mhurhangee/ep-ind-claims huggingface dataset:
A method of programming a software module associated with a firmware unit of a device, the method comprising: a. obtaining a register transfer level program associated with the firmware unit, the register transfer level program comprising a plurality of register variables indicative of a plurality of registers in the firmware unit, defined within a first namespace of the register transfer level program; and b. linking the first namespace associated with the register transfer level program with a namespace associated with the software module for referencing at least one of the register variable from the plurality of register variables; wherein the register transfer level program includes design level description of one or more operations associated with the firmware unit in a high-level programming language. a. obtaining a register transfer level program associated with the firmware unit, the register transfer level program comprising a plurality of register variables indicative of a plurality of registers in the firmware unit, defined within a first namespace of the register transfer level program; and b. linking the first namespace associated with the register transfer level program with a namespace associated with the software module for referencing at least one of the register variable from the plurality of register variables;
A hydropneumatic diaphragm cylinder comprising a cylinder casing and two diaphragm pistons (36, 37) which are disposed in a cylinder space array and each have a diaphragm (38, 39) extending radially between a cylinder wall and a piston rod unit, the diaphragm pistons (36, 37) being disposed at an axial offset on the piston rod unit in such a manner that pressurizing one of the diaphragm pistons effects a retracting of the piston rod unit and pressurizing the other diaphragm piston effects an extracting of the piston rod unit, the cylinder space array comprising two cylinder spaces (33, 34) which are disposed separately in the cylinder casing and each receive a diaphragm piston (36, 37), a piston-rod middle piece being formed between the diaphragm pistons (36, 37) and penetrating a cylinder middle wall separating the cylinder spaces (33, 34), the diaphragm pistons (36, 37) being pressurized in two adjacent pressure chambers (49, 50) axially limited by the cylinder middle wall and one diaphragm piston (36, 37) each, the piston-rod middle piece having a smaller diameter than the piston rod part of the piston-rod unit protruding from the cylinder casing.
An air treatment apparatus for an operator environment of an agricultural vehicle in which air to be filtered is drawn into an air filtration system, filtered and directed to an agricultural vehicle HVAC system, in which: the HVAC system comprises an inlet plenum, a HVAC system blower and an outlet to the operator environment; and the air filtration system comprises at least one external inlet, a first filtration device having a first coarser level of filtration located between the external inlet and the HVAC system inlet plenum, a second filtration device having a second finer level of filtration located between the at least one external inlet and the HVAC system inlet plenum, an air filtration system blower connected to the HVAC system inlet plenum, and a valve mechanism operative to selectively connect either the first filtration device or the second filtration device to the HVAC system inlet plenum, the first filtration device and the second filtration device being connected in parallel with the valve mechanism; the air treatment apparatus being characterised in that a bypass is permanently connected at a first end downstream of the valve mechanism and at a second end adjacent the second filtration device between the second filtration device and the valve mechanism, the apparatus configurable such that, in use when the first filtration device is connected with the HVAC system inlet plenum, a portion of an air flow from the first filtration device downstream of the valve mechanism is recirculated through the bypass to purge the second filtration device. the HVAC system comprises an inlet plenum, a HVAC system blower and an outlet to the operator environment; and the air filtration system comprises at least one external inlet, a first filtration device having a first coarser level of filtration located between the external inlet and the HVAC system inlet plenum, a second filtration device having a second finer level of filtration located between the at least one external inlet and the HVAC system inlet plenum, an air filtration system blower connected to the HVAC system inlet plenum, and a valve mechanism operative to selectively connect either the first filtration device or the second filtration device to the HVAC system inlet plenum, the first filtration device and the second filtration device being connected in parallel with the valve mechanism; the air treatment apparatus being characterised in that a bypass is permanently connected at a first end downstream of the valve mechanism and at a second end adjacent the second filtration device between the second filtration device and the valve mechanism, the apparatus configurable such that, in use when the first filtration device is connected with the HVAC system inlet plenum, a portion of an air flow from the first filtration device downstream of the valve mechanism is recirculated through the bypass to purge the second filtration device.
A pharmaceutical composition for use as a medicament comprising at least one polypeptide of the following (a) to (b) as an active component: (a) a polypeptide comprising the amino acid sequence of SEQ ID NO: 1; and (b) a polypeptide comprising an amino acid sequence having 70% or more homology to the amino acid sequence of the above (a) and having a platelet aggregation inhibitory activity and/or a platelet adhesion inhibitory activity. (a) a polypeptide comprising the amino acid sequence of SEQ ID NO: 1; and (b) a polypeptide comprising an amino acid sequence having 70% or more homology to the amino acid sequence of the above (a) and having a platelet aggregation inhibitory activity and/or a platelet adhesion inhibitory activity.
Method for producing packs from plastic film for items to be packaged, in particular for containers, which packs have at least one compartment (7a, 7b, 7c, 7d, 7e, 7f), wherein two inner layers (4, 5) of plastic film that lie one on top of the other are welded together continuously or in cycles by way of at least one longitudinal weld seam, then at least two outer layers (3, 6) of plastic film are placed on the two welded-together inner layers (4, 5) and are fastened continuously or in cycles to these already welded-together inner layers (4, 5), characterized in that the layers (3, 4, 5, 6) to be welded together are welded together by means of a longitudinal welding bar or a longitudinal welding bar pair (22a, 22b, 22c) in a movement direction perpendicular to a feed direction of the inner layer (4, 5) to be welded, wherein, before an outer layer is fastened to the associated inner layer, the two inner layers (4, 5) are cut in each case in the region of the longitudinal weld seam of the two inner layers (4, 5), with the result that these cut inner layers form a part of the inner layers and each part of the inner layers has a compartment for an item to be packaged, wherein furthermore, before an outer layer is fastened to the associated inner layer, a respective side compartment is introduced into the cut inner layers in the region of the cut longitudinal weld seam of the cut inner layers.
Method for creation of an elevation map based on a single camera, comprising the steps of performing key frame selection to select at least two key frames at two different points of time out of frames provided by the camera, performing feature detection and matching based on the selected at least two key frames at two different points of time, performing coarse outlier rejection for the detected features, performing pose estimation of the camera in respect to the two key frames, performing stereo image rectification to align epipolar lines in parallel to a horizontal axis in a vertical direction, performing stereo matching to create a disparity map out of the rectified stereo image, and generating an elevation map out of the disparity map, the method comprising the additional step of performing image rectification for fisheye and/or perspective correction using a look-up table for a nominal ground plane. performing key frame selection to select at least two key frames at two different points of time out of frames provided by the camera, performing feature detection and matching based on the selected at least two key frames at two different points of time, performing coarse outlier rejection for the detected features, performing pose estimation of the camera in respect to the two key frames, performing stereo image rectification to align epipolar lines in parallel to a horizontal axis in a vertical direction, performing stereo matching to create a disparity map out of the rectified stereo image, and generating an elevation map out of the disparity map, the method comprising the additional step of performing image rectification for fisheye and/or perspective correction using a look-up table for a nominal ground plane.
Vortex generator for bringing a medium into a controlled vortex motion, which vortex generator comprises an inlet section for directing the medium into the vortex generator, which inlet section contains a rotational symmetric cavity, and the vortex generator furthermore comprising a vortex chamber (4a; 4b), attached to the inlet section, in which vortex chamber the vortex motion is to be established, wherein the inlet section comprises at least one spiral-shaped conic channel (102a, 102b) for directing the medium from the rotational symmetric cavity to the vortex chamber, characterised in that the rotational symmetric cavity has a curved geometry so that the medium is flattened against the curved geometry and curls up into vortex threads, wherein said spiral-shaped conic channel (102a, 102b) has an inlet situated on the side of the rotational symmetrical cavity so as to receive said vortex threads of medium from the rotational symmetric cavity to form a larger fluid vortex so that the vortex threads in the conical channel (102a, 102b) is rotating around the axis of its own flow direction to build up a multiple motion of the larger vortex in said vortex chamber (4a; 4b), the vortex chamber being either trumpet-shaped or egg-shaped so as to maintain the continued multiple motion of the vortex, in such a way that the lengthwise cross-section of the inside of the trumpet-shaped vortex chamber is given by the function f(x,y) = k * x Y, where the following variation of the parameters signifies the area of definition of the trumpet-shaped lengthwise cross-section of the vortex chamber: 8500 <= k <= 9000, - 1,1 <= y <= -1,0, the function is defined between the starting value x0 and x0+250 units of length and where x0 varies according to: 70 <= x0 <= 170, the inside of the egg-shaped vortex chamber is defined by the function f(x,y) = k 1 * x 2 + k 2 * y 2 - C, where the following variation of the parameters signifies the area of definition of the lengthwise cross-section of the egg-shaped vortex chamber: 18 <= C <= 21, if x<=0 then k 1 >= 0,003 and k 2 >= 0,005 and if x > 0 then k 1 >= 0,002 and k 2 >= 0,005.
Micromechanical sensor device having: a sensor substrate (2; 2'; 2'') having a front side (VS; VS'; VS'') and a rear side (RS; RS'; RS"); a sensor area which is provided on the front side (VS; VS'; VS'') and can be brought into contact with an environmental medium; and a capping apparatus (4; 6) which is applied to the front side (VS; VS'; VS'') and is intended to cap the sensor area; wherein one or more capillaries (3; 3'; 3'') for passing the environmental medium through to the sensor area are formed in the capping apparatus (4; 6; 4'') and/or in the sensor substrate (2; 2'; 2''); and wherein a liquid-repellent layer (5; 5a, 5b) is provided, at least in areas, on the inner walls (I; I'; I"; I′′′) of the capillaries (3; 3'; 3''), wherein the liquid-repellent layer (5; 5a, 5b) is also provided on the outer side of the capping apparatus (4; 6) facing away from the sensor substrate (2; 2'; 2"), characterized in that the liquid-repellent layer (5a, 5b) has a first layer area on the outer side of the capping apparatus facing away from the sensor substrate and a second layer area on the inner walls of the capillaries, which are formed from different materials. a sensor substrate (2; 2'; 2'') having a front side (VS; VS'; VS'') and a rear side (RS; RS'; RS"); a sensor area which is provided on the front side (VS; VS'; VS'') and can be brought into contact with an environmental medium; and a capping apparatus (4; 6) which is applied to the front side (VS; VS'; VS'') and is intended to cap the sensor area; wherein one or more capillaries (3; 3'; 3'') for passing the environmental medium through to the sensor area are formed in the capping apparatus (4; 6; 4'') and/or in the sensor substrate (2; 2'; 2''); and wherein a liquid-repellent layer (5; 5a, 5b) is provided, at least in areas, on the inner walls (I; I'; I"; I′′′) of the capillaries (3; 3'; 3''), wherein the liquid-repellent layer (5; 5a, 5b) is also provided on the outer side of the capping apparatus (4; 6) facing away from the sensor substrate (2; 2'; 2"), characterized in that the liquid-repellent layer (5a, 5b) has a first layer area on the outer side of the capping apparatus facing away from the sensor substrate and a second layer area on the inner walls of the capillaries, which are formed from different materials.
A process for absorption of carbon dioxide gas in a liquid, which process comprises: (i) providing a fluidised bed scrubber having a fluidised bed comprising hollow plastics elements; and (ii) using the hollow plastics elements in the fluidised bed to cause mixing of counter-current flowing streams of liquid and gas, and characterised in that the process comprises: (iii) using a combination of liquid to gas ratios of at least 20 litres/m 3 and simultaneously using saline solutions with an Ionic Strength of at least 0,2 mol/l, whereby the carbon dioxide gas is absorptively captured in the liquid such that the carbon dioxide gas does not react with the liquid to produce carbon dioxide products by chemical reaction. (i) providing a fluidised bed scrubber having a fluidised bed comprising hollow plastics elements; and (ii) using the hollow plastics elements in the fluidised bed to cause mixing of counter-current flowing streams of liquid and gas,
Telescopic unit for telescoping means arranged on machines, comprising at least one telescopic hydraulic cylinder and at least one additional hydraulic system, wherein the telescopic hydraulic cylinder comprises at least one piston arranged to be axially movable in the cylinder chamber of the telescopic hydraulic cylinder and connected to a piston rod, wherein a bottom side of the telescopic hydraulic cylinder is configured to be fixable to a bearing allocated to the machine, and the at least one additional hydraulic system is arranged on the exposed end of the piston rod and is energised with hydraulic energy via a hydraulic medium, wherein by adjusting the piston in the telescopic hydraulic cylinder, the hydraulic energy, which comes from by the change in the operating state and the resulting difference in hydraulic pressure of the hydraulic medium, is diverted to and stored in at least one first intermediate reservoir (26, 39), in order thereby to energise the hydraulic system with the hydraulic energy from the first intermediate reservoir (26, 39) if necessary, and wherein, after consumption of the hydraulic energy stored in the hydraulic medium, the hydraulic medium is fed from the hydraulic system into at least one second intermediate reservoir (28, 40), and from there is fed into the telescopic hydraulic cylinder, where it is again energised with hydraulic energy or conveyed to a primary hydraulic circuit of the telescopic unit, wherein the hydraulic system is supplied with the hydraulic medium by the piston rod of the telescopic hydraulic cylinder.
A wireless access communications access point equipment, arranged to identify a location requiring improved wireless coverage and to move to that location, having a scanning system for detecting transmissions from one or more other wireless communications access points (1, 2, 3), a processor for determining a direction in which quality of coverage from the other wireless communications access points deteriorates, a navigation system for directing movement in the direction of decreasing coverage, and a propulsion and steering system for moving the access point equipment under the control of the navigation system, the processor having provision to identify a location in which it is at a limit of coverage provided by the other wireless communications access points, and to initiate operation as an access point at the location so identified.
A wireless transmission system for monitoring equipment in rat traps positioned in sewers, shafts and wells comprising: - a transmitter unit embedded in a rat trap, and configured for receiving monitoring data from a monitoring equipment embedded within said rat trap, and for wirelessly transmitting the received monitoring data; and - a receiver unit adapted for being positioned within a range of 0-100 meters from the well or shaft cover, and configured for receiving a monitoring data signal from a monitoring equipment; the wireless transmission system further comprises: - a wireless repeater or wireless relay configured for wirelessly receiving the monitoring data from said monitoring equipment via said transmitter unit; and - positioning means adapted for positioning and/or attaching the wireless repeater or wireless relay 5-100 cm below the well or shaft cover; wherein said receiver unit is configured for receiving a monitoring data signal from said monitoring equipment via said wireless repeater and/or said wireless relay. - a transmitter unit embedded in a rat trap, and configured for receiving monitoring data from a monitoring equipment embedded within said rat trap, and for wirelessly transmitting the received monitoring data; and - a receiver unit adapted for being positioned within a range of 0-100 meters from the well or shaft cover, and configured for receiving a monitoring data signal from a monitoring equipment; the wireless transmission system further comprises: - a wireless repeater or wireless relay configured for wirelessly receiving the monitoring data from said monitoring equipment via said transmitter unit; and - positioning means adapted for positioning and/or attaching the wireless repeater or wireless relay 5-100 cm below the well or shaft cover; wherein said receiver unit is configured for receiving a monitoring data signal from said monitoring equipment via said wireless repeater and/or said wireless relay. - a wireless repeater or wireless relay configured for wirelessly receiving the monitoring data from said monitoring equipment via said transmitter unit; and - positioning means adapted for positioning and/or attaching the wireless repeater or wireless relay 5-100 cm below the well or shaft cover; wherein said receiver unit is configured for receiving a monitoring data signal from said monitoring equipment via said wireless repeater and/or said wireless relay.
Method for controlling a technical device which is connected to a control apparatus via a network, wherein application data for controlling the technical device and further data communication devices are transmitted in the form of data traffic via the network, and the data traffic is captured by a monitoring apparatus over a predefined observation period by means of at least one data traffic parameter and is made available to the control apparatus, and at least one communication parameter is determined by the control apparatus from the at least one data traffic parameter, and the technical device is controlled using the at least one communication parameter. and the data traffic is captured by a monitoring apparatus over a predefined observation period by means of at least one data traffic parameter and is made available to the control apparatus, and at least one communication parameter is determined by the control apparatus from the at least one data traffic parameter, and the technical device is controlled using the at least one communication parameter.
A method for performing a fast multiple-subcarrier-joint-modulation, MSJM, precoding, comprising: grouping input information bits into bit blocks; converting the bit blocks into bit vectors; mapping a first group of bits of each bit vector to a real dimension of symbols in a symbol vector; mapping a second group of bits of each bit vector to an imaginary dimension of symbols in the symbol vector, wherein the mapping of the real dimension and the mapping of imaginary dimension are performed simultaneously; and modulating symbol vectors into data subcarriers. grouping input information bits into bit blocks; converting the bit blocks into bit vectors; mapping a first group of bits of each bit vector to a real dimension of symbols in a symbol vector; mapping a second group of bits of each bit vector to an imaginary dimension of symbols in the symbol vector, wherein the mapping of the real dimension and the mapping of imaginary dimension are performed simultaneously; and modulating symbol vectors into data subcarriers.
A user equipment "UE", comprising: at least one processor configured to perform one of an attach procedure, Routing Area Update "RAU" and Tracking Area Update "TAU", and then cause the UE to provide an indication to a network, wherein the indication indicates whether the UE has voice service in an Evolved Universal Mobile Telecommunications System Terrestrial Radio Access Network "E-UTRAN", in S1 mode of operation, as determined by the UE, wherein the indication is further configured to allow a SGSN to know whether the UE can be handed over to the E-UTRAN. at least one processor configured to perform one of an attach procedure, Routing Area Update "RAU" and Tracking Area Update "TAU", and then cause the UE to provide an indication to a network, wherein the indication indicates whether the UE has voice service in an Evolved Universal Mobile Telecommunications System Terrestrial Radio Access Network "E-UTRAN", in S1 mode of operation, as determined by the UE, wherein the indication is further configured to allow a SGSN to know whether the UE can be handed over to the E-UTRAN.
Method for lighting an object with a plurality of light sources arranged in a lighting device, in particular LEDs, wherein each light source emits light of a specific color or a specific wavelength range, characterized in that means arranged in the lighting device detect the reflection properties of the object, wherein the light output of the light sources is controlled as a function of the reflection properties and of a minimum color rendering value which may be set on the lighting device, wherein for the detection of the reflection characteristics of the object is successively and individually illuminated by each light source each time the spectral response of the object is detected, and wherein each light source illuminates the object first with high intensity and then with low intensity.