mhurhangee/patent-ind-claim-en huggingface dataset:
An ion chromatography (IC) suppressor, comprising a first clamping plate , an intermediate plate , a second clamping plate , a first ion exchange membrane , a second ion exchange membrane , a first electrode and a second electrode characterized in that the first clamping plate , the intermediate plate and the second clamping plate are tightly buckled in sequence to compact the first ion exchange membrane between the first clamping plate and the intermediate plate and compact the second ion exchange membrane between the intermediate plate and the second clamping plate ; a suppression chamber is formed between the first ion exchange membrane and the second ion exchange membrane , and the suppression chamber is filled with resin particles for ion exchange and support; the first electrode is embedded on a side of the first clamping plate adjacent to the intermediate plate , and a first electrolysis chamber is formed between the first electrode and the first ion exchange membrane ; the second electrode is embedded on a side of the second clamping plate adjacent to the intermediate plate , and a second electrolysis chamber is formed between the second electrode and the second ion exchange membrane ; the first ion exchange membrane and the second ion exchange membrane separate the suppression chamber , the first electrolysis chamber , and the second electrolysis chamber into three independent chambers; an eluent inlet and an eluent outlet are provided respectively at two ends of the intermediate plate , and an accommodating groove for mounting a screen plate is formed at each of a tail end of the eluent inlet and a head end of the eluent outlet ; a first electrolyte inlet and an electrolyte outlet are formed on a side of the first clamping plate away from the intermediate plate ; and a second electrolyte inlet and an exhaust gas-liquid outlet are formed on a side of the second clamping plate away from the intermediate plate .
A method of communicating directions to an end destination by one or more drones , comprising: moving via flying motion by a first drone between a first location and a second location along a travel path therebetween, wherein the second location is the end destination or an intermediate location ; displaying indicia on a first electronic display panel of the drone that is indicative of directions to the second location ; and characterized by updating the indicia displayed on the display panel based on whether the first drone is traveling toward or away from the second location , between the first and second locations , so that the indicia on the display panel is substantially continuously indicative of directions to the second location . moving via flying motion by a first drone between a first location and a second location along a travel path therebetween, wherein the second location is the end destination or an intermediate location ; displaying indicia on a first electronic display panel of the drone that is indicative of directions to the second location ; and characterized by updating the indicia displayed on the display panel based on whether the first drone is traveling toward or away from the second location , between the first and second locations , so that the indicia on the display panel is substantially continuously indicative of directions to the second location .
An overfill valve comprising: - an intake adapted to receive a predetermined liquid , - a drain adapted to drain said liquid , - a chamber comprising: • an intake opening in fluid communication with the intake , • a drain opening in fluid communication with the drain , - a floating valve : • arranged in the chamber , • adapted to float on said liquid , • hinged to the housing along a hinging axis , so as to: ∘ in a first position, close at least one of the intake opening and the drain opening , ∘ in a second position, allow said liquid to flow in the chamber from the intake opening to the drain opening . characterized in that the floating valve has an elliptical cross-section. - an intake adapted to receive a predetermined liquid , - a drain adapted to drain said liquid , - a chamber comprising: • an intake opening in fluid communication with the intake , • a drain opening in fluid communication with the drain , • an intake opening in fluid communication with the intake , • a drain opening in fluid communication with the drain , - a floating valve : • arranged in the chamber , • adapted to float on said liquid , • hinged to the housing along a hinging axis , so as to: ∘ in a first position, close at least one of the intake opening and the drain opening , ∘ in a second position, allow said liquid to flow in the chamber from the intake opening to the drain opening . • arranged in the chamber , • adapted to float on said liquid , • hinged to the housing along a hinging axis , so as to: ∘ in a first position, close at least one of the intake opening and the drain opening , ∘ in a second position, allow said liquid to flow in the chamber from the intake opening to the drain opening . ∘ in a first position, close at least one of the intake opening and the drain opening , ∘ in a second position, allow said liquid to flow in the chamber from the intake opening to the drain opening .
Apparatus for processing an optical lens , with a processing device for machining or otherwise shaping a front and/or rear side of the lens , wherein the apparatus or a control device of the apparatus comprises or uses a design module comprising a design model for determining geometrical data (GD) and/or manufacturing data (FD) of the lens from desired optical data (OD) in a determination process, and characterized in that the apparatus has an acquisition device for acquiring an activation code (FC), the activation code (FC) being a multi-digit alphanumeric number sequence, wherein a plurality of permissible activation codes (FC) are stored or saved in the apparatus or can be generated by means of an algorithm, wherein the appratus comprises a comparison means for comparing an activation code (FC) acquired by means of the acquisition device with the permissible activation codes (FC), wherein the apparatus is designed in such a way that a determination of the geometrical data (GD) and/or manufacturing data (FD) from the desired optical data (OD) of the lens only takes place after the acquisition of a permissible activation code (FC), and wherein a permissible activation code (FC) can be used only once for determining the geometric data (GD) and/or manufacturing data (FD) for a lens and can be used only in connection with a single specific lens . with a processing device for machining or otherwise shaping a front and/or rear side of the lens , wherein the apparatus or a control device of the apparatus comprises or uses a design module comprising a design model for determining geometrical data (GD) and/or manufacturing data (FD) of the lens from desired optical data (OD) in a determination process, and characterized in that the apparatus has an acquisition device for acquiring an activation code (FC), the activation code (FC) being a multi-digit alphanumeric number sequence, wherein a plurality of permissible activation codes (FC) are stored or saved in the apparatus or can be generated by means of an algorithm, wherein the appratus comprises a comparison means for comparing an activation code (FC) acquired by means of the acquisition device with the permissible activation codes (FC), wherein the apparatus is designed in such a way that a determination of the geometrical data (GD) and/or manufacturing data (FD) from the desired optical data (OD) of the lens only takes place after the acquisition of a permissible activation code (FC), and wherein a permissible activation code (FC) can be used only once for determining the geometric data (GD) and/or manufacturing data (FD) for a lens and can be used only in connection with a single specific lens .
A measuring device , comprising: - an illuminating unit arranged to project an illuminating light beam (LB1) on a glossy surface (SRF1) of a target object (OBJ1) so as to form an illuminated region (E1) on the surface (SRF1), - an image sensor , and - focusing optics arranged to form a focused spot (E2 k ) on the image sensor by focusing light (LB2 k ) reflected from the illuminated region (E1) such that the position (u k ) of the spot (E2 k ) depends on the height (z k ) of the surface (SRF1) with respect to a reference plane (PLN1), wherein the illuminating unit is arranged to project the illuminating light beam (LB1) such that the illuminating beam (LB1) has a waist (SP1 k ), and wherein the normal (N3) of the image sensor is inclined with respect to the optical axis (AX2) of the focusing optics so that the focused spot (E2 k ) formed on the image sensor remains substantially sharp in a situation where the height (z k ) of the surface (SRF1) is changed, characterized in that the focusing optics is a telecentric system and wherein the device is configured to determine the height (z k ) of the surface (SRF1) from the detected position (u k ) of the focused spot (E2 k ) in a situation where said focused spot (E2 k ) is an image of said waist (SP1 k ), which is located above the illuminated region (E1). - an illuminating unit arranged to project an illuminating light beam (LB1) on a glossy surface (SRF1) of a target object (OBJ1) so as to form an illuminated region (E1) on the surface (SRF1), - an image sensor , and - focusing optics arranged to form a focused spot (E2 k ) on the image sensor by focusing light (LB2 k ) reflected from the illuminated region (E1) such that the position (u k ) of the spot (E2 k ) depends on the height (z k ) of the surface (SRF1) with respect to a reference plane (PLN1), wherein the illuminating unit is arranged to project the illuminating light beam (LB1) such that the illuminating beam (LB1) has a waist (SP1 k ), and wherein the normal (N3) of the image sensor is inclined with respect to the optical axis (AX2) of the focusing optics so that the focused spot (E2 k ) formed on the image sensor remains substantially sharp in a situation where the height (z k ) of the surface (SRF1) is changed, characterized in that the focusing optics is a telecentric system and wherein the device is configured to determine the height (z k ) of the surface (SRF1) from the detected position (u k ) of the focused spot (E2 k ) in a situation where said focused spot (E2 k ) is an image of said waist (SP1 k ), which is located above the illuminated region (E1).
A method comprising: installing , onto a first computing environment on a computing device , a device driver for a device available to the first computing environment ; retrieving , from an external media device that does not include the device driver , data associated with a second computing environment and comprising a virtual machine image associated with the second computing environment ; executing , by a virtual machine on the computing device , the second computing environment , based on the retrieved data ; identifying , by a device discovery agent , a device available to the second computing environment ; determining , by a device driver discovery agent , that the device driver installed in the first computing environment is associated with the device available to the second computing environment ; receiving or retrieving, by the device driver discovery agent information required to install the device driver into the second computing environment ; and importing , by a device driver installation agent in communication with the device driver discovery agent , using the information received or retrieved by the device driver discovery agent and without user input, the device driver into the second computing environment . installing , onto a first computing environment on a computing device , a device driver for a device available to the first computing environment ; retrieving , from an external media device that does not include the device driver , data associated with a second computing environment and comprising a virtual machine image associated with the second computing environment ; executing , by a virtual machine on the computing device , the second computing environment , based on the retrieved data ; identifying , by a device discovery agent , a device available to the second computing environment ; determining , by a device driver discovery agent , that the device driver installed in the first computing environment is associated with the device available to the second computing environment ; receiving or retrieving, by the device driver discovery agent information required to install the device driver into the second computing environment ; and importing , by a device driver installation agent in communication with the device driver discovery agent , using the information received or retrieved by the device driver discovery agent and without user input, the device driver into the second computing environment .
Method for accessing media content, the method for use in a receiver , said method comprising a preparation phase and a use phase, the preparation phase comprising the following steps: • obtaining, by said receiver , a catalog of media content items, each media content item corresponding to a media content and comprising at least an item description and an item identification data; • storing said catalog of media content items in a local database in a memory of the receiver ; the use phase comprising the following steps: • accessing, by a mobile display device , said catalog of media content items through a local communication channel ; • displaying at least a part of the catalog of media content items on the mobile display device ; • selecting, by said mobile display device , at least one media content item displayed on the mobile display device; • transmitting, by said mobile display device , a request to a content provider , the request comprising the item identification data corresponding to said selected media content item and additional data allowing for the receiver to be identified, said transmission using a first remote communication channel distinct from said local communication channel , • obtaining by the receiver , the media content corresponding to the media content item identified by the identification data contained in said request, wherein said method further comprises a step of receiving rights enabling access to said media content, the rights enabling access to said media content being obtained by the mobile display device from the content provider through said first remote communication channel and being transmitted to the receiver through said local communication channel , wherein the transmission of content to the receiver is made through a second remote communication channel distinct from the first remote communication channel , the second remote communication channel being a broadcast data path. • obtaining, by said receiver , a catalog of media content items, each media content item corresponding to a media content and comprising at least an item description and an item identification data; • storing said catalog of media content items in a local database in a memory of the receiver ; • accessing, by a mobile display device , said catalog of media content items through a local communication channel ; • displaying at least a part of the catalog of media content items on the mobile display device ; • selecting, by said mobile display device , at least one media content item displayed on the mobile display device; • transmitting, by said mobile display device , a request to a content provider , the request comprising the item identification data corresponding to said selected media content item and additional data allowing for the receiver to be identified, said transmission using a first remote communication channel distinct from said local communication channel , • obtaining by the receiver , the media content corresponding to the media content item identified by the identification data contained in said request,
A method carried out by a system configured to analyze blood clotting, comprising: detecting clot initiation; causing a first ferromagnetic object to move in a first chamber housing blood after clot initiation has been detected; detecting movement of the first ferromagnetic object in the first chamber ; and correlating the detected movement of the first ferromagnetic object in the first chamber with strength of clotting of the blood ; wherein detecting movement of the first object in the first chamber comprises detecting movement in a first period of time and detecting movement in a second period of time; characterised in that : correlating detected movement of the object in the chamber with the strength of clotting comprises comparing movement of the object in the chamber in the first period of time to movement of the object in the chamber in the second period of time; and wherein correlating movement of the object in the chamber with the strength of clotting comprises determining a rate of change in velocity of the object between the first period of time and the second period of time and correlating the rate of change in velocity with the strength of clotting. detecting clot initiation; causing a first ferromagnetic object to move in a first chamber housing blood after clot initiation has been detected; detecting movement of the first ferromagnetic object in the first chamber ; and correlating the detected movement of the first ferromagnetic object in the first chamber with strength of clotting of the blood ; wherein detecting movement of the first object in the first chamber comprises detecting movement in a first period of time and detecting movement in a second period of time; characterised in that : correlating detected movement of the object in the chamber with the strength of clotting comprises comparing movement of the object in the chamber in the first period of time to movement of the object in the chamber in the second period of time; and wherein correlating movement of the object in the chamber with the strength of clotting comprises determining a rate of change in velocity of the object between the first period of time and the second period of time and correlating the rate of change in velocity with the strength of clotting. correlating detected movement of the object in the chamber with the strength of clotting comprises comparing movement of the object in the chamber in the first period of time to movement of the object in the chamber in the second period of time; and wherein correlating movement of the object in the chamber with the strength of clotting comprises determining a rate of change in velocity of the object between the first period of time and the second period of time and correlating the rate of change in velocity with the strength of clotting.
A pipe inspecting robot for traveling along the surface of a pipeline , the robot characterized by : a body that has a cut-out section that provides for the central connection and movement of first and second independently articulating legs ; first and second leg motors controlling the first and second articulating legs , respectively; and first and second pairs of wheels attached to the first and second articulating legs , respectively by first and second wheel hubs that extend perpendicular to the legs so that each leg is articulated about its respective hub by the power of an individual hub leg motor ,the first and second pairs of wheels being configured to move the robot along the pipeline; the first and second leg motors configured so that when the first pair of wheels encounters an obstacle in front of the first pair of wheels in the direction of movement of the body, the second leg motor rotates the second leg upward away from the surface of the pipeline and radially around the body until the second pair of wheels contacts the surface of the pipeline on an opposite side of the obstacle, after which the first leg motor rotates the first leg upward away from the surface of the pipeline and radially around the body until the first pair of wheels contacts the surface of the pipeline , thereby causing the robot to pass over the obstacle. a body that has a cut-out section that provides for the central connection and movement of first and second independently articulating legs ; first and second leg motors controlling the first and second articulating legs , respectively; and first and second pairs of wheels attached to the first and second articulating legs , respectively by first and second wheel hubs that extend perpendicular to the legs so that each leg is articulated about its respective hub by the power of an individual hub leg motor ,the first and second pairs of wheels being configured to move the robot along the pipeline; the first and second leg motors configured so that when the first pair of wheels encounters an obstacle in front of the first pair of wheels in the direction of movement of the body, the second leg motor rotates the second leg upward away from the surface of the pipeline and radially around the body until the second pair of wheels contacts the surface of the pipeline on an opposite side of the obstacle, after which the first leg motor rotates the first leg upward away from the surface of the pipeline and radially around the body until the first pair of wheels contacts the surface of the pipeline , thereby causing the robot to pass over the obstacle.
Soil working tool with at least one harrow roller unit , characterised in that at least one cultivator unit with a row of rotating disc-shaped elements (2; 43, 44) is arranged in front of the at least one harrow roller unit in the working direction for the purpose of surface crumbling soil working.
A method for wireless communications by a user equipment, UE, comprising: receiving , from a base station, BS, a timing advance, TA, command; rounding the TA command to a TA granularity for a timing advance group, TAG; wherein the TA granularity of the TA command is associated with an indicated subcarrier spacing, SCS, and the members of the TAG associated with different numerologies comprise one or more members associated with different SCSs; and wherein rounding the TA command to a TA granularity comprises rounding the TA command based on an SCS associated with each member of the TAG; and applying a timing adjustment when transmitting an uplink transmission to the BS based, at least in part, on the TA granularity. receiving , from a base station, BS, a timing advance, TA, command; rounding the TA command to a TA granularity for a timing advance group, TAG; wherein the TA granularity of the TA command is associated with an indicated subcarrier spacing, SCS, and the members of the TAG associated with different numerologies comprise one or more members associated with different SCSs; and wherein rounding the TA command to a TA granularity comprises rounding the TA command based on an SCS associated with each member of the TAG; and applying a timing adjustment when transmitting an uplink transmission to the BS based, at least in part, on the TA granularity.