mhurhangee/ep-ind-claims huggingface dataset:
An automated parameter-setting respiratory treatment apparatus for delivering a controlled flow of breathable gas, the apparatus comprising: a controller having at least one processor to access data representing an array of pressure delivery parameter settings and at least one respiratory pathology indicator, the at least one respiratory pathology indicator representing a respiratory condition diagnosis; the controller being further configured in a settings selection procedure to set control of the delivery of the flow of breathable gas by the respiratory treatment apparatus: (a) to prompt for an input of the at least one respiratory pathology indicator; (b) to receive input associated with the at least one respiratory pathology indicator; and (c) in response to the input, select the array of pressure delivery parameter settings based on the at least one respiratory pathology indicator to deliver a controlled flow of breathable gas. a controller having at least one processor to access data representing an array of pressure delivery parameter settings and at least one respiratory pathology indicator, the at least one respiratory pathology indicator representing a respiratory condition diagnosis; the controller being further configured in a settings selection procedure to set control of the delivery of the flow of breathable gas by the respiratory treatment apparatus: (a) to prompt for an input of the at least one respiratory pathology indicator; (b) to receive input associated with the at least one respiratory pathology indicator; and (c) in response to the input, select the array of pressure delivery parameter settings based on the at least one respiratory pathology indicator to deliver a controlled flow of breathable gas. (a) to prompt for an input of the at least one respiratory pathology indicator; (b) to receive input associated with the at least one respiratory pathology indicator; and (c) in response to the input, select the array of pressure delivery parameter settings based on the at least one respiratory pathology indicator to deliver a controlled flow of breathable gas.
An image processing system for generating at least one output image associated with an output viewpoint from an input image associated with an input viewpoint through a depth-dependent transformation and a reconstruction filtering operation; the images being represented as input pixels of an input pixel array and output pixels of an output pixel array, respectively; the input image including, for each input pixel, an associated input pixel value and input pixel depth, and the reconstruction filtering operation using a reconstruction filter footprint associated with each input pixel; the image processing system including: an input means for receiving the input image; a video processor configured to create the output pixels by: for each input pixel, transforming the input pixel to a transformed input pixel as a function of the associated input pixel depth and transforming the reconstruction filter footprint to a transformed filter footprint as a function of the associated input pixel depth, and performing a reconstruction filtering operation on a plurality of the transformed input pixels using the transformed filter footprints; and an output means for providing the output image for subsequent rendering. an input means for receiving the input image; a video processor configured to create the output pixels by: for each input pixel, transforming the input pixel to a transformed input pixel as a function of the associated input pixel depth and transforming the reconstruction filter footprint to a transformed filter footprint as a function of the associated input pixel depth, and performing a reconstruction filtering operation on a plurality of the transformed input pixels using the transformed filter footprints; and for each input pixel, transforming the input pixel to a transformed input pixel as a function of the associated input pixel depth and transforming the reconstruction filter footprint to a transformed filter footprint as a function of the associated input pixel depth, and performing a reconstruction filtering operation on a plurality of the transformed input pixels using the transformed filter footprints; and an output means for providing the output image for subsequent rendering.
Radiator grille assembly for a vehicle, comprising at least one supporting frame surrounding a main air inlet, a number of closing flaps mounted for rotation about a flap axis of rotation between a closed position and an open position, flap levers (3.1) in operative connection with a slide bolt being integrally formed with or formed on the closing flaps, and an actuator for positioning the closing flaps, wherein a flap frame is provided for the accommodation of the closing flaps, the slide bolt and the actuator, characterised in that the flap frame is designed in two parts and can be secured to the supporting frame of a radiator shield in a non-positive or positive manner and/or by adhesive force.
Sliding and rotating leaf system, comprising a rail profile in which each of at least two leaves are mounted movably on two bearing elements and which is fitted with a straddling clamp to hold a locking element arranged on each of the leaves, in the opposing arms of which clamps, arc-shaped recesses are arranged in series which have a groove at their centre to receive the locking plate of the locking element, where, at a distance from the straddling clamp, at least one lateral outlet opening is arranged in the rail profile for releasing the bearing element of a leaf, characterised in that the radius of the arc-shaped recesses corresponds approximately to the radius of the guide rollers of the bearing element, where at least one supporting element is arranged on the side of the rail profile between the outlet opening and the straddling clamp to embrace the outer edge of the rail profile which supporting element interacts with a pressure element arranged on each of the leaves in such a way that when the bearing element of a leaf is released, the leaf is prevented from tilting to the side until the locking plate of the locking element has engaged in the grooves of the straddling clamp i.e. until the locking element has reached its holding position, where the pressure element has a grooved piece with a substantially T-shaped cross section on the side of which opposite the cross piece a guiding plate is arranged, where, on the top side of the at least two leaves facing the rail profile, there is a C-shaped profile which is open in the direction facing the rail profile and into which the grooved piece of the pressure element can be pushed, and where the rail profile has a right-angled ridge running in the longitudinal direction on the side facing the outlet opening, which engages into a slot-shaped recess in the supporting element.
A beam training method, comprising: determining, by a terminal device, a pilot sequence combination which comprises n pilot sequences, wherein the pilot sequence combination is selected from a preset set of pilot sequence combinations, wherein the n pilot sequences are at least partially different, and n is a positive integer greater than 1, wherein the pilot sequence combination determined by the terminal device that is beam-trained within one uplink beam training period is unique; sending, by the terminal device, the determined pilot sequence combination which comprises n pilot sequences to a network device by using n beams in n timeslots within the uplink beam training period, wherein each of the n pilot sequences is sent in different timeslots within the uplink beam training period; and receiving, by the terminal device, pilot sequence information and timeslot information that are sent by the network device, wherein the pilot sequence information is information about at least some of the pilot sequences that are in the n pilot sequences and that are received by the network device, and the timeslot information is information about timeslots in which said at least some of the pilot sequences corresponding to the pilot sequence information are sent. determining, by a terminal device, a pilot sequence combination which comprises n pilot sequences, wherein the pilot sequence combination is selected from a preset set of pilot sequence combinations, wherein the n pilot sequences are at least partially different, and n is a positive integer greater than 1, wherein the pilot sequence combination determined by the terminal device that is beam-trained within one uplink beam training period is unique; sending, by the terminal device, the determined pilot sequence combination which comprises n pilot sequences to a network device by using n beams in n timeslots within the uplink beam training period, wherein each of the n pilot sequences is sent in different timeslots within the uplink beam training period; and receiving, by the terminal device, pilot sequence information and timeslot information that are sent by the network device, wherein the pilot sequence information is information about at least some of the pilot sequences that are in the n pilot sequences and that are received by the network device, and the timeslot information is information about timeslots in which said at least some of the pilot sequences corresponding to the pilot sequence information are sent.
A wireless communication apparatus operable in a communication system, the wireless communication apparatus comprising: means for indicating a state of a first channel condition for a first carrier frequency group using a first plurality of bits, and indicating a state of a second channel condition for a second carrier frequency group using a second plurality of bits, each of the first and second plurality of bits being equally arranged in a plurality of same bit positions between a most significant bit, MSB, position and a least significant bit, LSB, position, wherein the states of the first and second channel condition are each indicated in tiers, wherein bits that are closer to the MSB position refer to higher tier information and bits that are closer to the LSB position refer to lower tier information; means for identifying a bit position in at least one of the plurality of bit positions in which a bit value has changed to identify a changed bit position; and means for communicating from a receiver to a transmitter data indicative of bit values of all bits located in the changed bit position within each of the first and second plurality of bits, wherein bits referring to higher tier information are changed less often than bits referring to lower tier information. means for indicating a state of a first channel condition for a first carrier frequency group using a first plurality of bits, and indicating a state of a second channel condition for a second carrier frequency group using a second plurality of bits, each of the first and second plurality of bits being equally arranged in a plurality of same bit positions between a most significant bit, MSB, position and a least significant bit, LSB, position, wherein the states of the first and second channel condition are each indicated in tiers, wherein bits that are closer to the MSB position refer to higher tier information and bits that are closer to the LSB position refer to lower tier information; means for identifying a bit position in at least one of the plurality of bit positions in which a bit value has changed to identify a changed bit position; and means for communicating from a receiver to a transmitter data indicative of bit values of all bits located in the changed bit position within each of the first and second plurality of bits, wherein bits referring to higher tier information are changed less often than bits referring to lower tier information.
A node (N, N') of a packet-switched communication network, said node (N, N') comprising: - at least two transmission interfaces (TIF1, TIF2; TIF1', TIF2') having respective transmission capacities (TR1, TR2), said at least two transmission interfaces (TIF1, TIF2; TIF1', TIF2') being associated to respective counters (C1, C2; C1', C2'); - a dispatcher (D, D') configured to distribute data units of a traffic flow to said at least two transmission interfaces (TIF1, TIF2; TIF1', TIF2'); and - a control logic (CL, CL') configured to, upon reception of a data unit: - determine a minimum value Vmin among respective values (V1, V2) of said counters (C1, C2; C1', C2'); - operate said dispatcher to forward said data unit to the transmission interface associated to the counter Cmin having said minimum value Vmin; and - increase said minimum value Vmin by a number indicative of a length PL of said data unit, said control logic (CL, CL') being further configured to decrease said values (V1, V2) of said counters at respective rates equal to said respective transmission capacities (TR1, TR2). - at least two transmission interfaces (TIF1, TIF2; TIF1', TIF2') having respective transmission capacities (TR1, TR2), said at least two transmission interfaces (TIF1, TIF2; TIF1', TIF2') being associated to respective counters (C1, C2; C1', C2'); - a dispatcher (D, D') configured to distribute data units of a traffic flow to said at least two transmission interfaces (TIF1, TIF2; TIF1', TIF2'); and - a control logic (CL, CL') configured to, upon reception of a data unit: - determine a minimum value Vmin among respective values (V1, V2) of said counters (C1, C2; C1', C2'); - operate said dispatcher to forward said data unit to the transmission interface associated to the counter Cmin having said minimum value Vmin; and - increase said minimum value Vmin by a number indicative of a length PL of said data unit, said control logic (CL, CL') being further configured to decrease said values (V1, V2) of said counters at respective rates equal to said respective transmission capacities (TR1, TR2). - determine a minimum value Vmin among respective values (V1, V2) of said counters (C1, C2; C1', C2'); - operate said dispatcher to forward said data unit to the transmission interface associated to the counter Cmin having said minimum value Vmin; and - increase said minimum value Vmin by a number indicative of a length PL of said data unit, said control logic (CL, CL') being further configured to decrease said values (V1, V2) of said counters at respective rates equal to said respective transmission capacities (TR1, TR2).
Method for stabilizing a vehicle having a brake system which can be actuated by a driver of the vehicle, in order to bring about a braking force at at least two vehicle wheels (102a-d), a build up of a braking force which corresponds to the driver request being permitted at a first vehicle wheel (102a-d) of an axle during a brake actuation of the driver, and a braking force which is reduced in comparison with the driver request being set at a second vehicle wheel (102a-d) of the axle if the satisfying of an activation criterion is determined, characterized in that the satisfying of an activation criterion is determined if, while or after an understeer vehicle behavior is established, it is established that a filtered value of a deviation between a detected yaw rate and a model based setpoint yaw rate exceeds an unfiltered value of the deviation by more than one predetermined value.
Detection device for container filling comprising: - a tubular portion configured to be fixed to a pole or to a support, - a measuring portion constrained to said tubular portion and horizontally diametrically protruding from said tubular portion defining a free area of said measuring portion facing the ground, and comprising: - data connection means with the outside, - a laser measurer configured to measure the distance between said laser measurer and a first obstacle surface to the laser light emitted by said laser measurer, - control means of the electronic type suitable for governing the detection device, characterized in that - the laser light is emitted by said laser measurer along a plurality of directions, reciprocally forming, starting from said laser measurer, an angle (α) having a maximum value of at least 10°, and in that - said angle (α) is adjustable by rotation of said laser measurer, and in that - the maximum and minimum absolute value or the average value of the inclination of said directions with respect to the gravitational gradient, is adjustable. - a tubular portion configured to be fixed to a pole or to a support, - a measuring portion constrained to said tubular portion and horizontally diametrically protruding from said tubular portion defining a free area of said measuring portion facing the ground, and comprising: - data connection means with the outside, - a laser measurer configured to measure the distance between said laser measurer and a first obstacle surface to the laser light emitted by said laser measurer, - data connection means with the outside, - a laser measurer configured to measure the distance between said laser measurer and a first obstacle surface to the laser light emitted by said laser measurer, - control means of the electronic type suitable for governing the detection device, - the laser light is emitted by said laser measurer along a plurality of directions, reciprocally forming, starting from said laser measurer, an angle (α) having a maximum value of at least 10°, and in that - said angle (α) is adjustable by rotation of said laser measurer, and in that - the maximum and minimum absolute value or the average value of the inclination of said directions with respect to the gravitational gradient, is adjustable.
A method of fabricating a master plate for producing diffractive structures, the method comprising - providing a substrate having a periodic initial surface profile, - filling the initial surface profile uniformly at least partly with filling material (16A, 16B), and - partially removing the filling material (16A, 16B) in order to produce a master plate having a periodic height-modulated surface profile formed by said substrate and said filling material (16A', 16B'), characterized in that - the initial surface profile comprises fill factor modulation, which is persisted in the height-modulated surface profile, and wherein o said removing of the filling material partially comprises - applying a physical mask layer having an uneven height profile on the filling material, and - removing at each location said mask layer and an underlying filling material, so as to replicate the height profile of the mask layer to corresponding sections of the filling material in order to produce said height-modulated surface profile. - providing a substrate having a periodic initial surface profile, - filling the initial surface profile uniformly at least partly with filling material (16A, 16B), and - partially removing the filling material (16A, 16B) in order to produce a master plate having a periodic height-modulated surface profile formed by said substrate and said filling material (16A', 16B'), - the initial surface profile comprises fill factor modulation, which is persisted in the height-modulated surface profile, and wherein o said removing of the filling material partially comprises - applying a physical mask layer having an uneven height profile on the filling material, and - removing at each location said mask layer and an underlying filling material, so as to replicate the height profile of the mask layer to corresponding sections of the filling material in order to produce said height-modulated surface profile. o said removing of the filling material partially comprises - applying a physical mask layer having an uneven height profile on the filling material, and - removing at each location said mask layer and an underlying filling material, so as to replicate the height profile of the mask layer to corresponding sections of the filling material in order to produce said height-modulated surface profile. - applying a physical mask layer having an uneven height profile on the filling material, and - removing at each location said mask layer and an underlying filling material, so as to replicate the height profile of the mask layer to corresponding sections of the filling material in order to produce said height-modulated surface profile.
A process for treating a natural gas stream containing methane and one or more higher hydrocarbons selected from one or more of ethane, propane, butanes, C5+ paraffins, cycloalkanes and aromatic hydrocarbons, comprising the steps of: (i) mixing at least a portion of the natural gas stream with steam at a steam: carbon ratio in the range 0.2:1 to 3:1 based on the higher hydrocarbon carbon, and hydrogen at a concentration up to 5% vol, (ii) passing the mixture adiabatically over a supported precious metal reforming catalyst at an inlet temperature in the range 130-300°C to generate a reformed gas mixture comprising methane, steam, carbon dioxide, carbon monoxide and hydrogen, (iii) cooling the reformed gas mixture to below the dew point to condense water and removing the condensate to provide a de-watered reformed gas mixture, and (iv) passing the de-watered reformed gas mixture through an acid gas recovery unit to remove carbon dioxide and at least a portion of the hydrogen and carbon monoxide, thereby generating a methane stream. (i) mixing at least a portion of the natural gas stream with steam at a steam: carbon ratio in the range 0.2:1 to 3:1 based on the higher hydrocarbon carbon, and hydrogen at a concentration up to 5% vol, (ii) passing the mixture adiabatically over a supported precious metal reforming catalyst at an inlet temperature in the range 130-300°C to generate a reformed gas mixture comprising methane, steam, carbon dioxide, carbon monoxide and hydrogen, (iii) cooling the reformed gas mixture to below the dew point to condense water and removing the condensate to provide a de-watered reformed gas mixture, and (iv) passing the de-watered reformed gas mixture through an acid gas recovery unit to remove carbon dioxide and at least a portion of the hydrogen and carbon monoxide, thereby generating a methane stream.
A tag system for facilitating a purchase of a sellable item, the tag system comprising an anti-theft tag and an NFC tag, wherein the NFC tag comprises a storage unit for storing payment transaction data, wherein said NFC tag is arranged to support a payment transaction for purchasing the sellable item by communicating said payment transaction data to an NFC-enabled mobile device, and wherein the NFC tag is further arranged to deactivate the anti-theft tag when the payment transaction has been completed, wherein the NFC tag is arranged to deactivate the anti-theft tag upon or after receipt of a confirmation signal from the NFC-enabled mobile device, said confirmation signal indicating that the payment transaction has been completed.