mhurhangee/patent-ind-claim-en huggingface dataset:
A method at a computing device , the method comprising: detecting a trigger that an authentication process is pending for an application or service , wherein the trigger includes placing input focus into a password entry area of a user interface for the application or service , the user interface being displayed on a display of the computing device , and the password entry area being configured to receive a password for authenticating a user to the application or service ; indicating a locked or unlocked state of a credential vault via the user interface for the application or service ; when the credential vault is in a locked state, activating an authentication mechanism for the credential vault without changing focus on the user interface for the application or service , wherein activating the authentication mechanism without changing focus on the user interface for the application or service comprises directly activating a biometric sensor or a wireless tag proximity sensor for receiving a user input; sending , to the credential vault , an input received by the biometric sensor or wireless tag proximity sensor ; receiving , from the credential vault , a message indicating whether a verification of the received input has succeeded or failed; and changing the locked state of the credential vault indicated via the user interface for the application or service from locked to unlocked, if the message indicates that the verification of the received input has succeeded. detecting a trigger that an authentication process is pending for an application or service , wherein the trigger includes placing input focus into a password entry area of a user interface for the application or service , the user interface being displayed on a display of the computing device , and the password entry area being configured to receive a password for authenticating a user to the application or service ; indicating a locked or unlocked state of a credential vault via the user interface for the application or service ; when the credential vault is in a locked state, activating an authentication mechanism for the credential vault without changing focus on the user interface for the application or service , wherein activating the authentication mechanism without changing focus on the user interface for the application or service comprises directly activating a biometric sensor or a wireless tag proximity sensor for receiving a user input; sending , to the credential vault , an input received by the biometric sensor or wireless tag proximity sensor ; receiving , from the credential vault , a message indicating whether a verification of the received input has succeeded or failed; and changing the locked state of the credential vault indicated via the user interface for the application or service from locked to unlocked, if the message indicates that the verification of the received input has succeeded.
UV-treatment unit for reducing the amount of active or living micro-organisms in a liquid food product, the unit comprising: - a liquid inlet and a liquid outlet ; - at least one set of translucent liquid tubes , each tube comprising an inlet end and an outlet end , the tubes being fluidly connected to the inlet and the outlet of the unit and defining a flow channel for the liquid, wherein each tube has a shape providing at least two turns (T1, T2) for the flow direction (FD) between the inlet end and the outlet end of the tube, - one or more UV-light sources , which are configured to emit light in a wavelength range between 180-300 nm towards at least one side of the set of liquid tubes. - optionally an optical filter placed between the UV-light sources and the set of liquid tubes, the filter configured to prevent wavelengths of more than 300 nm to pass through the filter. - a liquid inlet and a liquid outlet ; - at least one set of translucent liquid tubes , each tube comprising an inlet end and an outlet end , the tubes being fluidly connected to the inlet and the outlet of the unit and defining a flow channel for the liquid, wherein each tube has a shape providing at least two turns (T1, T2) for the flow direction (FD) between the inlet end and the outlet end of the tube, - one or more UV-light sources , which are configured to emit light in a wavelength range between 180-300 nm towards at least one side of the set of liquid tubes. - optionally an optical filter placed between the UV-light sources and the set of liquid tubes, the filter configured to prevent wavelengths of more than 300 nm to pass through the filter.
A trolling apparatus comprising: a. a main body , a diverter , an elevator , a line retainer integral with the main body and at least one fishing line guide integral with the main body wherein: b. the diverter is interconnected with the elevator ; c. the elevator is interconnected with the main body ; the elevator is planar; the elevator is outwardly extending from the diverter and is outwardly extending from the main body ; d. the diverter is planar, is comprised of at least one panel and is angularly positioned relative to the main body ; e. the main body angular relation to the diverter , proximal a downward most portion of the main body is formed by either affixing the elevator to the main body at an angle comprised of a main body-elevator angle or affixing the elevator to the diverter at an angle by a diverter-elevator angle , wherein the main body-elevator angle is an angle in a range of 90 degrees minus 0 to 9.5 degrees between a plane centrally positioned through the main body from a main body front to a main body rear and a plane formed by the elevator , and wherein the diverter-elevator angle is in a range of 90 degrees minus 0 to 9.5 degrees, and f. the diverter is comprised of an upper panel , a middle panel and a lower panel ; the upper panel is integral with the middle panel and is upwardly extending from the middle panel ; the lower panel is integral with the middle panel and is downwardly extending from the middle panel ; the trolling apparatus being characterised in that the upper panel is angled outwardly from the middle panel and from the main body ; and the lower panel is angled outwardly from the middle panel and from the main body . a. a main body , a diverter , an elevator , a line retainer integral with the main body and at least one fishing line guide integral with the main body wherein: b. the diverter is interconnected with the elevator ; c. the elevator is interconnected with the main body ; the elevator is planar; the elevator is outwardly extending from the diverter and is outwardly extending from the main body ; d. the diverter is planar, is comprised of at least one panel and is angularly positioned relative to the main body ; e. the main body angular relation to the diverter , proximal a downward most portion of the main body is formed by either affixing the elevator to the main body at an angle comprised of a main body-elevator angle or affixing the elevator to the diverter at an angle by a diverter-elevator angle , wherein the main body-elevator angle is an angle in a range of 90 degrees minus 0 to 9.5 degrees between a plane centrally positioned through the main body from a main body front to a main body rear and a plane formed by the elevator , and wherein the diverter-elevator angle is in a range of 90 degrees minus 0 to 9.5 degrees, and f. the diverter is comprised of an upper panel , a middle panel and a lower panel ; the upper panel is integral with the middle panel and is upwardly extending from the middle panel ; the lower panel is integral with the middle panel and is downwardly extending from the middle panel ;
A calorimeter for measuring a heat flux of a sample comprising a container , a first heat sink and a second heat sink whereby the sample is arranged in the container , whereby the first heat sink and the second heat sink are arranged at a distance from each other on the container , wherein the first heat sink comprises a first heat transducer element and the second heat sink comprises a second heat transducer element , wherein each of the first and second heat transducer elements comprise a heat receiving surface and a heat absorbing surface configured to generate an electromotive force equivalent to the heat flux to or from the respective heat sink to be sent to a detecting unit for obtaining an electrical potential representing the heat flux leaving or traversing the container , wherein the electromotive forces generated by the first and second heat transducer element are configured to be transformed into an output voltage in the detecting unit , characterized in that : the detecting unit comprises a first resistor R1 and a second resistor R2, wherein the ratio of resistances of resistors R1/R2 is used to adjust the output voltage if the temperature of the first heat sink and the second heat sink and the container is the same.
Portable terminal, of the type comprising a display screen (E), a speaker, a camera (CA), a microphone and an envelope, the envelope constituting a security envelope coupled with the screen so as to capture an optical signal emitted by it and to convey said optical signal, and coupled with the camera so as to return said optical signal at the level of the camera, respectively, so as to be able to detect a break-in of this envelope by alteration of the optical signal returned, the envelope constituting a case of the terminal and comprising within it a first internal reflection interface with regard to a particular zone of the display screen (E) and a second internal reflection interface (I2) with regard to a particular area of the camera (CA), and said optical signal emitted by the display screen (E) being able to propagate, after internal reflection at said first interface of internal reflection, in the case up to the second internal reflection interface and thus to the camera.
A wireless communication device, comprising: a receiver configured to receive, from each of a plurality of terminals, respective terminal capability information showing a number of channel sets capable of being allocated to the respective terminal in a predetermined frequency band including a plurality of channels, wherein each of the channel sets is one or more consecutive channels in frequency in the predetermined frequency band including the plurality of channels, wherein each of the terminals is configured to independently transmit and receive signals among channel sets whose number is shown in its terminal capability information, and wherein each of terminals is configured to independently determine a carrier sense state being busy or idle on each of the channel sets; and control circuitry to assign channels selected from the plurality of channels to the terminals for multi-user communication with the terminals according to the terminal capability information and information indicating the plurality of channels; and a transmitter configured to transmit information of the assignment of channels to the terminals wherein one or more of the channel sets of each of the terminals are allocated in the predetermined frequency band. a receiver configured to receive, from each of a plurality of terminals, respective terminal capability information showing a number of channel sets capable of being allocated to the respective terminal in a predetermined frequency band including a plurality of channels, wherein each of the channel sets is one or more consecutive channels in frequency in the predetermined frequency band including the plurality of channels, wherein each of the terminals is configured to independently transmit and receive signals among channel sets whose number is shown in its terminal capability information, and wherein each of terminals is configured to independently determine a carrier sense state being busy or idle on each of the channel sets; and control circuitry to assign channels selected from the plurality of channels to the terminals for multi-user communication with the terminals according to the terminal capability information and information indicating the plurality of channels; and a transmitter configured to transmit information of the assignment of channels to the terminals wherein one or more of the channel sets of each of the terminals are allocated in the predetermined frequency band.
Needle machine for needle-bonding a non-woven web, having: - a needle beam assembly which comprises at least one needle beam ; - a first main shaft which is connected to the needle beam assembly by means of a first main con rod that is eccentrically mounted on the first main shaft ; - a second main shaft which is connected to the needle beam assembly by means of a second main con rod that is eccentrically mounted on the second main shaft ; - a gearbox assembly which comprises an input shaft and two output shafts , wherein the first main shaft and the second main shaft form the two output shafts ; and - a drive which drives the input shaft in a rotating manner; - an adjustment installation which comprises a gear stage of the gearbox assembly and is specified for adjusting an angular position of the first main shaft and of the second main shaft relative to one another; - wherein the gearbox assembly comprises a helical spur gear stage having a first spur gear and a second spur gear meshing with the first spur gear , wherein the first spur gear is mounted so as to be displaceable in the axial direction; and - wherein the adjustment installation comprises the helical spur gear stage and adjustment means which are specified for displacing the first spur gear in a linear manner; characterized in that the first spur gear is mounted in a rotationally fixed manner on the first main shaft , and the second spur gear is mounted in a rotationally fixed manner on the second main shaft . - a needle beam assembly which comprises at least one needle beam ; - a first main shaft which is connected to the needle beam assembly by means of a first main con rod that is eccentrically mounted on the first main shaft ; - a second main shaft which is connected to the needle beam assembly by means of a second main con rod that is eccentrically mounted on the second main shaft ; - a gearbox assembly which comprises an input shaft and two output shafts , wherein the first main shaft and the second main shaft form the two output shafts ; and - a drive which drives the input shaft in a rotating manner; - an adjustment installation which comprises a gear stage of the gearbox assembly and is specified for adjusting an angular position of the first main shaft and of the second main shaft relative to one another; - wherein the gearbox assembly comprises a helical spur gear stage having a first spur gear and a second spur gear meshing with the first spur gear , wherein the first spur gear is mounted so as to be displaceable in the axial direction; and - wherein the adjustment installation comprises the helical spur gear stage and adjustment means which are specified for displacing the first spur gear in a linear manner;
Waveguide structure for optical coupling, comprising: a first waveguide embedded in a first cladding , at least two second waveguides distanced vertically from the first waveguide and embedded in a second cladding provided on the first cladding , wherein the first and second waveguides each comprise an at least partly tapered end section in a coupling region of the waveguide structure , the end section of the first waveguide being tapered oppositely to the end sections of the second waveguides , wherein the first waveguide is arranged laterally, preferably centered, between the at least two second waveguides in the coupling region ; and wherein the end sections of the second waveguides are not tapered in a transfer section of the coupling region , the end section of the first waveguide is tapered in the transfer section , characterized in that : a lateral distance between the first waveguide and each of the second waveguides is at least 1.5 μm, in particular 1.58 μm; wherein in the transfer section , each of the second waveguides has a width of 0.2 μm or smaller. a first waveguide embedded in a first cladding , at least two second waveguides distanced vertically from the first waveguide and embedded in a second cladding provided on the first cladding , wherein the first and second waveguides each comprise an at least partly tapered end section in a coupling region of the waveguide structure , the end section of the first waveguide being tapered oppositely to the end sections of the second waveguides , wherein the first waveguide is arranged laterally, preferably centered, between the at least two second waveguides in the coupling region ; and wherein the end sections of the second waveguides are not tapered in a transfer section of the coupling region , a lateral distance between the first waveguide and each of the second waveguides is at least 1.5 μm, in particular 1.58 μm; wherein in the transfer section , each of the second waveguides has a width of 0.2 μm or smaller.
The method for preparing graphene from coal as raw material comprises the following steps: refining step: refining the coal block or coal particle to get fine powdered coal; activation step: immersing the powdered coal obtained by the refining step with activation agent solution with stirring for 10∼36 h at the room temperature and drying water to get the molten mixture of the powered coal and the activation agent solution; carbonization step: carbonizing the molten mixture obtained in the activation step in an inert gas or a mixture of hydrogen and inert atmosphere and nature cooling to obtain the carbonized product; washing and drying step: successively acid washing, water-washing and drying the carbonized product to obtain the porous graphene. refining step: refining the coal block or coal particle to get fine powdered coal; activation step: immersing the powdered coal obtained by the refining step with activation agent solution with stirring for 10∼36 h at the room temperature and drying water to get the molten mixture of the powered coal and the activation agent solution; carbonization step: carbonizing the molten mixture obtained in the activation step in an inert gas or a mixture of hydrogen and inert atmosphere and nature cooling to obtain the carbonized product; washing and drying step: successively acid washing, water-washing and drying the carbonized product to obtain the porous graphene.
A coating composition that is safe for food contact formed by the steps comprising: providing a resin component containing primarily bisphenol F based resin, said resin component maintained at 76.7 °C (170 degrees Fahrenheit) to 104.4 °C (220 degrees Fahrenheit), providing a hardener component containing primarily cycloaliphatic amine, said hardener component maintained at 76.7 °C (170 degrees Fahrenheit) to 104.4 °C (220 degrees Fahrenheit), mixing said resin component and hardener component immediately prior to spray application, and spray applying the mixture to form the coating composition. providing a resin component containing primarily bisphenol F based resin, said resin component maintained at 76.7 °C (170 degrees Fahrenheit) to 104.4 °C (220 degrees Fahrenheit), providing a hardener component containing primarily cycloaliphatic amine, said hardener component maintained at 76.7 °C (170 degrees Fahrenheit) to 104.4 °C (220 degrees Fahrenheit), mixing said resin component and hardener component immediately prior to spray application, and spray applying the mixture to form the coating composition.
An image matching device for determining whether a first image and a second image match, the image matching device comprising: a frequency characteristic acquiring unit configured to acquire a frequency characteristic of the first image and a frequency characteristic of the second image; a frequency characteristic synthesizing unit configured to calculate, as a synthesized frequency characteristic, a normalized cross power spectrum of the frequency characteristic of the first image and the frequency characteristic of the second image; and a determining unit configured to calculate a score indicating a degree to which the synthesized frequency characteristic is a complex sine wave having a single period, and determine whether the first image and the second image match based on the score, wherein the determining unit is configured to i) calculate a first partial differential value and a second partial differential value of each element of the synthesized frequency characteristic with respect to one index direction and the other index direction, respectively, ii) calculate a sum of an absolute value of the first partial differential value and an absolute value of the second partial differential value with respect to each element of the synthesized frequency characteristic, and iii) calculate dispersion of the sums as the score. a frequency characteristic acquiring unit configured to acquire a frequency characteristic of the first image and a frequency characteristic of the second image; a frequency characteristic synthesizing unit configured to calculate, as a synthesized frequency characteristic, a normalized cross power spectrum of the frequency characteristic of the first image and the frequency characteristic of the second image; and a determining unit configured to calculate a score indicating a degree to which the synthesized frequency characteristic is a complex sine wave having a single period, and determine whether the first image and the second image match based on the score, wherein the determining unit is configured to i) calculate a first partial differential value and a second partial differential value of each element of the synthesized frequency characteristic with respect to one index direction and the other index direction, respectively, ii) calculate a sum of an absolute value of the first partial differential value and an absolute value of the second partial differential value with respect to each element of the synthesized frequency characteristic, and iii) calculate dispersion of the sums as the score. i) calculate a first partial differential value and a second partial differential value of each element of the synthesized frequency characteristic with respect to one index direction and the other index direction, respectively, ii) calculate a sum of an absolute value of the first partial differential value and an absolute value of the second partial differential value with respect to each element of the synthesized frequency characteristic, and iii) calculate dispersion of the sums as the score.
Assembly (E) for a turbomachine, the assembly (E) comprising a casing and an impeller which can rotate in the casing , the impeller comprising at least one blade having a head facing the casing , the head comprising a magnet and the casing comprising an electrical conductor adapted to generate between its terminals an electrical voltage signal induced by the magnet of the head facing it and representative of vibrations undergone by the head of the blade when the bladed wheel is rotated in which the electrical conductor comprises a central part which forms a turn or a portion of a turn extending in a plane of travel of the magnet about the axis of rotation (z) of the bladed wheel , characterised in that the electrical conductor is at least partially embedded in an abradable deposit located on an internal surface of the casing facing the bladed wheel , the abradable deposit being made of a diamagnetic material.