mhurhangee/patent-ind-claim-en huggingface dataset:
Process for the production and/or processing of food products from a pourable composition, in particular a fat-continuous fluid, wherein the flow behavior of the pourable composition is adjusted and/or altered by adding a mixture of spherical and angular particles is added to the pourable composition and the proportion of spherical particles is adjusted, wherein - the proportion of spherical particles, of which at least 90% by volume have a diameter below 500 μm and in particular 90% by volume have a diameter greater than 1 pm, in the total solids content of the pourable composition is increased; and/or - spherical particles, at least 90% by volume of which have a diameter of less than 500 μm and, in particular, 90% by volume of which have a diameter of greater than 1 pm, are metered into the pourable composition in an apparatus for the production and/or processing of food products, characterized in that a setpoint value is entered or set in a control and/or regulating unit, and the quantity ratio of spherical to angular particles is taken from a stored table depending on the setpoint value for the flowability, or spherical particles are added taking into account a predetermined recipe until a value determined by measurement for the flow behavior corresponds to the predetermined setpoint value. wherein the flow behavior of the pourable composition is adjusted and/or altered by adding a mixture of spherical and angular particles is added to the pourable composition and the proportion of spherical particles is adjusted, wherein - the proportion of spherical particles, of which at least 90% by volume have a diameter below 500 μm and in particular 90% by volume have a diameter greater than 1 pm, in the total solids content of the pourable composition is increased; and/or - spherical particles, at least 90% by volume of which have a diameter of less than 500 μm and, in particular, 90% by volume of which have a diameter of greater than 1 pm, are metered into the pourable composition in an apparatus for the production and/or processing of food products, characterized in that - the proportion of spherical particles, of which at least 90% by volume have a diameter below 500 μm and in particular 90% by volume have a diameter greater than 1 pm, in the total solids content of the pourable composition is increased; and/or - spherical particles, at least 90% by volume of which have a diameter of less than 500 μm and, in particular, 90% by volume of which have a diameter of greater than 1 pm, are metered into the pourable composition in an apparatus for the production and/or processing of food products, characterized in that
A method of sample separation in a liquid-liquid system using a device comprising at least one first chamber with a U- or V-shaped bottom, wherein at least one aperture with a diameter within the range of 1 to 100 μm, preferably 1 to 40 μm, is provided in the first chamber and wherein at least the surface of each aperture is hydrophilized or hydrophobized, wherein the device further comprises a second chamber surrounding the outside of the bottom of the first chamber, said method containing the following steps: - introducing a system containing immiscible liquids into the first chamber with the hydrophilized or hydrophobized surface of at least the aperture of the first chamber, - introducing a fluid sample into the first chamber; this step can be performed together with the step of introducing the system containing immiscible liquids or subsequently to the step of introducing the system containing immiscible liquids, or prior to the step of introducing the system containing immiscible liquids, - optional step of emulsification and subsequent phase stabilization, - application of pressure force on the system in the first chamber causing the liquid fraction having the same chemical hydrophilic or hydrophobic nature, respectively, as the hydrophilic or hydrophobic nature of the aperture surface, respectively, to pass through the aperture into the next chamber, and causing the retention of the liquid fraction having the opposite chemical hydrophilic or hydrophobic nature, respectively, than the hydrophilic of hydrophobic nature of the aperture surface, respectively. - introducing a system containing immiscible liquids into the first chamber with the hydrophilized or hydrophobized surface of at least the aperture of the first chamber, - introducing a fluid sample into the first chamber; this step can be performed together with the step of introducing the system containing immiscible liquids or subsequently to the step of introducing the system containing immiscible liquids, or prior to the step of introducing the system containing immiscible liquids, - optional step of emulsification and subsequent phase stabilization, - application of pressure force on the system in the first chamber causing the liquid fraction having the same chemical hydrophilic or hydrophobic nature, respectively, as the hydrophilic or hydrophobic nature of the aperture surface, respectively, to pass through the aperture into the next chamber, and causing the retention of the liquid fraction having the opposite chemical hydrophilic or hydrophobic nature, respectively, than the hydrophilic of hydrophobic nature of the aperture surface, respectively.
A method, comprising: estimating a position of a bubble of air created by actuation of an impulsive source below a water surface , characterized by : receiving a plurality of recordings having non-overlapping ghost notches; de-ghosting the plurality of recordings individually; and analyzing differences between the plurality of de-ghosted recordings; wherein the non-overlapping ghost notches occur at respective frequencies and are based on a depth of receivers at which the plurality of recordings are received; and determining a notional source signature of the bubble based on the estimate. receiving a plurality of recordings having non-overlapping ghost notches; de-ghosting the plurality of recordings individually; and analyzing differences between the plurality of de-ghosted recordings; wherein the non-overlapping ghost notches occur at respective frequencies and are based on a depth of receivers at which the plurality of recordings are received; and determining a notional source signature of the bubble based on the estimate.
A method, comprising: receiving, by a computing device a connection request to establish a VR session, the connection request being transmitted from an end user VR system , the connection request and a connection response representing a handshake between the end user VR system and the computing device for establishing a service provider VR session; transmitting, by the computing device , a registry query to a virtual container registry to query a registry of virtual containers for one or more VR containers that are accessible to the end-user system , wherein the registry is a universal registry listing any type of VR container along with requirements for accessing the VR container, and the registry identifies one or more VR containers compatible with one or more end-user VR systems; receiving, by the computing device from the registry, a registry response comprising information about establishing a VR session with one or more VR containers; transmitting, by the computing device to the end-user VR system , information associated with the one or more VR containers to establish the VR session with the one or more VR containers; receiving, by the computing device from the end user VR system , a request for access to a VR container of the one or more VR containers in accordance with the session information; establishing a network connection with the end user VR system ; and using the network connection to facilitate access by the end user VR system to data for rendering output corresponding to the VR container. receiving, by a computing device a connection request to establish a VR session, the connection request being transmitted from an end user VR system , the connection request and a connection response representing a handshake between the end user VR system and the computing device for establishing a service provider VR session; transmitting, by the computing device , a registry query to a virtual container registry to query a registry of virtual containers for one or more VR containers that are accessible to the end-user system , wherein the registry is a universal registry listing any type of VR container along with requirements for accessing the VR container, and the registry identifies one or more VR containers compatible with one or more end-user VR systems; receiving, by the computing device from the registry, a registry response comprising information about establishing a VR session with one or more VR containers; transmitting, by the computing device to the end-user VR system , information associated with the one or more VR containers to establish the VR session with the one or more VR containers; receiving, by the computing device from the end user VR system , a request for access to a VR container of the one or more VR containers in accordance with the session information; establishing a network connection with the end user VR system ; and using the network connection to facilitate access by the end user VR system to data for rendering output corresponding to the VR container.
Panel for a household appliance, in particular a dishwasher or a washing machine, wherein the panel is embodied to cover at least one part of an electronics unit of the household appliance, and has an opening for an operating element for actuating the household appliance and/or the electronics unit, characterised in that at least one element acting in a capillary-like manner for channelling away liquid which has reached the interior of the panel is provided on the interior of the panel , wherein the element acting in a capillary-like manner causes a capillary effect, by way of which the liquid is channelled away along the course of the element acting in a capillary-like manner, wherein furthermore the element acting in a capillary-like manner is formed by a rib protruding on the interior of the panel and a reinforcement or wall element of the panel , or by two ribs protruding on the interior of the panel , and the element acting in a capillary-like manner has a height of 0.5 mm to 1.2 mm, preferably 0.95 mm, and a width of 1 mm to 4 mm, preferably 3.5 mm.
A display device comprising: a first display screen comprising a mask pattern of a pixel ; a second display screen comprising said mask pattern, wherein said second display screen is located further from a front of said display device than said first display screen , wherein said front of said display device is closest to a viewer; and a diffraction element at a distance from the second display screen and configured to convolve said mask pattern of said second display screen into two or more viewable copies in order to minimize moire interference with said mask pattern of said first display screen , wherein said mask pattern comprises a first portion repeatable in a first direction, and wherein said diffraction element is configured to copy said first portion of said mask pattern in said first direction, characterized in that a number of said viewable copies is based on dividing a width of said pixel by a width of said first portion , and the number of viewable copies completely covers said pixel in said first direction. a first display screen comprising a mask pattern of a pixel ; a second display screen comprising said mask pattern, wherein said second display screen is located further from a front of said display device than said first display screen , wherein said front of said display device is closest to a viewer; and a diffraction element at a distance from the second display screen and configured to convolve said mask pattern of said second display screen into two or more viewable copies in order to minimize moire interference with said mask pattern of said first display screen , wherein said mask pattern comprises a first portion repeatable in a first direction, and wherein said diffraction element is configured to copy said first portion of said mask pattern in said first direction, characterized in that a number of said viewable copies is based on dividing a width of said pixel by a width of said first portion , and the number of viewable copies completely covers said pixel in said first direction.
A system-on-a-chip, SoC, comprising: a first segment , wherein the first segment includes a memory device which operates at a first voltage; a second segment , wherein the second segment includes scalable logic which operates at a second voltage; a supply line to receive an external supply signal and to direct the external supply signal to both the first segment and the second segment , wherein the supply line is a common supply line, and wherein by virtue of the common supply line both the first segment and the second segment receive the same supply signal; a supply power converter coupled between the supply line and the scalable logic , wherein the supply power converter is configured to convert the external supply signal to an internal supply signal; a conversion controller coupled to the supply power converter , wherein the conversion controller is configured to control the supply power converter to generate the internal supply signal and to thereby vary, independently of the first voltage, the second voltage; and a power island including the first segment , the second segment , the supply line , the supply power converter , and the conversion controller ; wherein the first voltage is variable to operate the memory device over a range of voltages, and the second voltage is separately variable, independent of the first voltage, to operate the scalable logic over a second range of voltages; and wherein the first voltage is externally controlled from outside the power island and the second voltage is internally controlled from inside the power island . a first segment , wherein the first segment includes a memory device which operates at a first voltage; a second segment , wherein the second segment includes scalable logic which operates at a second voltage; a supply line to receive an external supply signal and to direct the external supply signal to both the first segment and the second segment , wherein the supply line is a common supply line, and wherein by virtue of the common supply line both the first segment and the second segment receive the same supply signal; a supply power converter coupled between the supply line and the scalable logic , wherein the supply power converter is configured to convert the external supply signal to an internal supply signal; a conversion controller coupled to the supply power converter , wherein the conversion controller is configured to control the supply power converter to generate the internal supply signal and to thereby vary, independently of the first voltage, the second voltage; and a power island including the first segment , the second segment , the supply line , the supply power converter , and the conversion controller ; wherein the first voltage is variable to operate the memory device over a range of voltages, and the second voltage is separately variable, independent of the first voltage, to operate the scalable logic over a second range of voltages; and wherein the first voltage is externally controlled from outside the power island and the second voltage is internally controlled from inside the power island .
Method for initial distribution of protected data , such as e.g. at least a key, a certificate or a password, in an ETCS train control system between at least one data control centre and at least one ETCS facility , such as, for instance, a vehicle-side on-board unit, OBU, or a track-side radio block centre, RBC, in which protected data specific to the at least one ETCS facility is generated in a secure environment in the data control centre , in which with the protected data , at least one transport package specific to the at least one ETCS facility is generated in a secure environment in which the transport package is secured in the secure environment , in which the secured transport package is transmitted to the ETCS facility , in which the secure transport package is unlocked in a secure area of the ETCS facility and the protected data is stored in the secure area of the ETCS facility , wherein a plurality of protected data comprising a number of keys, certificates, passwords and/or key queries is transmitted in the transport package . in which protected data specific to the at least one ETCS facility is generated in a secure environment in the data control centre , in which with the protected data , at least one transport package specific to the at least one ETCS facility is generated in a secure environment in which the transport package is secured in the secure environment , in which the secured transport package is transmitted to the ETCS facility , in which the secure transport package is unlocked in a secure area of the ETCS facility and the protected data is stored in the secure area of the ETCS facility , wherein a plurality of protected data comprising a number of keys, certificates, passwords and/or key queries is transmitted in the transport package .
A computer implemented method implemented on a mobile device for managing usage of a mobile device , wherein the mobile device comprises a touch screen, a speed detection component and a forward-facing camera opposite the touch screen, the computer implemented method comprising: responsive to detecting , using the speed detection component , the mobile device is traveling at a speed greater than a threshold speed, detecting optical data from an interior of a moving vehicle , wherein detecting the optical data comprises detecting forward-facing optical data with the forward-facing camera ; analyzing the optical data to identify a set of vehicular markers located in the interior of the vehicle , using image templates of the vehicle ; determining an intra-vehicular location of the user in relation to the set of identified vehicular markers ; and responsive to determining that the intra-vehicular location of the user is a driver's seat, initiating restricted use protocols; characterized in that the mobile device comprises a user-facing camera on the same surface as the touch screen; detecting the optical data further comprises detecting a user-facing optical data with the user-facing optical camera ; and determining the intra- vehicular location of the user further comprises determining, from user-facing optical data, the intra-vehicular location of the user from a relative position of the user and the set of identified vehicular markers . responsive to detecting , using the speed detection component , the mobile device is traveling at a speed greater than a threshold speed, detecting optical data from an interior of a moving vehicle , wherein detecting the optical data comprises detecting forward-facing optical data with the forward-facing camera ; analyzing the optical data to identify a set of vehicular markers located in the interior of the vehicle , using image templates of the vehicle ; determining an intra-vehicular location of the user in relation to the set of identified vehicular markers ; and responsive to determining that the intra-vehicular location of the user is a driver's seat, initiating restricted use protocols; characterized in that the mobile device comprises a user-facing camera on the same surface as the touch screen; detecting the optical data further comprises detecting a user-facing optical data with the user-facing optical camera ; and determining the intra- vehicular location of the user further comprises determining, from user-facing optical data, the intra-vehicular location of the user from a relative position of the user and the set of identified vehicular markers .
A computer-implemented method for generating a binary descriptor associated with a given point in a current frame of a succession of video frames obtained by an apparatus, comprising determining (S40) a pattern of points pairs (P1' i , P2' i ) around said given point (p0) in the current frame, and performing intensity comparison processing between the two points of each pair, wherein said apparatus is likely to move in a rotation between the previous frame and the current frame, and generating said binary descriptor further comprises processing said pattern of points (P1' i , P2' i ) of said current frame with a tridimensional rotation information representative of said apparatus rotation between the previous frame and the current frame to obtain the corresponding projected points (RP1 i , RP2 j ), wherein said tridimensional rotation information is obtained from inertial measurements and is represented by the Euler angles (α t , β t ,γ t ) being the yaw, pitch and roll angles respectively measured at time t, and wherein processing said pattern of points of said current frame comprises, for each point (P1' i ) of each pair (P1' i , P2' i ) of said pattern, determining (S41) the bidimensional coordinates (u1' i , v1' i ) of said point (P1' i ) from the bidimensional coordinates (u1 i , v1 i ) of the homologue point (p1 i ) in the previous frame and from an in-plane rotation matrix (R(p0, γ t )) which is the rotation matrix describing the in-plane rotation by an angle (γt) around said given point (p0), converting (S42) said determined bidimensional coordinates (u1' i , v1' i ) of said point (P1' i ) into tridimensional coordinates (u1' i , v1' i ,0, 1), determining (S43) a second rotation matrix (R2) representative of said tridimensional rotation information, wherein said second rotation matrix is defined using the yaw and pitch angles (α t , β t ) measured at time t and applying (S44) said second rotation matrix to said tridimensional coordinates (u1' i , v1' i ,0, 1) of said point (P1' i ) to obtain new tridimensional coordinates (u1" i , v1" i , w1" i , 1), projecting (S46) said new tridimensional coordinates (u1" i , v1" i , w1" i , 1) back onto said plane of said in-plane rotation to obtain a projected point (RP1 i ) having projected coordinates (Ru1 i , Rv1 i , 0).