mhurhangee/ep-ind-claims huggingface dataset:
Diagnostic method for an automation system made up of at least a first and a second automation component (1,2), in which the automation components (1,2) are in a physical and/or functional relationship to each other, with the following steps: - Creation of a diagnostic model in which a first model node is assigned to the first automation component and a second model node is assigned to the second automation component, - Creation of a link between the first and second model nodes (6,7) within the diagnostic model which models the physical and/or functional relationship between the first and second automation components (1,2), - Creation of a first status of the first automation component in first status information of the first model node and of a second status of the second automation component in second status information of the second model node in the diagnostic model and - Evaluation of the first and/or second status information (9,10) for determining status information for the automation system, characterised in that the diagnostic model is created automatically for project planning of the automation system performed using an engineering system, wherein the first and/or second model node (6,7) comprises an electronic description of the associated automation component (1,2), and, the individual automation components (1,2) are attached to one another in a hierarchical order and the hierarchical order between the automation components (1,2) is modelled via the link between the corresponding model nodes. - Creation of a diagnostic model in which a first model node is assigned to the first automation component and a second model node is assigned to the second automation component, - Creation of a link between the first and second model nodes (6,7) within the diagnostic model which models the physical and/or functional relationship between the first and second automation components (1,2), - Creation of a first status of the first automation component in first status information of the first model node and of a second status of the second automation component in second status information of the second model node in the diagnostic model and - Evaluation of the first and/or second status information (9,10) for determining status information for the automation system,
Battery system comprising a battery housing having at least two battery housing shells and at least one battery component which is arranged within the battery housing, wherein the first battery housing shell and/or the second battery housing shell has a bottom surface, a first side wall and a second side wall, and also at least two connecting walls which connect the first side wall and the second side wall, wherein the first side wall is higher than the second side wall, and wherein the first side wall is arranged opposite the second side wall, so that an oblique pitch of the battery housing is produced, characterized in that the first side wall has a protrusion at least in sections.
Catheter having a catheter shaft comprising a first tube forming a first lumen and a second tube forming a second lumen and disposed at least partially within the first tube, the second tube being at least partially welded with its outer surface to the inner surface of the first tube, characterized in that the catheter shaft is connected to a connector (20, 40) having at least one conical portion (25, 45) onto which the proximal end of the second tube is slid.
An electroconductive composition comprising: a surface-treated copper powder wherein ascorbic acid or a derivative thereof represented by the following general formula or general formula is adhered to a surface of a copper powder; a binder resin; and a phosphoric acid group-containing dispersant or an acidic group and amino group containing dispersant: in general formula, R1 and R2, each independently, represent a hydrogen atom, or an optionally substituted acyl group, in general formula, R11 and R12, each independently, represent a hydrogen atom, or an optionally substituted alkyl group.
An internal heat exchanger comprising: a sleeve having a thermally conductive spiral profile, a fluid line inlet and a fluid line outlet, an inner tube having an inner tube wall and defining an axial direction, said inner tube defining an inner flow path through said inner tube in said axial direction, said sleeve being arranged around a section of said inner tube; and, said spiral profile being configured to conduct a fluid supplied to said sleeve along a spiral path so as to cause said fluid to be in fluid contact engagement with said inner tube wall, characterized in that an insert configured to divert said flow path from the middle of the inner tube toward the inner tube wall, said insert being arranged in said inner tube in the region of said section of said inner tube where said sleeve is arranged, said insert comprising flow enhancer ribs extending in the axial direction. a sleeve having a thermally conductive spiral profile, a fluid line inlet and a fluid line outlet, a thermally conductive spiral profile, a fluid line inlet and a fluid line outlet, an inner tube having an inner tube wall and defining an axial direction, said inner tube defining an inner flow path through said inner tube in said axial direction, said sleeve being arranged around a section of said inner tube; and, said spiral profile being configured to conduct a fluid supplied to said sleeve along a spiral path so as to cause said fluid to be in fluid contact engagement with said inner tube wall, characterized in that an insert configured to divert said flow path from the middle of the inner tube toward the inner tube wall, said insert being arranged in said inner tube in the region of said section of said inner tube where said sleeve is arranged, said insert comprising flow enhancer ribs extending in the axial direction.
A process for the preparation of an injectable sustained release pharmaceutical composition, comprising the steps of: • combining a gellable somatostatin analog salt and an aqueous acid solution; • lyophilizing the resulting mixture only once; and • hydrating the lyophilizate; wherein the final pH of the composition ranges between pH 5.5 to 6.5, the somatostatin analog is lanreotide, and during the lyophilization step, the temperature of the mixture is • initially reduced from room temperature to a temperature between 1 and 5°C and then retained constant for at least one hour, • further reduced from 1 to 5°C to a temperature less than -30°C over up to 15 minutes and then retained at a constant temperature for at least 2 hours. • combining a gellable somatostatin analog salt and an aqueous acid solution; • lyophilizing the resulting mixture only once; and • hydrating the lyophilizate; • initially reduced from room temperature to a temperature between 1 and 5°C and then retained constant for at least one hour, • further reduced from 1 to 5°C to a temperature less than -30°C over up to 15 minutes and then retained at a constant temperature for at least 2 hours.
A process for generating electricity (e) with a fuel cell, comprising in succession: - a start-up phase of said fuel cell, and - a steady-state operation of said fuel cell, during which said fuel cell, supplied with a hydrogen-containing gas (G'), generates electricity (e) and heat, characterized in that, for its start-up, said fuel cell is supplied with a hydrogen-containing gas, containing at least 70% by volume of hydrogen, generated by self-sustaining combustion of at least one solid pyrotechnic charge that generates hydrogen-containing gas; and in that, during its steady-state operation, said fuel cell is supplied with a hydrogen-containing gas (G'), containing at least 85% by volume of hydrogen, generated by thermal decomposition of at least one solid charge that generates hydrogen-containing gas; a portion (q 1) of the heat produced by said fuel cell in operation being transferred to said at least one solid charge for starting and maintaining the thermal decomposition thereof. - a start-up phase of said fuel cell, and - a steady-state operation of said fuel cell, during which said fuel cell, supplied with a hydrogen-containing gas (G'), generates electricity (e) and heat,
A communication apparatus comprising: near field wireless communication means for storing information in a memory of the near field wireless communication means, for receiving a read request from an external apparatus and for receiving a write request from the external apparatus, wherein in a case where the read request is received from the external apparatus, communication parameters of the communication apparatus in the memory are read by the external apparatus; wireless communication means for allowing a longer field wireless communication than a wireless communication using the near field wireless communication means with the external apparatus which read the communication parameters; reading means for reading write information which has been written to the memory, the write information being written if the near field wireless communication means receives the write request from the external apparatus after the communication parameters are read by the external apparatus; setting means for setting a communication mode using the wireless communication means in accordance with the read write information; and update means for updating the memory from a state that the write information is stored in the memory to a state that the communication parameters, which had been stored by the memory before the near field wireless communication means received the write request from the external apparatus, are stored in the memory. near field wireless communication means for storing information in a memory of the near field wireless communication means, for receiving a read request from an external apparatus and for receiving a write request from the external apparatus, wherein in a case where the read request is received from the external apparatus, communication parameters of the communication apparatus in the memory are read by the external apparatus; wireless communication means for allowing a longer field wireless communication than a wireless communication using the near field wireless communication means with the external apparatus which read the communication parameters; reading means for reading write information which has been written to the memory, the write information being written if the near field wireless communication means receives the write request from the external apparatus after the communication parameters are read by the external apparatus; setting means for setting a communication mode using the wireless communication means in accordance with the read write information; and update means for updating the memory from a state that the write information is stored in the memory to a state that the communication parameters, which had been stored by the memory before the near field wireless communication means received the write request from the external apparatus, are stored in the memory.
A robot cleaner comprising: a main body; and a driving unit configured to move the main body, wherein the driving unit comprises: a plurality of motors (150, 160) configured to generate driving forces; and a driving wheel configured to rotate when receiving a driving force transferred from any one of the plurality of motors (150, 160); characterized in that the robot cleaner is further comprising: a wheel frame configured to rotatably support the driving wheel and configured to rotate to change a position of the driving wheel when receiving a driving force transferred from another one of the plurality of the motors, wherein the plurality of motors comprises a first driving motor configured to rotate the driving wheel and a second driving motor configured to rotate the wheel frame; and a current sensor configured to measure an electric current flowing through the second driving motor, wherein the current sensor detects whether the driving wheel is in contact with a floor when the wheel frame rotates. a main body; and a driving unit configured to move the main body, wherein the driving unit comprises: a plurality of motors (150, 160) configured to generate driving forces; and a driving wheel configured to rotate when receiving a driving force transferred from any one of the plurality of motors (150, 160); a plurality of motors (150, 160) configured to generate driving forces; and a driving wheel configured to rotate when receiving a driving force transferred from any one of the plurality of motors (150, 160); characterized in that the robot cleaner is further comprising: a wheel frame configured to rotatably support the driving wheel and configured to rotate to change a position of the driving wheel when receiving a driving force transferred from another one of the plurality of the motors, wherein the plurality of motors comprises a first driving motor configured to rotate the driving wheel and a second driving motor configured to rotate the wheel frame; and a current sensor configured to measure an electric current flowing through the second driving motor, a wheel frame configured to rotatably support the driving wheel and configured to rotate to change a position of the driving wheel when receiving a driving force transferred from another one of the plurality of the motors, wherein the plurality of motors comprises a first driving motor configured to rotate the driving wheel and a second driving motor configured to rotate the wheel frame; and a current sensor configured to measure an electric current flowing through the second driving motor, wherein the current sensor detects whether the driving wheel is in contact with a floor when the wheel frame rotates.
A hydrostatic assembly comprising: a housing; a pivot axis; 1 st and 2 nd hydraulic piston drive units (10, 20), each drive unit comprising: a cylinder block (24, 26) with ports, pistons within the cylinders in the cylinder block, and a drive shaft (12, 22) mounted to the housing, wherein the drive shafts of 1 st and 2 nd hydraulic piston drive units are coupled together; common means for simultaneously adjusting displacement of the 1 st and 2 nd hydraulic piston drive units, the common means mounted on the pivot axis and capable of rotation; the assembly characterized by a 3 rd hydraulic piston drive unit comprising: a cylinder block with ports, pistons within the cylinders in the cylinder block, and a drive shaft mounted to the housing; 2 nd means for adjusting displacement of the 3 rd hydraulic piston drive unit, the 2 nd means mounted on the pivot axis and capable of rotation independently of the common means; at least one fluid passage fluidly connecting the ports of the cylinder blocks in the 1 st and 2 nd hydraulic drive units to the ports of the cylinder block in the 3 rd hydraulic drive unit. a housing; a pivot axis; 1 st and 2 nd hydraulic piston drive units (10, 20), each drive unit comprising: a cylinder block (24, 26) with ports, pistons within the cylinders in the cylinder block, and a drive shaft (12, 22) mounted to the housing, wherein the drive shafts of 1 st and 2 nd hydraulic piston drive units are coupled together; a cylinder block (24, 26) with ports, pistons within the cylinders in the cylinder block, and a drive shaft (12, 22) mounted to the housing, wherein the drive shafts of 1 st and 2 nd hydraulic piston drive units are coupled together; common means for simultaneously adjusting displacement of the 1 st and 2 nd hydraulic piston drive units, the common means mounted on the pivot axis and capable of rotation; the assembly characterized by a 3 rd hydraulic piston drive unit comprising: a cylinder block with ports, pistons within the cylinders in the cylinder block, and a drive shaft mounted to the housing; a cylinder block with ports, pistons within the cylinders in the cylinder block, and a drive shaft mounted to the housing; 2 nd means for adjusting displacement of the 3 rd hydraulic piston drive unit, the 2 nd means mounted on the pivot axis and capable of rotation independently of the common means; at least one fluid passage fluidly connecting the ports of the cylinder blocks in the 1 st and 2 nd hydraulic drive units to the ports of the cylinder block in the 3 rd hydraulic drive unit.
Mounting system mountable on a bicycle luggage carrier, comprising a clamping system for clamping on the bicycle luggage carrier and a carrier coupling part mountable on the clamping system and configured to cooperate with a corresponding luggage coupling part of a bicycle accessory, wherein the clamping system comprises at least two clamping sets, each clamping set including two clamps, wherein each clamp comprises: a clamping hook (6", 7") having a shoulder and an arm (6a", 7a") forming a receiving space to receive a longitudinal rod of the bicycle luggage carrier; a clamping block; and a clamping bolt which is rotatably arranged in the clamping hook (6", 7") and which slidably connects the clamping block with the clamping hook (6", 7"); wherein the clamping block is provided with a bore through which the clamping bolt extends and the bore is of such a size that the clamping block can only translate in a longitudinal direction of the clamping bolt and is prevented from movement in any other direction. a clamping hook (6", 7") having a shoulder and an arm (6a", 7a") forming a receiving space to receive a longitudinal rod of the bicycle luggage carrier; a clamping block; and a clamping bolt which is rotatably arranged in the clamping hook (6", 7") and which slidably connects the clamping block with the clamping hook (6", 7"); wherein the clamping block is provided with a bore through which the clamping bolt extends and the bore is of such a size that the clamping block can only translate in a longitudinal direction of the clamping bolt and is prevented from movement in any other direction.
A treatment planning system for a radiotherapy apparatus comprising a computational processor applying a set of instructions to an input data set, the input data set comprising i. a clinician prescription setting out a three-dimensional dose distribution within a volume to be irradiated which is to be achieved by the radiotherapy apparatus, ii. a three-dimensional volume image characterising the tissue types within the volume to be irradiated, and iii. a set of process parameters which characterise a radiotherapy delivery process; iv. the set of instructions including a computational process arranged to output a treatment plan apt to deliver the dose distribution when implemented by the delivery process, by optimising a function that includes at least one part representing a time-dependent response of the tissue types to the dose distribution delivered by the treatment plan. i. a clinician prescription setting out a three-dimensional dose distribution within a volume to be irradiated which is to be achieved by the radiotherapy apparatus, ii. a three-dimensional volume image characterising the tissue types within the volume to be irradiated, and iii. a set of process parameters which characterise a radiotherapy delivery process; iv. the set of instructions including a computational process arranged to output a treatment plan apt to deliver the dose distribution when implemented by the delivery process, by optimising a function that includes at least one part representing a time-dependent response of the tissue types to the dose distribution delivered by the treatment plan.
A banknote accommodating device, comprising a box body, a box door, and a banknote inlet, a switching member and a pair of pressing roller components (3,4) being provided at the banknote inlet, the switching member being configured to selectively rotate to open or close the banknote inlet under the control of a control signal, and the pair of pressing roller components (3,4) being configured to convey a banknote into the banknote accommodating device in a state that the banknote inlet is open, wherein, a movable guide plate is provided in the box body, and is arranged below the banknote inlet through a rotating shaft, the rotating shaft is fixedly mounted to a side wall of the box body, a guide surface of the movable guide plate faces the banknote inlet, and an included angle formed between the guide surface of the movable guide plate and a vertical direction ranges from 0 degree to 20 degrees, an elastic element is provided on a back surface of the guide surface of the movable guide plate, and the elastic element is configured to provide a thrust to the movable guide plate to allow the movable guide plate to rotate counterclockwise; characterised in that the box door is provided with an inclined guide rib which forms an included angle of 30 degrees with respect to the vertical direction, and an inclined stacking surface is provided at the bottom of the box body and forms an included angle of 45 degrees with respect to a horizontal direction, and a space for stacking banknotes vertically is formed between the guide surface of the movable guide plate, the guide rib of the box door and the stacking surface at the bottom of the box body; wherein, when the banknote accommodating device is in use, a front end of a banknote rests on the inclined stacking surface at the bottom of the box body, and the entire sheet of the banknote is stacked against a surface of the guide rib.
A sensor assembly with a position measuring system comprising a series assembly of codes in which the positions of these codes in the position measuring system are coded, and with an optical sensor which is arranged on a unit which can be moved relative to the position measuring system and which is designed to detect the codes of the position measuring system and to determine the positions relative to the position measuring system therefrom, to detect the codes of the position measurement system and to determine therefrom the positions relative to the position measurement system, wherein an acceleration sensor and, if appropriate, a gyroscope are arranged on the unit which is movable relative to the position measurement system, and wherein an evaluation unit is provided which is designed to receive to use signals from the acceleration sensor and/or the gyroscope to generate control signals and/or to increase the accuracy of position values generated by means of the optical sensor, characterised in that the evaluation unit has a fusion unit which is configured to combine position values determined simultaneously in the optical sensor and acceleration signals of the acceleration sensor in order to generate noise-reduced position values, position values p(k T 1) being generated in a cycle Ti, acceleration signals b(k T 2) being generated in a cycle T 2 and noise-reduced position values P(k T 5) being generated in a cycle T 5.