mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic cigarette, comprising a main body, a control assembly, two clearomizers , and a sliding member; wherein: the two clearomizers and the sliding member are disposed on the main body; the sliding member is slidable along a travel line on the main body to drive the control assembly to control operations of the two clearomizers ; each of the two clearomizers comprises an air hole ; the main body comprises two air inlets communicating with the two air holes , respectively; the two air inlets are disposed along the travel line; the sliding member is configured to slide to cover and/or expose the two air inlets ; characterized in that: the control assembly comprises two semiconductor switches and two magnetic members ; the two semiconductor switches are configured to control operations of the two clearomizers , respectively; the two magnetic members are disposed on the sliding member along the travel line; the sliding member is configured to slide along the travel line towards one semiconductor switch , whereby one magnetic member is disposed above the one semiconductor switch , the magnetism of the one magnetic member causes a change in the potential difference of the one semiconductor switch , and the one semiconductor switch is turned off to prevent the operation of one clearomizer . the two clearomizers and the sliding member are disposed on the main body; the sliding member is slidable along a travel line on the main body to drive the control assembly to control operations of the two clearomizers ; each of the two clearomizers comprises an air hole ; the main body comprises two air inlets communicating with the two air holes , respectively; the two air inlets are disposed along the travel line; the sliding member is configured to slide to cover and/or expose the two air inlets ; the control assembly comprises two semiconductor switches and two magnetic members ; the two semiconductor switches are configured to control operations of the two clearomizers , respectively; the two magnetic members are disposed on the sliding member along the travel line; the sliding member is configured to slide along the travel line towards one semiconductor switch , whereby one magnetic member is disposed above the one semiconductor switch , the magnetism of the one magnetic member causes a change in the potential difference of the one semiconductor switch , and the one semiconductor switch is turned off to prevent the operation of one clearomizer .
A computer implemented method comprising: selecting, by a host process executing on a first processing unit during runtime of an application running on the first processing unit, in response to a first API request, Application Programming Interface request, having one or more requirements from the application for a data processing task of the application, a second processing unit according to the requirement; loading by the host process during the runtime, in response to a second API request received from the application, one or more executables for the data processing task that are compatible with the second processing unit, wherein the loading comprises selecting the one or more executables from the one or more existing executables for the data processing task, the one or more existing executables including description data indicating a version of a target processing unit, the selected executable being associated with a latest version among the existing executables for the second processing unit based on the description data, and compiling a source to generate at least one of the one or more executables that is compatible with the second processing unit when comparing information of the second processing unit with description data of the one or more existing executables indicates that none of the one or more existing executables are compatible with the second processing unit; and selecting , by the host process in response to a third API request received from the application during the runtime, one of the one or more executables for execution in the second processing unit. selecting, by a host process executing on a first processing unit during runtime of an application running on the first processing unit, in response to a first API request, Application Programming Interface request, having one or more requirements from the application for a data processing task of the application, a second processing unit according to the requirement; loading by the host process during the runtime, in response to a second API request received from the application, one or more executables for the data processing task that are compatible with the second processing unit, wherein the loading comprises selecting the one or more executables from the one or more existing executables for the data processing task, the one or more existing executables including description data indicating a version of a target processing unit, the selected executable being associated with a latest version among the existing executables for the second processing unit based on the description data, and compiling a source to generate at least one of the one or more executables that is compatible with the second processing unit when comparing information of the second processing unit with description data of the one or more existing executables indicates that none of the one or more existing executables are compatible with the second processing unit; and selecting , by the host process in response to a third API request received from the application during the runtime, one of the one or more executables for execution in the second processing unit.
A method for detecting the presence of a portable communication device in a vehicle , the method comprising: detecting , with an electronic processor of the portable communication device , that the portable communication device is receiving wireless power from a wireless charger located in the vehicle ; establishing a short-range wireless connection between the portable communication device and a vehicle control head ; and sending a message from the portable communication device to the vehicle control head to transfer control of channel selection for the portable communication device to the vehicle control head , such that controls of the vehicle control head may be used to select a channel of the portable communication device . detecting , with an electronic processor of the portable communication device , that the portable communication device is receiving wireless power from a wireless charger located in the vehicle ; establishing a short-range wireless connection between the portable communication device and a vehicle control head ; and sending a message from the portable communication device to the vehicle control head to transfer control of channel selection for the portable communication device to the vehicle control head , such that controls of the vehicle control head may be used to select a channel of the portable communication device .
A heat-sealed liquid container comprising a heat-sealable biodegradable packaging material comprising a fibrous substrate and one or more polymer coating layers (2-5) extruded onto said substrate, characterized in that the packaging material includes, in direct contact to the fibrous substrate , at least one polymer coating layer containing at least 70 weight-% of polylactide and at least 5 weight-% of polybutylene succinate or a derivate thereof.
Oculometry device comprising: - a mount suitable for being worn by a user, the mount having an inner face directed towards the eyes of the user and an outer face opposite the inner face, - a system embedded on the mount, comprising, for at least one given eye of said user: ● a light source (30i, 30 2 ) intended to at least partially illuminate said given eye so as to generate a light reflected by said given eye, and ● an image sensor (20i, 20 2 ) intended to capture the light reflected by said given eye, said image sensor being disposed spatially off-axis with respect to a reference axis corresponding to a line of sight of said eye when the mount is worn by said user, the oculometry device being characterized in that said image sensor is disposed on the outer face of the mount and has an optical axis directed towards the outside of the mount, and in that the embedded system comprises semi-reflecting optical means disposed on the outer face of the mount and, for a given eye, configured with respect to the reference axis of said given eye, to reflect directly towards the optical axis of the image sensor the light reflected by said given eye, characterized in that the semi-reflecting optical means comprise at least one optical plate, the surface of which is large enough for its edges not to appear in the visual field of a user. - a mount suitable for being worn by a user, the mount having an inner face directed towards the eyes of the user and an outer face opposite the inner face, - a system embedded on the mount, comprising, for at least one given eye of said user: ● a light source (30i, 30 2 ) intended to at least partially illuminate said given eye so as to generate a light reflected by said given eye, and ● an image sensor (20i, 20 2 ) intended to capture the light reflected by said given eye, said image sensor being disposed spatially off-axis with respect to a reference axis corresponding to a line of sight of said eye when the mount is worn by said user, ● a light source (30i, 30 2 ) intended to at least partially illuminate said given eye so as to generate a light reflected by said given eye, and ● an image sensor (20i, 20 2 ) intended to capture the light reflected by said given eye, said image sensor being disposed spatially off-axis with respect to a reference axis corresponding to a line of sight of said eye when the mount is worn by said user, the oculometry device being characterized in that said image sensor is disposed on the outer face of the mount and has an optical axis directed towards the outside of the mount, and in that the embedded system comprises semi-reflecting optical means disposed on the outer face of the mount and, for a given eye, configured with respect to the reference axis of said given eye, to reflect directly towards the optical axis of the image sensor the light reflected by said given eye, characterized in that the semi-reflecting optical means comprise at least one optical plate, the surface of which is large enough for its edges not to appear in the visual field of a user.
Heating cartridge for a dispensing assembly, the heating cartridge comprising: a heating chamber , and a heating element extended internally to said heating chamber and equipped with connecting elements for the connection to an electrical power source; characterized in that the heating cartridge comprises: a first conduit having a first opening for a water inflow and at least one second opening for a water outflow, wherein said first conduit is in fluid communication with said heating chamber ; and a second conduit extended internally to said heating chamber and having a first opening for a water inflow and a second opening for a water outflow, wherein said second conduit is in fluid communication with said heating chamber through said first opening . a heating chamber , and a heating element extended internally to said heating chamber and equipped with connecting elements for the connection to an electrical power source; characterized in that the heating cartridge comprises: a first conduit having a first opening for a water inflow and at least one second opening for a water outflow, wherein said first conduit is in fluid communication with said heating chamber ; and a second conduit extended internally to said heating chamber and having a first opening for a water inflow and a second opening for a water outflow, wherein said second conduit is in fluid communication with said heating chamber through said first opening . a first conduit having a first opening for a water inflow and at least one second opening for a water outflow, wherein said first conduit is in fluid communication with said heating chamber ; and a second conduit extended internally to said heating chamber and having a first opening for a water inflow and a second opening for a water outflow, wherein said second conduit is in fluid communication with said heating chamber through said first opening .
Piston-type fuel pump for an internal combustion engine, having a pump housing , having a piston and having a non-return outlet valve with a valve element and with a guide element for guiding the movement of the valve element , wherein the guide element is at least indirectly pressed radially into an opening of the pump housing , characterized in that the valve element is of pot-shaped form, having a pot base , which is arranged upstream and which comes to bear against a valve seat of the non-return outlet valve when the non-return outlet valve is closed, and having a guide wall , which is arranged downstream.
A method for operating at least one data processing unit according to at least one program for producing individual shelving unit images for a plurality of different sales outlets of a commercial enterprise, wherein • the program accesses range data that define an individual range of different articles with associated attributes for each sales outlet, • the program offers a user the opportunity to interactively define different blocks by means of input and output devices, said blocks each comprising articles with an attribute that is specific to the relevant block, • after the definition of the blocks is completed by the user, the program accesses the blocks in a data memory, • the program accesses shelving unit data with the individual data of at least one shelving unit of each sales outlet in a data memory, • the program offers the user the opportunity to interactively produce a sequential series of positioning rules that relate to the positioning of different blocks in shelving units and specify the rules according to which the different blocks are to be positioned in the shelving units, • after the input is completed, the program accesses the sequential series of positioning rules in a data memory, and • for each sales outlet, the program successively applies the stored positioning rules according to the order thereof to the stored blocks with the articles from the range of the sales outlet and, taking the shelving unit data into account, determines the placing positions of the different articles in the shelving unit of the sales outlet, and • the program displays the placing positions of the different articles in a shelving unit image. • the program accesses range data that define an individual range of different articles with associated attributes for each sales outlet, • the program offers a user the opportunity to interactively define different blocks by means of input and output devices, said blocks each comprising articles with an attribute that is specific to the relevant block, • after the definition of the blocks is completed by the user, the program accesses the blocks in a data memory, • the program accesses shelving unit data with the individual data of at least one shelving unit of each sales outlet in a data memory, • the program offers the user the opportunity to interactively produce a sequential series of positioning rules that relate to the positioning of different blocks in shelving units and specify the rules according to which the different blocks are to be positioned in the shelving units, • after the input is completed, the program accesses the sequential series of positioning rules in a data memory, and • for each sales outlet, the program successively applies the stored positioning rules according to the order thereof to the stored blocks with the articles from the range of the sales outlet and, taking the shelving unit data into account, determines the placing positions of the different articles in the shelving unit of the sales outlet, and • the program displays the placing positions of the different articles in a shelving unit image.
An add-on cap for electroporation of tissue comprising: - at least one closed sidewall , such as a cylindrical sidewall; a proximal open end ; a distal open end ; the at least one closed sidewall and the proximal and distal open ends defining a hollow body having an internal volume; - two electrodes on opposite sides of the internal volume, the electrodes configured to apply an electric field for electroporation of tissue inside the internal volume, characterised in that the proximal open end is adapted to be sealingly engaged to a tip of an instrument, such as an endoscope and in that the at least one closed sidewall and the open ends form a combined receiver for the instrument and internal volume for electroporation of tissue. - at least one closed sidewall , such as a cylindrical sidewall; a proximal open end ; a distal open end ; the at least one closed sidewall and the proximal and distal open ends defining a hollow body having an internal volume; - two electrodes on opposite sides of the internal volume, the electrodes configured to apply an electric field for electroporation of tissue inside the internal volume,
An endoscope having an operating handle , the operating handle comprising a handle housing adapted to accommodate a number of movable parts, said movable parts being movable with respect to said handle housing, said housing comprising at least two shell parts forming the outer housing walls, characterized in that the operating handle comprises a chassis having engagement means adapted to interlock with said at least two shell parts forming the outer housing walls.
A real-time compensation system of a projectile comprising: at least one flight controller configured to rotate the projectile about an axis from a first orientation to a second orientation through an angle ; at least one imager device configured to capture a first image at the first orientation and a second image at the second orientation; at least one gyroscope configured to sense a first angular rate of the projectile as the projectile rotates between the first orientation and the second orientation; and at least one processor configured to detect a feature in the first image , determine a first rotation angle based upon relative positions of the feature in the first and second images , determine a second rotation angle based upon the angular rate sensed by the at least one gyroscope , and determine a gyroscope compensation parameter based upon the first and second rotation angle. at least one flight controller configured to rotate the projectile about an axis from a first orientation to a second orientation through an angle ; at least one imager device configured to capture a first image at the first orientation and a second image at the second orientation; at least one gyroscope configured to sense a first angular rate of the projectile as the projectile rotates between the first orientation and the second orientation; and at least one processor configured to detect a feature in the first image , determine a first rotation angle based upon relative positions of the feature in the first and second images , determine a second rotation angle based upon the angular rate sensed by the at least one gyroscope , and determine a gyroscope compensation parameter based upon the first and second rotation angle.
A respiratory monitoring system comprising: a respiratory sensor configured to be positioned within an airflow path of a patient , the respiratory sensor having an electrical characteristic that varies based on a property of interest of the airflow path, the respiratory sensor comprising a communication circuit communicatively coupled to the transmission circuit using a communication channel within a body of the patient , the communication circuit and the transmission circuit being in contact with the body; and a transmission circuit configured to be communicatively coupled to the respiratory sensor , wherein the transmission circuit is configured to transmit a wireless or on body excitation signal to the respiratory sensor , the respiratory sensor is configured to generate a response based on the excitation signal and the electrical characteristic. a respiratory sensor configured to be positioned within an airflow path of a patient , the respiratory sensor having an electrical characteristic that varies based on a property of interest of the airflow path, the respiratory sensor comprising a communication circuit communicatively coupled to the transmission circuit using a communication channel within a body of the patient , the communication circuit and the transmission circuit being in contact with the body; and a transmission circuit configured to be communicatively coupled to the respiratory sensor , wherein the transmission circuit is configured to transmit a wireless or on body excitation signal to the respiratory sensor , the respiratory sensor is configured to generate a response based on the excitation signal and the electrical characteristic.
Method for vibration damping of a drive train arrangement with at least one active vibration damper arrangement and at least one vibration recording arrangement , comprising the following steps: a. provision of measurement signals by the at least one vibration recording arrangement to a processing unit; characterized in that the method further comprises the following steps: b. converting the measurement signals into virtual degrees of freedom, wherein the virtual degrees of freedom are in a virtual environment represented vibrations of the drive train arrangement and represent vibration components of the drive train which are decisive for at least one tonality; c. determining at least one control signal based on the virtual degrees of freedom; d. outputting the at least one control signal to the at least one vibration damper arrangement ; e. damping of the drive train arrangement by the vibration damper arrangement based on the at least one control signal. a. provision of measurement signals by the at least one vibration recording arrangement to a processing unit; characterized in that the method further comprises the following steps: b. converting the measurement signals into virtual degrees of freedom, wherein the virtual degrees of freedom are in a virtual environment represented vibrations of the drive train arrangement and represent vibration components of the drive train which are decisive for at least one tonality; c. determining at least one control signal based on the virtual degrees of freedom; d. outputting the at least one control signal to the at least one vibration damper arrangement ; e. damping of the drive train arrangement by the vibration damper arrangement based on the at least one control signal. b. converting the measurement signals into virtual degrees of freedom, wherein the virtual degrees of freedom are in a virtual environment represented vibrations of the drive train arrangement and represent vibration components of the drive train which are decisive for at least one tonality; c. determining at least one control signal based on the virtual degrees of freedom; d. outputting the at least one control signal to the at least one vibration damper arrangement ; e. damping of the drive train arrangement by the vibration damper arrangement based on the at least one control signal.