mhurhangee/ep-ind-claims huggingface dataset:
A method for receiving a random access preamble, comprising: sending a broadcast message, wherein the broadcast message is for configuring a new radio NR uplink resource and a supplementary uplink SUL resource; sending first indication information and second indication information to a terminal device, wherein the first indication information is for indicating the NR uplink resource or the SUL resource, and the second indication information is for indicating a random access preamble; and receiving the random access preamble on the resource indicated by the first indication information; wherein before the receiving the random access preamble on the resource indicated by the first indication information, the method further comprises: sending third indication information to the terminal device, wherein the third indication information is for indicating that the first indication information is carried in a carrier indicator field, CIF. sending a broadcast message, wherein the broadcast message is for configuring a new radio NR uplink resource and a supplementary uplink SUL resource; sending first indication information and second indication information to a terminal device, wherein the first indication information is for indicating the NR uplink resource or the SUL resource, and the second indication information is for indicating a random access preamble; and receiving the random access preamble on the resource indicated by the first indication information; wherein before the receiving the random access preamble on the resource indicated by the first indication information, the method further comprises: sending third indication information to the terminal device, wherein the third indication information is for indicating that the first indication information is carried in a carrier indicator field, CIF.
A non-mydriatic fundus imaging system, comprising: an image sensor array including a two-dimensional monochrome complementary metal-oxide-semiconductor, wherein the image sensor array has a plurality of rows of pixels, and the image sensor array is capable of global reset operations wherein each pixel of the plurality of rows of pixels is exposed substantially simultaneously; an illumination unit operatively coupled to the image sensor array, wherein the illumination unit includes a light emitting diode, and the illumination unit being capable of overdriving the light emitting diode; and a timing unit operatively coupled to the image sensor array and the illumination unit and configured to simultaneously expose a full frame of pixels of the image sensor array during an exposure period, wherein the illumination unit is configured to overdrive the light emitting diode during the exposure period. an image sensor array including a two-dimensional monochrome complementary metal-oxide-semiconductor, wherein the image sensor array has a plurality of rows of pixels, and the image sensor array is capable of global reset operations wherein each pixel of the plurality of rows of pixels is exposed substantially simultaneously; an illumination unit operatively coupled to the image sensor array, wherein the illumination unit includes a light emitting diode, and the illumination unit being capable of overdriving the light emitting diode; and a timing unit operatively coupled to the image sensor array and the illumination unit and configured to simultaneously expose a full frame of pixels of the image sensor array during an exposure period, wherein the illumination unit is configured to overdrive the light emitting diode during the exposure period.
A cereal bar composition comprising allulose, nuts, dried fruit and cereals, wherein the composition comprise 3 to 20 wt% of allulose, 3 to 50 wt% of nuts, 2 to 40 wt% of dried fruit, and 3 to 50wt% of cereals, based on 100 wt% of the total composition, wherein the composition further comprise isomalto-oligosaccharide and starch syrup, and wherein the cereal bar composition has a moisture content of from 3 to 7 wt% and a water activity of 0.200 to 0.600, and a hardness of from 500 to 10,000 g. wherein the composition further comprise isomalto-oligosaccharide and starch syrup, and wherein the cereal bar composition has a moisture content of from 3 to 7 wt% and a water activity of 0.200 to 0.600, and a hardness of from 500 to 10,000 g.
Inductive proximity switch in a metal housing, having a pulse circuit for generating a transmission pulse of a particular pulse shape, a transmission coil for generating a primary magnetic field from the transmission pulse, a receiving unit for evaluating a reception signal, and an evaluation circuit for generating a binary switching signal, wherein the pulsed primary magnetic field can cause an eddy current in an electrically conductive target, which eddy current results in a variable secondary magnetic field, wherein the receiving unit is connected to a magnetic sensor which captures the magnetic flux density of the secondary magnetic field, characterized in that the pulse shape is adapted to the frequency response of the metal housing of the proximity switch, with the result that the pulse edges also contribute to the measurement result and are therefore selected in such a manner that both the primary magnetic field and the secondary magnetic field caused by the target can penetrate the metal housing acting as a low-pass filter.
A laminated substrate having a piezoelectric film, comprising: a substrate; a first electrode film provided on the substrate; a piezoelectric film provided on the first electrode film, wherein the piezoelectric film is a film containing an alkali niobium oxide of a perovskite structure represented by a composition formula of (K 1-y Na y)NbO 3 with 0<y<1; and a second electrode film, characterised in that an adhesion layer (7a, 7b) containing an oxide represented by a composition formula of RuO x or IrO x is provided on the piezoelectric film, and the second electrode film is provided on the adhesion layer (7a, 7b). a substrate; a first electrode film provided on the substrate; a piezoelectric film provided on the first electrode film, wherein the piezoelectric film is a film containing an alkali niobium oxide of a perovskite structure represented by a composition formula of (K 1-y Na y)NbO 3 with 0<y<1; and a second electrode film, characterised in that an adhesion layer (7a, 7b) containing an oxide represented by a composition formula of RuO x or IrO x is provided on the piezoelectric film, and the second electrode film is provided on the adhesion layer (7a, 7b).
A filter, comprising a number of building blocks for filtering an incoming signal, each building block comprising: - a first delay element having a first delay, and a second delay element having a second delay, - a first scaling device between an input node of the first delay element and an output node of the second delay element, - a second scaling device between an output node of the first delay element and an input node of the second delay element, the building block moreover comprising: - a first cross scaling device connected between the output node of the first delay element and the output node of the second delay element, - and/or a second cross scaling device between the input node of the first delay element and the input node of the second delay element wherein the building block is configured such that, in operation, incoming signals at the input node and output node of the second delay element are summed together, wherein the building blocks are cascaded with a first building block as earliest building block, - wherein the output of the first delay element of an earlier building block is connected with the input of the first delay element of a following building block, and - wherein the output of the second delay element of the following building block is connected with the input of the second delay element of the earlier building block, - such that when an incoming signal is applied to the input of the first delay element of the first building block an output signal can be obtained at the output of the second delay element of the first building block. - a first delay element having a first delay, and a second delay element having a second delay, - a first scaling device between an input node of the first delay element and an output node of the second delay element, - a second scaling device between an output node of the first delay element and an input node of the second delay element, - a first cross scaling device connected between the output node of the first delay element and the output node of the second delay element, - and/or a second cross scaling device between the input node of the first delay element and the input node of the second delay element wherein the building block is configured such that, in operation, incoming signals at the input node and output node of the second delay element are summed together, - wherein the output of the first delay element of an earlier building block is connected with the input of the first delay element of a following building block, and - wherein the output of the second delay element of the following building block is connected with the input of the second delay element of the earlier building block, - such that when an incoming signal is applied to the input of the first delay element of the first building block an output signal can be obtained at the output of the second delay element of the first building block.
An apparatus comprising: a first monopole element; a second monopole element; a common structure capacitively coupled to both the first and second monopole elements (330, 332); and a connecting strip configured to conductively coupling the common structure to a ground element, wherein the connecting strip lies between the first and second monopole elements (330, 332); wherein the first monopole element, the common structure and the connecting strip are configured to form a resonator structure for a first monopole antenna; and the second monopole element, the common structure and the connecting strip are configured to form a resonator structure for a second monopole antenna; and wherein the common structure has a much larger size compared with the two monopole elements (330, 332). a first monopole element; a second monopole element; a common structure capacitively coupled to both the first and second monopole elements (330, 332); and a connecting strip configured to conductively coupling the common structure to a ground element, wherein the connecting strip lies between the first and second monopole elements (330, 332); wherein the first monopole element, the common structure and the connecting strip are configured to form a resonator structure for a first monopole antenna; and the second monopole element, the common structure and the connecting strip are configured to form a resonator structure for a second monopole antenna; and wherein the common structure has a much larger size compared with the two monopole elements (330, 332).
Method for directly screwing components, in particular flow hole screws, wherein, in a first process section, a hole is produced in a component and wherein, in a second process section, a thread is moulded into the produced hole and, to that end, - a feed and a feed force are produced by means of a feed drive and transferred onto a screwdriver shaft, - the screwdriver shaft is shifted in a rotation movement, wherein - in the first process section, a high rotational speed (n s1) of the rotation movement and a high feed force is adjusted by means of the feed drive, and, at a defined switching point when penetrating the component for the second process step, switching to a smaller feed force and a smaller rotational speed (n s2) occurs, characterised in that - the feed force is produced by means of a non-pneumatic feed drive and - a parameter (i v) at least correlating to the feed force is monitored and a characteristic value (i Vu) or a characteristic change of the value of the parameter (i v) defines the switching point. - a feed and a feed force are produced by means of a feed drive and transferred onto a screwdriver shaft, - the screwdriver shaft is shifted in a rotation movement, wherein - in the first process section, a high rotational speed (n s1) of the rotation movement and a high feed force is adjusted by means of the feed drive, and, at a defined switching point when penetrating the component for the second process step, switching to a smaller feed force and a smaller rotational speed (n s2) occurs, characterised in that - the feed force is produced by means of a non-pneumatic feed drive and - a parameter (i v) at least correlating to the feed force is monitored and a characteristic value (i Vu) or a characteristic change of the value of the parameter (i v) defines the switching point.
A closure liner composition comprising: a thermoplastic polymer comprising high density polyethylene or a blend of high density polyethylene and vinyl acetate, the thermoplastic polymer being present in the amount of 40-80% by weight of the composition; an oxygen barrier polymer comprising polyisobutylene, the oxygen barrier polymer being present in the amount of 5-50% by weight of the composition; and a particulate oxygen scavenging material selected from the group consisting of an alkali metal sulfite, an alkali metal ascorbate, an alkali metal isoascorbate, and a mixture of two or more of these materials, the particulate oxygen scavenging material being present in the amount of 1-30% by weight of the composition; the closure liner composition being formed into a single layer closure liner, the single layer closure liner having a Shore hardness between 70 Shore A and 100 Shore A, and a melt flow index between 0 and 20 g/min, 2.16 Kg., 190°C. a thermoplastic polymer comprising high density polyethylene or a blend of high density polyethylene and vinyl acetate, the thermoplastic polymer being present in the amount of 40-80% by weight of the composition; an oxygen barrier polymer comprising polyisobutylene, the oxygen barrier polymer being present in the amount of 5-50% by weight of the composition; and a particulate oxygen scavenging material selected from the group consisting of an alkali metal sulfite, an alkali metal ascorbate, an alkali metal isoascorbate, and a mixture of two or more of these materials, the particulate oxygen scavenging material being present in the amount of 1-30% by weight of the composition; the closure liner composition being formed into a single layer closure liner, the single layer closure liner having a Shore hardness between 70 Shore A and 100 Shore A, and a melt flow index between 0 and 20 g/min, 2.16 Kg., 190°C.
Valve unit for a fluid working machine, in particular for a synthetically commutated fluid working machine, comprising a valve body (19, 57), a movably arranged valve closure device and at least one separate fluid flow influencing unit (35, 46, 56), wherein said fluid flow influencing unit (35, 46, 56) comprises at least one fluid flow influencing means part and at least one attachment means part for mechanical connection with said valve body (19, 57), wherein said attachment means part and said fluid flow influencing unit are connected to each other by at least one connection means part (40, 47), wherein the circumferential extent of said attachment means part is larger as compared to the circumferential extent of said connection means part (40, 47), and wherein the mechanical connection between said at least one attachment means part and at least part of said valve body (19, 57) is effectuated using at least one additional fixation means (36, 50), characterised in that said at least one attachment means part and said valve body (19, 57) comprise at least one recess part (20, 39, 49) for introducing and/or for manipulating said at least one additional fixation means (36, 50), wherein the movement of the attachment means part relative to the valve body (19, 57) is blocked essentially solely by the recess parts (20, 39, 49) and the corresponding at least one additional fixation means (36, 50).
An accelerator for an aqueous calcined gypsum composition comprising a borate selected from the group consisting of ulexite, colemanite and a mixture of ulexite and colemanite, and an accelerator material in the form of calcium sulfate dihydrate, wherein the borate is at least partially coated on the accelerator material.
A cell construct for cell transplantation comprising biocompatible polymer blocks that do not contain glutaraldehyde and at least one type of cells, wherein a plurality of biocompatible polymer blocks are disposed in gaps among a plurality of cells, and wherein the biocompatible polymer blocks have a tap density of 10 mg/cm 3 or more and 500 mg/cm 3 or less, or the value of the square root of the cross-sectional area / boundary length in the two-dimensional sectional image of the polymer block is 0.01 or more and 0.13 or less, wherein the size of one biocompatible polymer block is 20 μm or more and 200 μm or less.
A coating material comprising a zirconia-dispersed silicate in which ytterbia-stabilized zirconia is precipitated as a dispersed phase in a matrix phase which is any one of a rare earth disilicate, a rare earth monosilicate, and a mixed phase of the rare earth disilicate and the rare earth monosilicate, wherein the rare earth disilicate is any one of a (Y 1-a [Ln 1] a) 2 Si 2 O 7 solid solution (here, Ln 1 is any one of Sc, Yb, and Lu, a is 0.05 or more and less than 1 when Ln 1 is Sc, and a is 0.2 or more and less than 1 when Ln 1 is Yb or Lu), Sc 2 Si 2 O 7, Yb 2 Si 2 O 7, and Lu 2 Si 2 O 7, the rare earth monosilicate is Y 2 SiO 5, [Ln 1 '] 2 SiO 5, or a (Y 1-b [Ln 1 '] b) 2 SiO 5 solid solution (here, Ln 1 ' is any one of Sc, Yb, and Lu, and 0<b≤0.5), the ytterbia-stabilized zirconia contains ytterbia in a content of 8 wt% or more and 27 wt% or less, and an addition amount of the ytterbia-stabilized zirconia in the zirconia-dispersed silicate is 50 vol% or more and 90 vol% or less.
A method in a digital data storage system for redistributing digital data packages within the digital data storage system comprising a plurality of nodes, wherein the data packages are associated with respective keys and are distributed among the nodes according to a first distribution configuration within the digital data storage system, the method comprising: determining a second distribution configuration for redistributing the data packages; applying a migration function to the respective keys of each of the data packages, which function yields a unique migration value associated with each of the data packages determining an order in which the data packages will be migrated; assigning a migration time to each of a plurality of the data packages based on its associated migration value; and migrating the data packages at their respective migration times to conformity with the second distribution configuration wherein the data packages are stored in a table distributed over the nodes of the storage system such that each of the keys can be mapped to its corresponding data package by applying a mapping function to said key, wherein the mapping function is different than the migration function; wherein the order in which the data packages are migrated is different from an order in which the data packages are stored in the table; and wherein the migration times are assigned such that to avoid high migration loads on specific nodes during certain time ranges during the redistribution. determining a second distribution configuration for redistributing the data packages; applying a migration function to the respective keys of each of the data packages, which function yields a unique migration value associated with each of the data packages determining an order in which the data packages will be migrated; assigning a migration time to each of a plurality of the data packages based on its associated migration value; and migrating the data packages at their respective migration times to conformity with the second distribution configuration wherein the data packages are stored in a table distributed over the nodes of the storage system such that each of the keys can be mapped to its corresponding data package by applying a mapping function to said key, wherein the mapping function is different than the migration function; wherein the order in which the data packages are migrated is different from an order in which the data packages are stored in the table; and wherein the migration times are assigned such that to avoid high migration loads on specific nodes during certain time ranges during the redistribution.
A method of mixing a sample comprising the steps of: (a) aspirating a first portion of a sample to be mixed from a first level within a vessel containing the sample; (b) dispensing the first portion of the sample at a second level within the vessel; (c) measuring a first set of one or more values relating to at least one property of the first portion of the sample during at least one of the steps of aspirating or dispensing the first portion of the sample; (d) aspirating a second portion of the sample to be mixed from approximately the second level within the vessel; (e) dispensing the second portion of the sample at approximately the first level within the vessel; (f) measuring a second set of one or more values relating to the at least one property of the second portion of the sample during at least one of the steps of aspirating or dispensing the second portion of the sample; (g) comparing the first and second set of values to determine a difference of the at least one property of the first and second sample portions; (h) determining whether the difference of the at least one property of the first and second sample portions meets predetermined criteria; and (i) transferring at least a third portion of the sample to perform an assay in response to the determining step; characterized in that the predetermined criteria includes an indication that the viscosities of the first sample portion and second sample portion are substantially similar. (a) aspirating a first portion of a sample to be mixed from a first level within a vessel containing the sample; (b) dispensing the first portion of the sample at a second level within the vessel; (c) measuring a first set of one or more values relating to at least one property of the first portion of the sample during at least one of the steps of aspirating or dispensing the first portion of the sample; (d) aspirating a second portion of the sample to be mixed from approximately the second level within the vessel; (e) dispensing the second portion of the sample at approximately the first level within the vessel; (f) measuring a second set of one or more values relating to the at least one property of the second portion of the sample during at least one of the steps of aspirating or dispensing the second portion of the sample; (g) comparing the first and second set of values to determine a difference of the at least one property of the first and second sample portions; (h) determining whether the difference of the at least one property of the first and second sample portions meets predetermined criteria; and (i) transferring at least a third portion of the sample to perform an assay in response to the determining step;