mhurhangee/patent-ind-claim-en huggingface dataset:
A cultured dairy analog food product, comprising: particles of a filamentous fungus belonging to an order selected from the group consisting of Mucorales, Ustilaginales, Russulales, Polyporales, Agaricales, Pezizales, and Hypocreales, wherein the particles of the filamentous fungus comprise greater than about 40 dry wt. % protein content and less than about 8 dry wt. % RNA content; and a microbial food culture; wherein the particles of the filamentous fungus are derived from a filamentous fungal biomat produced by a surface fermentation process. particles of a filamentous fungus belonging to an order selected from the group consisting of Mucorales, Ustilaginales, Russulales, Polyporales, Agaricales, Pezizales, and Hypocreales, wherein the particles of the filamentous fungus comprise greater than about 40 dry wt. % protein content and less than about 8 dry wt. % RNA content; and a microbial food culture; wherein the particles of the filamentous fungus are derived from a filamentous fungal biomat produced by a surface fermentation process.
An electronic panel for digital signs comprising: a backlight assembly comprising a plurality of light sources and of electronic devices for driving them; a display assembly comprising a plurality of layers configured to display images; a containment structure in which is contained said backlight assembly and comprising a front opening for housing said display assembly ; said display assembly being movable between an operating condition wherein it faces said backlight assembly and closes said front opening of the containment structure , and a non-operating condition wherein it is moved away from said backlight assembly and it opens said front opening of the containment structure , characterized in that said backlight assembly being mounted on a first heatsink on a front surface thereof facing towards said front opening of said containment structure and said plurality of light sources and of electronic devices for driving them being mounted on said front surface of the first heatsink . a backlight assembly comprising a plurality of light sources and of electronic devices for driving them; a display assembly comprising a plurality of layers configured to display images; a containment structure in which is contained said backlight assembly and comprising a front opening for housing said display assembly ; said display assembly being movable between an operating condition wherein it faces said backlight assembly and closes said front opening of the containment structure , and a non-operating condition wherein it is moved away from said backlight assembly and it opens said front opening of the containment structure , characterized in that said backlight assembly being mounted on a first heatsink on a front surface thereof facing towards said front opening of said containment structure and said plurality of light sources and of electronic devices for driving them being mounted on said front surface of the first heatsink .
Linear drive , having a rotatably driven threaded spindle , a non-rotatably guided spindle nut which can be moved in a longitudinal direction by the threaded spindle , and at least one support element (10-14; 10'-14') for supporting the threaded spindle against a movement perpendicular to the longitudinal direction, wherein the at least one support element (10-14; 10'-14') has a bushing for the threaded spindle , wherein at least one guide element which is pretensioned against the threaded spindle is provided on the bushing and is of essentially sleeve-shaped design, characterized in that the at least one support element (10-14; 10'-14') has a clamping mechanism by means of which the support element (10-14; 10'-14') can be fixed in a force-locking manner.
An endoscope , comprising: a lens unit containing a lens tube and a lens (L3) in the lens tube ; an image capturing element including an image capturing surface , an element cover glass covering the image capturing element surface of the image capturing element ; and wherein the lens unit is fixed to the element cover glass with a separation portion by an adhesive resin which is a light transmitting material, an optical axis (LC) of the lens being coincident with the center of the image capturing surface , wherein the separation portion is filled by the adhesive resin or includes an air layer , characterized in that an outer circumference of the lens (L3) and an outer circumference of the lens tube are simultaneously fixed by the adhesive resin . a lens unit containing a lens tube and a lens (L3) in the lens tube ; an image capturing element including an image capturing surface , an element cover glass covering the image capturing element surface of the image capturing element ; and wherein the lens unit is fixed to the element cover glass with a separation portion by an adhesive resin which is a light transmitting material, an optical axis (LC) of the lens being coincident with the center of the image capturing surface , wherein the separation portion is filled by the adhesive resin or includes an air layer , characterized in that an outer circumference of the lens (L3) and an outer circumference of the lens tube are simultaneously fixed by the adhesive resin .
A rotary furnace, comprising a drum , wherein an end face of each of a feeding end and a discharging end of the drum is a closed end face, and the feeding end is higher than the discharging end, and the rotary furnace further comprises: a feeding device rotatably and sealingly in communication with a feeding inlet at the feeding end of the drum , wherein a cross-sectional area of the feeding inlet is smaller than the cross-sectional area of the feeding end, and an axis of the feeding inlet coincides with a rotational axis of the rotary furnace; a discharging device communicatedly arranged at the discharging end of the drum , wherein a drum material outlet is at a position rotatably and sealingly fitting with the discharging device , a cross-sectional area of the drum material outlet is smaller than a cross-sectional area of the discharging end, and an axis of the drum material outlet coincides with the rotational axis of the rotary furnace; a drive device arranged outside the drum , and configured to drive the drum to oscillate reciprocatingly around the rotational axis of the rotary furnace; a support device arranged outside the drum , and configured to rotatably support the drum to oscillate reciprocatingly around the rotational axis of the rotary furnace; and an oscillation control device connected to the drive device through wires, and configured to control the drive device to act, to control a radian and frequency of the reciprocating oscillation of the drum . a feeding device rotatably and sealingly in communication with a feeding inlet at the feeding end of the drum , wherein a cross-sectional area of the feeding inlet is smaller than the cross-sectional area of the feeding end, and an axis of the feeding inlet coincides with a rotational axis of the rotary furnace; a discharging device communicatedly arranged at the discharging end of the drum , wherein a drum material outlet is at a position rotatably and sealingly fitting with the discharging device , a cross-sectional area of the drum material outlet is smaller than a cross-sectional area of the discharging end, and an axis of the drum material outlet coincides with the rotational axis of the rotary furnace; a drive device arranged outside the drum , and configured to drive the drum to oscillate reciprocatingly around the rotational axis of the rotary furnace; a support device arranged outside the drum , and configured to rotatably support the drum to oscillate reciprocatingly around the rotational axis of the rotary furnace; and an oscillation control device connected to the drive device through wires, and configured to control the drive device to act, to control a radian and frequency of the reciprocating oscillation of the drum .
A method for controlling indoor climate in a portion of a building , the method comprising: identifying (S402), based on a wireless communication based positioning function, electronic devices present in the portion of the building ; characterised in that for each identified electronic device, determining whether the identified electronic device is associated with a user; determining (S406) an estimated total amount of heat dissipation present in the portion of the building based on an amount of heat dissipation associated with the respective user to which the respective identified electronic device is associated; and controlling (S408) indoor climate in the portion of the building based on the estimated total amount of heat dissipation present in the portion of the building . identifying (S402), based on a wireless communication based positioning function, electronic devices present in the portion of the building ; characterised in that for each identified electronic device, determining whether the identified electronic device is associated with a user; determining (S406) an estimated total amount of heat dissipation present in the portion of the building based on an amount of heat dissipation associated with the respective user to which the respective identified electronic device is associated; and controlling (S408) indoor climate in the portion of the building based on the estimated total amount of heat dissipation present in the portion of the building .
A method for authenticating a person through a third-party device , the person being equipped with a terminal provided with a dedicated application configured to generate a secured container from personal data of the person, the method comprising at least the following steps of: - the person transmitting personal data to a third-party device ; - the third-party device transmitting a data verification request RV to a server containing a set of links associating an identity document with an instance of the application of the terminal associated with the person holding the identity document; - the server using at least one item of the data of the identity document contained in the request Rv to find the link associated with the secured container containing the data of the person holding the document; - the server then transmitting an authorisation request Ra to the dedicated application of the terminal so that the person authenticates themselves and grants the authorisation to access at least a portion of the data of the secured container; - upon authorisation of the person , the dedicated application of the terminal opening the container and transmitting the data to the server, ; - the server then transmitting the portion of the data accessible to the third-party device, without storing said data; - the third-party device, following the authentication of the person, authorising them to use a service, ; - sending a rejection message when authorisation is not granted, . - the person transmitting personal data to a third-party device ; - the third-party device transmitting a data verification request RV to a server containing a set of links associating an identity document with an instance of the application of the terminal associated with the person holding the identity document; - the server using at least one item of the data of the identity document contained in the request Rv to find the link associated with the secured container containing the data of the person holding the document; - the server then transmitting an authorisation request Ra to the dedicated application of the terminal so that the person authenticates themselves and grants the authorisation to access at least a portion of the data of the secured container; - upon authorisation of the person , the dedicated application of the terminal opening the container and transmitting the data to the server, ; - the server then transmitting the portion of the data accessible to the third-party device, without storing said data; - the third-party device, following the authentication of the person, authorising them to use a service, ; - sending a rejection message when authorisation is not granted, .
A check valve comprising: a valve housing defining a valve opening ; and a flapper element having a proximal end , the flapper element being pivotally mounted to the valve housing adjacent the periphery of the valve opening at its proximal end for pivotal movement between a closed position, in which it blocks the flow of fluid through the valve opening and a fully open position in which it permits the flow of fluid through the valve opening ; at least one spring damping element located between the flapper element and the valve housing for providing a damping force resisting the pivotal movement of the flapper element towards its open position, the at least one spring damping element being operable to produce a damping force only over a final range of the pivotal movement of the flapper element as it approaches its fully open position, characterised in that the proximal end of the flapper element and the valve housing comprise surfaces (28, 60; 32, 70) arranged opposed to one another in the fully open position of the flapper element , the at least one spring damping element projecting from one or other of the opposed surfaces (28, 60; 32, 70) when the flapper element is in its closed position, the spring damping element engaging an associated opposed surface (28, 60; 32, 70) as the flapper element moves towards its open position. a valve housing defining a valve opening ; and a flapper element having a proximal end , the flapper element being pivotally mounted to the valve housing adjacent the periphery of the valve opening at its proximal end for pivotal movement between a closed position, in which it blocks the flow of fluid through the valve opening and a fully open position in which it permits the flow of fluid through the valve opening ; at least one spring damping element located between the flapper element and the valve housing for providing a damping force resisting the pivotal movement of the flapper element towards its open position, the at least one spring damping element being operable to produce a damping force only over a final range of the pivotal movement of the flapper element as it approaches its fully open position, characterised in that the proximal end of the flapper element and the valve housing comprise surfaces (28, 60; 32, 70) arranged opposed to one another in the fully open position of the flapper element , the at least one spring damping element projecting from one or other of the opposed surfaces (28, 60; 32, 70) when the flapper element is in its closed position, the spring damping element engaging an associated opposed surface (28, 60; 32, 70) as the flapper element moves towards its open position.
A method in a device comprising a controller , a first light source , and a second light source , the method comprising: using a first microelectromechanical system (MEMS) mirror , directing a first signal from the first light source to an alignment tracking waveguide ; receiving by a first photosensor a first portion of the first signal via the alignment tracking waveguide and using the controller determining a first alignment indicator associated with the first portion of the first signal; using a second MEMS mirror , directing a second signal from the second light source to the alignment tracking waveguide ; and receiving by a second photosensor a second portion of the second signal via the alignment tracking waveguide and using the controller determining a second alignment indicator associated with the second portion of the second signal. using a first microelectromechanical system (MEMS) mirror , directing a first signal from the first light source to an alignment tracking waveguide ; receiving by a first photosensor a first portion of the first signal via the alignment tracking waveguide and using the controller determining a first alignment indicator associated with the first portion of the first signal; using a second MEMS mirror , directing a second signal from the second light source to the alignment tracking waveguide ; and receiving by a second photosensor a second portion of the second signal via the alignment tracking waveguide and using the controller determining a second alignment indicator associated with the second portion of the second signal.
A system, comprising: an extraction cleaner , comprising: a housing ; a fluid delivery system comprising a supply container ; a recovery system comprising a suction source and a recovery container , the suction source in fluid communication with the recovery container for drawing fluid to the recovery container ; a wand (62, 106, 144, 244, 2$8) selectively couplable with the fluid delivery system and the recovery system , the wand comprising: a fluid delivery pathway adapted for fluid communication with the supply container and having a fluid connector ; and an airflow pathway adapted for fluid communication with the recovery container and having an airflow connector ; and a wand receiver provided with the housing and adapted to receive a first end of the wand , and wherein the wand receiver is configured such that an enclosed pathway is formed between the fluid connector and the airflow connector of the wand when the first end of the wand is received by the wand receiver . an extraction cleaner , comprising: a housing ; a fluid delivery system comprising a supply container ; a recovery system comprising a suction source and a recovery container , the suction source in fluid communication with the recovery container for drawing fluid to the recovery container ; a housing ; a fluid delivery system comprising a supply container ; a recovery system comprising a suction source and a recovery container , the suction source in fluid communication with the recovery container for drawing fluid to the recovery container ; a wand (62, 106, 144, 244, 2$8) selectively couplable with the fluid delivery system and the recovery system , the wand comprising: a fluid delivery pathway adapted for fluid communication with the supply container and having a fluid connector ; and an airflow pathway adapted for fluid communication with the recovery container and having an airflow connector ; and a wand receiver provided with the housing and adapted to receive a first end of the wand , and wherein the wand receiver is configured such that an enclosed pathway is formed between the fluid connector and the airflow connector of the wand when the first end of the wand is received by the wand receiver . a fluid delivery pathway adapted for fluid communication with the supply container and having a fluid connector ; and an airflow pathway adapted for fluid communication with the recovery container and having an airflow connector ; and a wand receiver provided with the housing and adapted to receive a first end of the wand , and wherein the wand receiver is configured such that an enclosed pathway is formed between the fluid connector and the airflow connector of the wand when the first end of the wand is received by the wand receiver .
A flexible display device comprising: a display unit ; a sensing unit configured to detect at least one rolling characteristic in response to the display unit being rolled around one axis into a cylindrical shape, the at least one rolling characteristic comprising the rolling diameter of said cylindrical shape; and a control unit configured to perform a first function of the flexible display device in response to the display unit being wholly rolled into said cylindrical shape with a detected rolling diameter smaller than a first threshold value and to perform a second function of the flexible display device in response to the display unit being wholly rolled into the cylindrical shape with a detected rolling diameter smaller than a second threshold value, wherein the second threshold value is smaller than the first threshold value and the second function is different from the first function, wherein the control unit is configured to control the display unit to display a first user interface UI when performing the first function and to display a second user interface UI when performing the second function, and wherein the first UI is displayed on an exposed area among a rolled area of the display unit , and the second UI is displayed on an exposed area among a rolled area of the display unit , and wherein the first UI and the second UI have different sizes depending on the detected rolling diameter. a display unit ; a sensing unit configured to detect at least one rolling characteristic in response to the display unit being rolled around one axis into a cylindrical shape, the at least one rolling characteristic comprising the rolling diameter of said cylindrical shape; and a control unit configured to perform a first function of the flexible display device in response to the display unit being wholly rolled into said cylindrical shape with a detected rolling diameter smaller than a first threshold value and to perform a second function of the flexible display device in response to the display unit being wholly rolled into the cylindrical shape with a detected rolling diameter smaller than a second threshold value, wherein the second threshold value is smaller than the first threshold value and the second function is different from the first function, wherein the control unit is configured to control the display unit to display a first user interface UI when performing the first function and to display a second user interface UI when performing the second function, and wherein the first UI is displayed on an exposed area among a rolled area of the display unit , and the second UI is displayed on an exposed area among a rolled area of the display unit , and wherein the first UI and the second UI have different sizes depending on the detected rolling diameter.
A method, comprising: acquiring, by an X-ray detector comprising a plurality of bins, imaging data corresponding to a plurality of divergent X-rays passing through an object; assigning a single functional form to the plurality of divergent X-rays; determining, via a homographic transform, weights of interaction between a plurality of distribution samples and said plurality of X-ray detector bins based on the single functional form; reconstructing an image based on the weights of interaction and said imaging data; wherein the single functional form is resampled to obtain a desired level of precisior and wherein resampling the single functional form comprises expanding the single functional form with a set of one-dimensional basis functions. acquiring, by an X-ray detector comprising a plurality of bins, imaging data corresponding to a plurality of divergent X-rays passing through an object; assigning a single functional form to the plurality of divergent X-rays; determining, via a homographic transform, weights of interaction between a plurality of distribution samples and said plurality of X-ray detector bins based on the single functional form; reconstructing an image based on the weights of interaction and said imaging data; wherein the single functional form is resampled to obtain a desired level of precisior and wherein resampling the single functional form comprises expanding the single functional form with a set of one-dimensional basis functions.