mhurhangee/ep-ind-claims huggingface dataset:
Transport system consisting of at least one, preferably several, autonomous and self-propelled transport vehicles and furthermore a plurality of route modules that can be coupled to one another on a transport level (T1, T2), each of the route modules consists of a body which extends essentially two-dimensionally within a transport level (T1, T2) and has a support surface and a working surface, wherein the working surface has at least one pair of cross-sectionally three-dimensionally shaped travel lanes (6X, 6Y), which are arranged in one or both of perpendicularly aligned directions of travel (X, Y), wherein the route modules are designed as square or rectangular plates or frames that form one or more pairs of travel lanes (6X, 6Y) in one direction or in two directions (X, Y) oriented at right angles to one another parallel to the side edges of the plates or frames, wherein the route modules are connected form-fit and/or force-fit to one another in the X and/or Y direction, wherein the transport vehicles are connected to the route modules by contacting at least some of the travel lanes (6X, 6Y), and wherein each route module contains an identification element with a coding that can be assigned to each of the transport vehicles, characterized in that: the travel lanes (6X, 6Y) are in the form of notches with a trapezoidal cross section, wherein one route module is only being able to be driven on by a single transport vehicle.
An immunoassay method for determination of an a nti-< t herapeutic monoclonal a ntibody> anti b ody (anti-<TmAB>AB) in vitro in a whole blood, plasma or serum sample from a patient treated with a therapeutic monoclonal antibody (TmAB), the method comprising: a) providing an F(ab) fragment of said TmAB bound to a solid phase, b) incubating the solid phase provided in (a) with the sample thereby binding the anti-<TmAB>AB to the solid phase via the F(ab) fragment, c) incubating the solid phase obtained in (b) with a monoclonal antibody <h-Agg.-IgG>, whereby said monoclonal antibody binds to the anti-<TmAB>AB, wherein the monoclonal antibody is an IgM antibody having a dissociation constant (=K D) value of about 10 -6 mol/l - 10 -8 mol/l, and d) detecting monoclonal antibody <h-Agg.-IgG> bound in (c) and thereby determining the anti-<TmAB>AB in the sample. a) providing an F(ab) fragment of said TmAB bound to a solid phase, b) incubating the solid phase provided in (a) with the sample thereby binding the anti-<TmAB>AB to the solid phase via the F(ab) fragment, c) incubating the solid phase obtained in (b) with a monoclonal antibody <h-Agg.-IgG>, whereby said monoclonal antibody binds to the anti-<TmAB>AB, wherein the monoclonal antibody is an IgM antibody having a dissociation constant (=K D) value of about 10 -6 mol/l - 10 -8 mol/l, and d) detecting monoclonal antibody <h-Agg.-IgG> bound in (c) and thereby determining the anti-<TmAB>AB in the sample.
Transmitting user equipment, comprising: a transmission module, configured to transmit scheduling signaling to receiving user equipment, UE, wherein the scheduling signaling comprises frequency domain resource information and transmission pattern information and a quantity of cycles that can be occupied; and a processing module, configured to repeatedly transmit user data to the receiving UE according to the scheduling signaling, wherein the scheduling signaling further comprises a quantity of times of repeated transmission of a data packet; and the processing module is specifically configured to: repeatedly transmit the user data to the receiving UE according to the scheduling signaling, according to a transmission pattern indicated by the transmission pattern information, and according to the quantity of times of repeated transmission of the data packet, in a frequency domain position indicated by the frequency domain resource information, in a transmission subframe indicated by the quantity of cycles that can be occupied. a transmission module, configured to transmit scheduling signaling to receiving user equipment, UE, wherein the scheduling signaling comprises frequency domain resource information and transmission pattern information and a quantity of cycles that can be occupied; and a processing module, configured to repeatedly transmit user data to the receiving UE according to the scheduling signaling, wherein the scheduling signaling further comprises a quantity of times of repeated transmission of a data packet; and the processing module is specifically configured to: repeatedly transmit the user data to the receiving UE according to the scheduling signaling, according to a transmission pattern indicated by the transmission pattern information, and according to the quantity of times of repeated transmission of the data packet, in a frequency domain position indicated by the frequency domain resource information, in a transmission subframe indicated by the quantity of cycles that can be occupied.
An ophthalmic apparatus comprising: a first optical system that acquires an image of a predetermined region of a subject eye; and a second optical system that includes a catadioptric optical unit (280A2) and that acquires an image of a surrounding portion of the predetermined region. a first optical system that acquires an image of a predetermined region of a subject eye; and a second optical system that includes a catadioptric optical unit (280A2) and that acquires an image of a surrounding portion of the predetermined region.
Method for determining the phosphorus content of an aqueous sample, in particular drainage-water sample, wherein the sample is subjected to thermal-oxidative decomposition and the orthophosphate content of the decomposed sample in aqueous analysis solution is determined photometrically, characterized in that the thermal decomposition is carried out in a single step by catalyzer-free burning of the sample as batch-decomposition in a combustion oven, the resulting combustion gas is removed from the combustion oven in a carrier-gas stream, and the stream of combustion/carrier gas is cooled so as to obtain the aqueous analysis solution as a condensate therefrom.
A toy comprising a rotor, an actuator mechanism, and a launch device, wherein the rotor comprises the actuator mechanism, and wherein the toy comprises the launch device in the form of a cavity, wherein the cavity is configured for receiving the actuator mechanism, and wherein an actuator means can be inserted into a through-going slit opening to cooperate with the actuator mechanism to the effect that a momentum can be transferred from the actuator means to the rotor, whereby the rotor can be rotated and launched from the launch device, characterised in that the toy comprises at least a first toy building element and a second toy building element, of which the first toy building element comprises the launch device, and wherein the first toy building element is provided with one or more of first types of coupling means, and the second toy building element is provided with one or more of second types of coupling means that are geometrically configured complementarily relative to the first type of coupling means, whereby the first and second types of coupling means can be interconnected to form a spatial structure comprising the launch device.
A method of operating an electrochemical cell, the method comprising: introducing an aqueous solution comprising at least one of seawater, brackish water, and brine into an electrochemical cell between an anode and a cathode of the electrochemical cell; applying a current across the anode and the cathode at a voltage sufficient to generate a product compound from the aqueous solution in the electrochemical cell, wherein the current is applied in a pulsed waveform; monitoring at least one parameter selected from the group consisting of the voltage, a concentration of dissolved hydrogen in a product solution generated in the electrochemical cell and a condition of the aqueous solution associated with hydrogen gas production, wherein the condition of the aqueous solution is selected from the group consisting of flow rate, dissolved oxygen concentration, dissolved hydrogen concentration, pH, ORP, and temperature of the aqueous solution being introduced into the electrochemical cell; and reversing polarity of the anode and the cathode in response to the voltage being outside of a range between 0.5 Volts and 4 Volts. introducing an aqueous solution comprising at least one of seawater, brackish water, and brine into an electrochemical cell between an anode and a cathode of the electrochemical cell; applying a current across the anode and the cathode at a voltage sufficient to generate a product compound from the aqueous solution in the electrochemical cell, wherein the current is applied in a pulsed waveform; monitoring at least one parameter selected from the group consisting of the voltage, a concentration of dissolved hydrogen in a product solution generated in the electrochemical cell and a condition of the aqueous solution associated with hydrogen gas production, wherein the condition of the aqueous solution is selected from the group consisting of flow rate, dissolved oxygen concentration, dissolved hydrogen concentration, pH, ORP, and temperature of the aqueous solution being introduced into the electrochemical cell; and reversing polarity of the anode and the cathode in response to the voltage being outside of a range between 0.5 Volts and 4 Volts.
A control pin for controlling the flow of molten metal through a down spout in a casting process, the control pin comprising: a body having an elongated shape, a lower portion insertable in the down spout, and a terminal end, opposite the lower portion, the body comprising: an electrically insulating central core; a heating element disposed around the central core, an intermediate layer surrounding the central core and encasing the heating element, the intermediate layer comprising refractory material; and an outer shell surrounding the intermediate layer, the outer shell comprising layers of reinforcing fabrics embedded in a ceramic matrix. an electrically insulating central core; a heating element disposed around the central core, an intermediate layer surrounding the central core and encasing the heating element, the intermediate layer comprising refractory material; and an outer shell surrounding the intermediate layer, the outer shell comprising layers of reinforcing fabrics embedded in a ceramic matrix.
A wastewater treatment method performed with the use of an aeration tank in which wastewater is contacted with a particulate carrier under an aerobic condition, a total oxidization tank in which the volume of a sludge developed within the aeration tank is reduced, and a solid-liquid separation equipment for the sludge within the total oxidization tank, which method comprises steps of: setting a coefficient of self-oxidization, which is defined as a proportion of the sludge reduced by self-oxidization resulting from cannibalism of the sludge per day relative to the total amount of the sludge within the total oxidization tank, of the sludge flowing into the total oxidization tank to 0.05 (per day) or larger; and adding a coagulant to the total oxidization tank to improve a solid-liquid separability of the sludge within the total oxidization tank. setting a coefficient of self-oxidization, which is defined as a proportion of the sludge reduced by self-oxidization resulting from cannibalism of the sludge per day relative to the total amount of the sludge within the total oxidization tank, of the sludge flowing into the total oxidization tank to 0.05 (per day) or larger; and adding a coagulant to the total oxidization tank to improve a solid-liquid separability of the sludge within the total oxidization tank.
A cooking apparatus comprising: a cooking chamber configured to receive a food item; an infrared lighting unit comprising one or more infrared light sources configured to provide infrared radiation to the food item received in the cooking chamber, the infrared lighting unit being positioned such that the food item is exposed to infrared radiation from the one or more infrared light sources; a shielding unit comprising one or more shielding elements respectively positioned between each of the one or more infrared light sources of the infrared lighting unit and the cooking chamber; a first air guiding unit configured to conduce air flow through the shielding unit; and a second air guiding unit configured to circulate hot air inside the cooking apparatus to heat the food item received inside the cooking chamber. a cooking chamber configured to receive a food item; an infrared lighting unit comprising one or more infrared light sources configured to provide infrared radiation to the food item received in the cooking chamber, the infrared lighting unit being positioned such that the food item is exposed to infrared radiation from the one or more infrared light sources; a shielding unit comprising one or more shielding elements respectively positioned between each of the one or more infrared light sources of the infrared lighting unit and the cooking chamber; a first air guiding unit configured to conduce air flow through the shielding unit; and a second air guiding unit configured to circulate hot air inside the cooking apparatus to heat the food item received inside the cooking chamber.
System for compensating a dimensional change, caused by thermal load on an actuator for adjusting a process fluid flow of a process plant, such as a chemical plant, a food processing plant, a power plant or the like, wherein the actuator comprises a control valve and an actuator drive driving the control valve particularly pneumatically, wherein the system determines a displacement correction for the actuator drive on the basis of a temperature difference between a process temperature, such as the process fluid temperature, and an ambient temperature, such as an actuator drive temperature, characterized in that the determination of the displacement correction is implemented by means of an actuator-specific expansion coefficient, which is detected at least sectionally between the actuator drive and the control valve.
A pressure-containing silo for one or more components (12, 13, 14, 18) on a primary coolant circuit of a nuclear power plant having a nuclear reactor containing fuel assemblies which are cooled by pressurised coolant circulating around the primary coolant circuit, the silo defining a release space which, in the event of a loss-of-coolant accident releasing the pressurised coolant from the one or more components (12, 13, 14, 18) contained therein, receives and contains the released coolant; wherein the silo is formed from plural, substantially identical, stacked and joined modular units, each modular unit having: a concrete body, a metal liner which lines a surface of the concrete body and which is sealed edge-to-edge with the metal liners of neighbouring units to form an inward-facing, pressure-containing skin surrounding the release space, and plural conduits (43, 44, 45) which are aligned with the conduits (43, 44, 45) of neighbouring units and comprise elongate tensioning members for post-stressing the concrete bodies; wherein the conduits of each modular unit extend in three orthogonal directions, such that the elongate tensioning members extend in three orthogonal direction (43, 44, 45) in the aligned conduits. a concrete body, a metal liner which lines a surface of the concrete body and which is sealed edge-to-edge with the metal liners of neighbouring units to form an inward-facing, pressure-containing skin surrounding the release space, and plural conduits (43, 44, 45) which are aligned with the conduits (43, 44, 45) of neighbouring units and comprise elongate tensioning members for post-stressing the concrete bodies; wherein the conduits of each modular unit extend in three orthogonal directions, such that the elongate tensioning members extend in three orthogonal direction (43, 44, 45) in the aligned conduits.
An actuating device for a closing system, such as a bolt for a window or a door, comprising a leaf and a door frame, said device being intended to be installed on said leaf of said window or door, said device comprising a main body and an operating handle, said operating handle being configured to change from a closing position, in which it maintains the leaf closed against the door frame, to an opening position in which the leaf is free with respect to said door frame, the main body having at least a fixing part intended to be secured to the leaf; said handle being mounted for rotation on said fixing part; said device comprising a position sensor and a control member; said control member comprising at least one radio frequency communication mean intended to communicate with a remote terminal in order to transmit to said remote terminal said handle position acquired by said position sensor; said position sensor of said handle being installed within said fixing part, characterized in that the main body includes a removable trimming part intended to be fixed at least partly against the fixing part, the control member comprises at least one radio frequency communication mean ready to receive a delivery acknowledgment from said remote terminal, and in that said control member is secured to said trimming part. said operating handle being configured to change from a closing position, in which it maintains the leaf closed against the door frame, to an opening position in which the leaf is free with respect to said door frame, the main body having at least a fixing part intended to be secured to the leaf; said handle being mounted for rotation on said fixing part; said device comprising a position sensor and a control member; said control member comprising at least one radio frequency communication mean intended to communicate with a remote terminal in order to transmit to said remote terminal said handle position acquired by said position sensor; said position sensor of said handle being installed within said fixing part, characterized in that the main body includes a removable trimming part intended to be fixed at least partly against the fixing part, the control member comprises at least one radio frequency communication mean ready to receive a delivery acknowledgment from said remote terminal, and in that said control member is secured to said trimming part.
A method for guiding a vehicle, the method comprising: collecting location data for the vehicle based on a location-determining receiver associated with the vehicle and deriving therefrom a location data error signal ( y gps) representative of the sensed position and/or heading of the vehicle versus a desired position and/or heading of the vehicle; collecting vision data for the vehicle based on a vision module associated with the vehicle and deriving therefrom a vision data error signal ( y vision) representative of the sensed position and/or heading of the vehicle versus a desired position and/or heading of the vehicle; estimating a quality of the collected location data during an evaluation time window to form location quality data; estimating a quality of the collected vision data during the evaluation time window to form vision quality data; selecting an aggregate mixing ratio α based on the vision quality data and on the location quality data, determining an aggregate error control signal y by applying the following equation y=α x y vis ion + (1- α) x y gps, where y is the aggregate error control signal, α is the aggregate mixing ratio, y vison is the vision error signal and y gps is the location data error signal, and deriving a compensated control signal for controlling a steering system of the vehicle from the aggregate error control signal y. collecting location data for the vehicle based on a location-determining receiver associated with the vehicle and deriving therefrom a location data error signal ( y gps) representative of the sensed position and/or heading of the vehicle versus a desired position and/or heading of the vehicle; collecting vision data for the vehicle based on a vision module associated with the vehicle and deriving therefrom a vision data error signal ( y vision) representative of the sensed position and/or heading of the vehicle versus a desired position and/or heading of the vehicle; estimating a quality of the collected location data during an evaluation time window to form location quality data; estimating a quality of the collected vision data during the evaluation time window to form vision quality data; selecting an aggregate mixing ratio α based on the vision quality data and on the location quality data, determining an aggregate error control signal y by applying the following equation y=α x y vis ion + (1- α) x y gps, where y is the aggregate error control signal, α is the aggregate mixing ratio, y vison is the vision error signal and y gps is the location data error signal, and deriving a compensated control signal for controlling a steering system of the vehicle from the aggregate error control signal y.
Framework provided with a pouch system for the temporary storage and transport of piece goods in flexible pouches of a pouch system, wherein the pouches are confectioned from a strip material, wherein the strip material comprises a knitted fabric, wherein said strip material is multi-layered, characterized in that said strip material comprises three interlinked layers, which layers relate to an upper layer, a middle layer and a lower layer and that said upper layer and said lower layer comprise a flat knitted fabric.
A toothed belt for synchronous transmission comprising a plurality of tooth parts that are disposed at predetermined intervals along the longitudinal direction and comprise a rubber composition as a base material, and a back side that has a cord embedded therein and comprises a rubber composition as a base material, wherein the cord comprises a Lang-twisted carbon fiber and is formed in a diameter of 1.1 mm or more and 2.5 mm or less and the rubber composition constituting the back side has a hardness of from 80 degrees to 89 degrees in JIS-A hardness; characterized in that the rubber composition constituting the tooth parts has a hardness of from 92 degrees to 96 degrees in JIS-A hardness. wherein the cord comprises a Lang-twisted carbon fiber and is formed in a diameter of 1.1 mm or more and 2.5 mm or less and the rubber composition constituting the back side has a hardness of from 80 degrees to 89 degrees in JIS-A hardness; characterized in that the rubber composition constituting the tooth parts has a hardness of from 92 degrees to 96 degrees in JIS-A hardness.
A method of producing nanoparticles in the size range 1 nm to 1000 nm through the synthesis of one or more precursor fluids, the method including providing a fluid medium comprising at least one precursor fluid and generating an electrical spark within said fluid medium to cause pyrolysis of said at least one precursor fluid in a short-lived hot plasma core of the spark, the plasma having a small spatial extent, to produce at least one radical species, and to form nanoparticles by nucleation in the fluid medium in a cooler reaction zone surrounding the plasma core of the spark, wherein said at least one radical species acts as a reactant or catalytic agent in the synthesis of material composing said nanoparticles, wherein the spark is created by an electrical discharge having a frequency between 0.01 Hz and 1 kHz, and has a total energy between 0.01 J and 10 J.