mhurhangee/ep-ind-claims huggingface dataset:
A child safety seat comprising: a seat portion; a backrest assembly including a first and a second backrest portion (20, 30) slidably connected with each other, and a headrest slidably connected with the second backrest portion, the first backrest portion being connected with the seat portion; and a backrest adjusting system disposed on the backrest assembly and configured to provide a first stage of height adjustment where the first and second backrest portions (20, 30) are locked with each other and the headrest is movable relative to the first and second backrest portions (20, 30) for adjustment, and a second stage of height adjustment where the second backrest portion is locked with the headrest and unlocked from the first backrest portion so that the headrest and the second backrest portion are movable in unison relative to the first backrest portion for adjustment; characterized in that: the backrest adjusting system includes a lock having a first locking state corresponding to the first stage of height adjustment and a second locking state corresponding to the second stage of height adjustment, and a switching actuator operable to cause the lock to switch from the second locking state to the first locking state when a movement of the second backrest portion and the headrest locked with each other moves the second backrest portion to an anchor position relative to the first backrest portion. a seat portion; a backrest assembly including a first and a second backrest portion (20, 30) slidably connected with each other, and a headrest slidably connected with the second backrest portion, the first backrest portion being connected with the seat portion; and a backrest adjusting system disposed on the backrest assembly and configured to provide a first stage of height adjustment where the first and second backrest portions (20, 30) are locked with each other and the headrest is movable relative to the first and second backrest portions (20, 30) for adjustment, and a second stage of height adjustment where the second backrest portion is locked with the headrest and unlocked from the first backrest portion so that the headrest and the second backrest portion are movable in unison relative to the first backrest portion for adjustment; characterized in that: the backrest adjusting system includes a lock having a first locking state corresponding to the first stage of height adjustment and a second locking state corresponding to the second stage of height adjustment, and a switching actuator operable to cause the lock to switch from the second locking state to the first locking state when a movement of the second backrest portion and the headrest locked with each other moves the second backrest portion to an anchor position relative to the first backrest portion.
A reflectometric system for vibration measurement to monitor multiphase flows by analysis of the light backscattered by multimode fiber comprising: • a sensing multimode optical fiber; • an optical source (101, 102), containing a high coherence laser that emits optical pulses to be sent in said sensing fiber; characterized in that the system further comprises: • a photonic lantern with 3 or more single-mode optical fiber ports, and one multimode fiber port connected to the sensing multimode fiber; • an optical receiver, comprising a number of photodetectors equal to the number of single-mode optical fiber ports of said photonic lantern minus 1, wherein each photodetector is connected to each of said single-mode ports; • a system for processing output signals from the optical receiver, the optical source (101, 102) being connected to one of the single-mode optical fiber ports and the other single-mode fibers being connected to the optical receiver. • a sensing multimode optical fiber; • an optical source (101, 102), containing a high coherence laser that emits optical pulses to be sent in said sensing fiber; • a photonic lantern with 3 or more single-mode optical fiber ports, and one multimode fiber port connected to the sensing multimode fiber; • an optical receiver, comprising a number of photodetectors equal to the number of single-mode optical fiber ports of said photonic lantern minus 1, wherein each photodetector is connected to each of said single-mode ports; • a system for processing output signals from the optical receiver,
A process for preparing a compound of Formula 1 enriched in the -enantiomer and having an optical purity of at least 95% enantiomeric excess, wherein R 1 is C 1-10 alkyl, benzyl, naphthyl, or phenyl, each of which is unsubstituted or substituted with one or more substituents selected from the group consisting of halogen, alkyl, aryl, alkoxyl, aryloxy, thioalkoxy, thioaryloxy, alkylamino, arylamino, cyano or a heterocyclic group selected from the group consisting of pyridinyl, thiophenyl, furanyl, imidazolyl, morpholinyl, oxazolinyl, piperidinyl, piperazinyl, tetrahydropyranyl, pyrrolidinyl and pyrrolidinonyl, comprising the steps of: (a) enantioselectively -esterifying the racemic alcohol mixture of the compound of Formula 1 with an acyl donor and a first lipase to obtain a first -ester and the unreacted -alcohol; (b) removing the unreacted -alcohol; and (c) deacylating the resultant -ester with a second lipase in the presence of an alcohol of Formula R 1 OH. (a) enantioselectively -esterifying the racemic alcohol mixture of the compound of Formula 1 with an acyl donor and a first lipase to obtain a first -ester and the unreacted -alcohol; (b) removing the unreacted -alcohol; and (c) deacylating the resultant -ester with a second lipase in the presence of an alcohol of Formula R 1 OH.
Hand tool device with at least one locating device (12a-d) which is provided in order to locate a low-frequency AC voltage in a workpiece (14a-d) and which has at least a first locating antenna (16a-d), a second locating antenna (18a-d) and a shielding means (20a-d) intended for shielding a low-frequency locating signal and arranged between the first locating antenna (16a-d) and the second locating antenna (18a-d), the first and the second locating antenna (16a-d; 18a-d) extending along parallel surfaces, characterized in that at least part of the shielding means (20a-d) extends perpendicularly to the locating antennas (16a-d; 18a-d) such that the shielding means (20a-d) influences main locating directions (56a, 58a, 60a, 62a) of the locating antennas (16a-d, 18a-d), i.e. such directions in which a respective locating antenna has a maximum sensitivity.
An apparatus (100, 100') for reducing a magnetic coupling between a first electronic circuit and a second electronic circuit, comprising: a conductor loop for enclosing the first electronic circuit or the second electronic circuit; and a tuning element coupled to the conductor loop, wherein the conductor loop and the tuning element form a resonant circuit, and wherein the tuning element is configured to adjust a resonance frequency of the resonant circuit to a frequency related to a frequency of a signal processed by the second electronic circuit. a conductor loop for enclosing the first electronic circuit or the second electronic circuit; and a tuning element coupled to the conductor loop, wherein the conductor loop and the tuning element form a resonant circuit, and wherein the tuning element is configured to adjust a resonance frequency of the resonant circuit to a frequency related to a frequency of a signal processed by the second electronic circuit.
A method of operating a Mission-Critical Push-To-Talk (MCPTT) node (410, 510, 600, 800) connected to user equipments, UEs (405, 505, 700, 900) comprising MCPTT clients served by the MCPTT node, comprising: generating a Multimedia Broadcast and Multicast Service, MBMS, Subchannel Control Key, MSCCK, when activating a MBMS bearer; sending first messages to the UEs in unicast, wherein the first messages include the generated MSCCK; generating at least one MBMS subchannel control message; applying integrity protection and/or confidentiality protection to the at least one MBMS subchannel control message with the MSCCK; and sending the at least one MBMS subchannel control message in broadcast. generating a Multimedia Broadcast and Multicast Service, MBMS, Subchannel Control Key, MSCCK, when activating a MBMS bearer; sending first messages to the UEs in unicast, wherein the first messages include the generated MSCCK; generating at least one MBMS subchannel control message; applying integrity protection and/or confidentiality protection to the at least one MBMS subchannel control message with the MSCCK; and sending the at least one MBMS subchannel control message in broadcast.
A method for generating a bi-directional texture function of an object, the method comprising at least the following steps: - measuring an initial BTF for the object using a camera-based measurement device, - capturing spectral reflectance data for the object for a pre-given number of different measurement geometries using a spectrophotometer, - adapting the initial BTF to the captured spectral reflectance data, thus, gaining an optimized BTF wherein the initial BTF is represented by: f x ι ̅ o ̅ = χ ι ̅ o ̅ a π + ∑ k = 1 3 f S k, α k, F 0, k CT ι ̅ o ̅ + Ξ x ι ̅ o ̅ - x: Surface coordinates of the object -, o: Illumination and observation/viewing directions at the basecoat of the object - χ(, o): Color table depending on illumination and observation direction - a: Albedo or diffuse reflectivity - f S k, α k, F 0, k CT ι ̅ o ̅: A k-th Cook-Torrance lobe; the Cook-Torrance lobe is a commonly used BRDF that describes the glossiness of a microfacet surface - S k: Weight for the k-th Cook-Torrance lobe - α k: Parameter for the Beckmann distribution of the k-th Cook-Torrance lobe - F 0,k: Fresnel reflectivity for the k-th Cook-Torrance lobe - Ξ( x,, o): Table of spatial texture images depending on illumination and observation direction wherein the first term is divided into a first sub-term corresponding to a color table χ(, o) and a second sub-term corresponding to an intensity function a π + ∑ k = 1 3 f S k, α k, F 0, k CT ι ̅ o ̅ wherein the parameters of the initial BTF are optimized to minimize a color difference between the spectral reflectance data and the initial BTF by optimizing in a first optimization step the parameters of the color table while the parameters of the intensity function are kept constant, and by optimizing in a second optimization step the parameters of the intensity function while the parameters of the color table are kept constant. - measuring an initial BTF for the object using a camera-based measurement device, - capturing spectral reflectance data for the object for a pre-given number of different measurement geometries using a spectrophotometer, - adapting the initial BTF to the captured spectral reflectance data, thus, gaining an optimized BTF - x: Surface coordinates of the object -, o: Illumination and observation/viewing directions at the basecoat of the object - χ(, o): Color table depending on illumination and observation direction - a: Albedo or diffuse reflectivity - f S k, α k, F 0, k CT ι ̅ o ̅: A k-th Cook-Torrance lobe; the Cook-Torrance lobe is a commonly used BRDF that describes the glossiness of a microfacet surface - S k: Weight for the k-th Cook-Torrance lobe - α k: Parameter for the Beckmann distribution of the k-th Cook-Torrance lobe - F 0,k: Fresnel reflectivity for the k-th Cook-Torrance lobe - Ξ( x,, o): Table of spatial texture images depending on illumination and observation direction
An internal combustion engine comprising: a cylinder block (10; 90) equipped with a ringed coolant water passage (16; 92) formed so as to surround a plurality of cylinders (#1-#4); two partitioning members (12, 14; 48, 50; 68, 70; 76; 80; 84; 88) having a larger thermal expansion coefficient as compared to that of said cylinder block (10; 90), and separating said ringed coolant water passage (16; 92) into first passage (22; 98) existing mainly at one side of a longitudinal bore center plane which extends along the longitudinal direction of said cylinder block (10; 90) and second passage (24; 100) existing mainly at the other side of said longitudinal bore center plane; an inlet which communicates with said first passage (22; 98); an outlet which communicates with said second passage (24; 100); and a cylinder head (28; 104) provided with a coolant water passage opening to both said first passage (22; 98) and said second passage (24; 100); wherein said internal combustion engine is characterized in that a gap is formed between said cylinder block (10; 90) and said partitioning member (12, 14; 48, 50; 68, 70; 76; 80; 84; 88) under a warmed up condition. a cylinder block (10; 90) equipped with a ringed coolant water passage (16; 92) formed so as to surround a plurality of cylinders (#1-#4); two partitioning members (12, 14; 48, 50; 68, 70; 76; 80; 84; 88) having a larger thermal expansion coefficient as compared to that of said cylinder block (10; 90), and separating said ringed coolant water passage (16; 92) into first passage (22; 98) existing mainly at one side of a longitudinal bore center plane which extends along the longitudinal direction of said cylinder block (10; 90) and second passage (24; 100) existing mainly at the other side of said longitudinal bore center plane; an inlet which communicates with said first passage (22; 98); an outlet which communicates with said second passage (24; 100); and a cylinder head (28; 104) provided with a coolant water passage opening to both said first passage (22; 98) and said second passage (24; 100); wherein said internal combustion engine is characterized in that a gap is formed between said cylinder block (10; 90) and said partitioning member (12, 14; 48, 50; 68, 70; 76; 80; 84; 88) under a warmed up condition.
A power storage system for a vehicle provided with at least one electric motor; the power storage system comprises: a container provided with a lower wall; and a plurality of modules, which are housed inside the container and directly rest on the lower wall; wherein each module comprises a group of electrochemical cells and two containing walls, which are perpendicular to the lower wall of the container and are arranged parallel to one another on opposite sides of the group of electrochemical cells so as to clamp the group of electrochemical cells between them; wherein each containing wall has at least one tubular connection body; and wherein a plurality of locking elements are provided, which are fixed to the lower wall, project perpendicularly from the lower wall and engage the connection bodies; the power storage system is characterized in that at least two adjacent modules have two corresponding connection bodies which are aligned with and overlap one another and are both engaged by a same locking element. a container provided with a lower wall; and a plurality of modules, which are housed inside the container and directly rest on the lower wall; wherein each module comprises a group of electrochemical cells and two containing walls, which are perpendicular to the lower wall of the container and are arranged parallel to one another on opposite sides of the group of electrochemical cells so as to clamp the group of electrochemical cells between them; wherein each containing wall has at least one tubular connection body; and wherein a plurality of locking elements are provided, which are fixed to the lower wall, project perpendicularly from the lower wall and engage the connection bodies; the power storage system is characterized in that at least two adjacent modules have two corresponding connection bodies which are aligned with and overlap one another and are both engaged by a same locking element.
Hollow-cylindrical coreless winding for an electric motor, comprising a plurality of single coils (2.1, 2.2, 2.3) which are arranged to be distributed across the circumference of the winding, wherein each single coil (2.1, 2.2, 2.3) comprises a plurality of turns which are spirally wound around a winding axis that is perpendicular to an axis of the winding, and wherein successive single coils (2.1, 2.2, 2.3) overlap in a roof tile manner, vherein the winding comprises at least two phase windings (6, 7, 8), wherein each of the phase windings (6, 7, 8) consists of several ones of the single coils (2.1, 2.2, 2.3), wherein the phase windings (6, 7, 8) are furthermore offset with respect to each other in the circumferential direction of the hollow-cylindrical winding, so that the single coils (2.1) of a first phase winding are arranged, in the circumferential direction of the hollow-cylindrical winding, between the single coils (2.2) of a second phase winding, wherein the single coils (2.1, 2.2, 2.3) comprise a first section and a second section, wherein between the first section and the second section, a radial offset is provided with respect to the axis of the hollow-cylindrical winding, and wherein the overlap in a roof tile manner is achieved by the second section of a single coil (2.1, 2.2, 2.3) coming to lie on the first section of an adjacent single coil (2.1, 2.2, 2.3) of the hollow-cylindrical winding, wherein one half of each of the turns of the single coils extends in the first section 13 and the other half in the second section 14, and wherein the overlap in a roof tile manner is achieved by the second section of a single coil coming to lie on the first section of an adjacent single coil, characterized in that each of the phase windings (6, 7, 8) is wound from a continuous wire.
A negative electrode material for a secondary battery capable of intercalating and de-intercalating lithium, wherein the negative electrode material consists of alloy particles including a silicon phase, a metal phase, and bismuth, wherein the silicon phase is where no peak is observed at plane of the silicon obtained by X-ray diffraction measurement, wherein the X-ray diffraction measurement is done at a 2θ=10∼89.5 ° range, using CuKα radiation (wavelength=1.5406 Å), the metal phase includes at least one kind of metal alloying with silicon but not with lithium, the metal comprises two or more selected from a group consisting of Co, Cr and Ti, and the negative electrode material is secondary particle which is aggregate of primary particles alloyed by the silicon, the metal and bismuth, and the alloy particles include a portion at which the silicon forms an intermetallic compound with the at least one kind of metal, and a portion at which the silicon is present as a silicon single substance, wherein a content of the bismuth included in the alloy particles is lower than 5 wt%.
A hypergolic two-component system for rocket engines, including a fuel and an oxidising agent that are provided in a manner separated from one another and can be reacted in a rocket engine by bringing them into contact with one another, characterised in that - the fuel is an ionic liquid comprising a thiocyanate anion and one or more cations, wherein the cation or cations are selected from one or more imidazolium ions of the general formula I, triazolium ions of the general formula II or III, and/or tetrazolium ions of the general formula IV: where R 1 is a C 1 - to C 6 -alkyl radical or a C 2 - to C 6 -alkenyl radical, where R 2 is hydrogen or a C 1 - to C 6 -alkyl radical or a C 2 - to C 6 -alkenyl radical, and where X 1, X 2 and X 3 are each independently hydrogen, a C 1 - to C 6 -alkyl radical or a C 2 - to C 6 -alkenyl radical; and in that - the oxidising agent comprises hydrogen peroxide. - the fuel is an ionic liquid comprising a thiocyanate anion and one or more cations, wherein the cation or cations are selected from one or more imidazolium ions of the general formula I, triazolium ions of the general formula II or III, and/or tetrazolium ions of the general formula IV: where R 1 is a C 1 - to C 6 -alkyl radical or a C 2 - to C 6 -alkenyl radical, where R 2 is hydrogen or a C 1 - to C 6 -alkyl radical or a C 2 - to C 6 -alkenyl radical, and where X 1, X 2 and X 3 are each independently hydrogen, a C 1 - to C 6 -alkyl radical or a C 2 - to C 6 -alkenyl radical; and in that - the oxidising agent comprises hydrogen peroxide.
Laquinimod for use in reducing the relapse rate and/or reducing the accumulation of physical disability as assessed by the time to confirmed disease progression in a relapsing-remitting multiple sclerosis human patient, wherein laquinimod is prepared to be administered in a dosage regimen of 0.6 mg laquinimod daily.
A method performed in a cloud service, the cloud service configured with servers and a plurality of grid servers (112, 114), the method comprising: dividing, by the cloud service, a geographic region into a plurality of grids, each grid corresponding to a coverage area, wherein each grid is associated with a grid server (112, 114); receiving, at the cloud service, a wireless communication from a mobile device associated with a vehicle and comprising trajectory related data of the vehicle; determining from the trajectory data, by the grid servers (112, 114), at least one grid in which the vehicle is in or is projected to be in before updated information from the mobile device is received; determining, by the grid server associated with the at least one grid, based on the trajectory data whether the vehicle is at risk of collision, and if so, to send an alert-related data for communication to the vehicle; and maintaining, by the cloud service, the load over all grids to have substantially the same load by subdividing grids that have too much load and collapsing grids with too little load. dividing, by the cloud service, a geographic region into a plurality of grids, each grid corresponding to a coverage area, wherein each grid is associated with a grid server (112, 114); receiving, at the cloud service, a wireless communication from a mobile device associated with a vehicle and comprising trajectory related data of the vehicle; determining from the trajectory data, by the grid servers (112, 114), at least one grid in which the vehicle is in or is projected to be in before updated information from the mobile device is received; determining, by the grid server associated with the at least one grid, based on the trajectory data whether the vehicle is at risk of collision, and if so, to send an alert-related data for communication to the vehicle; and maintaining, by the cloud service, the load over all grids to have substantially the same load by subdividing grids that have too much load and collapsing grids with too little load.
A developer for a printer for printing to a substrate; the developer comprising a plurality of rollers operable to influence forming an image; the plurality of rollers comprising: a developer roller for bearing printing liquid for forming the image; and a squeegee roller for cooperating with the developer roller to influence the printing liquid on the developer roller; and characterized by: the squeegee roller being operable, via a brake, to stop rotating relative to the developer roller while printing fluid is transferred to the developer roller to influence the printing liquid on the developer roller. a developer roller for bearing printing liquid for forming the image; and a squeegee roller for cooperating with the developer roller to influence the printing liquid on the developer roller; and characterized by: the squeegee roller being operable, via a brake, to stop rotating relative to the developer roller while printing fluid is transferred to the developer roller to influence the printing liquid on the developer roller.