mhurhangee/ep-ind-claims huggingface dataset:
A method for use in a wireless device of determining channel feedback for a physical channel, comprising: receiving, from a network node, control signaling comprising an indication of a number of transmission repetitions of the physical channel; receiving, from the network node, control signaling comprising an indication of a frequency hopping pattern of the physical channel; deriving the channel feedback for the physical channel based on the indication of the number of transmission repetitions, wherein deriving the channel feedback for the physical channel comprises deriving the channel feedback for the physical channel assuming that the frequency hopping pattern is used, and where a code rate corresponding to the channel feedback corresponds to an effective channel code rate of the physical channel which occupies a group of physical resources comprising the number of transmission repetitions; wherein the group of physical resources is a narrowband of fixed size comprising a number of Physical Resource Blocks, PRBs, in a subframe that is also used for Machine-Type Communication, MTC, Physical Downlink Control Channel, M-PDCCH, monitoring, wherein the channel feedback is chosen from the group consisting of a Channel State Information, CSI, feedback, a Channel Quality Indication, CQI, and a CSI feedback comprising a CQI and wherein: the frequency hopping pattern identifies a set of Physical Resource Blocks, PRBs, that the physical channel will occupy if the physical channel is transmitted in a first subframe; the set of PRBs is contiguous in frequency; and the set of PRBs in the first subframe is different if the physical channel is transmitted in a second subframe. receiving, from a network node, control signaling comprising an indication of a number of transmission repetitions of the physical channel; receiving, from the network node, control signaling comprising an indication of a frequency hopping pattern of the physical channel; deriving the channel feedback for the physical channel based on the indication of the number of transmission repetitions, wherein deriving the channel feedback for the physical channel comprises deriving the channel feedback for the physical channel assuming that the frequency hopping pattern is used, and where a code rate corresponding to the channel feedback corresponds to an effective channel code rate of the physical channel which occupies a group of physical resources comprising the number of transmission repetitions; wherein the group of physical resources is a narrowband of fixed size comprising a number of Physical Resource Blocks, PRBs, in a subframe that is also used for Machine-Type Communication, MTC, Physical Downlink Control Channel, M-PDCCH, monitoring, the frequency hopping pattern identifies a set of Physical Resource Blocks, PRBs, that the physical channel will occupy if the physical channel is transmitted in a first subframe; the set of PRBs is contiguous in frequency; and the set of PRBs in the first subframe is different if the physical channel is transmitted in a second subframe.
The use of mixtures of at least one dialkylphosphinic acid of the formula in which R 1, R 2 are the same or different and are each independently C 1 -C 18 -alkyl, C 2 -C 18 -alkenyl, C 6 -C 18 -aryl, C 7 -C 18 -alkylaryl, with at least one alkylphosphonic acid of the formula in which R 3 is C 1 -C 18 -alkyl, C 2 -C 18 -alkenyl, C 6 -C 18 -aryl or C 7 -C 18 -alkylaryl and wherein the mixture comprises 0.1 to 99.9% by weight of dialkylphosphinic acid of the formula and 0.1 to 99.9% by weight of alkylphosphonic acid of the formula, as a binder, as a crosslinker or accelerator in the curing of epoxy resins, polyurethanes and unsaturated polyester resins, as polymer stabilizers, as crop protection compositions, as sequestrants, as a mineral oil additive, as an anticorrosive, in washing and cleaning composition applications and in electronics applications. R 1, R 2 are the same or different and are each independently C 1 -C 18 -alkyl, C 2 -C 18 -alkenyl, C 6 -C 18 -aryl, C 7 -C 18 -alkylaryl, R 3 is C 1 -C 18 -alkyl, C 2 -C 18 -alkenyl, C 6 -C 18 -aryl or C 7 -C 18 -alkylaryl and wherein the mixture comprises 0.1 to 99.9% by weight of dialkylphosphinic acid of the formula and 0.1 to 99.9% by weight of alkylphosphonic acid of the formula, as a binder, as a crosslinker or accelerator in the curing of epoxy resins, polyurethanes and unsaturated polyester resins, as polymer stabilizers, as crop protection compositions, as sequestrants, as a mineral oil additive, as an anticorrosive, in washing and cleaning composition applications and in electronics applications.
A fluid dispenser (110;...510) for use with a fluid supply, the dispenser having a dosing chamber (120;...520), a fluid outlet (152;....952), and a piston member (114;...514) which is arranged to sealingly stroke in the dosing chamber (i) in a first direction for filling the dosing chamber with fluid from the supply, and (ii) in a second direction to dispense fluid from the dosing chamber towards the fluid outlet, wherein the dosing chamber has first (120a;...520a) and second (120b;...520b) sections of different widths, the first section is narrower than the second section and located in the second direction relative to the second section, characterised in that the piston member is in constant sealing contact with the second section as it strokes in the first and second directions, but only in sealing contact with the first section in a portion of the strokes in the first and second directions.
Scanning probe microscope comprising: - a specimen holder holding a specimen; and - a probe for scanning the relief of the upper surface of the specimen, which probe is movable in a vertical direction and two orthogonal horizontal directions, wherein - the upper surface of the specimen is tilted relative to at least one of the two orthogonal horizontal directions during said scanning; and characterized in that - the specimen holder is removable in a horizontal direction perpendicular to the tilting axis. - a specimen holder holding a specimen; and - a probe for scanning the relief of the upper surface of the specimen, which probe is movable in a vertical direction and two orthogonal horizontal directions, wherein - the upper surface of the specimen is tilted relative to at least one of the two orthogonal horizontal directions during said scanning; and - the specimen holder is removable in a horizontal direction perpendicular to the tilting axis.
Compound comprising a divalent unit selected from the group consisting of the following formula wherein R 1 and R 2 are independently of each other selected from the group consisting of H, halogen, carbyl and hydrocarbyl, and X is at each occurrence independently selected from the group consisting of CR 3 R 4, SiR 3 R 4, Ge R 3 R 4 and C=CR 3 R 4, with R 3 and R 4 being independently of each other selected from the group consisting of hydrogen, carbyl and hydrocarbyl, and wherein the asterisk ("*") denotes a linkage to an adjacent unit or group.
An eye tracking method comprising: determining whether a reflection area (113, 133, 136) generated by an illumination is included in an input image (110, 130); in response to determining that the reflection area is included in the input image, removing the reflection area from the input image; and outputting coordinates corresponding to an eye of a user from the input image in which the reflection area is removed; characterised in that removing the reflection area from the input image comprises processing the input image including the reflection area through machine learning based on a database including an image in which a reflection area is removed and further including images obtained by inversely transforming high illumination images into low-illumination images. determining whether a reflection area (113, 133, 136) generated by an illumination is included in an input image (110, 130); in response to determining that the reflection area is included in the input image, removing the reflection area from the input image; and outputting coordinates corresponding to an eye of a user from the input image in which the reflection area is removed;
A video coder for predictive coding a video stream of subsequent frames according to motion compensation into an encoded video bit stream, comprising: - a frame buffer configured to store at least one reference frame of the video stream, - a prediction unit configured to generate a prediction block of a current block of a current frame from a reference block of the reference frame according to a motion vector having fractional-pel resolution, said fractional-pel resolution defining an integer-pel position and fractional-pel positions, wherein the prediction unit is configured to interpolate the reference block according to the fractional-pel resolution by choosing one interpolation filter among the at least three following interpolation filters: - a blurring interpolation filter, - a tap filter, and - the tap filter followed by a sharpening filter, wherein the sharpening filter is a non-linear filter; and the blurring interpolation filter is a Gaussian filter or a bi-linear filter. - a frame buffer configured to store at least one reference frame of the video stream, - a prediction unit configured to generate a prediction block of a current block of a current frame from a reference block of the reference frame according to a motion vector having fractional-pel resolution, said fractional-pel resolution defining an integer-pel position and fractional-pel positions, - a blurring interpolation filter, - a tap filter, and - the tap filter followed by a sharpening filter,
A method for the preparation of an eggshell catalyst comprising the steps of; i) immersing pellets or extrudates of an oxidic support with a cross-section that is lobed or fluted and having a width of ≥ 0.5 mm and a length from 0.5 mm to 50 mm in a solution of cobalt ammine carbonate, ii) heating the solution containing the pellets or extrudates to a temperature between 60 and 120°C to precipitate cobalt compounds onto their surface, iii) recovering a catalyst precursor comprising supported cobalt compounds from the solution once substantially all the cobalt in the solution has been precipitated, iv) drying the supported cobalt compounds to form a dried catalyst precursor, and v) sieving the dried catalyst precursor to remove unsupported cobalt compounds. i) immersing pellets or extrudates of an oxidic support with a cross-section that is lobed or fluted and having a width of ≥ 0.5 mm and a length from 0.5 mm to 50 mm in a solution of cobalt ammine carbonate, ii) heating the solution containing the pellets or extrudates to a temperature between 60 and 120°C to precipitate cobalt compounds onto their surface, iii) recovering a catalyst precursor comprising supported cobalt compounds from the solution once substantially all the cobalt in the solution has been precipitated, iv) drying the supported cobalt compounds to form a dried catalyst precursor, and v) sieving the dried catalyst precursor to remove unsupported cobalt compounds.
Method for producing hygiene articles, each having an absorber core which is provided on the upper and lower sides thereof with one or more layers of material webs (8, 14), in which method a portioned material stream, formed from a mixture provided for forming the absorber cores, is provided in each case with a glued material web (8, 14), firstly on the upper side and then on the lower side, wherein the material stream provided with the upper-side material web is transported by means of a transport means, arranged on the upper side, to a feed station for the lower-side material web and, during this transport, is supported below by a travelling screen belt.
Method of operating a motor vehicle, in particular for supplying power to a motor vehicle during and/or in the period after a collision, wherein the motor vehicle is at least partially de-energised and the supply of power to a vehicle system is determined and switched during and/or after the collision on the basis of at least one respective criterion, wherein in the context of one criterion the motor vehicle systems are divided into at least two classes of vehicle systems, wherein the supply of power is determined at least partially as a function of the class to which the vehicle system belongs, characterised in that a third class of vehicle systems which is dependent upon other vehicle systems and/or available data is de-energised when an availability criterion is present which indicates that one or more predefined other vehicle systems and/or data are not available.
Electric drive unit, in particular for a vehicle or motor vehicle, having an electric machine and a transmission, wherein the electric machine is accommodated in a drive housing and the transmission is accommodated in a transmission housing, wherein an interior space of the drive housing and an interior space of the transmission housing are separated from one another by a bearing wall, wherein at least one cooling channel for cooling the electric machine is formed on or in the drive housing, characterized in that the electric drive unit has an insert which is designed and arranged in such a way that a cavity is formed in the drive housing between the bearing wall and the insert, wherein the cavity is connected fluidically to the cooling channel.
Method for operating an operating system, in particular of a motor vehicle with the steps: - detecting by means of a pressure detection device whether greater pressure than a predefined pressure threshold value is applied to an operating field of the operating system by a actuation element; - if it is detected that greater pressure than the pressure threshold value is applied to the operating field: emitting at least one actuation signal by means of the operating field; wherein - the size of a support surface (22, 22') of the actuation element contacting the operating field is detected by means of a detection device; - the actuation signal is only then emitted, if during the exertion of pressure on the operating field, it has been detected that the support surface (22, 22') of the actuation element has been changed by a predefined factor wherein the detection of the change of the support surface (22, 22') is used to secure against undesired false tripping. - detecting by means of a pressure detection device whether greater pressure than a predefined pressure threshold value is applied to an operating field of the operating system by a actuation element; - if it is detected that greater pressure than the pressure threshold value is applied to the operating field: emitting at least one actuation signal by means of the operating field; - the size of a support surface (22, 22') of the actuation element contacting the operating field is detected by means of a detection device; - the actuation signal is only then emitted, if during the exertion of pressure on the operating field, it has been detected that the support surface (22, 22') of the actuation element has been changed by a predefined factor wherein the detection of the change of the support surface (22, 22') is used to secure against undesired false tripping.
Reactive power compensator for a three-phase network having a first phase, a second phase and a third phase, the compensator comprising an assembly of capacitor(s) (C1, C2, C3), at least two electromechanical contactors (CT1, CT2) electrically connected to the assembly of capacitor(s) (C1, C2, C3), each contactor (CT1, CT2) comprising at least one upstream power terminal and at least one downstream power terminal, an electric current being suitable for circulating between the upstream and downstream power terminals (18, 20) in the closed position of the contactor (CT1, CT2), a first contactor being suitable for being connected to the first phase and a second contactor being suitable for being connected to the third phase, means for measuring the voltage between the upstream and downstream power terminals (18, 20) of at least one electromechanical contactor (CT1, CT2), and means (36, 38) for controlling the electromechanical contactors (CT1, CT2) according to a predetermined control algorithm, characterised in that the control algorithm comprises the closure of a respective electromechanical contactor (CT1, CT2) for a substantially zero voltage (U AC, U BD) between the upstream and downstream power terminals (18, 20) thereof, and the opening of a respective electromechanical contactor (CT1, CT2) for a substantially minimum power value of the capacitor or the capacitors (C1, C2, C3) to which said contactor (CT1, CT2) is connected, in that the assembly of capacitors (C1, C2, C3) comprises three capacitors (C1, C2, C3) arranged according to a triangular configuration, a first capacitor being connected between the first and second phases, a second capacitor being connected between the second and third phases, and a third capacitor being connected between the first and third phases, characterised in that the conditions for opening the first contactor to obtain the minimum power value stored in the capacitors (C1, C2, C3) verify the following equation: U 31 − U 12 = 0 where U31 represents the voltage at the terminals of the third capacitor and U12 represents the voltage at the terminals of the first capacitor, and in that the conditions for opening the second contactor to obtain the minimum power value stored in the capacitors (C1, C2, C3) verify the following equation: U 31 − U 23 = 0 where U31 represents the voltage at the terminals of the third capacitor and U23 represents the voltage at the terminals of the second capacitor.
A storage boiler comprising: a core comprising a heat storage medium; a base to which the core is mounted, and a fluid system extending through the core and comprising: a heat exchanger; a cooled fluid passageway extending from the heat exchanger to the core; a heated fluid passageway extending from the core to the heat exchanger; a fan for circulating a transfer fluid through the cooled fluid passageway, the core, the heated fluid passageway and the heat exchanger; and a bypass arrangement for selectively communicating at least part of the transfer fluid from the cooled fluid passageway to the heated fluid passageway without passing through the core and mixing cooled transfer fluid with heated transfer fluid prior to the mixed transfer fluid entering the heat exchanger, wherein the bypass arrangement is mounted inside the base; and a control system configured to operate the fan, by varying the speed of the fan, for controlling the flowrate of transfer fluid through the core and fluid system and to operate the bypass arrangement for controlling the flowrate of transfer fluid through the bypass arrangement. a core comprising a heat storage medium; a base to which the core is mounted, and a fluid system extending through the core and comprising: a heat exchanger; a cooled fluid passageway extending from the heat exchanger to the core; a heated fluid passageway extending from the core to the heat exchanger; a fan for circulating a transfer fluid through the cooled fluid passageway, the core, the heated fluid passageway and the heat exchanger; and a bypass arrangement for selectively communicating at least part of the transfer fluid from the cooled fluid passageway to the heated fluid passageway without passing through the core and mixing cooled transfer fluid with heated transfer fluid prior to the mixed transfer fluid entering the heat exchanger, wherein the bypass arrangement is mounted inside the base; and a control system configured to operate the fan, by varying the speed of the fan, for controlling the flowrate of transfer fluid through the core and fluid system and to operate the bypass arrangement for controlling the flowrate of transfer fluid through the bypass arrangement. a heat exchanger; a cooled fluid passageway extending from the heat exchanger to the core; a heated fluid passageway extending from the core to the heat exchanger; a fan for circulating a transfer fluid through the cooled fluid passageway, the core, the heated fluid passageway and the heat exchanger; and a bypass arrangement for selectively communicating at least part of the transfer fluid from the cooled fluid passageway to the heated fluid passageway without passing through the core and mixing cooled transfer fluid with heated transfer fluid prior to the mixed transfer fluid entering the heat exchanger, wherein the bypass arrangement is mounted inside the base; and a control system configured to operate the fan, by varying the speed of the fan, for controlling the flowrate of transfer fluid through the core and fluid system and to operate the bypass arrangement for controlling the flowrate of transfer fluid through the bypass arrangement.
A steam electrolysis cell, comprising an anode layer, a cathode layer, and a proton conducting oxide electrolyte layer between the anode layer and the cathode layer, wherein the anode layer comprises a perovskite oxide, and the perovskite oxide comprises Ba and Co, and wherein the molar ratio of Co in the B site of the perovskite oxide is 90% or more. comprising an anode layer, a cathode layer, and a proton conducting oxide electrolyte layer between the anode layer and the cathode layer, wherein the anode layer comprises a perovskite oxide, and the perovskite oxide comprises Ba and Co, and wherein the molar ratio of Co in the B site of the perovskite oxide is 90% or more.
A machine-implemented method, implemented at a secure module (102, 402, 600, 700), the secure module being part of a self-contained device that is plugged into a host computer (126, 404) and is for acquiring user data and the secure module including a secure area, the secure area comprising access key circuitry having a memory, the memory including access keys and instructions for generating a passcode, the method comprising: receiving user data from a user and authenticating the user data; sending to the host computer a request to perform a task, whereby performing the task requires an access key, receiving a passcode from the host computer; authenticating the host computer by comparing the passcode received to a passcode generated by instructions for generating the passcode; if the host computer is authenticated, then retrieving the access key from the memory and sending the access key to the host computer, and, optionally, generating a new passcode and sending the new passcode to the host computer; wherein, if the method does not comprise generating and sending a new passcode to the host computer, the host computer is adapted to generate a new passcode from the access key; and wherein the new passcode is not stored on the secure module (102, 402, 600, 700) after the sending of the new passcode to the host computer. receiving user data from a user and authenticating the user data; sending to the host computer a request to perform a task, whereby performing the task requires an access key, receiving a passcode from the host computer; authenticating the host computer by comparing the passcode received to a passcode generated by instructions for generating the passcode; if the host computer is authenticated, then retrieving the access key from the memory and sending the access key to the host computer, and, optionally, generating a new passcode and sending the new passcode to the host computer; wherein, if the method does not comprise generating and sending a new passcode to the host computer, the host computer is adapted to generate a new passcode from the access key; and wherein the new passcode is not stored on the secure module (102, 402, 600, 700) after the sending of the new passcode to the host computer.