mhurhangee/patent-ind-claim-en huggingface dataset:
An air filter arrangement for filtration of particles in an airflow having an airflow direction , said air filter arrangement comprising; - an electrostatically charged filter , - a first ionisation device (7.1, 7.2), and - a second ionisation device (9.1, 9.2) configured to maintain the electrostatic charge of the electrostatically charged filter over time, wherein said first ionisation device (7.1, 7.2) is arranged at a first side of said electrostatically charged filter and said second ionisation device (9.1, 9.2) is arranged at a second side of said electrostatically charged filter , and wherein said electrostatically charged filter is electrically isolated from an environment external to said electrostatically charged filter . - an electrostatically charged filter , - a first ionisation device (7.1, 7.2), and - a second ionisation device (9.1, 9.2) configured to maintain the electrostatic charge of the electrostatically charged filter over time, wherein said first ionisation device (7.1, 7.2) is arranged at a first side of said electrostatically charged filter and said second ionisation device (9.1, 9.2) is arranged at a second side of said electrostatically charged filter , and wherein said electrostatically charged filter is electrically isolated from an environment external to said electrostatically charged filter .
A method of communication between a controlled device and a controller over a 3GPP wireless network the method performed at a source interface device comprising: - splitting an incoming traffic into a first path carrying a native ethernet traffic and a second path carrying an IP, internet protocol, traffic; - remapping IP addresses of packets of the IP traffic with an IP address of a destination interface device at a remote end of the 3GPP wireless network; - encapsulating the native ethernet traffic into IP traffic with the IP address of the destination interface device at a remote end of the 3GPP wireless network; - scheduling IP traffic from said first path and said second path for transmission to the destination interface device via the 3GPP wireless network. - splitting an incoming traffic into a first path carrying a native ethernet traffic and a second path carrying an IP, internet protocol, traffic; - remapping IP addresses of packets of the IP traffic with an IP address of a destination interface device at a remote end of the 3GPP wireless network; - encapsulating the native ethernet traffic into IP traffic with the IP address of the destination interface device at a remote end of the 3GPP wireless network; - scheduling IP traffic from said first path and said second path for transmission to the destination interface device via the 3GPP wireless network.
A tube profile , particularly for manufacturing a heat exchanger for a boiler, wherein a cross-section of the tube profile comprises: - a rectangular portion having two greater sides parallel to each other and two smaller sides parallel to each other and orthogonal to the greater sides , and - an ogival portion defined by a convex flat figure formed by a base and two curved sides connected to each other in an apical zone opposite to said base , wherein said base coincides with a first side of said two smaller sides of the rectangular portion , wherein said two curved sides are symmetrical to an axis of symmetry (S-S) parallel to said greater sides and passing through central points of said smaller sides , wherein one end of each of said two curved sides joins with continuity to one end of a respective one of said two greater sides in a joining point (PH1), said each of said two curved sides being tangent to said respective one of said two greater sides in said joining point (PH1), and wherein the two greater sides , a second side of said two smaller sides , and said two curved sides define the outer surfaces of the walls of said tube profile , characterized in that an overall dimension of said ogival portion (H0) measured along said axis of symmetry (S-S) is greater than the length of said base . - a rectangular portion having two greater sides parallel to each other and two smaller sides parallel to each other and orthogonal to the greater sides , and - an ogival portion defined by a convex flat figure formed by a base and two curved sides connected to each other in an apical zone opposite to said base , wherein said base coincides with a first side of said two smaller sides of the rectangular portion , wherein said two curved sides are symmetrical to an axis of symmetry (S-S) parallel to said greater sides and passing through central points of said smaller sides , wherein one end of each of said two curved sides joins with continuity to one end of a respective one of said two greater sides in a joining point (PH1), said each of said two curved sides being tangent to said respective one of said two greater sides in said joining point (PH1), and wherein the two greater sides , a second side of said two smaller sides , and said two curved sides define the outer surfaces of the walls of said tube profile , characterized in that an overall dimension of said ogival portion (H0) measured along said axis of symmetry (S-S) is greater than the length of said base .
Fluid-conveying apparatus for conveying a fluid from a tank, having a first fluid-conveying pump , having a swirl pot and having a second fluid-conveying pump , wherein the fluid is able to be conveyed from the swirl pot by the first fluid-conveying pump , wherein the second fluid-conveying pump has a drive region and has a conveying region , wherein the conveying region is coupled to the drive region and is able to be driven by way of the drive region , wherein the drive region is able to be driven by a volume stream conveyed by the first fluid-conveying pump , characterized in that the second fluid-conveying pump is arranged downstream of the first fluid-conveying pump in a flow direction towards a consumer to be provided with a supply, and in that the fluid is able to be conveyed from the tank into the swirl pot through the second fluid-conveying pump .
Apparatus for controlling the operation of a motor (1; 34), comprising a signal processor, microcontroller or signal processing module configured at least to: receive signaling containing information about a measured change of a magnetic field created by a magnetic circuit driving a motor (1; 34); and determine corresponding signaling containing information about the speed of rotation of the motor (1; 34), based upon the signaling received a Hall Effect Sensor configured to sense the magnetic flux and provide the signaling in the form of a feedback signal for implementing motor control characterized by being mounted on an external surface of the motor housing and configured to sense some part of the magnetic field that leaves the motor housing , the motor housing is configured or formed with a slot therein that is cut into the motor housing to allow magnetic flux leakage through the motor housing , and the Hall Effect sensor (6; 36) is configured, mounted or placed in relation to the slot to detect the magnetic flux leakage passing through the slot in the motor housing . receive signaling containing information about a measured change of a magnetic field created by a magnetic circuit driving a motor (1; 34); and determine corresponding signaling containing information about the speed of rotation of the motor (1; 34), based upon the signaling received a Hall Effect Sensor configured to sense the magnetic flux and provide the signaling in the form of a feedback signal for implementing motor control characterized by being mounted on an external surface of the motor housing and configured to sense some part of the magnetic field that leaves the motor housing , the motor housing is configured or formed with a slot therein that is cut into the motor housing to allow magnetic flux leakage through the motor housing , and the Hall Effect sensor (6; 36) is configured, mounted or placed in relation to the slot to detect the magnetic flux leakage passing through the slot in the motor housing .
Method for controlling a first vehicle , said method comprising the following steps: - reception of at least one image of at least one rear light of a second vehicle traveling in front of said first vehicle ; - determination of a type of said second vehicle from said at least one image ; - control of said first vehicle depending on the type of said second vehicle ; said determination comprises a classification of said at least one rear light and a recognition of the type of vehicle associated with said at least one rear light from said at least one image . - reception of at least one image of at least one rear light of a second vehicle traveling in front of said first vehicle ; - determination of a type of said second vehicle from said at least one image ; - control of said first vehicle depending on the type of said second vehicle ;
A tower , the tower being provided with suction through holes extending through a circumferential wall of the tower, wherein the suction through holes are distributed in a circumferential direction of the tower ; the tower is further provided with a suction apparatus, and the suction apparatus is configured to perform suction to the suction through holes from outside to inside; and a shell is arranged in the tower , and a closed annular suction cavity is enclosed by the shell and an inner surface of a region, provided with the suction through holes , of the tower ; the suction apparatus is configured to suction the suction cavity, to implement the suction to the suction through holes from outside to inside; characterized in that , partitions are further arranged in the suction cavity, and the suction cavity is divided, by the partitions , into a plurality of suction chambers distributed in the circumferential direction; the tower further comprises a controller, and the controller is configured to control the suction apparatus to suction the suction chambers corresponding to a windward side of the tower . a shell is arranged in the tower , and a closed annular suction cavity is enclosed by the shell and an inner surface of a region, provided with the suction through holes , of the tower ; the suction apparatus is configured to suction the suction cavity, to implement the suction to the suction through holes from outside to inside; characterized in that , partitions are further arranged in the suction cavity, and the suction cavity is divided, by the partitions , into a plurality of suction chambers distributed in the circumferential direction; the tower further comprises a controller, and the controller is configured to control the suction apparatus to suction the suction chambers corresponding to a windward side of the tower .
A tyre comprising a sidewall portion provided with a mark indicating portion having one or more marks , wherein the mark indicating portion comprises a reference surface (x) provided on a surface of the sidewall portion , the one or more marks formed on the reference surface (x), and a base portion projecting from the surface of the sidewall portion at a constant height (H5), and a surface of each mark is inclined with respect to the reference surface (x) in a direction in which a height (H) thereof increases from one side to the other side in a tyre radial direction, characterized in that the mark indicating portion is provided with a plurality of small protruding portions on either the reference surface (x) or the surface of each mark , a surface of the base portion forms the reference surface (x), and a maximum height (Hmax) of the surface of each mark from the reference surface (x) is larger than the height (H5) of the base portion from the surface of the sidewall portion .
A method of analysing microbes, the method comprising; i) a single extraction step, comprising extraction of both lipids and proteins from the microbes; ii) a sample preparation step, comprising preparation of one or more MALDI samples incorporating the extracted lipids and the extracted proteins; iii) a data gathering step, comprising performing MALDI-based mass spectrometry on the one or more MALDI sample(s) so as to obtain mass spectrometry data on the lipid composition of the microbes and on the protein composition of the microbes, and wherein the mass spectrometry data for the lipids and the mass spectrometry data for the proteins is merged; and iv) a microbe identification step, comprising analysis of the merged mass spectrometry data to characterise or identify the microbial strain. i) a single extraction step, comprising extraction of both lipids and proteins from the microbes; ii) a sample preparation step, comprising preparation of one or more MALDI samples incorporating the extracted lipids and the extracted proteins; iii) a data gathering step, comprising performing MALDI-based mass spectrometry on the one or more MALDI sample(s) so as to obtain mass spectrometry data on the lipid composition of the microbes and on the protein composition of the microbes, and wherein the mass spectrometry data for the lipids and the mass spectrometry data for the proteins is merged; and iv) a microbe identification step, comprising analysis of the merged mass spectrometry data to characterise or identify the microbial strain.
An internal combustion engine, comprising: an intake manifold ; a plurality of jumper tubes coupled to the intake manifold and at least one cylinder head, the plurality of jumper tubes each having a passageway and a central axis (A); the jumper tubes including a first portion coupled to the intake manifold , a third portion coupled to the at least one cylinder head, and a second portion coupled to the first portion and the third portion such that the second portion of the jumper tube can be removed without removing the intake manifold or the at least one cylinder head. an intake manifold ; a plurality of jumper tubes coupled to the intake manifold and at least one cylinder head, the plurality of jumper tubes each having a passageway and a central axis (A); the jumper tubes including a first portion coupled to the intake manifold , a third portion coupled to the at least one cylinder head, and a second portion coupled to the first portion and the third portion such that the second portion of the jumper tube can be removed without removing the intake manifold or the at least one cylinder head.
A tunneling tool for creating a subcutaneous pocket below a skin surface, the tunneling tool comprising: a handle ; and a rod extending from a first end of the handle and configured to create the subcutaneous pocket; characterized in that the tunneling tool further comprises: first and second prongs (206a and 206b) extending from the first end of the handle, wherein the first and second prongs are configured to limit the depth at which the rod is capable of creating the subcutaneous pocket, the rod extends farther from the first end of the handle than the first and second prongs, and the first prong comprises a first length indicator configured to indicate a length of the subcutaneous pocket formed by the rod, wherein a first gap between the rod and the first prong and a second gap between the rod and the second prong are configured to limit the angle relative to the skin surface at which rod is capable of forming the subcutaneous pocket. a handle ; and a rod extending from a first end of the handle and configured to create the subcutaneous pocket; characterized in that the tunneling tool further comprises: first and second prongs (206a and 206b) extending from the first end of the handle, wherein the first and second prongs are configured to limit the depth at which the rod is capable of creating the subcutaneous pocket, the rod extends farther from the first end of the handle than the first and second prongs, and the first prong comprises a first length indicator configured to indicate a length of the subcutaneous pocket formed by the rod, wherein a first gap between the rod and the first prong and a second gap between the rod and the second prong are configured to limit the angle relative to the skin surface at which rod is capable of forming the subcutaneous pocket. first and second prongs (206a and 206b) extending from the first end of the handle, wherein the first and second prongs are configured to limit the depth at which the rod is capable of creating the subcutaneous pocket, the rod extends farther from the first end of the handle than the first and second prongs, and the first prong comprises a first length indicator configured to indicate a length of the subcutaneous pocket formed by the rod, wherein a first gap between the rod and the first prong and a second gap between the rod and the second prong are configured to limit the angle relative to the skin surface at which rod is capable of forming the subcutaneous pocket.
A member having a substrate and a porous layer on the substrate , wherein the porous layer contains a plurality of silicon oxide particles bound by an inorganic binder and at least one acid selected from the group consisting of the following formulae to : wherein A 1 in the formula denotes COOH, and n denotes an integer in the range of 2 to 8, one of A 2 and A 3 in the formula denotes SO 3 H or PO 3 H 2 , and the other denotes an acidic group selected from the group consisting of SO 3 H, PO 3 H 2 , COOH, and OH, and R denotes a divalent organic group having 1 to 20 carbon atoms, at least one of A 2 , A 3 , and A 4 in the formula denotes SO 3 H or PO 3 H 2 , and the other denotes an acidic group selected from the group consisting of SO 3 H, PO 3 H 2 , COOH, and OH, and R denotes a trivalent organic group having 1 to 20 carbon atoms, and at least one of A 2 , A 3 , A 4 , and A 5 in the formula denotes SO 3 H or PO 3 H 2 , and the other denotes an acidic group selected from the group consisting of SO 3 H, PO 3 H 2 , COOH, and OH, and R denotes a tetravalent organic group having 1 to 20 carbon atoms. the porous layer contains a plurality of silicon oxide particles bound by an inorganic binder and at least one acid selected from the group consisting of the following formulae to : wherein A 1 in the formula denotes COOH, and n denotes an integer in the range of 2 to 8, one of A 2 and A 3 in the formula denotes SO 3 H or PO 3 H 2 , and the other denotes an acidic group selected from the group consisting of SO 3 H, PO 3 H 2 , COOH, and OH, and R denotes a divalent organic group having 1 to 20 carbon atoms, at least one of A 2 , A 3 , and A 4 in the formula denotes SO 3 H or PO 3 H 2 , and the other denotes an acidic group selected from the group consisting of SO 3 H, PO 3 H 2 , COOH, and OH, and R denotes a trivalent organic group having 1 to 20 carbon atoms, and at least one of A 2 , A 3 , A 4 , and A 5 in the formula denotes SO 3 H or PO 3 H 2 , and the other denotes an acidic group selected from the group consisting of SO 3 H, PO 3 H 2 , COOH, and OH, and R denotes a tetravalent organic group having 1 to 20 carbon atoms.
A computer-implemented method of processing measurement data received from a remote device monitoring a subject, the method comprising: comparing the measurement data against an expected data profile (EDP) for the subject, the EDP being derived from historical measurement data and comprising configuration information as to the configuration of the measurement data, and expected value information as to the expected values of the measurement data; inputting measurement data relating to different health readings and adding the input measurement data to the EDP to form an overall EDP which takes into consideration the different health readings and any data correlation between the different health readings; marking the measurement data with an error tag if it does not match the configuration information; marking the measurement data with an abnormal tag if it does not match the data correlation maintained in the EDP and included in the expected value information; and assessing any measurement data not marked with an error tag or abnormal tag, by excluding the measurement data marked with an error tag or abnormal tag from the assessment, to check whether it indicates a health condition change of the subject, wherein the configuration information indicates the device identity and/or frequency of receipt and/or amount and/or type of the management data and/or data size per transmission. comparing the measurement data against an expected data profile (EDP) for the subject, the EDP being derived from historical measurement data and comprising configuration information as to the configuration of the measurement data, and expected value information as to the expected values of the measurement data; inputting measurement data relating to different health readings and adding the input measurement data to the EDP to form an overall EDP which takes into consideration the different health readings and any data correlation between the different health readings; marking the measurement data with an error tag if it does not match the configuration information; marking the measurement data with an abnormal tag if it does not match the data correlation maintained in the EDP and included in the expected value information; and assessing any measurement data not marked with an error tag or abnormal tag, by excluding the measurement data marked with an error tag or abnormal tag from the assessment, to check whether it indicates a health condition change of the subject, wherein the configuration information indicates the device identity and/or frequency of receipt and/or amount and/or type of the management data and/or data size per transmission.
A ring gear comprising: a ring having one or more sets of inwardly facing teeth ; wherein the ring comprises a circumferential flange extending outward from the ring ; and wherein the flange is mounted between a first housing and a second housing , and characterised in that the flange protrudes outside the first housing and second housing and into an ambient air. a ring having one or more sets of inwardly facing teeth ; wherein the ring comprises a circumferential flange extending outward from the ring ; and wherein the flange is mounted between a first housing and a second housing , and characterised in that the flange protrudes outside the first housing and second housing and into an ambient air.