mhurhangee/patent-ind-claim-en huggingface dataset:
A kit comprising: a challenge meal formulation comprising food allergen of up to 10% w/w, wherein the allergen component is selected from the group consisting of: peanut, soy, egg, sesame seeds, milk, fish, crustaceans, almond, cashew, hazelnut, pistachio, walnut, sulphites, wheat, mustard and celery allergen; and a challenge meal formulation in which the allergen is absent; wherein the challenge meal formulations comprise a matrix formation component, wherein the matrix formation component comprises a starch component and sucrose; a texturizing component, wherein the texturizing component comprises an oil component and a surfactant; a flavour/colour masking component; and an additive present in an amount of from 0.05% w/w to 1.0% w/w of the oral food challenge meal formulation, wherein the additive is selected from the group consisting of: maltodextrin, dextrin, cyclodextrin and combinations thereof. a challenge meal formulation comprising food allergen of up to 10% w/w, wherein the allergen component is selected from the group consisting of: peanut, soy, egg, sesame seeds, milk, fish, crustaceans, almond, cashew, hazelnut, pistachio, walnut, sulphites, wheat, mustard and celery allergen; and a challenge meal formulation in which the allergen is absent;
Hob with a household appliance apparatus with at least one touch-sensitive sensor field with at least one touch-sensitive sensor element (60, 62; 68, 70, 72; 76) for acquiring a touch position on the sensor field and with a control unit for generating at least one control signal as a function of the acquired touch position, wherein the control unit is provided, in at least one operating mode, to determine a movement characteristic variable from a temporal sequence of acquired touch positions and to configure the control signal as a function of the determined movement characteristic variable, wherein the movement characteristic variable is formed by a movement speed (v), wherein, in at least one operating state of the control unit , the control signal at least initiates a repeated incrementing or a repeated decrementing of a manipulated variable, wherein the control unit is provided to predefine an absolute step size (ΔS1, ΔS2, ΔS3) of the repeated incrementing or the repeated decrementing of the manipulated variable as a function of an absolute value of the movement characteristic variable determined by the control unit , characterised in that the sensor field has a maximum linear extension (64; 78) of a maximum of 70 millimetres between touch-sensitive parts of the sensor field for acquiring the touch position, and wherein the control unit is provided, when at least one predetermined limit value of the manipulated variable is approached, to modify the absolute step size (ΔS1, ΔS2, ΔS3) as a function of a spacing between an instantaneous value of the manipulated variable and the predetermined limit value of the manipulated variable.
Seal assembly comprising: an emergency seal for a watercraft , comprising a radially inner surface suitable for resting on the radially outer surface of a drive shaft and a radially outer surface suitable for being subjected to the action of a pressure fluid, wherein the emergency seal has a constant cross section along its own circumferential development, wherein the cross section comprises a main solid portion from which two appendices depart which substantially develop outwards in the radial direction, wherein the radially inner surface comprises at least two sealing prominences and wherein the emergency seal is made from an elastomeric material; and an apparatus of the watercraft comprising a seat intended to define the passage for said drive shaft , wherein the emergency seal is housed in the seat ; wherein the emergency seal has an outer diameter Dg, and the seat has an outer diameter Ds; characterized in that the emergency seal is slightly compressed in a radial direction when housed in the seat , and in that , at a disassembled state of the seal assembly , Dg is larger than Ds in a proportion comprised between 1% and 5%. an emergency seal for a watercraft , comprising a radially inner surface suitable for resting on the radially outer surface of a drive shaft and a radially outer surface suitable for being subjected to the action of a pressure fluid, wherein the emergency seal has a constant cross section along its own circumferential development, wherein the cross section comprises a main solid portion from which two appendices depart which substantially develop outwards in the radial direction, wherein the radially inner surface comprises at least two sealing prominences and wherein the emergency seal is made from an elastomeric material; and an apparatus of the watercraft comprising a seat intended to define the passage for said drive shaft , wherein the emergency seal is housed in the seat ; wherein the emergency seal has an outer diameter Dg, and the seat has an outer diameter Ds; characterized in that the emergency seal is slightly compressed in a radial direction when housed in the seat , and in that , at a disassembled state of the seal assembly , Dg is larger than Ds in a proportion comprised between 1% and 5%.
A method for producing real-time HDR video, the method comprising: obtaining , at a processing device , pixel values from each of multiple sensors exposed to identical scenes, wherein each of the multiple sensors produces an ordered stream of pixel values, wherein the multiple image sensors include at least a high exposure first sensor and a lower exposure second sensor ; and producing an HDR image, characterized in that the method includes streaming the pixel values in a frame independent-manner through a pipeline on the processing device , wherein the processing device includes: a sync module for synchronizing the pixel values streaming from each of the plurality of image sensors and wherein the pipeline includes a kernel operation that identifies saturated pixel values, wherein the kernel operation identifies at least some of the saturated pixel values before receiving values from all pixels of the multiple image sensors at the processing device ; and a merge module for merging the pixel values by substituting saturated pixel values from the high- exposure sensor with corresponding values from the lower-exposure sensor to produce the HDR image. obtaining , at a processing device , pixel values from each of multiple sensors exposed to identical scenes, wherein each of the multiple sensors produces an ordered stream of pixel values, wherein the multiple image sensors include at least a high exposure first sensor and a lower exposure second sensor ; and producing an HDR image, characterized in that the method includes streaming the pixel values in a frame independent-manner through a pipeline on the processing device , wherein the processing device includes: a sync module for synchronizing the pixel values streaming from each of the plurality of image sensors and wherein the pipeline includes a kernel operation that identifies saturated pixel values, wherein the kernel operation identifies at least some of the saturated pixel values before receiving values from all pixels of the multiple image sensors at the processing device ; and a merge module for merging the pixel values by substituting saturated pixel values from the high- exposure sensor with corresponding values from the lower-exposure sensor to produce the HDR image. a sync module for synchronizing the pixel values streaming from each of the plurality of image sensors and wherein the pipeline includes a kernel operation that identifies saturated pixel values, wherein the kernel operation identifies at least some of the saturated pixel values before receiving values from all pixels of the multiple image sensors at the processing device ; and a merge module for merging the pixel values by substituting saturated pixel values from the high- exposure sensor with corresponding values from the lower-exposure sensor to produce the HDR image.
A method for communicating multimedia data between a first device (A) and a second device (B) over a network (N), the method comprising the steps of: - at least the first device (A) repeatedly generates multimedia data and sends said multimedia data to the second device (B), - at least the second device (B) repeatedly generates quality data (QD) representative of the quality of the communication between the two devices (A, B), - at least the first device applies at least one current error correction strategy selected from a group of error correction strategies, in view of increasing the quality of the communication between the devices (A, B), - an evaluation of an effectiveness of each current error correction strategy on the quality of the communication between the two devices is carried out as a function of newly received quality data (QD), wherein the evaluation of an effectiveness of each error correction strategy in the first device (A) keeps track of a strategy counter (Ci) for each of the first device's current error correction strategy, the strategy counter (Ci) of a given error correction strategy being incremented at least when the packet loss for the multimedia data sent by the first device is above a chosen high threshold, and wherein the strategy counter of a given error correction strategy is reset at least when the packet loss for the multimedia data sent by the first device is below a chosen low threshold. - at least the first device (A) repeatedly generates multimedia data and sends said multimedia data to the second device (B), - at least the second device (B) repeatedly generates quality data (QD) representative of the quality of the communication between the two devices (A, B), - at least the first device applies at least one current error correction strategy selected from a group of error correction strategies, in view of increasing the quality of the communication between the devices (A, B), - an evaluation of an effectiveness of each current error correction strategy on the quality of the communication between the two devices is carried out as a function of newly received quality data (QD), wherein the evaluation of an effectiveness of each error correction strategy in the first device (A) keeps track of a strategy counter (Ci) for each of the first device's current error correction strategy, the strategy counter (Ci) of a given error correction strategy being incremented at least when the packet loss for the multimedia data sent by the first device is above a chosen high threshold, and wherein the strategy counter of a given error correction strategy is reset at least when the packet loss for the multimedia data sent by the first device is below a chosen low threshold.
A modular conveyor system comprising a plurality of individual conveyor modules , wherein an individual conveyor module comprises - at least one conveyor device , - at least one power supply, - at least one actuator for driving the conveyor device , - a power unit for the control of the actuator (MC) and - an integrated control unit , wherein the integrated control unit has a computing unit for processing information, and a communication unit , and wherein the communication unit is designed to carry out the communication of the individual conveyor modules with a central control on the one hand and/or the communication of the individual conveyor modules with one another on the other hand, characterised in that the communication of the individual conveyor modules with one another is implemented in two logical communication levels (K1, K2) by means of two communication interfaces which are separate and independent of one another, and one communication level (K1) is used for layout recognition and configuration of the conveyor system . - at least one conveyor device , - at least one power supply, - at least one actuator for driving the conveyor device , - a power unit for the control of the actuator (MC) and - an integrated control unit ,
An electrical connector system , comprising: a first connector body containing a first plurality of terminals; a second connector body containing a second plurality of terminals configured to interconnect with the first plurality of terminals, said second connector body configured to receive the first connector body ; and a locking feature configured to secure the first connector body to the second connector body in a pre-staged position in which the first plurality of terminals is not connected to the second plurality of terminals and further configured to secure the first connector body to the second connector body in a staged position in which the first plurality of terminals is connected to the second plurality of terminals after disengaging the locking feature in the pre-staged position ; characterized in that the electrical connector system further includes a lock out feature configured to prevent the first connector body from being moved from the pre-staged position to the staged position regardless of the locking feature ; wherein the lock out feature includes a solid planar tab extending from the first connector body and a pair of perforated planar tabs extending from the second connector body each defining an aperture aligned with one another, wherein the perforated planar tabs are arranged so that the solid planar tab can slide between the pair of perforated planar tabs as the first connector body is moved from the pre-staged to the staged position . a first connector body containing a first plurality of terminals; a second connector body containing a second plurality of terminals configured to interconnect with the first plurality of terminals, said second connector body configured to receive the first connector body ; and a locking feature configured to secure the first connector body to the second connector body in a pre-staged position in which the first plurality of terminals is not connected to the second plurality of terminals and further configured to secure the first connector body to the second connector body in a staged position in which the first plurality of terminals is connected to the second plurality of terminals after disengaging the locking feature in the pre-staged position ; characterized in that the electrical connector system further includes a lock out feature configured to prevent the first connector body from being moved from the pre-staged position to the staged position regardless of the locking feature ; wherein the lock out feature includes a solid planar tab extending from the first connector body and a pair of perforated planar tabs extending from the second connector body each defining an aperture aligned with one another, wherein the perforated planar tabs are arranged so that the solid planar tab can slide between the pair of perforated planar tabs as the first connector body is moved from the pre-staged to the staged position .
Process for desulfurizing olefin-containing starting materials by regulating the proportion of olefins, wherein • an olefin- and hydrogen-containing gaseous feed stream is passed through a reactor containing a hydrogenating catalyst for desulfurization and the organic sulfur compounds and olefins present in the olefin- and hydrogen-containing feed stream are entirely or partially hydrogenated to form hydrogen sulphide and alkanes, and • the olefin-containing feed stream is divided to give at least two feed streams before introduction into the reactor , and • the first feed stream is conveyed, via suitable devices via the top of the reactor, through a catalyst bed in the reactor containing a partial amount of a catalyst for hydrogenative desulfurization , and • a second feed stream is introduced laterally downstream of the first catalyst bed into the reactor and introduced into the reaction mixture which has been heated by the first hydrogenation, and the resulting gas stream is passed through a second catalyst bed in the reactor, and • the proportion of the olefins in at least one feed stream is controllable by means of separate introduction of olefins or diluent gas into the individual feed streams, where the temperature in the reactor is regulated by regulating the proportion of olefins in at least one feed stream, characterized in that • a gas which contains a significant proportion of olefins having from 2 to 6 carbon atoms is used as a feed stream for the hydrogenative desulfurization, and • the hydrogenation reaction is carried out at a temperature of from 250 to 400°C. • an olefin- and hydrogen-containing gaseous feed stream is passed through a reactor containing a hydrogenating catalyst for desulfurization and the organic sulfur compounds and olefins present in the olefin- and hydrogen-containing feed stream are entirely or partially hydrogenated to form hydrogen sulphide and alkanes, and • the olefin-containing feed stream is divided to give at least two feed streams before introduction into the reactor , and • the first feed stream is conveyed, via suitable devices via the top of the reactor, through a catalyst bed in the reactor containing a partial amount of a catalyst for hydrogenative desulfurization , and • a second feed stream is introduced laterally downstream of the first catalyst bed into the reactor and introduced into the reaction mixture which has been heated by the first hydrogenation, and the resulting gas stream is passed through a second catalyst bed in the reactor, and • the proportion of the olefins in at least one feed stream is controllable by means of separate introduction of olefins or diluent gas into the individual feed streams, where the temperature in the reactor is regulated by regulating the proportion of olefins in at least one feed stream, characterized in that • a gas which contains a significant proportion of olefins having from 2 to 6 carbon atoms is used as a feed stream for the hydrogenative desulfurization, and • the hydrogenation reaction is carried out at a temperature of from 250 to 400°C.
A power module comprising: a first metallic pattern formed on a front surface of an insulating mounting substrate ; at least one power device bonded on the first metallic pattern ; a frame member disposed so as to collectively enclose the at least one power device on the first metallic pattern, the thickness of the frame member being thicker than the thickness of the at least one power device ; a second metallic pattern disposed outside the frame member , the second metallic pattern being disposed on the front surface of the insulating mounting substrate ; and a resin layer configured to seal the at least one power device , the first metallic pattern , and the second metallic pattern including the frame member , wherein the coefficient of thermal expansion of the frame member is smaller than the coefficient of thermal expansion of the first metallic pattern , and in cross-section the frame member is any one of a T-shaped structure, an inverted-L-shaped structure, or a ┌-shaped structure. a first metallic pattern formed on a front surface of an insulating mounting substrate ; at least one power device bonded on the first metallic pattern ; a frame member disposed so as to collectively enclose the at least one power device on the first metallic pattern, the thickness of the frame member being thicker than the thickness of the at least one power device ; a second metallic pattern disposed outside the frame member , the second metallic pattern being disposed on the front surface of the insulating mounting substrate ; and a resin layer configured to seal the at least one power device , the first metallic pattern , and the second metallic pattern including the frame member , wherein the coefficient of thermal expansion of the frame member is smaller than the coefficient of thermal expansion of the first metallic pattern , and in cross-section the frame member is any one of a T-shaped structure, an inverted-L-shaped structure, or a ┌-shaped structure.
A circuit configured for adding multiple inputs, the circuit comprising: a plurality of unsigned adders, each unsigned adder being configured to perform a respective addition operation using a respective set of inputs derived from the multiple inputs, wherein each unsigned adder of the plurality of unsigned adders does not comprise normalization circuitry; a plurality of input selectors, each unsigned adder being associated with a respective input selector, the respective input selector being configured to: receive a first set of inputs derived from the multiple inputs; select at least two inputs from the first set of inputs, the at least two inputs being selected based on a sign bit for an input in the first set of inputs such that the selected at least two inputs have the same sign; provide the first set of inputs to the associated unsigned adder to generate a first sum of the selected at least two inputs; and a normalizing adder configured to: generate a final sum based on one or more sums generated using the plurality of unsigned adders that each sum at least two inputs that have the same sign, wherein the final sum corresponds to a sum of the multiple inputs. a plurality of unsigned adders, each unsigned adder being configured to perform a respective addition operation using a respective set of inputs derived from the multiple inputs, wherein each unsigned adder of the plurality of unsigned adders does not comprise normalization circuitry; a plurality of input selectors, each unsigned adder being associated with a respective input selector, the respective input selector being configured to: receive a first set of inputs derived from the multiple inputs; select at least two inputs from the first set of inputs, the at least two inputs being selected based on a sign bit for an input in the first set of inputs such that the selected at least two inputs have the same sign; provide the first set of inputs to the associated unsigned adder to generate a first sum of the selected at least two inputs; and receive a first set of inputs derived from the multiple inputs; select at least two inputs from the first set of inputs, the at least two inputs being selected based on a sign bit for an input in the first set of inputs such that the selected at least two inputs have the same sign; provide the first set of inputs to the associated unsigned adder to generate a first sum of the selected at least two inputs; and a normalizing adder configured to: generate a final sum based on one or more sums generated using the plurality of unsigned adders that each sum at least two inputs that have the same sign, wherein the final sum corresponds to a sum of the multiple inputs.