mhurhangee/patent-ind-claim-en huggingface dataset:
A flat cable wiring structure, comprising: an operation mechanism that detects a physical operation made on an operating surface and outputs a detection signal; a control board , disposed facing the operating surface of the operation mechanism , that outputs a driving signal for imparting vibration to the operation mechanism on the basis of the detection signal; and a flat cable that electrically connects the operation mechanism and the control board , wherein the flat cable comprises a routing portion that extends from the operation mechanism to the control board partially along a movement direction of the operation mechanism, wherein the routing portion comprises a bending portion that bends at a bending angle allowing the routing portion to be also partially routed along the control board , wherein the routing portion comprises a first routing portion hanging down from a back surface of the operation mechanism toward the control board , and a second routing portion substantially extending along a back surface of the control board , and wherein the bending portion is formed by bending the routing portion where the first routing portion and the second routing portion intersect with each other. an operation mechanism that detects a physical operation made on an operating surface and outputs a detection signal; a control board , disposed facing the operating surface of the operation mechanism , that outputs a driving signal for imparting vibration to the operation mechanism on the basis of the detection signal; and a flat cable that electrically connects the operation mechanism and the control board , wherein the flat cable comprises a routing portion that extends from the operation mechanism to the control board partially along a movement direction of the operation mechanism, wherein the routing portion comprises a bending portion that bends at a bending angle allowing the routing portion to be also partially routed along the control board , wherein the routing portion comprises a first routing portion hanging down from a back surface of the operation mechanism toward the control board , and a second routing portion substantially extending along a back surface of the control board , and wherein the bending portion is formed by bending the routing portion where the first routing portion and the second routing portion intersect with each other.
Test kit, embodied for bioanalysis, in particular for an immunoassay, comprising at least one measurement sensor (M) for quantitative detection of a substance and at least one reference sensor (R1, R2, R3), to which the substance has already been supplied in a defined manner, and wherein the reference sensor or sensors (R1, R2, R3) and/or the measurement sensor or sensors (M) is/are formed with acoustic resonators , in particular FBARs, and comprising at least one reference compartment per reference sensor (R1, R2, R3), the at least one reference sensor (R1, R2, R3) respectively being introduced therein.
A water lubrication type bearing material comprising: 12 wt.% to 25 wt.% of a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer resin (PFA resin); 18 wt.% to 33 wt.% of a carbon fiber; and a remainder including a polytetrafluoroethylene (PTFE) resin and/or a modified PTFE resin, wherein the carbon fiber is a curved/twisted carbon fiber. 12 wt.% to 25 wt.% of a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer resin (PFA resin); 18 wt.% to 33 wt.% of a carbon fiber; and a remainder including a polytetrafluoroethylene (PTFE) resin and/or a modified PTFE resin, wherein the carbon fiber is a curved/twisted carbon fiber.
An antenna arrangement having one or more antennas , an electrical printed circuit board with a side area , wherein the antennas being connected to the side area of the printed circuit board , and an attenuation arrangement arranged on the side area , wherein the attenuation arrangement has at least one first attenuation unit having an access opening within which said antennas are jointly arranged, and wherein a central axis (M D ) of the access opening runs along a main radiation direction of the antenna arrangement , characterized in that the attenuation arrangement has a second attenuation unit having an access opening within which the antennas are jointly arranged, wherein the first attenuation unit and the second attenuation unit differ from one another geometrically and/or in terms of their respective material composition.
Spring-absorber system for a wheel suspension of a motor vehicle comprising a suspension spring with a spring constant k T and an absorber connected in parallel with the suspension spring and filled with a fluid, wherein the spring-absorber system furthermore comprises at least two additional spring modules , each having an additional container , wherein each additional container comprises an additional container volume, which is subjected to pressure by an additional spring with a spring constant k n , and the additional container volumes each have a fluidic connection via a fluid line to an absorber section of the absorber , the absorber section volume of which is reduced during the compression stage of the absorber , wherein at least one additional spring module of the at least two additional spring modules comprises a controllable shut-off valve with which the respective fluid line can be blocked, wherein the additional container is a cylinder with two variable volume cylinder chambers separated by a movable separating piston , wherein a first cylinder chamber as the additional container volume is connected via the respective fluid line to the absorber section , the absorber section volume of which is reduced during the compression stage of the absorber , and a second cylinder chamber accommodates the respective additional spring , which by means of the separating piston acts in a pressure-impinging manner on the first cylinder chamber, characterized in that the separating piston has a membrane between one of the cylinder chambers and a cavity formed by the separating piston.
A tea-based beverage composition comprising, calculated by weight of dry matter: • 0.3-10% of dry tea components derived from leaves of the tea plant, Camellia sinensis; • 10-80% saccharide selected from sucrose, glucose, fructose and combinations thereof; • 2-35% oil, wherein the term oil encompasses lipids that are liquid at ambient temperature as well as lipids that are partially or wholly solid at ambient temperature; • 0.5-20% gelatinized starch; and • 0.1-10% plant protein, wherein the plant protein is pulse protein selected from lentil protein, pea protein, and combinations thereof; wherein the starch and plant protein are at least partly provided by pulse flour selected from lentil flour, pea flour, and combinations thereof; wherein the composition contains less than 10% by weight of dry matter of particles of plant material having a diameter of more than 10 μm and comprising the plant protein; and wherein the gelatinized starch and the plant protein are contained in the beverage composition in a weight ratio of 1:1 to 20:1. • 0.3-10% of dry tea components derived from leaves of the tea plant, Camellia sinensis; • 10-80% saccharide selected from sucrose, glucose, fructose and combinations thereof; • 2-35% oil, wherein the term oil encompasses lipids that are liquid at ambient temperature as well as lipids that are partially or wholly solid at ambient temperature; • 0.5-20% gelatinized starch; and • 0.1-10% plant protein, wherein the plant protein is pulse protein selected from lentil protein, pea protein, and combinations thereof;
A low cost, low density, and high performance Al-Li alloy comprising: from 3.6 to 4.1 wt. % Cu, from 0.8 to 1.05 wt. % Li, from 0.6 to 1.0 wt.% Mg, from 0.2 to 0.6 wt.% Mn, less than 0.05 wt.% Ag, less than 0.2 wt.% Zn, from 0.03 to 0.16 wt. % of at least one grain structure control element selected from the group consisting of Zr, Sc, Cr, V, Hf, and other rare earth elements, up to 0.10 wt.% Ti, up to 0.12 wt.% Si, up to 0.15 wt.% Fe, up to 0.15 wt. % each incidental elements, with the total incidental elements not exceeding 0.35 wt. %, wherein incidental elements are not included intentionally and wherein incidental elements include any elements except Al, Cu, Li, Mg, Zr, Zn, Mn, Ag, Fe, Si, and Ti, with the balance being aluminum, and wherein the amount of Cu in weight percent is at least equal to or higher than four times the amount of Li in weight percent. from 3.6 to 4.1 wt. % Cu, from 0.8 to 1.05 wt. % Li, from 0.6 to 1.0 wt.% Mg, from 0.2 to 0.6 wt.% Mn, less than 0.05 wt.% Ag, less than 0.2 wt.% Zn, from 0.03 to 0.16 wt. % of at least one grain structure control element selected from the group consisting of Zr, Sc, Cr, V, Hf, and other rare earth elements, up to 0.10 wt.% Ti, up to 0.12 wt.% Si, up to 0.15 wt.% Fe, up to 0.15 wt. % each incidental elements, with the total incidental elements not exceeding 0.35 wt. %, wherein incidental elements are not included intentionally and wherein incidental elements include any elements except Al, Cu, Li, Mg, Zr, Zn, Mn, Ag, Fe, Si, and Ti, with the balance being aluminum, and wherein the amount of Cu in weight percent is at least equal to or higher than four times the amount of Li in weight percent.
An adjustable mount for a camera, the adjustable mount comprising a fixed base for mounting to an object in a fixed position, a mount body that is removably connected to the fixed base , the fixed base defining a horizontal plane for the adjustable mount , and a slider mounted in the mount body , whose teeth positively engage and slide on a toothed disc on the fixed base , wherein the mount body comprises a cam lever , a mounting portion and a slider lock mounted on the same axis of the slider , wherein, when the mount body is connected to the fixed base in use, the mount body is rotatable about a vertical axis passing through the fixed base and the mounting portion of the mount body is pivotable away from the horizontal plane so as to enable adjustment of an orientation of a camera supported on the mounting portion, and wherein the cam lever is arranged such that the slider lock is pushed, when pivoted toward the mount body , to prevent movement of the slider so as to maintain the mount body in its rotational position on the fixed base and lock the mounting portion in its position.
A vehicle suspension element provided with a coating , the coating comprising a reticulated polymer matrix comprising a polyepoxide and having a minimum thickness (E1) at least equal to 120 μm, wherein the coating comprises, in the reticulated polymer matrix : - a fibre filler of an average length by number at least equal to 100 μm; - a silica filler having a median diameter in mass at least equal to 1 μm; - a first ceramic filler having a median diameter in mass between 30 μm and 70 μm; and - a second ceramic filler having a median diameter in mass at least equal to 10 μm. - a fibre filler of an average length by number at least equal to 100 μm; - a silica filler having a median diameter in mass at least equal to 1 μm; - a first ceramic filler having a median diameter in mass between 30 μm and 70 μm; and - a second ceramic filler having a median diameter in mass at least equal to 10 μm.
A protein which is an isolated heterodimeric protein or a single chain protein, wherein either a first peptide and a second peptide chain of the heterodimeric protein; or the single chain protein; have an overall sequence identity of at least 70 % with the combined sequences of SEQ ID NO: 3 and SEQ ID NO: 4,.
An optical processing device, comprising a processor , at least one first interface , at least one second interface , and at least one third interface ; the first interface is used to connect to and communicate with an upper-layer device, the second interface is used to connect to and communicate with a user-side device, and the third interface is used to connect to and communicate with a third interface of another optical processing module; and the processor is configured to process, according to a first control instruction, data received from the at least one first interface and the at least one third interface , wherein the first control instruction indicates an actual data bandwidth allocated to the at least one first interface and an actual data bandwidth allocated to the at least one third interface in a downlink direction, and a sum of the actual data bandwidth allocated to the at least one first interface and the actual data bandwidth allocated to the at least one third interface is not greater than a processing capability of the optical processing module ; wherein the processing capability of the optical processing module is the size of a data packet that can be processed by the optical processing module per unit of time; and wherein the processor is configured to send a part or all of the data received from the first interface and the third interface to another optical processing module through another third interface different from the interface used to receive the data. the first interface is used to connect to and communicate with an upper-layer device, the second interface is used to connect to and communicate with a user-side device, and the third interface is used to connect to and communicate with a third interface of another optical processing module; and the processor is configured to process, according to a first control instruction, data received from the at least one first interface and the at least one third interface , wherein the first control instruction indicates an actual data bandwidth allocated to the at least one first interface and an actual data bandwidth allocated to the at least one third interface in a downlink direction, and a sum of the actual data bandwidth allocated to the at least one first interface and the actual data bandwidth allocated to the at least one third interface is not greater than a processing capability of the optical processing module ; wherein the processing capability of the optical processing module is the size of a data packet that can be processed by the optical processing module per unit of time; and wherein the processor is configured to send a part or all of the data received from the first interface and the third interface to another optical processing module through another third interface different from the interface used to receive the data.
A one-unit operation, continuous extrusion process for making a rheology-modified, additive-containing ethylenic polymer in a continuously operated multi-zone extruder sequentially comprising a first zone configured with a main feeder for adding an ethylenic polymer into the extruder and optionally configured with an injector for adding a high-temperature decomposing peroxide into the first zone of the extruder, a second zone optionally configured with an injector for adding a high-temperature decomposing peroxide into the second zone of the extruder, a third zone configured with a side feeder for adding one or more additives into the third zone of the extruder, and an outlet for discharging material from the extruder, wherein the first zone is in material communication with the second zone via zero, one or more intermediary zones disposed therebetween, wherein the second zone is in material communication with the third zone via zero, one or more intermediary zones disposed therebetween, and wherein the third zone is in material communication with the outlet via 0, 1 or more intermediary zones disposed therebetween, and wherein at least one of the first and second zones is configured with the injector, the process comprising the steps of: mixing in the second zone of the extruder the ethylenic polymer and the high-temperature decomposing peroxide at a temperature such that the half-life of the peroxide is greater than (>) one minute and for a sufficient period of time to melt the ethylenic polymer and to modify the rheology of the melted ethylenic polymer to produce a rheology-modified, melted ethylenic polymer that is transferred to the third zone of the extruder; and adding via the side feeder of the third zone said one or more additives to the rheology-modified, melted ethylenic polymer to produce the rheology-modified, additive-containing ethylenic polymer. mixing in the second zone of the extruder the ethylenic polymer and the high-temperature decomposing peroxide at a temperature such that the half-life of the peroxide is greater than (>) one minute and for a sufficient period of time to melt the ethylenic polymer and to modify the rheology of the melted ethylenic polymer to produce a rheology-modified, melted ethylenic polymer that is transferred to the third zone of the extruder; and adding via the side feeder of the third zone said one or more additives to the rheology-modified, melted ethylenic polymer to produce the rheology-modified, additive-containing ethylenic polymer.
A method of predicting response to a hormone-directed therapy in a prostate cancer patient comprising (a) performing a direct analysis of circulating tumour cells (CTCs) in the context of surrounding nucleated cells present in a blood sample obtained from the patient in the absence of enrichment of the blood sample for CTCs prior to detection thereof, comprising immunofluorescent staining and morphological characterization of nucleated cells in the blood sample to identify and enumerate circulating tumour cells (CTC); (b) individually characterizing genotypic, morphometric and protein expression parameters to generate a profile for each of the CTCs, wherein said genotypic parameters comprise copy number variation (CNV) signatures, wherein the CNV signatures comprise gene amplifications or deletions, wherein said gene amplifications comprise genes associated with androgen independent cell growth, wherein said gene comprises v-myc avian myelocytomatosis viral oncogene homolog (MYC); (c) predicting response to hormone-directed therapy in the prostate cancer patient based on said profiles of the CTCs; (d) repeating steps (a) through (c) at one or more timepoints after initial diagnosis of prostate cancer to sequentially monitor said genotypic, morphometric and protein expression parameters; and (e) predicting a response based on comparison of the profiles between the timepoints. (a) performing a direct analysis of circulating tumour cells (CTCs) in the context of surrounding nucleated cells present in a blood sample obtained from the patient in the absence of enrichment of the blood sample for CTCs prior to detection thereof, comprising immunofluorescent staining and morphological characterization of nucleated cells in the blood sample to identify and enumerate circulating tumour cells (CTC); (b) individually characterizing genotypic, morphometric and protein expression parameters to generate a profile for each of the CTCs, wherein said genotypic parameters comprise copy number variation (CNV) signatures, wherein the CNV signatures comprise gene amplifications or deletions, wherein said gene amplifications comprise genes associated with androgen independent cell growth, wherein said gene comprises v-myc avian myelocytomatosis viral oncogene homolog (MYC); (c) predicting response to hormone-directed therapy in the prostate cancer patient based on said profiles of the CTCs; (d) repeating steps (a) through (c) at one or more timepoints after initial diagnosis of prostate cancer to sequentially monitor said genotypic, morphometric and protein expression parameters; and (e) predicting a response based on comparison of the profiles between the timepoints.
A method for producing a compound represented by formula : or an enantiomer thereof, comprising: reacting a compound represented by formula : or an enantiomer thereof with 6-hydroxyhexanoic acid in a solvent in the presence of an additive selected from the group consisting of 1-hydroxybenzotriazole, 1-hydroxy-7-azabenzotriazole, N-hydroxysuccinimide, ethyl(hydroxyimino)cyanoacetate, N,N'-disuccinimidyl carbonate, N-hydroxyphthalimide, N-hydroxypiperidine, 3-hydroxy-4-oxo-3,4-dihydro-1,2,3-benzotriazine and N-hydroxy-5-norbornene-2,3-dicarboxylic acid imide, and a condensing agent, and then mixing the resultant reaction mixture, water, and a base selected from the group consisting of alkali metal hydroxide, alkali metal carbonate, a bicyclic amidine compound, alkali metal alkoxide, and quaternary ammonium hydroxide to produce a compound represented by formula : or an enantiomer thereof; and reacting the compound represented by formula obtained in the production step or an enantiomer thereof with 2-cyanoethyl-N,N,N',N'-tetraisopropylphosphorodiamidite in a solvent in the presence of a coupling activator to obtain the compound represented by formula or an enantiomer thereof, wherein the coupling activator is a coupling activator used for oligonucleotide synthesis by a phosphoramidate method. reacting a compound represented by formula : or an enantiomer thereof with 6-hydroxyhexanoic acid in a solvent in the presence of an additive selected from the group consisting of 1-hydroxybenzotriazole, 1-hydroxy-7-azabenzotriazole, N-hydroxysuccinimide, ethyl(hydroxyimino)cyanoacetate, N,N'-disuccinimidyl carbonate, N-hydroxyphthalimide, N-hydroxypiperidine, 3-hydroxy-4-oxo-3,4-dihydro-1,2,3-benzotriazine and N-hydroxy-5-norbornene-2,3-dicarboxylic acid imide, and a condensing agent, and then mixing the resultant reaction mixture, water, and a base selected from the group consisting of alkali metal hydroxide, alkali metal carbonate, a bicyclic amidine compound, alkali metal alkoxide, and quaternary ammonium hydroxide to produce a compound represented by formula : or an enantiomer thereof; and reacting the compound represented by formula obtained in the production step or an enantiomer thereof with 2-cyanoethyl-N,N,N',N'-tetraisopropylphosphorodiamidite in a solvent in the presence of a coupling activator to obtain the compound represented by formula or an enantiomer thereof, wherein the coupling activator is a coupling activator used for oligonucleotide synthesis by a phosphoramidate method.
A refrigerator comprising: a cabinet provided with a storage compartment ; an inner case to define an appearance of the storage compartment ; a first door pivotally mounted to the cabinet , to open or close one side of the storage compartment ; and a second door pivotally mounted to the cabinet , to open or close the other side of the storage compartment , the second door is provided with a pillar rotatable to come into contact with the first door , wherein the pillar is spaced apart from a top wall of the inner case and a bottom wall of the inner case , to be prevented from coming into contact with the inner case when the second door is maintained to seal the storage compartment , characterized in that the pillar is configured to rotate toward the second door to a folded state when the first door opens the storage compartment under a condition that the second door seals the storage compartment . a cabinet provided with a storage compartment ; an inner case to define an appearance of the storage compartment ; a first door pivotally mounted to the cabinet , to open or close one side of the storage compartment ; and a second door pivotally mounted to the cabinet , to open or close the other side of the storage compartment , the second door is provided with a pillar rotatable to come into contact with the first door , wherein the pillar is spaced apart from a top wall of the inner case and a bottom wall of the inner case , to be prevented from coming into contact with the inner case when the second door is maintained to seal the storage compartment , characterized in that the pillar is configured to rotate toward the second door to a folded state when the first door opens the storage compartment under a condition that the second door seals the storage compartment .