mhurhangee/patent-ind-claim-en huggingface dataset:
Process for the production of optoelectronic metal halide nanoparticles, formed by polymer-coated metal halide nanocrystals, comprising the following steps: a) preparing a precursor solution comprising: - a solvent selected among dimethyl sulfoxide, N,N-dimethyl acetamide, dimethyl formamide, N-methyl formamide and mixtures thereof; - halide salts of one or more cations intended for forming the nanocrystals, wherein the halide anion is one or more selected among F - , Cl - , Br - and I - ; - a block copolymer containing one or more polar blocks and one or more non-polar or moderately polar blocks; b) adding the precursor solution dropwise to a solvent which is selective for the non-polar or moderately polar blocks of the block copolymer, selected among toluene, xylene, mesitylene, ethyl acetate, anisole and mixtures thereof forming a suspension, and allowing the system to react forming optoelectronic metal halide nanoparticles, until the obtained suspension changes color; c) quenching the reaction of step b) by addition of a solvent selected among pentane, hexane, heptane, diethyl ether and mixtures thereof; d) collecting the optoelectronic metal halide nanoparticles; characterized in that the precursor solution of step a) further comprises one or more additive molecules, characterized by containing two or more functional groups and one or more aliphatic, cycloaliphatic or aromatic chains, preferably with a chain length comprised between 4 and 12 carbon atoms. a) preparing a precursor solution comprising: - a solvent selected among dimethyl sulfoxide, N,N-dimethyl acetamide, dimethyl formamide, N-methyl formamide and mixtures thereof; - halide salts of one or more cations intended for forming the nanocrystals, wherein the halide anion is one or more selected among F - , Cl - , Br - and I - ; - a block copolymer containing one or more polar blocks and one or more non-polar or moderately polar blocks; - a solvent selected among dimethyl sulfoxide, N,N-dimethyl acetamide, dimethyl formamide, N-methyl formamide and mixtures thereof; - halide salts of one or more cations intended for forming the nanocrystals, wherein the halide anion is one or more selected among F - , Cl - , Br - and I - ; - a block copolymer containing one or more polar blocks and one or more non-polar or moderately polar blocks; b) adding the precursor solution dropwise to a solvent which is selective for the non-polar or moderately polar blocks of the block copolymer, selected among toluene, xylene, mesitylene, ethyl acetate, anisole and mixtures thereof forming a suspension, and allowing the system to react forming optoelectronic metal halide nanoparticles, until the obtained suspension changes color; c) quenching the reaction of step b) by addition of a solvent selected among pentane, hexane, heptane, diethyl ether and mixtures thereof; d) collecting the optoelectronic metal halide nanoparticles;
A method of measuring a dimension (L) of an object being a timepiece component and having a first axis , the method including the use of a first optical system including an optical sensor and having a second optical axis , the measuring method including: - a step of obtaining at least one series of data from the optical sensor when the object is in movement relative to the first optical system, the movement being an angular movement of the first axis relative to the second axis and/or a movement of the object in rotation about the first axis and/or a movement of the object in translation along the second axis, the at least one series of data corresponding to a series of apparent values of the dimension, and - a step of processing the at least one series of data to quantify said dimension, the processing including determining the value of the dimension by calculation based on the apparent values of the dimension, the calculation including a calculation of the mean of the apparent values and/or the calculation including an interpolation of the apparent values, notably a polynomial interpolation, and/or the calculation including a local extremum extraction and/or the calculation including a correction of the at least one series of data, based on a second series of data concerning a calibrated dimension that is known precisely. - a step of obtaining at least one series of data from the optical sensor when the object is in movement relative to the first optical system, the movement being an angular movement of the first axis relative to the second axis and/or a movement of the object in rotation about the first axis and/or a movement of the object in translation along the second axis, the at least one series of data corresponding to a series of apparent values of the dimension, and - a step of processing the at least one series of data to quantify said dimension, the processing including determining the value of the dimension by calculation based on the apparent values of the dimension, the calculation including a calculation of the mean of the apparent values and/or the calculation including an interpolation of the apparent values, notably a polynomial interpolation, and/or the calculation including a local extremum extraction and/or the calculation including a correction of the at least one series of data, based on a second series of data concerning a calibrated dimension that is known precisely.
An arrangement comprising at least one actuator and at least one device (102; 202; 302; 402) for detecting or measuring a variable quantity associated with a fluid flow, wherein the at least one actuator comprises a thermostat, wherein the at least one device (102; 202; 302; 402) comprises a first attachment portion configured for engagement with and attachment to an attachment portion of a valve unit included in a fluid system , preferably the fluid system is a heat exchange fluid system , the valve unit being configured to control the fluid flow, wherein the at least one device (102; 202; 302; 402) further comprises a second attachment portion configured for engagement with and attachment to an attachment portion of the at least one actuator , and at least one sensor for detecting or measuring the variable quantity. wherein the at least one actuator comprises a thermostat, wherein the at least one device (102; 202; 302; 402) comprises a first attachment portion configured for engagement with and attachment to an attachment portion of a valve unit included in a fluid system , preferably the fluid system is a heat exchange fluid system , the valve unit being configured to control the fluid flow, wherein the at least one device (102; 202; 302; 402) further comprises a second attachment portion configured for engagement with and attachment to an attachment portion of the at least one actuator , and at least one sensor for detecting or measuring the variable quantity.
A suspension formulation comprising a spray dried monoclonal antibody at a concentration of about 200 mg/mL or more suspended in a non-aqueous suspension vehicle, wherein the viscosity of the suspension vehicle is less than about 20 mPa·s (20 centipoise) at about 25 °C, wherein the non-aqueous suspension vehicle comprises propylene glycol dicaprylate/dicaprate.
A method for decoding a bitstream for a video signal comprising at least one coding block with a decoding apparatus, the method comprising: obtaining, with the decoding apparatus, a plurality of prediction blocks being partitioned from the coding block; obtaining, with the decoding apparatus, merge flag information of a current prediction block of the plurality of prediction blocks from the bitstream, the merge flag information indicating whether the current prediction block is coded in a merge mode; obtaining, with the decoding apparatus, merge index information of the current prediction block from the bitstream, the merge index information specifying a merging candidate to be merged with the current prediction block from among merging candidates including spatial and temporal neighboring blocks of the current prediction block; deriving, with the decoding apparatus, prediction information of the current prediction block based on the merging candidates and the merge index information, the prediction information including motion vector information and reference index information; and decoding, with the decoding apparatus, the current prediction block based on the prediction information of the current prediction block, wherein, when the coding block 2Nx2N is partitioned into a top 2NxN prediction block and a bottom 2NxN prediction block and the current prediction block is the bottom 2NxN prediction block of the coding block, the top 2NxN prediction block of the coding block is excluded from the merging candidates. obtaining, with the decoding apparatus, a plurality of prediction blocks being partitioned from the coding block; obtaining, with the decoding apparatus, merge flag information of a current prediction block of the plurality of prediction blocks from the bitstream, the merge flag information indicating whether the current prediction block is coded in a merge mode; obtaining, with the decoding apparatus, merge index information of the current prediction block from the bitstream, the merge index information specifying a merging candidate to be merged with the current prediction block from among merging candidates including spatial and temporal neighboring blocks of the current prediction block; deriving, with the decoding apparatus, prediction information of the current prediction block based on the merging candidates and the merge index information, the prediction information including motion vector information and reference index information; and decoding, with the decoding apparatus, the current prediction block based on the prediction information of the current prediction block, wherein, when the coding block 2Nx2N is partitioned into a top 2NxN prediction block and a bottom 2NxN prediction block and the current prediction block is the bottom 2NxN prediction block of the coding block, the top 2NxN prediction block of the coding block is excluded from the merging candidates.
Arrangement, comprising a clamping ring and a screw , for clampingly connecting a hollow-shaft region, in particular a hollow-shaft region of an adapter shaft , to a shaft, the shaft being inserted into the hollow-shaft region on which the clamping ring is placed, the clamping ring having a slot that is radially and axially through-going, a tangentially directed stepped bore being arranged in the clamping ring and receiving the screw , the screw being screwed into a threaded region of the stepped bore, which is arranged on the slot side remote from the step of the stepped bore, the spatial region covered by the screw , in particular the screw head, being limited by a limiting means that is connected to the clamping ring and is arranged on the screw-head side remote from the step, characterised in that the limiting means protrudes into the stepped bore in part, the limiting means being connected to the clamping ring in one piece in the axial direction of the screw , the limiting means being configured as deformation regions of the clamping ring , the limiting means being arranged on the screw-head side remote from the step. the shaft being inserted into the hollow-shaft region on which the clamping ring is placed, the clamping ring having a slot that is radially and axially through-going, a tangentially directed stepped bore being arranged in the clamping ring and receiving the screw , the screw being screwed into a threaded region of the stepped bore, which is arranged on the slot side remote from the step of the stepped bore, the spatial region covered by the screw , in particular the screw head, being limited by a limiting means that is connected to the clamping ring and is arranged on the screw-head side remote from the step, characterised in that the limiting means protrudes into the stepped bore in part, the limiting means being connected to the clamping ring in one piece in the axial direction of the screw , the limiting means being configured as deformation regions of the clamping ring , the limiting means being arranged on the screw-head side remote from the step.
An appliance for orthodontic correction of setting of one or more anterior teeth in the patient's jaw or mandible, the appliance comprising: a labial arch having a correcting plate and two arms equipped with tensioning means ; and a base consisting of two opposite mounting elements linked by a connector and provided for attaching the appliance onto the teeth on both sides of the patient's jaw or mandible, wherein the arms of the labial arch are mounted in the mounting elements of the base , characterised in that each of the mounting elements is in the form of a plate reproducing the shape of at least two consecutive premolar teeth of the patient, preferably two premolar teeth and a following molar tooth, most preferably two premolar teeth and two following molar teeth, and wherein the mounting elements are so arranged that when placed onto the patient's jaw or mandible, the mounting elements cover the upper and lateral surfaces of the patient's tooth crowns. a labial arch having a correcting plate and two arms equipped with tensioning means ; and a base consisting of two opposite mounting elements linked by a connector and provided for attaching the appliance onto the teeth on both sides of the patient's jaw or mandible, wherein the arms of the labial arch are mounted in the mounting elements of the base , characterised in that each of the mounting elements is in the form of a plate reproducing the shape of at least two consecutive premolar teeth of the patient, preferably two premolar teeth and a following molar tooth, most preferably two premolar teeth and two following molar teeth, and wherein the mounting elements are so arranged that when placed onto the patient's jaw or mandible, the mounting elements cover the upper and lateral surfaces of the patient's tooth crowns.
A basket for use with a system for processing samples, the system including a tray defining a well , the basket comprising: a container portion defining a bottom wall and a side wall , wherein both of the bottom wall and the side wall define a plurality of openings, such that an interior of the basket is configured to be in fluid communication with the well of the tray , a lip configured to retain the basket within the well of the tray ; characterized in that at least some of the openings have sharp corners to break surface tension of a fluid introduced into the basket . a container portion defining a bottom wall and a side wall , wherein both of the bottom wall and the side wall define a plurality of openings, such that an interior of the basket is configured to be in fluid communication with the well of the tray , a lip configured to retain the basket within the well of the tray ; characterized in that at least some of the openings have sharp corners to break surface tension of a fluid introduced into the basket .
A method comprising: receiving a control signal by a user equipment , UE, wherein the control signal is carried by a narrowband physical downlink control channel, NPDCCH, allocated in a NPDCCH search space divided into a plurality of predefined blind decoding intervals; wherein the method is characterized in that it further comprises: decoding the NPDCCH from the control signal, wherein the UE monitors the control signal inside a NPDCCH monitoring length for each blind decoding interval, wherein the NPDCCH monitoring length is determined based at least in part on a signal to noise ratio, SNR, of a received radio signal ; and partially turning off a radio frequency, RF, chain and stopping NPDCCH monitoring outside the NPDCCH monitoring length until a next blind decoding interval if the decoding fails, and completely turning off the RF chain until data transmission and reception for a narrowband physical downlink shared channel, NPDSCH, if the decoding succeeds, wherein the partial turning off involves turning on the RF chain to receive reference signals and synchronization signals and otherwise turning off the RF chain. receiving a control signal by a user equipment , UE, wherein the control signal is carried by a narrowband physical downlink control channel, NPDCCH, allocated in a NPDCCH search space divided into a plurality of predefined blind decoding intervals; wherein the method is characterized in that it further comprises: decoding the NPDCCH from the control signal, wherein the UE monitors the control signal inside a NPDCCH monitoring length for each blind decoding interval, wherein the NPDCCH monitoring length is determined based at least in part on a signal to noise ratio, SNR, of a received radio signal ; and partially turning off a radio frequency, RF, chain and stopping NPDCCH monitoring outside the NPDCCH monitoring length until a next blind decoding interval if the decoding fails, and completely turning off the RF chain until data transmission and reception for a narrowband physical downlink shared channel, NPDSCH, if the decoding succeeds, decoding the NPDCCH from the control signal, wherein the UE monitors the control signal inside a NPDCCH monitoring length for each blind decoding interval, wherein the NPDCCH monitoring length is determined based at least in part on a signal to noise ratio, SNR, of a received radio signal ; and partially turning off a radio frequency, RF, chain and stopping NPDCCH monitoring outside the NPDCCH monitoring length until a next blind decoding interval if the decoding fails, and completely turning off the RF chain until data transmission and reception for a narrowband physical downlink shared channel, NPDSCH, if the decoding succeeds, wherein the partial turning off involves turning on the RF chain to receive reference signals and synchronization signals and otherwise turning off the RF chain.
Arrangement of a body of a vehicle , notably a motor vehicle, comprising a body structure and a roof panel , the body structure comprising, at the top, a roof side rail formed by a body side and/or a body side reinforcement and/or a body side lining the stacking of which defines a load-transfer path , the body comprising a structural node where the path meets a support for a crossmember , the roof panel being connected to the body via an attachment reinforcement , the reinforcement comprising a structural foam making attachment of the roof panel to the structural node suitable, characterized in that the support has an inverted-U section profile with turned-up edges to form substantially parallel attachment strips, and in that the attachment reinforcement is a bridging piece connecting the attachment strips of the support to the load-transfer path .
A method for manufacturing a composite structure , the method comprising: forming a filler material with a barrier material for a channel in the filler material ; laying up a composite material and the filler material with the barrier material onto a tool in a shape of the composite structure ; and curing the composite material and the filler material in the shape of the composite structure (410, wherein the forming step comprises: forming the filler material with the barrier material for the channel in a foam with a mandrel in the channel ; and removing the mandrel from the filler material to form the composite structure , wherein the barrier material forms a barrier for a channel in the composite structure . forming a filler material with a barrier material for a channel in the filler material ; laying up a composite material and the filler material with the barrier material onto a tool in a shape of the composite structure ; and curing the composite material and the filler material in the shape of the composite structure (410, wherein the forming step comprises: forming the filler material with the barrier material for the channel in a foam with a mandrel in the channel ; and removing the mandrel from the filler material to form the composite structure , wherein the barrier material forms a barrier for a channel in the composite structure . forming the filler material with the barrier material for the channel in a foam with a mandrel in the channel ; and removing the mandrel from the filler material to form the composite structure , wherein the barrier material forms a barrier for a channel in the composite structure .
Steel structure, especially wind turbine, comprising at least two structure elements, especially turbine elements , each having a conical connection interface , which elements are connected by a slip joint connection by means of their connection interfaces , wherein an elastic damping means is arranged between the adjacent connection interfaces , wherein the damping means is made of one or more mats comprising at least one layer of an elastic material, characterised in that the or each mat comprises one elastic layer sandwiched between two outer layers of another material.
Use of an alloy as a brazing alloy for an electric switch braze joint, the alloy composition consisting of: at least one element selected from each of group I and group II listed below, the balance being Ag, optionally at least one of Cu and Zn, and impurities; group I: Cd, Mn, Ni, P, Sb, Si, Sn, Ti, and oxides thereof in a total amount of 0.5 to 45.0 wt.%; and group II: Bi, Mo, Te, W, and oxides thereof, oxides of Cu and Zn in a total amount of 0.1 to 15.0 wt.%. at least one element selected from each of group I and group II listed below, the balance being Ag, optionally at least one of Cu and Zn, and impurities; group I: Cd, Mn, Ni, P, Sb, Si, Sn, Ti, and oxides thereof in a total amount of 0.5 to 45.0 wt.%; and group II: Bi, Mo, Te, W, and oxides thereof, oxides of Cu and Zn in a total amount of 0.1 to 15.0 wt.%.