mhurhangee/ep-ind-claims huggingface dataset:
A control method implemented by an electronic device operating according to the EMV protocol, said method comprising the following steps: - receiving an instruction command comprising identifiers for instructions pre-recorded in a memory of the electronic device; - forming, from identifiers, a code defining a set of instructions, said set of instructions combining the prerecorded instructions for the execution of a first security check; and - recording, in a memory of the electronic device, the code so as to configure the electronic device to execute the first security check. - receiving an instruction command comprising identifiers for instructions pre-recorded in a memory of the electronic device; - forming, from identifiers, a code defining a set of instructions, said set of instructions combining the prerecorded instructions for the execution of a first security check; and - recording, in a memory of the electronic device, the code so as to configure the electronic device to execute the first security check.
An aircraft having a turbine engine with a rapid reactivation system, the system comprising an electrical machine that is DC powered from an on-board electrical power supply network included in said aircraft, and the aircraft being characterized in that it further comprises a switch interposed between the on-board electrical power supply network and the electrical machine, said switch being open to isolate the electrical machine from the on-board electrical power supply network when emergency reactivation is selected, an additional set comprising a plurality of N electrical energy storage elements (30a,..., 30n), and a control unit adapted for controlling a device for discharging the electrical energy storage elements (30a,..., 30n), the device for discharging the electrical energy storage elements (30a,..., 30n) being incorporated in the aircraft and being adapted to enable a series circuit comprising at least some of the N electrical energy storage elements (30a,..., 30n) to be connected in parallel with the on-board electrical power supply network, the voltage across the terminals of the electrical machine being configured by sequentially switching the number of the N storage elements (30a,..., 30n) so as to accompany the increase in the back-electromotive force from the electrical machine progressively as the speed of the gas generator associated with the turbine engine increases in such a manner, that while the rapid reactivation system is in operation, the electrical machine is powered by a voltage level above the level of its nominal characteristics.
Exhaust-gas treatment device having a honeycomb body through which an exhaust gas can flow and which is wound or stacked with at least partially structured sheet-metal layers such that ducts are formed through which an exhaust gas can flow in an axial direction from an inlet side to an outlet side, wherein a first proportion of the sheet-metal layers ends flush at a first end surface assigned at least to the inlet side or to the outlet side, and a second proportion of the sheet-metal layers ends at a second end surface likewise assigned at least to the inlet side or to the outlet side, wherein the second end surface has a spacing to the first end surface by virtue of a first length, in the axial direction, of the first proportion of sheet-metal layers being greater than a second length, in the axial direction, of the second proportion of sheet-metal layers, wherein, owing to the spacing between the first end surface and the second end surface, a receptacle is formed, in which receptacle there is arranged a heating element, wherein the sheet-metal layers have alternately arranged smooth sheet-metal layers and corrugated sheet-metal layers, characterized in that the second proportion of the sheet-metal layers comprises only corrugated sheet-metal layers.
A population of mesenchymal stem cells (MSCs) that expresses the Hematopoietic Cell E-/L-selectin Ligand (HCELL) for use in a method of treating diabetes, the method comprising: administering to a subject the population of MSCs, wherein said administering occurs coincident with E-selectin expression on endothelial cells within the target tissue and/or coincident with accumulation of leukocytes within the target tissue. administering to a subject the population of MSCs, wherein said administering occurs coincident with E-selectin expression on endothelial cells within the target tissue and/or coincident with accumulation of leukocytes within the target tissue.
X-ray device with at least one high-voltage supply unit (22a-b), with at least one x-ray radiation unit (20a-b) for generating an x-ray (48a-b), with at least one focusing unit (24a-b) for focusing the x-ray (48a-b), with at least one x-ray detection unit (16a-b), with a portable detection module (14a-b) comprising the at least one x-ray detection unit (16a-b), and with a portable radiation module (12a-b) comprising the at least one high-voltage supply unit (22a-b) together with the at least one x-ray radiation unit (20a-b) and the at least one focusing unit (24a-b), with at least one sample chamber (18a-b) for accommodating an examination object (40a-b), the sample chamber (18a-b) comprising at least one connection region (36a-b, 38a-b) which is configured for a connection with the radiation module (12a-b) and/or the detection module (14a-b), wherein the portable detection module (14a-b) comprises at least one connection region (32a-b) which is configured for a connection to the radiation module (12a-b) and/or to the sample chamber (18a-b), wherein, in at least one operating state, the portable detection module (14a-b) is separable from the sample chamber (18a-b) and/or from the portable radiation module (12a-b) for the purpose of penetrating by radiation an examination object in an intermediate space between the portable radiation module (12a-b) and the portable detection module (14a-b).
A charge control device for charging a battery with electric power output from a charger, comprising: - detecting means (51, 52) configured to detect a voltage and a current of the battery; - charge state calculation means configured to calculate a charge state of the battery using detected values of the detecting means (51, 52); - charge time calculation means configured to calculate a remaining charge time of the battery till the battery charge state will reach a predetermined charge state based on the charge state calculated by the charge state calculation means, wherein the charge time calculation means is configured: - to recalculate the remaining charge time, when a charge current falls below a predetermined current threshold (lb), by subtracting a predetermined amount of time from the remaining charge time that has been calculated when the charge current falls below the predetermined current threshold (lb), and, - when the charge current detected by the detecting means is equal to or greater than the predetermined current threshold (lb), to calculate the remaining charge time till the charge state of the battery will reach the predetermined charge state so that the remaining charge time decreases along with an increase of the charge state calculated by the charge state calculation means. - detecting means (51, 52) configured to detect a voltage and a current of the battery; - charge state calculation means configured to calculate a charge state of the battery using detected values of the detecting means (51, 52); - charge time calculation means configured to calculate a remaining charge time of the battery till the battery charge state will reach a predetermined charge state based on the charge state calculated by the charge state calculation means, - to recalculate the remaining charge time, when a charge current falls below a predetermined current threshold (lb), by subtracting a predetermined amount of time from the remaining charge time that has been calculated when the charge current falls below the predetermined current threshold (lb), and, - when the charge current detected by the detecting means is equal to or greater than the predetermined current threshold (lb), to calculate the remaining charge time till the charge state of the battery will reach the predetermined charge state so that the remaining charge time decreases along with an increase of the charge state calculated by the charge state calculation means.
An electronic component, comprising a housing, a functional unit disposed in the housing, a terminal lead (11, 15, 29) electrically connecting the functional unit to the outside, and a sealed feedthrough (1, 13, 25) in the housing, the feedthrough surrounding the terminal lead and insulating it with respect to the housing, wherein the feedthrough is produced substantially solely from the liquid crystal polymer (3, 9, 25), wherein one or more metal layers (5, 7, 17, 27) are incorporated into and/or applied to the liquid crystal polymer.
A method for forming polysilicon on an insulator or on a semiconductor substrate comprising: - providing an amorphous silicon layer on said insulator or on said semiconductor substrate, defining an interface between said amorphous silicon and said insulator or on said semiconductor substrate; - a first step of exposing at least an area of the amorphous silicon layer to a first laser beam and a second step of exposing said area to a second laser beam, wherein during exposing the area to the first laser beam and the second laser beam no displacement of the laser beam relative to the area occurs, and wherein during the first step, the energy density and/or pulse duration generated by the first laser beam is selected to fully melt the amorphous silicon layer up to said interface, and so as to form by recrystallization a polysilicon layer with relatively small average grain size, and during the second step, the energy density and/or pulse duration generated by the second laser beam is lower than the energy density and/or, respectively, pulse duration generated by the first laser beam, characterised in that the energy density and/or pulse duration generated by the second laser beam being selected to partially melt the polysilicon grains formed by the first laser beam, wherein the melt depth generated by the second laser beam is smaller than the melt depth generated by the first laser beam, so that non-melted parts of the polysilicon grains with relatively small average grain size recrystallised by the first laser beam act as seeds for growth and solidification of large polysilicon grains extending in a direction perpendicular to the substrate surface area. - providing an amorphous silicon layer on said insulator or on said semiconductor substrate, defining an interface between said amorphous silicon and said insulator or on said semiconductor substrate; - a first step of exposing at least an area of the amorphous silicon layer to a first laser beam and a second step of exposing said area to a second laser beam,
A method of recovering a noble gas from a first gas stream comprising the noble gas and oxidisable impurities, the method comprising the steps of supplying the first gas stream to an oxidation reactor containing a solid state oxygen carrier and oxidising the impurities in the first gas stream in the presence of the solid state oxygen carrier, to form a second gas stream containing carbon dioxide and water, supplying the second gas stream to a carbon dioxide removal column, and removing carbon dioxide from the second gas stream in the column to form a third gas stream, removing water from the third gas stream in an adsorption column to produce purified noble gas, and collecting the purified noble gas from the adsorption column for conveying to a further process utilising the noble gas, wherein the carbon dioxide removal column and water adsorption column comprise molecular sieves.
A pharmaceutical formulation comprising, (a) clevidipine, or a pharmaceutically acceptable salt or ester thereof, present at about 0.01 to about 1.0% w/v, (b) an antimicrobial agent, present at about 0.001 to about 1.0% w/v, (c) a lipid, present at about 2 to about 30% w/v, (d) an emulsifier, present at about 0.2 to about 2.0% w/v, (e) a tonicity modifier, present at about 2 to about 3% w/v, and (f) water to 100%; wherein the antimicrobial agent is EDTA. (a) clevidipine, or a pharmaceutically acceptable salt or ester thereof, present at about 0.01 to about 1.0% w/v, (b) an antimicrobial agent, present at about 0.001 to about 1.0% w/v, (c) a lipid, present at about 2 to about 30% w/v, (d) an emulsifier, present at about 0.2 to about 2.0% w/v, (e) a tonicity modifier, present at about 2 to about 3% w/v, and (f) water to 100%;
Conveyor for conveying hanging objects, comprising - a first rail profile with a first, upper track and a second track arranged below the first track, - a conveyor chain which can be continuously moved in the first track of the rail profile in a conveying direction, - holding adapters for holding objects to be conveyed, each having a head part which is rollably supported in the second track of the rail profile, wherein the holding adapters can be coupled and decoupled from the conveyor chain while the conveyor chain are moving, characterized in that - the first rail profile has a sorting section with a separation unit and a switch which follows in conveying direction (x), - wherein the second track in the region of the sorting section is configured as downward slope in conveying direction (x 1), in which the distance (d) between the first track and the second track increases to a dimension at which the holding adapters and the conveyor chain are decoupled from each other, - wherein the separation unit and the switch are arranged in a region of the sorting section at which the holding adapters are decoupled from the conveyor chain. - a first rail profile with a first, upper track and a second track arranged below the first track, - a conveyor chain which can be continuously moved in the first track of the rail profile in a conveying direction, - holding adapters for holding objects to be conveyed, each having a head part which is rollably supported in the second track of the rail profile, wherein the holding adapters can be coupled and decoupled from the conveyor chain while the conveyor chain are moving, - the first rail profile has a sorting section with a separation unit and a switch which follows in conveying direction (x), - wherein the second track in the region of the sorting section is configured as downward slope in conveying direction (x 1), in which the distance (d) between the first track and the second track increases to a dimension at which the holding adapters and the conveyor chain are decoupled from each other, - wherein the separation unit and the switch are arranged in a region of the sorting section at which the holding adapters are decoupled from the conveyor chain.
The use of a hydraulic shock absorber with a fluid filled hollow cylinder, in which a piston which can move axially between an advanced position supported by a spring prestress and a retracted position which can be assumed counter to the spring prestress, which piston separates a front axial fluid space and a rear axial fluid space from each other in the hollow cylinder, said front axial fluid space and rear axial fluid space being connected to each other in a fluid-exchanging manner by means of at least one throttle opening in the piston, wherein the piston is rigidly connected to a piston rod which penetrates the front fluid space, and in its retracted position, in which the volume of the rear axial fluid space is minimized and the volume of the front axial fluid space is maximized, said piston bears against a fixed stop, as a positioning foot which is arranged in a vertically adjustable fashion on the device body of a laboratory device, wherein the spring prestress is dimensioned such that the weight of the device body which exerts a load when the laboratory device is installed on the positioning foot is sufficient to move the piston into its retracted position in a damped fashion.
Device for detecting the presence of rolling material or cast material, particularly a metal strip or sheet-metal plate, in a casting, rolling or other strip-processing plant, wherein the device comprises the following: a detection device for detection of a fluid jet indicative of the presence of the rolling or casting material and means for producing a fluid jet directed onto the opening of the detection device, characterised in that the detection device comprises the following: a cavity, which is filled with air and which has a preferably tubular opening; and a pressure sensor for detection of an air pressure change in the cavity in dependence on impinging of the fluid jet on the tubular opening. a detection device for detection of a fluid jet indicative of the presence of the rolling or casting material and means for producing a fluid jet directed onto the opening of the detection device, a cavity, which is filled with air and which has a preferably tubular opening; and a pressure sensor for detection of an air pressure change in the cavity in dependence on impinging of the fluid jet on the tubular opening.
A channel state information, CSI, reporting apparatus, comprising: a reference signal receiving unit, configured to receive a reference signal sent by a base station; a precoding matrix selection unit, configured to select at least one precoding matrix from a codebook based on the reference signal received by the reference signal receiving unit, wherein the codebook comprises a precoding matrix W, and W meets: W = W 1 ⊗ W 2, wherein ⊗ is a Kronecker product, and at least one of W 1 or W 2 is an antenna selection matrix; and a CSI sending unit, configured to send CSI to the base station, wherein the CSI comprises at least one precoding matrix indicator, PMI, selected by the precoding matrix selection unit, and the PMI is corresponding to the selected at least one precoding matrix; wherein in the antenna selection matrix, each column has at least one zero element; wherein at least one of W 1 or W 2 is at least one of the following matrices: b 2 1 e j θ 1 e j θ 2 0, b 2 1 0 e j θ 1 e j θ 2, b 2 1 e j θ 1 0 e j θ 2, or b 2 0 1 e j θ 1 e j θ 2, wherein b 2 is a constant, and θ 1, θ 2 ∈ [0, 2 π]; or at least one of W 1 or W 2 is at least one of the following matrices: b 6 1 0 e jθ 0 0 1 0 0, b 6 1 0 0 0 0 1 0 e jθ, b 6 1 0 0 1 e jθ 0 0 0, or b 6 1 0 0 1 0 0 0 e jθ, wherein b 6 is a constant, and θ ∈ [0, 2 π]. a reference signal receiving unit, configured to receive a reference signal sent by a base station; a precoding matrix selection unit, configured to select at least one precoding matrix from a codebook based on the reference signal received by the reference signal receiving unit, wherein the codebook comprises a precoding matrix W, and W meets: W = W 1 ⊗ W 2, wherein ⊗ is a Kronecker product, and at least one of W 1 or W 2 is an antenna selection matrix; and a CSI sending unit, configured to send CSI to the base station, wherein the CSI comprises at least one precoding matrix indicator, PMI, selected by the precoding matrix selection unit, and the PMI is corresponding to the selected at least one precoding matrix; wherein in the antenna selection matrix, each column has at least one zero element; wherein at least one of W 1 or W 2 is at least one of the following matrices: b 2 1 e j θ 1 e j θ 2 0, b 2 1 0 e j θ 1 e j θ 2, b 2 1 e j θ 1 0 e j θ 2, or b 2 0 1 e j θ 1 e j θ 2, wherein b 2 is a constant, and θ 1, θ 2 ∈ [0, 2 π]; or at least one of W 1 or W 2 is at least one of the following matrices: b 6 1 0 e jθ 0 0 1 0 0, b 6 1 0 0 0 0 1 0 e jθ, b 6 1 0 0 1 e jθ 0 0 0, or b 6 1 0 0 1 0 0 0 e jθ, wherein b 6 is a constant, and θ ∈ [0, 2 π].
A process for obtaining an extract from peach flower (Prunus persica L.) comprising: (i) adding water to peach flower to make a mixture, (ii) agitating the said mixture for 2 hours by maintaining temperature from RT to 50°C. (iii) filtering the mixture to remove the solid flower part to obtain the extract. (iv) pasteurizing the extract overnight at a temperature of 65°C. (i) adding water to peach flower to make a mixture, (ii) agitating the said mixture for 2 hours by maintaining temperature from RT to 50°C. (iii) filtering the mixture to remove the solid flower part to obtain the extract. (iv) pasteurizing the extract overnight at a temperature of 65°C.
An apparatus for compensating nonlinear distortions induced on an optical signal during transmission through an optical link, the apparatus comprising: an optical link interface configured to receive a sequence of first complex symbols (ax, ay) at a first wavelength (λ a) of the optical signal and to receive a sequence of second complex symbols (bx, by) at a second wavelength (λ b) of the optical signal; a symbol processing unit configured to process the second complex symbols (bx, by) using a nonlinear operation, thereby obtaining processed second complex symbols (d b, q b); a filtering unit (401', 404') configured to linearly filter the processed second complex symbols (d b, q b) to produce a second sequence of filter coefficients (f (ab)), g (ab)) associated with inter-channel nonlinearity; a perturbation calculating unit configured to generate a sequence of inter-nonlinear perturbation terms (Δax inter, Δay inter) associated with the received first complex symbols (ax, ay) based on the received first complex symbols (ax, ay) and the second sequence of filter coefficients (f (ab), g (ab)), wherein the sequence of inter-nonlinear perturbation terms (Δax inter, Δay inter) is calculated as a weighted sum of the received first complex symbols (ax, ay) by using the second sequence of filter coefficients (f (ab), g (ab)) as weights of the weighted sum; and a compensating unit configured to remove the inter-nonlinear perturbation terms (Δax inter, Δay inter) from the corresponding first complex symbols (ax, ay) to compensate the nonlinear distortions induced on the first complex symbols (ax, ay) by the second complex symbols (bx, by). an optical link interface configured to receive a sequence of first complex symbols (ax, ay) at a first wavelength (λ a) of the optical signal and to receive a sequence of second complex symbols (bx, by) at a second wavelength (λ b) of the optical signal; a symbol processing unit configured to process the second complex symbols (bx, by) using a nonlinear operation, thereby obtaining processed second complex symbols (d b, q b); a filtering unit (401', 404') configured to linearly filter the processed second complex symbols (d b, q b) to produce a second sequence of filter coefficients (f (ab)), g (ab)) associated with inter-channel nonlinearity; a perturbation calculating unit configured to generate a sequence of inter-nonlinear perturbation terms (Δax inter, Δay inter) associated with the received first complex symbols (ax, ay) based on the received first complex symbols (ax, ay) and the second sequence of filter coefficients (f (ab), g (ab)), wherein the sequence of inter-nonlinear perturbation terms (Δax inter, Δay inter) is calculated as a weighted sum of the received first complex symbols (ax, ay) by using the second sequence of filter coefficients (f (ab), g (ab)) as weights of the weighted sum; and a compensating unit configured to remove the inter-nonlinear perturbation terms (Δax inter, Δay inter) from the corresponding first complex symbols (ax, ay) to compensate the nonlinear distortions induced on the first complex symbols (ax, ay) by the second complex symbols (bx, by).