mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: (a) a sensor configured to receive parameter measurements associated with an implantable device; (b) a local unit comprising a storage device and in communication with the sensor, wherein the local unit is configured to receive a plurality of data points associated with the parameter measurements from the sensor; and (c) a remotely positioned, hand held input device in communication with the local unit, wherein the remotely positioned, hand held input device comprises a plurality of buttons; characterised in that the remotely positioned, hand held input device is configured to transmit to the local unit, in response to the depression of one of the buttons by a user, a preprogrammed signal corresponding to at least one of the received plurality of data points associated with the parameter measurements and contemporaneous with the depression of the button, wherein the local unit is configured to annotate the at least one contemporaneous data point with a note. (a) a sensor configured to receive parameter measurements associated with an implantable device; (b) a local unit comprising a storage device and in communication with the sensor, wherein the local unit is configured to receive a plurality of data points associated with the parameter measurements from the sensor; and (c) a remotely positioned, hand held input device in communication with the local unit, wherein the remotely positioned, hand held input device comprises a plurality of buttons;
A method for recycling iron-containing by-products discharged from a molten iron making process in the form of dust and sludge containing moisture, the method comprising: drying a portion or all of the sludge; preparing a by-product mixture having a predetermined moisture content by mixing the dried sludge with the dust or with the dust and remaining sludge; agglomerating the by-product mixture to form agglomerated by-products; drying the agglomerated by-products to form by-product compactions; and forming reduced iron compactions by mixing reduced iron with the by-product compactions and agglomerating the reduced iron mixed with the by-product compactions. drying a portion or all of the sludge; preparing a by-product mixture having a predetermined moisture content by mixing the dried sludge with the dust or with the dust and remaining sludge; agglomerating the by-product mixture to form agglomerated by-products; drying the agglomerated by-products to form by-product compactions; and forming reduced iron compactions by mixing reduced iron with the by-product compactions and agglomerating the reduced iron mixed with the by-product compactions.
Axle beam for a vehicle, more particularly a motor vehicle, with two longitudinal beams as well as at least one transverse beam connecting the two longitudinal beams to each other, wherein at least one transverse beam or at least one of the transverse beams is designed in the form of a multi-part tailored blank component and with its lateral transverse beam connection sections (13, 14), which are opposite each other in the longitudinal direction of the transverse beam, is firmly connected by means of a weld connection to each assigned longitudinal beam, and wherein the transverse beam is coated with a surface coating as a protection coating, more particularly with a zinc coating, characterised in that the lateral transverse beam connection sections (13, 14) are each formed of an uncoated, more particularly, ungalvanised, multi-part metal sheet component (7, 8), and in that the transverse beam middle sections adjoining the two lateral transverse beam connection sections (13, 14) is formed by a single or multiple-part sheet metal component which least on its underside facing the roadway in the assembled condition of the axle beam, is at least in parts coated with the surface coating, more particularly a zinc coating.
An apparatus to be included in a user equipment, UE, the apparatus comprising circuitry to: identify a plurality of paging opportunities for the UE that are to occur in a paging frame during a paging cycle; and check one or more paging opportunities of the plurality of paging opportunities for a paging message directed to the UE, wherein the paging frame has a plurality of subframes that respectively correspond with the plurality of paging opportunities and each of the plurality of subframes include the paging message, and wherein the paging cycle is an extended paging cycle having a length greater than 2.56 seconds. identify a plurality of paging opportunities for the UE that are to occur in a paging frame during a paging cycle; and check one or more paging opportunities of the plurality of paging opportunities for a paging message directed to the UE, wherein the paging frame has a plurality of subframes that respectively correspond with the plurality of paging opportunities and each of the plurality of subframes include the paging message, and wherein the paging cycle is an extended paging cycle having a length greater than 2.56 seconds.
A battery monitoring and control integrated circuit which is connected to a cell group having a plurality of series-connected single cells, and monitors and controls the single cells, the battery monitoring and control integrated circuit (300, 300a, 300b) comprising: a first start input terminal for connecting to a DC signal generation circuit which generates a DC signal based on an AC start signal input from the outside; a start detection unit which detects the DC signal and activates the battery monitoring and control integrated circuit (300, 300a, 300b); and a start output unit which outputs the AC start signal to the outside after the activation of the battery monitoring and control integrated circuit (300, 300a, 300b), characterized in that the DC signal generation circuit is a doubler rectifier circuit. a first start input terminal for connecting to a DC signal generation circuit which generates a DC signal based on an AC start signal input from the outside; a start detection unit which detects the DC signal and activates the battery monitoring and control integrated circuit (300, 300a, 300b); and a start output unit which outputs the AC start signal to the outside after the activation of the battery monitoring and control integrated circuit (300, 300a, 300b), characterized in that the DC signal generation circuit is a doubler rectifier circuit.
OLED, comprising a layer construction composed of at least anode, cathode and a functional layer arranged in between, said layer construction being arranged on a substrate, wherein at least one electrode, selected from anode and cathode, is transmissive to the light emitted by the functional layer and is arranged on the emission side of the layer construction, wherein the OLED has at least one layer which is arranged on the emission side above or below the layer construction, serves as a colour conversion layer and contains quantum dots, wherein - the at least one colour conversion layer has at least three quantum dots which differ with regard to their emission wavelength and whose added total emission spectrum is approximated to white light, - at least three partial layers form the colour conversion layer and are arranged one above another, - the partial layers respectively contain a type of the quantum dots having an emission wavelength allocated to said type and the quantum dots in the at least three partial layers of the colour conversion layer have different emission wavelengths from one another, - the layer construction is encapsulated between the substrate and a covering, and - the at least one colour conversion layer is applied on an inner side of the covering facing the layer construction. - the at least one colour conversion layer has at least three quantum dots which differ with regard to their emission wavelength and whose added total emission spectrum is approximated to white light, - at least three partial layers form the colour conversion layer and are arranged one above another, - the partial layers respectively contain a type of the quantum dots having an emission wavelength allocated to said type and the quantum dots in the at least three partial layers of the colour conversion layer have different emission wavelengths from one another, - the layer construction is encapsulated between the substrate and a covering, and - the at least one colour conversion layer is applied on an inner side of the covering facing the layer construction.
Axial piston pump comprising: a shaft having an axis of rotation, a cylinder drum connected to said shaft and having at least a cylinder parallel to said axis of rotation, a piston movable in said cylinder, a swash plate, a slide shoe pivotally mounted to said piston, and holding means holding said slide shoe against said swash plate, said holding means having a pressure plate and a number of coil springs arranged between said cylinder drum and said pressure plate wherein a coil spring of said number of coil springs is at least at one end fixed by a protrusion extending into said coil spring, wherein protrusions are located on a ring (18, 19), characterized in that a stabilization ring is located at least in an axial middle part of said coil springs.
A system for cooling a gas turbine, comprising: a first cooling air supply passage provided in a gas turbine, the first cooling air supply passage being open such that cooling air is supplied from a compressor through a combustor and a torque tube unit to a first stage turbine disk of a turbine disk unit; a second cooling air supply passage that is open such that cooling air is supplied from an nth unit compressor disk (400+n) of first to nth unit compressor disks (401, 400+n), constituting a compressor disk unit, through the torque tube unit to a second stage turbine disk of the turbine disk unit; and a third cooling air supply passage which extends towards the turbine disk unit along an outer peripheral surface of a tie rod and that is open such that cooling air is supplied from the n-αth unit compressor disk of the first to nth unit compressor disks to third and fourth stage turbine disks (630, 640) of the turbine disk unit. a first cooling air supply passage provided in a gas turbine, the first cooling air supply passage being open such that cooling air is supplied from a compressor through a combustor and a torque tube unit to a first stage turbine disk of a turbine disk unit; a second cooling air supply passage that is open such that cooling air is supplied from an nth unit compressor disk (400+n) of first to nth unit compressor disks (401, 400+n), constituting a compressor disk unit, through the torque tube unit to a second stage turbine disk of the turbine disk unit; and a third cooling air supply passage which extends towards the turbine disk unit along an outer peripheral surface of a tie rod and that is open such that cooling air is supplied from the n-αth unit compressor disk of the first to nth unit compressor disks to third and fourth stage turbine disks (630, 640) of the turbine disk unit.
Method for parameterizing an automaton device, comprising: defining at least one control parameter in order to specify a control characteristic of the automation device; assigning a device parameter to the at least one control parameter in order to specify a device characteristic of the automation device; characterised by a joint implementation of a control parameterization and device parameterization, wherein the defining step and assigning step are carried out in a joint working step and are effected directly in an engineering window of a control program. defining at least one control parameter in order to specify a control characteristic of the automation device; assigning a device parameter to the at least one control parameter in order to specify a device characteristic of the automation device; characterised by a joint implementation of a control parameterization and device parameterization, wherein the defining step and assigning step are carried out in a joint working step and are effected directly in an engineering window of a control program.
Device for upending a tubular element with a longitudinal direction from a support surface at an outer end of the tubular element, wherein the device comprises a support beam(52a,52b) provided with a coupling tool, configured for coupling to a wall part of the outer end of the tubular element, wherein said support beam runs substantially parallel to the support surface and is connected to the support surface at a support point(53d, 53b), such that the tubular element to be upended is within reach of the support beam during use, wherein the support beam guides the coupling tool, such that the coupling tool is displaceable relative to the support surface with the support beam from a clear position to a coupled position in which the tubular element outer end is engaged by the coupling tool, wherein the device further comprises a lifting means, such as a crane, supported by the support surface, and the coupling tool comprises a lifting member for connection to the lifting means for upending the tubular element.
A method for wireless communication, comprising: transmitting downlink control information for a first user equipment, UE (215, 315, 415, 2015, 2215, 2315, 2415, 2515, 2615, 2715), based at least in part on a group identifier associated with a non-orthogonal multiple access, NOMA, group comprising the first UE (215, 315, 415, 2015, 2215, 2315, 2415, 2515, 2615, 2715) and at least a second UE (215-a, 315-a, 415-a, 2015-a, 2215-a, 2315-a, 2415-a, 2515-a, 2615-a, 2715-a); and transmitting a set of NOMA downlink transmissions to the first UE (215, 315, 415, 2015, 2215, 2315, 2415, 2515, 2615, 2715) based at least in part on the downlink control information for the first UE (215, 315, 415, 2015, 2215, 2315, 2415, 2515, 2615, 2715), characterized in that the transmitted downlink control information for the first UE (215, 315, 415, 2015, 2215, 2315, 2415, 2515, 2615, 2715) is based at least in part on a deterministic function of the group identifier and a first UE identifier assigned to the first UE (215, 315, 415, 2015, 2215, 2315, 2415, 2515, 2615, 2715), wherein the deterministic function comprises an exclusive-OR function. transmitting downlink control information for a first user equipment, UE (215, 315, 415, 2015, 2215, 2315, 2415, 2515, 2615, 2715), based at least in part on a group identifier associated with a non-orthogonal multiple access, NOMA, group comprising the first UE (215, 315, 415, 2015, 2215, 2315, 2415, 2515, 2615, 2715) and at least a second UE (215-a, 315-a, 415-a, 2015-a, 2215-a, 2315-a, 2415-a, 2515-a, 2615-a, 2715-a); and transmitting a set of NOMA downlink transmissions to the first UE (215, 315, 415, 2015, 2215, 2315, 2415, 2515, 2615, 2715) based at least in part on the downlink control information for the first UE (215, 315, 415, 2015, 2215, 2315, 2415, 2515, 2615, 2715), characterized in that the transmitted downlink control information for the first UE (215, 315, 415, 2015, 2215, 2315, 2415, 2515, 2615, 2715) is based at least in part on a deterministic function of the group identifier and a first UE identifier assigned to the first UE (215, 315, 415, 2015, 2215, 2315, 2415, 2515, 2615, 2715), wherein the deterministic function comprises an exclusive-OR function.
A parking lot management device configured to manage traveling of a plurality of autonomous driving vehicles by setting, for each of the plurality of autonomous driving vehicles, a respective scheduled passage time for each of a plurality of nodes indicating a travel route in a parking lot, the parking lot management device comprising: an acquisition unit configured to acquire an actual passage time at which a first autonomous driving vehicle has actually passed a first node of the plurality of nodes, wherein the first node is one of a plurality of nodes that indicate the travel route of the first autonomous driving vehicle; a determination unit configured to determine a collision risk between a second autonomous driving vehicle and the first autonomous driving vehicle based on the actual passage time, wherein the first autonomous driving vehicle and the second autonomous driving vehicle are each scheduled to pass a second node, wherein the second node is one of the plurality of nodes and is located forward of the first node in a traveling direction of the first autonomous driving vehicle, wherein the first autonomous driving vehicle is scheduled to pass the second node before the second autonomous driving vehicle is scheduled to pass the second node; and a setting unit configured to delay a first scheduled passage time at which the second autonomous driving vehicle is scheduled to pass the second node and deliver the delayed first scheduled passage time to the second autonomous driving vehicle, to cause the second autonomous driving vehicle to pass the second node following the first autonomous driving vehicle when it is determined that there is the collision risk. an acquisition unit configured to acquire an actual passage time at which a first autonomous driving vehicle has actually passed a first node of the plurality of nodes, wherein the first node is one of a plurality of nodes that indicate the travel route of the first autonomous driving vehicle; a determination unit configured to determine a collision risk between a second autonomous driving vehicle and the first autonomous driving vehicle based on the actual passage time, wherein the first autonomous driving vehicle and the second autonomous driving vehicle are each scheduled to pass a second node, wherein the second node is one of the plurality of nodes and is located forward of the first node in a traveling direction of the first autonomous driving vehicle, wherein the first autonomous driving vehicle is scheduled to pass the second node before the second autonomous driving vehicle is scheduled to pass the second node; and a setting unit configured to delay a first scheduled passage time at which the second autonomous driving vehicle is scheduled to pass the second node and deliver the delayed first scheduled passage time to the second autonomous driving vehicle, to cause the second autonomous driving vehicle to pass the second node following the first autonomous driving vehicle when it is determined that there is the collision risk.
A heat ray-shielding resin sheet material, characterized by containing a composite tungsten oxide particle expressed by a general formula M y WO z (wherein M is one or more kinds of element selected from Cs, Rb, K, Tl, In, Ba, Li, Ca, Sr, Fe, Sn, Al, and Cu, satisfying 0.1 ≤ y ≤ 0.5, 2.2 ≤ z ≤ 3.0) and having a hexagonal crystal structure, a selected wavelength absorbing material, a dispersant, an ultraviolet absorber, and a thermoplastic resin, wherein the selected wavelength absorbing material has a transmission profile in which a transmittance of a light of a wavelength of 420 nm can be set to 40% or less when a transmittance of a light of a wavelength of 550 nm is 90% or more, and a transmittance of a light of a wavelength of 460 nm is 90% or more, a content of the selected wavelength absorbing material in the heat ray-shielding resin sheet material is 0.01 mass% or more and 2.0 mass% or less, the selected wavelength absorbing material is one or more kinds selected from a benzotriazole compound and an indole compound, and the benzotriazole compound is expressed by [Chemical formula 1] or [Chemical formula 8], R1 in the benzotriazole compound expressed by [Chemical formula 1] is a group expressed by any one selected from [Chemical formula 2] to [Chemical formula 5], R2 in [Chemical formula 2] to [Chemical formula 5] is an alkylene group having 1 to 8 carbon atoms, R3 in [Chemical formula 2] to [Chemical formula 5] is a hydrogen atom or a methyl group, and R4 in [Chemical formula 4] is the alkylene group having 1 to 8 carbon atoms. wherein the selected wavelength absorbing material has a transmission profile in which a transmittance of a light of a wavelength of 420 nm can be set to 40% or less when a transmittance of a light of a wavelength of 550 nm is 90% or more, and a transmittance of a light of a wavelength of 460 nm is 90% or more, a content of the selected wavelength absorbing material in the heat ray-shielding resin sheet material is 0.01 mass% or more and 2.0 mass% or less, the selected wavelength absorbing material is one or more kinds selected from a benzotriazole compound and an indole compound, and the benzotriazole compound is expressed by [Chemical formula 1] or [Chemical formula 8], R1 in the benzotriazole compound expressed by [Chemical formula 1] is a group expressed by any one selected from [Chemical formula 2] to [Chemical formula 5], R2 in [Chemical formula 2] to [Chemical formula 5] is an alkylene group having 1 to 8 carbon atoms, R3 in [Chemical formula 2] to [Chemical formula 5] is a hydrogen atom or a methyl group, and R4 in [Chemical formula 4] is the alkylene group having 1 to 8 carbon atoms.
A method of processing an image charge/current signal representative of trapped ions undergoing oscillatory motion, the method including: applying a validity test to each of a plurality of peaks in the image charge/current signal in the frequency domain, wherein the validity test is configured to determine whether a peak in the image charge/current signal in the frequency domain belongs to one or more selected harmonic components of the image charge/current signal; and forming a new image charge/current signal that includes data representative of one or more peaks that have passed the validity test and excludes data representative of one or more peaks that have failed the validity test so that the new image charge/current signal includes data representative of peaks that belong to the one or more selected harmonic components, whilst excluding data representative of peaks that do not belong to the one or more selected harmonic components characterised in that applying the validity test to each of the plurality of peaks in the image charge/current signal in the frequency domain includes determining whether a respective phase associated with the peak meets a predetermined condition and wherein the respective phase angle associated with each peak is determined by polynomial fitting and/or interpolation using a plurality of frequency values including a frequency value at which the peak is highest and at least one frequency value on each side of the frequency value at which the peak is highest. applying a validity test to each of a plurality of peaks in the image charge/current signal in the frequency domain, wherein the validity test is configured to determine whether a peak in the image charge/current signal in the frequency domain belongs to one or more selected harmonic components of the image charge/current signal; and forming a new image charge/current signal that includes data representative of one or more peaks that have passed the validity test and excludes data representative of one or more peaks that have failed the validity test so that the new image charge/current signal includes data representative of peaks that belong to the one or more selected harmonic components, whilst excluding data representative of peaks that do not belong to the one or more selected harmonic components characterised in that applying the validity test to each of the plurality of peaks in the image charge/current signal in the frequency domain includes determining whether a respective phase associated with the peak meets a predetermined condition and wherein the respective phase angle associated with each peak is determined by polynomial fitting and/or interpolation using a plurality of frequency values including a frequency value at which the peak is highest and at least one frequency value on each side of the frequency value at which the peak is highest.