mhurhangee/patent-ind-claim-en huggingface dataset:
A device for producing an electrochemically aligned strand, thread or fiber, comprising: a pump system including a) a pump , b) a solution reservoir for a solution comprising one or more of electrochemically alignable molecules, nanoparticles and microparticles with ampholytic nature, and c) an outlet ; a substantially horizontally disposed electrode having a groove on an upper surface of the electrode, wherein the electrode is rotatable around a substantially vertical axis , wherein the groove extends completely around the axis at a distance therefrom, the groove having a conductive layer on each side of the groove , wherein the outlet is positioned above the groove such that the solution is applyable to a location in the groove , wherein the groove is rotatable around the axis , wherein the electrochemically aligned strand is formable in the groove upon transmission of an electric current to the conductive layer; and a collection device positioned relative to the electrode such that the electrochemically aligned strand formed on the electrode is collected by the collection device . a pump system including a) a pump , b) a solution reservoir for a solution comprising one or more of electrochemically alignable molecules, nanoparticles and microparticles with ampholytic nature, and c) an outlet ; a substantially horizontally disposed electrode having a groove on an upper surface of the electrode, wherein the electrode is rotatable around a substantially vertical axis , wherein the groove extends completely around the axis at a distance therefrom, the groove having a conductive layer on each side of the groove , wherein the outlet is positioned above the groove such that the solution is applyable to a location in the groove , wherein the groove is rotatable around the axis , wherein the electrochemically aligned strand is formable in the groove upon transmission of an electric current to the conductive layer; and a collection device positioned relative to the electrode such that the electrochemically aligned strand formed on the electrode is collected by the collection device .
A particulate detection system for detecting the amount (M) of particulates (S) contained in filtered exhaust gas (FEG) which is a portion of exhaust gas (EG) flowing through an exhaust pipe (EP) of an engine (ENG) mounted on a vehicle (AM) and which has passed through a filter (DPF) for filtering the exhaust gas (EG) and collecting particulates (S) contained in the exhaust gas (EG), the filtered exhaust gas (FEG) being discharged to the outside of the vehicle, the system comprising: a sensor disposed on a downstream side (DLL) of the filter (DPF); a sensor circuit section which drives the sensor and obtains in real time a sensor output (Ss) corresponding to the volumetric particulate amount (MV) of the particulates (S) contained in the filtered exhaust gas (FEG); and a computation section which computes a distance particulate amount (MD, MDW, MDN, MD(m), MDW(m), MDN(m)) which is the weight or number of the particulates (S) discharged per unit travel distance on the basis of the sensor output (Ss, Ss(n)) obtained by the sensor circuit section , travel distance (Dd, Dd(m), Dr) of the vehicle (AM), and flow rate (Fd, Fd(n)) of the exhaust gas (EG), wherein the computation section includes: a judgment section (580, 1680, S13, S37, S64) which judges whether or not particulate collection characteristics of the filter (DPF) are anomalous on the basis of the computed distance particulate amount (MD, MDW, MDN). a sensor disposed on a downstream side (DLL) of the filter (DPF); a sensor circuit section which drives the sensor and obtains in real time a sensor output (Ss) corresponding to the volumetric particulate amount (MV) of the particulates (S) contained in the filtered exhaust gas (FEG); and a computation section which computes a distance particulate amount (MD, MDW, MDN, MD(m), MDW(m), MDN(m)) which is the weight or number of the particulates (S) discharged per unit travel distance on the basis of the sensor output (Ss, Ss(n)) obtained by the sensor circuit section , travel distance (Dd, Dd(m), Dr) of the vehicle (AM), and flow rate (Fd, Fd(n)) of the exhaust gas (EG), wherein
A process for extracting from a mineral material selected from the group consisting of bauxite, limonite, and red mud, iron value and at least one metal value selected from aluminum, titanium, sodium, calcium, and, silicon, said process consisting of the following steps: • pulverizing said mineral material to a particle size in the range of 5 - 500 μ to obtain a pulverized material; • combining said pulverized material with a carbonaceous material to obtain a resultant mixture, wherein, the ratio of said pulverized material to said carbonaceous material is in the range of 88: 12 - 95: 5; • moulding said resultant mixture to obtain a formed material in a form selected from the group consisting of pellets, lumps, and briquettes; • smelting, at least partly, metal and slag in said formed material at a temperature in the range of 1200 - 1800 °C, to separate the iron values from the slag containing at least one metal value selected from aluminum, titanium, calcium, sodium, and silicon; and • separating at least one metal value from the slag by a process involving: (i) mild pulverization, (ii) air classification, and (iii) magnetic separation, to obtain at least one metal value selected from aluminum, titanium, sodium, calcium, and, silicon. • pulverizing said mineral material to a particle size in the range of 5 - 500 μ to obtain a pulverized material; • combining said pulverized material with a carbonaceous material to obtain a resultant mixture, wherein, the ratio of said pulverized material to said carbonaceous material is in the range of 88: 12 - 95: 5; • moulding said resultant mixture to obtain a formed material in a form selected from the group consisting of pellets, lumps, and briquettes; • smelting, at least partly, metal and slag in said formed material at a temperature in the range of 1200 - 1800 °C, to separate the iron values from the slag containing at least one metal value selected from aluminum, titanium, calcium, sodium, and silicon; and • separating at least one metal value from the slag by a process involving: (i) mild pulverization, (ii) air classification, and (iii) magnetic separation, to obtain at least one metal value selected from aluminum, titanium, sodium, calcium, and, silicon.
A coupling comprising : a female member configured for rotation around an axis, defining an axial recess , and having a plurality of female member connections circumferentially arranged along a radially inner face ; a male member extending inside the axial recess concentrically to the female member and having a plurality of male member connections circumferentially arranged along a radially outer face ; and a plurality of circumferentially arranged links (44; 144; 244; 344), each link (44; 144; 244; 344) having an inner end (46; 146) connected to the male member via a corresponding one of the male member connections , and an outer end (48; 148; 248; 348) connected to the female member via a corresponding one of the female member connections , with the inner end (46; 146) being circumferentially offset from the outer end (48; 148; 248; 348) in a given angular direction, the given angular direction configured for subjecting the links (44; 144; 244; 344) to compression when transmitting torque between the female member and male member , wherein both the male member connections and the female member connections are pivotal connections , allowing pivot movement ability of the corresponding link ends (46; 146, 48; 148; 248; 348), and blocking circumferential displacement ability, characterised in that: the pivotal connections comprise rounded sockets engaged with corresponding rounded link ends (46; 146, 48; 148; 248; 348). a female member configured for rotation around an axis, defining an axial recess , and having a plurality of female member connections circumferentially arranged along a radially inner face ; a male member extending inside the axial recess concentrically to the female member and having a plurality of male member connections circumferentially arranged along a radially outer face ; and a plurality of circumferentially arranged links (44; 144; 244; 344), each link (44; 144; 244; 344) having an inner end (46; 146) connected to the male member via a corresponding one of the male member connections , and an outer end (48; 148; 248; 348) connected to the female member via a corresponding one of the female member connections , with the inner end (46; 146) being circumferentially offset from the outer end (48; 148; 248; 348) in a given angular direction, the given angular direction configured for subjecting the links (44; 144; 244; 344) to compression when transmitting torque between the female member and male member , wherein both the male member connections and the female member connections are pivotal connections , allowing pivot movement ability of the corresponding link ends (46; 146, 48; 148; 248; 348), and blocking circumferential displacement ability,
A computational method for sampling the spatial distribution of one or more solutes and water in a defined region of space (system) comprising: 1) assigning a target concentration, N tgt , of each of the one or more solutes and water; 2) sampling the spatial distribution of the one or more solutes and water in a computationally defined region of space using Grand-Canonical Monte-Carlo (GCMC) Metropolis sampling criteria, wherein the excess chemical potential (μ ex ) assigned for each of the one or more solutes, if present, and water is set to 0, if present; 3) updating μ ex of each of the one or more solutes and water from the difference in current concentration in the defined region of space (N sys ) and the target (N tgt ) ; 4) repeating steps 2) and 3) using the updated values of μ ex in step 2) to obtain a spatial distribution of the one or more solutes and water; wherein the system further comprises one or more macromolecules, wherein the spatial distribution of one or more solutes or water is used to identify preferential affinity of each of the solutes or water to each of the one or more macromolecules, and wherein said one or more macromolecules are selected from a protein, RNA, DNA, carbohydrate, lipid, organic chemical, inorganic chemical, or a combination thereof. 1) assigning a target concentration, N tgt , of each of the one or more solutes and water; 2) sampling the spatial distribution of the one or more solutes and water in a computationally defined region of space using Grand-Canonical Monte-Carlo (GCMC) Metropolis sampling criteria, wherein the excess chemical potential (μ ex ) assigned for each of the one or more solutes, if present, and water is set to 0, if present; 3) updating μ ex of each of the one or more solutes and water from the difference in current concentration in the defined region of space (N sys ) and the target (N tgt ) ; 4) repeating steps 2) and 3) using the updated values of μ ex in step 2) to obtain a spatial distribution of the one or more solutes and water;
An image processing apparatus that is connectable to a plurality of information processing devices via a network , the image processing apparatus comprising: an operation receiver configured to receive an operation input from a user; an authentication controller configured to authenticate a user of an information processing device that connects to the image processing apparatus and a user who operates the operation receiver ; an image processor configured to perform image processing to add a digital watermark containing address information of the image processing apparatus to a first image to be processed by the image processing apparatus to thereby generate a second image; a communication controller configured to receive a taking-out request to take out the digital watermark contained in the second image from the information processing device ; and a storage controller configured to store, in a storage unit , a log representing an operation of the image processing apparatus that is performed according to an instruction of the user who is authenticated by the authentication controller , wherein when the communication controller receives the taking-out request, the image processor performs image processing to take out the digital watermark contained in the second image to thereby generate the first image, the communication controller transmits the first image that is generated by the image processor to the information processing device , and the storage controller stores, in the storage unit , the log containing identification information that identifies the user of the information processing device from which the taking-out request is transmitted. an operation receiver configured to receive an operation input from a user; an authentication controller configured to authenticate a user of an information processing device that connects to the image processing apparatus and a user who operates the operation receiver ; an image processor configured to perform image processing to add a digital watermark containing address information of the image processing apparatus to a first image to be processed by the image processing apparatus to thereby generate a second image; a communication controller configured to receive a taking-out request to take out the digital watermark contained in the second image from the information processing device ; and a storage controller configured to store, in a storage unit , a log representing an operation of the image processing apparatus that is performed according to an instruction of the user who is authenticated by the authentication controller , wherein when the communication controller receives the taking-out request, the image processor performs image processing to take out the digital watermark contained in the second image to thereby generate the first image, the communication controller transmits the first image that is generated by the image processor to the information processing device , and the storage controller stores, in the storage unit , the log containing identification information that identifies the user of the information processing device from which the taking-out request is transmitted.
A wireless communication method comprising: determining, by a terminal device, a Policy Section Identifier, PSI, parameter which is used for identifying a part of policy information for the terminal device under a subscribed user; sending , by the terminal device, the PSI parameter to a first network device; and receiving, by the terminal device, updated policy information of the terminal device sent by the first network device, the method being characterized in that the PSI parameter comprises a Public Land Mobile Network, PLMN, identifier and a first identifier, and the first identifier is used for uniquely identifying a PSI parameter under the PLMN, and the PSI parameter and a subscriber identifier are used for indicating a piece of policy information. determining, by a terminal device, a Policy Section Identifier, PSI, parameter which is used for identifying a part of policy information for the terminal device under a subscribed user; sending , by the terminal device, the PSI parameter to a first network device; and receiving, by the terminal device, updated policy information of the terminal device sent by the first network device, the method being characterized in that the PSI parameter comprises a Public Land Mobile Network, PLMN, identifier and a first identifier, and the first identifier is used for uniquely identifying a PSI parameter under the PLMN, and the PSI parameter and a subscriber identifier are used for indicating a piece of policy information.
Use of an organomineral composition for stimulating the development of a plant by increasing its ability to assimilate soil nutrients, said composition comprising the following compounds: - Unfermented vegetable organic matter 13 to 45 % - Calcium carbonate 10 to 26 % - Dolomia 15 to 38 % - NaCl 0 to 1 % - MgSO 4 4.5 to 12.75 % - Ammonium sulphate 0 to 25% - Ammonium phosphate 0 to 32 % - Lignosulfonate 5 to 7 % - Elemental sulphur 0.00925 to 0.6604 % - Sulphate of potash 0.5 to 2 % said unfermented vegetable organic matter comprising: - seaweed meal; and - vegetable cake, or a mixture of vegetable cakes, obtained from almond, peanut, safflower, hemp, rape, copra, cotton, shea, flax, maize, walnut, olive, palm kernel, poppy, sesame, soya or sunflower and/or pea, ferevol and/or lupin flour, said composition comprising a total amount of nitrogen ranging from 1 to 8% and a total amount of phosphorus, expressed as P2O5, ranging from 0 to 12%, the total organic matter of said organomineral composition having an analytical "carbon/organic nitrogen" ratio ranging from 8 to 12, the percentages being expressed in weight of dry matter of each of said compounds relative to the total weight of dry matter of said organomineral composition. - seaweed meal; and - vegetable cake, or a mixture of vegetable cakes, obtained from almond, peanut, safflower, hemp, rape, copra, cotton, shea, flax, maize, walnut, olive, palm kernel, poppy, sesame, soya or sunflower and/or pea, ferevol and/or lupin flour,
An optical lens arrangement for a head-mounted device comprising: a first Fresnel lens element defining a flat surface side and an opposite faceted surface side defining wedge faces and draft faces, the flat surface side intended for facing towards the eye of a user and the opposite faceted surface side intended for facing away from the eye of the user; and characterised in : a second plano-convex aspheric lens element defining a flat surface side and an opposite convex curved surface side , the flat surface side facing towards the faceted side of the first Fresnel lens element, the opposite curved surface side facing away from the first Fresnel lens element.
A vibration damping device , comprising: an external member attached to one of a vibration-generating portion and a vibration-receiving portion; a tubular member attached to the other of the vibration-generating portion and the vibration-receiving portion; and an elastic body which connects the external member and the tubular member , wherein the external member includes a frame-like member having a rectangular shape when viewed from a top, the elastic body is formed in a rectangular parallelepiped shape having a rectangular shape when viewed from the top, the tubular member is disposed inside the frame-like member when viewed from the top, and a central axis (O2) of the tubular member extends in a short-side direction (Y) in which a short-side portion of the frame-like member forming a short side of the rectangular shape when viewed from the top extends, characterized in that in the frame-like member , a lower end edge of a long-side portion forming a long side of the rectangular shape when viewed from the top is located on an inner side than an upper end edge of the long-side portion in the short-side direction (Y), and in the elastic body , a long-side portion forming a long side of the rectangular shape when viewed from the top adheres to an inner circumferential surface of the long-side portion of the frame-like member , and a short-side portion 9308126-1 forming a short side of the rectangular shape when viewed from the top comes into contact with the external member in a long-side direction (X) in which the long-side portion extends when viewed from the top, in a non-adhering state. an external member attached to one of a vibration-generating portion and a vibration-receiving portion; a tubular member attached to the other of the vibration-generating portion and the vibration-receiving portion; and an elastic body which connects the external member and the tubular member , wherein the external member includes a frame-like member having a rectangular shape when viewed from a top, the elastic body is formed in a rectangular parallelepiped shape having a rectangular shape when viewed from the top, the tubular member is disposed inside the frame-like member when viewed from the top, and a central axis (O2) of the tubular member extends in a short-side direction (Y) in which a short-side portion of the frame-like member forming a short side of the rectangular shape when viewed from the top extends, characterized in that in the frame-like member , a lower end edge of a long-side portion forming a long side of the rectangular shape when viewed from the top is located on an inner side than an upper end edge of the long-side portion in the short-side direction (Y), and in the elastic body , a long-side portion forming a long side of the rectangular shape when viewed from the top adheres to an inner circumferential surface of the long-side portion of the frame-like member , and a short-side portion 9308126-1 forming a short side of the rectangular shape when viewed from the top comes into contact with the external member in a long-side direction (X) in which the long-side portion extends when viewed from the top, in a non-adhering state.
A fixing device for a circuit board comprising: a holding portion , configured to hold the circuit board, wherein the holding portion comprises a containing space (S), a bottom portion and a top portion , the top portion comprises an opening (E) allowing the circuit board to pass through the opening (E) to be inserted in the containing space (S); and a fixing portion , wherein the fixing portion is connected with the bottom portion of the holding portion , and the fixing portion is configured to be fixed onto a component so that the circuit board held by the holding portion is fixable to said component; characterized in that the containing space (S) is defined by the bottom portion and side walls , wherein a scalable element is provided at a joint between the side wall and the bottom portion of the holding portion or at the bottom portion of the holding portion , the scalable element comprises a stretching portion in a first portion of the holding portion and a receiving portion (24") in a second portion of the holding portion , wherein a lock structure formed as a protrusion shape is provided on the stretching portion , and wherein a concave portion is provided on the receiving portion (24") to receive and lock the lock structure , so as to lock the scalable element in a stretch state or a retraction state. a holding portion , configured to hold the circuit board, wherein the holding portion comprises a containing space (S), a bottom portion and a top portion , the top portion comprises an opening (E) allowing the circuit board to pass through the opening (E) to be inserted in the containing space (S); and a fixing portion , wherein the fixing portion is connected with the bottom portion of the holding portion , and the fixing portion is configured to be fixed onto a component so that the circuit board held by the holding portion is fixable to said component; characterized in that the containing space (S) is defined by the bottom portion and side walls , wherein a scalable element is provided at a joint between the side wall and the bottom portion of the holding portion or at the bottom portion of the holding portion , the scalable element comprises a stretching portion in a first portion of the holding portion and a receiving portion (24") in a second portion of the holding portion , wherein a lock structure formed as a protrusion shape is provided on the stretching portion , and wherein a concave portion is provided on the receiving portion (24") to receive and lock the lock structure , so as to lock the scalable element in a stretch state or a retraction state.