mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus , comprising: a memory device (104-1... 104-N); and a controller including control circuitry coupled to the memory device (104-1... 104-N) configured to: receive a read command from a host, wherein the read command is assigned a host read identification (RID) number and wherein the read command includes an indication that the read command is requesting a first chunk of data and a second chunk of data; and execute the read command (244-10, 244-12) by assigning a first memory device read identification (RID) number to the first chunk of data and a second memory device RID number to the second chunk of data, wherein the first memory device RID number is the host RID number and the second memory device RID number sequentially follows the first memory device RID number, and, sending to the host, the first chunk of data, the first memory device RID number, the second chunk of data , and the second memory device RID number. a memory device (104-1... 104-N); and a controller including control circuitry coupled to the memory device (104-1... 104-N) configured to: receive a read command from a host, wherein the read command is assigned a host read identification (RID) number and wherein the read command includes an indication that the read command is requesting a first chunk of data and a second chunk of data; and execute the read command (244-10, 244-12) by assigning a first memory device read identification (RID) number to the first chunk of data and a second memory device RID number to the second chunk of data, wherein the first memory device RID number is the host RID number and the second memory device RID number sequentially follows the first memory device RID number, and, sending to the host, the first chunk of data, the first memory device RID number, the second chunk of data , and the second memory device RID number. receive a read command from a host, wherein the read command is assigned a host read identification (RID) number and wherein the read command includes an indication that the read command is requesting a first chunk of data and a second chunk of data; and execute the read command (244-10, 244-12) by assigning a first memory device read identification (RID) number to the first chunk of data and a second memory device RID number to the second chunk of data, wherein the first memory device RID number is the host RID number and the second memory device RID number sequentially follows the first memory device RID number, and, sending to the host, the first chunk of data, the first memory device RID number, the second chunk of data , and the second memory device RID number.
Filter element, particularly for applications in transmission oil lubrication for wind turbines, the filter medium of which is in the form of a hollow cylinder, and a fluid-permeable support tube lying on the inside thereof, which surrounds an inner filter cavity , wherein the filter medium , viewed in the throughflow direction of a fluid, separates an unfiltered medium side from a filtrate side and comprises at least one structural layer with a predefined surface area and with predefinable filter properties and at least one further structural layer with predefinable filter properties, wherein the surface area of the respective further structural layer is different from the surface area of the respective first structural layer , wherein the individual surface layers , lying on top of the other, surround the inner filter cavity , and wherein one respective structural layer has a lower filter grade than the respective preceding further structural layer , viewed in the throughflow direction, and extends continuously between two end caps , characterised in that the respective further structural layer , starting from a mid-point of the respective one structural layer , extends with its two free ends , retaining an axial distance, in the direction of the respective assignable end cap , in that the layer structure of the filter medium in the region of the further structural layer , viewed in the throughflow direction, is as follows: - wire mesh, - protective fleece, - glass fibre cloth as an additional pre- and/or main filter, - prefilter, - main filter, - protective fleece, - wire mesh, and in that , outside this further structural layer , the filter element using the same layer structure does not have any - glass fibre cloth as an additional pre- and/or main filter. the respective further structural layer , starting from a mid-point of the respective one structural layer , extends with its two free ends , retaining an axial distance, in the direction of the respective assignable end cap , in that the layer structure of the filter medium in the region of the further structural layer , viewed in the throughflow direction, is as follows: - wire mesh, - protective fleece, - glass fibre cloth as an additional pre- and/or main filter, - prefilter, - main filter, - protective fleece, - wire mesh, and - wire mesh, - protective fleece, - glass fibre cloth as an additional pre- and/or main filter, - prefilter, - main filter, - protective fleece, - wire mesh, and in that , outside this further structural layer , the filter element using the same layer structure does not have any - glass fibre cloth as an additional pre- and/or main filter. - glass fibre cloth as an additional pre- and/or main filter.
A process of preparing a compound having structural Formula (Ia): , comprising the steps of adding a solution of a compound having structural Formula (IIIc1) in a mixed solvent of methylene chloride and dimethylacetamide to a solution of sulfamoyl chloride in methylene chloride to form a reaction mixture; maintaining the reaction mixture at about room temperature for about 6 to 18 hours; and extracting the reaction mixture with an aqueous solution of a hydroxide or alkoxide base to form an extracted basic solution comprising the compound having the structural Formula (IIc1): wherein the compound having structural formula (IIc1) is stabilized; and reacting the extracted basic solution comprising the compound having structural Formula (IIc1) with a hydroxide or alkoxide base in an aqueous solution at a temperature ranging from 40 °C to 70 °C, wherein Y is C1-C12 alkylene or C1-C12 alkenylene; and R 8 is C 1 -C12 alkyl. maintaining the reaction mixture at about room temperature for about 6 to 18 hours; and extracting the reaction mixture with an aqueous solution of a hydroxide or alkoxide base to form an extracted basic solution comprising the compound having the structural Formula (IIc1): wherein the compound having structural formula (IIc1) is stabilized; and reacting the extracted basic solution comprising the compound having structural Formula (IIc1) with a hydroxide or alkoxide base in an aqueous solution at a temperature ranging from 40 °C to 70 °C, wherein Y is C1-C12 alkylene or C1-C12 alkenylene; and R 8 is C 1 -C12 alkyl.
A computer-implemented method for the computer-aided generation of an executable control program for controlling and/or regulating a technical process, in which the following method steps are implemented: defining the functionality of the control program by means of states (Z1 to Z4), input signals (E1 to E3), and output signals (A1, A2) via an operating interface; converting the determined functionality of the control program into an executable program code, characterized in that an input table filled in via the user interface fully describes the control program, wherein each state (Z1 to Z4) of the technical process is assigned a line/column of the input table and each input signal (E1 to E3) of the technical process is assigned a column/line of the input table in order to fully describe the technical process in the input table by defining, in each cell of the input table , signal change (S) waiting for transition to next state, or monitored (I) for error detection, or random, wherein in every defined state, every input signal is, according to the definition in the input table , either continuously monitored with regard to a signal change or an error condition, or randomly set and consequently not monitored by the program code, and wherein during the computer-aided creation of the executable control program from the input table a check table provides for all possible bit combinations of input signals (E1 to E3) information on which meaning or processing these bit combinations were assigned. defining the functionality of the control program by means of states (Z1 to Z4), input signals (E1 to E3), and output signals (A1, A2) via an operating interface; converting the determined functionality of the control program into an executable program code, characterized in that an input table filled in via the user interface fully describes the control program, wherein each state (Z1 to Z4) of the technical process is assigned a line/column of the input table and each input signal (E1 to E3) of the technical process is assigned a column/line of the input table in order to fully describe the technical process in the input table by defining, in each cell of the input table , signal change (S) waiting for transition to next state, or monitored (I) for error detection, or random, signal change (S) waiting for transition to next state, or monitored (I) for error detection, or random, wherein in every defined state, every input signal is, according to the definition in the input table , either continuously monitored with regard to a signal change or an error condition, or randomly set and consequently not monitored by the program code, and wherein during the computer-aided creation of the executable control program from the input table a check table provides for all possible bit combinations of input signals (E1 to E3) information on which meaning or processing these bit combinations were assigned.
A method for making a hybridized perovskite quantum dot material, comprising: dissolving an inorganic metal halide and an organic ammonium halide in a first solvent to obtain a precursor solution in which both the inorganic metal halide and the organic ammonium halide exist in a dispersed form, wherein the inorganic metal halide is one or more selected from a group consisting of halides of Ge, Sn, Sb, Bi, Cu and Mn; and adding the precursor solution dropwise to a second solvent, wherein the solubility of the inorganic metal halide and the organic ammonium halide in the first solvent is different from that in the second solvent, enabling the inorganic metal halide and the organic ammonium halide to be self-assembled, so that an inorganic metal cation of the inorganic metal halide and halogen anions of the organic ammonium halide form a coordination octahedral structure; organic ammonium cations of the organic ammonium halide enter into gaps of the coordination octahedral structure to obtain the hybridized perovskite quantum dot material, wherein a surface ligand has been added in advance to one or more selected from a group consisting of the first solvent and the second solvent, and the surface ligand is an organic acid or a long-chain organic amine, the long-chain organic amine is an alkyl or an aryl amine with from 4 to 24 carbon atoms; the first solvent and the second solvent are miscible. dissolving an inorganic metal halide and an organic ammonium halide in a first solvent to obtain a precursor solution in which both the inorganic metal halide and the organic ammonium halide exist in a dispersed form, wherein the inorganic metal halide is one or more selected from a group consisting of halides of Ge, Sn, Sb, Bi, Cu and Mn; and adding the precursor solution dropwise to a second solvent, wherein the solubility of the inorganic metal halide and the organic ammonium halide in the first solvent is different from that in the second solvent, enabling the inorganic metal halide and the organic ammonium halide to be self-assembled, so that an inorganic metal cation of the inorganic metal halide and halogen anions of the organic ammonium halide form a coordination octahedral structure; organic ammonium cations of the organic ammonium halide enter into gaps of the coordination octahedral structure to obtain the hybridized perovskite quantum dot material,
A method of calibrating a first catheter for detecting interference with magnetic field sensing caused by presence of a second catheter or other metal or ferrous object, comprising: providing a catheter with a first sensor (S 1 , S 2 , S 3 ) and a second sensor (S x , S y ) with both first and second sensors adapted to respond to a magnetic field generated by a field generator (MF); driving the field generator (MF) to enable the first (S 1 , S 2 , S 3 ) and second (S x , S y ) sensors to generate calibration signals; applying forces of axial displacement and angular deflection on the catheter ; calibrating the calibration signals from the first sensor to create a first calibration file and calibrating the calibration signals from the second sensor to create a second calibration file. providing a catheter with a first sensor (S 1 , S 2 , S 3 ) and a second sensor (S x , S y ) with both first and second sensors adapted to respond to a magnetic field generated by a field generator (MF); driving the field generator (MF) to enable the first (S 1 , S 2 , S 3 ) and second (S x , S y ) sensors to generate calibration signals; applying forces of axial displacement and angular deflection on the catheter ; calibrating the calibration signals from the first sensor to create a first calibration file and calibrating the calibration signals from the second sensor to create a second calibration file.
System for reducing motion sickness symptoms experienced by an occupant of a vehicle, comprising a vehicle motion data unit , adapted to retrieve vehicle motion data; an occupant data unit , adapted to retrieve occupant data; and a processing unit , configured to compute visual information surrounding the vehicle for its immediate and future position, based on the vehicle motion data and to calculate motion cues based on the visual information and the occupant data; wherein the system is configured to display the calculated motion cues in functional surfaces of the vehicle disposed within a peripheral visual field of the occupant , characterized in that the occupant data comprises the head position of the occupant within the functional surfaces of the vehicle in relation to an outer environment. a vehicle motion data unit , adapted to retrieve vehicle motion data; an occupant data unit , adapted to retrieve occupant data; and a processing unit , configured to compute visual information surrounding the vehicle for its immediate and future position, based on the vehicle motion data and to calculate motion cues based on the visual information and the occupant data;
A surgical microscope system comprising: one or more sensors for providing sensor information about a balance of the surgical microscope system ; one or more brakes for holding at least one component of the surgical microscope system in place; a surgical microscope ; and a processing module , configured to: process the sensor information, determine an information about the balance of the surgical microscope system , and control a release of the one or more brakes based on the information about the balance of the surgical microscope system , by overriding a control of the one or more brakes based on the information on the balance of the surgical microscope system or by limiting the operation of the brakes if the balance of the surgical microscope system indicates a danger of imbalance. one or more sensors for providing sensor information about a balance of the surgical microscope system ; one or more brakes for holding at least one component of the surgical microscope system in place; a surgical microscope ; and a processing module , configured to: process the sensor information, determine an information about the balance of the surgical microscope system , and control a release of the one or more brakes based on the information about the balance of the surgical microscope system , by overriding a control of the one or more brakes based on the information on the balance of the surgical microscope system or by limiting the operation of the brakes if the balance of the surgical microscope system indicates a danger of imbalance. process the sensor information, determine an information about the balance of the surgical microscope system , and control a release of the one or more brakes based on the information about the balance of the surgical microscope system , by overriding a control of the one or more brakes based on the information on the balance of the surgical microscope system or by limiting the operation of the brakes if the balance of the surgical microscope system indicates a danger of imbalance.
A projection display unit comprising: a body including a projection optical system and a detection optical system , the projection optical system projecting an image onto a projection surface , the detection optical system acquiring an imaging signal based on invisible light for detecting an object in proximity to the projection surface ; and an invisible light application unit that applies invisible light along a detection light plane in vicinity of the projection surface while the invisible light application unit being placed on a surface that is an extension of the projection surface , wherein the body is movable with respect to an output opening of the invisible light application unit , and a position of the body is adjustable with respect to the projection surface , a first housing that contains the invisible light application unit ; a second housing that is provided above the first housing and contains the body ; and an adjusting member that allows the position of the body to be adjustable through adjustment of a distance from the first housing to the second housing . a body including a projection optical system and a detection optical system , the projection optical system projecting an image onto a projection surface , the detection optical system acquiring an imaging signal based on invisible light for detecting an object in proximity to the projection surface ; and an invisible light application unit that applies invisible light along a detection light plane in vicinity of the projection surface while the invisible light application unit being placed on a surface that is an extension of the projection surface , wherein the body is movable with respect to an output opening of the invisible light application unit , and a position of the body is adjustable with respect to the projection surface , a first housing that contains the invisible light application unit ; a second housing that is provided above the first housing and contains the body ; and an adjusting member that allows the position of the body to be adjustable through adjustment of a distance from the first housing to the second housing .
Process for fabricating at least one planar photodiode , comprising the following steps: o producing a stack formed: • from at least one semiconductor layer made based on a first crystalline semiconductor; and • from an antireflection layer that extends in contact with a first face of the semiconductor layer and that is formed from a plurality of sublayers that lie parallel to one another, including a sublayer referred to as the seed sublayer, which is made based on a second crystalline semiconductor having a coefficient of thermal expansion lower than that of the first crystalline semiconductor; o producing at least one peripheral trench that extends through the semiconductor layer from a second face thereof opposite the first face and that opens onto the seed sublayer , bounding a section, referred to as the detecting section , of the semiconductor layer ; o producing a peripheral section made of the second crystalline semiconductor by epitaxy from the seed sublayer at a temperature, referred to as the epitaxy temperature, higher than room temperature, entirely filling the peripheral trench and thus being in contact with the detecting section ; o decreasing the temperature to a value lower than the epitaxy temperature, the detecting section then being tensilely strained by the peripheral section . o producing a stack formed: • from at least one semiconductor layer made based on a first crystalline semiconductor; and • from an antireflection layer that extends in contact with a first face of the semiconductor layer and that is formed from a plurality of sublayers that lie parallel to one another, including a sublayer referred to as the seed sublayer, which is made based on a second crystalline semiconductor having a coefficient of thermal expansion lower than that of the first crystalline semiconductor; • from at least one semiconductor layer made based on a first crystalline semiconductor; and • from an antireflection layer that extends in contact with a first face of the semiconductor layer and that is formed from a plurality of sublayers that lie parallel to one another, including a sublayer referred to as the seed sublayer, which is made based on a second crystalline semiconductor having a coefficient of thermal expansion lower than that of the first crystalline semiconductor; o producing at least one peripheral trench that extends through the semiconductor layer from a second face thereof opposite the first face and that opens onto the seed sublayer , bounding a section, referred to as the detecting section , of the semiconductor layer ; o producing a peripheral section made of the second crystalline semiconductor by epitaxy from the seed sublayer at a temperature, referred to as the epitaxy temperature, higher than room temperature, entirely filling the peripheral trench and thus being in contact with the detecting section ; o decreasing the temperature to a value lower than the epitaxy temperature, the detecting section then being tensilely strained by the peripheral section .
A channel configuration method, comprising: determining , by a base station, a quantity of system flows based on a random access channel, RACH, detection result, wherein the quantity of system flows is a sum of quantities of flows supported by all users; configuring , by the base station, an uplink channel and a downlink channel based on the quantity of system flows, wherein the uplink channel is a radio frequency channel used for uplink transmission, and the downlink channel is a radio frequency channel used for downlink transmission; and transmitting , by the base station, data based on the configured uplink channel and the configured downlink channel, wherein the configuring , by the base station, an uplink channel and a downlink channel based on the quantity of system flows comprises: determining a quantity of uplink channels and a quantity of downlink channels based on the quantity of system flows; and determining the uplink channel based on the quantity of uplink channels, and determining the downlink channel based on the quantity of downlink channels. determining , by a base station, a quantity of system flows based on a random access channel, RACH, detection result, wherein the quantity of system flows is a sum of quantities of flows supported by all users; configuring , by the base station, an uplink channel and a downlink channel based on the quantity of system flows, wherein the uplink channel is a radio frequency channel used for uplink transmission, and the downlink channel is a radio frequency channel used for downlink transmission; and transmitting , by the base station, data based on the configured uplink channel and the configured downlink channel, wherein the configuring , by the base station, an uplink channel and a downlink channel based on the quantity of system flows comprises: determining a quantity of uplink channels and a quantity of downlink channels based on the quantity of system flows; and determining the uplink channel based on the quantity of uplink channels, and determining the downlink channel based on the quantity of downlink channels. determining a quantity of uplink channels and a quantity of downlink channels based on the quantity of system flows; and determining the uplink channel based on the quantity of uplink channels, and determining the downlink channel based on the quantity of downlink channels.