the longitudinal direction over an internal dimension (ΔX2) that is larger than the external dimension (ΔX1); and wherein the inset portions of a deposit are accommodated in recessed portions of a preceding deposit , and the recessed portions of the deposit accommodate inset portions of a following deposit , so that the inset portions and recessed portions of neighboring deposits mutually overlap in said transverse directions. wherein said structure comprises inset portions and recessed portions , which protrude in opposite transverse directions (±Y) from the center trajectory; wherein a respective inset portion comprises a first pair of transverse segments that extend mutually parallel and along the transverse directions (±Y) to protrude from one side of the center trajectory (Ax), the first pair of transverse segments jointly defining an external dimension (ΔX1) along the longitudinal direction (X), and wherein a respective recessed portion comprises a second pair of transverse segments that extend mutually parallel and along the transverse directions (±Y) to protrude from an opposite side of the center trajectory (Ax), the second pair of transverse segments being mutually spaced along the longitudinal direction over an internal dimension (ΔX2) that is larger than the external dimension (ΔX1); and wherein the inset portions of a deposit are accommodated in recessed portions of a preceding deposit , and the recessed portions of the deposit accommodate inset portions of a following deposit , so that the inset portions and recessed portions of neighboring deposits mutually overlap in said transverse directions.
A method of performing tessellation in a computer graphics system, the method comprising: sub-dividing an initial patch into a plurality of primitives using a plurality of sub-division steps; and generating a primitive identifier for each primitive, wherein the primitive identifier encodes data about how the primitive was generated by the plurality of sub-division steps and enables a subsequent generating of vertex data for the vertices of the primitive, wherein the data about how the primitive was generated by sub-dividing the initial patch comprises a sequence of bits describing the plurality of sub-division steps taken to generate the primitive during tessellation and wherein each bit in the sequence of bits indicates which branch was taken at a respective sub-division step to generate the primitive during tessellation, a branch representing a sub-patch being formed by sub-division of the initial patch, and wherein the sequence of bits specifies a recursive sequence taken during the tessellation process. sub-dividing an initial patch into a plurality of primitives using a plurality of sub-division steps; and generating a primitive identifier for each primitive, wherein the primitive identifier encodes data about how the primitive was generated by the plurality of sub-division steps and enables a subsequent generating of vertex data for the vertices of the primitive, wherein the data about how the primitive was generated by sub-dividing the initial patch comprises a sequence of bits describing the plurality of sub-division steps taken to generate the primitive during tessellation and wherein each bit in the sequence of bits indicates which branch was taken at a respective sub-division step to generate the primitive during tessellation, a branch representing a sub-patch being formed by sub-division of the initial patch, and wherein the sequence of bits specifies a recursive sequence taken during the tessellation process.
A cavity wall anchor comprising a metal part having two end portions which can each be connected to a respective one of two parallel plates of a cavity wall , and a connecting portion which integrally connects the two end portions together, wherein the cavity wall anchor comprises a flat steel member and wherein the end portions and the connecting portion of the cavity wall anchor each have at least one transverse bore , characterised in that the flat steel member is of a V-shape in a side view and is angled about an axis perpendicular to the flat steel plane, and the angle between the V-limbs is greater than 90° and the end portions have an end face extending parallel to the angle bisector (W) of the angled flat steel material and the centre of the at least one transverse bore of the connecting portion lies on the angle bisector of the angled flat steel material.
Method for determining a fault cause for a fault in a vehicle component, the method comprising: receiving at least one state code , which was delivered by the vehicle component, and a textual fault description , which was written for the fault; determining first model probabilities (P1) for fault causes of the fault from the at least one state code by using a first machine learning model ; determining second model probabilities (P2) for fault causes of the fault from the textual fault description by using a second machine learning model , which is based on a neural network , wherein the textual fault description is broken down into text blocks and the text blocks are input into the second machine learning model ; generating final probabilities (PE) for fault causes from the first and the second model probabilities; wherein the first and the second machine learning model are an automatically trained learning model for which model data are generated by training the machine learning model and that comprises the possible fault causes and the first and second model probabilities (P1, P2) as outputs, the model probability (P1, P2) for a fault cause being based on a probability that is generated from the model data by an algorithm of the relevant machine learning model . receiving at least one state code , which was delivered by the vehicle component, and a textual fault description , which was written for the fault; determining first model probabilities (P1) for fault causes of the fault from the at least one state code by using a first machine learning model ; determining second model probabilities (P2) for fault causes of the fault from the textual fault description by using a second machine learning model , which is based on a neural network , wherein the textual fault description is broken down into text blocks and the text blocks are input into the second machine learning model ; generating final probabilities (PE) for fault causes from the first and the second model probabilities; wherein the first and the second machine learning model are an automatically trained learning model for which model data are generated by training the machine learning model and that comprises the possible fault causes and the first and second model probabilities (P1, P2) as outputs, the model probability (P1, P2) for a fault cause being based on a probability that is generated from the model data by an algorithm of the relevant machine learning model .
Device for incinerating hazardous solid waste comprising a rotary kiln , a feed hopper for supplying hazardous waste to the rotary kiln, a post-combustion chamber , a steam boiler and a gas scrubbing installation , wherein the device comprises at least one injection lance for direct injection of liquid waste into the post-combustion chamber, characterized in that the injection lance comprises a longitudinal supply channel for supplying liquid waste materials, wherein the injection lance comprises a gas channel concentrically around the supply channel for supplying a gas, wherein a spray head is arranged on the injection lance, wherein the spray head comprises an internal mixing chamber, wherein the supply channel and the gas channel open into the internal mixing chamber, wherein the device comprises sensors for measuring, in the active state of the device, the temperature, flow rate and density of liquid hazardous waste to the at least one injection lance, the device further comprising a control valve for regulating the flow rate of the gas to the gas channel of the at least one injection lance, wherein the control valve comprises a controller and wherein the controller of the control valve is coupled to said sensors.
A method for estimating movement of a target object , the method being performed by an electronic control unit , the method comprising: obtaining (S102) a sequence of images from an image capturing system; detecting (S104) a target object in the sequence of images; and estimating (S106) movement of the target object by firstly applying a first dynamic estimation model to the sequence of images and a secondly applying a second dynamic estimation model to the sequence of images, wherein estimating the movement of the target object comprises: applying (S106a) the first dynamic estimation model to estimate velocity and position (x, y) of the target object , wherein the velocity comprises speed and heading angle of the target object , and applying (S106d) the second dynamic estimation model to estimate pose and yaw rate (α) of the target object , wherein the first dynamic estimation model is used to estimate a first set of properties, defined by the velocity and the position (x, y) of the target object , wherein the second dynamic estimation model is used to estimate a second set of properties, defined by the pose and the yaw rate (α), extending the first set of properties, and wherein output from the first dynamic estimation model is used to initialize the second dynamic estimation model. obtaining (S102) a sequence of images from an image capturing system; detecting (S104) a target object in the sequence of images; and estimating (S106) movement of the target object by firstly applying a first dynamic estimation model to the sequence of images and a secondly applying a second dynamic estimation model to the sequence of images, wherein estimating the movement of the target object comprises: applying (S106a) the first dynamic estimation model to estimate velocity and position (x, y) of the target object , wherein the velocity comprises speed and heading angle of the target object , and applying (S106d) the second dynamic estimation model to estimate pose and yaw rate (α) of the target object , applying (S106a) the first dynamic estimation model to estimate velocity and position (x, y) of the target object , wherein the velocity comprises speed and heading angle of the target object , and applying (S106d) the second dynamic estimation model to estimate pose and yaw rate (α) of the target object , wherein the first dynamic estimation model is used to estimate a first set of properties, defined by the velocity and the position (x, y) of the target object , wherein the second dynamic estimation model is used to estimate a second set of properties, defined by the pose and the yaw rate (α), extending the first set of properties, and wherein output from the first dynamic estimation model is used to initialize the second dynamic estimation model.