mhurhangee/patent-ind-claim-en huggingface dataset:
An image transmission equipment, comprising: a base device having an image transmission program stored therein and adapted to be electrically coupled to a display device (M); and a peripheral device adapted to be electrically coupled to an electronic device (C), and capable of wirelessly communicating with the base device to transmit the image transmission program from the base device to the electronic device (C), while the image transmission program being executed in the electronic device to transmit image signals from the electronic device (C) to the display device through the peripheral device and the base device , wherein the peripheral device has a plurality of second switch means (B2), each of the plurality of second switch means (B2) is configured to trigger the image signals transmission through the base device and the peripheral device , and indicates a different image displaying position on the display device (M). a base device having an image transmission program stored therein and adapted to be electrically coupled to a display device (M); and a peripheral device adapted to be electrically coupled to an electronic device (C), and capable of wirelessly communicating with the base device to transmit the image transmission program from the base device to the electronic device (C), while the image transmission program being executed in the electronic device to transmit image signals from the electronic device (C) to the display device through the peripheral device and the base device , wherein the peripheral device has a plurality of second switch means (B2), each of the plurality of second switch means (B2) is configured to trigger the image signals transmission through the base device and the peripheral device , and indicates a different image displaying position on the display device (M).
A method of operation of a network node in a wireless communications network to provide traffic steering of a wireless device being served by the wireless communications network , comprising: determining that offload of one or more wireless devices in the wireless communications network is desired, when it is determined that a level of interference in a portion of the wireless communications network serving the one or more wireless devices is higher than an interference threshold; after determining that offload of one or more wireless devices in the wireless communications network is desired, selecting a wireless device from the one or more wireless devices to be steered away from the wireless communications network , based on a level of interference caused by the wireless device , to connect to another wireless communications network; and throttling at least one transmission parameter of a connection of the wireless device to the wireless communications network to provide traffic steering of the wireless device away from the wireless communications network , wherein throttling the at least one transmission parameter of the connection comprises at least one of reducing a number of scheduling instances during which the wireless device is scheduled to communicate with the wireless communications network and disabling a feature of the wireless device including one or more of Multiple-Input/Multiple-Output, Carrier Aggregation and Dual Connectivity. determining that offload of one or more wireless devices in the wireless communications network is desired, when it is determined that a level of interference in a portion of the wireless communications network serving the one or more wireless devices is higher than an interference threshold; after determining that offload of one or more wireless devices in the wireless communications network is desired, selecting a wireless device from the one or more wireless devices to be steered away from the wireless communications network , based on a level of interference caused by the wireless device , to connect to another wireless communications network; and throttling at least one transmission parameter of a connection of the wireless device to the wireless communications network to provide traffic steering of the wireless device away from the wireless communications network , wherein throttling the at least one transmission parameter of the connection comprises at least one of reducing a number of scheduling instances during which the wireless device is scheduled to communicate with the wireless communications network and disabling a feature of the wireless device including one or more of Multiple-Input/Multiple-Output, Carrier Aggregation and Dual Connectivity.
A riveted joint comprising two or more overlapping layers (L1, L2) of material connected by means of a connection system comprising: - a rivet including a head and a stem , the head of the rivet being configured, in use, to bear upon a surface of a first layer (L1) of said two or more layers of material, the stem having an outer surface that comprises a surface sculpturing, and being configured, in use, for passing through said two or more layers of material (L1, L1) and projecting beyond them; and - a washer configured to fit on said stem and configured to bear, in use, upon a surface of a last layer (L2) of said two or more overlapping layers (L1, L2) of material, - said washer being deformable by axial compression from an undeformed condition in which it fits on said stem with play, to a deformed condition in which it fits on said stem in a condition of interference with said outer surface of the stem , wherein said stem is a solid body, and said washer is an annular element with a central through hole , the riveted join being characterized in that said stem has an axial length greater by an amount of between 20% and 50%, than the combined thickness of the layers of material (L1, L2) packed together. - a rivet including a head and a stem , the head of the rivet being configured, in use, to bear upon a surface of a first layer (L1) of said two or more layers of material, the stem having an outer surface that comprises a surface sculpturing, and being configured, in use, for passing through said two or more layers of material (L1, L1) and projecting beyond them; and - a washer configured to fit on said stem and configured to bear, in use, upon a surface of a last layer (L2) of said two or more overlapping layers (L1, L2) of material, - said washer being deformable by axial compression from an undeformed condition in which it fits on said stem with play, to a deformed condition in which it fits on said stem in a condition of interference with said outer surface of the stem , wherein said stem is a solid body, and said washer is an annular element with a central through hole , the riveted join being characterized in that said stem has an axial length greater by an amount of between 20% and 50%, than the combined thickness of the layers of material (L1, L2) packed together.
A method for processing a biological specimen that comprises the following essential steps: a') treating said biological specimen with fixative vapors, thus providing fixation of said biological specimen; a) removing water contained in said fixed biological specimen by evaporation, thus providing a fixed and dehydrated biological specimen and b) including said fixed and dehydrated biological specimen into an embedding medium, characterized in that said fixative vapors of step a') are generated by means for generating a flow of fixative vapors starting from fixative vapor precursors, said flow of fixative vapors diffusing to the said biological specimen. a') treating said biological specimen with fixative vapors, thus providing fixation of said biological specimen; a) removing water contained in said fixed biological specimen by evaporation, thus providing a fixed and dehydrated biological specimen and b) including said fixed and dehydrated biological specimen into an embedding medium,
A fluid infusion device, comprising: a body , comprising an activation button ; and a base , slidably receiving said activation button ; characterized by a hollow cannula tubing member having an introducer needle portion and a spring portion , wherein the introducer needle portion is introducing a catheter ; wherein the spring portion is formed by a hollow cannula tubing wound, bent and sharpened into a shape which allows it to operate as an introducer needle, a retraction spring and a fluid path, wherein the introducer needle portion extends centrally through the length of the spring portion , and wherein said activation button is slidable to insert said introducer needle portion of said tubing member into a body of a user and to activate said spring portion of said tubing member by applying an activation force to the spring portion , and upon insertion, to release said spring portion of said tubing member to retract said introducer needle portion of said tubing from said body of said user by removing the activation force from the spring portion . a body , comprising an activation button ; and a base , slidably receiving said activation button ; characterized by a hollow cannula tubing member having an introducer needle portion and a spring portion , wherein the introducer needle portion is introducing a catheter ; wherein the spring portion is formed by a hollow cannula tubing wound, bent and sharpened into a shape which allows it to operate as an introducer needle, a retraction spring and a fluid path, wherein the introducer needle portion extends centrally through the length of the spring portion , and wherein said activation button is slidable to insert said introducer needle portion of said tubing member into a body of a user and to activate said spring portion of said tubing member by applying an activation force to the spring portion , and upon insertion, to release said spring portion of said tubing member to retract said introducer needle portion of said tubing from said body of said user by removing the activation force from the spring portion .
A gas turbine engine having a central axis (A), comprising: a fan including a plurality of fan blades , a diameter of the fan having a dimension D extending between circumferentially outermost edges of two of the fan blades that are parallel to each other and extend in opposite directions away from the central axis (A); an inlet portion forward of the fan having a leading edge in a first reference plane , wherein each fan blade has a leading edge and the leading edges of the fan blades are in a second reference plane that is generally perpendicular to the central axis (A), and a length of the inlet portion has a dimension L extending along a direction that is generally perpendicular to the second reference plane and parallel to the central axis (A) and measured between the first reference plane and the second reference plane ; a low speed spool including an inner shaft that connects the fan and a low pressure compressor section to a low pressure turbine section ; and a geared architecture , wherein the inner shaft drives the fan through the geared architecture at a lower speed than the low speed spool ; and characterized in that : the leading edge of the inlet portion is further from the second reference plane at the top of the engine than at the bottom of the engine ; and in that a dimensional relationship of L/D based on an average value of L between the first and second reference planes is between 0.30 and 0.40. a fan including a plurality of fan blades , a diameter of the fan having a dimension D extending between circumferentially outermost edges of two of the fan blades that are parallel to each other and extend in opposite directions away from the central axis (A); an inlet portion forward of the fan having a leading edge in a first reference plane , wherein each fan blade has a leading edge and the leading edges of the fan blades are in a second reference plane that is generally perpendicular to the central axis (A), and a length of the inlet portion has a dimension L extending along a direction that is generally perpendicular to the second reference plane and parallel to the central axis (A) and measured between the first reference plane and the second reference plane ; a low speed spool including an inner shaft that connects the fan and a low pressure compressor section to a low pressure turbine section ; and a geared architecture , wherein the inner shaft drives the fan through the geared architecture at a lower speed than the low speed spool ; and characterized in that : the leading edge of the inlet portion is further from the second reference plane at the top of the engine than at the bottom of the engine ; and in that a dimensional relationship of L/D based on an average value of L between the first and second reference planes is between 0.30 and 0.40. the leading edge of the inlet portion is further from the second reference plane at the top of the engine than at the bottom of the engine ; and in that a dimensional relationship of L/D based on an average value of L between the first and second reference planes is between 0.30 and 0.40.
Vehicle washing facility, comprising an entry region for a vehicle to be washed, a camera device having a field of view directed toward the entry region , a computing unit , and a notification device for providing a notification for a vehicle driver depending on at least one image created by the camera device , the vehicle washing facility having a portal on which preferably at least one washing tool is held, characterized in that the camera device is positioned on a portal column of the portal laterally with respect to the entry region , wherein the field of view being directed from the side toward the entry region , and in that the notification device is or comprises a display device , on which images created by the camera device by the computing unit are displayable in a modified manner, wherein the modification comprises a representation of the image content of the images with a modified perspective and/or a representation of the image content mirrored in the transverse and/or longitudinal direction of the entry region .
A pepper plant ( Capsicum annuum L.) that produces fruits with a flavor, wherein the pepper plant comprises a QTL which when present leads to the flavor, wherein the flavor is defined as the pepper fruits produced by said plant having higher scores for one or more flavor attributes selected from the group consisting of aroma, flowers, non-pungent spices, celery, and chives, and/or a lower score for the flavor attribute grassiness, and optionally a higher odor intensity, as compared to pepper fruits of a similar ripening stage from isogenic pepper plants not carrying said QTL, and wherein the QTL is located on LG3 and wherein said QTL is the same as a QTL that is present in the genome of plants grown from seeds of deposit NCIMB 42137 and is linked therein to the markers SEQ ID No:1, SEQ ID No:3, SEQ ID No:5, SEQ ID No:7, SEQ ID No:9 and SEQ ID No:11, and wherein the QTL is preferably homozygously present.
A multicast bearer management method, comprising: in a process of receiving service data of a single cell-multimedia broadcast multicast service traffic channel, SC-MTCH, suspending (S301) a single cell-multimedia broadcast multicast service point to multipoint radio bearer, SC-MRB, corresponding to the SC-MTCH when there is a first type of data to be received; and when reception of the first type of data is completed, restoring or releasing (S302) the SC-MRB based on a temporary mobile group identity, TMGI, and/or a session identity corresponding to the SC-MRB; wherein the suspending an SC-MRB corresponding to the SC-MTCH comprises: reserving a radio link control, RLC, entity corresponding to the SC-MRB, and releasing a media access control, MAC, layer configuration and/or a physical layer configuration corresponding to the SC-MRB in a process of receiving service data of a single cell-multimedia broadcast multicast service traffic channel, SC-MTCH, suspending (S301) a single cell-multimedia broadcast multicast service point to multipoint radio bearer, SC-MRB, corresponding to the SC-MTCH when there is a first type of data to be received; and when reception of the first type of data is completed, restoring or releasing (S302) the SC-MRB based on a temporary mobile group identity, TMGI, and/or a session identity corresponding to the SC-MRB; wherein the suspending an SC-MRB corresponding to the SC-MTCH comprises: reserving a radio link control, RLC, entity corresponding to the SC-MRB, and releasing a media access control, MAC, layer configuration and/or a physical layer configuration corresponding to the SC-MRB
Device for measuring the flow velocity of a fluid with - a sensor comprising a conduit for the fluid with a conduit wall , - at least two ultrasonic transducer units (20 and 22), each consisting of an array of individual ultrasonic transducers (30-x and 32-x respectively) and defining a measurement path in the conduit between them, - a control and evaluation unit for controlling the ultrasonic transducer units for transmitting ultrasonic signals and for evaluating received ultrasonic signals and determining the flow velocity (v), - and the control and evaluation unit is designed to drive the individual ultrasonic transducers (30-x, 32-x) with different phase, so that the ultrasonic transducer units are each designed as a phased array, wherein the ultrasonic transducer units contact the conduit wall extemally, characterized in that - the measuring path is formed as a secant path and does not lie diametrically, - and in that the conduit wall is formed in the region of the contacting with a wall thickness (w) which is smaller than half the wavelength of the transverse wave (λ conduit ) of the ultrasound in the conduit wall . - a sensor comprising a conduit for the fluid with a conduit wall , - at least two ultrasonic transducer units (20 and 22), each consisting of an array of individual ultrasonic transducers (30-x and 32-x respectively) and defining a measurement path in the conduit between them, - a control and evaluation unit for controlling the ultrasonic transducer units for transmitting ultrasonic signals and for evaluating received ultrasonic signals and determining the flow velocity (v), - and the control and evaluation unit is designed to drive the individual ultrasonic transducers (30-x, 32-x) with different phase, so that the ultrasonic transducer units are each designed as a phased array, wherein the ultrasonic transducer units contact the conduit wall extemally, characterized in that - the measuring path is formed as a secant path and does not lie diametrically, - and in that the conduit wall is formed in the region of the contacting with a wall thickness (w) which is smaller than half the wavelength of the transverse wave (λ conduit ) of the ultrasound in the conduit wall .
A method for a grant-free uplink transmission scheme without dynamic request and grant, comprising: receiving, by an ultra- reliable low latency, URLL, user equipment, UE, , a high-level signaling information regarding at least one first contention transmission unit, CTU, for an initial transmission in a first transmission time interval, TTI, and at least one second CTU for at least one redundant transmission in a second TTI; and characterized by : transmitting, by the URLL UE, to a base station, BS, the initial transmission using the at least one first CTU in the first TTI without scheduling signaling for the first CTU from the BS; and transmitting, by the URLL UE, to the BS, the at least one redundant transmission using the at least one second CTU in the second TTI without waiting for acknowledgement/negative acknowledgement, ACK/NACK, feedback, wherein the first CTU and the second CTU comprises at least time, frequency and pilot. receiving, by an ultra- reliable low latency, URLL, user equipment, UE, , a high-level signaling information regarding at least one first contention transmission unit, CTU, for an initial transmission in a first transmission time interval, TTI, and at least one second CTU for at least one redundant transmission in a second TTI; and characterized by : transmitting, by the URLL UE, to a base station, BS, the initial transmission using the at least one first CTU in the first TTI without scheduling signaling for the first CTU from the BS; and transmitting, by the URLL UE, to the BS, the at least one redundant transmission using the at least one second CTU in the second TTI without waiting for acknowledgement/negative acknowledgement, ACK/NACK, feedback, wherein the first CTU and the second CTU comprises at least time, frequency and pilot. transmitting, by the URLL UE, to a base station, BS, the initial transmission using the at least one first CTU in the first TTI without scheduling signaling for the first CTU from the BS; and transmitting, by the URLL UE, to the BS, the at least one redundant transmission using the at least one second CTU in the second TTI without waiting for acknowledgement/negative acknowledgement, ACK/NACK, feedback,
Infrared upconversion spectrometer for determining a mid-IR spectrum of received infrared light, wherein the spectrometer comprises: - a nonlinear material and first optical element arranged to couple the received infrared light into the nonlinear material; - a laser arranged to couple into the nonlinear material in at least substantially the same direction of propagation as, and in spatial overlap with, in-coupled infrared light; where the nonlinear material, the first optical element, and the laser are configured for non-collinear phase matching in-coupled mid-IR light and upconverted light to be transmitted by the nonlinear material; and a spatially resolved detector with multiple pixels being sensitive to upconverted light; the infrared upconversion spectrometer being characterized in that it further comprises: - imaging optics arranged between the nonlinear material and the detector to image the spatial overlap between the laser light and the in-coupled infrared light inside the nonlinear material onto the detector; and - a dispersive element arranged to disperse upconverted light so that different wavelength sub-ranges of the upconverted light are imaged onto different pixels of the detector; and in that a spectral resolution of the spectrometer is determined by the laser, the dispersive element and a virtual slit being a spatial overlap between the laser light and the in-coupled infrared light inside the nonlinear material. - a nonlinear material and first optical element arranged to couple the received infrared light into the nonlinear material; - a laser arranged to couple into the nonlinear material in at least substantially the same direction of propagation as, and in spatial overlap with, in-coupled infrared light; where the nonlinear material, the first optical element, and the laser are configured for non-collinear phase matching in-coupled mid-IR light and upconverted light to be transmitted by the nonlinear material; and a spatially resolved detector with multiple pixels being sensitive to upconverted light; the infrared upconversion spectrometer being characterized in that it further comprises: - imaging optics arranged between the nonlinear material and the detector to image the spatial overlap between the laser light and the in-coupled infrared light inside the nonlinear material onto the detector; and - a dispersive element arranged to disperse upconverted light so that different wavelength sub-ranges of the upconverted light are imaged onto different pixels of the detector; - imaging optics arranged between the nonlinear material and the detector to image the spatial overlap between the laser light and the in-coupled infrared light inside the nonlinear material onto the detector; and - a dispersive element arranged to disperse upconverted light so that different wavelength sub-ranges of the upconverted light are imaged onto different pixels of the detector; and in that a spectral resolution of the spectrometer is determined by the laser, the dispersive element and a virtual slit being a spatial overlap between the laser light and the in-coupled infrared light inside the nonlinear material.