mhurhangee/ep-ind-claims huggingface dataset:
A method for soft combining of decrypted data, comprising: receiving a first encrypted packet comprising a first packet header and a first encrypted payload; fetching a first encryption key stream based on a portion of a first packet header and a first nonce; decrypting the first encrypted packet to generate a first decrypted packet using the first encryption key stream; storing the first decrypted packet; performing a first cyclic redundancy check, CRC, on the first encrypted packet; requesting a re-transmission of the first encrypted packet, based on determining that the first CRC indicates an error; receiving a second encrypted packet, wherein the second encrypted packet comprises the re-transmission of the first encrypted payload; fetching a second encryption key stream based on a portion of a second packet header and a second nonce; decrypting the second encrypted packet to generate a second decrypted packet using the second encryption key stream; combining the first stored decrypted packet and the second decrypted packet to generate a first corrected packet; storing the first corrected packet; encrypting the first corrected packet using the second encryption key stream; and performing a second CRC on the encrypted first corrected packet after encrypting the first corrected packet. receiving a first encrypted packet comprising a first packet header and a first encrypted payload; fetching a first encryption key stream based on a portion of a first packet header and a first nonce; decrypting the first encrypted packet to generate a first decrypted packet using the first encryption key stream; storing the first decrypted packet; performing a first cyclic redundancy check, CRC, on the first encrypted packet; requesting a re-transmission of the first encrypted packet, based on determining that the first CRC indicates an error; receiving a second encrypted packet, wherein the second encrypted packet comprises the re-transmission of the first encrypted payload; fetching a second encryption key stream based on a portion of a second packet header and a second nonce; decrypting the second encrypted packet to generate a second decrypted packet using the second encryption key stream; combining the first stored decrypted packet and the second decrypted packet to generate a first corrected packet; storing the first corrected packet; encrypting the first corrected packet using the second encryption key stream; and performing a second CRC on the encrypted first corrected packet after encrypting the first corrected packet.
A vacuum cleaner comprising: a cleaner body comprising a suction motor for generating a suction force; a suction part arranged to communicate with the cleaner body and receive air and dust; and a battery assembly arranged to supply power to the suction motor, wherein the battery assembly comprises: a plurality of battery units (131, 132), wherein each battery unit comprises a plurality of battery cells; and a plurality of support devices supporting the plurality of battery units, respectively, wherein the plurality of battery cells are supported by the support device so that battery cells are spaced apart from each other. a cleaner body comprising a suction motor for generating a suction force; a suction part arranged to communicate with the cleaner body and receive air and dust; and a battery assembly arranged to supply power to the suction motor, wherein the battery assembly comprises: a plurality of battery units (131, 132), wherein each battery unit comprises a plurality of battery cells; and a plurality of support devices supporting the plurality of battery units, respectively, wherein the plurality of battery cells are supported by the support device so that battery cells are spaced apart from each other. a plurality of battery units (131, 132), wherein each battery unit comprises a plurality of battery cells; and a plurality of support devices supporting the plurality of battery units, respectively, wherein the plurality of battery cells are supported by the support device so that battery cells are spaced apart from each other.
An implantable epicardial electrode assembly used in conjunction with an external pacemaker or defibrillator positioned outside of the body and permitting measurement, monitoring, stimulation and defibrillation (cardioversion) of the human heart; the assembly comprises electrodes configured to be fixed on the heart, whereby the electrode poles have a large surface area and are multipolar respectively and may be used at the same time as sensing electrodes and as stimulation electrodes; the assembly comprises at least two electrode poles (1,3) of large scale and a further electrode arranged between the electrode poles (1,3) whereby electrode is multipolar; and the electrode assembly further comprises a fixing element; and whereby defibrillation may occur between the isolated poles of electrode (1,3) and stimulation of the heart may occur between the individual poles of the multipolar electrode or between one of the electrode poles (1 or 3) and one of the poles of electrode characterized in that the electrode assembly is racket-shaped.
A transmitter for transmitting signals by using an orthogonal frequency division multiplexing, the transmitter being arranged to transmit first signals (Bi) to a plurality of reception devices (MS1, MS2, MS3) in an area formed by the transmitter and to transmit second signals to a specific device in the area, said first signals (Bi) and second signals being time division multiplexed, the transmitter characterised by comprising: a guard interval setting unit that sets: guard intervals for the first signals (Bi) having a length based on the maximum transmission delay difference of a path between the transmitter and the plurality of reception devices (MS1, MS2, MS3), and guard intervals for the second signals having a length based on the maximum transmission delay difference of a path between the transmitter and the specific device, and a power controller for controlling transmission power of the first signals, including corresponding guard intervals, to be greater than transmission power of the second signals, including corresponding guard intervals, according to the length of the corresponding guard intervals set by the guard interval setting unit. a guard interval setting unit that sets: guard intervals for the first signals (Bi) having a length based on the maximum transmission delay difference of a path between the transmitter and the plurality of reception devices (MS1, MS2, MS3), and guard intervals for the second signals having a length based on the maximum transmission delay difference of a path between the transmitter and the specific device, and a power controller for controlling transmission power of the first signals, including corresponding guard intervals, to be greater than transmission power of the second signals, including corresponding guard intervals, according to the length of the corresponding guard intervals set by the guard interval setting unit. guard intervals for the first signals (Bi) having a length based on the maximum transmission delay difference of a path between the transmitter and the plurality of reception devices (MS1, MS2, MS3), and guard intervals for the second signals having a length based on the maximum transmission delay difference of a path between the transmitter and the specific device, and a power controller for controlling transmission power of the first signals, including corresponding guard intervals, to be greater than transmission power of the second signals, including corresponding guard intervals, according to the length of the corresponding guard intervals set by the guard interval setting unit.
An anti-IHF antibody composition for (i) use in treating or preventing the recurrence of a Burkholderia infection in a Cystic Fibrosis patient in need thereof, (ii) use in treating an infection or disease caused by Burkholderia in a CF patient infected with Burkholderia, wherein the antibody specifically recognizes and binds the amino acid sequence RPGRNPKTGDVVPVSARRVV.
A method for determining spectral calibration data (λ cal (S d), S d,cal (λ)) of a Fabry-Perot interferometer, the method comprising: - forming a plurality of filtered spectral peaks (P' 1, P' 2) by filtering input light with a Fabry-Perot etalon such that a first filtered peak (P' 1) corresponds to a first transmittance peak (P 1) of the etalon, and such that a second filtered peak (P' 2) corresponds to a second transmittance peak (P 2) of the etalon, - using the Fabry-Perot interferometer for measuring a spectral intensity distribution (M(S d)) of the filtered spectral peaks (P' 1, P' 2), wherein the spectral intensity distribution (M(S d)) is measured by varying the mirror gap (d FP) of the Fabry-Perot interferometer, and by providing a control signal (S d) indicative of the mirror gap (d FP), and - determining the spectral calibration data (λ cal (S d), S d,cal (λ)) by matching the measured spectral intensity distribution (M(S d)) with the spectral transmittance (T E (λ)) of the etalon, wherein the minimum spectral transmittance (T E,MIN) of the etalon is lower than or equal to 90% of the maximum spectral transmittance (T E,MAX) of the etalon, and wherein the matching comprises comparing the measured spectral intensity distribution M(S d) with the spectral transmittance (T E (λ)) of the etalon by using cross-correlation analysis to determine a spectral calibration function. - forming a plurality of filtered spectral peaks (P' 1, P' 2) by filtering input light with a Fabry-Perot etalon such that a first filtered peak (P' 1) corresponds to a first transmittance peak (P 1) of the etalon, and such that a second filtered peak (P' 2) corresponds to a second transmittance peak (P 2) of the etalon, - using the Fabry-Perot interferometer for measuring a spectral intensity distribution (M(S d)) of the filtered spectral peaks (P' 1, P' 2), wherein the spectral intensity distribution (M(S d)) is measured by varying the mirror gap (d FP) of the Fabry-Perot interferometer, and by providing a control signal (S d) indicative of the mirror gap (d FP), and - determining the spectral calibration data (λ cal (S d), S d,cal (λ)) by matching the measured spectral intensity distribution (M(S d)) with the spectral transmittance (T E (λ)) of the etalon, wherein the minimum spectral transmittance (T E,MIN) of the etalon is lower than or equal to 90% of the maximum spectral transmittance (T E,MAX) of the etalon, and wherein the matching comprises comparing the measured spectral intensity distribution M(S d) with the spectral transmittance (T E (λ)) of the etalon by using cross-correlation analysis to determine a spectral calibration function.
An electric power generator, comprising: an internal combustion engine having a piston, a linear electric generator for generating an electric current, comprising a linearly movable part which is connected with the piston, and a stationary part, and an energy storing device for storing the energy which is generated by the linear electric generator by moving the linearly movable part relative to the stationary part during the work cycle of the piston, the energy storing device being adapted for applying at least a part of the stored energy to the linear electric generator such that the piston is movable back towards the upper dead center thereof during the exhaust-refresh cycle of the piston, wherein the internal combustion engine comprises a first cylinder and a second cylinder arranged in anti-parallel arrangement. an internal combustion engine having a piston, a linear electric generator for generating an electric current, comprising a linearly movable part which is connected with the piston, and a stationary part, and an energy storing device for storing the energy which is generated by the linear electric generator by moving the linearly movable part relative to the stationary part during the work cycle of the piston, the energy storing device being adapted for applying at least a part of the stored energy to the linear electric generator such that the piston is movable back towards the upper dead center thereof during the exhaust-refresh cycle of the piston, wherein the internal combustion engine comprises a first cylinder and a second cylinder arranged in anti-parallel arrangement.
Modular intensive care device, comprising a base module having a front side and a rear side and a plurality of functional modules that are releasably fastenable to and electrically connectable to the base module, which functional modules have an intensive care therapy functionality for the active treatment of acute disorders of the vital functions, wherein there are arranged in the region of the front side of the base module a display- and operating-unit and in the region of the rear side of the base module receiving devices for the functional modules, wherein the functional modules are each accommodated in separate housings and the base module comprises a base unit that projects beyond the rear side, which base unit comprises a power supply unit and a data processing unit which communicates with the display- and operating-unit and with the functional modules fastened to and electrically connected with the base module, wherein the functional modules are each independently registrable at the data processing unit and communication of the registered functional modules with each other is enabled, so that depending on measured parameters of one functional module another functional module is automatically engageable and all the functional modules can be controlled by the display- and operating-unit of the base module and the intensive care unit is formed as a compact, hand-portable unit, wherein the functional modules comprise a ventilation module and the ventilation module comprises a controller with an interface to which an anaesthetic device can be connected and controlled by means of the controller of the ventilation module.
Rotor for a laboratory centrifuge with a rotor body which in a peripheral area comprises accommodations for vessels containing a substance mixture for treatment by centrifuging and with a rotor hub inserted into a central opening of the rotor body, characterised by at least one helically winding continuous formation (24, 27) extending in the outside of the rotor hub wherein in the manner of an axial fluid working machine the formation (24, 27) builds a feeding means being effective in the direction of the axis of the rotor between the upper side and the lower side of the rotor.
A nanostructured LED comprising a substrate and at least one upstanding nanowire protruding from the substrate, a pn junction contributing to the formation of an active region to produce light, wherein a waveguide is formed by at least a part of the length of the nanowire, said wave guide directing at least a portion of the light produced in the active region in a direction given by the nanowire wherein a portion of the nanowire is enclosed by a volume element, the volume element being epitaxially connected to the nanowire, said volume element comprising a doping layer which provides the p or n region and a well layer which comprises the active region wherein the volume element provides a high doping level for the formation of the active region, wherein the nanowire has a first effective refractive index, n w, and a material (107,112,113,119) surrounding at least a portion of the waveguide has a second effective refractive index, n c, and the first refractive index is larger than the second refractive index, n w >n c, providing wave-guiding properties to the waveguide.
A hydraulic system for a work vehicle, comprising: at least one connection for connecting hydraulic circuits of the work vehicle to a hydraulic circuit of one implement; and at least one hydraulic oil quality sensor; said at least one sensor being located within said hydraulic circuits of the work vehicle and said at least one sensor providing at least one signal based on at least one measured parameter of interest of hydraulic oil flowing from the hydraulic circuit of said implement when attached to said work vehicle, characterized in that: said system further comprises at least one connector valve being operable to close the oil flow coming from the hydraulic circuit of said implement when said sensor measures a detrimental condition of said at least one parameter of interest such that significant degradation or contamination of the hydraulic oil within the hydraulic circuits of the work vehicle is prevented. at least one connection for connecting hydraulic circuits of the work vehicle to a hydraulic circuit of one implement; and at least one hydraulic oil quality sensor; said at least one sensor being located within said hydraulic circuits of the work vehicle and said at least one sensor providing at least one signal based on at least one measured parameter of interest of hydraulic oil flowing from the hydraulic circuit of said implement when attached to said work vehicle, characterized in that: said system further comprises at least one connector valve being operable to close the oil flow coming from the hydraulic circuit of said implement when said sensor measures a detrimental condition of said at least one parameter of interest such that significant degradation or contamination of the hydraulic oil within the hydraulic circuits of the work vehicle is prevented.
Device for filling at least one vessel with a filling product in a beverage filling system, having a product holding vessel for receiving the filling product and at least one filling member communicating with the product holding vessel for filling the vessel with the filling product, and a product feed tube for feeding filling product into the product holding vessel, wherein a seal for sealing the product feed tube with respect to an interior space of the product holding vessel is provided, characterised in that the seal can be switched between a sealing position for cleaning and a non-sealing position for the filling operation.
Stove having: - a combustion chamber and upper and lower chambers (3, 4) arranged on either side of the combustion chamber; - a frame; - a burner designed to produce a flame in the combustion chamber; - supply means, arranged in the lower chamber, for supplying the burner with fuel, preferably wood pellets; - first, second and third upper compartments (30, 31, 32) arranged in the upper chamber and intended to receive combustion air, combustion fumes and convection air, respectively; - feed means designed to feed combustion air; - evacuation means designed to evacuate the combustion fumes from the upper chamber; characterized in that: - the frame comprises a first pair of uprights and a second pair of uprights extending around the combustion chamber and around the upper and lower chambers (3, 4); in that - the feed means are designed to feed the combustion air to the burner directly from the outside; in that - a first cavity is formed inside each upright of the first pair of uprights; the first cavity having a first end communicating with the first upper compartment, and a second end communicating with the burner; and in that - a second cavity is formed inside each upright of the second pair of uprights; the second cavity having a first end communicating with the lower chamber, and a second end communicating with the second upper compartment or with the third upper compartment. - a combustion chamber and upper and lower chambers (3, 4) arranged on either side of the combustion chamber; - a frame; - a burner designed to produce a flame in the combustion chamber; - supply means, arranged in the lower chamber, for supplying the burner with fuel, preferably wood pellets; - first, second and third upper compartments (30, 31, 32) arranged in the upper chamber and intended to receive combustion air, combustion fumes and convection air, respectively; - feed means designed to feed combustion air; - evacuation means designed to evacuate the combustion fumes from the upper chamber; - the frame comprises a first pair of uprights and a second pair of uprights extending around the combustion chamber and around the upper and lower chambers (3, 4); in that - the feed means are designed to feed the combustion air to the burner directly from the outside; in that - a first cavity is formed inside each upright of the first pair of uprights; the first cavity having a first end communicating with the first upper compartment, and a second end communicating with the burner; and in that - a second cavity is formed inside each upright of the second pair of uprights; the second cavity having a first end communicating with the lower chamber, and a second end communicating with the second upper compartment or with the third upper compartment.
A surgical system, comprising: a robotic device: a surgical tool mounted on the robotic device; and a processing circuit programmed to: receive image data of a bone; generate a virtual bone model based on the image data; enable planning of a placement of an implant relative to the bone based on bone densities of a plurality of regions of the bone by generating, for display on a graphical user interface, a demarcation or a centroid of a first region of the plurality of regions based on the first region having a higher bone density than a second region of the plurality of regions of the bone; generate a control object based on the placement of the implant; and control the robotic device to confine the surgical tool to the control object. a surgical tool mounted on the robotic device; and a processing circuit programmed to: receive image data of a bone; generate a virtual bone model based on the image data; enable planning of a placement of an implant relative to the bone based on bone densities of a plurality of regions of the bone by generating, for display on a graphical user interface, a demarcation or a centroid of a first region of the plurality of regions based on the first region having a higher bone density than a second region of the plurality of regions of the bone; generate a control object based on the placement of the implant; and control the robotic device to confine the surgical tool to the control object. receive image data of a bone; generate a virtual bone model based on the image data; enable planning of a placement of an implant relative to the bone based on bone densities of a plurality of regions of the bone by generating, for display on a graphical user interface, a demarcation or a centroid of a first region of the plurality of regions based on the first region having a higher bone density than a second region of the plurality of regions of the bone; generate a control object based on the placement of the implant; and control the robotic device to confine the surgical tool to the control object.